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qsc_code_size_file_byte_quality_signal
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qsc_code_frac_chars_long_word_length
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qsc_code_frac_lines_string_concat
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qsc_code_cate_encoded_data
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qsc_code_frac_chars_hex_words
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qsc_code_frac_lines_prompt_comments
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qsc_code_frac_lines_assert
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qsc_codepython_cate_ast
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qsc_codepython_frac_lines_func_ratio
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qsc_codepython_cate_var_zero
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qsc_codepython_frac_lines_pass
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qsc_codepython_frac_lines_import
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qsc_codepython_frac_lines_print
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effective
string
hits
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0f3658ef326902c5347a0f758c47e22adbd01c01
128
py
Python
src/pytree/binarytree/node/__init__.py
RESPULTE/PyTree
fea511d1414f536a1a523b8b01645ae763083027
[ "MIT" ]
null
null
null
src/pytree/binarytree/node/__init__.py
RESPULTE/PyTree
fea511d1414f536a1a523b8b01645ae763083027
[ "MIT" ]
null
null
null
src/pytree/binarytree/node/__init__.py
RESPULTE/PyTree
fea511d1414f536a1a523b8b01645ae763083027
[ "MIT" ]
null
null
null
from .rbt_node import RBT_Node from .splay_node import Splay_Node from .avl_node import AVL_Node from .bst_node import BST_Node
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Python
test/Base/test_base.py
rustam-azimov/CFPQ_PyAlgo
1f40c300a2dfeded5297ca48d0ddde26cfa8887c
[ "Apache-2.0" ]
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2020-08-16T15:29:32.000Z
2022-01-26T12:45:39.000Z
test/Base/test_base.py
rustam-azimov/CFPQ_PyAlgo
1f40c300a2dfeded5297ca48d0ddde26cfa8887c
[ "Apache-2.0" ]
4
2021-02-10T13:35:54.000Z
2021-06-04T07:14:32.000Z
test/Base/test_base.py
rustam-azimov/CFPQ_PyAlgo
1f40c300a2dfeded5297ca48d0ddde26cfa8887c
[ "Apache-2.0" ]
3
2021-02-23T16:08:38.000Z
2021-12-10T12:47:06.000Z
import pytest from cfpq_data import cfg_from_txt from src.graph.graph import Graph from src.problems.Base.Base import BaseProblem from src.utils.useful_paths import LOCAL_CFPQ_DATA from src.problems.utils import ResultAlgo @pytest.mark.CI def test_binary_tree(algo): test_data_path = LOCAL_CFPQ_DATA.joinpath('binary_tree') base_algo: BaseProblem = algo() graph = Graph.from_txt(test_data_path.joinpath('Graphs/graph_1.txt')) grammar = cfg_from_txt(test_data_path.joinpath('Grammars/g.cfg')) base_algo.prepare(graph, grammar) result: ResultAlgo = base_algo.solve() assert result.matrix_S.nvals == 20 @pytest.mark.CI def test_cycle(algo): test_data_path = LOCAL_CFPQ_DATA.joinpath('cycle') base_algo: BaseProblem = algo() graph = Graph.from_txt(test_data_path.joinpath('Graphs/graph_1.txt')) grammar = cfg_from_txt(test_data_path.joinpath('Grammars/g.cfg')) base_algo.prepare(graph, grammar) result: ResultAlgo = base_algo.solve() assert result.matrix_S.nvals == 9 @pytest.mark.CI def test_line(algo): test_data_path = LOCAL_CFPQ_DATA.joinpath('line') base_algo: BaseProblem = algo() graph = Graph.from_txt(test_data_path.joinpath('Graphs/graph_1.txt')) grammar = cfg_from_txt(test_data_path.joinpath('Grammars/g.cfg')) base_algo.prepare(graph, grammar) result: ResultAlgo = base_algo.solve() assert result.matrix_S.nvals == 2 @pytest.mark.CI def test_loop(algo): test_data_path = LOCAL_CFPQ_DATA.joinpath('loop') base_algo: BaseProblem = algo() graph = Graph.from_txt(test_data_path.joinpath('Graphs/graph_1.txt')) grammar = cfg_from_txt(test_data_path.joinpath('Grammars/g.cfg')) base_algo.prepare(graph, grammar) result: ResultAlgo = base_algo.solve() assert result.matrix_S.nvals == 1 @pytest.mark.CI def test_two_cycles(algo): test_data_path = LOCAL_CFPQ_DATA.joinpath('two_cycles') base_algo: BaseProblem = algo() graph = Graph.from_txt(test_data_path.joinpath('Graphs/graph_1.txt')) grammar = cfg_from_txt(test_data_path.joinpath('Grammars/g.cfg')) base_algo.prepare(graph, grammar) result: ResultAlgo = base_algo.solve() assert result.matrix_S.nvals == 6 @pytest.mark.CI def test_two_nonterm(algo): test_data_path = LOCAL_CFPQ_DATA.joinpath('two_nonterm') base_algo: BaseProblem = algo() graph = Graph.from_txt(test_data_path.joinpath('Graphs/graph_1.txt')) grammar = cfg_from_txt(test_data_path.joinpath('Grammars/g.cfg')) base_algo.prepare(graph, grammar) result: ResultAlgo = base_algo.solve() assert result.matrix_S.nvals == 156
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py
Python
optimization/utility/layers.py
langestefan/5LIL0_lab1_keyword
395d8ba1c44f35883b8127f2c37b1efceb15e50d
[ "MIT" ]
null
null
null
optimization/utility/layers.py
langestefan/5LIL0_lab1_keyword
395d8ba1c44f35883b8127f2c37b1efceb15e50d
[ "MIT" ]
null
null
null
optimization/utility/layers.py
langestefan/5LIL0_lab1_keyword
395d8ba1c44f35883b8127f2c37b1efceb15e50d
[ "MIT" ]
null
null
null
import os import sys import math import torch import torch.nn as nn import torch.nn.functional as F from .quantizers import quantize, wraparound, masking class QConv2d(nn.Conv2d): """ QConv2d simulates the reduced-precision forward pass of nn.Conv2d by quantizing inputs, weights and outputs. Also the weights are extended with masks to allow pruning. Biases are not pruned... """ def __init__(self, in_channels, out_channels, kernel_size, stride=1, padding=0, dilation=1, groups=1, bias=True, verbose=False, **kwargs): # assign keyword attributes to self.__dict__ for attr,val in kwargs.items(): setattr(self, attr, kwargs.get(attr, val)) # set quantization parameters to default value (0) for attr in ['bits_inputs', 'bits_weights', 'bits_accumulator', 'bits_outputs', 'frac_len_inputs', 'frac_len_weights', 'frac_len_outputs']: setattr(self, attr, kwargs.get(attr, 0)) self.fp_groups = ['inputs', 'weights', 'accumulator', 'outputs'] self.quantized_list = [g for g in self.fp_groups if getattr(self, 'bits_' + g) > 0] if verbose and self.quantized_list: print("{}: {{{}}} are quantized!"\ .format(self.name, ", ".join(self.quantized_list))) super().__init__(in_channels, out_channels, kernel_size, stride, padding, dilation, groups, bias) # weight mask. mask is needed to disable weights during inference and training self.register_buffer('mask', torch.ones(out_channels)) def forward(self, x): q_input = quantize(x, self.bits_inputs, self.frac_len_inputs) q_weights = quantize(masking(self.weight, self.mask), self.bits_weights, self.frac_len_weights) q_bias = quantize(self.bias, self.bits_accumulator, self.frac_len_inputs + self.frac_len_weights) acc = F.conv2d(q_input, q_weights, q_bias, self.stride, self.padding, self.dilation, self.groups) out = wraparound(acc, self.bits_accumulator, self.frac_len_inputs + self.frac_len_weights) return quantize(out, self.bits_outputs, self.frac_len_outputs, inplace=True) def __repr__(self): s = "{layer_type} ({in_channels}, {out_channels}" s += ", kernel_size={kernel_size}" s += ", stride={stride}" s += ", padding={padding}" s += ", bits_{quantized_list}={quantized_bits})" return s.format(layer_type=self.__class__.__name__, quantized_bits=[int(getattr(self,'bits_'+g)) for g in self.fp_groups \ if getattr(self,'bits_'+g) > 0], **self.__dict__) class QLinear(nn.Linear): """ QLinear simulates the reduced-precision forward pass of nn.Linear by quantizing inputs, weights and outputs. Also the weights are extended with masks to allow pruning. Biases are not pruned... """ def __init__(self, in_features, out_features, bias=True, verbose=False, **kwargs): # assign keyword attributes to self.__dict__ for attr,val in kwargs.items(): setattr(self, attr, kwargs.get(attr, val)) # set quantization parameters to default value (0) for attr in ['bits_inputs', 'bits_weights', 'bits_accumulator', 'bits_outputs', 'frac_len_inputs', 'frac_len_weights', 'frac_len_outputs']: setattr(self, attr, kwargs.get(attr, 0)) self.fp_groups = ['inputs', 'weights', 'accumulator', 'outputs'] self.quantized_list = [g for g in self.fp_groups if getattr(self, 'bits_' + g) > 0] if verbose and self.quantized_list: print("{}: {{{}}} are quantized!"\ .format(self.name, ", ".join(self.quantized_list))) super().__init__(in_features, out_features, bias) # weight mask. mask is needed to disable weights during inference and training self.register_buffer('mask', torch.ones(out_features)) def forward(self, x): q_input = quantize(x, self.bits_inputs, self.frac_len_inputs) q_weights = quantize(masking(self.weight, self.mask), self.bits_weights, self.frac_len_weights) q_bias = quantize(self.bias, self.bits_accumulator, self.frac_len_inputs + self.frac_len_weights) acc = F.linear(q_input, q_weights, q_bias) out = wraparound(acc, self.bits_accumulator, self.frac_len_inputs + self.frac_len_weights) return quantize(out, self.bits_outputs, self.frac_len_outputs, inplace=True) def __repr__(self): s = "{layer_type} ({in_features}, {out_features}" s += ", bits_{quantized_list}={quantized_bits})" return s.format(layer_type=self.__class__.__name__, quantized_bits=[int(getattr(self,'bits_'+g)) for g in self.fp_groups \ if getattr(self,'bits_'+g) > 0], **self.__dict__)
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7e76e9d3dc6b59e077db6dcfbb944b1e10c21aa0
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py
Python
electric_slide/scripts/algorithm.py
markreynoso/electric_slide
90c34ac4a6f16e9b7eb6fa2ad1112226dcf4769b
[ "MIT" ]
null
null
null
electric_slide/scripts/algorithm.py
markreynoso/electric_slide
90c34ac4a6f16e9b7eb6fa2ad1112226dcf4769b
[ "MIT" ]
14
2017-11-11T02:04:17.000Z
2020-01-06T18:51:47.000Z
electric_slide/scripts/algorithm.py
markreynoso/electric_slide
90c34ac4a6f16e9b7eb6fa2ad1112226dcf4769b
[ "MIT" ]
1
2020-09-06T13:57:25.000Z
2020-09-06T13:57:25.000Z
"""Algorithms for the AI of solving a sliding puzzle.""" from electric_slide.scripts.priority_q import Node, PriorityQ def manhattan_distance(board_state, size=3): """Sum up the manhattan distance of all numbers in the board.""" diff = 0 for y in range(size): for x in range(size): idx = board_state[y][x] - 1 if idx != 8: diff += abs(idx % size - x) + abs(idx // size - y) return diff def a_star(starting_state, heuristic=manhattan_distance): """Find a solution path by exploring possible boards. Based on heuristic value and path length. """ available = PriorityQ() curr = Node(starting_state, None, None) visited = [curr] while heuristic(curr.state): # heuristic is non-zero when unsolved for move in curr.legal_moves(): move_state = curr.board.practice_slide(move) node = Node(move_state, move, curr) value = heuristic(node.state) + len(node.path()) if available.priority(node) is None and node not in visited: available.push(node, value) elif node not in visited: p = available.priority(node) if p > value: available.remove(node, p) available.push(node, value) curr = available.pop() visited.append(curr) return list(reversed(curr.path())) # heuristic is zero, i.e. solved def greedy_pure_search(starting_state, heuristic=manhattan_distance): """Find solution path by exploring possible boards. Based on heuristic value only. """ available = PriorityQ() curr = Node(starting_state, None, None) visited = [curr] while heuristic(curr.state): # heuristic is non-zero when unsolved for move in curr.legal_moves(): move_state = curr.board.practice_slide(move) node = Node(move_state, move, curr) value = heuristic(node.state) if available.priority(node) is None and node not in visited: available.push(node, value) elif node not in visited: p = available.priority(node) if p > value: available.remove(node, p) available.push(node, value) curr = available.pop() visited.append(curr) return list(reversed(curr.path())) # heuristic is zero, i.e. solved
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7e87832ca4666495527f5e3d6fefde9aafc8f940
66
py
Python
Inheritance/Exercises/02. zoo/project/snake.py
geodimitrov/PythonOOP_SoftUni
f1c6718c878b618b3ab3f174cd4d187bd178940b
[ "MIT" ]
1
2021-06-30T11:53:44.000Z
2021-06-30T11:53:44.000Z
Inheritance/Exercises/02. zoo/project/snake.py
geodimitrov/PythonOOP_SoftUni
f1c6718c878b618b3ab3f174cd4d187bd178940b
[ "MIT" ]
null
null
null
Inheritance/Exercises/02. zoo/project/snake.py
geodimitrov/PythonOOP_SoftUni
f1c6718c878b618b3ab3f174cd4d187bd178940b
[ "MIT" ]
null
null
null
from project.reptile import Reptile class Snake(Reptile): pass
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py
Python
tests/mod_ext2/__init__.py
fossabot/extendable
c01f8ffa452df6ce5222244e76f9a6615b7dfc0b
[ "MIT" ]
137
2017-06-08T07:58:53.000Z
2022-01-20T06:29:51.000Z
src/extractor/__init__.py
WhiteRobe/iscopy
41b660dda2765db96e3ae19864610f9773e5eadf
[ "MIT" ]
27
2021-02-05T20:56:05.000Z
2022-03-07T04:11:57.000Z
src/extractor/__init__.py
WhiteRobe/iscopy
41b660dda2765db96e3ae19864610f9773e5eadf
[ "MIT" ]
24
2017-10-12T03:25:00.000Z
2022-01-20T06:29:58.000Z
from . import base
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0e8a7823a31dc54a79b7c4f7e93d976a20c6655b
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py
Python
PythonLearn/opencv/findcontours.py
OKKyu/PythonLearn
48dc4cc2a1a34d99b09f8d37a5566d448dcf987c
[ "MIT" ]
null
null
null
PythonLearn/opencv/findcontours.py
OKKyu/PythonLearn
48dc4cc2a1a34d99b09f8d37a5566d448dcf987c
[ "MIT" ]
null
null
null
PythonLearn/opencv/findcontours.py
OKKyu/PythonLearn
48dc4cc2a1a34d99b09f8d37a5566d448dcf987c
[ "MIT" ]
null
null
null
#! python3 # -*- coding:utf-8 -*- import cv2 import sys, traceback import numpy as np import matplotlib.pyplot as plt def findContours(imgName, drawMode, minArea): try: img = cv2.imread(imgName,cv2.IMREAD_COLOR) if img is None: print("no file reading...") sys.exit(1) dst = cv2.cvtColor(img,cv2.COLOR_BGR2GRAY) adjustImShow("to gray",dst,800,800) ret, dst = cv2.threshold(dst, 50, 255, cv2.THRESH_BINARY) adjustImShow("threshold 1",dst,800,800) contours, hierarcy = cv2.findContours(dst,cv2.RETR_EXTERNAL,cv2.CHAIN_APPROX_NONE) if drawMode == 1: afContours = [] for contour in contours: if cv2.contourArea(contour) > int(minArea): print("contour size: " + str(cv2.contourArea(contour))) afContours.append(contour) img = cv2.drawContours(img,afContours, -1, (0,255,0), 1) else: for contour in contours: if cv2.contourArea(contour) > int(minArea): print("contour size: " + str(cv2.contourArea(contour))) x,y,w,h = cv2.boundingRect(contour) cv2.rectangle(img,(x,y), (x+w,y+h), (0,255,0),5) adjustImShow("result",img,800,800) cv2.waitKey(0) cv2.destroyAllWindows() except Exception as ex: print("Error:", sys.exc_info()[0]) print(sys.exc_info()[1]) def findContoursAdaptive(imgName, drawMode, minArea): try: img = cv2.imread(imgName,cv2.IMREAD_COLOR) if img is None: print("no file reading...") sys.exit(1) gray = cv2.cvtColor(img,cv2.COLOR_BGR2GRAY) adjustImShow("gray",gray,800,800) dst = cv2.adaptiveThreshold(gray,255,cv2.ADAPTIVE_THRESH_GAUSSIAN_C,cv2.THRESH_BINARY,3,3) adjustImShow("dst",dst,800,800) contours, hierarcy = cv2.findContours(dst,cv2.RETR_EXTERNAL,cv2.CHAIN_APPROX_NONE) if drawMode == 1: afContours = [] for contour in contours: if cv2.contourArea(contour) > int(minArea): print("contour size: " + str(cv2.contourArea(contour))) afContours.append(contour) img = cv2.drawContours(img,afContours, -1, (0,255,0), 1) else: for contour in contours: if cv2.contourArea(contour) > int(minArea): print("contour size: " + str(cv2.contourArea(contour))) x,y,w,h = cv2.boundingRect(contour) cv2.rectangle(img,(x,y), (x+w,y+h), (0,255,0),5) adjustImShow("result",img,800,800) cv2.waitKey(0) cv2.destroyAllWindows() except Exception as ex: print("Error:", sys.exc_info()[0]) print(sys.exc_info()[1]) def findContoursInRange(imgName, drawMode, minArea): try: img = cv2.imread(imgName,cv2.IMREAD_COLOR) if img is None: print("no file reading...") sys.exit(1) dst = cv2.cvtColor(img,cv2.COLOR_BGR2GRAY) adjustImShow("to gray",dst,800,800) dst2 = cv2.inRange(dst,0,40) adjustImShow("in range row",dst2,800,800) dst3 = cv2.inRange(dst,210,240) adjustImShow("in range high",dst3,800,800) mix = cv2.bitwise_or(dst2,dst3) adjustImShow("mix",mix,800,800) cv2.imwrite("mix.png",mix) ret, dst = cv2.threshold(dst, 50, 255, cv2.THRESH_BINARY) adjustImShow("threshold 1",dst,800,800) contours, hierarcy = cv2.findContours(dst,cv2.RETR_EXTERNAL,cv2.CHAIN_APPROX_NONE) if drawMode == 1: afContours = [] for contour in contours: if cv2.contourArea(contour) > int(minArea): print("contour size: " + str(cv2.contourArea(contour))) afContours.append(contour) img = cv2.drawContours(img,afContours, -1, (0,255,0), 1) else: for contour in contours: if cv2.contourArea(contour) > int(minArea): print("contour size: " + str(cv2.contourArea(contour))) x,y,w,h = cv2.boundingRect(contour) cv2.rectangle(img,(x,y), (x+w,y+h), (0,255,0),5) adjustImShow("result",img,800,800) cv2.waitKey(0) cv2.destroyAllWindows() except Exception as ex: print("Error:", sys.exc_info()[0]) print(sys.exc_info()[1]) def findContoursHue(imgName, drawMode, minArea, frHue, toHue): try: img = cv2.imread(imgName,cv2.IMREAD_COLOR) if img is None: print("no file reading...") sys.exit(1) #conv bgr to hsv hsv = cv2.cvtColor(img,cv2.COLOR_BGR2HSV) hsv = cv2.GaussianBlur(hsv, (5, 5), 3) hue,Saturation,Value = cv2.split(hsv) # binary transformation (only use H channnel) _ret, img_H1 = cv2.threshold(hue, frHue / 360 * 179, 255, cv2.THRESH_BINARY_INV) _ret, img_H2 = cv2.threshold(hue, toHue / 360 * 179, 255, cv2.THRESH_BINARY_INV) dst = 255 - (img_H2 - img_H1) adjustImShow("dst",dst,800,800) dst = cv2.bitwise_not(dst) adjustImShow("dst",dst,800,800) contours, hierarcy = cv2.findContours(dst,cv2.RETR_EXTERNAL,cv2.CHAIN_APPROX_NONE) if drawMode == 1: afContours = [] for contour in contours: if cv2.contourArea(contour) > int(minArea): print("contour size: " + str(cv2.contourArea(contour))) afContours.append(contour) img = cv2.drawContours(img,afContours, -1, (0,255,0), 1) else: for contour in contours: if cv2.contourArea(contour) > int(minArea): print("contour size: " + str(cv2.contourArea(contour))) x,y,w,h = cv2.boundingRect(contour) cv2.rectangle(img,(x,y), (x+w,y+h), (0,255,0),5) adjustImShow("result",img,800,800) cv2.waitKey(0) cv2.destroyAllWindows() except Exception as ex: print("Error:", sys.exc_info()[0]) print(sys.exc_info()[1]) def findContoursHSV(imgName, drawMode, minArea, frHue, toHue, frSa, toSa, frVal, toVal): try: img = cv2.imread(imgName,cv2.IMREAD_COLOR) if img is None: print("no file reading...") sys.exit(1) #conv bgr to hsv hsv = cv2.cvtColor(img,cv2.COLOR_BGR2HSV) #hsv = cv2.GaussianBlur(hsv, (5, 5), 3) hsv = cv2.medianBlur(hsv,33) adjustImShow("hsv blur",hsv,800,800) hue,Saturation,Value = cv2.split(hsv) # binary transformation (only use H channnel) _ret, img_H1 = cv2.threshold(hue, frHue / 360 * 179, 255, cv2.THRESH_BINARY_INV) _ret, img_H2 = cv2.threshold(hue, toHue / 360 * 179, 255, cv2.THRESH_BINARY_INV) fHue = 255 - (img_H2 - img_H1) fHue = cv2.bitwise_not(fHue) adjustImShow("hue filter",fHue,800,800) _ret, img_S1 = cv2.threshold(Saturation, frSa , 255, cv2.THRESH_BINARY_INV) _ret, img_S2 = cv2.threshold(Saturation, toSa , 255, cv2.THRESH_BINARY_INV) fSa = 255 - (img_S2 - img_S1) fSa = cv2.bitwise_not(fSa) adjustImShow("satulation filter",fSa,800,800) _ret, img_V1 = cv2.threshold(Value, frVal , 255, cv2.THRESH_BINARY_INV) _ret, img_V2 = cv2.threshold(Value, toVal , 255, cv2.THRESH_BINARY_INV) fV = 255 - (img_V2 - img_V1) fV = cv2.bitwise_not(fV) adjustImShow("Value filter",fV,800,800) dst1 = cv2.bitwise_and(fHue,fSa) dst2 = cv2.bitwise_and(fHue,fV) dst = cv2.bitwise_and(dst1,dst2) adjustImShow("dst",dst,800,800) contours, hierarcy = cv2.findContours(dst,cv2.RETR_EXTERNAL,cv2.CHAIN_APPROX_NONE) if drawMode == 1: afContours = [] for contour in contours: if cv2.contourArea(contour) > int(minArea): print("contour size: " + str(cv2.contourArea(contour))) afContours.append(contour) img = cv2.drawContours(img,afContours, -1, (0,255,0), 1) else: for contour in contours: if cv2.contourArea(contour) > int(minArea): print("contour size: " + str(cv2.contourArea(contour))) x,y,w,h = cv2.boundingRect(contour) cv2.rectangle(img,(x,y), (x+w,y+h), (0,255,0),5) adjustImShow("result",img,800,800) cv2.waitKey(0) cv2.destroyAllWindows() except Exception as ex: print("Error:", sys.exc_info()[0]) print(sys.exc_info()[1]) def adjustImShow(wname,img,height,width): cv2.namedWindow(wname, cv2.WINDOW_NORMAL) cv2.resizeWindow(wname,height,width) cv2.imshow(wname,img) #findContoursOrigin(sys.argv[1],sys.argv[2],sys.argv[3]) #gray scale #findContoursGray(sys.argv[1],sys.argv[2],sys.argv[3]) #findContoursAdaptive(sys.argv[1],sys.argv[2],sys.argv[3]) #green 50 ~ 150 #findContoursHue(sys.argv[1],sys.argv[2],sys.argv[3],50,150) #red 0 ~ 60, 300 ~ 360 #findContoursHue(sys.argv[1],sys.argv[2],sys.argv[3],0,60) #findContoursHue(sys.argv[1],sys.argv[2],sys.argv[3],300,360) #brown 20 ~ 50 #findContoursHue(sys.argv[1],sys.argv[2],sys.argv[3],30,70) #findContoursHSV(sys.argv[1],sys.argv[2],sys.argv[3], 50,150, 0,250, 0,255)
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7ec368e9537b26ecd3b5d610321b400312fc1097
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py
Python
dag_executor/Step/__init__.py
GennadiiTurutin/dag_executor
ddc7eab1e0e98753309e245247ac00e465e52ec1
[ "MIT" ]
null
null
null
dag_executor/Step/__init__.py
GennadiiTurutin/dag_executor
ddc7eab1e0e98753309e245247ac00e465e52ec1
[ "MIT" ]
null
null
null
dag_executor/Step/__init__.py
GennadiiTurutin/dag_executor
ddc7eab1e0e98753309e245247ac00e465e52ec1
[ "MIT" ]
null
null
null
from .step import Step
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py
Python
2017/day05.py
gcalmettes/AdventOfCode2017
374347c981b603981b7d0b21dad3fc594b126c82
[ "MIT" ]
1
2021-12-12T22:59:49.000Z
2021-12-12T22:59:49.000Z
2017/day05.py
gcalmettes/AdventOfCode2017
374347c981b603981b7d0b21dad3fc594b126c82
[ "MIT" ]
null
null
null
2017/day05.py
gcalmettes/AdventOfCode2017
374347c981b603981b7d0b21dad3fc594b126c82
[ "MIT" ]
1
2019-12-03T05:37:49.000Z
2019-12-03T05:37:49.000Z
""" http://adventofcode.com/2017/day/5 """ def escapeMaze(numList): count = 1 instructions = numList[:] currentPos = 0 currentJump = instructions[currentPos] nextPos = currentPos+currentJump while ((currentPos>=0) & (currentPos<len(numList))): instructions[currentPos]+=1 #update jump instruction before leaving currentPos = nextPos #go to next pos if ((currentPos<0) | (currentPos>=len(numList))): break currentJump = instructions[currentPos] nextPos = currentPos+currentJump count+=1 return count # part 2 def escapeMaze2(numList): count = 1 instructions = numList[:] currentPos = 0 currentJump = instructions[currentPos] nextPos = currentPos+currentJump while ((currentPos>=0) & (currentPos<len(numList))): if currentJump >=3: offset = (-1) else: offset = 1 instructions[currentPos]+=offset #update jump instruction before leaving currentPos = nextPos #go to next pos if ((currentPos<0) | (currentPos>=len(numList))): break currentJump = instructions[currentPos] nextPos = currentPos+currentJump count+=1 return count if __name__ == "__main__": with open("day05_input.txt", "r") as f: INPUT = [int(line) for line in f] # part 1 print(escapeMaze(INPUT)) # part 2 print(escapeMaze2(INPUT))
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7d2ef170359ccd2d83638d183234b1e8ae50eb54
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py
Python
src/optimizers.py
krypto-i9/static-asl-interpreter
4cfbb92627757273cc0fd6456410a21bee8c1e80
[ "BSD-3-Clause" ]
null
null
null
src/optimizers.py
krypto-i9/static-asl-interpreter
4cfbb92627757273cc0fd6456410a21bee8c1e80
[ "BSD-3-Clause" ]
null
null
null
src/optimizers.py
krypto-i9/static-asl-interpreter
4cfbb92627757273cc0fd6456410a21bee8c1e80
[ "BSD-3-Clause" ]
null
null
null
import torch.optim as optim class Optimizer: def adamW(net, LR): return optim.AdamW(net.parameters(), lr=LR) def adam(net, LR): return optim.Adam(net.parameters(), lr=LR)
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179
py
Python
complexnet/__init__.py
chuanjiangcui/urus-mri-recon
120f8fe000b9c39318dbdede91494a6b42a5edc3
[ "MIT" ]
15
2020-04-08T07:00:31.000Z
2021-12-08T12:01:29.000Z
complexnet/__init__.py
chuanjiangcui/urus-mri-recon
120f8fe000b9c39318dbdede91494a6b42a5edc3
[ "MIT" ]
null
null
null
complexnet/__init__.py
chuanjiangcui/urus-mri-recon
120f8fe000b9c39318dbdede91494a6b42a5edc3
[ "MIT" ]
7
2020-01-14T02:18:51.000Z
2021-10-16T14:26:51.000Z
from .cmplxconv import * from .cmplxdropout import * from .cmplxfc import * from .cmplxmodrelu import * from .cmplxupsample import * from .radialbn2 import * from .zrelu import *
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add11e41faeb057e52f3f2a4a87b144a35d78788
5,445
py
Python
tests/test_keys.py
paulskinau/python-xmlsec
73f74466495969a50ceb1266cef1cc55c8cefe89
[ "MIT" ]
null
null
null
tests/test_keys.py
paulskinau/python-xmlsec
73f74466495969a50ceb1266cef1cc55c8cefe89
[ "MIT" ]
null
null
null
tests/test_keys.py
paulskinau/python-xmlsec
73f74466495969a50ceb1266cef1cc55c8cefe89
[ "MIT" ]
1
2020-01-22T12:37:56.000Z
2020-01-22T12:37:56.000Z
from tests import base import copy import xmlsec consts = xmlsec.constants class TestKeys(base.TestMemoryLeaks): def test_key_from_memory(self): key = xmlsec.Key.from_memory(self.load("rsakey.pem"), format=consts.KeyDataFormatPem) self.assertIsNotNone(key) def test_key_from_memory_with_bad_args(self): with self.assertRaises(TypeError): xmlsec.Key.from_memory(1, format="") def test_key_from_file(self): key = xmlsec.Key.from_file(self.path("rsakey.pem"), format=consts.KeyDataFormatPem) self.assertIsNotNone(key) def test_key_from_file_with_bad_args(self): with self.assertRaises(TypeError): xmlsec.Key.from_file(1, format="") def test_key_from_fileobj(self): with open(self.path("rsakey.pem"), "rb") as fobj: key = xmlsec.Key.from_file(fobj, format=consts.KeyDataFormatPem) self.assertIsNotNone(key) def test_generate(self): key = xmlsec.Key.generate(klass=consts.KeyDataAes, size=256, type=consts.KeyDataTypeSession) self.assertIsNotNone(key) def test_generate_with_bad_args(self): with self.assertRaises(TypeError): xmlsec.Key.generate(klass="", size="", type="") def test_from_binary_file(self): key = xmlsec.Key.from_binary_file(klass=consts.KeyDataDes, filename=self.path("deskey.bin")) self.assertIsNotNone(key) def test_from_binary_file_with_bad_args(self): with self.assertRaises(TypeError): xmlsec.Key.from_binary_file(klass="", filename=1) def test_from_binary_data(self): key = xmlsec.Key.from_binary_data(klass=consts.KeyDataDes, data=self.load("deskey.bin")) self.assertIsNotNone(key) def test_from_binary_data_with_bad_args(self): with self.assertRaises(TypeError): xmlsec.Key.from_binary_data(klass="", data=1) def test_load_cert_from_file(self): key = xmlsec.Key.from_file(self.path("rsakey.pem"), format=consts.KeyDataFormatPem) self.assertIsNotNone(key) key.load_cert_from_file(self.path("rsacert.pem"), format=consts.KeyDataFormatPem) def test_load_cert_from_file_with_bad_args(self): key = xmlsec.Key.from_file(self.path("rsakey.pem"), format=consts.KeyDataFormatPem) self.assertIsNotNone(key) with self.assertRaises(TypeError): key.load_cert_from_file(1, format="") def test_load_cert_from_fileobj(self): key = xmlsec.Key.from_file(self.path("rsakey.pem"), format=consts.KeyDataFormatPem) self.assertIsNotNone(key) with open(self.path("rsacert.pem"), "rb") as fobj: key.load_cert_from_file(fobj, format=consts.KeyDataFormatPem) def test_load_cert_from_memory(self): key = xmlsec.Key.from_file(self.path("rsakey.pem"), format=consts.KeyDataFormatPem) self.assertIsNotNone(key) key.load_cert_from_memory(self.load("rsacert.pem"), format=consts.KeyDataFormatPem) def test_load_cert_from_memory_with_bad_args(self): key = xmlsec.Key.from_file(self.path("rsakey.pem"), format=consts.KeyDataFormatPem) self.assertIsNotNone(key) with self.assertRaises(TypeError): key.load_cert_from_memory(1, format="") def test_name(self): key = xmlsec.Key.from_file(self.path("rsakey.pem"), format=consts.KeyDataFormatPem) self.assertIsNone(key.name) key.name = "rsakey" self.assertEqual("rsakey", key.name) def test_copy(self): key = xmlsec.Key.from_file(self.path("rsakey.pem"), format=consts.KeyDataFormatPem) key2 = copy.copy(key) del key key2.load_cert_from_file(self.path("rsacert.pem"), format=consts.KeyDataFormatPem) class TestKeysManager(base.TestMemoryLeaks): def test_add_key(self): key = xmlsec.Key.from_file(self.path("rsakey.pem"), format=consts.KeyDataFormatPem) mngr = xmlsec.KeysManager() mngr.add_key(key) def test_add_key_with_bad_args(self): mngr = xmlsec.KeysManager() with self.assertRaises(TypeError): mngr.add_key("") def test_load_cert(self): mngr = xmlsec.KeysManager() mngr.add_key(xmlsec.Key.from_file(self.path("rsakey.pem"), format=consts.KeyDataFormatPem)) mngr.load_cert(self.path("rsacert.pem"), format=consts.KeyDataFormatPem, type=consts.KeyDataTypeTrusted) def test_load_cert_with_bad_args(self): mngr = xmlsec.KeysManager() mngr.add_key(xmlsec.Key.from_file(self.path("rsakey.pem"), format=consts.KeyDataFormatPem)) with self.assertRaises(TypeError): mngr.load_cert(1, format="", type="") def test_load_cert_from_memory(self): mngr = xmlsec.KeysManager() mngr.add_key(xmlsec.Key.from_file(self.path("rsakey.pem"), format=consts.KeyDataFormatPem)) mngr.load_cert_from_memory(self.load("rsacert.pem"), format=consts.KeyDataFormatPem, type=consts.KeyDataTypeTrusted) def test_load_cert_from_memory_with_bad_args(self): mngr = xmlsec.KeysManager() mngr.add_key(xmlsec.Key.from_file(self.path("rsakey.pem"), format=consts.KeyDataFormatPem)) with self.assertRaises(TypeError): mngr.load_cert_from_memory(1, format="", type="") def test_load_invalid_key(self): mngr = xmlsec.KeysManager() with self.assertRaises(ValueError): mngr.add_key(xmlsec.Key())
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6
bc36742cc2b9937c14f5192d9caa87c5dc94e7b8
47
py
Python
components/wifi_provisioning/python/security/__init__.py
chenqy2018/esp-va-sdk
2196a16586ded4186161fefba2113b6cacf7eaf7
[ "MIT-0" ]
null
null
null
components/wifi_provisioning/python/security/__init__.py
chenqy2018/esp-va-sdk
2196a16586ded4186161fefba2113b6cacf7eaf7
[ "MIT-0" ]
null
null
null
components/wifi_provisioning/python/security/__init__.py
chenqy2018/esp-va-sdk
2196a16586ded4186161fefba2113b6cacf7eaf7
[ "MIT-0" ]
null
null
null
from security1 import* from security0 import*
11.75
22
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47
6.333333
0.666667
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47
3
23
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6
bc374a288c5ea00dcd7d8cec0773aa960caa84b9
49
py
Python
movieknight/models/__init__.py
nfearnley/MovieKnight
cc88050b03c1e759580e3ded3c27e3efbf4925e2
[ "MIT" ]
null
null
null
movieknight/models/__init__.py
nfearnley/MovieKnight
cc88050b03c1e759580e3ded3c27e3efbf4925e2
[ "MIT" ]
null
null
null
movieknight/models/__init__.py
nfearnley/MovieKnight
cc88050b03c1e759580e3ded3c27e3efbf4925e2
[ "MIT" ]
null
null
null
from .base import Base from .movies import Movie
16.333333
25
0.795918
8
49
4.875
0.625
0
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0.163265
49
2
26
24.5
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0
0
0
1
0
1
0
1
0
0
6
70b9974d571374d6c2afa99505427daa8bece968
34
py
Python
CrashCourse/cOOP/hellom/some_file.py
atabaksahraei/Python-for-Developer
6972b7c9a500312ce6a359817feb5f8461391078
[ "MIT" ]
null
null
null
CrashCourse/cOOP/hellom/some_file.py
atabaksahraei/Python-for-Developer
6972b7c9a500312ce6a359817feb5f8461391078
[ "MIT" ]
null
null
null
CrashCourse/cOOP/hellom/some_file.py
atabaksahraei/Python-for-Developer
6972b7c9a500312ce6a359817feb5f8461391078
[ "MIT" ]
null
null
null
def f(): print("Function f()")
17
25
0.529412
5
34
3.6
0.8
0
0
0
0
0
0
0
0
0
0
0
0.205882
34
2
25
17
0.666667
0
0
0
0
0
0.342857
0
0
0
0
0
0
1
0.5
true
0
0
0
0.5
0.5
1
1
0
null
0
0
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0
0
0
0
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1
0
0
0
0
0
0
0
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0
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null
0
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0
0
1
1
0
0
0
0
1
0
6
cb3294d55ab8fbc69ce8a5e0e842d89f85e36e54
37
py
Python
EditSQL/error_detector.py
Deliangus/MISP
8632b5ea120f8385825a08eb930232d3ea74c426
[ "MIT" ]
54
2019-10-07T03:36:25.000Z
2021-12-27T02:11:11.000Z
EditSQL/error_detector.py
Deliangus/MISP
8632b5ea120f8385825a08eb930232d3ea74c426
[ "MIT" ]
1
2021-08-13T07:48:15.000Z
2021-08-31T01:30:12.000Z
EditSQL/error_detector.py
Deliangus/MISP
8632b5ea120f8385825a08eb930232d3ea74c426
[ "MIT" ]
4
2020-01-29T17:38:28.000Z
2021-12-10T19:09:37.000Z
from MISP_SQL.error_detector import *
37
37
0.864865
6
37
5
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0.081081
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1
37
37
0.882353
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true
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0
1
0
1
0
1
0
0
6
cb3b7bae2cca4101addd6ae05591bf5c287803ae
191
py
Python
tests/net/hostname.py
dem4ply/chibi
1f13db8200e8e60bbb839436d4c995d6b6220957
[ "WTFPL" ]
null
null
null
tests/net/hostname.py
dem4ply/chibi
1f13db8200e8e60bbb839436d4c995d6b6220957
[ "WTFPL" ]
null
null
null
tests/net/hostname.py
dem4ply/chibi
1f13db8200e8e60bbb839436d4c995d6b6220957
[ "WTFPL" ]
null
null
null
from unittest import TestCase from chibi.net.hostname import get_hostname class Test_get_hostname( TestCase ): def test_get_hostname( self ): self.assertTrue( get_hostname() )
21.222222
43
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25
191
5.52
0.52
0.318841
0.217391
0
0
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0
0
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0
0
0.17801
191
8
44
23.875
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6
cb3e5a12fe5c42944b24233700cbdb1bc282e359
37,349
py
Python
scripts/feature_ablation_study.py
rpo19/BLINK
a9b62d08aa3ce4958e9bec62888c67c4eee18533
[ "MIT" ]
null
null
null
scripts/feature_ablation_study.py
rpo19/BLINK
a9b62d08aa3ce4958e9bec62888c67c4eee18533
[ "MIT" ]
null
null
null
scripts/feature_ablation_study.py
rpo19/BLINK
a9b62d08aa3ce4958e9bec62888c67c4eee18533
[ "MIT" ]
null
null
null
import pandas as pd import numpy as np from sklearn.preprocessing import StandardScaler from sklearn.linear_model import LogisticRegression from sklearn.model_selection import train_test_split from sklearn.pipeline import make_pipeline from sklearn.metrics import f1_score import pickle from sklearn.metrics import classification_report, roc_curve import os import matplotlib.pyplot as plt import seaborn as sns import sys only = None if len(sys.argv) >= 2: only = sys.argv[1].split(',') print('Only', only) sns.set(style='ticks', palette='Set2') sns.despine() def myplot(y, y_pred, y_pred_round, title, outpath): plt.figure() df = pd.DataFrame({ 'y': y, 'y_pred': y_pred, 'y_pred_rnd': y_pred_round }) # kde df[['y', 'y_pred']].plot(kind='kde', title=title+'_kde') plt.tight_layout(pad=0.5) plt.savefig(os.path.join(outpath, title+'_kde.png')) plt.close() # roc curve fpr, tpr, thresholds = roc_curve(df['y'], df['y_pred']) plt.figure() pd.DataFrame({ 'tpr': tpr, 'fpr': fpr, 'thresholds': thresholds }).plot(x='fpr', y='tpr', title=title+'_roc') plt.tight_layout(pad=0.5) plt.savefig(os.path.join(outpath, title+'_roc.png')) plt.close() # correct correct = df.query('y == y_pred_rnd')['y_pred'].rename('correct') plt.figure() correct.plot(kind='kde', title=title+'_kde', legend=True) plt.tight_layout(pad=0.5) # plt.savefig(os.path.join(outpath, title+'_kde_correct.png')) # plt.close() # errors errors = df.query('y != y_pred_rnd')['y_pred'].rename('errors') # plt.figure() # errors.plot(kind='density', title=title+'errors kde') errors.plot(kind='density', title=title+'kde', legend=True) plt.tight_layout(pad=0.5) # plt.savefig(os.path.join(outpath, title+'_kde_errors.png')) plt.savefig(os.path.join(outpath, title+'_kde_correct_errors.png')) plt.close() plt.close('all') outpath = 'output/feature_ablation_study' os.makedirs(outpath, exist_ok=True) print('loading dataset...') dataset = pd.read_pickle('./data/nil_dataset.pickle') print('loaded...') tasks = [ { 'name': 'aida_under_cross_max', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', ] }, { 'name': 'aida_under_all_max', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'bi_stats_10_max', ] }, { 'name': 'aida_all_max', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'no', 'features': [ 'cross_stats_10_max', 'bi_stats_10_max', ] }, { 'name': 'aida_under_all_max_levenshtein', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'bi_stats_10_max', 'cross_levenshtein' # no bi levenshtein ] }, { 'name': 'aida_under_all_max_jaccard', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'bi_stats_10_max', 'cross_jaccard' # no bi levenshtein ] }, { 'name': 'aida_under_cross_max_jaccard', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'cross_jaccard' # no bi levenshtein ] }, { 'name': 'aida_under_all_max_stdev4', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'cross_stats_4_stdev', 'bi_stats_10_max', 'bi_stats_4_stdev', ] }, { 'name': 'aida_under_all_max_stdev10', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'cross_stats_10_stdev', 'bi_stats_10_max', 'bi_stats_10_stdev', ] }, { 'name': 'aida_under_all_max_stats10', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'cross_stats_10_mean', 'cross_stats_10_median', 'cross_stats_10_stdev', 'bi_stats_10_max', 'bi_stats_10_mean', 'bi_stats_10_median', 'bi_stats_10_stdev', ] }, { 'name': 'aida_under_all_max_ner_wiki', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'bi_stats_10_max', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_cross', 'wiki_loc_cross', 'wiki_org_cross', 'wiki_misc_cross', ] }, { 'name': 'aida_under_all_max_ner_wiki_stdev4', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'cross_stats_4_stdev', 'bi_stats_10_max', 'bi_stats_4_stdev', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_cross', 'wiki_loc_cross', 'wiki_org_cross', 'wiki_misc_cross', ] }, { 'name': 'aida_under_all_max_ner_wiki_stdev4_levenshtein', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'cross_stats_4_stdev', 'bi_stats_10_max', 'bi_stats_4_stdev', 'cross_levenshtein', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_cross', 'wiki_loc_cross', 'wiki_org_cross', 'wiki_misc_cross', ] }, { 'name': 'aida_under_all_max_ner_wiki_levenshtein', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'bi_stats_10_max', 'cross_levenshtein', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_cross', 'wiki_loc_cross', 'wiki_org_cross', 'wiki_misc_cross', ] }, { 'name': 'aida_under_all_max_ner_wiki_jaccard', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'bi_stats_10_max', 'cross_jaccard', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_cross', 'wiki_loc_cross', 'wiki_org_cross', 'wiki_misc_cross', ] }, { 'name': 'aida_under_all_max_ner_wiki_levenshtein_jaccard', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'bi_stats_10_max', 'cross_levenshtein', 'cross_jaccard', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_cross', 'wiki_loc_cross', 'wiki_org_cross', 'wiki_misc_cross', ] }, { 'name': 'aida_under_all_max_levenshtein_jaccard', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'bi_stats_10_max', 'cross_levenshtein', 'cross_jaccard' # no bi levenshtein ] }, { 'name': 'aida_under_all_max_stdev4_levenshtein', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'cross_stats_4_stdev', 'bi_stats_10_max', 'bi_stats_4_stdev', 'cross_levenshtein' ] }, { 'name': 'aida_under_all_max_stdev4_jaccard', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'cross_stats_4_stdev', 'bi_stats_10_max', 'bi_stats_4_stdev', 'cross_jaccard' ] }, { 'name': 'aida_under_all_max_stdev4_levenshtein_jaccard', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'cross_stats_4_stdev', 'bi_stats_10_max', 'bi_stats_4_stdev', 'cross_levenshtein', 'cross_jaccard' ] }, { 'name': 'aida_under_all_max_stats10_levenshtein', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'cross_stats_10_mean', 'cross_stats_10_median', 'cross_stats_10_stdev', 'bi_stats_10_max', 'bi_stats_10_mean', 'bi_stats_10_median', 'bi_stats_10_stdev', 'cross_levenshtein' ] }, { 'name': 'aida_under_all_max_stats10_jaccard', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'cross_stats_10_mean', 'cross_stats_10_median', 'cross_stats_10_stdev', 'bi_stats_10_max', 'bi_stats_10_mean', 'bi_stats_10_median', 'bi_stats_10_stdev', 'cross_jaccard' ] }, { 'name': 'aida_under_all_max_stats10_levenshtein_jaccard', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'cross_stats_10_mean', 'cross_stats_10_median', 'cross_stats_10_stdev', 'bi_stats_10_max', 'bi_stats_10_mean', 'bi_stats_10_median', 'bi_stats_10_stdev', 'cross_levenshtein', 'cross_jaccard' ] }, { 'name': 'aida_under_all_max_stats10_levenshtein_ner_wiki', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'cross_stats_10_mean', 'cross_stats_10_median', 'cross_stats_10_stdev', 'bi_stats_10_max', 'bi_stats_10_mean', 'bi_stats_10_median', 'bi_stats_10_stdev', 'cross_levenshtein', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_cross', 'wiki_loc_cross', 'wiki_org_cross', 'wiki_misc_cross', ] }, { 'name': 'aida_under_all_max_stats10_ner_wiki', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'cross_stats_10_mean', 'cross_stats_10_median', 'cross_stats_10_stdev', 'bi_stats_10_max', 'bi_stats_10_mean', 'bi_stats_10_median', 'bi_stats_10_stdev', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_cross', 'wiki_loc_cross', 'wiki_org_cross', 'wiki_misc_cross', ] }, { 'name': 'aida_all_max_stats10_ner_wiki', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'no', 'features': [ 'cross_stats_10_max', 'cross_stats_10_mean', 'cross_stats_10_median', 'cross_stats_10_stdev', 'bi_stats_10_max', 'bi_stats_10_mean', 'bi_stats_10_median', 'bi_stats_10_stdev', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_cross', 'wiki_loc_cross', 'wiki_org_cross', 'wiki_misc_cross', ] }, { 'name': 'aida_under_cross_max_stats10_ner_wiki', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'cross_stats_10_mean', 'cross_stats_10_median', 'cross_stats_10_stdev', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_cross', 'wiki_loc_cross', 'wiki_org_cross', 'wiki_misc_cross', ] }, { 'name': 'aida_under_all_max_stats10_ner_wiki_jaccard', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'cross_stats_10_max', 'cross_stats_10_mean', 'cross_stats_10_median', 'cross_stats_10_stdev', 'bi_stats_10_max', 'bi_stats_10_mean', 'bi_stats_10_median', 'bi_stats_10_stdev', 'cross_jaccard', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_cross', 'wiki_loc_cross', 'wiki_org_cross', 'wiki_misc_cross', ] }, ################## bi { 'name': 'aida_under_bi_max', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_levenshtein', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_levenshtein' # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_jaccard', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_jaccard' # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_stdev4', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_stats_4_stdev', # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_stdev10', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_stats_10_stdev', # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_stats10', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_stats_10_mean', 'bi_stats_10_median', 'bi_stats_10_stdev', # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_ner_wiki', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_bi', 'wiki_loc_bi', 'wiki_org_bi', 'wiki_misc_bi', # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_ner_wiki_stdev4', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_stats_4_stdev', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_bi', 'wiki_loc_bi', 'wiki_org_bi', 'wiki_misc_bi', # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_ner_wiki_levenshtein', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_levenshtein', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_bi', 'wiki_loc_bi', 'wiki_org_bi', 'wiki_misc_bi', # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_ner_wiki_jaccard', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_jaccard', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_bi', 'wiki_loc_bi', 'wiki_org_bi', 'wiki_misc_bi', # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_ner_wiki_levenshtein_jaccard', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_levenshtein', 'bi_jaccard', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_bi', 'wiki_loc_bi', 'wiki_org_bi', 'wiki_misc_bi', # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_levenshtein_jaccard', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_levenshtein', 'bi_jaccard', # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_stdev4_levenshtein', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_stats_4_stdev', 'bi_levenshtein', # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_stdev4_jaccard', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_stats_4_stdev', 'bi_jaccard', # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_stdev4_levenshtein_jaccard', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_stats_4_stdev', 'bi_levenshtein', 'bi_jaccard' # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_stats10_levenshtein', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_stats_10_mean', 'bi_stats_10_median', 'bi_stats_10_stdev', 'bi_levenshtein' # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_stats10_jaccard', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_stats_10_mean', 'bi_stats_10_median', 'bi_stats_10_stdev', 'bi_jaccard' # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_stats10_levenshtein_jaccard', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_stats_10_mean', 'bi_stats_10_median', 'bi_stats_10_stdev', 'bi_levenshtein', 'bi_jaccard' # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_stats10_levenshtein_ner_wiki', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_stats_10_mean', 'bi_stats_10_median', 'bi_stats_10_stdev', 'bi_levenshtein', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_bi', 'wiki_loc_bi', 'wiki_org_bi', 'wiki_misc_bi', # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_stats10_jaccard_ner_wiki', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_stats_10_mean', 'bi_stats_10_median', 'bi_stats_10_stdev', 'bi_jaccard', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_bi', 'wiki_loc_bi', 'wiki_org_bi', 'wiki_misc_bi', # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_stdev4_levenshtein_ner_wiki', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_stats_4_stdev', 'bi_levenshtein', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_bi', 'wiki_loc_bi', 'wiki_org_bi', 'wiki_misc_bi', # no cross levenshtein ], 'y': 'y_bi', }, { 'name': 'aida_under_bi_max_stats10_ner_wiki', 'train': ['AIDA-YAGO2_train_ner'], 'test': ['AIDA-YAGO2_testa_ner', 'AIDA-YAGO2_testb_ner'], 'sampling': 'undersample', 'features': [ 'bi_stats_10_max', 'bi_stats_10_mean', 'bi_stats_10_median', 'bi_stats_10_stdev', 'ner_per', 'ner_loc', 'ner_org', 'ner_misc', 'wiki_per_bi', 'wiki_loc_bi', 'wiki_org_bi', 'wiki_misc_bi', # no cross levenshtein ], 'y': 'y_bi', }, ] # assert no duplicates vc = pd.DataFrame([task['name'] for task in tasks]).value_counts() if not (vc <= 1).all(): print('!' * 30) print('Duplicates:') print('!' * 30) print(vc[vc > 1]) raise Exception('duplicate task!') csv_report = pd.DataFrame() if only is not None: tasks = [t for t in tasks if t['name'] in only] current_report = None if os.path.isfile(os.path.join(outpath, 'feature_ablation_summary.csv')): current_report = pd.read_csv(os.path.join(outpath, 'feature_ablation_summary.csv'), index_col=0) for task in tasks: print('-'*30) print(task['name']) if current_report is not None and task['name'] in current_report.index: print('skipping yeah....') continue y_whom = 'y_cross' if 'y' in task: y_whom = task['y'] train_df = dataset[dataset['src'].isin(task['train'])] if isinstance(task['test'], list): test_df = dataset[dataset['src'].isin(task['test'])] elif isinstance(task['test'], float): train_df, test_df = train_test_split(train_df, test_size = task['test'], random_state = 1234) else: raise Exception() train_df_shape_original = train_df.shape[0] test_df_shape_original = test_df.shape[0] train_df = train_df[train_df[task['features']].notna().all(axis=1)] test_df = test_df[test_df[task['features']].notna().all(axis=1)] train_df_shape_notna = train_df.shape[0] test_df_shape_notna = test_df.shape[0] if task['sampling'] == 'undersample': print('undersampling...') train_df_0 = train_df.query(f'{y_whom} == 0') train_df_1 = train_df.query(f'{y_whom} == 1') train_df_1 = train_df_1.sample(frac=1).iloc[:train_df_0.shape[0]] train_df = pd.concat([train_df_0, train_df_1]).sample(frac=1) elif task['sampling'] == 'no': pass else: raise Exception() train_df_shape_actual = train_df.shape[0] test_df_shape_actual = test_df.shape[0] df_size_report = pd.DataFrame({ 'train': [train_df_shape_original, train_df_shape_notna, train_df_shape_actual], 'test': [test_df_shape_original, test_df_shape_notna, test_df_shape_actual] }, index=['original', 'notna', 'actual']).to_markdown() print(df_size_report) print(pd.DataFrame(train_df[y_whom].value_counts()).to_markdown()) X_train = train_df[task['features']].values y_train = train_df[y_whom].values X_test = test_df[task['features']].values y_test = test_df[y_whom].values # model clf = make_pipeline( StandardScaler(), LogisticRegression(random_state=1234, max_iter=200) ) clf.fit(X_train, y_train) y_pred = np.array(list(map(lambda x: x[1], clf.predict_proba(X_test)))) y_pred_round = np.round(y_pred) test_df['y_pred_round'] = y_pred_round test_df['y_pred'] = y_pred bi_baseline = test_df.query('bi_labels == bi_best_candidate or Wikipedia_title == bi_best_candidate_title').shape[0] cross_baseline = test_df.query('cross_labels == cross_best_candidate or Wikipedia_title == cross_best_candidate_title').shape[0] bi_acc = test_df.query('(y_pred_round == 1 and (bi_labels == bi_best_candidate or Wikipedia_title == bi_best_candidate_title)) or (bi_labels == -1 and y_pred_round == 0)').shape[0] cross_acc = test_df.query('(y_pred_round == 1 and (cross_labels == cross_best_candidate or Wikipedia_title == cross_best_candidate_title)) or (cross_labels == -1 and y_pred_round == 0)').shape[0] bi_acc_correcting_nel = test_df.query( '(y_pred_round == 1 and (bi_labels == bi_best_candidate or Wikipedia_title == bi_best_candidate_title))' ' or (bi_labels != bi_best_candidate and y_pred_round == 0)').shape[0] cross_acc_correcting_nel = test_df.query( '(y_pred_round == 1 and ' '(cross_labels == cross_best_candidate or Wikipedia_title == cross_best_candidate_title))' ' or (cross_labels != cross_best_candidate and y_pred_round == 0)').shape[0] _classification_report = classification_report(y_test, y_pred_round) # oracle corrects in [0.25, 0.75] # TODO maybe look for a better way to get them (e.g. correct-error kde intersections ?) tl = 0.25 th = 0.75 oracle_df = pd.DataFrame({ 'y_test': y_test, 'y_pred': y_pred, 'y_pred_round': y_pred_round }) oracle_original_shape = oracle_df.shape[0] oracle_df = oracle_df.query(f'y_pred <= {tl} or y_pred >= {th}') _classification_report_oracle = classification_report(oracle_df['y_test'], oracle_df['y_pred_round']) test_df_oracle = test_df.query(f'y_pred <= {tl} or y_pred >= {th}') bi_acc_oracle = test_df_oracle.query('(y_pred_round == 1 and (bi_labels == bi_best_candidate or Wikipedia_title == bi_best_candidate_title)) or (bi_labels == -1 and y_pred_round == 0)').shape[0] cross_acc_oracle = test_df_oracle.query('(y_pred_round == 1 and (cross_labels == cross_best_candidate or Wikipedia_title == cross_best_candidate_title)) or (cross_labels == -1 and y_pred_round == 0)').shape[0] _f1_0 = f1_score(y_test, y_pred_round, pos_label=0) _f1_1 = f1_score(y_test, y_pred_round, pos_label=1) _macro_avg_f1 = (_f1_0 + _f1_1) / 2 _f1_0_oracle = f1_score(oracle_df['y_test'], oracle_df['y_pred_round'], pos_label=0) _f1_1_oracle = f1_score(oracle_df['y_test'], oracle_df['y_pred_round'], pos_label=1) _macro_avg_f1_oracle = (_f1_0_oracle + _f1_1_oracle) / 2 csv_report = csv_report.append({ 'name': task['name'], 'bi_baseline': bi_baseline / test_df_shape_actual, 'cross_baseline': cross_baseline / test_df_shape_actual, 'bi_acc': bi_acc / test_df_shape_actual, 'cross_acc': cross_acc / test_df_shape_actual, 'bi_acc_adjusted': bi_acc / test_df_shape_original, 'cross_acc_adjusted': cross_acc / test_df_shape_original, 'bi_acc_correcting_nel': bi_acc_correcting_nel / test_df_shape_actual, 'cross_acc_correcting_nel': cross_acc_correcting_nel / test_df_shape_actual, '0-f1': _f1_0, '1-f1': _f1_1, 'macro-avg-f1': _macro_avg_f1, 'oracle_ratio': 1 - (oracle_df.shape[0] / oracle_original_shape), 'bi_acc_oracle': bi_acc_oracle / test_df_oracle.shape[0], 'cross_acc_oracle': cross_acc_oracle / test_df_oracle.shape[0], '0-f1-oracle': _f1_0_oracle, '1-f1-oracle': _f1_1_oracle, 'macro-avg-f1-oracle': _macro_avg_f1_oracle, }, ignore_index=True) print(_classification_report) print('-- Performances over test set:', task['test'], '--') print('Bi baseline:', bi_baseline / test_df_shape_actual) print('Cross baseline:', cross_baseline / test_df_shape_actual) print('Bi acc:', bi_acc / test_df_shape_actual) print('Cross acc:', cross_acc / test_df_shape_actual) print('Bi acc adjusted:', bi_acc / test_df_shape_original) print('Cross acc adjusted:', cross_acc / test_df_shape_original) print(f'-- Oracle HITL evaluation when y_pred in [{tl}, {th}]') print('Ratio to human validator:', 1 - (oracle_df.shape[0] / oracle_original_shape)) print(_classification_report_oracle) print('Bi acc oracle:', bi_acc_oracle / test_df_oracle.shape[0]) print('Cross acc oracle:', cross_acc_oracle / test_df_oracle.shape[0]) with open(os.path.join(outpath, task['name']+'_report.txt'), 'w') as fd: print(pd.DataFrame(train_df[y_whom].value_counts()).to_markdown(), file=fd) print(df_size_report, file=fd) print(_classification_report, file=fd) print('-- Performances over test set:', task['test'], '--', file=fd) print('Bi baseline:', bi_baseline / test_df_shape_actual, file=fd) print('Cross baseline:', cross_baseline / test_df_shape_actual, file=fd) print('Bi acc:', bi_acc / test_df_shape_actual, file=fd) print('Cross acc:', cross_acc / test_df_shape_actual, file=fd) print('Bi acc adjusted:', bi_acc / test_df_shape_original, file=fd) print('Cross acc adjusted:', cross_acc / test_df_shape_original, file=fd) print(f'-- Oracle HITL evaluation when y_pred in [{tl}, {th}]', file=fd) print('Ratio to human validator:', oracle_df.shape[0] / oracle_original_shape, file=fd) print(_classification_report_oracle, file=fd) print('Bi acc oracle:', bi_acc_oracle / test_df_oracle.shape[0], file=fd) print('Cross acc oracle:', cross_acc_oracle / test_df_oracle.shape[0], file=fd) with open(os.path.join(outpath, task['name']+'_model.pickle'), 'wb') as fd: pickle.dump(clf, fd) myplot(y_test, y_pred, y_pred_round, task['name'], outpath) print('-'*30) # if only is not None: # csv_report_old = pd.read_csv(os.path.join(outpath, 'feature_ablation_summary.csv'), index_col=0) # csv_report_old = csv_report_old[~csv_report_old['name'].isin(csv_report['name'].unique())] # csv_report = pd.concat([csv_report_old, csv_report]) csv_report = csv_report.set_index('name') csv_report = (csv_report*100).round(decimals=1) if current_report is not None: current_report = current_report[~current_report.index.isin(csv_report.index)] csv_report = pd.concat([current_report, csv_report]) csv_report.to_csv(os.path.join(outpath, 'feature_ablation_summary.csv'))
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py
Python
src/pycalc/__init__.py
Tigxy/PyCalc
7ab71a8d249d3afd864b88809ab6ab62c4b23433
[ "MIT" ]
null
null
null
src/pycalc/__init__.py
Tigxy/PyCalc
7ab71a8d249d3afd864b88809ab6ab62c4b23433
[ "MIT" ]
null
null
null
src/pycalc/__init__.py
Tigxy/PyCalc
7ab71a8d249d3afd864b88809ab6ab62c4b23433
[ "MIT" ]
null
null
null
from .calculator import solve
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py
Python
pbrl/competitive/__init__.py
jjccero/rliccd
748bf92a1d9e401172a0d9c435ea75a8e37c6538
[ "MIT" ]
null
null
null
pbrl/competitive/__init__.py
jjccero/rliccd
748bf92a1d9e401172a0d9c435ea75a8e37c6538
[ "MIT" ]
null
null
null
pbrl/competitive/__init__.py
jjccero/rliccd
748bf92a1d9e401172a0d9c435ea75a8e37c6538
[ "MIT" ]
1
2021-10-12T12:43:58.000Z
2021-10-12T12:43:58.000Z
from pbrl.competitive.pbt import CompetitivePBT from pbrl.competitive.runner import CompetitiveRunner
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python/gigasecond/gigasecond.py
Victor-Chinewubeze/algorithms-exercism
34669348762eef69b68a2f43260ab10ac1c4eb2a
[ "MIT" ]
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2020-04-16T23:06:33.000Z
2020-04-16T23:06:33.000Z
python/gigasecond/gigasecond.py
Victor-Chinewubeze/algorithms-exercism
34669348762eef69b68a2f43260ab10ac1c4eb2a
[ "MIT" ]
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2021-05-08T11:46:15.000Z
2021-05-10T19:31:11.000Z
python/gigasecond/gigasecond.py
Victor-Chinewubeze/algorithms-exercism
34669348762eef69b68a2f43260ab10ac1c4eb2a
[ "MIT" ]
1
2020-01-09T16:33:39.000Z
2020-01-09T16:33:39.000Z
from datetime import datetime, timedelta def add(moment): return moment + timedelta(seconds = 1000000000)
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py
Python
icbd/type_analyzer/tests/imports1.py
kmod/icbd
9636564eb3993afa07c6220d589bbd1991923d74
[ "MIT" ]
7
2015-04-06T15:17:13.000Z
2020-10-21T04:57:00.000Z
icbd/type_analyzer/tests/imports1.py
kmod/icbd
9636564eb3993afa07c6220d589bbd1991923d74
[ "MIT" ]
null
null
null
icbd/type_analyzer/tests/imports1.py
kmod/icbd
9636564eb3993afa07c6220d589bbd1991923d74
[ "MIT" ]
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2016-05-16T17:53:08.000Z
2020-11-28T17:18:50.000Z
import import_test import_test.a # e 0 import_test.b # 12 module 'b' import_test.c # 12 module 'c' import_test.dup # 12 int
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py
Python
main.py
mineshpatel1/wordle
14f24adad80078c6caee7cab6920b642ca481e7c
[ "MIT" ]
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null
null
main.py
mineshpatel1/wordle
14f24adad80078c6caee7cab6920b642ca481e7c
[ "MIT" ]
null
null
null
main.py
mineshpatel1/wordle
14f24adad80078c6caee7cab6920b642ca481e7c
[ "MIT" ]
null
null
null
import time from utils import log from web_drivers.nyt_web_driver import NYTWebDriver from web_drivers.quordle_web_driver import QuordleWebDriver if __name__ == '__main__': QuordleWebDriver().play()
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py
Python
autumn/plots/streamlit/__init__.py
malanchak/AuTuMN
0cbd006d1f15da414d02eed44e48bb5c06f0802e
[ "BSD-2-Clause-FreeBSD" ]
null
null
null
autumn/plots/streamlit/__init__.py
malanchak/AuTuMN
0cbd006d1f15da414d02eed44e48bb5c06f0802e
[ "BSD-2-Clause-FreeBSD" ]
null
null
null
autumn/plots/streamlit/__init__.py
malanchak/AuTuMN
0cbd006d1f15da414d02eed44e48bb5c06f0802e
[ "BSD-2-Clause-FreeBSD" ]
null
null
null
from .run_mcmc_plots import run_mcmc_plots from .run_scenario_plots import run_scenario_plots
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py
Python
test/data/__init__.py
davemarr621/interval_tree_1
1624413449e57b7fb5ae8a2de72d2fbd460f19e0
[ "Apache-2.0" ]
488
2015-01-12T18:43:32.000Z
2022-03-30T02:19:50.000Z
test/data/__init__.py
davemarr621/interval_tree_1
1624413449e57b7fb5ae8a2de72d2fbd460f19e0
[ "Apache-2.0" ]
81
2015-01-01T03:13:38.000Z
2022-03-21T22:45:16.000Z
test/data/__init__.py
davemarr621/interval_tree_1
1624413449e57b7fb5ae8a2de72d2fbd460f19e0
[ "Apache-2.0" ]
93
2015-03-09T15:45:30.000Z
2022-03-05T07:27:02.000Z
from . import issue4 from . import issue4_result from . import issue25_orig from . import issue41_orig from . import ivs0 from . import ivs1 from . import ivs1_float_copy_structure from . import ivs2 from . import ivs3
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6
0e15c25639b491a29344473ef417f628072d3f3b
188
py
Python
skeleton/blueprints/default/default.py
jrdiniz/flask-skeleton
9d6c21d4089a0e07757647342c8d6dc55410a2f1
[ "Apache-2.0" ]
1
2020-04-25T03:44:36.000Z
2020-04-25T03:44:36.000Z
skeleton/blueprints/default/default.py
jrdiniz/flask-skeleton
9d6c21d4089a0e07757647342c8d6dc55410a2f1
[ "Apache-2.0" ]
null
null
null
skeleton/blueprints/default/default.py
jrdiniz/flask-skeleton
9d6c21d4089a0e07757647342c8d6dc55410a2f1
[ "Apache-2.0" ]
null
null
null
from flask import render_template from flask import current_app def index(): current_app.logger.info('Logging message from blueprint default') return render_template('index.html')
31.333333
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0.792553
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5.576923
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6
389ebe19dd94fa68ef2e7515b19f60c15072cb88
172
py
Python
checksit/rules/processors.py
cedadev/checksit
e2ef9c7287c2b3bf19cdad6c73ba0c368bb7bf60
[ "BSD-3-Clause" ]
null
null
null
checksit/rules/processors.py
cedadev/checksit
e2ef9c7287c2b3bf19cdad6c73ba0c368bb7bf60
[ "BSD-3-Clause" ]
4
2022-03-31T22:36:01.000Z
2022-03-31T22:41:24.000Z
checksit/rules/processors.py
cedadev/checksit
e2ef9c7287c2b3bf19cdad6c73ba0c368bb7bf60
[ "BSD-3-Clause" ]
null
null
null
import os def lowercase(value): return value.lower() def uppercase(value): return value.upper() def no_extension(value): return os.path.splitext(value)[0]
13.230769
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13
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1
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1
1
0
0
6
38a9d315033f1ff28d9d143724798764d52b7d63
167
py
Python
vitlab/trainer/resnet/base.py
tor4z/ViTLab
7e3d12df71f64a4376eef36e580882c7614f44ad
[ "MIT" ]
null
null
null
vitlab/trainer/resnet/base.py
tor4z/ViTLab
7e3d12df71f64a4376eef36e580882c7614f44ad
[ "MIT" ]
null
null
null
vitlab/trainer/resnet/base.py
tor4z/ViTLab
7e3d12df71f64a4376eef36e580882c7614f44ad
[ "MIT" ]
null
null
null
from ..base import BaseTrainer class ResNetBaseTrainer(BaseTrainer): def __init__(self, opt, device_id=None): super().__init__(opt, device_id=device_id)
23.857143
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5.333333
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0.214286
0.196429
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6
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27.833333
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1
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6
38ae7fd7611632279c027dab1eafdf35b2559414
424
py
Python
bitmovin_api_sdk/encoding/configurations/audio/dolby_digital_plus/__init__.py
bitmovin/bitmovin-api-sdk-python
5a85147669c84b8ca411cf2d4dbdddc92d85bbe7
[ "MIT" ]
11
2019-07-03T10:41:16.000Z
2022-02-25T21:48:06.000Z
bitmovin_api_sdk/encoding/configurations/audio/dolby_digital_plus/__init__.py
bitmovin/bitmovin-api-sdk-python
5a85147669c84b8ca411cf2d4dbdddc92d85bbe7
[ "MIT" ]
8
2019-11-23T00:01:25.000Z
2021-04-29T12:30:31.000Z
bitmovin_api_sdk/encoding/configurations/audio/dolby_digital_plus/__init__.py
bitmovin/bitmovin-api-sdk-python
5a85147669c84b8ca411cf2d4dbdddc92d85bbe7
[ "MIT" ]
13
2020-01-02T14:58:18.000Z
2022-03-26T12:10:30.000Z
from bitmovin_api_sdk.encoding.configurations.audio.dolby_digital_plus.dolby_digital_plus_api import DolbyDigitalPlusApi from bitmovin_api_sdk.encoding.configurations.audio.dolby_digital_plus.customdata.customdata_api import CustomdataApi from bitmovin_api_sdk.encoding.configurations.audio.dolby_digital_plus.dolby_digital_plus_audio_configuration_list_query_params import DolbyDigitalPlusAudioConfigurationListQueryParams
106
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1
0
0
6
38b66f0464504f6f9a7c17905d2954cc86a9411f
3,549
py
Python
tests/test_api/test_infra_downstream.py
mowangdk/huskar
7692fbc5672a5ae6e2a33616c493466a7137f8cd
[ "MIT" ]
59
2019-10-31T10:50:10.000Z
2021-11-26T04:32:25.000Z
tests/test_api/test_infra_downstream.py
mowangdk/huskar
7692fbc5672a5ae6e2a33616c493466a7137f8cd
[ "MIT" ]
5
2019-10-31T10:37:30.000Z
2020-03-02T06:45:46.000Z
tests/test_api/test_infra_downstream.py
mowangdk/huskar
7692fbc5672a5ae6e2a33616c493466a7137f8cd
[ "MIT" ]
9
2019-10-31T10:35:00.000Z
2019-12-01T14:13:58.000Z
from __future__ import absolute_import from huskar_api.models.infra import InfraDownstream from ..utils import assert_response_ok def test_get_infra_downstream(client, test_token): InfraDownstream.bindmany() \ .bind('base.foo', 'redis', 'cache-1', 'idcs', 'alta1', 'url', 'redis.100010') \ .bind('base.foo', 'redis', 'cache-1', 'idcs', 'altb1', 'url', 'redis.100010') \ .bind('base.bar', 'redis', 'cache-1', 'idcs', 'alta1', 'url', 'redis.100010') \ .bind('base.bar', 'redis', 'cache-2', 'idcs', 'alta1', 'url', 'redis.100011') \ .commit() r = client.get('/api/infra-config-downstream/redis.100010', headers={ 'Authorization': test_token}) assert_response_ok(r) downstream = r.json['data']['downstream'] assert len(downstream) == 3 assert downstream[0]['user_application_name'] == 'base.foo' assert downstream[0]['user_infra_type'] == 'redis' assert downstream[0]['user_infra_name'] == 'cache-1' assert downstream[0]['user_scope_pair'] == { 'type': 'idcs', 'name': 'alta1'} assert downstream[0]['user_field_name'] == 'url' assert downstream[1]['user_application_name'] == 'base.foo' assert downstream[1]['user_infra_type'] == 'redis' assert downstream[1]['user_infra_name'] == 'cache-1' assert downstream[1]['user_scope_pair'] == { 'type': 'idcs', 'name': 'altb1'} assert downstream[1]['user_field_name'] == 'url' assert downstream[2]['user_application_name'] == 'base.bar' assert downstream[2]['user_infra_type'] == 'redis' assert downstream[2]['user_infra_name'] == 'cache-1' assert downstream[2]['user_scope_pair'] == { 'type': 'idcs', 'name': 'alta1'} assert downstream[2]['user_field_name'] == 'url' r = client.get('/api/infra-config-downstream/redis.100011', headers={ 'Authorization': test_token}) assert_response_ok(r) downstream = r.json['data']['downstream'] assert len(downstream) == 1 assert downstream[0]['user_application_name'] == 'base.bar' assert downstream[0]['user_infra_type'] == 'redis' assert downstream[0]['user_infra_name'] == 'cache-2' assert downstream[0]['user_scope_pair'] == { 'type': 'idcs', 'name': 'alta1'} assert downstream[0]['user_field_name'] == 'url' InfraDownstream.bind( 'base.baz', 'redis', 'cache-1', 'idcs', 'alta1', 'url', 'redis.100011') InfraDownstream.unbind( 'base.bar', 'redis', 'cache-2', 'idcs', 'alta1', 'url') # Stale data r = client.get('/api/infra-config-downstream/redis.100011', headers={ 'Authorization': test_token}) assert_response_ok(r) downstream = r.json['data']['downstream'] assert len(downstream) == 1 assert downstream[0]['user_application_name'] == 'base.bar' assert downstream[0]['user_infra_name'] == 'cache-2' assert downstream[0]['user_scope_pair'] == { 'type': 'idcs', 'name': 'alta1'} assert downstream[0]['user_field_name'] == 'url' # Fresh data r = client.post('/api/infra-config-downstream/redis.100011', headers={ 'Authorization': test_token}) assert_response_ok(r) downstream = r.json['data']['downstream'] assert len(downstream) == 1 assert downstream[0]['user_application_name'] == 'base.baz' assert downstream[0]['user_infra_name'] == 'cache-1' assert downstream[0]['user_scope_pair'] == { 'type': 'idcs', 'name': 'alta1'} assert downstream[0]['user_field_name'] == 'url'
42.759036
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3,549
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43.280488
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0.013889
false
0
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0
0
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0
0
6
38cd7c28ccbd20d03ddfd14ff358b1df1162784b
26
py
Python
services/ecp/__init__.py
thegreathippo/calamity
a58a42a7dd828159f5730c9b49aa474bce6ee51a
[ "MIT" ]
null
null
null
services/ecp/__init__.py
thegreathippo/calamity
a58a42a7dd828159f5730c9b49aa474bce6ee51a
[ "MIT" ]
null
null
null
services/ecp/__init__.py
thegreathippo/calamity
a58a42a7dd828159f5730c9b49aa474bce6ee51a
[ "MIT" ]
null
null
null
from .core import Cycle
6.5
23
0.730769
4
26
4.75
1
0
0
0
0
0
0
0
0
0
0
0
0.230769
26
3
24
8.666667
0.95
0
0
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0
0
1
0
true
0
1
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1
1
0
null
0
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1
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0
1
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1
0
1
0
0
6
2a07c1166ba9f247be5c82c8448f45e09a57316b
27
py
Python
LPBv2/vision/__init__.py
TierynnB/LeaguePyBot
2e96230b9dc24d185ddc0c6086d79f7d01e7a643
[ "MIT" ]
45
2020-11-28T04:45:45.000Z
2022-03-31T05:53:37.000Z
LPBv2/vision/__init__.py
TierynnB/LeaguePyBot
2e96230b9dc24d185ddc0c6086d79f7d01e7a643
[ "MIT" ]
13
2021-01-15T00:50:10.000Z
2022-02-02T15:16:49.000Z
vision/__init__.py
JackGoldsworth/Vision
084330bec340596167944b623bc7b8d7d9c26b01
[ "MIT" ]
14
2020-12-21T10:03:31.000Z
2021-11-22T04:03:03.000Z
from .vision import Vision
13.5
26
0.814815
4
27
5.5
0.75
0
0
0
0
0
0
0
0
0
0
0
0.148148
27
1
27
27
0.956522
0
0
0
0
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true
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1
0
1
0
1
0
0
6
2a4d905ab1b857b9a0e09f7299b54848c3f98f21
42
py
Python
snowplow_tracker/celery/__init__.py
snowplow/snowplow-python-tracker
67642d247cefc8019a3584e89ae9159cc09b4844
[ "Apache-2.0" ]
33
2015-02-07T12:25:32.000Z
2022-03-08T14:54:51.000Z
snowplow_tracker/celery/__init__.py
snowplow/snowplow-python-tracker
67642d247cefc8019a3584e89ae9159cc09b4844
[ "Apache-2.0" ]
145
2015-01-02T19:15:40.000Z
2022-03-04T16:12:21.000Z
snowplow_tracker/celery/__init__.py
snowplow/snowplow-python-tracker
67642d247cefc8019a3584e89ae9159cc09b4844
[ "Apache-2.0" ]
56
2015-01-02T19:04:20.000Z
2021-11-29T14:29:54.000Z
from .celery_emitter import CeleryEmitter
21
41
0.880952
5
42
7.2
1
0
0
0
0
0
0
0
0
0
0
0
0.095238
42
1
42
42
0.947368
0
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1
0
true
0
1
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1
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1
1
0
null
0
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1
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0
0
1
0
1
0
1
0
0
6
2a5c9e1ea8946830797f9c254bc01f3466041a84
37
py
Python
kalasearch/__init__.py
oeddyo/kalasearch-python-sdk
bbb0cd44bd19d23ee4f1a3ea0aa5599e3e1fd38b
[ "MIT" ]
9
2020-08-19T06:48:25.000Z
2022-02-05T07:24:30.000Z
kalasearch/__init__.py
oeddyo/kalasearch-python-sdk
bbb0cd44bd19d23ee4f1a3ea0aa5599e3e1fd38b
[ "MIT" ]
1
2020-08-24T00:55:32.000Z
2020-08-24T00:55:32.000Z
kalasearch/__init__.py
oeddyo/kalasearch-python-sdk
bbb0cd44bd19d23ee4f1a3ea0aa5599e3e1fd38b
[ "MIT" ]
4
2021-11-09T20:41:13.000Z
2022-03-22T09:13:54.000Z
from kalasearch.client import Client
18.5
36
0.864865
5
37
6.4
0.8
0
0
0
0
0
0
0
0
0
0
0
0.108108
37
1
37
37
0.969697
0
0
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0
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0
true
0
1
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1
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null
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1
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1
0
1
0
0
6
aad8b890f6718df7645a99de7c2debc1cf66c34a
2,861
py
Python
test/common/test_print.py
thatch/BitSwanPump
98a5b8d09f9b59d5361611cee0bd45e7b4c69e3f
[ "BSD-3-Clause" ]
17
2019-02-14T09:26:03.000Z
2022-03-11T09:23:52.000Z
test/common/test_print.py
thatch/BitSwanPump
98a5b8d09f9b59d5361611cee0bd45e7b4c69e3f
[ "BSD-3-Clause" ]
91
2019-05-06T18:59:02.000Z
2022-01-11T06:22:32.000Z
test/common/test_print.py
thatch/BitSwanPump
98a5b8d09f9b59d5361611cee0bd45e7b4c69e3f
[ "BSD-3-Clause" ]
10
2019-04-23T08:48:58.000Z
2022-02-13T14:24:28.000Z
import sys from unittest.mock import patch, call import bspump.common import bspump.unittest class TestPrintSink(bspump.unittest.ProcessorTestCase): @patch('builtins.print') def test_print_sink(self, mocked_print): events = [ (None, "Please, print this to me"), ] self.set_up_processor(bspump.common.PrintSink) output = self.execute( events ) self.assertEqual( mocked_print.mock_calls[1], call("Please, print this to me", file=sys.stdout) ) self.assertEqual( [event for context, event in output], [] ) class TestPPrintSink(bspump.unittest.ProcessorTestCase): @patch('pprint.PrettyPrinter.pprint') def test_pprint_sink(self, mocked_print): event = {"list": ["a", "b"], "dict": {"a": "b"}} events = [ (None, event), ] self.set_up_processor(bspump.common.PPrintSink) output = self.execute( events ) mocked_print.assert_called_with(event) self.assertEqual( [event for context, event in output], [] ) class TestPrintProcessor(bspump.unittest.ProcessorTestCase): @patch('builtins.print') def test_print_processor(self, mocked_print): event = "Please, print this to me" events = [ (None, event), ] self.set_up_processor(bspump.common.PrintProcessor) output = self.execute( events ) self.assertEqual( mocked_print.mock_calls[1], call("Please, print this to me", file=sys.stdout) ) self.assertEqual( [event for context, event in output], [event] ) class TestPPrintProcessor(bspump.unittest.ProcessorTestCase): @patch('pprint.PrettyPrinter.pprint') def test_pprint_processor(self, mocked_print): event = {"list": ["a", "b"], "dict": {"a": "b"}} events = [ (None, event), ] self.set_up_processor(bspump.common.PPrintProcessor) output = self.execute( events ) mocked_print.assert_called_with(event) self.assertEqual( [event for context, event in output], [event] ) class TestPrintContextProcessor(bspump.unittest.ProcessorTestCase): @patch('builtins.print') def test_print_context_processor(self, mocked_print): context = {"context": "dict"} events = [ (context, None), ] self.set_up_processor(bspump.common.PrintContextProcessor) output = self.execute( events ) self.assertEqual( mocked_print.mock_calls[1], call(context, file=sys.stdout) ) self.assertEqual( [event for context, event in output], [] ) class TestPPrintContextProcessor(bspump.unittest.ProcessorTestCase): @patch('pprint.PrettyPrinter.pprint') def test_pprint_context_processor(self, mocked_print): context = {"context": "dict"} events = [ (context, None), ] self.set_up_processor(bspump.common.PPrintContextProcessor) output = self.execute( events ) mocked_print.assert_called_with(context) self.assertEqual( [event for context, event in output], [] )
19.201342
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0.828309
0.789474
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0.774144
0.752172
0.607563
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0.001264
0.17057
2,861
148
69
19.331081
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0.028312
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0.111111
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0.055556
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0.037037
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0.148148
0.203704
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0
0
0
0
0
0
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6
2aea2020577d9626a47302cc418970d241d60219
612
py
Python
erasure/contracts.py
ankitchiplunkar/erasure.py
9b0e24883dbb3db8fe9cf2b4c4fb8cce583442a3
[ "MIT" ]
4
2019-12-17T02:27:44.000Z
2021-05-07T12:26:03.000Z
erasure/contracts.py
ankitchiplunkar/erasure.py
9b0e24883dbb3db8fe9cf2b4c4fb8cce583442a3
[ "MIT" ]
9
2019-12-12T18:47:19.000Z
2019-12-29T21:49:59.000Z
erasure/contracts.py
ankitchiplunkar/erasure.py
9b0e24883dbb3db8fe9cf2b4c4fb8cce583442a3
[ "MIT" ]
null
null
null
CONTRACTS = { 'mainnet': { "v1.2.0": { "FeedFactory": "0xEF078E8330f99186079BE1d2ee6b4a5d6f23E8F1", "ErasureUsers": "0x789D0082B20A929D6fB64EB4c10c68e827AAB7aB" } }, 'rinkeby': { "v1.2.0": { "FeedFactory": "0xDE19C478b2eD51668e36704b2341b81DEBFe2c40", "ErasureUsers": "0xbF7339e68b81a1261FDF46FDBe916cd88f3609c0" } }, 'test': { "v1.2.0": { "FeedFactory": "0x67B5656d60a809915323Bf2C40A8bEF15A152e3e", "ErasureUsers": "0xe78A0F7E598Cc8b0Bb87894B0F60dD2a88d6a8Ab" } } }
29.142857
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0.588235
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612
14.4
0.6
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0.125
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0.373272
0.29085
612
20
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30.6
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6
2af668a233fc8794e7f2220b009ecfc3ad64218d
514
py
Python
temboo/core/Library/Zendesk/Macros/__init__.py
jordanemedlock/psychtruths
52e09033ade9608bd5143129f8a1bfac22d634dd
[ "Apache-2.0" ]
7
2016-03-07T02:07:21.000Z
2022-01-21T02:22:41.000Z
temboo/core/Library/Zendesk/Macros/__init__.py
jordanemedlock/psychtruths
52e09033ade9608bd5143129f8a1bfac22d634dd
[ "Apache-2.0" ]
null
null
null
temboo/core/Library/Zendesk/Macros/__init__.py
jordanemedlock/psychtruths
52e09033ade9608bd5143129f8a1bfac22d634dd
[ "Apache-2.0" ]
8
2016-06-14T06:01:11.000Z
2020-04-22T09:21:44.000Z
from temboo.Library.Zendesk.Macros.ApplyMacroToAllTickets import ApplyMacroToAllTickets, ApplyMacroToAllTicketsInputSet, ApplyMacroToAllTicketsResultSet, ApplyMacroToAllTicketsChoreographyExecution from temboo.Library.Zendesk.Macros.ApplyMacroToTicket import ApplyMacroToTicket, ApplyMacroToTicketInputSet, ApplyMacroToTicketResultSet, ApplyMacroToTicketChoreographyExecution from temboo.Library.Zendesk.Macros.ListMacros import ListMacros, ListMacrosInputSet, ListMacrosResultSet, ListMacrosChoreographyExecution
128.5
197
0.918288
33
514
14.30303
0.545455
0.063559
0.108051
0.152542
0.190678
0
0
0
0
0
0
0
0.040856
514
3
198
171.333333
0.957404
0
0
0
0
0
0
0
0
0
0
0
0
1
0
true
0
1
0
1
0
0
0
1
null
0
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0
0
0
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0
0
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1
0
1
0
0
0
0
0
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0
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null
0
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0
0
0
1
0
1
0
1
0
0
6
2d731ad6536ad67493f492915555d1ec1d48ddb7
3,618
py
Python
openprocurement/tender/core/tests/tender.py
raccoongang/openprocurement.tender.core
9497d4a9f7c0cd4a0c95efad6425d224d5634ddb
[ "Apache-2.0" ]
1
2021-11-18T16:34:33.000Z
2021-11-18T16:34:33.000Z
openprocurement/tender/core/tests/tender.py
raccoongang/openprocurement.tender.core
9497d4a9f7c0cd4a0c95efad6425d224d5634ddb
[ "Apache-2.0" ]
30
2017-03-22T12:16:17.000Z
2018-08-08T04:27:28.000Z
openprocurement/tender/core/tests/tender.py
raccoongang/openprocurement.tender.core
9497d4a9f7c0cd4a0c95efad6425d224d5634ddb
[ "Apache-2.0" ]
13
2017-02-22T15:59:17.000Z
2018-05-11T06:17:28.000Z
# -*- coding: utf-8 -*- import os import unittest from openprocurement.tender.core.tests.base import BaseWebTest class TenderResourceTest(BaseWebTest): relative_to = os.path.dirname(__file__) def test_empty_listing(self): response = self.app.get('/tenders') self.assertEqual(response.status, '200 OK') self.assertEqual(response.content_type, 'application/json') self.assertEqual(response.json['data'], []) self.assertNotIn('{\n "', response.body) self.assertNotIn('callback({', response.body) self.assertEqual(response.json['next_page']['offset'], '') self.assertNotIn('prev_page', response.json) response = self.app.get('/tenders?opt_jsonp=callback') self.assertEqual(response.status, '200 OK') self.assertEqual(response.content_type, 'application/javascript') self.assertNotIn('{\n "', response.body) self.assertIn('callback({', response.body) response = self.app.get('/tenders?opt_pretty=1') self.assertEqual(response.status, '200 OK') self.assertEqual(response.content_type, 'application/json') self.assertIn('{\n "', response.body) self.assertNotIn('callback({', response.body) response = self.app.get('/tenders?opt_jsonp=callback&opt_pretty=1') self.assertEqual(response.status, '200 OK') self.assertEqual(response.content_type, 'application/javascript') self.assertIn('{\n "', response.body) self.assertIn('callback({', response.body) response = self.app.get('/tenders?offset=2015-01-01T00:00:00+02:00&descending=1&limit=10') self.assertEqual(response.status, '200 OK') self.assertEqual(response.content_type, 'application/json') self.assertEqual(response.json['data'], []) self.assertIn('descending=1', response.json['next_page']['uri']) self.assertIn('limit=10', response.json['next_page']['uri']) self.assertNotIn('descending=1', response.json['prev_page']['uri']) self.assertIn('limit=10', response.json['prev_page']['uri']) response = self.app.get('/tenders?feed=changes') self.assertEqual(response.status, '200 OK') self.assertEqual(response.content_type, 'application/json') self.assertEqual(response.json['data'], []) self.assertEqual(response.json['next_page']['offset'], '') self.assertNotIn('prev_page', response.json) response = self.app.get('/tenders?feed=changes&offset=0', status=404) self.assertEqual(response.status, '404 Not Found') self.assertEqual(response.content_type, 'application/json') self.assertEqual(response.json['status'], 'error') self.assertEqual(response.json['errors'], [ {u'description': u'Offset expired/invalid', u'location': u'params', u'name': u'offset'} ]) response = self.app.get('/tenders?feed=changes&descending=1&limit=10') self.assertEqual(response.status, '200 OK') self.assertEqual(response.content_type, 'application/json') self.assertEqual(response.json['data'], []) self.assertIn('descending=1', response.json['next_page']['uri']) self.assertIn('limit=10', response.json['next_page']['uri']) self.assertNotIn('descending=1', response.json['prev_page']['uri']) self.assertIn('limit=10', response.json['prev_page']['uri']) def suite(): suite = unittest.TestSuite() suite.addTest(unittest.makeSuite(TenderResourceTest)) return suite if __name__ == '__main__': unittest.main(defaultTest='suite')
45.797468
99
0.65948
414
3,618
5.669082
0.202899
0.153387
0.235194
0.061355
0.794205
0.783553
0.767363
0.731998
0.68726
0.666809
0
0.022438
0.174682
3,618
79
100
45.797468
0.763563
0.005804
0
0.609375
0
0.015625
0.235539
0.080367
0
0
0
0
0.65625
1
0.03125
false
0
0.046875
0
0.125
0
0
0
0
null
0
1
0
0
1
1
1
0
1
0
0
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null
0
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1
0
0
0
0
0
0
0
0
0
6
2d9145d844f8158bb50dcb034584013c92cf4868
319
py
Python
carsus/io/cmfgen/__init__.py
parikshit14/carsus
3f67e8068829829361d7b1da9020e1fde9dcac2e
[ "BSD-3-Clause" ]
null
null
null
carsus/io/cmfgen/__init__.py
parikshit14/carsus
3f67e8068829829361d7b1da9020e1fde9dcac2e
[ "BSD-3-Clause" ]
null
null
null
carsus/io/cmfgen/__init__.py
parikshit14/carsus
3f67e8068829829361d7b1da9020e1fde9dcac2e
[ "BSD-3-Clause" ]
null
null
null
from carsus.io.cmfgen.base import (CMFGENOscillatorStrengthsParser, CMFGENEnergyLevelsParser, CMFGENCollisionalStrengthsParser, CMFGENPhotoionizationCrossSectionParser) from carsus.io.cmfgen.hdfgen import hdf_dump
63.8
75
0.601881
18
319
10.611111
0.722222
0.104712
0.125654
0.188482
0
0
0
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0
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0
0.363636
319
5
76
63.8
0.940887
0
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true
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0
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1
0
1
0
0
0
0
6
2d9dbbfde8913b3deb37d7bafb11c2b532ddadc7
156,531
py
Python
gluoncv/model_zoo/quantized/quantized.py
ptrendx/gluon-cv
5017de97bffcdf7fd90a0be5cdd3201dc7af769e
[ "Apache-2.0" ]
69
2021-01-22T18:09:15.000Z
2022-03-29T09:38:03.000Z
gluoncv/model_zoo/quantized/quantized.py
ptrendx/gluon-cv
5017de97bffcdf7fd90a0be5cdd3201dc7af769e
[ "Apache-2.0" ]
3
2019-09-03T01:35:15.000Z
2019-11-13T06:28:00.000Z
gluoncv/model_zoo/quantized/quantized.py
ptrendx/gluon-cv
5017de97bffcdf7fd90a0be5cdd3201dc7af769e
[ "Apache-2.0" ]
3
2020-01-10T16:50:08.000Z
2020-11-13T06:59:13.000Z
# pylint: skip-file # pylint: disable=line-too-long """Create quantized model from JSON files...""" import os import warnings import mxnet as mx from mxnet.context import cpu from mxnet.gluon import SymbolBlock from gluoncv.utils.compress_json import get_compressed_model __all__ = ['mobilenet1_0_int8', 'resnet50_v1_int8', 'ssd_300_vgg16_atrous_voc_int8', 'ssd_512_mobilenet1_0_voc_int8', 'ssd_512_resnet50_v1_voc_int8', 'ssd_512_vgg16_atrous_voc_int8', 'fcn_resnet101_voc_int8', 'fcn_resnet101_coco_int8', 'psp_resnet101_voc_int8', 'psp_resnet101_coco_int8', 'deeplab_resnet101_voc_int8', 'deeplab_resnet101_coco_int8'] _compressed_int8_json = { 'fcn_resnet101_voc_int8': b'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', 'fcn_resnet101_coco_int8': 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', 'psp_resnet101_voc_int8': 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', 'deeplab_resnet101_voc_int8': 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', 'psp_resnet101_coco_int8': b'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', 'deeplab_resnet101_coco_int8': b'eJztnU2P5DiSpu/9Kwp5mgGqE+I3ubedGSz2NIfFAntoDAJRldFVicmKzMmPqp4Z9H9fd490o7mcIckluuul3AKFypBCoaC/opGmR/ZS//2nH3548/zx3dOXN//jh7/sNn744b8P/9/t/vhpt+/N87cPH978+MNx5/Pjb0/73e8evz6y3e+fP337ejjHvx12/f37j3one/j54/PXz+9/eviPb4/PX9//19PD7/qVk9Mh7OePX79+3v+R41l3u357/NvDz48fdqf8/Pj8y+G39Vtvu91X/sX9ce+f+8f9Wb9VKqTOnhz48dvXh6//+elwxOO3rx/ffP/R30sf9i/djz/s//u3wU/9moRPT58+PP70u+kePj99eX76+rv6shfo9+7hj6f3v/z6dfiTPzy827fz4WF/rtMP+/Dw4fPDb98+fH35oXrb//GXXx+Pv/kP3v74g3n57x/7h339+Pnxl6eH1//OH+96f2dIrWoi/fT49edfnz9+/q17+OXxt98eFwj1/vn999Z/fN4FwRIVG1Tvp6evdcT7r6fPH+9Ovc/fnp/fP//y8NvT47OouFTF3x8/Sxw/fNl1p3//8O75+TATFOQ8Tovveoc+/PT88Pjz14duWMTifJm6ZI0++VCF+bJ723Vn8yo1Z3/E18/fnk5++sf7r7/uW/X6D396pp8NTrTq+0T74w9/0flbk7+1+Vt3+Fbvv/X5290Z1PcDdv/qw6yd/9SXbz/98vnx0685D+JX5+UKnKRJpUPYhTwNhnwOluF0hZ/3u8nx6++9Q2f+1bGM4wpN+ufd6T9++Pb1/cfneS376x/vCr943rXpR+/ef3j8ejjrP+yv+T+e//buoH9/+vz89OFw0FnmQwd9ePzPXTq4P+hf//l//7/iIc8fH356/7hvyZv/2+vg+Zhvvz389f2Hr0+f94d5++pBv3z++O0gmioe8unx3cin+rJLrt+9fPRdB9f/+KZ3SP+alZPZlwhhee1rv16xF/ZTOpDg6OVKeK3iOQhu63Zz+xUa90/7P/Svuz+0oIUXjy6Pf3v/5fUQffr08sOnP3eueMBf3//t+z3L7rD/9fjhS3nI+O3jb0/PX7/99jLvpuIx3748Pfzy4eNPjx92KcrjQcfvZ7wo6idOp12eTmcOC//z56/vf3+cMxF8fvrwbfRSvdlnP8c79/1vvBn+3KH8WdjWv538/pvHz788UA7QHbKJnWA7oXYC+d6x++MePn/84+HT18/5cM1/48cfdi1Q+x+o3i//+vT47qWN8ayNx/ZVBQ7q5sDhCB2au19RQhwWqSfEYYl6QhxqqijEoQpxUMMiFoiDedt506VT8I5GHEJOe2L+NrF7JH6/pBho0Pn7kKFDWB06vAKMHnb3uLtPDXL3wPMRPByhBEfQIRfhiJeDLroxgcARChNHKEgcoaBxhILHETNGF8ER6+CI0UslOGI2jtA3xRFKx4Z5hIbhEXsdG5QPBUg0Kh8akWhcRgwksbaIy5mEHlaxwCTUW6eS9Sd5FByTUCwlUiwnUiwpUp59HxiWiOx7w4ohDCiYUHhgQsOCCb05MLEbhIRMjGd+INHRy6jwWoVMJjQ8mZgxvAiZWIdMjF4qIRM50ez7Ud49fPr48cMuEgdzzqL2+1/sFamUUs/vHXF/dLFnD864AzPt65Pem/3fogu+S33PfrgfefZJxC6S9p1ud9Tvu6T3pBO9Wlr4SqLKn5MllmymY7JZ6yZqp8jT5y9qJePMAR6dK457z3mUSyw0lVVE4Uhtq4iGk7ahJgZVar7QxcyASsoZ47ALXTS7ndXcZ8MSXs0yXm0zSNLMa6O7PM/vv1/bYjOYpGGxpVISg8WYTlt4ddb0+kGgRTD74NgaanotVwQLGkyPzkhyg99KMBRVaKkgqQaQ1PG6iYeHfly9aIZPzuLluXgkEU9PHRUFgdRQURDINdQUBFIFgdhhEQsIZJcBKR+COflQcAiE1cxoZvzRzPmj2SMN02XsYZj1Z38eQiB+dQTyCsbCZR+Yxp/TFm6tzkYMQJckiWBBg2kIGslq8FuJzj7EKNQc+xDD0En7rsI+bmsc0s6/wI+m6z9wDER7PRuWEYV+NC4jGv7YiJwY/KMlMd99/ON5jbLCw7TSXF3hi1qAVYXtdTnAosKmRZQZ5QpiynzyZjFQ9xfDdPXWhc4rf/KBSq+2UG+jd9GdHjiBps+pGTQMkhsGyS07xjJIbtn6WFIzOLtZ5/kJFjXn7dtavaA+jayTo+64YLCcBELFC2ax4GDOgt5GMFh+1k5B5RVQOdu6CVZ+FSmfY+9pTs9lpQ/v3h0enbsZGZu3KqWrLSvCErazn336+OXrl92MNFgi8eWlB46mfPRrfzG5O7GdprTTlna60s78oha2MxR22uIf0pRGnu7U/Z3WFI60xyVQjj1ptQT0laobrMyz9MgFK/c8baFkn3TIlrPP1x5tgUUN5kopI09i8FsJloUWWip56M1KNqrc31yV+Dx9ePrtj/c7WXep5ey+9fHr1w9Pz08///vv6qfu4eHTh29fhptaWtR+xZqY6kvVpPJnmnnz8uMPceT+5eTPdL2mqd627m2b3rbtbbvetu9th/7fO2tAvwWq3wRlXpcm33LRiw5uVMZjbm5hennm2tDj1rPpxcA8cG3ZL2Jgnri2rSLaI9dtqInxzLV5D1OYAfGU6YI9WY8UzsNkWR5tWSJtmbfJsvzPsvWAbWLf2/xIdv89nofpCGNxqZiBp2Jmc1RM1nC5JFEEC5peBobbuhagmGkGis0YhQSKrctsRi+Z+JgWAxAra7hcOpJY4R9VVBT+UUNF4R/XUFP4RxX+EYdFLPKPTgersPmHY7dZji1j61iC5ViG5dgyto4tY+tYSbpbvyT9FYaFyz4sPPuwsoYLHXJXa7hYbPZhodmHbYJ92GbYx4xRSNjHuuxj9JIJ+1jMPpys4XLxUOJg4MfahtyFMqLQj8ZlRMMfG5ETg3+sLWYdJ1caVrIIQaKOUZ9+sLadXC6XhrCdobQzlnamwk6fl8ZlO1Vhpy25w5wv+LOcLzm5bMnJZbGdXBGX2zh4buM2V7MiTq6LElywqOkljritawHcuGbAzYxhSMDNlYaPVapDq3u3VIPerdEoEO8W+7ob75YX79bFE4qHwXct14l4GHrXtopo8G4bamKwu+Zrl1Q3rOIrL6ByUetrcbsqxUueJdSeZdSepdSe59R5vaS/+MC+zwshHb7HK1468ldcEObhQZjfHAgT89YlmSJY0PRSMNzWtcDBfDMcbMYoJBxsXWgzesmkgGkxAQli3rp0JAkCQKqoKACkhooCQK6hpgCQOgBEDatYLFzSVrvTOyw8AMJeIuLZS0QCu/8KzNUV2EtEgmEAJDIAEhEByIFi4dKPAE8/gti36JC7sm8FbPoRoOlHaIJ+hGbox4xRSOjHuvRj9JIJ/VhMP6LYty4eSiIM/ljb27FQRhT+0biMaABkI3JiEJC1xaxj31J6WMoCBtFvO2ODCyefrG3/Vig5qELp/Vqh5PQKJadXyMsCs52psNOX3gMWSq6sYAv+LV96ZxfVrBxzFDRyo3DJTYQnN3FzdSti4LooxQWLml7qiNu6FtBNbAbdzBiGBN3c3MB1xQrR6gYu3aCBazQKxMDFvu7AwKUPIdjdFOApHZt1cOmzN90D3N7vBW1YRhSC17iMaARvI3JiELy1xaxQxGQupnfqrXZRp5O7bbgipsjuuSMrVoos244s3Y5sCerIlqCObAnqCLkENWFYRBx2msgg4rBjC7eGw3ZDk+Cw6fkiWNT08jDc1sHisNeyBjwcdtJSwWHNVDLpA7sZvWRSybQYhKjbg5DD/9pzcrGxRAkIqSOjgJAqMgoIuYqcAkIqgRA7LGN5ORtjlcN2c0X2zvHIH3sxl1dkLq+UF43+S1IMhHgGQjwiCDnQLFwIouAhiNqcm6sCBJlk59qXyrUMQRQ2BFHQEEQ1AUFUMxBkxjAkEGRdCDJ6yQSCLIYg+qYQxO1rZF5ISMvVIBoGguwFbVhGFAjSuIxoEGQjcmJAkJbEfPfxj+c1qgwP80pzVYYvagHWGLbX5QArDJsWUWaUK4gp88mbxVBd+WEJy0A9uuBPbtJLQP3P6q3ywfQMxJcZg4dUOakeTAyUJwbKVccRXsdQuerYimhSQDiTYJ1nKFjknLdva8WDTulXj6pZPNgYNy+ngVDxglk4OJi1oLcRjJeftVNoeQVazrZuQpZfpcrn5HsSVa60lou7OGdTb73ubBzN2RpayyWVVlNJprSztOpLKq36kvJbgtjOUNipuuJfKi3RknRhMZfD758detgLvZyLxUo/S49esBLQ0xZKCkqH3JV/RUMloa88OcJtHWAiOvycAykVLbRUklGU5Vwm3zwgL+6iTxd36Zpa3OWlNmY0JmRxF/Z1N4u7mNt7ml5qehp67Ho2vxiYB69rGx4Wyojy6LVxGdEevm5ETozHr2uLWcHTFIZlLD6CDc6GiO1pUh1Lp1Xn+IbnG4Fv5NWUdxuJb+SFkl82cJ/ROlxIZuAhmdkcJJNFXi7KG8GippeP4bauBUhmmoFkM4YhgWTrMpzRSyb+psVAxMoiL5P1orHEChCpI6MAkSoyChC5ipwCRCoBkTgsYxmIWB3NSTECHhBR/HZLKb6h+YbhG2zJW6Uc32A164cNPCByoFu4MMTCwxAri73kQ7b/7u7znBEsanq5GG7rWoAhthkYMmMYEhiyLgwZvWQCQxbDECeLvUzWi8YSBwND1nbuLpQRBYY0LiMaDNmInBgwZG0xKxm+0rCUZcNXNMpc7fU/Kxi+lCq9k1up0ku5lYrFvam0V+fFdPleVdrblbxkh5adm7mULxq/Si/8zgUtx3wFDeNEXIzj4DGO21xNixi/Lsp2waKml0Xitq4FjOOawTgzhiHBODd/j/c1y0ere71Ug16v0TAQrxf7uhuvlxev12S9aErxMDRv7bqHhTKi0LzGZUSjeRuRE4PmrS3m8tIm3Q3LWCxtil1wEby0SfMCJs0LmDR3gWnuAtN5taXdRuAbmpU2aY1Y2kRoFpeLeXgu5jfHxcTrdVHeCBY1vXwMt3UtcDHfDBebMQwJF1uX4YxeMilvWgxEgni9JutFY0kQIFJHRgEiVWQUIHIVOQWIVAIialjGstfLGG0MOBCJnHTwN5IYfiNmuAvMsDeSKGM4EIkciEREIHKgW7gwJMDDkCBer3zIXXm9AjYMCdAwJDQBQ0IzMGTGMCQwZF0YMnrJBIYshiFRvF6T9aKxJMLAkLWNIAtlRIEhjcuIBkM2IicGDFlbzDpeL62HpXzl5V5R69P3rDbu9TJFn5UpvbRLmaIvzBR9YSavL8z3ptJeVtPSa9m5f8vYkteL1bH09iJ7vbTCxTgRHuPEzdW0iNfromwXLGp6WSRu61rAOLEZjDNjGBKMc3uv1xXLR6t7vXSDXq/RMBCvF/u6G69XEq/XZL1oSkkwNG/tuoeFMqLQvMZlRKN5G5ETg+atLWaF0iYzLGO5tCmm4E4/FVxpk+V33ZYXMFnuArPcBWb5MtaWL2Nt+TLWFnIZa0KzuFwswXOxtDkuJl6vi/JGsKjp5WO4rWuBi6VmuNiMYUi42LoMZ/SSSXnTYiCiOjF7TRaMBpOdaoJE6ugoTKSOjgJFrqOnUJFKVMQOy1ikIi5qF05utgCpCH+nueXvNLfcCma5Fcx1DIQ4xamI51TEI1KRA+LCJSKU0eAikV0TxfJFh9yV5euYOYIFTj8jA25eC1jkNH+A5iJzxiIBI+uCkfFrJmRkORlR4vyaLFgeThQMGVnbF7JURxQy0rqOaGRkK3pikJG11azk/nLDUpbdX855uyn3lys6r5wp7i06xVzRKebyisN8byjtZVUuvZadO7qcLrm/WGVLby+0+8sCMx2Fz3TU5upcxP91Wc4LFjj9XBK4eU0wHdUO05kxFgnTubkJ7Jp1pdVNYKZBE9h4HIgLjH3dgQvMHILwtjVPen/30agLzORJBafkaS9owzKicL3GZUTDehuRE4PqrS1mhXonP4PoGeWNA3/jl+NVTY5XNXl+V+65P8zzBa49X+Da8QWuHeQC14RoEfnYaUKDiMeOLdwaHdsNUULHpueNYFHTy8dwWweLxl7LHvDI2ElLBYw1U+xkDhBHap1O2ncVIHLbUqcDEDn8rz0TGBtLcCqd1r5bWiijAJEqMgoQuYqcAkQqAZEwLGP5FejBWHOSeeEBEc9fdO75i849t4Z5bg3zkQORxDcsAyLeIgKRA93ChSHItULHFm7N/lUBhmzX/nWeM4JFTS8Xw21dCzAEvEzopKUCQxqDIdULWgSGnM3O+rYr4nTafqchTZeHaBgaclC0YR1RcEjrOqLxkK3oiQFEmlLz3cc/ntcoPXyZXJqrPXyRC7DysMFOB1h42LaKMq1cQ02ZVCpgdp2GNSwi9mRMUCe36yXE/ufurbed8afFiZfZiIdU6dUVBk7OAyfn4eQwTs7jyaJqUlc4E2id5ypYIJ23b2s1hfvxZylH32JRYTkhhAoYzILCwewFvY1g/PysnULPK9BztnUT0vwqZT4n4ZMoc6X1X+LFmZt667TysRvL3Fpa/yUU114Jqri3uFZMKK4VE/JbiPheV9oby3+tuKZL6Errv+zPcH5sVODrvwSsPLT0SAYrEz1toeSi+ZAt56KvPfkCC5veAyXc1gFmpMMPP5By0kJLJStFWfll8l0E8jIw5nQZmK6pZWBeimZGY0JWgWFfd7MKjLm96enleWxLj2LPJhgD8zB2bUvEQhlRnsY2LiPa49iNyInxPHZtMZe7nkw3LGPxkaz10Xbgy8BE/srvyF/5HbkfKnI/VMzLMO82At/Q7HFt1MiPayMuJjPwmMxsDpPJMjAX5Y1gUdPLx3Bb1wIlM81QshnDkFCydSHO6CUT59NiImJlGZjJetFYYgWI1JFRgEgVGQWIXEVOASKVgIgalrEMRDpn4IEIL0yPfF3cxG/EEl8XN/F1cRNfFzfy+vUIWb9+oFu4MMTCwxC7CIbsIdkGl4F5/WNtCIZYbBhioWGIbQKG2GZgyIxhSGDIujBk9JIJDFkMQ5wsAzNdMBpMHAwNWd3Lu1BHFBzSuo5oPGQremIAkdXVrOP/MnpYy7L/S9mgR537Lfm/UvGd3qn4Tu/ki3tDcW9ebpfvTaW9segrS7bk6Uq26P8qviucqlqOSQsay1G4LMfBsxy3ucIW8X9dlvKChU0vk8RtXQswxzUDc2aMQwJzbv/m7ysWkVa3fKkGLV+jYSCWL/Z1N5YvL5av6YLRnOJhmN7a5Q8LZURBeo3LiEb0NiInBtBbW8wKFU7mYpbXvXXB+S6efCq0Cifdsdtu3Sm+ofmG4Rt55aXdhuMbeUWllw28CieCs7hkzMOTMb85MiaWr4vyRrCo6eVjuK1rAYz5ZsDYjGFIwNi6EGf0kkmV02IiEsTyNVkvGkuCAJE6MgoQqSKjAJGryClApBIQscMyFoGIiTG5cPKp8ICI56Qj8I3IN5gZTH9/5PHCQJTiQMRzIOIRgciBbuHCkAAPQ4JYvvIhd2X5CtgwJEDDkNAEDAnNwJAZw5DAkHVhyOglExiyGIZEsXxNF4wGkwhDQ1Y3gyzUEQWHtK4jGg/Zip4YQGR1NStZvtywlmXLV6eiPrnhatzypVXJbqVV6TVeWpXsYVqV7GFa5bWG+d5Q2ssKW3otO7NxHfaeWb54MUtvL7Tly+KynAjPcuLmClvE8nVZygsWNr1MErd1LcCc2AzMmTEOCcy5ueXrmkWk1S1fukHL12gYiOWLfd2N5SuJ5Wu6YDSnJBimt3b5w0IZUZBe4zKiEb2NyIkB9NYWs0KFkx+WsVjhFEKy4eR+G6/CSfE6JsXrmDQ3g2luBtNsUWut2aLWh7NRhZOCXNSa4CwuGUvwZCxtjoyJ5euivBEsanr5GG7rWgBjqRkwNmMYEjC2LsQZvWRS5bSYiKhOPF+TBaPBZKeaIJE6OgoTqaOjQJHr6ClUpBIVCcMylhfCMaZL2K/60tpy3OH4BneEae4I05FTkcQ3LKMi2iJSkQPiwiUilNHgIpFdE8X5RYfclfPrmDmCBU4/IwNuXgtY5DR/gOYic8YiASPrgpHxayZkZDkZUWIAm65YHk8UDBpZ3RuyVEgUNtK8kGhwZDOCYtCR1eWsZAKLw1oWTWA2GRVOErHWTWCmaMAyqri3aBgzRcOYyasP872utJeVuvRadm7sMl3JBMbKW3p7oU1gARjsKHywozZX7CI2sAsTX7DI6eeTwM1rguyodsjOjMFIyM7tvWBXrC6t7gUzDXrBxuNAzGDs627MYEqLG2y6Ynla0TCAb+2qiKU6ovC91nVEw3tb0ROD7q2tZoXapzQsY9kRlnxQ4LVPhlc4GV7hZLhXzHCvmOVrXlu+5rXha14byDWvidQCYzKNj8n05jCZeMIuyx7BAqeflQE3rwlKptuhZDPGIqFkKxOd0Wsm9U/L8YgRZ9hkwfJwYoSOVNJR6EgdHYWOXEdPoSN16IjthmUs0hHvnVIn6RUeHbH8ReiWvwjdcs+Y5Z4x6zkdCXxDMzpiNSIdOaAuYDJi8MmIEWdYPuS+nGEGnIwYbDJi2iAjph0yMmMsEjKyMhkZvWZCRpaTESvOsOmK5fHEwqCR1Q0jS4VEYSPNC4kGRzYjKAYdWV3OOs4wq4a1LDrDfJf89ZYUXsMZZouuLJtKe13RReaKLjKXFynme01pLyt56bXs3O1lY8kZxspcenuRnWG2AwY7Fh/s2M2VvIgz7MLEFyxy+vkkcPOaIDu2HbIzYzASsnN7Z9gVq0yrO8Nsi86w0TgQZxj7uh9nmBNn2HTF8rTiYADf2lURS3VE4Xut64iG97aiJwbdW1vNCrVPeljGcu2TSz6CvyvM8QonxyucHPeMOe4Zc3xVbMdXxXZ8VWwHuSo2kVpgTObwMZnbHCYTZ9hl2SNY4PSzMuDmNUHJXDuUbMZYJJRsZaIzes2k/mk5HvHiDJssWB5OvNCRSjoKHamjo9CR6+gpdKQSHTFz6Ig11oI7wzy789Kevy/dc8+Y554xbxkQ8Y5vdIyO+A6RjhxQFzAZ8fhkxIszLB9yX84wD05GPDYZ8W2QEd8OGZkxFgkZWZmMjF4zISPLyUgQZ9h0xfJ4EmDQyOqGkaVCorCR5oVEgyObERSDjqwuZyVnmB3WsugMcyFqffrJGneG+aIry4fi3qKLzBddZCEvVsz3qtJeVvLSa9m528v7kjOMlbn09kI7wwww2An4YCdsruRFnGEXJr5gkdPPJ4Gb1wTZCe2QnRmDkZCdmzvDrlllWt0Z5lp0ho3GgTjD2Nf9OMOiOMOmK5anlQgD+NauiliqIwrfa11HNLy3FT0x6N7aalaofXLDMhZrn1xUKoE7wwKvcAq8wilwz1jgnrHAV8UOfFXswFfFDpCrYhOpBcZkER+Txc1hMnGGXZY9ggVOPysDbl4TlCy2Q8lmjEVCyVYmOqPXTOqfluORJM6wyYLl4SQJHamko9CROjoKHbmOnkJHKtERPyzjK+vmGKdObrkA6Qh/b3rg702P3DMWuWcsagZEouF0JHI6EhHpyAF1AZORhE9GkjjD8iH35QxL4GQkYZOR1AYZSe2QkRljkZCRlcnI6DUTMrKYjOhOnGHTFaPxZCcbChpZ3TCyVEgUNtK8kGhwZDOCYtCR1eWs5AwLFyMS9dZrb5U5+WSNO8Ni0ZUVXXFv0UUWiy6ymBcr5ntTaS8reem17NztFW3JGcbKXHp7oZ1hHhfsUEKGC3Z2TdxayYs4wy5MfMEip59PAjevBbJzmvtAk505g5GQnds7w65YZVrdGeYbdIaNx4E4w9jX3TjDtBJn2HTF8rSiYADf2lURS3VE4Xut64iG97aiJwbdW1vNCrVP8WKw1711qetcOPlUcLVPiVc4JV7hlLhnLHHPWOKrYie+Knbiq2InyFWxidQCYzKFj8nU5jCZOMMuyx7BAqeflQE3rwlKptqhZDPGIqFkKxOd0Wsm9U/L8YgWZ9hkwfJwooWOVNJR6EgdHYWOXEdPoSOV6EgalrFMR0wM5iT/AqQj/L3pib83PXHPWGKeMdPl5at3G4rTEc/piEekIwfUBUxGND4Z0eIMy4fclTPsmDmCBU4/IwNuXhNkRLdDRmaMRUJGViYjo9dMyMhyMmLEGTZdsTyeGBg0srphZKmQKGykeSHR4MhmBMWgI6vLWccZ5rphLcvOMKOVPkmOGneGma7kyjKdKe4tuchMV3KRmS4vVsz3hsJeXvLSa9mZ2+uw99wZxspcenuhnWEJGOwYfLBjNlfyIs6wCxNfsMjp55PAzWuC7Jh2yM6MwUjIzu2dYVesMq3uDAstOsNG40CcYezrfpxhVpxh0xXL04qFAXxrV0Us1RGF77WuIxre24qeGHRvbTWX1z45NSxjeVXszqh0kmbD1T6ZjlU4mY5XOKmObyi+wVbFNoqtin04m6KzQa6KTaQWGJNZfExmN4fJxBl2WfYIFjj9rAy4eU1QMtsOJZsxFgklW5nojF4zqX9ajkecOMMmC5aHEyd0pJKOQkfq6Ch05Dp6Ch2pREf0DDpirQ0GnI4oy7GH4xuebwS+ETkdSXzDMjqiLCIdOaAuYDLi8MmIE2dYPuS+nGEOnIw4bDLi2iAjrh0yMmMsEjKyMhkZvWZCRpaTES/OsOmK5fHEw6CR1Q0jS4VEYSPNC4kGRzYjKAYdWV3OSs4wM6xl2RmmtO5OvButO8N00ZWlVXFv0UWmiy4ynRcr5ntdaS8reem17NwZpruCM4yXufT2IjvDnAYGOx4f7PjNlbyIM+zCxBcscvr5JHDzmiA7vh2yM2MwErJzc2fYNatMqzvDYovOsNE4EGcY+7ofZ1gQZ9h0xfK0EmAA39pVEUt1ROF7reuIhve2oicG3VtbzQq1T3ZYxmLtU3TGdfHkU8HVPmle4aR5hZPmnjHNPWOGr4pt2KrYh7NR7ZOGXBWbSC0wJgv4mCxsDpOJM+yy7BEscPpZGXDzmqBkoR1KNmMsEkq2MtEZvWZS/7Qcj0Rxhk0WLA8nUehIJR2FjtTRUejIdfQUOlKJjrhhGcvvDAvJqKuVPdWhI4anVcbwDe4ZM9wzZjynI4FvaEZHjEakIwfUBUxGIj4ZieIMy4fclzMsgpORiE1GYhtkJLZDRmaMRUJGViYjo9dMyMhyMpLEGTZdsTyeJBg0srphZKmQKGykeSHR4MhmBMWgI6vLWckZ5oe1fMUZ1nmtTz5Z484wU3RlmVTaa4suMlt0kdm8WDHfa0p7WclLr2Xnbi8TS84wVubS2wvtDHPAYCfhg520uZIXcYZdmPiCRU4/nwRuXhNkJ7VDdmYMRkJ2bu8Mu2KVaXVnWGrRGTYaB+IMY1934wzb/UCcYZMVo2ll91MUwLd2VcRSHVH4Xus6ouG9reiJQffWVrNC7VO4GOx1b4O3KYDXPlle4WR5hZPlnjHLPWOWr4pt+arYlq+KbSFXxSZSi4vJKK3BxWS7H2wNk4kz7LLsESxw+lkZcPNaoGSnOQQ0JZszFgklW5fojF8zqX9ajkeUOMMmC5aHEyV0pJKOQkfq6Ch05Dp6Ch2pREfisIxlZ5hNRoWTTwVHRxy78zKOvzfd8YTLcc+YswyIOMc3OkZHXIdIRw6oC5iMKHwyosQZlg+5K2fYMXMEC5x+RgbcvCbIiGqHjMwYi4SMrExGRq+ZkJHlZESLM2y6Ynk80TBoZHXDyFIhUdhI80KiwZHNCIpBR1aXs5IzLA1rWXSGuZRcd5KIte4Mc0VXlgvFvUUXmSu6yHxerJjvVaW9rOSl17Jzt5fzJWcYK3Pp7YV2hkVgsKPxwY7eXMmLOMMuTHzBIqefTwI3rwmyo9shOzMGIyE7t3eGXbHKtLozTHUNWsPGA0GsYezrfqxhRqxh0xXL84qBIXxrl0Us1REF8LWuIxrf24qeGHhvbTWXFz/5bljGV6xh0aJbwzzPrz0vcfLcNOa5aczzZbE9Xxbb82WxPeSy2IRqgTmZwedkZnOcTKxhl2WPYIHTz8qAm9cEJjPtYLIZY5FgspWJzug1kwKo5XjEijVssmB5OLFCRyrpKHSkjo5CR66jp9CRSnREDctYtoYlb93V6p4q0RH+4nTPX5weuGkscNNY0AyIBMPpSOR0JCLSkQPqAiYjFp+MWLGG5UPuyxpmwcmIxSYjtg0yYtshIzPGIiEjK5OR0WsmZGQ5GXFiDZuuWB5PHAwaWd0xslRIFDbSvJBocGQzgmLQkdXlrGMN83pYy7I1LNjOmmshkjWsYaFoywquuLdoIwtFG1nIqxXzvam0l5W89Fp2bvcKtmQNY2Uuvb3I1jCvgMGOwwc7bnMlL2INuzDxBYucfj4J3LwmyI5rh+zMGIyE7NzeGnbFKtP61jDVojVsNBDEGsa+7sca5sUaNl2xPK94GMK3dlnEUh1RAF/rOqLxva3oiYH31lazQvGTGZaxWPzkje+ut+hTneKnyEucIi9xijzzjtw0Fvm62JGvix35utgRcl1sQrXAnMzjczK/OU4m1rDLskewwOlnZcDNawKT+XYw2YyxSDDZykRn9JpJAdRyPBLEGjZZsDycBKEjlXQUOlJHR6Ej19FT6EglOmKHZSxbw0LyFvytYZG/OT3yN6dHbhqL3DSWOgZEkuJ0xHM64hHpyAF1AZORgE9GgljD8iH3ZQ0L4GQkYJOR0AYZCe2QkRljkZCRlcnI6DUTMrKcjESxhk1XLI8nEQaNrO4YWSokChtpXkg0OLIZQTHoyOpyVrKGuWEti9Ywb6zVJ3lW69awVLRlJVPcW7SRpaKNLOXVivneUNrLSl56LTu3eyVdsoaxMpfeXmhrmAUGOxEf7MTNlbyINezCxBcscvr5JHDzmiA7sR2yM2MwErJzc2vYNatM61vDdIvWsNFAEGsY+7ofa1gSa9h0xfK8kmAI39plEUt1RAF8reuIxve2oicG3ltbzQrFT35YxrI1LNo+sYMrfkq8xCmxEqdd0/mG4htsXWzb8XWxE18XO0Gui02oFpiTJXxOljbHycQadln2CBY4/awMuHlNYLLUDiabMRYJJluZ6IxeMymAWoxHbCfWsMmC0XCyU03oSB0dhY7U0VHoyHX0FDpSiY6EYRnL1jAbXYdtDbOd5djD8Q3PNwLfiJyOJL6RF6Z+2cCjIwfUhUtGKKPBJSO7Joo1jA65K2vYMXMEC5x+RgbcvBbIyGn+AE1G5oxFQkbWJSPj10zIyHIyosQaNl2xPJ4oGDSyumNkqZAobKR5IdHgyGYExaAjq8tZyRoWL0Yk6q3XKZoT80bj1jCr8g0b36uKe0s2MqtKNjKr8mrFfK8r7OUlL72Wndm9DnvPrWGszKW3F9oaFoDBjsIHO2pzJS9iDbsw8QWLnH4+Cdy8JsiOaofszBiMhOzc3hp2xSrT+tYw06A1bDwQxBrGvu7GGma1WMOmK5bnFQ1D+NYui1iqIwrga11HNL63FT0x8N7aalYofkrDMhaLn4JSVoMXPyle4qR4iZOKfIObxjRbF9tqti724WxU/KQg18UmVAvMyTQ+J9Ob42RiDbssewQLnH5WBty8JjCZbgeTzRiLBJOtTHRGr5kUQC3HI0asYZMFy8OJETpSSUehI3V0FDpyHT2FjtShI6EblrG8cI5S3l6t7qkOHdGaYw+eWGluGtPcNKY9pyOBb2hGR7RGpCMH1AVMRgw+GTFiDcuH3Jc1zICTEYNNRkwbZMS0Q0ZmjEVCRlYmI6PXTMjIcjJixRo2XbE8nlgYNLK6Y2SpkChspHkh0eDIZgTFoCOry1nHGhbUsJZFa1g0TrmrrS28hjVMF21ZOpX2mqKNzBRtZCavVsz3mtJeVvLSa9m5NUzHgjWMl7n09iJbw0IHDHYsPtixmyt5EWvYhYkvWOT080ng5jVBdmw7ZGfGYCRk5/bWsCtWmda3htkWrWGjgSDWMPZ1P9YwJ9aw6YrlecXBEL61yyKW6ogC+FrXEY3vbUVPDLy3tpoVip/0xWRvlxeHoIw++VRwxU+GlzgZXuJkuGnMcNOY4etiG74utuHrYhvIdbEJ1QJzMofPydzmOJlYwy7LHsECp5+VATevCUzm2sFkM8YiwWQrE53RayYFUMvxiBdr2GTB8nDihY5U0lHoSB0dhY5cR0+hI5XoiJlBR7xRRp2kV3h0xLI7L2v5m9MtN41ZnnJZy4CIdXyjY3TEdoh05IC6gMmIxycjXqxh+ZD7soZ5cDLiscmIb4OM+HbIyIyxSMjIymRk9JoJGVlORoJYw6YrlseTAINGVneMLBUShY00LyQaHNmMoBh0ZHU5K1nD7LCWRWtYMC6Fk0SsdWuYLdqybCjuLdrIbNFG5vJqxXyvKu1lJS+9lp3bvawvWcNYmUtvL7Q1zACDnYAPdsLmSl7EGnZh4gsWOf18Erh5TZCd0A7ZmTEYCdm5uTXsmlWm9a1hrkVr2GggiDWMfd2PNSyKNWy6YnleiTCEb+2yiKU6ogC+1nVE43tb0RMD762tZoXiJzcsY/mtYdokfzWyV6f4yfESJ8czbMdNY46bxhxfF9vxdbEdXxfbQa6LTagWmJNFfE4WN8fJxBp2WfYIFjj9rAy4eU1gstgOJpsxFgkmW5nojF4zKYBajkeSWMMmC5aHkyR0pJKOQkfq6Ch05Dp6Ch2pREf8sIyvvDUshnS1JbEr0RH+5nTH35zuuWnMc9OY1wyIeMPpSOR0JCLSkQPqAiYjCZ+MJLGG5UPuyxqWwMlIwiYjqQ0yktohIzPGIiEjK5OR0WsmZGQxGXGdWMOmK0bjyU42FDSyumNkqZAobKR5IdHgyGYExaAjq8tZyRoWLkYk6m3oUrBXQyRrWMN80ZblXXFv0UbmizYyn1cr5ntTaS8reem17Nzu5W3JGsbKXHp7oa1hHhfsUEKGC3Z2TdxayYtYwy5MfMEip59PAjevBbJzmvtAk505g5GQndtbw65YZVrfGuYbtIaNB4JYw9jX3VjDnBJr2HTF8ryiYAjf2mURS3VEAXyt64jG97aiJwbeW1vNCsVP8WKy1731PnXqJDnGK34KvMQp8BKnwE1jgefega+LHfi62IGvix0g18UmVAvMyRQ+J1Ob42RiDbssewQLnH5WBty8JjCZageTzRiLBJOtTHRGr5kUQC3HI1qsYZMFy8OJFjpSSUehI3V0FDpyHT2FjlSiI2lYxiIdcdEHb04+FR4d4W9OD/zN6YGbxgI3jcWOAZGoOB3xnI54RDpyQF3AZETjkxEt1rB8yF1Zw46ZI1jg9DMy4OY1QUZ0O2RkxlgkZGRlMjJ6zYSMLCcjRqxh0xXL44mBQSOrO0aWConCRpoXEg2ObEZQDDqyupx1rGGxG9ayaA1z0Si7qbeGxaItK5ri3qKNLBZtZDGvVsz3htJeVvLSa9m53SvqkjWMlbn09kJbwxIw2DH4YMdsruRFrGEXJr5gkdPPJ4Gb1wTZMe2QnRmDkZCd21vDrlhlWt8aFlq0ho0GgljD2Nf9WMOsWMOmK5bnFQtD+NYui1iqIwrga11HNL63FT0x8N7aai4vfopqWMbyW8NMp304+VRwxU+RlzhFXuKUuGkscdNY4utiJ74uduTrYkfIdbEJ1QJzMovPyezmOJlYwy7LHsECp5+VATevCUxm28FkM8YiwWQrE53RayYFUMvxiBNr2GTB8nDihI5U0lHoSB0dhY5cR0+hI5XoiJ5BR1xQMYC/Uz3xN6cn/ub0xE1jiZvGUuR0JPENy+hIsoh05IC6gMmIwycjTqxh+ZD7soY5cDLisMmIa4OMuHbIyIyxSMjIymRk9JoJGVlORrxYw6YrlscTD4NGVneMLBUShY00LyQaHNmMoBh0ZHU5K1nDzLCWZWtYp1K3JWuY60q2rN3HLO4t2chcV7KRuS6vVsz3usJeXvLSa9mZ3euw99waxspcenuRrWFRA4Mdjw92/OZKXsQadmHiCxY5/XwSuHlNkB3fDtmZMRgJ2bm5NeyaVab1rWGxRWvYaCCINYx93Y81LIg1bLpieV4JMIRv7bKIpTqiAL7WdUTje1vREwPvra1mheInOyxjufjJJZOw3xrmOlbi5LrANyLfYKYxp9i62E6xdbEPZ1P0O5DrYhOqBeZkAZ+Thc1xMrGGXZY9ggVOPysDbl4TmCy0g8lmjEWCyVYmOqPXTAqgluORKNawyYLl4SQKHamko9CROjoKHbmOnkJHKtERNyxj+Z3qxgWF/dYwpzTHHoZv8NRKOb7hOR0JfEMzOqI0Ih05oC5gMhLxyUgUa1g+5L6sYRGcjERsMhLbICOxHTIyYywSMrIyGRm9ZkJGlpORJNaw6Yrl8STBoJHVHSNLhURhI80LiQZHNiMoBh1ZXc5K1jA/rGXRGua1tkaffLLGrWGqaMtSqbRXF21kumgj03m1Yr7XlPaykpdey86tYSoWrGG8zKW3F9oa5oDBTsIHO2lzJS9iDbsw8QWLnH4+Cdy8JshOaofszBiMhOzc3hp2xSrT+taw1KI1bDQQxBrGvu7GGuY7sYZNV4zmlZ1sKIRv7bKIpTqiAL7WdUTje1vREwPvra1mheKnMCxjufjJ2c6cfiq44ifNM2nNS5w0N41pbhrTbF1spxPfYOtiHzbwip8I1eJyMkprcDnZrolb42RiDbssewQLnH5WBty8FjDZaQ4BjcnmjEWCydYlOuPXTAqgluMRJdawyYLl4UQJHamko9CROjoKHbmOnkJHKtGROIOOWOeNP7nlwqMjht15OaP4BjeNGW4aM5YBEeP4RsfoiOkQ6cgBdQGTEYVPRpRYw/Ihd2UNO2aOYIHTz8iAm9cEGVHtkJEZY5GQkZXJyOg1EzKynIxosYZNVyyPJxoGjazuGFkqJAobaV5INDiyGUEx6MjqclayhqVhLYvWsNB1Op7kWa1bw0zRlmVCcW/RRmaKNjKbVyvme1VpLyt56bXs3O5lfMkaxspcenuhrWERGOxofLCjN1fyItawCxNfsMjp55PAzWuC7Oh2yM6MwUjIzu2tYVesMq1uDdNdg9aw8UAQaxj7uh9rmBFr2HTF8rxiYAjf2mURS3VEAXyt64jG97aiJwbeW1vN5cVPqRuWsfzWMLWbLMLJp4IrfrK8xMnyEifLc2zLTWOWr4tt+brYlq+LbSHXxSZUC8zJDD4nM5vjZGINuyx7BAucflYG3LwmMJlpB5PNGIsEk61MdEavmRRALccjVqxhkwXLw4kVOlJJR6EjdXQUOnIdPYWOVKIjaljGYt1T7EKnwBfOsfzN6Za/Od1x05jjpjGnGRBxhtORyOlIRKQjB9QFTEYsPhmxYg3Lh9yXNcyCkxGLTUZsG2TEtkNGZoxFQkZWJiOj10zIyHIy4sQaNl2xPJ44GDSyumNkqZAobKR5IdHgyGYExaAjq8tZxxqW9LCWRURibRd9PPlkjVvDXNGW5Vxxb9FG5oo2MpdXK+Z7U2kvK3nptezc7uVsyRrGylx6e5GtYUkBgx2HD3bc5kpexBp2YeILFjn9fBK4eU2QHdcO2ZkxGAnZub017IpVpvWtYapFa9hoIIg1jH3djzXMizVsumJ5XvEwhG/tsoilOqIAvtZ1RON7W9ETA++trWaF4idzMdnr3toQkj5JxPGKnzwvcfK8xMlz05jnpjHP18X2fF1sz9fF9pDrYhOqBeZkHp+T+c1xMrGGXZY9ggVOPysDbl4TmMy3g8lmjEWCyVYmOqPXTAqgluORINawyYLl4SQIHamko9CROjoKHbmOnkJHKtEROyxj+Z3qIbrTygRAOsLfnO75m9M9N415bhoLHQMiQXE64jkd8Yh05IC6gMlIwCcjQaxh+ZD7soYFcDISsMlIaIOMhHbIyIyxSMjIymRk9JoJGVlORqJYw6YrlseTCINGVneMLBUShY00LyQaHNmMoBh0ZHU5K1nD3LCWZWuYNl24GiJZwxoWirasYIp7izayULSRhbxaMd8bSntZyUuvZed2r6BL1jBW5tLbC20Ns8BgJ+KDnbi5khexhl2Y+IJFTj+fBG5eE2QntkN2ZgxGQnZubg27ZpVpfWuYbtEaNhoIYg1jX3dgDbOHKOxuCvjcXpVWnWE2TysdDN/bK9qwjCh0r3EZ0djeRuTEIHtri1mh7skPy/hK3ZPqLHjdU+DVTYFXN0XuF4vcLxb5ktiRL4kd+JLYAXJJbKK0iIjsNKNBJGTHFm4NkO2GKOFj0/NGsKjp5WO4rYOFY69lD3hs7KSlgsaaKXqyB4ozesmk5mkxEVG3JyKH/7VnBmNjiRIgUkdGASJVZBQgchU5BYhUAiJhWMbyMjnJp3S1BbDrAJHIU6fI35MeuUUscotYjByIJL5hGRCJFhGIHOgWLgxR8DBEbc4GVgGGbNcGdp4zgkVNLxfDbV0LMEQ1A0NmDEMCQ9aFIaOXTGDIYhiib7syTrd/EexLkUjL5SEahoYcFG1YRxQc0rqOaDxkK3piAJGm1Hz38Y/nNWoPXyaX9ooPX/QCLD1ssNcBVh62raLMK9dQU2aVCpw9pWENC4xdv/Xequ7kJrvE2P+s3iqXOnu6Zv1lVuIhVXqFhYmj88TReTo5jKFz352sriaFhTOJ1nmygkXSefu2VlS4H3+WgvQtVhWWE0KogMGsKBzMXtDbCAbQz9op+LwCPmdbN0HNr2LmcxQ+CTNXWgMmXpy5mbfKWMPfPlTO3FpaAyYV119Jqri3uF5MKq4Xk/JrifheV9jru/JfK67rkrrCGjCHM5wde9gLvQZMwMpDS89ksDLR0xZKLpoP2XIu+tqjL7Cw6T1Rwm0dYEY6/PQDKScttFSyUpTFXybfRSCvBGNPV4LpmloI5qVqZjQmZB0Y9nU368CY27uevj+QbehR7NkEY2Aexq7tiVgoI8rT2MZlRHscuxE5MZ7Hri3mctuT4uBtsu8pWm3c6cdC8z35jqXZvjN8w/INnmx3eS3m3UbgG3mN5ZcN3Oe1EZeTGXhOZjbHyWQhmIsSR7Co6SVkuK1rAZOZZjDZjGFIMNm6FGf0kon3aTESsbIQzGS9aCyxQkTqyChEpIqMQkSuIqcQkVpERA3rWF4JRlsTsVeC8V3kqIMtjetVxzcU32BL43plOBGJnIhAVrC/8C1cHGLhcYhdhEN2iaTd4FIwr3+sDeEQi41DLDQOsU3gENsMDpkxDAkOWReHjF4ywSGLcYiTpWCmC0aDiYPhIavbeRfqiAJEWtcRjYhsRU8MJLK6mnUsYKrTw2KWPWDJBOVPPlrbHjCvSu/29qr0bm+vfHFvKO7Na+7yvam0tyt5yw4tO/d1KVv0gJXeGZ4LW45ZCxzNUbg0x8HTHLe54hYxgV2W9IKFTS+XxG1dCzjHNYNzZoxDgnNu/wbwKxaSVvd9qQZ9X6NhIL4v9nU3vi8vvq/pgtGc4mGo3tolEAtlRIF6jcuIxvQ2IicG0ltbzBpVTmZYx3KVk01an2TYeFVOmtcyaV7LpLkjTHNHmM7rL+02HN/oWJWT7hCrnDKfxWVjHp6N+c2xMTF+XZQ5gkVNLyPDbV0LaMw3g8ZmDEOCxtbFOKOXTCqdFjORIMavyXrRWBIEidSRUZBIFRkFiVxFTkEitZCInYNEQogK3PilPWcdgW9wS5jmljDTMQpiFEciniMRj4hEXgAXLg4J8DgkiPErH3JXxq+AjUMCNA4JTeCQ0AwOmTEMCQ5ZF4eMXjLBIYtxSBTj13TBaDCJMDxkdUvIQh1RgEjrOqIRka3oiYFEVlezlvHLDYtZNH45Ezt7csfVuvHLFE1XpvRCL2+KJjFTNImZvOgw3xtKe1lxS69l52Yuo0vGL1bQ0tuLbfyyuDQnwtOcuLniFjF+XZb0goVNL5fEbV0LOCc2g3NmjEOCc25u/LpqJWl155du0Pk1Ggfi/GJfG3R+PXz/fv+3uodf//OnXb7x5ek/vu0GofePH7pDSHa1Id/gvarz7djAxtRjby+8IfEbk3czmt6Q/t2NpiuQwLvT9mZUEFnZGnVSfljGYp2Ud1HrkyQer07K8Goow6uhLDeVWW4qs3yBbMsXyDZ8gWwDuUB2JrwIdO2SpAiBtU1r7+bIm/OvHnV34O3STBQ6vnopXitthUF081KS9YHdBe0WfAdbjTV2FfcUafQCSm1WTpR30/duNvppp+sxAS0ky6+myOVf49mm5a+htZYli/a4ZOdV75HUqpQJ31k3pp5QpqtqKpSpvqZCma6vrVCmSpQpzKBMVqngR6vO/gyEmSz35lnuzbMnh+V1wP/i3Yk3TzBTzds01RhmUjUw075+UKMZ9iqApqEPti3UdJ6OQsdYO6jp1fyptTY3gJqUoKYNoCYlqOmmqCmMoybHn1juNxTfuD5q0oKaFqknqOmqmgpqqq+poKbrayuoqRJqisMyFlGTViap0bWwkVCT40teO/70yfFM0mU/4m4j/Cio6bJWzcyK8FGTroCa9iuta7i1oSqgpqEPti3UdJ6OQsdYO6jp1fyptTY3gJq0oKYNoCYtqOmmqClOQE0nGSdPGF28BWoygpoWqSeo6aqaCmqqr6mgputrK6ipEmpKwzIWUZNKNsWT/A8dNXnul/P86ZPnL2Hz3C/n+UvYBDVVvU0zjaEmUwE17ddVM36DqGnog20LNZ2no9Ax1g5qejV/aq3NDaAmI6hpA6jJCGq6KWpK46jJ856y31B8Yxw1UQNz1v7p48cPu2FlMLOf3GXs4XS9LlNK+r9H1f7oUiYxaPYfyFJe99u/2f8p6qaPv/9y9sP92Lq/IPtP8vFwC/DX3jD+aqox5f7glfT+mre1VhbVWqSegMGraipgsL6mAgavr62AwTpgkH++6WCwi06BL6rluafRn0BCvsJW4MQw8PcNBr7C1v5sOc0Lq3PBOckgPi60jeFCW8MEKWttnR7QFio8T1Ch46sdVPhqRtVamxtAhVZQ4QZQoRVUeEtUqLpxVBi49WG/ofjGBajwn95/eP/89Pj5/zx92f01/S+X3E89PH759Ok7XNsN+9/P9PnlTO9G8v9fX7DV7vz+NJH/4/27r79+3z+ciQd7cnVe+ai71Oznx6+XfK6X/r9T6Odvu0/z/PWw8unuHCOf6N37385Gq0Nms+u3hxHDjXwee+Ja4XUFjt9ZeL7CSnBTNDgjww+/6yqKfE/9Hwrd9QYLKe/+eIa+375+HOsvfopWS6mCW4nLKh279rmsEy57XU2Fy9bXVLjs9bUVLluJy6phGYtzdFBRxVFv8LpcNnAuGziXDTx7ipzLRs5lI+eygXPZAM9lX0/NgKmGa4zKOqGy/UPujcqep6fQ8dUOlX01n2qtzQ1QWSdUdgNU1gmVvSmVVeNUNnIqGzmVjZOo7L98/vhpP70vund693KSCWWaj387XLQ3/3B6S/Pzt/2H//jXvxYj9M2nl5Acg5lxEpytAyZf+/gV6OSCO58L6WScRHIvvbdeqUZ0/7/WvOMCHisqKJhxqYICFWsrKQixEkLUwzIWJlK9m0iNNeClnZE/WY2cJ0bOEyPniYm/uyKd8ETPE0CPjhBHkiig+3BsangjRtiezfv1j9U2IwQmgrj8D5/2tcH2hOS1R/KE29GPb8Dt9Di3S7zWbr+h+MZVuN2NKJ0ayXiT+fEGlK4qk1t0K3Ehk0uTIOYcJqduyuTUdyTXWnXgi1KHVBWAgKhWb9yVMheHmVJvTTRK+bE4+7N+uzvOmHhy4Pk9+0ik8ak58fvwxO/DE18VIznce2r8O2h1vTvoZc3ahzvmbb1qp/Tn9Xy8d19fTv4xS3923+oKaa6+JLt9NZk1N0xmdwP4hCyWM8rEF6RJkxakmekJmu37sfEV48/+ByOzRaqUl/315+cyA13ryanq9i/eaODR6YBy8iD1anrKY9W6espD1uvqKo9cl925EcWyF9/Ambeds8oG6Eeujhs1Qqf4huYbhm+whbVD5/LG4WzHrOewAbvKdsJYZHti/gNxOzbaVnnmSods8JnrBQknbExBPY+9PENqqb0Yz2qntVme3OI+uR24gvIcl358g+e4dpSAhc7zLJGV3x02aj3HHegRGE91Q3faieo91Z340Rc/411073LZM97QxSliLWeJ8sR3rm7y/HchRVD8ve5Tn//qt047p7uxGPyzeau1tXbR89/QsZrqoDq+cQIFEh/U0+o3+PMHR9hcGufZ8KSBoQU0Ic+N2SHy3PiWz43deNasOGhVrPrxsHGz58Yj6xLVeG4cVK/c8U/Hy356uQ8/7L6fQn//13z/137/133/13//N37/N33/Vx1PsJ/AXr45nkodz6GOJ1HHs6hw/OZ4Pn38dX38dX1sij6eRx/Po4+/runXj+0xx/aY4wnN8TzmeB5zPI85tsccT2iOJzTHE9rjCe3xhPbYQns8jz2exx7PY4/nscfzuOOvu+Ovu2PDHIl9PKE7nscdz+OO5/HH9vjjCf3xPP54Hk9X7dgwfzyhP54nHM8TjucJx4aF4wnD8TzheJ5wPE84NiwcTxiP54nH88TjeeKxYfF4wng8TzyeJx7Pk44NS8cTpuN50vE86XiedGxYOp4wUQ/NXZT6aEedtKNe2lHv7Kh7dtQ/u0jf0flyV899XRn6jrp97ve5v1OHV4rOp6l9OgcRnY+6v6L+rzS1lEJBUQgoigFFQaAMtZTiQVEcKAoERZGgKBQUxYKiGFA2Rzmdz1JLKTIURYSikFAUE8pRSyk8FIWFcnkAofM5ainFiKLYUBQciqJDeWopBYryeUSi81GIKE8tpWhRFCWKwkRRnKhALaWQUSEPdnRmihpFYaMitZniRVHAKIoYFel8MY+edBaKGkVhoxK1lCJIUeQoCh1FsaMoeBRFj6aY0RQzuqOxuaPBmeJIU/Roih5N0aNpxtAUR5qiR1P0aIoeTdOGpjjSFD2aokezOYRammeRPHtQ9Og8keSZhOJIU/RokyclOh9NJ5riSFP0aIoeTdGjaSrRFEfa5lmOzkfRo2li0RRHmqJHU/Roih5Ns4umONIUPZqiR1P0aJpiNMWRpujRFD2aokfTPKMpjjRFj6bo0RQ9miYbTXGkKXo0RY8OeYanllL0aIoZTTGjadbRNO1oiiNN0aMpenTMyQO1lOJIU/Roih5N0aNpAtIUR5qiR6ecjeR0hPIRiiND0WMoegxFj6FZyFAcGYoeo3J+Q+ejWchQHBmKHkPRYyh6DM1ChuLIUPQYih5D0WNoFjIUR4aix1D0mJyI5UyMpWJ0vpyM5Wwsp2M5H6PoMRQ9hqLH0CxkbM7y6HwUPYaix9AsZCiODEWPoegxFD3G5bSRzkzRYyh6DEWPoVnIUBwZih5D0WMoegzNQobiyFD0GIoeQ9FjaBYyFEeGoseEnNjS+WjuMRRHhqLHUPQYih5Ds5ChODIUPYaix1D0GJqFDMWRoegxFD2GosfQLGQojgxFj6XosRQ9lmYhS3FkKXosRY+l6LE0C1mKI0vRYyl6LEWPpVnIUhxZih5L0WMpeizNQpbiyFL0WIoeS9FjaRayFEeWosdS9FiKHkuzkKU4shQ9lqLHUvRYmoVsvp/J9zH5Roaix9IsZPPdTb6rybc1FD2WZiFLcWQpeixFj6XosTQLWYojS9FjKXosRY+lWchSHFmKHkvRYyl6LM1CluLIUvRYih5L0WNpFrIUR5aix1L0WIoeS7OQpTiyFD2WosdS9FiahSzFkaXosRQ9lqLH0ixkKY4sRY+l6LEUPTblW0+696TocRQ9jqLH0SzkKI4cRY+j6HEUPY5mIUdx5Ch6HEWPo+hxNAs5iiNH0eMoehxFj6NZyFEcOYoeR9HjKHoczUKO4shR9DiT77vpfDQLOYojR9HjKHocRY+jWchRHDmKHkfR4yh6HM1CjuLIZSpA0eMyIMiEICOCjAYoelymBBkTUBw5ih5H0eMoehzNQo7iyFH0OIoeR9HjaBZyFEeOosdR9DiKHkezkKM4chQ9jqLHUfQ4moUcxZGj6HEUPY6ix9Es5CiOHEWPo+hxFD2OZiFHceQojhzFkaM4chRHnuYjT9HjKXo8RY+nWchTHHmKHk/R4yl6PM1CnuLIU/R4ih5P0eNpFvIUR56ix1P0eIoeT7OQpzjyFD2eosdT9HiahTzFkafo8RQ9nqLH0yzkKY48RY+n6PEUPZ5mIU9x5ClmPMWMp7nHU/R4ih5PkeJpxvEUM55ixlPM+AzSMkmjSPEZqmWqRlHhKSo8RYWnqPA0u3iaNTz1e0/93lO/99TvPfVsTz3bU8/2NEN46uOe+q6nvhtovA803gfqsYF6bKAeG6hPBqX+RLy4z/4PRxBp+P7va6iYEN/3fzPvOn6TydHxm9dJcb7Nv4gU5xud4zeU6E7hwlMocM6djt8MUOA8cR6/mYKD80BKowkFF0UFdXHqpdT5qCfRRT5+c858qXOcw19Cvce/Pon5XoR6j+eZTXipT1Evn0x4Z3BdOt8IzaXzFbluZrjUlhk0l843zHWpK4+RW/rdEsNlvJbaMpncXs5r6XwjlJbOV+S1t2WzmaUOE1k6X5HNZg5LA+BkIns5h6XzjdDX/NiuxGEzc6W2TKWvM5grnW8Gfc3MNfNV+t3JpPVyvkrnG6GqdL4SX2UsldoymapezlLpfCMElc5XZKmZm1JbJhPUy7lpnv6HaSmdr8hNMyOltkympZcz0pygDJNROl+RkebshtoylYzO4KF0vhEKSucr8tDMPqktkyno5eyTzjdCPOl8JfbJOCe1ZTLxvJxzUoo5QjdzulrinJlpEj+aTDcvZ5qZQQ6TTDpfkWlmfkltmUwyL+eXucRjmFrS+Yr8MrNKastUajmDVeYilGFCSecrssp870JtmUwoL+eSdDs0QiPpBqjEJRmDpJupyTTycgZJ5xshj3S+IoPMvJHaMpk8Xs4bMx8cpoz51rPEGzNbpLZMpoyXs0U63whRpPMV2WLmiNSWqURxEUcsMUNiNjS2lzlivssnBjSZHl7ODOl8I6SQzldihowPUlsmk8LL+SCdbzIfpPNRvx/hgzS2+1x7x5hhiQ9m8kLny+wl08MiKaTz0djuqd976vfTOSKdj/r9HLZI56M+XuKNnsZ2T/0+UL8fIY80tgfq94H6faA+HqiPBxrbA43tgfp9oH4fqI8H6uOBxvZAY3ugfh+o3wfq44H6eKCxPdDYHqjfB+r3gfp4oD4eaGwPNLYH6veB+n2gPh6ojwca2wON7YH6faB+H6iPB+rjgcb2QGN7oH4fqN8H6uOB+nigsT3Q2B6o3wfq94H6eMiAMdeZ5kLTTB0zdsyUkdWY0vlylSn1+0D9PlAfD9THA43tgcb2QP0+UL8P1McD9fFAY3ugsT1Qvw/U70Pm7CmfL7NRgqM03kfq95H6eKQ+HmlsjzS2R+r3kfp9pD4eqY9HGtsjje2R+n2kfh+pj0fq45HG9khje6R+H6nfR+rjkfp4pLE90tgeqd9H6veR+nikPh5pbI80tkfq95H6faQ+HqmPRxrbI43tkfp9pH4fqY9H6uORxvZIY3ukfh+p30fq45H6eKSxPdLYHqnfR+r3kfp9pD4eaWyPNLZH6veR+n2kfh+p38dM2DNiz4w9Q/ZcWU39PmbyTmN7pH4fqY9H6uOR+nhM+Xczts/cnjA9je2J+niisT1RH0/UxxP18UR9PFEfTzS2J+rjifp4op6daPRO1LMT9exEPTtRz07UsxON3ol6dqL+nKjvJpN/gz4H9d1EfTdR303UdxON2YnG7ET9OVF/TtR3E/XdRCN1oh6bXP4N0oBG5UQ9Nnn7J3p6l904h8k4u19oveeX47KL/7e/PT99ffj96fOXvSts95tv3j/vrbyq292q/dvf//T3/w9mk8Nt' } def _not_impl(*args, **kwargs): raise NotImplementedError("Not yet implemented for quantized models") def _create_quantized_models(name, sym_prefix): def func(pretrained=False, tag=None, root='~/.mxnet/models', ctx=cpu(0), **kwargs): r"""Quantized model. Parameters ---------- pretrained : bool or str Boolean value controls whether to load the default pretrained weights for model. String value represents the hashtag for a certain version of pretrained weights. tag : str, default is None Optional length-8 sha1sum of parameter file. If `None`, best parameter file will be used. ctx : Context, default CPU The context in which to load the pretrained weights. root : str, default $MXNET_HOME/models Location for keeping the model parameters. """ from ..model_zoo import get_model from ..model_store import get_model_file curr_dir = os.path.abspath(os.path.dirname(__file__)) model_name = name.replace('mobilenet1_', 'mobilenet1.') model_name = model_name.replace('mobilenet0_', 'mobilenet0.') with warnings.catch_warnings(record=True) as w: warnings.simplefilter("always") import tempfile if 'fcn' in model_name or 'psp' in model_name or 'deeplab' in model_name: model_json = get_compressed_model(model_name, _compressed_int8_json) fd, path = tempfile.mkstemp(dir=curr_dir, suffix='.json', text=True) with open(path, 'w') as f: f.write(model_json) sym_net = SymbolBlock.imports(path, ['data'], None, ctx=ctx) os.close(fd) try: os.remove(path) except: pass else: json_file = os.path.join(curr_dir, '{}-symbol.json'.format(model_name)) sym_net = SymbolBlock.imports(json_file, ['data'], None, ctx=ctx) base_name = '_'.join(model_name.split('_')[:-1]) param_file = get_model_file(base_name, tag=tag, root=root) if pretrained else None kw = {} if 'deeplab' not in base_name: kw.update({'prefix': sym_prefix}) net = get_model('_'.join(model_name.split('_')[:-1]), **kw) classes = getattr(net, 'classes', []) if param_file: # directly imports weights saved by save_parameters is not applicable # so we hack it by load and export once to a temporary params file net.load_params(param_file) net.hybridize() if '512' in base_name: net(mx.nd.zeros((1, 3, 512, 512))) elif '300' in base_name: net(mx.nd.zeros((1, 3, 300, 300))) elif 'psp' in base_name or 'deeplab' in base_name: net(mx.nd.zeros((1, 3, 480, 480))) else: net(mx.nd.zeros((1, 3, 224, 224))) with tempfile.TemporaryDirectory() as tmpdirname: prefix = os.path.join(tmpdirname, 'tmp') net.export(prefix, epoch=0) param_prefix = prefix + '-0000.params' sym_net.collect_params().load(param_prefix) sym_net.classes = classes sym_net.reset_class = _not_impl sym_net.set_nms = _not_impl return sym_net func.__name__ = name globals()[name] = func _create_quantized_models('mobilenet1_0_int8', 'mobilenet0_') _create_quantized_models('resnet50_v1_int8', 'resnetv10_') _create_quantized_models('ssd_300_vgg16_atrous_voc_int8', 'ssd0_') _create_quantized_models('ssd_512_mobilenet1_0_voc_int8', 'ssd0_') _create_quantized_models('ssd_512_resnet50_v1_voc_int8', 'ssd0_') _create_quantized_models('ssd_512_vgg16_atrous_voc_int8', 'ssd0_') _create_quantized_models('fcn_resnet101_voc_int8', 'fcn0_') _create_quantized_models('fcn_resnet101_coco_int8', 'fcn0_') _create_quantized_models('psp_resnet101_voc_int8', 'pspnet0_') _create_quantized_models('psp_resnet101_coco_int8', 'pspnet0_') _create_quantized_models('deeplab_resnet101_voc_int8', 'deeplabv30_') _create_quantized_models('deeplab_resnet101_coco_int8', 'deeplabv30_')
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6
2df74c1ebc0e2d8b66eb99098eed8a6aaaf9621c
46
py
Python
Game15/modules/__init__.py
ttkaixin1998/pikachupythongames
609a3a5a2be3f5a187c332c7980bb5bb14548f02
[ "MIT" ]
4,013
2018-06-16T08:00:02.000Z
2022-03-30T11:48:14.000Z
Game15/modules/__init__.py
pigbearcat/Games
b8c47ef1bcce9a9db3f3730c162e6e8e08b508a2
[ "MIT" ]
22
2018-10-18T00:15:50.000Z
2022-01-13T08:16:15.000Z
Game15/modules/__init__.py
pigbearcat/Games
b8c47ef1bcce9a9db3f3730c162e6e8e08b508a2
[ "MIT" ]
2,172
2018-07-20T04:03:14.000Z
2022-03-31T14:18:29.000Z
'''初始化''' from .game import gemSprite, gemGame
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6
2dff5eae56e8c8203237ce687e2f607befb44a5b
28
py
Python
algo/daac/train.py
xlnwel/grl
7d42bb2e78bc3e7b7c3ebbcf356a4d1cf12abebf
[ "Apache-2.0" ]
5
2021-09-04T14:50:39.000Z
2022-03-13T09:53:09.000Z
algo/ppo2/train.py
xlnwel/d2rl
7d42bb2e78bc3e7b7c3ebbcf356a4d1cf12abebf
[ "Apache-2.0" ]
null
null
null
algo/ppo2/train.py
xlnwel/d2rl
7d42bb2e78bc3e7b7c3ebbcf356a4d1cf12abebf
[ "Apache-2.0" ]
2
2022-01-25T09:32:01.000Z
2022-03-13T09:53:14.000Z
from algo.ppo.train import *
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6
9301e05dee685490e7e2d5ce0e7aad3f661915c8
30
py
Python
astroaugmentations/utils/__init__.py
mb010/AstroAugmentations
ce62b0e8a10eece1972b884e86f072236c104400
[ "MIT" ]
1
2022-03-17T10:16:21.000Z
2022-03-17T10:16:21.000Z
astroaugmentations/utils/__init__.py
mb010/AstroAugmentations
ce62b0e8a10eece1972b884e86f072236c104400
[ "MIT" ]
4
2022-03-07T14:33:00.000Z
2022-03-18T16:12:03.000Z
astroaugmentations/utils/__init__.py
mb010/AstroAugmentations
ce62b0e8a10eece1972b884e86f072236c104400
[ "MIT" ]
null
null
null
from . import kernel_creation
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6
934f5d2721ee72e9ab69cdcd969c87c896289334
33
py
Python
zerodha/zerodha/cron.py
adit-negi/zerodha-web-task
cd18df546d6dde1fd2f756f5acd9bdf6bc54326c
[ "MIT" ]
null
null
null
zerodha/zerodha/cron.py
adit-negi/zerodha-web-task
cd18df546d6dde1fd2f756f5acd9bdf6bc54326c
[ "MIT" ]
null
null
null
zerodha/zerodha/cron.py
adit-negi/zerodha-web-task
cd18df546d6dde1fd2f756f5acd9bdf6bc54326c
[ "MIT" ]
2
2021-05-09T15:45:23.000Z
2021-08-19T10:44:10.000Z
def my_cron_job(): print(2+2)
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6
935dc1b838afe10d6a5f600fbc71ca35c60b5e3b
11,869
py
Python
tests/python/cuda/test_comm.py
jakeKonrad/torch-quiver
16e01b8b61459ae41b7386b6a57ef9d20dfb6606
[ "Apache-2.0" ]
196
2021-10-30T23:40:27.000Z
2022-03-28T03:43:18.000Z
tests/python/cuda/test_comm.py
jakeKonrad/torch-quiver
16e01b8b61459ae41b7386b6a57ef9d20dfb6606
[ "Apache-2.0" ]
32
2021-11-03T15:07:50.000Z
2022-03-07T09:03:33.000Z
tests/python/cuda/test_comm.py
jakeKonrad/torch-quiver
16e01b8b61459ae41b7386b6a57ef9d20dfb6606
[ "Apache-2.0" ]
24
2021-10-31T12:28:34.000Z
2022-03-19T03:03:13.000Z
import torch import torch.multiprocessing as mp import torch_quiver as torch_qv import quiver import torch.distributed as dist import os import time LOCAL_ADDR = '192.168.0.78' MASTER_ADDR = '192.168.0.78' MASTER_PORT = 12355 def child_sendrecv_proc(rank, ws, id): torch.cuda.set_device(rank) comm = torch_qv.NcclComm(rank, ws, id) print(f"{rank} ready") if rank == 0: a = torch.zeros(10, device=0) comm.send(a, 1) else: a = torch.ones(10, device=1) comm.recv(a, 0) print(f"{rank} tensor {a}") num = 10000 size = 1024 * 1024 large = torch.zeros(size, device=rank) for i in range(5): if rank == 0: comm.send(large, 1) else: comm.recv(large, 0) torch.cuda.current_stream().synchronize() t0 = time.time() for i in range(num): if rank == 0: comm.send(large, 1) else: comm.recv(large, 0) torch.cuda.current_stream().synchronize() t1 = time.time() if rank == 1: print(f"Latency {(t1 - t0) / num}") print(f"Throughput {num * size * 4 / 1024 / 1024 / 1024 / (t1 - t0)}") def child_sendrecv_proc_pair(rank, ws, id): torch.cuda.set_device(rank // 2) comm = torch_qv.NcclComm(rank, ws, id) print(f"{rank} ready") if rank % 2 == 0: a = torch.zeros(10, device=rank // 2) comm.send(a, rank + 1) else: a = torch.ones(10, device=rank // 2) comm.recv(a, rank - 1) torch.cuda.current_stream().synchronize() print(f"{rank} tensor {a}") num = 10000 size = 1024 * 1024 large = torch.zeros(size, device=rank // 2) for i in range(5): if rank % 2 == 0: comm.send(large, rank + 1) else: comm.recv(large, rank - 1) torch.cuda.current_stream().synchronize() t0 = time.time() for i in range(num): if rank % 2 == 0: comm.send(large, rank + 1) else: comm.recv(large, rank - 1) torch.cuda.current_stream().synchronize() t1 = time.time() if rank % 2 == 1: print(f"Latency {(t1 - t0) / num}") print(f"Throughput {num * size * 4 / 1024 / 1024 / 1024 / (t1 - t0)}") def child_sendrecv_proc_pair_bidirect(rank, ws, id): torch.cuda.set_device(rank // 2) comm = torch_qv.NcclComm(rank, ws, id) print(f"{rank} ready") if rank % 2 == 0: a = torch.zeros(10, device=rank // 2) comm.send(a, rank + 1) else: a = torch.ones(10, device=rank // 2) comm.recv(a, rank - 1) torch.cuda.current_stream().synchronize() print(f"{rank} tensor {a}") num = 10000 size = 1024 * 1024 large = torch.zeros(size, device=rank // 2) large_inverse = torch.zeros(size, device=rank // 2) stream = torch.cuda.Stream() stream_inverse = torch.cuda.Stream() for i in range(5): if rank // 2 == 0: if rank % 2 == 0: comm.send(large, rank + 1) else: comm.recv(large, rank - 1) else: if rank % 2 == 0: comm.recv(large, rank + 1) else: comm.send(large, rank - 1) torch.cuda.current_stream().synchronize() t0 = time.time() for i in range(num): if rank // 2 == 0: if rank % 2 == 0: comm.send(large, rank + 1) else: comm.recv(large, rank - 1) else: if rank % 2 == 0: comm.recv(large_inverse, rank + 1) else: comm.send(large_inverse, rank - 1) torch.cuda.current_stream().synchronize() t1 = time.time() if rank % 2 == 1: print(f"Latency {(t1 - t0) / num}") print(f"Throughput {num * size * 4 / 1024 / 1024 / 1024 / (t1 - t0)}") def child_allreduce_proc(rank, ws, id): torch.cuda.set_device(rank) comm = torch_qv.NcclComm(rank, ws, id) print(f"{rank} ready") if rank == 0: a = torch.zeros(10, device=0) else: a = torch.ones(10, device=1) comm.allreduce(a) print(f"{rank} tensor {a}") num = 100 size = 1024 * 1024 large = torch.zeros(size, device=rank) for i in range(5): comm.allreduce(large) torch.cuda.current_stream().synchronize() t0 = time.time() for i in range(num): comm.allreduce(large) torch.cuda.current_stream().synchronize() t1 = time.time() if rank == 1: print(f"Latency {(t1 - t0) / num}") print(f"Throughput {num * size * 4 / 1024 / 1024 / 1024 / (t1 - t0)}") def child_allreduce_proc_pair(rank, ws, id): torch.cuda.set_device(rank // 2) comm = torch_qv.NcclComm(rank, ws, id) print(f"{rank} ready") if rank % 2 == 0: a = torch.zeros(10, device=rank // 2) else: a = torch.ones(10, device=rank // 2) comm.allreduce(a) torch.cuda.current_stream().synchronize() print(f"{rank} tensor {a}") num = 10 size = 1024 * 1024 * 1024 large = torch.zeros(size, device=rank // 2) for i in range(5): comm.allreduce(large) torch.cuda.current_stream().synchronize() t0 = time.time() for i in range(num): comm.allreduce(large) torch.cuda.current_stream().synchronize() t1 = time.time() if rank == 1: print(f"Latency {(t1 - t0) / num}") print(f"Throughput {num * size * 4 / 1024 / 1024 / 1024 / (t1 - t0)}") def test_local(): id = quiver.comm.getNcclId() ws = 2 procs = [] for i in range(ws): proc = mp.Process(target=child_sendrecv_proc, args=(i, ws, id)) proc.start() procs.append(proc) for proc in procs: proc.join() def test_dist(rank): ws = 2 store = dist.TCPStore(MASTER_ADDR, MASTER_PORT, ws, MASTER_ADDR == LOCAL_ADDR) if rank == 0: id = quiver.comm.getNcclId() store.set("id", id) else: id = store.get("id") print(f"{rank} init store {id}") child_sendrecv_proc(rank, ws, id) def test_dist_pair(rank): local_size = 2 store = dist.TCPStore(MASTER_ADDR, MASTER_PORT, 2, MASTER_ADDR == LOCAL_ADDR) if rank == 0: id = quiver.comm.getNcclId() store.set("id", id) else: id = store.get("id") print(f"{rank} init store {id}") procs = [] for i in range(local_size): proc = mp.Process(target=child_sendrecv_proc_pair, args=(i * 2 + rank, 2 * local_size, id)) proc.start() procs.append(proc) for proc in procs: proc.join() def test_dist_pair_bidirect(rank): local_size = 2 store = dist.TCPStore(MASTER_ADDR, MASTER_PORT, 2, MASTER_ADDR == LOCAL_ADDR) if rank == 0: id = quiver.comm.getNcclId() store.set("id", id) else: id = store.get("id") print(f"{rank} init store {id}") procs = [] for i in range(local_size): proc = mp.Process(target=child_sendrecv_proc_pair_bidirect, args=(i * 2 + rank, 2 * local_size, id)) proc.start() procs.append(proc) for proc in procs: proc.join() def test_nccl_allreduce(rank): ws = 2 store = dist.TCPStore(MASTER_ADDR, MASTER_PORT, ws, MASTER_ADDR == LOCAL_ADDR) if rank == 0: id = quiver.comm.getNcclId() store.set("id", id) else: id = store.get("id") print(f"{rank} init store {id}") child_allreduce_proc(rank, ws, id) def test_nccl_allreduce_pair(rank): local_size = 2 store = dist.TCPStore(MASTER_ADDR, MASTER_PORT, 2, MASTER_ADDR == LOCAL_ADDR) if rank == 0: id = quiver.comm.getNcclId() store.set("id", id) else: id = store.get("id") print(f"{rank} init store {id}") procs = [] for i in range(local_size): proc = mp.Process(target=child_allreduce_proc_pair, args=(i * 2 + rank, 2 * local_size, id)) proc.start() procs.append(proc) for proc in procs: proc.join() def child_feat_partition(rank, ws, id, device, host, hosts, global2host): torch.cuda.set_device(device) dim = 5 info = quiver.feature.PartitionInfo(device, host, hosts, global2host) size = 10 comm = quiver.comm.NcclComm(rank, ws, id, hosts, 1) feat = torch.ones( (size, dim), device=device, dtype=torch.float) * (1 + rank) * size for i in range(size): feat[i] += i print(f"{rank} hold {feat}") dist_feat = quiver.feature.DistFeature(feat, info, comm) ids = torch.randint(high=size, size=(20, ), dtype=torch.int64, device=device) print(f"{rank} request global {ids}") host2ids, _ = dist_feat.info.dispatch(ids) print(f"{rank} request local {host2ids}") host2feats = dist_feat.comm.exchange(host2ids, feat) print(f"{rank} receive {host2feats}") def child_feat_partition_pair(rank, ws, id, device, host, hosts, global2host): torch.cuda.set_device(device) dim = 400 info = quiver.feature.PartitionInfo(device, host, hosts, global2host) nodes = 10000000 comm = quiver.comm.NcclComm(rank, ws, id, hosts, 2) feat = torch.ones( (nodes, dim), device=device, dtype=torch.float) * (1 + rank) dist_feat = quiver.feature.DistFeature(feat, info, comm) size = 1000000 ids = torch.randint(high=nodes, size=(size, ), dtype=torch.int64, device=device) print('ready') host2ids, _ = dist_feat.info.dispatch(ids) for h, ids in enumerate(host2ids): print(f"{h} size {ids.size(0)}") host2feats = dist_feat.comm.exchange(host2ids, feat) num = 100 print('test once') t0 = time.time() for i in range(num): print(i) beg = time.time() host2ids, _ = dist_feat.info.dispatch(ids) mid = time.time() host2feats = dist_feat.comm.exchange(host2ids, feat) end = time.time() print(f"dispatch {mid - beg}") print(f"exchange {end - mid}") t1 = time.time() if rank == 0: print(f"Latency {(t1 - t0) / num}") print( f"Throughput {num * size * dim * 4 / 1024 / 1024 / 1024 / (t1 - t0)}" ) def test_feat_partition(): id = quiver.comm.getNcclId() ws = 2 size = 10 global2host = torch.randint(high=ws, size=(size, ), dtype=torch.int64) print(f"g2h {global2host}") procs = [] for i in range(ws): proc = mp.Process(target=child_feat_partition, args=(i, ws, id, i, i, ws, global2host)) proc.start() procs.append(proc) for proc in procs: proc.join() def test_feat_partition_pair(rank): local_size = 2 ws = 6 store = dist.TCPStore(MASTER_ADDR, MASTER_PORT, 3, MASTER_ADDR == LOCAL_ADDR) if rank == 0: id = quiver.comm.getNcclId() store.set("id", id) else: id = store.get("id") print(f"{rank} init store {id}") size = 10000000 global2host = torch.randint(high=3, size=(size, ), dtype=torch.int64) procs = [] for i in range(local_size): proc = mp.Process(target=child_feat_partition_pair, args=(i + rank * local_size, ws, id, i, rank, 3, global2host)) proc.start() procs.append(proc) for proc in procs: proc.join() if __name__ == "__main__": mp.set_start_method('spawn') # test_local() # test_dist_pair_bidirect(0) # test_nccl_allreduce_pair(0) test_feat_partition() # test_feat_partition_pair(0)
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fa86c538be4945c82a6d26fd5cc6743f442637ac
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py
Python
cottonformation/res/datapipeline.py
MacHu-GWU/cottonformation-project
23e28c08cfb5a7cc0db6dbfdb1d7e1585c773f3b
[ "BSD-2-Clause" ]
5
2021-07-22T03:45:59.000Z
2021-12-17T21:07:14.000Z
cottonformation/res/datapipeline.py
MacHu-GWU/cottonformation-project
23e28c08cfb5a7cc0db6dbfdb1d7e1585c773f3b
[ "BSD-2-Clause" ]
1
2021-06-25T18:01:31.000Z
2021-06-25T18:01:31.000Z
cottonformation/res/datapipeline.py
MacHu-GWU/cottonformation-project
23e28c08cfb5a7cc0db6dbfdb1d7e1585c773f3b
[ "BSD-2-Clause" ]
2
2021-06-27T03:08:21.000Z
2021-06-28T22:15:51.000Z
# -*- coding: utf-8 -*- """ This module """ import attr import typing from ..core.model import ( Property, Resource, Tag, GetAtt, TypeHint, TypeCheck, ) from ..core.constant import AttrMeta #--- Property declaration --- @attr.s class PropPipelineParameterAttribute(Property): """ AWS Object Type = "AWS::DataPipeline::Pipeline.ParameterAttribute" Resource Document: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-parameterobjects-attributes.html Property Document: - ``rp_Key``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-parameterobjects-attributes.html#cfn-datapipeline-pipeline-parameterobjects-attribtues-key - ``rp_StringValue``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-parameterobjects-attributes.html#cfn-datapipeline-pipeline-parameterobjects-attribtues-stringvalue """ AWS_OBJECT_TYPE = "AWS::DataPipeline::Pipeline.ParameterAttribute" rp_Key: TypeHint.intrinsic_str = attr.ib( default=None, validator=attr.validators.instance_of(TypeCheck.intrinsic_str_type), metadata={AttrMeta.PROPERTY_NAME: "Key"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-parameterobjects-attributes.html#cfn-datapipeline-pipeline-parameterobjects-attribtues-key""" rp_StringValue: TypeHint.intrinsic_str = attr.ib( default=None, validator=attr.validators.instance_of(TypeCheck.intrinsic_str_type), metadata={AttrMeta.PROPERTY_NAME: "StringValue"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-parameterobjects-attributes.html#cfn-datapipeline-pipeline-parameterobjects-attribtues-stringvalue""" @attr.s class PropPipelinePipelineTag(Property): """ AWS Object Type = "AWS::DataPipeline::Pipeline.PipelineTag" Resource Document: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelinetags.html Property Document: - ``rp_Key``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelinetags.html#cfn-datapipeline-pipeline-pipelinetags-key - ``rp_Value``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelinetags.html#cfn-datapipeline-pipeline-pipelinetags-value """ AWS_OBJECT_TYPE = "AWS::DataPipeline::Pipeline.PipelineTag" rp_Key: TypeHint.intrinsic_str = attr.ib( default=None, validator=attr.validators.instance_of(TypeCheck.intrinsic_str_type), metadata={AttrMeta.PROPERTY_NAME: "Key"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelinetags.html#cfn-datapipeline-pipeline-pipelinetags-key""" rp_Value: TypeHint.intrinsic_str = attr.ib( default=None, validator=attr.validators.instance_of(TypeCheck.intrinsic_str_type), metadata={AttrMeta.PROPERTY_NAME: "Value"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelinetags.html#cfn-datapipeline-pipeline-pipelinetags-value""" @attr.s class PropPipelineParameterObject(Property): """ AWS Object Type = "AWS::DataPipeline::Pipeline.ParameterObject" Resource Document: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-parameterobjects.html Property Document: - ``rp_Attributes``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-parameterobjects.html#cfn-datapipeline-pipeline-parameterobjects-attributes - ``rp_Id``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-parameterobjects.html#cfn-datapipeline-pipeline-parameterobjects-id """ AWS_OBJECT_TYPE = "AWS::DataPipeline::Pipeline.ParameterObject" rp_Attributes: typing.List[typing.Union['PropPipelineParameterAttribute', dict]] = attr.ib( default=None, converter=PropPipelineParameterAttribute.from_list, validator=attr.validators.deep_iterable(member_validator=attr.validators.instance_of(PropPipelineParameterAttribute), iterable_validator=attr.validators.instance_of(list)), metadata={AttrMeta.PROPERTY_NAME: "Attributes"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-parameterobjects.html#cfn-datapipeline-pipeline-parameterobjects-attributes""" rp_Id: TypeHint.intrinsic_str = attr.ib( default=None, validator=attr.validators.instance_of(TypeCheck.intrinsic_str_type), metadata={AttrMeta.PROPERTY_NAME: "Id"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-parameterobjects.html#cfn-datapipeline-pipeline-parameterobjects-id""" @attr.s class PropPipelineParameterValue(Property): """ AWS Object Type = "AWS::DataPipeline::Pipeline.ParameterValue" Resource Document: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-parametervalues.html Property Document: - ``rp_Id``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-parametervalues.html#cfn-datapipeline-pipeline-parametervalues-id - ``rp_StringValue``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-parametervalues.html#cfn-datapipeline-pipeline-parametervalues-stringvalue """ AWS_OBJECT_TYPE = "AWS::DataPipeline::Pipeline.ParameterValue" rp_Id: TypeHint.intrinsic_str = attr.ib( default=None, validator=attr.validators.instance_of(TypeCheck.intrinsic_str_type), metadata={AttrMeta.PROPERTY_NAME: "Id"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-parametervalues.html#cfn-datapipeline-pipeline-parametervalues-id""" rp_StringValue: TypeHint.intrinsic_str = attr.ib( default=None, validator=attr.validators.instance_of(TypeCheck.intrinsic_str_type), metadata={AttrMeta.PROPERTY_NAME: "StringValue"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-parametervalues.html#cfn-datapipeline-pipeline-parametervalues-stringvalue""" @attr.s class PropPipelineField(Property): """ AWS Object Type = "AWS::DataPipeline::Pipeline.Field" Resource Document: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelineobjects-fields.html Property Document: - ``rp_Key``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelineobjects-fields.html#cfn-datapipeline-pipeline-pipelineobjects-fields-key - ``p_RefValue``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelineobjects-fields.html#cfn-datapipeline-pipeline-pipelineobjects-fields-refvalue - ``p_StringValue``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelineobjects-fields.html#cfn-datapipeline-pipeline-pipelineobjects-fields-stringvalue """ AWS_OBJECT_TYPE = "AWS::DataPipeline::Pipeline.Field" rp_Key: TypeHint.intrinsic_str = attr.ib( default=None, validator=attr.validators.instance_of(TypeCheck.intrinsic_str_type), metadata={AttrMeta.PROPERTY_NAME: "Key"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelineobjects-fields.html#cfn-datapipeline-pipeline-pipelineobjects-fields-key""" p_RefValue: TypeHint.intrinsic_str = attr.ib( default=None, validator=attr.validators.optional(attr.validators.instance_of(TypeCheck.intrinsic_str_type)), metadata={AttrMeta.PROPERTY_NAME: "RefValue"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelineobjects-fields.html#cfn-datapipeline-pipeline-pipelineobjects-fields-refvalue""" p_StringValue: TypeHint.intrinsic_str = attr.ib( default=None, validator=attr.validators.optional(attr.validators.instance_of(TypeCheck.intrinsic_str_type)), metadata={AttrMeta.PROPERTY_NAME: "StringValue"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelineobjects-fields.html#cfn-datapipeline-pipeline-pipelineobjects-fields-stringvalue""" @attr.s class PropPipelinePipelineObject(Property): """ AWS Object Type = "AWS::DataPipeline::Pipeline.PipelineObject" Resource Document: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelineobjects.html Property Document: - ``rp_Fields``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelineobjects.html#cfn-datapipeline-pipeline-pipelineobjects-fields - ``rp_Id``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelineobjects.html#cfn-datapipeline-pipeline-pipelineobjects-id - ``rp_Name``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelineobjects.html#cfn-datapipeline-pipeline-pipelineobjects-name """ AWS_OBJECT_TYPE = "AWS::DataPipeline::Pipeline.PipelineObject" rp_Fields: typing.List[typing.Union['PropPipelineField', dict]] = attr.ib( default=None, converter=PropPipelineField.from_list, validator=attr.validators.deep_iterable(member_validator=attr.validators.instance_of(PropPipelineField), iterable_validator=attr.validators.instance_of(list)), metadata={AttrMeta.PROPERTY_NAME: "Fields"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelineobjects.html#cfn-datapipeline-pipeline-pipelineobjects-fields""" rp_Id: TypeHint.intrinsic_str = attr.ib( default=None, validator=attr.validators.instance_of(TypeCheck.intrinsic_str_type), metadata={AttrMeta.PROPERTY_NAME: "Id"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelineobjects.html#cfn-datapipeline-pipeline-pipelineobjects-id""" rp_Name: TypeHint.intrinsic_str = attr.ib( default=None, validator=attr.validators.instance_of(TypeCheck.intrinsic_str_type), metadata={AttrMeta.PROPERTY_NAME: "Name"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-properties-datapipeline-pipeline-pipelineobjects.html#cfn-datapipeline-pipeline-pipelineobjects-name""" #--- Resource declaration --- @attr.s class Pipeline(Resource): """ AWS Object Type = "AWS::DataPipeline::Pipeline" Resource Document: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-resource-datapipeline-pipeline.html Property Document: - ``rp_Name``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-resource-datapipeline-pipeline.html#cfn-datapipeline-pipeline-name - ``rp_ParameterObjects``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-resource-datapipeline-pipeline.html#cfn-datapipeline-pipeline-parameterobjects - ``p_Activate``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-resource-datapipeline-pipeline.html#cfn-datapipeline-pipeline-activate - ``p_Description``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-resource-datapipeline-pipeline.html#cfn-datapipeline-pipeline-description - ``p_ParameterValues``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-resource-datapipeline-pipeline.html#cfn-datapipeline-pipeline-parametervalues - ``p_PipelineObjects``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-resource-datapipeline-pipeline.html#cfn-datapipeline-pipeline-pipelineobjects - ``p_PipelineTags``: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-resource-datapipeline-pipeline.html#cfn-datapipeline-pipeline-pipelinetags """ AWS_OBJECT_TYPE = "AWS::DataPipeline::Pipeline" rp_Name: TypeHint.intrinsic_str = attr.ib( default=None, validator=attr.validators.instance_of(TypeCheck.intrinsic_str_type), metadata={AttrMeta.PROPERTY_NAME: "Name"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-resource-datapipeline-pipeline.html#cfn-datapipeline-pipeline-name""" rp_ParameterObjects: typing.List[typing.Union['PropPipelineParameterObject', dict]] = attr.ib( default=None, converter=PropPipelineParameterObject.from_list, validator=attr.validators.deep_iterable(member_validator=attr.validators.instance_of(PropPipelineParameterObject), iterable_validator=attr.validators.instance_of(list)), metadata={AttrMeta.PROPERTY_NAME: "ParameterObjects"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-resource-datapipeline-pipeline.html#cfn-datapipeline-pipeline-parameterobjects""" p_Activate: bool = attr.ib( default=None, validator=attr.validators.optional(attr.validators.instance_of(bool)), metadata={AttrMeta.PROPERTY_NAME: "Activate"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-resource-datapipeline-pipeline.html#cfn-datapipeline-pipeline-activate""" p_Description: TypeHint.intrinsic_str = attr.ib( default=None, validator=attr.validators.optional(attr.validators.instance_of(TypeCheck.intrinsic_str_type)), metadata={AttrMeta.PROPERTY_NAME: "Description"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-resource-datapipeline-pipeline.html#cfn-datapipeline-pipeline-description""" p_ParameterValues: typing.List[typing.Union['PropPipelineParameterValue', dict]] = attr.ib( default=None, converter=PropPipelineParameterValue.from_list, validator=attr.validators.optional(attr.validators.deep_iterable(member_validator=attr.validators.instance_of(PropPipelineParameterValue), iterable_validator=attr.validators.instance_of(list))), metadata={AttrMeta.PROPERTY_NAME: "ParameterValues"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-resource-datapipeline-pipeline.html#cfn-datapipeline-pipeline-parametervalues""" p_PipelineObjects: typing.List[typing.Union['PropPipelinePipelineObject', dict]] = attr.ib( default=None, converter=PropPipelinePipelineObject.from_list, validator=attr.validators.optional(attr.validators.deep_iterable(member_validator=attr.validators.instance_of(PropPipelinePipelineObject), iterable_validator=attr.validators.instance_of(list))), metadata={AttrMeta.PROPERTY_NAME: "PipelineObjects"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-resource-datapipeline-pipeline.html#cfn-datapipeline-pipeline-pipelineobjects""" p_PipelineTags: typing.List[typing.Union['PropPipelinePipelineTag', dict]] = attr.ib( default=None, converter=PropPipelinePipelineTag.from_list, validator=attr.validators.optional(attr.validators.deep_iterable(member_validator=attr.validators.instance_of(PropPipelinePipelineTag), iterable_validator=attr.validators.instance_of(list))), metadata={AttrMeta.PROPERTY_NAME: "PipelineTags"}, ) """Doc: http://docs.aws.amazon.com/AWSCloudFormation/latest/UserGuide/aws-resource-datapipeline-pipeline.html#cfn-datapipeline-pipeline-pipelinetags"""
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6
fa985e13f0c199e0cf54854d04461a0c7a40dec4
69
py
Python
scheduletweet/twitter/adminviews.py
singh1114/schedule-tweet
b55ee35b0ee51c3843543cfa4cd4b3e63d1dcea1
[ "CC0-1.0" ]
1
2020-10-25T19:23:57.000Z
2020-10-25T19:23:57.000Z
scheduletweet/twitter/adminviews.py
singh1114/schedule-tweet
b55ee35b0ee51c3843543cfa4cd4b3e63d1dcea1
[ "CC0-1.0" ]
null
null
null
scheduletweet/twitter/adminviews.py
singh1114/schedule-tweet
b55ee35b0ee51c3843543cfa4cd4b3e63d1dcea1
[ "CC0-1.0" ]
null
null
null
from django.views import View class ScheduleTwitter(View): pass
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faa3442caf0697529eefc025f315a367a4cb06f8
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py
Python
src/graphmb/__init__.py
MicrobialDarkMatter/GraphMB
04d777953bb7e5e23ec445e3d956c11c120feaa1
[ "MIT" ]
5
2022-02-28T16:06:59.000Z
2022-03-16T01:04:31.000Z
src/graphmb/__init__.py
AndreLamurias/GraphMB
9b861ba5522bfe8262c833b3bab1903c0a65a4b5
[ "MIT" ]
7
2022-02-21T13:21:07.000Z
2022-03-28T08:07:46.000Z
src/graphmb/__init__.py
MicrobialDarkMatter/GraphMB
04d777953bb7e5e23ec445e3d956c11c120feaa1
[ "MIT" ]
null
null
null
import os os.environ["DGLBACKEND"] = "pytorch" import dgl from . import contigsdataset from . import graph_functions from . import evaluate from . import graphsage_unsupervised from . import version
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facd0c068d2ca1b5ab4aac73ed30d7740eef0822
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py
Python
terrascript/scaleway/d.py
mjuenema/python-terrascript
6d8bb0273a14bfeb8ff8e950fe36f97f7c6e7b1d
[ "BSD-2-Clause" ]
507
2017-07-26T02:58:38.000Z
2022-01-21T12:35:13.000Z
terrascript/scaleway/d.py
mjuenema/python-terrascript
6d8bb0273a14bfeb8ff8e950fe36f97f7c6e7b1d
[ "BSD-2-Clause" ]
135
2017-07-20T12:01:59.000Z
2021-10-04T22:25:40.000Z
terrascript/scaleway/d.py
mjuenema/python-terrascript
6d8bb0273a14bfeb8ff8e950fe36f97f7c6e7b1d
[ "BSD-2-Clause" ]
81
2018-02-20T17:55:28.000Z
2022-01-31T07:08:40.000Z
# terrascript/scaleway/d.py # Automatically generated by tools/makecode.py () import warnings warnings.warn( "using the 'legacy layout' is deprecated", DeprecationWarning, stacklevel=2 ) import terrascript class scaleway_account_ssh_key(terrascript.Data): pass class scaleway_baremetal_offer(terrascript.Data): pass class scaleway_instance_image(terrascript.Data): pass class scaleway_instance_security_group(terrascript.Data): pass class scaleway_instance_server(terrascript.Data): pass class scaleway_instance_volume(terrascript.Data): pass class scaleway_k8s_cluster(terrascript.Data): pass class scaleway_k8s_pool(terrascript.Data): pass class scaleway_lb_ip(terrascript.Data): pass class scaleway_marketplace_image(terrascript.Data): pass class scaleway_rdb_acl(terrascript.Data): pass class scaleway_rdb_database(terrascript.Data): pass class scaleway_rdb_instance(terrascript.Data): pass class scaleway_registry_image(terrascript.Data): pass class scaleway_registry_namespace(terrascript.Data): pass class scaleway_vpc_private_network(terrascript.Data): pass
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6
fae379f80084aa9fe3666eea20b584c74cd1ca23
4,171
py
Python
tests/unit_tests/test_tethys_apps/test_models/test_CustomSetting.py
quyendong/tethys
99bcb524d5b2021b88d5fa15b7ed6b8acb460997
[ "BSD-2-Clause" ]
1
2020-10-08T20:38:33.000Z
2020-10-08T20:38:33.000Z
tests/unit_tests/test_tethys_apps/test_models/test_CustomSetting.py
quyendong/tethys
99bcb524d5b2021b88d5fa15b7ed6b8acb460997
[ "BSD-2-Clause" ]
1
2018-04-14T19:40:54.000Z
2018-04-14T19:40:54.000Z
tests/unit_tests/test_tethys_apps/test_models/test_CustomSetting.py
quyendong/tethys
99bcb524d5b2021b88d5fa15b7ed6b8acb460997
[ "BSD-2-Clause" ]
1
2021-09-07T14:47:11.000Z
2021-09-07T14:47:11.000Z
from tethys_sdk.testing import TethysTestCase from tethys_apps.models import TethysApp, CustomSetting from django.core.exceptions import ValidationError class CustomSettingTests(TethysTestCase): def set_up(self): self.test_app = TethysApp.objects.get(package='test_app') pass def tear_down(self): pass def test_clean_empty_validation_error(self): custom_setting = self.test_app.settings_set.select_subclasses().get(name='default_name') custom_setting.value = '' custom_setting.save() # Check ValidationError ret = CustomSetting.objects.get(name='default_name') self.assertRaises(ValidationError, ret.clean) def test_clean_int_validation_error(self): custom_setting = self.test_app.settings_set.select_subclasses().get(name='default_name') custom_setting.value = 'test' custom_setting.type = 'INTEGER' custom_setting.save() # Check ValidationError ret = CustomSetting.objects.get(name='default_name') self.assertRaises(ValidationError, ret.clean) def test_clean_float_validation_error(self): custom_setting = self.test_app.settings_set.select_subclasses().get(name='default_name') custom_setting.value = 'test' custom_setting.type = 'FLOAT' custom_setting.save() # Check ValidationError ret = CustomSetting.objects.get(name='default_name') self.assertRaises(ValidationError, ret.clean) def test_clean_bool_validation_error(self): custom_setting = self.test_app.settings_set.select_subclasses().get(name='default_name') custom_setting.value = 'test' custom_setting.type = 'BOOLEAN' custom_setting.save() # Check ValidationError ret = CustomSetting.objects.get(name='default_name') self.assertRaises(ValidationError, ret.clean) def test_get_value_empty(self): custom_setting = self.test_app.settings_set.select_subclasses().get(name='default_name') custom_setting.value = '' custom_setting.save() self.assertIsNone(CustomSetting.objects.get(name='default_name').get_value()) def test_get_value_string(self): custom_setting = self.test_app.settings_set.select_subclasses().get(name='default_name') custom_setting.value = 'test_string' custom_setting.type = 'STRING' custom_setting.save() ret = CustomSetting.objects.get(name='default_name').get_value() self.assertEqual('test_string', ret) def test_get_value_float(self): custom_setting = self.test_app.settings_set.select_subclasses().get(name='default_name') custom_setting.value = '3.14' custom_setting.type = 'FLOAT' custom_setting.save() ret = CustomSetting.objects.get(name='default_name').get_value() self.assertEqual(3.14, ret) def test_get_value_integer(self): custom_setting = self.test_app.settings_set.select_subclasses().get(name='default_name') custom_setting.value = '3' custom_setting.type = 'INTEGER' custom_setting.save() ret = CustomSetting.objects.get(name='default_name').get_value() self.assertEqual(3, ret) def test_get_value_boolean_true(self): test_cases = ['true', 'yes', 't', 'y', '1'] for test in test_cases: custom_setting = self.test_app.settings_set.select_subclasses().get(name='default_name') custom_setting.value = test custom_setting.type = 'BOOLEAN' custom_setting.save() ret = CustomSetting.objects.get(name='default_name').get_value() self.assertTrue(ret) def test_get_value_boolean_false(self): test_cases = ['false', 'no', 'f', 'n', '0'] for test in test_cases: custom_setting = self.test_app.settings_set.select_subclasses().get(name='default_name') custom_setting.value = test custom_setting.type = 'BOOLEAN' custom_setting.save() ret = CustomSetting.objects.get(name='default_name').get_value() self.assertFalse(ret)
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877e232a8cd8a9acf37d1c52fab8d43ac931e77b
44
py
Python
news_getter/__init__.py
isevitt/news-getter
8fb65aed15c82f39a1cb26f5ed1a7b2404e6fbd9
[ "MIT" ]
null
null
null
news_getter/__init__.py
isevitt/news-getter
8fb65aed15c82f39a1cb26f5ed1a7b2404e6fbd9
[ "MIT" ]
null
null
null
news_getter/__init__.py
isevitt/news-getter
8fb65aed15c82f39a1cb26f5ed1a7b2404e6fbd9
[ "MIT" ]
null
null
null
from news_getter.news_get import NewsGetter
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6
879e74c68efd03bbe47b96b2d00c9b8137f35cf6
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py
Python
web/gatekeeping/api/position.py
gabegm/Headcount-Planning-Management-System
6946509e6d8c530b9f0e51b68047c4cb01dedd2e
[ "MIT" ]
2
2020-03-17T10:55:39.000Z
2022-03-21T00:04:38.000Z
web/gatekeeping/api/position.py
gabegm/Headcount-Planning-Management-System
6946509e6d8c530b9f0e51b68047c4cb01dedd2e
[ "MIT" ]
null
null
null
web/gatekeeping/api/position.py
gabegm/Headcount-Planning-Management-System
6946509e6d8c530b9f0e51b68047c4cb01dedd2e
[ "MIT" ]
null
null
null
from flask import (g, abort, session) from gatekeeping.db import get_db from gatekeeping.api.user import get_user_function def get_position(id, check_submitter=True): position = get_db().execute( 'SELECT p.id, ps.name as status, rs.name as recruitment_status, number, pl.name as pillar, c.name as company, d.name as department,' 'f.id as function_id, f.name as function, title, functional_reporting_line, disciplinary_reporting_line, holder,' 'hours, start_date, end_date, salary, social_security_contribution, fringe_benefit, performance_bonus, super_bonus, management_bonus' ' FROM position p' ' JOIN company c ON p.company_id = c.id' ' JOIN pillar pl ON p.pillar_id = pl.id' ' JOIN department d ON p.department_id = d.id' ' JOIN function f ON p.function_id = f.id' ' JOIN position_status ps ON p.status_id = ps.id' ' JOIN recruitment_status rs ON p.recruitment_status_id = rs.id' ' WHERE p.number = ? AND p.isBudget = 0', (id,) ).fetchone() if position is None: abort(404, "Position id {0} doesn't exist.".format(id)) user_functions = get_user_function(session['user_id']) function_ids = [function['function_id'] for function in user_functions] if check_submitter and g.user['type'] != 'ADMIN' and position['function_id'] not in function_ids: abort(403) return position def get_position_by_id(id, check_submitter=True): position = get_db().execute( 'SELECT p.id, ps.name as status, rs.name as recruitment_status, number, pl.name as pillar, c.name as company, d.name as department,' 'f.id as function_id, f.name as function, title, functional_reporting_line, disciplinary_reporting_line, holder,' 'hours, start_date, end_date, salary, social_security_contribution, fringe_benefit, performance_bonus, super_bonus, management_bonus' ' FROM position p' ' JOIN company c ON p.company_id = c.id' ' JOIN pillar pl ON p.pillar_id = pl.id' ' JOIN department d ON p.department_id = d.id' ' JOIN function f ON p.function_id = f.id' ' JOIN position_status ps ON p.status_id = ps.id' ' JOIN recruitment_status rs ON p.recruitment_status_id = rs.id' ' WHERE p.id = ? AND p.isBudget = 0', (id,) ).fetchone() if position is None: abort(404, "Position id {0} doesn't exist.".format(id)) user_functions = get_user_function(session['user_id']) function_ids = [function['function_id'] for function in user_functions] if check_submitter and g.user['type'] != 'ADMIN' and position['function_id'] not in function_ids: abort(403) return position def get_positions(check_submitter=True): query = ( 'SELECT p.id, ps.name as status, rs.name as recruitment_status, number, pl.name as pillar, c.name as company, er.rate as rate, d.name as department,' 'f.name as function, title, functional_reporting_line, disciplinary_reporting_line, holder,' 'hours, start_date, end_date, salary, fringe_benefit, social_security_contribution, performance_bonus, super_bonus, management_bonus' ' FROM position p' ' JOIN company c ON p.company_id = c.id' ' JOIN exchange_rate er on c.exchange_rate_id = er.id' ' JOIN pillar pl ON p.pillar_id = pl.id' ' JOIN department d ON p.department_id = d.id' ' JOIN function f ON p.function_id = f.id' ' JOIN position_status ps ON p.status_id = ps.id' ' JOIN recruitment_status rs ON p.recruitment_status_id = rs.id' ' WHERE isBudget = 0' ) if check_submitter and g.user['type'] != 'ADMIN': user_functions = get_user_function(session['user_id']) if user_functions: function_ids = [function['function_id'] for function in user_functions] query += ' AND f.id IN (?' + ', ?' * (len(function_ids)-1) + ')' return get_db().execute(query, tuple(function_ids)).fetchall() abort(403, 'You are not assigned to any functions') return get_db().execute(query).fetchall()
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6
354ce7a5fccba75ebe10ba5320b4828e8ff84d6c
134
py
Python
tests/test_roomacoustics.py
ben-kas/pyrato
5880c53588f807a0fdd5271003aa72b5a3e2330e
[ "MIT" ]
3
2021-01-05T10:43:58.000Z
2022-02-16T07:57:11.000Z
tests/test_roomacoustics.py
ben-kas/pyrato
5880c53588f807a0fdd5271003aa72b5a3e2330e
[ "MIT" ]
1
2022-02-17T07:43:01.000Z
2022-02-17T07:43:01.000Z
tests/test_roomacoustics.py
ben-kas/pyrato
5880c53588f807a0fdd5271003aa72b5a3e2330e
[ "MIT" ]
1
2020-12-14T16:11:42.000Z
2020-12-14T16:11:42.000Z
#!/usr/bin/env python # -*- coding: utf-8 -*- """Tests for `roomacoustics` package.""" def test_import(): import roomacoustics
14.888889
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1
0
1
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6
35862b6c6a5a4ddb830c5a0f01205bc0be751a53
96
py
Python
venv/lib/python3.8/site-packages/pyflakes/__main__.py
Retraces/UkraineBot
3d5d7f8aaa58fa0cb8b98733b8808e5dfbdb8b71
[ "MIT" ]
2
2022-03-13T01:58:52.000Z
2022-03-31T06:07:54.000Z
venv/lib/python3.8/site-packages/pyflakes/__main__.py
DesmoSearch/Desmobot
b70b45df3485351f471080deb5c785c4bc5c4beb
[ "MIT" ]
19
2021-11-20T04:09:18.000Z
2022-03-23T15:05:55.000Z
venv/lib/python3.8/site-packages/pyflakes/__main__.py
DesmoSearch/Desmobot
b70b45df3485351f471080deb5c785c4bc5c4beb
[ "MIT" ]
null
null
null
/home/runner/.cache/pip/pool/f6/19/ad/4eaa38a8043077bd5fd9e91630881be777ebc4657011a6c55861bf5a21
96
96
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6
359544b911a99f0c5f8b34ab22463fc2a8c9cbfb
2,864
py
Python
core/models/utils.py
benoitmarteau/facies_classification_benchmark
25650361780191b1c624510728a156fa30b16829
[ "MIT" ]
60
2019-01-12T21:37:33.000Z
2022-03-23T02:17:43.000Z
core/models/utils.py
benoitmarteau/facies_classification_benchmark
25650361780191b1c624510728a156fa30b16829
[ "MIT" ]
6
2019-10-09T03:33:58.000Z
2021-12-24T17:34:34.000Z
core/models/utils.py
benoitmarteau/facies_classification_benchmark
25650361780191b1c624510728a156fa30b16829
[ "MIT" ]
25
2019-01-26T13:04:02.000Z
2021-11-26T08:20:26.000Z
import torch import torch.nn as nn import torch.nn.functional as F class conv2DBatchNorm(nn.Module): def __init__(self, in_channels, n_filters, k_size, stride, padding, bias=True, dilation=1): super(conv2DBatchNorm, self).__init__() if dilation > 1: conv_mod = nn.Conv2d(int(in_channels), int(n_filters), kernel_size=k_size, padding=padding, stride=stride, bias=bias, dilation=dilation) else: conv_mod = nn.Conv2d(int(in_channels), int(n_filters), kernel_size=k_size, padding=padding, stride=stride, bias=bias, dilation=1) self.cb_unit = nn.Sequential(conv_mod, nn.BatchNorm2d(int(n_filters)),) def forward(self, inputs): outputs = self.cb_unit(inputs) return outputs class deconv2DBatchNorm(nn.Module): def __init__(self, in_channels, n_filters, k_size, stride, padding, bias=True): super(deconv2DBatchNorm, self).__init__() self.dcb_unit = nn.Sequential(nn.ConvTranspose2d(int(in_channels), int(n_filters), kernel_size=k_size, padding=padding, stride=stride, bias=bias), nn.BatchNorm2d(int(n_filters)),) def forward(self, inputs): outputs = self.dcb_unit(inputs) return outputs class conv2DBatchNormRelu(nn.Module): def __init__(self, in_channels, n_filters, k_size, stride, padding, bias=True, dilation=1): super(conv2DBatchNormRelu, self).__init__() if dilation > 1: conv_mod = nn.Conv2d(int(in_channels), int(n_filters), kernel_size=k_size, padding=padding, stride=stride, bias=bias, dilation=dilation) else: conv_mod = nn.Conv2d(int(in_channels), int(n_filters), kernel_size=k_size, padding=padding, stride=stride, bias=bias, dilation=1) self.cbr_unit = nn.Sequential(conv_mod, nn.BatchNorm2d(int(n_filters)), nn.ReLU(inplace=True),) def forward(self, inputs): outputs = self.cbr_unit(inputs) return outputs class deconv2DBatchNormRelu(nn.Module): def __init__(self, in_channels, n_filters, k_size, stride, padding, bias=True): super(deconv2DBatchNormRelu, self).__init__() self.dcbr_unit = nn.Sequential(nn.ConvTranspose2d(int(in_channels), int(n_filters), kernel_size=k_size, padding=padding, stride=stride, bias=bias), nn.BatchNorm2d(int(n_filters)), nn.ReLU(inplace=True),) def forward(self, inputs): outputs = self.dcbr_unit(inputs) return outputs
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0.830446
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0.778465
0.778465
0.778465
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0.012042
0.30412
2,864
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39.777778
0.798796
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0.156863
false
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0.058824
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0
0
0
0
0
0
6
35a909edaa08d5749b27af0ca66eb65fb69ba90f
25
py
Python
different/__init__.py
amatuni/different
efc9c5881be6b2d05e6799928e22deb085a8a4a7
[ "MIT" ]
null
null
null
different/__init__.py
amatuni/different
efc9c5881be6b2d05e6799928e22deb085a8a4a7
[ "MIT" ]
null
null
null
different/__init__.py
amatuni/different
efc9c5881be6b2d05e6799928e22deb085a8a4a7
[ "MIT" ]
null
null
null
from .different import *
12.5
24
0.76
3
25
6.333333
1
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6
35be9629bca17875a8e96abc6004217494ee829c
3,027
py
Python
main.py
Sakurai07/Google.py
d849ced11de8e8c7731c8da2a5d8c2288917d7c3
[ "MIT" ]
null
null
null
main.py
Sakurai07/Google.py
d849ced11de8e8c7731c8da2a5d8c2288917d7c3
[ "MIT" ]
null
null
null
main.py
Sakurai07/Google.py
d849ced11de8e8c7731c8da2a5d8c2288917d7c3
[ "MIT" ]
null
null
null
print("Made by Sakurai07") print("https://github.com/sakurai07/") from googleapi import google import os import time import asyncio dots = 1 num_page = 1 dp = 1 def ser(q, num_page): dots = 1 search_results = google.search(q, num_page) while search_results == []: c() dots += 1 if dots == 0: print("(|)loading") elif dots == 1: print("(/)loading.") elif dots == 2: print("(-)loading..") elif dots == 3: print("(\)loading...") dots = 0 search_results = google.search(search, num_page) c() for result in search_results: print() print(result.name) print() print("description:",result.description) print() print("link:",result.link) print() print("page",num_page) def c(): os.system("clear") while True: num_page = 1 search = input("search google.py: ") print("querying...") search_results = google.search(search, num_page) while search_results == []: c() dots += 1 if dots == 0: print("(|)loading") elif dots == 1: print("(/)loading.") elif dots == 2: print("(-)loading..") elif dots == 3: print("(\)loading...") dots = 0 search_results = google.search(search, num_page) c() for result in search_results: print() print(result.name) print() print("description:",result.description) print() print("link:",result.link) print() print("page:",num_page) while True: print("type n for new tab, np for next page and lp for last page") men2 = input(">") if men2 == "n": num_page = 1 search = input("search google.py: ") print("querying...") search_results = google.search(search, num_page) while search_results == []: c() dots += 1 if dots == 0: print("(|)loading") elif dots == 1: print("(/)loading.") elif dots == 2: print("(-)loading..") elif dots == 3: print("(\)loading...") dots = 0 search_results = google.search(search, num_page) c() for result in search_results: print(result.name) print() print("description:",result.description) print() print("link:",result.link) print() print("page number:",num_page) elif men2 == "np": dp += 1 ser(search, dp) elif men2 == "lp": if dp != 0: dp -= 1 ser(search,dp) else: dp = dp ser(search, dp)
27.770642
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0.451933
308
3,027
4.36039
0.181818
0.067759
0.107223
0.134028
0.760983
0.740134
0.740134
0.740134
0.740134
0.740134
0
0.019763
0.414932
3,027
109
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27.770642
0.738566
0
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0.771429
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0.126156
0
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1
0.019048
false
0
0.038095
0
0.057143
0.380952
0
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null
0
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1
1
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6
35e43354ac608991c840c28cb5d56f0d56507a66
22
py
Python
ampere/__init__.py
nealde/Ampere
75fa9c34940a71ef865eb98b551b4a4a27da96c3
[ "MIT" ]
19
2019-03-25T09:49:47.000Z
2022-02-20T07:40:18.000Z
ampere/__init__.py
nealde/battery
75fa9c34940a71ef865eb98b551b4a4a27da96c3
[ "MIT" ]
6
2018-09-28T19:27:25.000Z
2019-01-07T16:00:09.000Z
ampere/__init__.py
nealde/battery
75fa9c34940a71ef865eb98b551b4a4a27da96c3
[ "MIT" ]
6
2019-01-25T16:50:56.000Z
2021-01-29T21:36:32.000Z
from .ampere import *
11
21
0.727273
3
22
5.333333
1
0
0
0
0
0
0
0
0
0
0
0
0.181818
22
1
22
22
0.888889
0
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true
0
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0
1
0
1
0
1
0
0
6
35e6933f2cd85e4b19bcac70124a6811ba23f30e
8,974
py
Python
tests/components/homekit_controller/test_cover.py
MrDelik/core
93a66cc357b226389967668441000498a10453bb
[ "Apache-2.0" ]
30,023
2016-04-13T10:17:53.000Z
2020-03-02T12:56:31.000Z
tests/components/homekit_controller/test_cover.py
MrDelik/core
93a66cc357b226389967668441000498a10453bb
[ "Apache-2.0" ]
24,710
2016-04-13T08:27:26.000Z
2020-03-02T12:59:13.000Z
tests/components/homekit_controller/test_cover.py
MrDelik/core
93a66cc357b226389967668441000498a10453bb
[ "Apache-2.0" ]
11,956
2016-04-13T18:42:31.000Z
2020-03-02T09:32:12.000Z
"""Basic checks for HomeKitalarm_control_panel.""" from aiohomekit.model.characteristics import CharacteristicsTypes from aiohomekit.model.services import ServicesTypes from tests.components.homekit_controller.common import setup_test_component def create_window_covering_service(accessory): """Define a window-covering characteristics as per page 219 of HAP spec.""" service = accessory.add_service(ServicesTypes.WINDOW_COVERING) cur_state = service.add_char(CharacteristicsTypes.POSITION_CURRENT) cur_state.value = 0 targ_state = service.add_char(CharacteristicsTypes.POSITION_TARGET) targ_state.value = 0 position_state = service.add_char(CharacteristicsTypes.POSITION_STATE) position_state.value = 0 position_hold = service.add_char(CharacteristicsTypes.POSITION_HOLD) position_hold.value = 0 obstruction = service.add_char(CharacteristicsTypes.OBSTRUCTION_DETECTED) obstruction.value = False name = service.add_char(CharacteristicsTypes.NAME) name.value = "testdevice" return service def create_window_covering_service_with_h_tilt(accessory): """Define a window-covering characteristics as per page 219 of HAP spec.""" service = create_window_covering_service(accessory) tilt_current = service.add_char(CharacteristicsTypes.HORIZONTAL_TILT_CURRENT) tilt_current.value = 0 tilt_target = service.add_char(CharacteristicsTypes.HORIZONTAL_TILT_TARGET) tilt_target.value = 0 def create_window_covering_service_with_v_tilt(accessory): """Define a window-covering characteristics as per page 219 of HAP spec.""" service = create_window_covering_service(accessory) tilt_current = service.add_char(CharacteristicsTypes.VERTICAL_TILT_CURRENT) tilt_current.value = 0 tilt_target = service.add_char(CharacteristicsTypes.VERTICAL_TILT_TARGET) tilt_target.value = 0 async def test_change_window_cover_state(hass, utcnow): """Test that we can turn a HomeKit alarm on and off again.""" helper = await setup_test_component(hass, create_window_covering_service) await hass.services.async_call( "cover", "open_cover", {"entity_id": helper.entity_id}, blocking=True ) helper.async_assert_service_values( ServicesTypes.WINDOW_COVERING, { CharacteristicsTypes.POSITION_TARGET: 100, }, ) await hass.services.async_call( "cover", "close_cover", {"entity_id": helper.entity_id}, blocking=True ) helper.async_assert_service_values( ServicesTypes.WINDOW_COVERING, { CharacteristicsTypes.POSITION_TARGET: 0, }, ) async def test_read_window_cover_state(hass, utcnow): """Test that we can read the state of a HomeKit alarm accessory.""" helper = await setup_test_component(hass, create_window_covering_service) await helper.async_update( ServicesTypes.WINDOW_COVERING, {CharacteristicsTypes.POSITION_STATE: 0}, ) state = await helper.poll_and_get_state() assert state.state == "closing" await helper.async_update( ServicesTypes.WINDOW_COVERING, {CharacteristicsTypes.POSITION_STATE: 1}, ) state = await helper.poll_and_get_state() assert state.state == "opening" await helper.async_update( ServicesTypes.WINDOW_COVERING, {CharacteristicsTypes.POSITION_STATE: 2}, ) state = await helper.poll_and_get_state() assert state.state == "closed" await helper.async_update( ServicesTypes.WINDOW_COVERING, {CharacteristicsTypes.OBSTRUCTION_DETECTED: True}, ) state = await helper.poll_and_get_state() assert state.attributes["obstruction-detected"] is True async def test_read_window_cover_tilt_horizontal(hass, utcnow): """Test that horizontal tilt is handled correctly.""" helper = await setup_test_component( hass, create_window_covering_service_with_h_tilt ) await helper.async_update( ServicesTypes.WINDOW_COVERING, {CharacteristicsTypes.HORIZONTAL_TILT_CURRENT: 75}, ) state = await helper.poll_and_get_state() assert state.attributes["current_tilt_position"] == 75 async def test_read_window_cover_tilt_vertical(hass, utcnow): """Test that vertical tilt is handled correctly.""" helper = await setup_test_component( hass, create_window_covering_service_with_v_tilt ) await helper.async_update( ServicesTypes.WINDOW_COVERING, {CharacteristicsTypes.VERTICAL_TILT_CURRENT: 75}, ) state = await helper.poll_and_get_state() assert state.attributes["current_tilt_position"] == 75 async def test_write_window_cover_tilt_horizontal(hass, utcnow): """Test that horizontal tilt is written correctly.""" helper = await setup_test_component( hass, create_window_covering_service_with_h_tilt ) await hass.services.async_call( "cover", "set_cover_tilt_position", {"entity_id": helper.entity_id, "tilt_position": 90}, blocking=True, ) helper.async_assert_service_values( ServicesTypes.WINDOW_COVERING, { CharacteristicsTypes.HORIZONTAL_TILT_TARGET: 90, }, ) async def test_write_window_cover_tilt_vertical(hass, utcnow): """Test that vertical tilt is written correctly.""" helper = await setup_test_component( hass, create_window_covering_service_with_v_tilt ) await hass.services.async_call( "cover", "set_cover_tilt_position", {"entity_id": helper.entity_id, "tilt_position": 90}, blocking=True, ) helper.async_assert_service_values( ServicesTypes.WINDOW_COVERING, { CharacteristicsTypes.VERTICAL_TILT_TARGET: 90, }, ) async def test_window_cover_stop(hass, utcnow): """Test that vertical tilt is written correctly.""" helper = await setup_test_component( hass, create_window_covering_service_with_v_tilt ) await hass.services.async_call( "cover", "stop_cover", {"entity_id": helper.entity_id}, blocking=True ) helper.async_assert_service_values( ServicesTypes.WINDOW_COVERING, { CharacteristicsTypes.POSITION_HOLD: True, }, ) def create_garage_door_opener_service(accessory): """Define a garage-door-opener chars as per page 217 of HAP spec.""" service = accessory.add_service(ServicesTypes.GARAGE_DOOR_OPENER) cur_state = service.add_char(CharacteristicsTypes.DOOR_STATE_CURRENT) cur_state.value = 0 cur_state = service.add_char(CharacteristicsTypes.DOOR_STATE_TARGET) cur_state.value = 0 obstruction = service.add_char(CharacteristicsTypes.OBSTRUCTION_DETECTED) obstruction.value = False name = service.add_char(CharacteristicsTypes.NAME) name.value = "testdevice" return service async def test_change_door_state(hass, utcnow): """Test that we can turn open and close a HomeKit garage door.""" helper = await setup_test_component(hass, create_garage_door_opener_service) await hass.services.async_call( "cover", "open_cover", {"entity_id": helper.entity_id}, blocking=True ) helper.async_assert_service_values( ServicesTypes.GARAGE_DOOR_OPENER, { CharacteristicsTypes.DOOR_STATE_TARGET: 0, }, ) await hass.services.async_call( "cover", "close_cover", {"entity_id": helper.entity_id}, blocking=True ) helper.async_assert_service_values( ServicesTypes.GARAGE_DOOR_OPENER, { CharacteristicsTypes.DOOR_STATE_TARGET: 1, }, ) async def test_read_door_state(hass, utcnow): """Test that we can read the state of a HomeKit garage door.""" helper = await setup_test_component(hass, create_garage_door_opener_service) await helper.async_update( ServicesTypes.GARAGE_DOOR_OPENER, {CharacteristicsTypes.DOOR_STATE_CURRENT: 0}, ) state = await helper.poll_and_get_state() assert state.state == "open" await helper.async_update( ServicesTypes.GARAGE_DOOR_OPENER, {CharacteristicsTypes.DOOR_STATE_CURRENT: 1}, ) state = await helper.poll_and_get_state() assert state.state == "closed" await helper.async_update( ServicesTypes.GARAGE_DOOR_OPENER, {CharacteristicsTypes.DOOR_STATE_CURRENT: 2}, ) state = await helper.poll_and_get_state() assert state.state == "opening" await helper.async_update( ServicesTypes.GARAGE_DOOR_OPENER, {CharacteristicsTypes.DOOR_STATE_CURRENT: 3}, ) state = await helper.poll_and_get_state() assert state.state == "closing" await helper.async_update( ServicesTypes.GARAGE_DOOR_OPENER, {CharacteristicsTypes.OBSTRUCTION_DETECTED: True}, ) state = await helper.poll_and_get_state() assert state.attributes["obstruction-detected"] is True
32.05
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1,045
8,974
5.858373
0.107177
0.061745
0.032016
0.077752
0.912937
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0.836328
0.819013
0.779811
0.748122
0
0.007079
0.197236
8,974
279
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32.164875
0.842726
0.035324
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0.010843
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0.088235
1
0.019608
false
0
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0
0
0
6
ea24ee23463f2e6fbe7c9346efd64b147c438492
10,450
py
Python
panel/tests/view_tests.py
freejooo/vigilio
d21bf4f9d39e5dcde5d7c21476d8650e914c3c66
[ "MIT" ]
137
2021-03-26T18:19:45.000Z
2022-03-06T07:48:23.000Z
panel/tests/view_tests.py
rrosajp/vigilio
d21bf4f9d39e5dcde5d7c21476d8650e914c3c66
[ "MIT" ]
11
2021-03-28T00:07:00.000Z
2021-05-04T12:54:58.000Z
panel/tests/view_tests.py
rrosajp/vigilio
d21bf4f9d39e5dcde5d7c21476d8650e914c3c66
[ "MIT" ]
16
2021-03-27T23:58:53.000Z
2022-03-20T14:52:13.000Z
from typing import Dict, List import pytest from django.test import Client from django.urls import reverse from pytest_mock import MockerFixture from stream.models import Movie from stream.tests.factories import MovieFactory @pytest.fixture def ignore_setup(mocker: MockerFixture) -> None: mocker.patch("panel.decorators.is_panel_ready") @pytest.fixture def bad_setup(mocker: MockerFixture) -> None: _setup = mocker.patch("panel.decorators.is_panel_ready") _setup.return_value = False @pytest.fixture def ignore_settings(mocker: MockerFixture) -> None: mocker.patch("panel.decorators.are_settings_filled") @pytest.fixture def bad_settings(mocker: MockerFixture) -> None: _settings = mocker.patch("panel.decorators.are_settings_filled") _settings.return_value = False @pytest.mark.usefixtures("db") class TestSetupPanel: def test_blocks_unauthorized(self, client: Client) -> None: response = client.get(reverse("panel:setup_panel")) assert response.status_code == 302 assert response.url == f"{reverse('login')}?next={reverse('panel:setup_panel')}" def test_redirects_to_initial_setup( self, user_client: Client, ignore_setup, bad_settings ) -> None: response = user_client.get("/panel/setup-panel/") assert response.status_code == 302 assert ( response.url == f"{reverse('panel:initial_setup')}?next={reverse('panel:setup_panel')}" ) def test_renders_context_correctly( self, user_client: Client, mocker: MockerFixture, ignore_settings, ignore_setup ) -> None: commands: Dict[str, List[str]] = {"ffmpeg": ["test1"], "ffprobe": ["test2"]} status = mocker.patch("panel.views.get_installation_status") status.return_value = commands response = user_client.get("/panel/setup-panel/", HTTP_REFERER="/categories") assert response.status_code == 200 context: str = response.content.decode("UTF-8") for key, value in commands.items(): assert key in context assert value[0] in context @pytest.mark.usefixtures("db") class TestIndex: def test_blocks_unauthorized(self, client: Client) -> None: response = client.get(reverse("panel:index")) assert response.status_code == 302 assert response.url == f"{reverse('login')}?next={reverse('panel:index')}" def test_redirects_to_setup(self, user_client: Client, bad_setup) -> None: response = user_client.get(reverse("panel:index")) assert response.status_code == 302 assert response.url == "/panel/setup-panel/" def test_redirects_to_initial_setup( self, user_client: Client, ignore_setup, bad_settings ) -> None: response = user_client.get("/panel/") assert response.status_code == 302 assert ( response.url == f"{reverse('panel:initial_setup')}?next={reverse('panel:index')}" ) def test_responds_correctly( self, user_client: Client, ignore_settings, ignore_setup ) -> None: movie: Movie = MovieFactory() response = user_client.get("/panel/") assert response.status_code == 200 assert movie.title in response.content.decode("UTF-8") @pytest.mark.usefixtures("db") class TestAddMovie: def test_blocks_unauthorized(self, client: Client) -> None: response = client.get(reverse("panel:add_movie")) assert response.status_code == 302 assert response.url == f"{reverse('login')}?next={reverse('panel:add_movie')}" def test_redirects_to_setup(self, user_client: Client, bad_setup) -> None: response = user_client.get("/panel/add-movie/") assert response.status_code == 302 assert response.url == "/panel/setup-panel/" def test_redirects_when_daemons_are_not_running( self, user_client: Client, mocker: MockerFixture, ignore_setup ) -> None: background = mocker.patch("panel.decorators.is_background_running") background.return_value = False response = user_client.get("/panel/add-movie/") assert response.status_code == 302 assert ( response.url == f"{reverse('panel:background_processes')}?next={reverse('panel:add_movie')}" ) def test_redirects_to_initial_setup( self, user_client: Client, mocker: MockerFixture, ignore_setup, bad_settings ) -> None: mocker.patch("panel.decorators.is_background_running") response = user_client.get("/panel/add-movie/") assert response.status_code == 302 assert ( response.url == f"{reverse('panel:initial_setup')}?next={reverse('panel:add_movie')}" ) def test_responds_correctly( self, user_client: Client, mocker: MockerFixture, ignore_settings, ignore_setup ) -> None: mocker.patch("panel.decorators.is_background_running") response = user_client.get("/panel/add-movie/") assert response.status_code == 200 assert response.context[-1].template_name == "panel/add_movie.html" @pytest.mark.usefixtures("db") class TestBackgroundManagement: def test_blocks_unauthorized(self, client: Client) -> None: response = client.get(reverse("panel:background_management")) assert response.status_code == 302 assert ( response.url == f"{reverse('login')}?next={reverse('panel:background_management')}" ) def test_redirects_to_setup(self, user_client: Client, bad_setup) -> None: response = user_client.get("/panel/background-management/") assert response.status_code == 302 assert response.url == "/panel/setup-panel/" def test_redirects_to_initial_setup( self, user_client: Client, ignore_setup, bad_settings ) -> None: response = user_client.get("/panel/background-management/") assert response.status_code == 302 assert ( response.url == f"{reverse('panel:initial_setup')}?next={reverse('panel:background_management')}" ) def test_responds_correctly( self, user_client: Client, ignore_settings, ignore_setup ) -> None: response = user_client.get("/panel/background-management/") assert response.status_code == 200 assert response.context[-1].template_name == "panel/background_management.html" @pytest.mark.usefixtures("db") class TestBackgroundProcess: def test_blocks_unauthorized(self, client: Client) -> None: response = client.get(reverse("panel:background_processes")) assert response.status_code == 302 assert ( response.url == f"{reverse('login')}?next={reverse('panel:background_processes')}" ) def test_redirects_to_setup(self, user_client: Client, bad_setup) -> None: response = user_client.get("/panel/background-processes/") assert response.status_code == 302 assert response.url == "/panel/setup-panel/" def test_redirects_to_initial_setup( self, user_client: Client, ignore_setup, bad_settings ) -> None: response = user_client.get("/panel/background-processes/") assert response.status_code == 302 assert ( response.url == f"{reverse('panel:initial_setup')}?next={reverse('panel:background_processes')}" ) def test_responds_correctly( self, user_client: Client, mocker: MockerFixture, ignore_settings, ignore_setup ) -> None: mocker.patch("panel.views.is_redis_online") mocker.patch("panel.views.is_celery_running") mocker.patch("panel.views.is_qbittorrent_running") response = user_client.get("/panel/background-processes/") assert response.status_code == 200 assert response.context[-1].template_name == "panel/background_process.html" @pytest.mark.usefixtures("db") class TestMovieDetail: def test_blocks_unauthorized(self, client: Client) -> None: response = client.get(reverse("panel:movie_detail", kwargs={"movie_id": 1})) assert response.status_code == 302 assert ( response.url == f"{reverse('login')}?next={reverse('panel:movie_detail', kwargs={'movie_id': 1})}" ) def test_redirects_to_setup(self, user_client: Client, bad_setup) -> None: movie: Movie = MovieFactory() response = user_client.get(f"/panel/movie-detail/{movie.id}") assert response.status_code == 302 assert response.url == "/panel/setup-panel/" def test_redirects_to_initial_setup( self, user_client: Client, ignore_setup, bad_settings ) -> None: movie: Movie = MovieFactory() response = user_client.get(f"/panel/movie-detail/{movie.id}") assert response.status_code == 302 assert ( response.url == f"{reverse('panel:initial_setup')}?next={reverse('panel:movie_detail', kwargs={'movie_id': 1})}" ) def test_renders_movies( self, user_client: Client, ignore_settings, ignore_setup ) -> None: movie: Movie = MovieFactory() response = user_client.get(f"/panel/movie-detail/{movie.id}") assert response.status_code == 200 assert response.context[-1].template_name == "panel/movie_detail.html" assert f'mid="{movie.id}"' in response.content.decode("UTF-8") @pytest.mark.usefixtures("db") class TestUserHistory: def test_blocks_unauthorized(self, client: Client) -> None: response = client.get(reverse("panel:user_history")) assert response.status_code == 302 assert ( response.url == f"{reverse('login')}?next={reverse('panel:user_history')}" ) def test_redirects_to_initial_setup( self, user_client: Client, ignore_setup, bad_settings ) -> None: response = user_client.get("/panel/history/") assert response.status_code == 302 assert ( response.url == f"{reverse('panel:initial_setup')}?next={reverse('panel:user_history')}" ) def test_responds_correctly(self, user_client: Client, ignore_settings) -> None: response = user_client.get("/panel/history/") assert response.status_code == 200 assert response.context[-1].template_name == "panel/user_history.html"
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6
ea57fec66f53af30e47e4cae0c5c43b28af3d25f
10,825
py
Python
CPDNN_base.py
xuzhiqin1990/MSDNN2ellipticPDEs
ddaee034474c18bc23b51824fb6a00539c07d52c
[ "MIT" ]
1
2021-12-23T07:40:04.000Z
2021-12-23T07:40:04.000Z
CPDNN_base.py
xuzhiqin1990/MSDNN2ellipticPDEs
ddaee034474c18bc23b51824fb6a00539c07d52c
[ "MIT" ]
null
null
null
CPDNN_base.py
xuzhiqin1990/MSDNN2ellipticPDEs
ddaee034474c18bc23b51824fb6a00539c07d52c
[ "MIT" ]
1
2021-12-31T10:57:17.000Z
2021-12-31T10:57:17.000Z
# -*- coding: utf-8 -*- """ Modify on 2020年4月1日 @author: LXG Benchmark Code of Coupled PhaseDNN for ODE. """ import tensorflow as tf import numpy as np # ---------------------------------------------- my activations ----------------------------------------------- def srelu(x): return tf.nn.relu(1-x)*tf.nn.relu(x) def sin_srelu(x): return tf.nn.relu(1-x)*tf.nn.relu(x)*tf.sin(2*np.pi*x) def sin2_srelu(x): return 2.0*tf.nn.relu(1-x)*tf.nn.relu(x)*tf.sin(4*np.pi*x)*tf.sin(2*np.pi*x) def slrelu(x): return tf.nn.leaky_relu(1-x)*tf.nn.leaky_relu(x) def pow2relu(x): return tf.nn.relu(1-x)*tf.nn.relu(x)*tf.nn.relu(x) def selu(x): return tf.nn.elu(1-x)*tf.nn.elu(x) def wave(x): return tf.nn.relu(x) - 2*tf.nn.relu(x-1/4) + \ 2*tf.nn.relu(x-3/4) - tf.nn.relu(x-1) def phi(x): return tf.nn.relu(x) * tf.nn.relu(x)-3*tf.nn.relu(x-1)*tf.nn.relu(x-1) + 3*tf.nn.relu(x-2)*tf.nn.relu(x-2) \ - tf.nn.relu(x-3)*tf.nn.relu(x-3)*tf.nn.relu(x-3) # 生成DNN的权重和偏置 # layers indicates the number of HIDDEN LAYERS, without input and output layers # tf.random_normal(): 用于从服从指定正太分布的数值中取出随机数 # tf.random_normal(shape,mean=0.0,stddev=1.0,dtype=tf.float32,seed=None,name=None) # hape: 输出张量的形状,必选.--- mean: 正态分布的均值,默认为0.----stddev: 正态分布的标准差,默认为1.0 # dtype: 输出的类型,默认为tf.float32 ----seed: 随机数种子,是一个整数,当设置之后,每次生成的随机数都一样---name: 操作的名称 def Initial_DNN(in_size, out_size, hidden_index, variateFlag): layers = len(hidden_index) Weights = [] # 权重列表,用于存储隐藏层的权重 Biases = [] # 偏置列表,用于存储隐藏层的偏置 # 第一层的权重和偏置,对输入数据做变换 W = tf.Variable(0.1 * tf.random.normal([in_size, hidden_index[0]]), dtype='float32', name='W-transInput' + str(variateFlag)) B = tf.Variable(0.1 * tf.random.uniform([1, hidden_index[0]]), dtype='float32', name='B-transInput' + str(variateFlag)) Weights.append(W) Biases.append(B) # 隐藏层:第二至倒数第二层的权重和偏置 for i_layer in range(layers - 1): W = tf.Variable(0.1 * tf.random.normal([hidden_index[i_layer], hidden_index[i_layer+1]]), dtype='float32', name='W-hidden' + str(i_layer + 1) + str(variateFlag)) B = tf.Variable(0.1 * tf.random.uniform([1, hidden_index[i_layer+1]]), dtype='float32', name='B-hidden' + str(i_layer + 1) + str(variateFlag)) Weights.append(W) Biases.append(B) # 最后一层的权重和偏置。将最后的结果变换到输出维度 W = tf.Variable(0.1 * tf.random.normal([hidden_index[-1], out_size]), dtype='float32', name='W-outTrans' + str(variateFlag)) B = tf.Variable(0.1 * tf.random.uniform([1, out_size]), dtype='float32', name='B-outTrans' + str(variateFlag)) Weights.append(W) Biases.append(B) return Weights, Biases # 这里可不可以利用attention 呢?关联 input 和 output。得到 attention 系数后,然后作用到input上 # 但是如何让input 和 output attention 关联起来呢 ? def multilayer_DNN_residual(variable_input, Weights, Biases, CPDNN_activation=tf.nn.relu): layers = len(Weights) # 得到输入到输出的层数,即隐藏层层数 H = variable_input # 代表输入数据,即输入层 beta = tf.constant(0.1) H_pre = variable_input W_pre = Weights[0] dims_pre = tf.shape(W_pre) for k in range(layers-1): W = Weights[k] B = Biases[k] H = CPDNN_activation(tf.add(tf.matmul(H, W), B)) * CPDNN_activation(1 - tf.add(tf.matmul(H, W), B)) dim_post = tf.shape(W) if dim_post[-1] == dims_pre[-1]: H = H + beta*H_pre H_pre = H W_pre = W dims_pre = tf.shape(W_pre) W_out = Weights[-1] B_out = Biases[-1] output = tf.add(tf.matmul(H, W_out), B_out) # dim_post = tf.shape(W_out) # if dim_post[-1] == dims_pre[-1]: # output = output + beta * H output = tf.nn.tanh(output) return output # 这里可不可以利用attention 呢?关联 input 和 output。得到 attention 系数后,然后作用到input上 # 但是如何让input 和 output attention 关联起来呢 ? def multilayer_DNN_attention(variable_input, Weights, Biases, CPDNN_activation=tf.nn.relu): layers = len(Weights) # 得到输入到输出的层数,即隐藏层层数 H = variable_input # 代表输入数据,即输入层 for k in range(layers-1): W = Weights[k] B = Biases[k] # H = CPDNN_activation(tf.add(tf.matmul(H, W), B)) H = CPDNN_activation(tf.add(tf.matmul(H, W), B)) * CPDNN_activation(1 - tf.add(tf.matmul(H, W), B)) W_out = Weights[-1] B_out = Biases[-1] output = tf.add(tf.matmul(H, W_out), B_out) # 下面这个是输出层 output = tf.nn.tanh(output) return output def multilayer_DNN(variable_input, Weights, Biases, CPDNN_activation=tf.nn.relu): layers = len(Weights) # 得到输入到输出的层数,即隐藏层层数 H = variable_input # 代表输入数据,即输入层 for k in range(layers-1): W = Weights[k] B = Biases[k] # H = CPDNN_activation(tf.add(tf.matmul(H, W), B)) H = CPDNN_activation(tf.add(tf.matmul(H, W), B)) * CPDNN_activation(1 - tf.add(tf.matmul(H, W), B)) W_out = Weights[-1] B_out = Biases[-1] output = tf.add(tf.matmul(H, W_out), B_out) # 下面这个是输出层 output = tf.nn.tanh(output) return output def CPS_DNN(input_x, freqs, Weights0, Biases0, Weights_COS, Biases_COS, Weights_SIN, Biases_SIN, activate_name=tf.nn.relu): if activate_name == 'relu': CPDNN_activation = tf.nn.relu elif activate_name == 'leaky_relu': CPDNN_activation = tf.nn.leaky_relu(0.2) elif activate_name == 'elu': CPDNN_activation = tf.nn.elu elif activate_name == 'srelu': CPDNN_activation = srelu elif activate_name == 'sin_srelu': CPDNN_activation = sin_srelu elif activate_name == 'sin2_srelu': CPDNN_activation = sin2_srelu elif activate_name == 'slrelu': CPDNN_activation = slrelu elif activate_name == 'selu': CPDNN_activation = selu elif activate_name == 'phi': CPDNN_activation = phi # 计算 m=0 时的拟合 Real = multilayer_DNN(input_x, Weights0, Biases0, CPDNN_activation) # # 计算 m=1,2,3.... 时的拟合,其中{1,2,3....}是频率数目 for k in range(len(freqs)): temp_multilayer1 = multilayer_DNN(freqs[k] * input_x, Weights_COS[k], Biases_COS[k], CPDNN_activation) * tf.cos(freqs[k] * input_x) temp_multilayer1 = 2 * temp_multilayer1 temp2 = multilayer_DNN(input_x, Weights_SIN[k], Biases_SIN[k], CPDNN_activation) * tf.sin(freqs[k]*input_x) temp2 = 2 * temp2 Real = Real + multilayer_DNN(input_x, Weights_COS[k], Biases_COS[k], CPDNN_activation) * tf.cos(freqs[k]*input_x)\ + multilayer_DNN(input_x, Weights_SIN[k], Biases_SIN[k], CPDNN_activation) * tf.sin(freqs[k]*input_x) return Real def CPS_DNN_scale(input_x, freqs, Weights0, Biases0, Weights_COS, Biases_COS, Weights_SIN, Biases_SIN, activate_name=tf.nn.relu): if activate_name == 'relu': CPDNN_activation = tf.nn.relu elif activate_name == 'leaky_relu': CPDNN_activation = tf.nn.leaky_relu(0.2) elif activate_name == 'elu': CPDNN_activation = tf.nn.elu elif activate_name == 'srelu': CPDNN_activation = srelu elif activate_name == 'sin_srelu': CPDNN_activation = sin_srelu elif activate_name == 'sin2_srelu': CPDNN_activation = sin2_srelu elif activate_name == 'slrelu': CPDNN_activation = slrelu elif activate_name == 'selu': CPDNN_activation = selu elif activate_name == 'phi': CPDNN_activation = phi # 计算 m=0 时的拟合 Real = multilayer_DNN(input_x, Weights0, Biases0, CPDNN_activation) # # 计算 m=1,2,3.... 时的拟合 for k in range(len(freqs)): temp_multilayer = multilayer_DNN(freqs[k]*input_x, Weights_COS[k], Biases_COS[k], CPDNN_activation) * tf.cos(freqs[k]*input_x) Real = Real + multilayer_DNN(freqs[k]*input_x, Weights_COS[k], Biases_COS[k], CPDNN_activation) * tf.cos(freqs[k]*input_x) \ + multilayer_DNN(freqs[k]*input_x, Weights_SIN[k], Biases_SIN[k], CPDNN_activation) * tf.sin(freqs[k]*input_x) return Real def CPS_DNN_residual(input_x, freqs, Weights0, Biases0, Weights_COS, Biases_COS, Weights_SIN, Biases_SIN, activate_name=tf.nn.relu): if activate_name == 'relu': CPDNN_activation = tf.nn.relu elif activate_name == 'leaky_relu': CPDNN_activation = tf.nn.leaky_relu(0.2) elif activate_name == 'elu': CPDNN_activation = tf.nn.elu elif activate_name == 'srelu': CPDNN_activation = srelu elif activate_name == 'sin_srelu': CPDNN_activation = sin_srelu elif activate_name == 'sin2_srelu': CPDNN_activation = sin2_srelu elif activate_name == 'slrelu': CPDNN_activation = slrelu elif activate_name == 'selu': CPDNN_activation = selu elif activate_name == 'phi': CPDNN_activation = phi # 计算 m=0 时的拟合 Real = multilayer_DNN_residual(input_x, Weights0, Biases0, CPDNN_activation) # # 计算 m=1,2,3.... 时的拟合 for k in range(len(freqs)): Real = Real + multilayer_DNN_residual(input_x, Weights_COS[k], Biases_COS[k], CPDNN_activation) * tf.cos(freqs[k]*input_x) \ + multilayer_DNN_residual(input_x, Weights_SIN[k], Biases_SIN[k], CPDNN_activation) * tf.sin(freqs[k]*input_x) return Real # L1正则化参数 def regular_weights_L1(weights0, weights_cos, weights_sin): layers1 = len(weights0) freq_num2sin_cos = len(weights_cos) layers2sin_cos = len(weights_cos[0]) regular_w = 0 for i_layer1 in range(layers1): regular_w = regular_w + tf.reduce_mean(tf.abs(weights0[i_layer1]), keep_dims=False) for i_freq in range(freq_num2sin_cos): for i_layer_sin_cos in range(layers2sin_cos): regular_w = regular_w + tf.reduce_mean(tf.abs(weights_cos[i_freq][i_layer_sin_cos]), keep_dims=False) + \ tf.reduce_mean(tf.abs(weights_sin[i_freq][i_layer_sin_cos]), keep_dims=False) return regular_w # L2正则化参数 def regular_weights_L2(weights0, weights_cos, weights_sin): layers1 = len(weights0) freq_num2sin_cos = len(weights_cos) layers2sin_cos = len(weights_cos[0]) regular_w = 0 for i_layer1 in range(layers1): regular_w = regular_w + tf.norm(weights0[i_layer1]) for i_freq in range(freq_num2sin_cos): for i_layer_sin_cos in range(layers2sin_cos): regular_w = regular_w + tf.norm(weights_cos[i_freq][i_layer_sin_cos]) + \ tf.norm(weights_sin[i_freq][i_layer_sin_cos]) return regular_w
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6
57631a3429ee691ebbe9b1b03059e22c3b2abd26
1,457
py
Python
server/openapi_server/models/__init__.py
NCATS-Tangerine/kba-reasoner
19ea293fa02693b2df5ecfe1d91856b34e73a3e1
[ "MIT" ]
null
null
null
server/openapi_server/models/__init__.py
NCATS-Tangerine/kba-reasoner
19ea293fa02693b2df5ecfe1d91856b34e73a3e1
[ "MIT" ]
null
null
null
server/openapi_server/models/__init__.py
NCATS-Tangerine/kba-reasoner
19ea293fa02693b2df5ecfe1d91856b34e73a3e1
[ "MIT" ]
null
null
null
# coding: utf-8 # flake8: noqa from __future__ import absolute_import # import models into model package from openapi_server.models.credentials import Credentials from openapi_server.models.edge import Edge from openapi_server.models.edge_attribute import EdgeAttribute from openapi_server.models.expertise_level import ExpertiseLevel from openapi_server.models.expertise_levels import ExpertiseLevels from openapi_server.models.feedback import Feedback from openapi_server.models.feedback_response import FeedbackResponse from openapi_server.models.knowledge_graph import KnowledgeGraph from openapi_server.models.message import Message from openapi_server.models.message_feedback import MessageFeedback from openapi_server.models.message_terms import MessageTerms from openapi_server.models.node import Node from openapi_server.models.node_attribute import NodeAttribute from openapi_server.models.previous_message_processing_plan import PreviousMessageProcessingPlan from openapi_server.models.q_edge import QEdge from openapi_server.models.q_node import QNode from openapi_server.models.query import Query from openapi_server.models.query_graph import QueryGraph from openapi_server.models.rating import Rating from openapi_server.models.ratings import Ratings from openapi_server.models.remote_knowledge_graph import RemoteKnowledgeGraph from openapi_server.models.result import Result from openapi_server.models.result_feedback import ResultFeedback
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576b2b3948aeaf7a364d5f3299beb9f8f6eb5d14
129
py
Python
middleware/__init__.py
liveonnet/p3_server
2dab6eab6e98b3ef0d26093eb461c635f5bc07b4
[ "Apache-2.0" ]
null
null
null
middleware/__init__.py
liveonnet/p3_server
2dab6eab6e98b3ef0d26093eb461c635f5bc07b4
[ "Apache-2.0" ]
null
null
null
middleware/__init__.py
liveonnet/p3_server
2dab6eab6e98b3ef0d26093eb461c635f5bc07b4
[ "Apache-2.0" ]
null
null
null
from .log import logger_factory from .nurse import nurse_handler_factory l_middleware = [logger_factory, nurse_handler_factory]
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579946fe2fb85154771b93ea1c6d330770f41752
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py
Python
rasa/core/frames/__init__.py
msamogh/rasa
f8b84bd3e36c8336294484174c2fce04d7b07e75
[ "Apache-2.0" ]
4
2020-04-17T17:08:59.000Z
2021-07-21T16:25:00.000Z
rasa/core/frames/__init__.py
msamogh/rasa
f8b84bd3e36c8336294484174c2fce04d7b07e75
[ "Apache-2.0" ]
5
2020-04-10T09:08:46.000Z
2021-08-25T14:40:03.000Z
rasa/core/frames/__init__.py
msamogh/rasa
f8b84bd3e36c8336294484174c2fce04d7b07e75
[ "Apache-2.0" ]
1
2020-05-02T16:00:20.000Z
2020-05-02T16:00:20.000Z
from rasa.core.frames.frame import Frame, FrameSet from rasa.core.frames.frame_policy import FramePolicy from rasa.core.frames.rule_based_frame_policy import RuleBasedFramePolicy
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57af2b0a56f304480a46a8e275f7500734150c8d
1,553
py
Python
backend/blog/views.py
jadames03/food-talk
c2b8a4fecb603b72309ae2bc6bcf47dc3cd22448
[ "MIT" ]
4
2022-01-11T03:46:17.000Z
2022-01-13T01:12:01.000Z
backend/blog/views.py
jadames03/food-talk
c2b8a4fecb603b72309ae2bc6bcf47dc3cd22448
[ "MIT" ]
2
2022-01-10T17:00:54.000Z
2022-01-13T03:01:35.000Z
backend/blog/views.py
jadames03/food-talk
c2b8a4fecb603b72309ae2bc6bcf47dc3cd22448
[ "MIT" ]
19
2022-01-08T02:29:16.000Z
2022-02-01T00:41:09.000Z
from django.shortcuts import render from django.http import HttpResponse # Create your views here. def index(request): return render(request, 'blog/index.html') def signin(request): return render(request, 'blog/signin.html') def signup(request): return render(request, 'blog/signup.html') def rasberry(request): return render(request, 'blog/raspberry.html') def burger(request): return render(request, 'blog/burger.html') def caldereta(request): return render(request, 'blog/caldereta.html') def honey(request): return render(request, 'blog/honey.html') def macaron(request): return render(request, 'blog/macaron.html') def mango(request): return render(request, 'blog/mango.html') def pastelon(request): return render(request, 'blog/pastelon.html') def sisig(request): return render(request, 'blog/sisig.html') def motehingar(request): return render(request, 'blog/motehingar.html') def scrambled_eggs(request): return render(request, 'blog/scrambled_eggs.html') def lasagna(request): return render(request, 'blog/lasagna.html') def protein_pancakes(request): return render(request, 'blog/protein_pancakes.html') def pastelon(request): return render(request, 'blog/pastelon.html') def spaghetti(request): return render(request, 'blog/spaghetti.html') def mushroom(request): return render(request, 'blog/mushroom.html') def chicken(request): return render(request, 'blog/chicken.html') def coconut(request): return render(request, 'blog/coconut.html')
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17b4775bff2a050573de841692361db025b60b28
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py
Python
saas/aiops/api/aiops-server/ai_lib/time_series_prediction/algorithm/preprocess/simpleRobustSTL/RobustSTLcode.py
iuskye/SREWorks
a2a7446767d97ec5f6d15bd00189c42150d6c894
[ "Apache-2.0" ]
407
2022-03-16T08:09:38.000Z
2022-03-31T12:27:10.000Z
saas/aiops/api/aiops-server/ai_lib/time_series_prediction/algorithm/preprocess/simpleRobustSTL/RobustSTLcode.py
Kwafoor/SREWorks
37a64a0a84b29c65cf6b77424bd2acd0c7b42e2b
[ "Apache-2.0" ]
25
2022-03-22T04:27:31.000Z
2022-03-30T08:47:28.000Z
saas/aiops/api/aiops-server/ai_lib/time_series_prediction/algorithm/preprocess/simpleRobustSTL/RobustSTLcode.py
Kwafoor/SREWorks
37a64a0a84b29c65cf6b77424bd2acd0c7b42e2b
[ "Apache-2.0" ]
109
2022-03-21T17:30:44.000Z
2022-03-31T09:36:28.000Z
"""Our Proposed Robust STL based on Spare Model and Non-local Season bilateral filtering Input: original_data - T x 1 Output: decomposed_data - T x 3 (trend, season, irregular) Author: Qingsong <qingsong.wen@alibaba-inc.com> """ from numpy.linalg import norm, cholesky import scipy.sparse as sparse import time import numbers # import logging from numbers import Number # import scipy.sparse as sp # from scipy.sparse.linalg import lsqr # from scipy.sparse import csc_matrix from sklearn.preprocessing import StandardScaler from cvxopt import matrix import pandas as pd import numpy as np from scipy.linalg import circulant from .fast_stl_utils import DetailA, PDHG, gADMMSolver """two functions to get trend and season: Sparse and robust method to get trend Bilateral season adjust to get season Author: Qingsong <qingsong.wen@alibaba-inc.com> """ def gaussian_expfun(x, sigma): minimal_sigma_n = 1e-6 sigma = minimal_sigma_n if sigma < minimal_sigma_n else sigma return np.exp(-(x * x) / (2.0 * sigma * sigma)) def gaussian_kernel(sigma, radius): """Computes 1D Gaussian kernel weights The length of weights is 2*radius + 1 """ if sigma <= 0: raise ValueError('sigma must be larger than zero.') tmp_x = np.arange(-radius, radius + 1) phi_x = gaussian_expfun(tmp_x, sigma) phi_x /= phi_x.sum() return phi_x def calcu_noise_sigma(ts_data): """Calculate the eatimated noise's Standard Deviation This method here is based on the paper: Theo Gasser, Lothar Sroka, and Christine Jennen-Stienmetz. Residual variance and residual pattern in nonlinear regression. """ ts_data_len = len(ts_data) if ts_data_len < 3: raise Exception('ts_data_len should be at least 3') y_ip1 = ts_data[2:] y_i = ts_data[1:-1] y_im1 = ts_data[:-2] sigma_n2 = (2.0 / (3 * len(y_ip1))) * sum( (0.5 * y_im1 - y_i + 0.5 * y_ip1)**2) sigma_n = np.sqrt(sigma_n2) # sigma_n = 1e-5 if sigma_n < 1e-5 else sigma_n minimal_sigma_n = 1e-6 sigma_n = minimal_sigma_n if sigma_n < minimal_sigma_n else sigma_n return sigma_n def data_validity_check(ts_data): # old version-->if isinstance(ts_data, int) or isinstance(ts_data, float): if isinstance(ts_data, numbers.Number): ts_data = np.array([ts_data]) if not (isinstance(ts_data, list) or isinstance(ts_data, np.ndarray) or isinstance(ts_data, pd.DataFrame)): raise ValueError('For denoising, input data must be list, np.ndarray,' 'or pd.DataFrame (for online, input can be single' 'point with int/flaot data type)!') # check pandas if isinstance(ts_data, pd.DataFrame): if ts_data.shape[1] != 1: raise ValueError('For denoising, if input data is pandas dataframe' ', it must be 1D data!') # check array or list if isinstance(ts_data, list): ts_data = np.array(ts_data) if isinstance(ts_data, np.ndarray): if ts_data.ndim > 2: raise ValueError('For denoising, input data cannot be 3D or higher' 'dimentional array or list!') if ts_data.ndim == 2: if not (ts_data.shape[0] == 1 or ts_data.shape[1] == 1): raise ValueError('For denoising, if input data is 2D array or' 'list, one of the dim must be 1!') def bilateral_weighted_data(input_data, sigma_i=4, leftmost_dist_w=0.8, sigma_d=None, refer_value=None, normalize_toggle=True): # check leftmost_dist_w if leftmost_dist_w <= 0 or leftmost_dist_w >= 1.0: raise ValueError('leftmost_dist_w should 0 < leftmost_dist_w < 1') # Ini ts_data_ori = to_2dnp_array(input_data) data_len = len(ts_data_ori) # normalize if normalize_toggle: scaler = StandardScaler() ts_data = scaler.fit_transform(ts_data_ori) else: ts_data = ts_data_ori.copy() if refer_value is None: refer_value = ts_data[-1] # distance_weights refer_idx = -1 # default, the last point for distance_refer_idx leftmost_idx = data_len + refer_idx dx = np.arange(-leftmost_idx, -refer_idx).reshape(-1, 1) if sigma_d is None: sigma_d = np.sqrt(-0.5 * leftmost_idx * leftmost_idx / np.log(leftmost_dist_w)) distance_weights = gaussian_expfun(dx, sigma_d) # intensity_weights sigma_n = np.std(ts_data) sig_I = sigma_i * sigma_n dy = ts_data - refer_value intensity_weights = gaussian_expfun(dy, sig_I) # final bilateral_weights bilateral_weights = distance_weights * intensity_weights weighted_data = ts_data_ori * bilateral_weights return weighted_data, distance_weights,\ intensity_weights, bilateral_weights def to_2dnp_array(X): """Convert array-like data (list/numpy array/pandas) to 2D numpy array. """ if isinstance(X, np.ndarray): if X.ndim == 1: return X.reshape((-1, 1)) if X.ndim == 2: return X if isinstance(X, Number): X = [X] X = np.array(X) X = X.reshape([-1, np.prod(X.shape) // X.shape[0]]) return X """Two Bilateral filter classes for denoising time series. Input: ts_data - T x 1 Output: filterd_ts_data - T x 1 """ class BilateralFilter(): """Basic Bilateral Filter for denoising time series It is used to as a baseline for denoising time signals under different Bilateral Filters. The filtering width is around 2*(truncate*sigma) + 1 Parameters ---------- sigma_i : double, optional [default=2.5] The standard deviation for intensity used in bilateral gaussian kernel sigma_d : double, optional [default=2.5] The standard deviation for distance used in bilateral gaussian kernel truncate: double, optional [default=6.0] Used for the radius of the filter, which equals to truncate times sigma_d pad_mode: str, 'symmetric' or 'reflect' [default='symmetric'] The scheme used for padding edge data points Suppose we have data (a b c d ...... e f g h): For the edge data, if they are extended using 'symmetric' about edge of the last pixel, we have (c b a | a b c d ...... e f g h | h g f) For the edge data, if they are extended using 'reflect' about the edge of the last pixel, we have (d c b | a b c d ...... e f g h | g f e) """ def __init__(self, sigma_i=2.0, sigma_d=2.5, truncate=8.0, pad_mode='symmetric'): self.sigma_i = sigma_i self.sigma_d = sigma_d self.truncate = truncate self.pad_mode = pad_mode def fit_transform(self, ts_data, override=True): """ This method to do denoising filtering process for time sereis. Parameters ---------- ts_data : array-like, shape = (n_timelength, 1) or (n_timelength,) The input data, 1D data: can be numpy array, list, or pandas dataframe. override : boolean To be used for online case, ignore for now. Returns ------- filterd_out : array-like, shape = (n_timelength, 1) The output of denoised time series """ sigma_i = self.sigma_i sigma_d = self.sigma_d truncate = self.truncate pad_mode = self.pad_mode data_validity_check(ts_data) ts_data = np.array(ts_data).flatten() radius = int(truncate * sigma_d + 0.5) dx = np.arange(-radius, radius + 1) sig_D = sigma_d exp_D = gaussian_expfun(dx, sig_D) # calculate the eatimated noise variance sigma_n = calcu_noise_sigma(ts_data) sig_I = sigma_i * sigma_n # note sigma_i is just a multiplicative para if (pad_mode == 'symmetric') or (pad_mode == 'reflect'): ts_data_pad = np.pad(ts_data, radius, pad_mode) else: raise RuntimeError( 'The pad_mode is supported; only support symmetric or reflect') data_len = len(ts_data) filterd_out = np.zeros(data_len) for idx in range(data_len): idx_pad = idx + radius data_window = ts_data_pad[(idx_pad - radius):(idx_pad + radius + 1)] dy = data_window - ts_data_pad[idx_pad] exp_I = gaussian_expfun(dy, sig_I) bilateral_weights = exp_I * exp_D bilateral_weights /= bilateral_weights.sum() filterd_out[idx] = sum(data_window * bilateral_weights) filterd_out = filterd_out.reshape(-1, 1) return filterd_out class CausalBilateralFilter(): """Causal Bilateral Filter for denoising time series It is used in our real situations, and there is no pad_mode compared with BilateralFilter, since we only use previous points to filter noise of current point. The filtering width is around 2*(truncate*sigma) + 1 Parameters ---------- sigma_i : double, optional [default=2.5] The standard deviation for intensity used in bilateral gaussian kernel sigma_d : double, optional [default=2.5] The standard deviation for distance used in bilateral gaussian kernel truncate: double, optional [default=6.0] Used for the radius of the filter, which equals to truncate times sigma_d """ def __init__(self, sigma_i=2.0, sigma_d=2.5, truncate=8.0): self.sigma_i = sigma_i self.sigma_d = sigma_d self.truncate = truncate self.ts_data = None self.filtered_ts_data = None def fit_transform(self, ts_data, override=True): """ This method generates the latent variables on seasonal data using T statistics and frequency. Parameters ---------- X : array-like, shape = (n_timelength, 1) The input data, only support 1D data currently. override : boolean To be used for online case, ignore for now. Returns ------- X_t : array-like, shape = (n_timelength, n_t_dim) The output latent variable data, could be high dimensional latent representation debug: dict Store the intermediate variables for debugging purpose """ sigma_i = self.sigma_i sigma_d = self.sigma_d truncate = self.truncate data_validity_check(ts_data) ts_data = np.array(ts_data).flatten() radius = int(truncate * sigma_d + 0.5) dx = np.arange(-radius, 1) sig_D = sigma_d exp_D = gaussian_expfun(dx, sig_D) # calculate the eatimated noise variance sigma_n = calcu_noise_sigma(ts_data) sig_I = sigma_i * sigma_n # note sigma_i is just a multiplicative para filterd_out = np.copy(ts_data) data_len = len(ts_data) for idx in range(radius, data_len): data_window = ts_data[(idx - radius):(idx + 1)] dy = data_window - ts_data[idx] exp_I = gaussian_expfun(dy, sig_I) bilateral_weights = exp_I * exp_D bilateral_weights /= bilateral_weights.sum() filterd_out[idx] = sum(data_window * bilateral_weights) filterd_out = filterd_out.reshape(-1, 1) self.radius = radius self.exp_D = exp_D self.ts_data = ts_data self.filterd_out = filterd_out return filterd_out def fit_transform_online(self, new_ts_minibatch): """Update the model with newX to transform the data Online version to do the fit transform with much faster speed. Parameters --------- new_ts_minibatch : array-like, shape = (n_minibatch, 1) or (n_minibatch,) Single time series of length mini_batch_timelength. Returns ------- X_t : array-like, shape = (n_timelength,) A transformed time series of the same time length as the original ts_data fed into the model. Will need to maintain the state of the old data in order to return the transformed time series with the correct timelength. """ if self.ts_data is None: raise ValueError("fit_transform_online can not be called in the\ very first time, should followed fit_transform.") radius = self.radius exp_D = self.exp_D ts_data = self.ts_data filterd_out = self.filterd_out sigma_i = self.sigma_i # check new_ts_minibatch and change format to 1d np.array data_validity_check(new_ts_minibatch) new_ts_minibatch = np.array(new_ts_minibatch).flatten() # update ts_data mini_batch_len = len(new_ts_minibatch) ts_data = np.concatenate([ts_data[mini_batch_len:], new_ts_minibatch]) # calculate the eatimated noise variance sigma_n = calcu_noise_sigma(ts_data) sig_I = sigma_i * sigma_n # note sigma_i is just a multiplicative para new_filterd_out = np.copy(new_ts_minibatch) data_len = len(ts_data) for idx in range((data_len - mini_batch_len), data_len): data_window = ts_data[(idx - radius):(idx + 1)] dy = data_window - ts_data[idx] exp_I = gaussian_expfun(dy, sig_I) bilateral_weights = exp_I * exp_D bilateral_weights /= bilateral_weights.sum() new_filterd_out[idx - (data_len - mini_batch_len)] = sum( data_window * bilateral_weights) # update filterd_out new_filterd_out = new_filterd_out.reshape(-1, 1) filterd_out = np.concatenate( [filterd_out[mini_batch_len:], new_filterd_out]) filterd_out = filterd_out.reshape(-1, 1) self.ts_data = ts_data self.filterd_out = filterd_out return filterd_out def _get_prev_transform(self): # debug purpose return self.filterd_out class BilateralSeasonTstat(): """ This method generates the latent variables on seasonal data using T statistics and frequency with the idea of Bilateral Filter. Parameters ---------- num_period : int The number of previous history periods data. num_period can be 0,1,2,3..., when num_period=0, it only uses local data period_len : int The length of one period in terms of data points. When num_period=0, this para is not used neighbour_wdw_size : int The half length of the window used in historical period data sigma_i : double, optional [default=2.5] The standard deviation for intensity used in bilateral gaussian kernel sigma_d : double, optional [default=2.5] The standard deviation for distance used in bilateral gaussian kernel adj_win_open : Boolean, [default=False] A toggle to control if we will use adjacent data (local data, not period data). adj_win_size : int The length of the window used in local adjacent data adj_win_weight : float the weight used to control the contribution from local adjacent data lamb: float, [0.,1.], optional [default=0] The float number to control the ratio of local/global variance. Default 0 means we only use the local variance from seasonal data. Set the value to 0.5 means we are using the geometric mean of local/global variance. Set to 1 to use only global variance. div_var_toggle: boolean [default=False] The toggle that determines whether to divide (x - _mean) by the harmonic mean of sigma_global and sigma when calculating the latent representation. Default False means that it will not divide. """ def __init__(self, num_period=2, period_len=1440, neighbour_wdw_size=10, sigma_i=1.0, sigma_d=1e10, adj_win_open=False, adj_win_size=10, adj_win_weight=0.001, lamb=0, div_var_toggle=False, fit_transform_len_spec=None): self.period_len = period_len self.num_period = num_period self.sigma_i = sigma_i self.sigma_d = sigma_d self.neighbour_wdw_size = neighbour_wdw_size self.adj_win_open = adj_win_open self.adj_win_size = adj_win_size self.adj_win_weight = adj_win_weight self.lamb = lamb self.div_var_toggle = div_var_toggle self.ts_data = None self.filtered_out = None self.fit_transform_len_spec = fit_transform_len_spec self._required_len = neighbour_wdw_size + period_len * num_period def fit_transform(self, ts_data, override=True): """ This method to do denoising filtering process for time sereis. Parameters ---------- ts_data : array-like, shape = (n_timelength, 1) or (n_timelength,) The input data, 1D data: can be numpy array, list, or pandas dataframe. override : boolean To be used for online case, ignore for now. Returns ------- filtered_out : array-like, shape = (n_timelength, 1) The output of denoised time series """ period_len = self.period_len num_period = self.num_period sigma_i = self.sigma_i sigma_d = self.sigma_d adj_win_open = self.adj_win_open adj_win_weight = self.adj_win_weight adj_win_size = self.adj_win_size # truncate = self.truncate neighbour_wdw_size = self.neighbour_wdw_size lamb = self.lamb div_var_toggle = self.div_var_toggle fit_transform_len_spec = self.fit_transform_len_spec data_validity_check(ts_data) ts_data = np.array(ts_data).flatten() # radius = int(truncate * sigma_d + 0.5) adj_radius = adj_win_size radius = neighbour_wdw_size sig_D = sigma_d dx = np.arange(-adj_radius, 0) exp_D = gaussian_expfun(dx, sig_D) dx_2s = np.arange(-radius, radius + 1) exp_D_2s = gaussian_expfun(dx_2s, sig_D) # calculate the eatimated noise variance # sigma_n = calcu_noise_sigma(ts_data) sigma_n = np.std(ts_data) # minimal_sigma_n = 1e-2 # sigma_n = minimal_sigma_n if sigma_n < minimal_sigma_n else sigma_n sig_I = sigma_i * sigma_n # note sigma_i is just a multiplicative para # filtered_out = np.copy(ts_data) filtered_out = np.zeros(ts_data.shape) data_len = len(ts_data) if data_len <= radius + period_len * num_period: raise Exception('data length is not right') # specific fit_transform_len if necessary if fit_transform_len_spec is None: start_point = radius + period_len * 1 else: start_point = data_len - fit_transform_len_spec # do filtering for idx in range(start_point, data_len): # this part indicates using local neiborhood data (diff) data_window_combined = np.array([]) bilateral_weights_combined = np.array([]) if adj_win_open: data_window = ts_data[(idx - adj_radius):idx] dy = data_window - ts_data[idx] exp_I = gaussian_expfun(dy, sig_I) bilateral_weights = adj_win_weight * exp_I * exp_D # concatenate data and weights data_window_combined = np.concatenate( (data_window_combined, data_window)) bilateral_weights_combined = np.concatenate( (bilateral_weights_combined, bilateral_weights)) # this part indicates using non-local neiborhood data # from previous period signals actual_num_period = 0 for idx_period in range(1, num_period + 1): if idx - radius - period_len * idx_period >= 0: actual_num_period += 1 data_window = ts_data[(idx - radius - period_len * idx_period):( idx + radius + 1 - period_len * idx_period)] dy = data_window - ts_data[idx] exp_I = gaussian_expfun(dy, sig_I) bilateral_weights = exp_I * exp_D_2s # concatenate data and weights data_window_combined = np.concatenate( (data_window_combined, data_window)) bilateral_weights_combined = np.concatenate( (bilateral_weights_combined, bilateral_weights)) weights_sum = bilateral_weights_combined.sum() if weights_sum == 0: bilateral_weights_combined = 1.0 / len( bilateral_weights_combined) else: bilateral_weights_combined /= weights_sum _mean = np.sum(data_window_combined * bilateral_weights_combined) # If div_var_toggle is True, calculate the necessary statistic # and divide (x - _mean) by the harmonic mean of 2 var if div_var_toggle: # adjusted local var _local_diff_square = np.square(data_window_combined - _mean) _local_var = np.sum(_local_diff_square * bilateral_weights_combined) _local_var = 1e-10 if _local_var < 1e-10 else _local_var # adjusted global var _data_global = ts_data[(idx - radius - period_len * actual_num_period):idx] _global_var = np.var(_data_global) _global_var = 1e-10 if _global_var < 1e-10 else _global_var # harmonic mean of sigma_local and sigma_global _harmonic_std_inv = np.sqrt(lamb / _global_var + (1 - lamb) / _local_var) # multipy it by _harmonic_std_inv filtered_out[idx] = (ts_data[idx] - _mean) * _harmonic_std_inv # Otherwise, only use (x - _mean) else: filtered_out[idx] = ts_data[idx] - _mean filtered_out = filtered_out.reshape(-1, 1) self.radius = radius self.adj_radius = adj_radius self.exp_D = exp_D self.exp_D_2s = exp_D_2s self.ts_data = ts_data self.filtered_out = filtered_out return filtered_out def fit_transform_online(self, new_ts_minibatch): """Update the model with newX to transform the data Online version to do the fit transform with much faster speed. Parameters --------- new_ts_minibatch : array-like, shape = (n_minibatch, 1) or (n_minibatch,) Single time series of length mini_batch_timelength. Returns ------- X_t : array-like, shape = (n_timelength,) A transformed time series of the same time length as the original ts_data fed into the model. Will need to maintain the state of the old data in order to return the transformed time series with the correct timelength. """ if self.ts_data is None: raise ValueError("fit_transform_online can not be called in the\ very first time, should followed fit_transform.") adj_radius = self.adj_radius radius = self.radius exp_D = self.exp_D exp_D_2s = self.exp_D_2s ts_data = self.ts_data filtered_out = self.filtered_out sigma_i = self.sigma_i period_len = self.period_len num_period = self.num_period adj_win_open = self.adj_win_open adj_win_weight = self.adj_win_weight lamb = self.lamb div_var_toggle = self.div_var_toggle # check new_ts_minibatch and change format to 1d np.array data_validity_check(new_ts_minibatch) new_ts_minibatch = np.array(new_ts_minibatch).flatten() # update ts_data mini_batch_len = len(new_ts_minibatch) ts_data = np.concatenate([ts_data[mini_batch_len:], new_ts_minibatch]) # calculate the eatimated noise variance # sigma_n = calcu_noise_sigma(ts_data) sigma_n = np.std(ts_data) # minimal_sigma_n = 1e-2 # sigma_n = minimal_sigma_n if sigma_n < minimal_sigma_n else sigma_n sig_I = sigma_i * sigma_n # note sigma_i is just a multiplicative para new_filtered_out = np.copy(new_ts_minibatch) data_len = len(ts_data) for idx in range((data_len - mini_batch_len), data_len): # # this part indicates using local neiborhood data data_window_combined = np.array([]) bilateral_weights_combined = np.array([]) if adj_win_open: data_window = ts_data[(idx - adj_radius):idx] dy = data_window - ts_data[idx] exp_I = gaussian_expfun(dy, sig_I) bilateral_weights = adj_win_weight * exp_I * exp_D # concatenate data and weights data_window_combined = np.concatenate( (data_window_combined, data_window)) bilateral_weights_combined = np.concatenate( (bilateral_weights_combined, bilateral_weights)) # this part indicates using non-local neiborhood data # from previous period signals actual_num_period = 0 for idx_period in range(1, num_period + 1): if idx - radius - period_len * idx_period >= 0: actual_num_period += 1 data_window = ts_data[(idx - radius - period_len * idx_period):( idx + radius + 1 - period_len * idx_period)] dy = data_window - ts_data[idx] exp_I = gaussian_expfun(dy, sig_I) bilateral_weights = exp_I * exp_D_2s # concatenate data and weights data_window_combined = np.concatenate( (data_window_combined, data_window)) bilateral_weights_combined = np.concatenate( (bilateral_weights_combined, bilateral_weights)) weights_sum = bilateral_weights_combined.sum() if weights_sum == 0: bilateral_weights_combined = 1.0 / len( bilateral_weights_combined) else: bilateral_weights_combined /= weights_sum _mean = np.sum(data_window_combined * bilateral_weights_combined) # If div_var_toggle is True, calculate the necessary statistic # and divide (x - _mean) by the harmonic mean of 2 var if div_var_toggle: # adjusted local var _local_diff_square = np.square(data_window_combined - _mean) _local_var = np.sum(_local_diff_square * bilateral_weights_combined) _local_var = 1e-10 if _local_var < 1e-10 else _local_var # adjusted global var _data_global = ts_data[(idx - radius - period_len * actual_num_period):idx] _global_var = np.var(_data_global) _global_var = 1e-10 if _global_var < 1e-10 else _global_var # harmonic mean of sigma_local and sigma_global _harmonic_std_inv = np.sqrt(lamb / _global_var + (1 - lamb) / _local_var) # multipy it by _harmonic_std_inv new_filtered_out[idx - (data_len - mini_batch_len)] = ( ts_data[idx] - _mean) * _harmonic_std_inv # Otherwise, only use (x - _mean) else: new_filtered_out[idx - (data_len - mini_batch_len)] = ts_data[idx] - _mean # update filtered_out new_filtered_out = new_filtered_out.reshape(-1, 1) filtered_out = np.concatenate( [filtered_out[mini_batch_len:], new_filtered_out]) filtered_out = filtered_out.reshape(-1, 1) self.ts_data = ts_data self.filtered_out = filtered_out return filtered_out def fit_transform_inverse(self, X_t): """Inverse transformation of data from X_t back to origin X. This should not change the old data maintained in the transformer. Parameters --------- X_t : array-like, shape = (mini_batch_timelength, n_transformed_dim) Transformed time series of length mini_batch_timelength. The single ts could be of high dimension. Returns ------- X_o : array-like, shape = (mini_batch_timelength, n_dim) Origin time series of the same time length as X_t. """ X_t = to_2dnp_array(X_t) mini_batch_size, n_dim = X_t.shape X_before = self.ts_data[-mini_batch_size:] X_after = self._get_prev_transform()[-mini_batch_size:] X_o = X_t - X_after + X_before return X_o def _get_prev_transform(self): # debug purpose return self.filtered_out def get_required_len(self): return self._required_len """ Matrix inverse is used in this version This is an ADMM solver for the generalized lasso problem: min_x 1/2 * ||Ax - b||_2^2 + lambda ||Fx - p||_1 Many prolems in our pipeline can be transformed into the form of the genearlized lasso defined above. In using this solver, the user must explicitly give the defintion of A, b, F, p, reg_lambda (the lambda in original formulation) === Input === A: m*n matrix b: m vector F: l*n matrix p: l vector reg_lambda: a nonnegative scalar Some other important parameters: rho: the penalized parameter in ADMM max_iter: the maximum number of iterations tol_abs: the absolute tolerance parameter tol_rel: the relative tolerance parameter Optional parameters: x0: the initial value of x for warm start Quite: True/False, to enable the display or intermediate results or not === Output === We return both the optimial solution and the whole history in the solving process (we call history) 1. The solution is returned in the vector x 2. The history is returned in the dictionary h containing the objective value, the primal and dual residual norms, and the tolerances for the primal and dual residual norms at each iteration. Notes: 1. Over relaxation is supported in the API, but currently not fully implemented. We will implement it in the near future. rel_par is the over-relaxation parameter (typical values for rel_par are between 1.0 and 1.8). """ # from scipy.sparse.linalg import spsolve # from scipy.linalg import solve_triangular def g_lasso_admm_solver(A, b, F, p, reg_lambda, x0=None, rho=1.0, MAX_ITER=5000, rel_par=1., QUIET=True, tol_abs=1e-5, tol_rel=1e-2, S_inv=None, warm_start_toggle=False): # Parameter checking if reg_lambda < 0: reg_lambda = 0 if rel_par < 1: rel_par = 1.0 if rel_par > 2: rel_par = 2.0 if rho < 0: rho = 1.0 if MAX_ITER < 0: MAX_ITER = 50 if rel_par < 1: rel_par = 1.0 if QUIET is None: QUIET = True if tol_abs < 0: tol_abs = 1e-3 if tol_rel < 0: tol_rel = 1e-2 if not QUIET: tic = time.time() # Data preprocessing m, n = A.shape ell = F.shape[0] b = b.ravel() p = p.ravel() if x0 is not None: x0 = x0.ravel() # Initialize x = np.zeros(n) z = np.zeros(ell) u = np.zeros(ell) if not QUIET: print('\n%3s\t%10s\t%10s\t%10s\t%10s\t%10s' % ('iter', 'r norm', 'eps pri', 's norm', 'eps dual', 'objective')) # Saving state h = {} h['obj_val'] = np.zeros(MAX_ITER) h['r_norm'] = np.zeros(MAX_ITER) h['s_norm'] = np.zeros(MAX_ITER) h['eps_pri'] = np.zeros(MAX_ITER) h['eps_dual'] = np.zeros(MAX_ITER) # Cache some results Atb = A.T.dot(b) # Cache the Cholesky decomposition # L, U = Cholesky_decomp_sp(A, F, rho) if S_inv is None: S = A.T.dot(A) + rho * F.T.dot(F) S_inv = np.linalg.inv(S) # L = cholesky(S) # U = L.T for k in range(MAX_ITER): # x-update if warm_start_toggle and k == 0 and x0 is not None: x = x0 else: # x = spsolve(U, spsolve(L, q)) q = Atb + rho * F.T.dot(z - u + p) x = S_inv.dot(q) # solve_triangular(L, q, lower=True, overwrite_b=True) # solve_triangular(U, q, lower=False, overwrite_b=True) # x = q Fx = F.dot(x) # z-update zold = np.copy(z) v = Fx + u - p z = soft_thresholding(v, reg_lambda * 1. / rho) # u-update u = u + Fx - z - p # Diagnostics, reporting, termination checks h['obj_val'][k] = f_objective(A, b, reg_lambda, x, z) h['r_norm'][k] = norm(Fx - z - p) h['s_norm'][k] = norm(-rho * F.T.dot(z - zold)) h['eps_pri'][k] = np.sqrt(ell) * tol_abs + tol_rel * np.array( [norm(Fx), norm(z), norm(p)]).max() h['eps_dual'][k] = np.sqrt(n) * tol_abs + tol_rel * norm( rho * F.T.dot(u)) if not QUIET: # h['obj_val'][k] = f_objective(A, b, reg_lambda, x, z) print('%4d\t%10.4f\t%10.4f\t%10.4f\t%10.4f\t%10.2f' % (k + 1, h['r_norm'][k], h['eps_pri'][k], h['s_norm'][k], h['eps_dual'][k], h['obj_val'][k])) if (h['r_norm'][k] < h['eps_pri'][k]) and \ (h['s_norm'][k] < h['eps_dual'][k]): break if not QUIET: toc = time.time() - tic print("\nElapsed time is %.2f seconds" % toc) return x.ravel(), h # Supporting functions for the genearlized Lasso solver def f_objective(A, b, reg_lambda, x, z): return 0.5 * np.square(A.dot(x) - b).sum() + reg_lambda * norm(z, 1) def soft_thresholding(x, alpha): return np.maximum(0., x - alpha) - np.maximum(0., -x - alpha) def Cholesky_decomp_sp(A, F, rho): S = A.T.dot(A) + rho * F.T.dot(F) L = cholesky(S) L = sparse.csc_matrix(L) U = sparse.csc_matrix(L.T) return L, U # def lad_trend(denoised_data, data_T, vlambda, vlambda_diff, solver_method, # trend_solver_admm_rho, maxiters, show_progress, S_inv, # warm_start_toggle, warm_start_iniValue): # # normalize input data # scaler = StandardScaler() # denoised_data_scaled = scaler.fit_transform(denoised_data) # T = data_T # N = len(denoised_data_scaled) # # season diff # pd_denoised_data = pd.DataFrame(denoised_data_scaled) # g_t = pd_denoised_data.diff(periods=T)[T:].values.flatten().reshape(-1, 1) # # reformulate 3 L1 to 1 L1 (extended L1) # extended_g_t = np.vstack((g_t, np.zeros((N - 1, 1)), np.zeros((N - 2, 1)))) # row = np.hstack((np.ones((1, T)), np.zeros((1, N - 1 - T)))) # mat_delta_t = circulant(row).T[:(N - T), :] # eye_tmp = vlambda * np.eye(N - 1) # row_tmp = np.hstack( # (np.array([1, -1]).reshape(1, 2), np.zeros((1, N - 2 - 1)))) # Diff_1st_tmp = vlambda_diff * circulant(row_tmp).T[:(N - 2), :] # extended_mat = np.vstack((mat_delta_t, eye_tmp, Diff_1st_tmp)) # # method based on LP in CVXOPT # if solver_method == 'cvxopt_default': # from .L1_LPsolver import l1blas # P = matrix(extended_mat) # q = matrix(extended_g_t) # # delta_t = l1(P, q) # delta_t = l1blas(P, q, maxiters, show_progress) # faster # next_warm_start_value = np.asarray(delta_t).reshape(-1, ) # elif solver_method == 'cvxopt_mosek': # from .L1_LPsolver import l1mosek2 # P = matrix(extended_mat) # q = matrix(extended_g_t) # # delta_t = l1mosek(P,q) # delta_t = l1mosek2(P, q, maxiters, show_progress) # faster # next_warm_start_value = np.asarray(delta_t).reshape(-1, ) # elif solver_method == 'g_lasso_admm': # l_admm, n_admm = extended_mat.shape # m_admm = 1 # A_admm = np.zeros((m_admm, n_admm)) # b_admm = np.zeros(m_admm) # F_admm = extended_mat # p_admm = extended_g_t # p_admm = p_admm.ravel() # reg_lambda = 1.0 # R_admm = g_lasso_admm_solver(A_admm, # b_admm, # F_admm, # p_admm, # reg_lambda, # x0=warm_start_iniValue, # rho=trend_solver_admm_rho, # MAX_ITER=maxiters, # rel_par=1., # QUIET=(not show_progress), # tol_abs=1e-4, # S_inv=S_inv, # warm_start_toggle=warm_start_toggle) # delta_t = R_admm[0].reshape(-1, 1) # next_warm_start_value = R_admm[0] # # add [0] as the first element to keep data length # delta_t_out = np.vstack(([0], np.asarray(delta_t))) # ini_trend_data_scaled = np.cumsum(delta_t_out).reshape(-1, 1) # # de-normalize data # ini_trend_data = scaler.inverse_transform(ini_trend_data_scaled) - \ # float(scaler.mean_) # return ini_trend_data, next_warm_start_value def lad_trend(denoised_data, data_T, vlambda, vlambda_diff, solver_method, trend_solver_admm_rho, trend_down_sample, maxiters, show_progress, S_inv, warm_start_toggle, warm_start_iniValue, update_fast_trend, fast_trend_record): # trend down_sample d_a = trend_down_sample ori_len = len(denoised_data) denoised_data = denoised_data.copy()[::d_a] T = int(data_T/d_a) # normalize input data scaler = StandardScaler() denoised_data_scaled = scaler.fit_transform(denoised_data) # T = data_T N = len(denoised_data_scaled) # season diff pd_denoised_data = pd.DataFrame(denoised_data_scaled) g_t = pd_denoised_data.diff(periods=T)[T:].values.flatten().reshape(-1, 1) # reformulate 3 L1 to 1 L1 (extended L1) extended_g_t = np.vstack((g_t, np.zeros((N - 1, 1)), np.zeros((N - 2, 1)))) if solver_method == 'GADMM' or solver_method == 'PDHG': pass else: row = np.hstack((np.ones((1, T)), np.zeros((1, N - 1 - T)))) mat_delta_t = circulant(row).T[:(N - T), :] eye_tmp = vlambda * np.eye(N - 1) row_tmp = np.hstack((np.array([1, -1]).reshape(1, 2), np.zeros((1, N - 2 - 1)))) Diff_1st_tmp = vlambda_diff * circulant(row_tmp).T[:(N - 2), :] extended_mat = np.vstack((mat_delta_t, eye_tmp, Diff_1st_tmp)) # method based on LP in CVXOPT gadmm_pdhg_solver = None if solver_method == 'cvxopt_default': from .L1_LPsolver import l1blas P = matrix(extended_mat) q = matrix(extended_g_t) # delta_t = l1(P, q) delta_t = l1blas(P, q, maxiters, show_progress) # faster next_warm_start_value = np.asarray(delta_t).reshape(-1,) elif solver_method == 'cvxopt_mosek': from .L1_LPsolver import l1mosek2 P = matrix(extended_mat) q = matrix(extended_g_t) # delta_t = l1mosek(P,q) delta_t = l1mosek2(P, q, maxiters, show_progress) # faster next_warm_start_value = np.asarray(delta_t).reshape(-1,) elif solver_method == 'g_lasso_admm': l_admm, n_admm = extended_mat.shape m_admm = 1 A_admm = np.zeros((m_admm, n_admm)) b_admm = np.zeros(m_admm) F_admm = extended_mat p_admm = extended_g_t p_admm = p_admm.ravel() reg_lambda = 1.0 R_admm = g_lasso_admm_solver(A_admm, b_admm, F_admm, p_admm, reg_lambda, x0=warm_start_iniValue, rho=trend_solver_admm_rho, MAX_ITER=maxiters, rel_par=1., QUIET=(not show_progress), tol_abs=1e-4, S_inv=S_inv, warm_start_toggle=warm_start_toggle) delta_t = R_admm[0].reshape(-1, 1) next_warm_start_value = R_admm[0] elif solver_method == 'GADMM' or solver_method == 'PDHG': if solver_method == 'GADMM': solver_cls = gADMMSolver else: solver_cls = PDHG b_vec = extended_g_t if update_fast_trend: # A_mat = extended_mat A_operator = DetailA(N, T, vlambda, vlambda_diff) A_norm = max(T, vlambda, vlambda_diff) gadmm_pdhg_solver = \ solver_cls(A_operator=A_operator, A_norm=A_norm) gadmm_pdhg_solver.paramTuning(b_vec=b_vec, maxIter=40) # gc.collect() # time.sleep(.1) else: gadmm_pdhg_solver = fast_trend_record (g_soln, g_obj, g_obj_history, g_time_history) = \ gadmm_pdhg_solver.solve(b_vec=b_vec, max_iter=maxiters) delta_t = g_soln next_warm_start_value = np.asarray(delta_t).reshape(-1,) # add [0] as the first element to keep data length delta_t_out = np.vstack(([0], np.asarray(delta_t))) ini_trend_data_scaled = np.cumsum(delta_t_out).reshape(-1, 1) # de-normalize data ini_trend_data = scaler.inverse_transform(ini_trend_data_scaled) - \ float(scaler.mean_) # trend up_sample ini_trend_data = np.repeat(ini_trend_data, d_a)[:ori_len].reshape(-1, 1) next_warm_start_value = np.repeat(next_warm_start_value, d_a)[:ori_len] return ini_trend_data, next_warm_start_value, gadmm_pdhg_solver def bilateral_season(coarse_season, data_T, bilateral_period_num, neighbour_wdw_size, sigma_i, sigma_d, fit_transform_len_spec=None): # ref: coarse_season = denoised_data - ini_trend_data b_season_tstat = BilateralSeasonTstat( num_period=bilateral_period_num, period_len=data_T, neighbour_wdw_size=neighbour_wdw_size, sigma_i=sigma_i, sigma_d=sigma_d, fit_transform_len_spec=fit_transform_len_spec) irregular_season = b_season_tstat.fit_transform(coarse_season) ini_season_data = coarse_season - irregular_season return ini_season_data, irregular_season # class RobustSTL(): # """Robust STL for decomposing time series # Parameters # ---------- # data_T : int # The length of one period in terms of data points. # The value must be larger than 1 # noise_toggle: boolean # [default=True] # The toggle that determines whether to denoise signal. # noise_sigma_i : double # [default=2.0] # The standard deviation for intensity used in bilateral gaussian kernel # noise_sigma_d : double # [default=2.5] # The standard deviation for distance used in bilateral gaussian kernel # truncate: double # [default=8.0] # Used for the radius of the filter, which equals to truncate times # sigma_d # trend_toggle: boolean # [default=True] # The toggle that determines whether to detrend signal. # trend_vlambda : double # [default=40] # The lambda to control first difference of trend in L1 reg # trend_vlambda_diff : double # [default=20] # The lambda to control twice difference of trend in L1 reg # trend_solver_method: str, 'g_lasso_admm','cvxopt_default', 'cvxopt_mosek' # [default='g_lasso_admm'] # The solver to solve the L1 problem. cvxopt_mosek is much # faster but need license. # trend_solver_maxiters : int # [default=15] # Set the iteration number in the optimization progress in trend filter # trend_solver_show_progress: boolean # [default=False] # Show the optimization progress in trend filter # trend_solver_admm_rho: float # The para rho used in the admm solver in trend filter # trend_solver_warm_start: boolean # [default=True] # speed up in the online mode by using warm_start in the admm solver # season_toggle: boolean # [default=True] # The toggle that determines whether to deseasonize signal. # season_bilateral_period_num : int # The number of previous periods used in the deseason. # num_period can be 1,2,3..., # season_neighbour_wdw_size : int # [default=20] # The half length of the window used in historical period data # season_sigma_i : double # [default=2.5] # The standard deviation for intensity used in bilateral gaussian kernel # season_sigma_d : double # [default=2.5] # The standard deviation for distance used in bilateral gaussian kernel # online_history_length : int # The length of history data used in online mode for RobustSTL # online_trend_update_freq : int # [default=5] # speed up in the online mode by only calculating trend every # online_trend_update_freq times # online_update_mode : string # [default='only_mini_batch'] # The online update mode, can be 'only_mini_batch' or # 'entire_online_history', default is 'only_mini_batch' # """ # def __init__(self, # data_T=288, # noise_toggle=True, # noise_sigma_i=2.0, # noise_sigma_d=2.5, # noise_truncate=8.0, # trend_toggle=True, # trend_vlambda=40, # trend_vlambda_diff=20, # trend_solver_method='g_lasso_admm', # trend_solver_maxiters=15, # trend_solver_show_progress=False, # trend_solver_admm_rho=1.0, # trend_solver_warm_start=True, # season_toggle=True, # season_bilateral_period_num=2, # season_neighbour_wdw_size=20, # season_sigma_i=2, # season_sigma_d=10, # online_history_length=288 * 3, # online_trend_update_freq=5, # online_update_mode='only_mini_batch'): # self.data_T = data_T # if data_T <= 1: # raise ValueError("The data_T (period) must be larger than 1") # self.noise_toggle = noise_toggle # self.noise_sigma_i = noise_sigma_i # self.noise_sigma_d = noise_sigma_d # self.noise_truncate = noise_truncate # self.trend_toggle = trend_toggle # self.trend_vlambda = trend_vlambda # self.trend_vlambda_diff = trend_vlambda_diff # self.trend_solver_method = trend_solver_method # self.trend_solver_maxiters = trend_solver_maxiters # self.trend_solver_show_progress = trend_solver_show_progress # self.trend_solver_admm_rho = trend_solver_admm_rho # self.trend_solver_warm_start = trend_solver_warm_start # self.season_toggle = season_toggle # self.season_bilateral_period_num = season_bilateral_period_num # if season_bilateral_period_num < 1: # raise ValueError("The season_bilateral_period_num at least 1") # self.season_neighbour_wdw_size = season_neighbour_wdw_size # self.season_sigma_i = season_sigma_i # self.season_sigma_d = season_sigma_d # self.online_history_length = online_history_length # self.online_trend_update_freq = online_trend_update_freq # self.online_update_mode = online_update_mode # self.online_count = 0 # # calcu S_inv for fit_transform_online only # N = online_history_length # T = data_T # vlambda = trend_vlambda # vlambda_diff = trend_vlambda_diff # row = np.hstack((np.ones((1, T)), np.zeros((1, N - 1 - T)))) # mat_delta_t = circulant(row).T[:(N - T), :] # eye_tmp = vlambda * np.eye(N - 1) # row_tmp = np.hstack( # (np.array([1, -1]).reshape(1, 2), np.zeros((1, N - 2 - 1)))) # Diff_1st_tmp = vlambda_diff * circulant(row_tmp).T[:(N - 2), :] # extended_mat = np.vstack((mat_delta_t, eye_tmp, Diff_1st_tmp)) # F_admm = extended_mat # rho = trend_solver_admm_rho # S = rho * F_admm.T.dot(F_admm) # self.S_inv = np.linalg.inv(S) # def fit_transform(self, # ts_data, # online_mode=False, # S_inv=None, # warm_start_iniValue=None, # online_trend_update_toggle=True, # mini_batch_len=None, # override=True): # """ # This method to do robust STL filtering process for time sereis. # Parameters # ---------- # ts_data : array-like, shape = (n_timelength, 1) or (n_timelength,) # The input data, 1D data: can be numpy array, list, # or pandas dataframe. # online_mode: boolean # [default=False] # In batch mode, this is False. Used in online mode to speed up. # S_inv : matrix # To be used for online case only to speed up # warm_start_iniValue: array-like, shape = (n_timelength, 1) # Used in online mode to speed up the trend solver. # online_trend_update_toggle: boolean # [default=True] # In batch mode, this is True, which decides when to upate trend. # mini_batch_len: int # the length of mini_batch # override : boolean # To be used for online case, ignore for now. # Returns # ------- # decomposed_data : array-like, shape = (n_timelength, 3) # The output of decomposed signal: [trend, season, irregular] # """ # data_T = self.data_T # noise_toggle = self.noise_toggle # noise_sigma_i = self.noise_sigma_i # noise_sigma_d = self.noise_sigma_d # noise_truncate = self.noise_truncate # trend_toggle = self.trend_toggle # trend_vlambda = self.trend_vlambda # trend_vlambda_diff = self.trend_vlambda_diff # trend_solver_method = self.trend_solver_method # trend_solver_maxiters = self.trend_solver_maxiters # trend_solver_show_progress = self.trend_solver_show_progress # trend_solver_admm_rho = self.trend_solver_admm_rho # trend_solver_warm_start = self.trend_solver_warm_start # season_toggle = self.season_toggle # season_bilateral_period_num = self.season_bilateral_period_num # season_neighbour_wdw_size = self.season_neighbour_wdw_size # season_sigma_i = self.season_sigma_i # season_sigma_d = self.season_sigma_d # online_history_length = self.online_history_length # data_validity_check(ts_data) # ts_data = np.array(ts_data).flatten().reshape(-1, 1) # original_data = ts_data.copy() # # 1st step: denoising # if noise_toggle: # if not online_mode: # batch mode # self.denoising_filter = CausalBilateralFilter( # sigma_i=noise_sigma_i, # sigma_d=noise_sigma_d, # truncate=noise_truncate) # denoised_data = self.denoising_filter.fit_transform( # original_data) # else: # online mode # new_ts_minibatch = ts_data[-mini_batch_len:] # denoised_data = self.denoising_filter.fit_transform_online( # new_ts_minibatch) # denoised_data = denoised_data[-online_history_length:] # else: # denoised_data = original_data # no denoising # noise_data = original_data - denoised_data # # 2nd step: detrending # if trend_toggle: # # online_trend_update_toggle == True by default, # # since in batch mode we must do this # if online_trend_update_toggle: # ini_trend_data, next_warm_start_value = lad_trend( # denoised_data=denoised_data, # data_T=data_T, # vlambda=trend_vlambda, # vlambda_diff=trend_vlambda_diff, # solver_method=trend_solver_method, # trend_solver_admm_rho=trend_solver_admm_rho, # maxiters=trend_solver_maxiters, # show_progress=trend_solver_show_progress, # S_inv=S_inv, # warm_start_toggle=trend_solver_warm_start, # warm_start_iniValue=warm_start_iniValue) # else: # next_warm_start_value = np.hstack( # (self.next_warm_start_value[mini_batch_len:], # np.tile(0.0, mini_batch_len))) # # ini_trend_data, can also do interplate or prediction] # ini_trend_data_tmp = self.ini_trend_data.reshape(-1, ) # ini_trend_data = np.hstack( # (ini_trend_data_tmp[mini_batch_len:], # np.tile(ini_trend_data_tmp[-1], mini_batch_len))) # ini_trend_data = ini_trend_data.reshape(-1, 1) # # summary # coarse_season = denoised_data - ini_trend_data # self.ini_trend_data = ini_trend_data # self.next_warm_start_value = next_warm_start_value # else: # ini_trend_data = np.zeros_like(denoised_data) # coarse_season = denoised_data # self.next_warm_start_value = np.zeros(online_history_length) # # 3rd step: de-season # if season_toggle: # # # version 1 with later evel_adj = np.mean(ini_season_data) # # ini_season_data, irregular_season = bilateral_season( # # coarse_season=coarse_season, # # data_T=data_T, # # bilateral_period_num=season_bilateral_period_num, # # neighbour_wdw_size=season_neighbour_wdw_size, # # sigma_i=season_sigma_i, # # sigma_d=season_sigma_d) # # # version 2 is the same as above when set level_adj=0 later # # # much better speedup with level_adj = np.mean(coarse_season) # if not online_mode: # batch mode # ini_season_data, irregular_season = bilateral_season( # coarse_season=coarse_season, # data_T=data_T, # bilateral_period_num=season_bilateral_period_num, # neighbour_wdw_size=season_neighbour_wdw_size, # sigma_i=season_sigma_i, # sigma_d=season_sigma_d, # fit_transform_len_spec=None) # self.ini_season_data = ini_season_data[-online_history_length:] # else: # online mode: # ini_season_data, irregular_season = bilateral_season( # coarse_season=coarse_season, # data_T=data_T, # bilateral_period_num=season_bilateral_period_num, # neighbour_wdw_size=season_neighbour_wdw_size, # sigma_i=season_sigma_i, # sigma_d=season_sigma_d, # fit_transform_len_spec=mini_batch_len) # ini_season_data = np.vstack( # (self.ini_season_data[mini_batch_len:], # ini_season_data[-mini_batch_len:])) # self.ini_season_data = ini_season_data # else: # coarse_season_mean = np.mean(coarse_season) # irregular_season = coarse_season - coarse_season_mean # ini_season_data = coarse_season_mean * \ # np.ones_like(coarse_season) # # 4nd step: adjust trend, season, irregular_season. # # make mean(adjusted_season) = 0 # # level_adj = np.mean(ini_season_data) # # adopt mean(coarse_season) to approx mean(ini_season_data) # # in the version 1 in step_3 # level_adj = np.mean(coarse_season) # adjusted_season = ini_season_data - level_adj # if trend_toggle: # adjusted_trend = ini_trend_data + level_adj # irregular_data = irregular_season + noise_data # else: # adjusted_trend = ini_trend_data # irregular_data = irregular_season + noise_data + level_adj # decomposed_data = np.hstack( # (adjusted_trend, adjusted_season, irregular_data)) # self.ts_data = ts_data # self.adjusted_trend = adjusted_trend # self.adjusted_season = adjusted_season # self.irregular_data = irregular_data # self.decomposed_data = decomposed_data # return decomposed_data # def fit_transform_online(self, new_ts_minibatch): # """ # The online version of RobustSTL to do the fit transform with # much faster speed. # Note: # 1, online mode only uses the most recent online_history_length data # (including the newest new_ts_minibatch) to do decomposition. # 2, the output would be the same as the output of fit_transform (i.e., # the length is len(ts_data)), but only the last len(new_ts_minibatch) # data is computed from the fit_transform_online. # Parameters # --------- # new_ts_minibatch : array-like, shape = (n_minibatch, 1) # or (n_minibatch,) # Single time series of length mini_batch_timelength. # Returns # ------- # decomposed_data : numpy array, shape = (n_timelength, 3) # The output of decomposed signal: [trend, season, irregular] # """ # S_inv = self.S_inv # next_warm_start_value = self.next_warm_start_value # online_history_length = self.online_history_length # online_update_mode = self.online_update_mode # online_trend_update_freq = self.online_trend_update_freq # ts_data = self.ts_data # adjusted_trend = self.adjusted_trend # adjusted_season = self.adjusted_season # irregular_data = self.irregular_data # decomposed_data = self.decomposed_data # mini_batch_len = len(new_ts_minibatch) # if self.ts_data is None: # raise ValueError("fit_transform_online can not be called in the\ # very first time, should followed fit_transform.") # if mini_batch_len > online_history_length: # raise ValueError("for online detrend, the length of mini_batch\ # should not larger than the online_history_length") # if len(ts_data) < online_history_length: # raise ValueError("for online detrend, the online_history_length\ # should not larger than the initial len(ts_data)") # # check new_ts_minibatch and change format to 1d np.array # data_validity_check(new_ts_minibatch) # new_ts_minibatch = np.array(new_ts_minibatch).flatten() # new_ts_minibatch = new_ts_minibatch.reshape(-1, 1) # # update ts_data # ts_data = np.concatenate([ts_data[mini_batch_len:], new_ts_minibatch]) # # detrend for ts_data_online_part # ts_data_online = ts_data[-online_history_length:] # next_warm_start_value = \ # next_warm_start_value[-(online_history_length-1):] # # warm_start_ini = np.hstack( # # (next_warm_start_value[mini_batch_len:], # # np.tile(next_warm_start_value[-1], mini_batch_len))) # warm_start_ini = np.hstack((next_warm_start_value[mini_batch_len:], # np.tile(0, mini_batch_len))) # # count the No. of online ops to decide if do online_trend_update # if self.online_count == 0: # online_trend_update_toggle = True # else: # online_trend_update_toggle = False # # update self.online_count for next use # self.online_count = (self.online_count + 1) % online_trend_update_freq # # do fit_transform # online_mode = True # self.fit_transform(ts_data_online, online_mode, S_inv, warm_start_ini, # online_trend_update_toggle, mini_batch_len) # adjusted_trend_online = self.adjusted_trend # adjusted_season_online = self.adjusted_season # irregular_data_online = self.irregular_data # # decomposed_data_online = self.decomposed_data # # # update trend_signal residual_signal # if online_update_mode == 'only_mini_batch': # adjusted_trend = np.vstack( # (adjusted_trend[mini_batch_len:], # adjusted_trend_online[-mini_batch_len:])) # adjusted_season = np.vstack( # (adjusted_season[mini_batch_len:], # adjusted_season_online[-mini_batch_len:])) # irregular_data = np.vstack( # (irregular_data[mini_batch_len:], # irregular_data_online[-mini_batch_len:])) # elif online_update_mode == 'entire_online_history': # update_data_len = online_history_length # adjusted_trend = np.vstack( # (adjusted_trend[mini_batch_len:(-update_data_len + # mini_batch_len)], # adjusted_trend_online)) # adjusted_season = np.vstack( # (adjusted_season[mini_batch_len:(-update_data_len + # mini_batch_len)], # adjusted_season_online)) # irregular_data = np.vstack( # (irregular_data[mini_batch_len:(-update_data_len + # mini_batch_len)], # irregular_data_online)) # else: # raise ValueError("input para of online_update_mode is not right") # decomposed_data = np.hstack( # (adjusted_trend, adjusted_season, irregular_data)) # self.ts_data = ts_data # self.adjusted_trend = adjusted_trend # self.adjusted_season = adjusted_season # self.irregular_data = irregular_data # self.decomposed_data = decomposed_data # return decomposed_data # def _get_prev_transform(self): # # debug purpose --> should be n*3 numpy.array # return self.decomposed_data class RobustSTL(): """Robust STL for decomposing time series Parameters ---------- data_T : int The length of one period in terms of data points. The value must be larger than 1 noise_toggle: boolean [default=True] The toggle that determines whether to denoise signal. noise_sigma_i : double [default=2.0] The standard deviation for intensity used in bilateral gaussian kernel noise_sigma_d : double [default=2.5] The standard deviation for distance used in bilateral gaussian kernel truncate: double [default=8.0] Used for the radius of the filter, which equals to truncate times sigma_d trend_toggle: boolean [default=True] The toggle that determines whether to detrend signal. trend_vlambda : double [default=40] The lambda to control first difference of trend in L1 reg trend_vlambda_diff : double [default=20] The lambda to control twice difference of trend in L1 reg trend_solver_method: str, 'g_lasso_admm','cvxopt_default', 'cvxopt_mosek' [default='g_lasso_admm'] The solver to solve the L1 problem. cvxopt_mosek is much faster but need license. trend_solver_maxiters : int [default=15] Set the iteration number in the optimization progress in trend filter trend_solver_show_progress: boolean [default=False] Show the optimization progress in trend filter trend_solver_admm_rho: float The para rho used in the admm solver in trend filter trend_solver_warm_start: boolean [default=True] speed up in the online mode by using warm_start in the admm solver season_toggle: boolean [default=True] The toggle that determines whether to deseasonize signal. season_bilateral_period_num : int The number of previous periods used in the deseason. num_period can be 1,2,3..., season_neighbour_wdw_size : int [default=20] The half length of the window used in historical period data season_sigma_i : double [default=2.5] The standard deviation for intensity used in bilateral gaussian kernel season_sigma_d : double [default=2.5] The standard deviation for distance used in bilateral gaussian kernel online_history_length : int The length of history data used in online mode for RobustSTL online_trend_update_freq : int [default=5] speed up in the online mode by only calculating trend every online_trend_update_freq times online_update_mode : string [default='only_mini_batch'] The online update mode, can be 'only_mini_batch' or 'entire_online_history', default is 'only_mini_batch' """ def __init__(self, data_T=288, noise_toggle=True, noise_sigma_i=2.0, noise_sigma_d=2.5, noise_truncate=8.0, trend_toggle=True, trend_vlambda=40, trend_vlambda_diff=20, trend_solver_method='g_lasso_admm', trend_solver_maxiters=15, trend_solver_show_progress=False, trend_solver_admm_rho=1.0, trend_solver_warm_start=True, trend_down_sample=1, season_toggle=True, season_bilateral_period_num=2, season_neighbour_wdw_size=20, season_sigma_i=2, season_sigma_d=10, fastbatch_length=None, online_history_length=None, online_trend_update_freq=5, online_update_mode='only_mini_batch'): self.data_T = data_T if data_T <= 1: raise ValueError("The data_T (period) must be larger than 1") self.noise_toggle = noise_toggle self.noise_sigma_i = noise_sigma_i self.noise_sigma_d = noise_sigma_d self.noise_truncate = noise_truncate self.trend_toggle = trend_toggle self.trend_vlambda = trend_vlambda self.trend_vlambda_diff = trend_vlambda_diff self.trend_solver_method = trend_solver_method self.trend_solver_maxiters = trend_solver_maxiters self.trend_solver_show_progress = trend_solver_show_progress self.trend_solver_admm_rho = trend_solver_admm_rho self.trend_solver_warm_start = trend_solver_warm_start self.trend_down_sample = trend_down_sample self.season_toggle = season_toggle self.season_bilateral_period_num = season_bilateral_period_num if season_bilateral_period_num < 1: raise ValueError("The season_bilateral_period_num at least 1") self.season_neighbour_wdw_size = season_neighbour_wdw_size self.season_sigma_i = season_sigma_i self.season_sigma_d = season_sigma_d self.fastbatch_length = fastbatch_length if online_history_length is None: self.online_history_length = 3 * data_T else: self.online_history_length = online_history_length self.online_trend_update_freq = online_trend_update_freq self.online_update_mode = online_update_mode self.online_count = 0 # calcu S_inv for fit_transform_online only if trend_solver_method == 'GADMM' or trend_solver_method == 'PDHG': self.S_inv = None else: N = self.online_history_length T = self.data_T vlambda = trend_vlambda vlambda_diff = trend_vlambda_diff row = np.hstack((np.ones((1, T)), np.zeros((1, N - 1 - T)))) mat_delta_t = circulant(row).T[:(N - T), :] eye_tmp = vlambda * np.eye(N - 1) row_tmp = np.hstack( (np.array([1, -1]).reshape(1, 2), np.zeros((1, N - 2 - 1)))) Diff_1st_tmp = vlambda_diff * circulant(row_tmp).T[:(N - 2), :] extended_mat = np.vstack((mat_delta_t, eye_tmp, Diff_1st_tmp)) F_admm = extended_mat rho = trend_solver_admm_rho S = rho * F_admm.T.dot(F_admm) self.S_inv = np.linalg.inv(S) # Fast-RobustSTL code extension: based on GADMM or PDHG # temp for fast-stl, if ts_data_length is changed, need update # for the first time we need update, so ini value=0 here self.ts_data_length = 0 self.fast_trend_record = None def fit_transform_fastbatch(self, ts_data): data_T = self.data_T fastbatch_length = self.fastbatch_length if fastbatch_length is None: fastbatch_length = 4 * data_T # decide how many times to call fit_transform data_validity_check(ts_data) ts_data = np.array(ts_data).flatten().reshape(-1, 1) total_len = len(ts_data) segments_num = int(total_len / fastbatch_length) if segments_num <= 1: decomposed_data = self.fit_transform(ts_data) return decomposed_data else: adjusted_trend = np.array([]) adjusted_season = np.array([]) irregular_data = np.array([]) # for loop and contact, the last one is longer. for seg_idx in range(segments_num): print("seg_idx") print(seg_idx) if seg_idx == segments_num - 1: seg_data = ts_data[seg_idx * fastbatch_length:] else: seg_data = ts_data[seg_idx * fastbatch_length:(seg_idx + 1) * fastbatch_length] self.fit_transform(seg_data) adjusted_trend_tmp = self.adjusted_trend adjusted_season_tmp = self.adjusted_season irregular_data_tmp = self.irregular_data adjusted_trend = np.append(adjusted_trend, adjusted_trend_tmp) adjusted_season = np.append(adjusted_season, adjusted_season_tmp) irregular_data = np.append(irregular_data, irregular_data_tmp) adjusted_trend = adjusted_trend.reshape(-1, 1) adjusted_season = adjusted_season.reshape(-1, 1) irregular_data = irregular_data.reshape(-1, 1) decomposed_data = np.hstack( (adjusted_trend, adjusted_season, irregular_data)) self.adjusted_trend = adjusted_trend self.adjusted_season = adjusted_season self.irregular_data = irregular_data self.decomposed_data = decomposed_data return decomposed_data def fit_transform(self, ts_data, online_mode=False, S_inv=None, warm_start_iniValue=None, online_trend_update_toggle=True, mini_batch_len=None, override=True): """ This method to do robust STL filtering process for time sereis. Parameters ---------- ts_data : array-like, shape = (n_timelength, 1) or (n_timelength,) The input data, 1D data: can be numpy array, list, or pandas dataframe. online_mode: boolean [default=False] In batch mode, this is False. Used in online mode to speed up. S_inv : matrix To be used for online case only to speed up warm_start_iniValue: array-like, shape = (n_timelength, 1) Used in online mode to speed up the trend solver. online_trend_update_toggle: boolean [default=True] In batch mode, this is True, which decides when to upate trend. mini_batch_len: int the length of mini_batch override : boolean To be used for online case, ignore for now. Returns ------- decomposed_data : array-like, shape = (n_timelength, 3) The output of decomposed signal: [trend, season, irregular] """ data_T = self.data_T noise_toggle = self.noise_toggle noise_sigma_i = self.noise_sigma_i noise_sigma_d = self.noise_sigma_d noise_truncate = self.noise_truncate trend_toggle = self.trend_toggle trend_vlambda = self.trend_vlambda trend_vlambda_diff = self.trend_vlambda_diff trend_solver_method = self.trend_solver_method trend_solver_maxiters = self.trend_solver_maxiters trend_solver_show_progress = self.trend_solver_show_progress trend_solver_admm_rho = self.trend_solver_admm_rho trend_solver_warm_start = self.trend_solver_warm_start trend_down_sample = self.trend_down_sample season_toggle = self.season_toggle season_bilateral_period_num = self.season_bilateral_period_num season_neighbour_wdw_size = self.season_neighbour_wdw_size season_sigma_i = self.season_sigma_i season_sigma_d = self.season_sigma_d online_history_length = self.online_history_length data_validity_check(ts_data) ts_data = np.array(ts_data).flatten().reshape(-1, 1) original_data = ts_data.copy() # 1st step: denoising if noise_toggle: if not online_mode: # batch mode self.denoising_filter = CausalBilateralFilter( sigma_i=noise_sigma_i, sigma_d=noise_sigma_d, truncate=noise_truncate) denoised_data = self.denoising_filter.fit_transform( original_data) else: # online mode new_ts_minibatch = ts_data[-mini_batch_len:] denoised_data = self.denoising_filter.fit_transform_online( new_ts_minibatch) denoised_data = denoised_data[-online_history_length:] else: denoised_data = original_data # no denoising noise_data = original_data - denoised_data # 2nd step: detrending if trend_toggle: # online_trend_update_toggle == True by default, # since in batch mode we must do this if online_trend_update_toggle: # suppose operate as (1) batch, online, online,... # or (2) batch, batch, batch, .... # if input ts_data_length, fast-stl needs update cur_ts_data_length = len(ts_data) if self.ts_data_length != cur_ts_data_length: self.ts_data_length = cur_ts_data_length update_fast_trend = True else: update_fast_trend = False ini_trend_data, next_warm_start_value, fast_trend_solver = \ lad_trend( denoised_data=denoised_data, data_T=data_T, vlambda=trend_vlambda, vlambda_diff=trend_vlambda_diff, solver_method=trend_solver_method, trend_solver_admm_rho=trend_solver_admm_rho, trend_down_sample=trend_down_sample, maxiters=trend_solver_maxiters, show_progress=trend_solver_show_progress, S_inv=S_inv, warm_start_toggle=trend_solver_warm_start, warm_start_iniValue=warm_start_iniValue, update_fast_trend=update_fast_trend, fast_trend_record=self.fast_trend_record) self.fast_trend_record = fast_trend_solver else: next_warm_start_value = np.hstack( (self.next_warm_start_value[mini_batch_len:], np.tile(0.0, mini_batch_len))) # ini_trend_data, can also do interplate or prediction] ini_trend_data_tmp = self.ini_trend_data.reshape(-1, ) ini_trend_data = np.hstack( (ini_trend_data_tmp[mini_batch_len:], np.tile(ini_trend_data_tmp[-1], mini_batch_len))) ini_trend_data = ini_trend_data.reshape(-1, 1) # summary coarse_season = denoised_data - ini_trend_data self.ini_trend_data = ini_trend_data self.next_warm_start_value = next_warm_start_value else: ini_trend_data = np.zeros_like(denoised_data) coarse_season = denoised_data self.next_warm_start_value = np.zeros(online_history_length) # 3rd step: de-season if season_toggle: # # version 1 with later evel_adj = np.mean(ini_season_data) # ini_season_data, irregular_season = bilateral_season( # coarse_season=coarse_season, # data_T=data_T, # bilateral_period_num=season_bilateral_period_num, # neighbour_wdw_size=season_neighbour_wdw_size, # sigma_i=season_sigma_i, # sigma_d=season_sigma_d) # # version 2 is the same as above when set level_adj=0 later # # much better speedup with level_adj = np.mean(coarse_season) if not online_mode: # batch mode ini_season_data, irregular_season = bilateral_season( coarse_season=coarse_season, data_T=data_T, bilateral_period_num=season_bilateral_period_num, neighbour_wdw_size=season_neighbour_wdw_size, sigma_i=season_sigma_i, sigma_d=season_sigma_d, fit_transform_len_spec=None) self.ini_season_data = ini_season_data[-online_history_length:] else: # online mode: ini_season_data, irregular_season = bilateral_season( coarse_season=coarse_season, data_T=data_T, bilateral_period_num=season_bilateral_period_num, neighbour_wdw_size=season_neighbour_wdw_size, sigma_i=season_sigma_i, sigma_d=season_sigma_d, fit_transform_len_spec=mini_batch_len) ini_season_data = np.vstack( (self.ini_season_data[mini_batch_len:], ini_season_data[-mini_batch_len:])) self.ini_season_data = ini_season_data else: coarse_season_mean = np.mean(coarse_season) irregular_season = coarse_season - coarse_season_mean ini_season_data = coarse_season_mean * \ np.ones_like(coarse_season) # 4nd step: adjust trend, season, irregular_season. # make mean(adjusted_season) = 0 # level_adj = np.mean(ini_season_data) # adopt mean(coarse_season) to approx mean(ini_season_data) # in the version 1 in step_3 level_adj = np.mean(coarse_season) adjusted_season = ini_season_data - level_adj if trend_toggle: adjusted_trend = ini_trend_data + level_adj irregular_data = irregular_season + noise_data else: adjusted_trend = ini_trend_data irregular_data = irregular_season + noise_data + level_adj decomposed_data = np.hstack( (adjusted_trend, adjusted_season, irregular_data)) self.ts_data = ts_data self.adjusted_trend = adjusted_trend self.adjusted_season = adjusted_season self.irregular_data = irregular_data self.decomposed_data = decomposed_data return decomposed_data def fit_transform_online(self, new_ts_minibatch): """ The online version of RobustSTL to do the fit transform with much faster speed. Note: 1, online mode only uses the most recent online_history_length data (including the newest new_ts_minibatch) to do decomposition. 2, the output would be the same as the output of fit_transform (i.e., the length is len(ts_data)), but only the last len(new_ts_minibatch) data is computed from the fit_transform_online. Parameters --------- new_ts_minibatch : array-like, shape = (n_minibatch, 1) or (n_minibatch,) Single time series of length mini_batch_timelength. Returns ------- decomposed_data : numpy array, shape = (n_timelength, 3) The output of decomposed signal: [trend, season, irregular] """ S_inv = self.S_inv next_warm_start_value = self.next_warm_start_value online_history_length = self.online_history_length online_update_mode = self.online_update_mode online_trend_update_freq = self.online_trend_update_freq ts_data = self.ts_data adjusted_trend = self.adjusted_trend adjusted_season = self.adjusted_season irregular_data = self.irregular_data decomposed_data = self.decomposed_data mini_batch_len = len(new_ts_minibatch) if self.ts_data is None: raise ValueError("fit_transform_online can not be called in the\ very first time, should followed fit_transform.") if mini_batch_len > online_history_length: raise ValueError("for online detrend, the length of mini_batch\ should not larger than the online_history_length") if len(ts_data) < online_history_length: raise ValueError("for online detrend, the online_history_length\ should not larger than the initial len(ts_data)") # check new_ts_minibatch and change format to 1d np.array data_validity_check(new_ts_minibatch) new_ts_minibatch = np.array(new_ts_minibatch).flatten() new_ts_minibatch = new_ts_minibatch.reshape(-1, 1) # update ts_data ts_data = np.concatenate([ts_data[mini_batch_len:], new_ts_minibatch]) # detrend for ts_data_online_part ts_data_online = ts_data[-online_history_length:] next_warm_start_value = \ next_warm_start_value[-(online_history_length-1):] # warm_start_ini = np.hstack( # (next_warm_start_value[mini_batch_len:], # np.tile(next_warm_start_value[-1], mini_batch_len))) warm_start_ini = np.hstack((next_warm_start_value[mini_batch_len:], np.tile(0, mini_batch_len))) # count the No. of online ops to decide if do online_trend_update if self.online_count == 0: online_trend_update_toggle = True else: online_trend_update_toggle = False # update self.online_count for next use self.online_count = (self.online_count + 1) % online_trend_update_freq # do fit_transform online_mode = True self.fit_transform(ts_data_online, online_mode, S_inv, warm_start_ini, online_trend_update_toggle, mini_batch_len) adjusted_trend_online = self.adjusted_trend adjusted_season_online = self.adjusted_season irregular_data_online = self.irregular_data # decomposed_data_online = self.decomposed_data # # update trend_signal residual_signal if online_update_mode == 'only_mini_batch': adjusted_trend = np.vstack( (adjusted_trend[mini_batch_len:], adjusted_trend_online[-mini_batch_len:])) adjusted_season = np.vstack( (adjusted_season[mini_batch_len:], adjusted_season_online[-mini_batch_len:])) irregular_data = np.vstack( (irregular_data[mini_batch_len:], irregular_data_online[-mini_batch_len:])) elif online_update_mode == 'entire_online_history': update_data_len = online_history_length adjusted_trend = np.vstack( (adjusted_trend[mini_batch_len:(-update_data_len + mini_batch_len)], adjusted_trend_online)) adjusted_season = np.vstack( (adjusted_season[mini_batch_len:(-update_data_len + mini_batch_len)], adjusted_season_online)) irregular_data = np.vstack( (irregular_data[mini_batch_len:(-update_data_len + mini_batch_len)], irregular_data_online)) else: raise ValueError("input para of online_update_mode is not right") decomposed_data = np.hstack( (adjusted_trend, adjusted_season, irregular_data)) self.ts_data = ts_data self.adjusted_trend = adjusted_trend self.adjusted_season = adjusted_season self.irregular_data = irregular_data self.decomposed_data = decomposed_data return decomposed_data def _get_prev_transform(self): # debug purpose --> should be n*3 numpy.array return self.decomposed_data class RobustSTL_partialComponent(RobustSTL): """Robust STL for decomposing time series, only output partial component Parameters ---------- partial_component: str [default='trend'] The partial component of the RobustSTL output, can be 'trend', 'season', 'residual', 'deseasonalized', and 'detrended'. 'deseasonalized' indicates 'trend' + 'residual'; while 'detrended' indicates 'season' + 'residual'. data_T : int The length of one period in terms of data points. The value must be larger than 1 noise_toggle: boolean [default=True] The toggle that determines whether to denoise signal. noise_sigma_i : double [default=2.0] The standard deviation for intensity used in bilateral gaussian kernel noise_sigma_d : double [default=2.5] The standard deviation for distance used in bilateral gaussian kernel truncate: double [default=8.0] Used for the radius of the filter, which equals to truncate times sigma_d trend_toggle: boolean [default=True] The toggle that determines whether to detrend signal. trend_vlambda : double [default=200] The lambda to control first difference of trend in L1 reg trend_vlambda_diff : double [default=200] The lambda to control twice difference of trend in L1 reg trend_solver_method: str, 'g_lasso_admm', 'cvxopt_default', 'cvxopt_mosek' [default='g_lasso_admm'] The solver to solve the L1 problem. cvxopt_mosek is much faster but need license. trend_solver_maxiters : int [default=200] Set the iteration number in the optimization progress in trend filter trend_solver_show_progress: boolean [default=False] Show the optimization progress in trend filter season_toggle: boolean [default=True] The toggle that determines whether to deseasonize signal. season_bilateral_period_num : int The number of previous periods used in the deseason. num_period can be 1,2,3..., season_neighbour_wdw_size : int [default=20] The half length of the window used in historical period data season_sigma_i : double [default=2.5] The standard deviation for intensity used in bilateral gaussian kernel season_sigma_d : double [default=2.5] The standard deviation for distance used in bilateral gaussian kernel online_history_length : int The length of history data used in online mode for RobustSTL online_update_mode : string [default='only_mini_batch'] The online update mode, can be 'only_mini_batch' or 'entire_online_history', default is 'only_mini_batch' """ def __init__(self, partial_component='trend', data_T=288, noise_toggle=True, noise_sigma_i=2.0, noise_sigma_d=2.5, noise_truncate=8.0, trend_toggle=True, trend_vlambda=40, trend_vlambda_diff=20, trend_solver_method='g_lasso_admm', trend_solver_maxiters=15, trend_solver_show_progress=False, trend_solver_admm_rho=1.0, trend_solver_warm_start=True, season_toggle=True, season_bilateral_period_num=2, season_neighbour_wdw_size=20, season_sigma_i=2, season_sigma_d=10, online_history_length=288 * 3, online_trend_update_freq=5, online_update_mode='only_mini_batch'): super().__init__(data_T, noise_toggle, noise_sigma_i, noise_sigma_d, noise_truncate, trend_toggle, trend_vlambda, trend_vlambda_diff, trend_solver_method, trend_solver_maxiters, trend_solver_show_progress, trend_solver_admm_rho, trend_solver_warm_start, season_toggle, season_bilateral_period_num, season_neighbour_wdw_size, season_sigma_i, season_sigma_d, online_history_length, online_trend_update_freq, online_update_mode) self.partial_component = partial_component def _return_partial_component(self, partial_component, decomposed_data): if partial_component == 'trend': decomposed_out = decomposed_data[:, 0].reshape(-1, 1) elif partial_component == 'season': decomposed_out = decomposed_data[:, 1].reshape(-1, 1) elif partial_component == 'residual': decomposed_out = decomposed_data[:, 2].reshape(-1, 1) elif partial_component == 'deseasonalized': decomposed_out = decomposed_data[:, 0].reshape(-1, 1) + \ decomposed_data[:, 2].reshape(-1, 1) elif partial_component == 'detrended': decomposed_out = decomposed_data[:, 1].reshape(-1, 1) + \ decomposed_data[:, 2].reshape(-1, 1) else: raise ValueError("the parameter partial_component must one of the\ 'trend', 'season', 'residual', 'deseasonalized', 'detrended'") return decomposed_out def fit_transform(self, ts_data, online_mode=False, S_inv=None, warm_start_iniValue=None, online_trend_update_toggle=True, mini_batch_len=None, override=True): partial_component = self.partial_component decomposed_data = super().fit_transform(ts_data, online_mode, S_inv, warm_start_iniValue, online_trend_update_toggle, mini_batch_len, override) return self._return_partial_component(partial_component, decomposed_data) def fit_transform_online(self, new_ts_minibatch): partial_component = self.partial_component decomposed_data = super().fit_transform_online(new_ts_minibatch) return self._return_partial_component(partial_component, decomposed_data) def _get_prev_transform(self): partial_component = self.partial_component decomposed_data = self.decomposed_data return self._return_partial_component(partial_component, decomposed_data)
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6
17ee13f9bc0b0c5139e69b291f86ec2aa00e5ea7
4,096
py
Python
py/hyper_dk_series.py
kazuibasou/hyper-dk-series
f47709d06285b1788cbbf7cd29480f87a2f2ccbc
[ "MIT" ]
null
null
null
py/hyper_dk_series.py
kazuibasou/hyper-dk-series
f47709d06285b1788cbbf7cd29480f87a2f2ccbc
[ "MIT" ]
null
null
null
py/hyper_dk_series.py
kazuibasou/hyper-dk-series
f47709d06285b1788cbbf7cd29480f87a2f2ccbc
[ "MIT" ]
null
null
null
import hypergraph import rewiring import random def randomizing_d_v_zero_d_e_zero(G): # Given a hypergraph, return a randomized hypergraph with (d_v, d_e) = (0, 0). B_M = 0 for v in G.V: B_M += len(G.elist[v]) randG = hypergraph.HyperGraph() randG.V = list(G.V) randG.E = [[] for e_i in range(0, len(G.E))] for v in randG.V: randG.elist[v] = [] for i in range(0, B_M): v = random.choice(randG.V) e_i = random.randrange(0, len(randG.E)) randG.add_node_to_hyperedge(v, e_i) print("Successfully generated a randomized hypergraph with (d_v, d_e) = (0, 0).\n") return randG def randomizing_d_v_one_d_e_zero(G): # Given a hypergraph, return a randomized hypergraph with (d_v, d_e) = (1, 0). stublist = [] for v in G.V: k = len(G.elist[v]) for i in range(0, k): stublist.append(v) random.shuffle(stublist) randG = hypergraph.HyperGraph() randG.V = list(G.V) randG.E = [[] for e_i in range(0, len(G.E))] for v in randG.V: randG.elist[v] = [] while len(stublist) > 0: v = stublist.pop() e_i = random.randrange(0, len(randG.E)) randG.add_node_to_hyperedge(v, e_i) print("Successfully generated a randomized hypergraph with (d_v, d_e) = (1, 0).\n") return randG def randomizing_d_v_two_d_e_zero(G): # Given a hypergraph, return a randomized hypergraph with (d_v, d_e) = (2, 0). randG = hypergraph.HyperGraph() randG = randomizing_d_v_one_d_e_zero(G) randG = rewiring.targeting_rewiring_d_v_two(G, randG) print("Successfully generated a randomized hypergraph with (d_v, d_e) = (2, 0).\n") return randG def randomizing_d_v_two_five_d_e_zero(G): # Given a hypergraph, return a randomized hypergraph with (d_v, d_e) = (2.5, 0). randG = hypergraph.HyperGraph() randG = randomizing_d_v_two_d_e_zero(G) randG = rewiring.targeting_rewiring_d_v_two_five(G, randG) print("Successfully generated a randomized hypergraph with (d_v, d_e) = (2.5, 0).\n") return randG def randomizing_d_v_zero_d_e_one(G): # Given a hypergraph, return a randomized hypergraph with (d_v, d_e) = (0, 1). stublist = [] for e_i in range(0, len(G.E)): s = len(G.E[e_i]) for i in range(0, s): stublist.append(e_i) random.shuffle(stublist) randG = hypergraph.HyperGraph() randG.V = list(G.V) randG.E = [[] for e_i in range(0, len(G.E))] for v in randG.V: randG.elist[v] = [] while len(stublist) > 0: v = random.choice(randG.V) e_i = stublist.pop() randG.add_node_to_hyperedge(v, e_i) print("Successfully generated a randomized hypergraph with (d_v, d_e) = (0, 1).\n") return randG def randomizing_d_v_one_d_e_one(G): # Given a hypergraph, return a randomized hypergraph with (d_v, d_e) = (1, 1). node_stublist = [] for v in G.V: k = len(G.elist[v]) for i in range(0, k): node_stublist.append(v) random.shuffle(node_stublist) hyperedge_stublist = [] for e_i in range(0, len(G.E)): s = len(G.E[e_i]) for i in range(0, s): hyperedge_stublist.append(e_i) random.shuffle(hyperedge_stublist) randG = hypergraph.HyperGraph() randG.V = list(G.V) randG.E = [[] for e_i in range(0, len(G.E))] for v in randG.V: randG.elist[v] = [] while len(node_stublist) > 0 and len(hyperedge_stublist) > 0: v = node_stublist.pop() e_i = hyperedge_stublist.pop() randG.add_node_to_hyperedge(v, e_i) print("Successfully generated a randomized hypergraph with (d_v, d_e) = (1, 1).\n") return randG def randomizing_d_v_two_d_e_one(G): # Given a hypergraph, return a randomized hypergraph with (d_v, d_e) = (2, 1). randG = hypergraph.HyperGraph() randG = randomizing_d_v_one_d_e_one(G) randG = rewiring.targeting_rewiring_d_v_two(G, randG) print("Successfully generated a randomized hypergraph with (d_v, d_e) = (2, 1).\n") return randG def randomizing_d_v_two_five_d_e_one(G): # Given a hypergraph, return a randomized hypergraph with (d_v, d_e) = (2.5, 1). randG = hypergraph.HyperGraph() randG = randomizing_d_v_two_d_e_one(G) randG = rewiring.targeting_rewiring_d_v_two_five(G, randG) print("Successfully generated a randomized hypergraph with (d_v, d_e) = (2.5, 1).\n") return randG
25.128834
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0.697021
741
4,096
3.62753
0.070175
0.02381
0.125
0.14881
0.928199
0.909226
0.892485
0.864583
0.854167
0.854167
0
0.015826
0.166992
4,096
163
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false
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0.029412
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0
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0
0
0
6
17f16335a161822fc33f58a19a47a085b9c2d421
150
py
Python
regex/Introduction/Matching Word & Non-Word Character.py
patwadeepak/hackerrank-practice-problems
fa29269b543816bb73ec1ea1e339cae30e9764cd
[ "Apache-2.0" ]
null
null
null
regex/Introduction/Matching Word & Non-Word Character.py
patwadeepak/hackerrank-practice-problems
fa29269b543816bb73ec1ea1e339cae30e9764cd
[ "Apache-2.0" ]
null
null
null
regex/Introduction/Matching Word & Non-Word Character.py
patwadeepak/hackerrank-practice-problems
fa29269b543816bb73ec1ea1e339cae30e9764cd
[ "Apache-2.0" ]
null
null
null
# Author: Deepak Kumar Regex_Pattern = r"\w\w\w\W\w\w\w\w\w\w\w\w\w\w\W\w\w\w" import re print(str(bool(re.search(Regex_Pattern, input()))).lower())
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0.666667
35
150
2.8
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0.346939
0.489796
0.612245
0.183673
0.183673
0.183673
0.183673
0.183673
0.183673
0
0
0.08
150
6
59
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0.710145
0.133333
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0.27907
0.27907
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false
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0.333333
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0
0
6
aa26f8dd5ee9a367ac110dc3fd111c072b1be57e
41
py
Python
tetris/__init__.py
AndrejHafner/tetris-reinforcement-learning
52db5d8ce7f9162b15575456a0effc69dd7fb2bf
[ "MIT" ]
null
null
null
tetris/__init__.py
AndrejHafner/tetris-reinforcement-learning
52db5d8ce7f9162b15575456a0effc69dd7fb2bf
[ "MIT" ]
null
null
null
tetris/__init__.py
AndrejHafner/tetris-reinforcement-learning
52db5d8ce7f9162b15575456a0effc69dd7fb2bf
[ "MIT" ]
null
null
null
from tetris import * from block import *
13.666667
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aa36919f75e56ab26ed3310aebfc87ae676cbbb1
93
py
Python
app_routes/threads/applications/application_id/__init__.py
kskarbinski/threads-api
c144c1cb51422095922310d278f80e4996c10ea0
[ "MIT" ]
null
null
null
app_routes/threads/applications/application_id/__init__.py
kskarbinski/threads-api
c144c1cb51422095922310d278f80e4996c10ea0
[ "MIT" ]
null
null
null
app_routes/threads/applications/application_id/__init__.py
kskarbinski/threads-api
c144c1cb51422095922310d278f80e4996c10ea0
[ "MIT" ]
null
null
null
from .threads_applications_application_id_route import ThreadsApplicationsApplicationIdRoute
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6
aa43e9ebc0154242e5fbad59c31b18d5ce2f6b44
107
py
Python
tfquery/__init__.py
mazen160/tfquery
ddc145d7bf04f002c8ea49079fbc688106fc1485
[ "MIT" ]
262
2021-04-28T11:38:53.000Z
2022-03-16T12:31:14.000Z
tfquery/__init__.py
mazen160/tfquery
ddc145d7bf04f002c8ea49079fbc688106fc1485
[ "MIT" ]
2
2021-05-12T07:30:25.000Z
2021-09-19T11:29:22.000Z
tfquery/__init__.py
mazen160/tfquery
ddc145d7bf04f002c8ea49079fbc688106fc1485
[ "MIT" ]
12
2021-04-28T17:15:08.000Z
2022-02-12T10:30:45.000Z
import tfquery.tfstate import tfquery.sql_handler import tfquery.tfstate_v3_migration import tfquery.utils
21.4
35
0.88785
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107
6.133333
0.533333
0.565217
0.434783
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6
a4ab1c633e82fd238750d2b31a8147783e37d999
149
py
Python
src/Diagnostics.AIProjects/TrainingAPI/__app__/TrainingModule/Exceptions.py
prbajrac/Azure-AppServices-Diagnostics
ba66a7f40b6ec1f4ec388e7b07820607944a998d
[ "MIT" ]
null
null
null
src/Diagnostics.AIProjects/TrainingAPI/__app__/TrainingModule/Exceptions.py
prbajrac/Azure-AppServices-Diagnostics
ba66a7f40b6ec1f4ec388e7b07820607944a998d
[ "MIT" ]
null
null
null
src/Diagnostics.AIProjects/TrainingAPI/__app__/TrainingModule/Exceptions.py
prbajrac/Azure-AppServices-Diagnostics
ba66a7f40b6ec1f4ec388e7b07820607944a998d
[ "MIT" ]
1
2019-12-16T07:08:12.000Z
2019-12-16T07:08:12.000Z
class TrainingException(Exception): pass class PublishingException(Exception): pass class ResourceConfigDownloadFailed(Exception): pass
18.625
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0.791946
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149
9.833333
0.5
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0.305085
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149
8
47
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6
a4fd0b3e5ce2d5d894105faa5edf53ac5c033337
3,755
py
Python
tests/time_series_image_test.py
AeRabelais/DeepBench
ddb95b394eae381f60b031572cb79fac6418376f
[ "Apache-2.0" ]
null
null
null
tests/time_series_image_test.py
AeRabelais/DeepBench
ddb95b394eae381f60b031572cb79fac6418376f
[ "Apache-2.0" ]
1
2022-03-17T19:09:41.000Z
2022-03-17T19:09:41.000Z
tests/time_series_image_test.py
AeRabelais/DeepBenchmark
ddb95b394eae381f60b031572cb79fac6418376f
[ "Apache-2.0" ]
null
null
null
from unittest import TestCase from src.deepbench.image.time_series_image import TimeSeriesImage class TestTimeSeriesImage(TestCase): def test_1d_init(self): with self.assertRaises(AssertionError): image_shape = (12,) object_params = [{"object_type": "test_object"}] TimeSeriesImage(object_params, image_shape) def test_2d_init(self): image_shape = (12, 12) object_params = [{"object_type": "test_object"}] time_series = TimeSeriesImage(object_params, image_shape) self.assertEqual(image_shape, time_series.image_shape) def test_3d_init(self): image_shape = (12, 12, 3) object_params = [{"object_type": "test_object"}] time_series = TimeSeriesImage(object_params, image_shape) self.assertEqual(image_shape, time_series.image_shape) def test_0d_init(self): with self.assertRaises(AssertionError): image_shape = () object_params = [{"object_type": "test_object"}] TimeSeriesImage(object_params, image_shape) def test_no_object_init(self): with self.assertRaises(AssertionError): image_shape = (12, 12) object_params = [] TimeSeriesImage(object_params, image_shape) def test_one_object_init(self): image_shape = (12, 12) object_params = [{"object_type": "test_object"}] time_series = TimeSeriesImage(object_params, image_shape) self.assertEqual(image_shape, time_series.image_shape) self.assertEqual(object_params, time_series.objects) def test_two_object_init(self): with self.assertRaises(AssertionError): image_shape = (12, 12) object_params = [ {"object_type": "test_object"}, [{"object_type": "test_object"}], ] TimeSeriesImage(object_params, image_shape) def test_combine_one_object(self): image_shape = (12, 12) object_params = [{"object_type": "test_object"}] time_series = TimeSeriesImage(object_params, image_shape) time_series.combine_objects() self.assertEqual(image_shape, time_series.image.shape) def test_generate_gaussian_noise(self): object_params = [{"object_type": "test_object"}] image_shape = (14, 14) one_image_sky = TimeSeriesImage(object_params, image_shape) one_image_sky.combine_objects() one_image_sky.generate_noise("gaussian") self.assertIsNotNone(one_image_sky.image) self.assertEqual(image_shape, one_image_sky.image.shape) def test_generate_poisson_noise(self): object_params = [{"object_type": "test_object"}] image_shape = (14, 14) one_image_sky = TimeSeriesImage(object_params, image_shape) one_image_sky.combine_objects() one_image_sky.generate_noise("poisson") self.assertIsNotNone(one_image_sky.image) self.assertEqual(image_shape, one_image_sky.image.shape) def test_add_fake_noise(self): with self.assertRaises(NotImplementedError): object_params = [{"object_type": "test_object"}] image_shape = (14, 14) one_image_sky = TimeSeriesImage(object_params, image_shape) one_image_sky.combine_objects() one_image_sky.generate_noise("Fake Noise") def test_image_not_made(self): with self.assertRaises(AssertionError): object_params = [{"object_type": "test_object"}] image_shape = (14, 14) one_image_sky = TimeSeriesImage(object_params, image_shape) ##Go straight to noise instead of making objects first one_image_sky.generate_noise("gaussian")
37.929293
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428
3,755
5.446262
0.126168
0.15444
0.070785
0.10296
0.834835
0.811669
0.785071
0.766195
0.743887
0.720721
0
0.016451
0.239148
3,755
98
72
38.316327
0.79944
0.013848
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1
0.155844
false
0
0.025974
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null
0
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1
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0
0
0
0
0
6
352daed1b4556a28e943fc7c3ffe93fb18304c40
147
py
Python
teacher/metrics/__init__.py
Kaysera/fuzzy-lore
128131e0f41f480d509b63c5e75d0ce58f07bae4
[ "MIT" ]
3
2022-03-09T16:54:02.000Z
2022-03-10T13:28:31.000Z
teacher/metrics/__init__.py
Kaysera/fuzzy-lore
128131e0f41f480d509b63c5e75d0ce58f07bae4
[ "MIT" ]
1
2022-03-17T16:30:02.000Z
2022-03-24T17:54:08.000Z
teacher/metrics/__init__.py
Kaysera/fuzzy-lore
128131e0f41f480d509b63c5e75d0ce58f07bae4
[ "MIT" ]
null
null
null
from .rule import coverage, precision, fidelity, rule_fidelity __all__ = [ "coverage", "precision", "fidelity", "rule_fidelity" ]
16.333333
62
0.659864
14
147
6.5
0.5
0.373626
0.549451
0.637363
0.813187
0
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0.217687
147
8
63
18.375
0.791304
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0
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6
1020223877cb8dabf05806c36d92071551102f3f
105
py
Python
fs/__init__.py
Stift007/python-fs
aac31ab4dbcd659bb1451ec8ea2132254585a3fb
[ "MIT" ]
null
null
null
fs/__init__.py
Stift007/python-fs
aac31ab4dbcd659bb1451ec8ea2132254585a3fb
[ "MIT" ]
null
null
null
fs/__init__.py
Stift007/python-fs
aac31ab4dbcd659bb1451ec8ea2132254585a3fb
[ "MIT" ]
null
null
null
from fs import readFile,writeFile,readFileSync,writeFileSync,readDir,readDirSync,readDirString,move,copy
52.5
104
0.885714
12
105
7.75
1
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0.038095
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105
105
0.920792
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1
0
1
0
1
0
0
6
102ad9e69f291b3b78691c8b5f28d8da71dae4a1
26,838
py
Python
chunair/kicad-footprint-generator-master/KicadModTree/tests/moduletests/test_kicad5_padshapes.py
speedypotato/chuni-lite
c8dda8428723f8c4f99075e7cbaa22a44cbc187d
[ "CC-BY-4.0" ]
2
2022-03-18T23:42:51.000Z
2022-03-19T15:31:34.000Z
chunair/kicad-footprint-generator-master/KicadModTree/tests/moduletests/test_kicad5_padshapes.py
speedypotato/chuni-lite
c8dda8428723f8c4f99075e7cbaa22a44cbc187d
[ "CC-BY-4.0" ]
null
null
null
chunair/kicad-footprint-generator-master/KicadModTree/tests/moduletests/test_kicad5_padshapes.py
speedypotato/chuni-lite
c8dda8428723f8c4f99075e7cbaa22a44cbc187d
[ "CC-BY-4.0" ]
null
null
null
# KicadModTree is free software: you can redistribute it and/or # modify it under the terms of the GNU General Public License as published by # the Free Software Foundation, either version 3 of the License, or # (at your option) any later version. # # KicadModTree is distributed in the hope that it will be useful, # but WITHOUT ANY WARRANTY; without even the implied warranty of # MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the # GNU General Public License for more details. # # You should have received a copy of the GNU General Public License # along with kicad-footprint-generator. If not, see < http://www.gnu.org/licenses/ >. # # (C) 2018 by Thomas Pointhuber, <thomas.pointhuber@gmx.at> # (C) 2018 by Rene Poeschl, github @poeschlr from __future__ import division import unittest from KicadModTree import * RESULT_ROUNDRECT_FP = """(module round_rect_test (layer F.Cu) (tedit 0) (descr "A example footprint") (tags example) (fp_text reference REF** (at 0 0) (layer F.SilkS) (effects (font (size 1 1) (thickness 0.15))) ) (fp_text value round_rect_test (at 0 0) (layer F.Fab) (effects (font (size 1 1) (thickness 0.15))) ) (pad 3 smd roundrect (at 5 0 45) (size 1 1) (layers F.Cu F.Mask F.Paste) (roundrect_rratio 0.1)) (pad 2 smd roundrect (at -5 0) (size 1 1) (layers F.Cu F.Mask F.Paste) (roundrect_rratio 0.5)) (pad 1 smd rect (at 0 0) (size 1 1) (layers F.Cu F.Mask F.Paste)) )""" RESULT_ROUNDRECT_FP2 = """(module round_rect_test (layer F.Cu) (tedit 0) (descr "A example footprint") (tags example) (fp_text reference REF** (at 0 0) (layer F.SilkS) (effects (font (size 1 1) (thickness 0.15))) ) (fp_text value round_rect_test (at 0 0) (layer F.Fab) (effects (font (size 1 1) (thickness 0.15))) ) (pad 3 smd roundrect (at 5 0 45) (size 1 1) (layers F.Cu F.Mask F.Paste) (roundrect_rratio 0.25)) (pad 2 smd roundrect (at -5 0) (size 1 2) (layers F.Cu F.Mask F.Paste) (roundrect_rratio 0.25)) (pad 1 smd roundrect (at 0 0) (size 2 4) (layers F.Cu F.Mask F.Paste) (roundrect_rratio 0.125)) )""" RESULT_SIMPLE_POLYGON_PAD = """(module round_rect_test (layer F.Cu) (tedit 0) (descr "A example footprint") (tags example) (fp_text reference REF** (at 0 0) (layer F.SilkS) (effects (font (size 1 1) (thickness 0.15))) ) (fp_text value round_rect_test (at 0 0) (layer F.Fab) (effects (font (size 1 1) (thickness 0.15))) ) (pad 1 smd custom (at 0 0) (size 1 1) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -1 -1) (xy 2 -1) (xy 1 1) (xy -1 2)) (width 0)) )) )""" RESULT_SIMPLE_OTHER_CUSTOM_PAD = """(module round_rect_test (layer F.Cu) (tedit 0) (descr "A example footprint") (tags example) (fp_text reference REF** (at 0 0) (layer F.SilkS) (effects (font (size 1 1) (thickness 0.15))) ) (fp_text value round_rect_test (at 0 0) (layer F.Fab) (effects (font (size 1 1) (thickness 0.15))) ) (pad 1 smd custom (at 0 0) (size 1 1) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_arc (start -1 0) (end -1 -0.5) (angle -180) (width 0.15)) (gr_line (start -1 -0.5) (end 1.25 -0.5) (width 0.15)) (gr_line (start 1.25 -0.5) (end 1.25 0.5) (width 0.15)) (gr_line (start 1.25 0.5) (end -1 0.5) (width 0.15)) )) (pad 2 smd custom (at 0 3) (size 1 1) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_arc (start -1 0) (end -1 -0.5) (angle -180) (width 0.15)) (gr_line (start -1 -0.5) (end 1.25 -0.5) (width 0.15)) (gr_line (start 1.25 -0.5) (end 1.25 0.5) (width 0.15)) (gr_line (start 1.25 0.5) (end -1 0.5) (width 0.15)) )) (pad 3 smd custom (at 0 -3) (size 1 1) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_circle (center 0.5 0.5) (end 1 0.5) (width 0.15)) )) )""" RESULT_CUT_POLYGON = """(module round_rect_test (layer F.Cu) (tedit 0) (descr "A example footprint") (tags example) (fp_text reference REF** (at 0 0) (layer F.SilkS) (effects (font (size 1 1) (thickness 0.15))) ) (fp_text value round_rect_test (at 0 0) (layer F.Fab) (effects (font (size 1 1) (thickness 0.15))) ) (pad 1 smd custom (at 0 0) (size 0.5 0.5) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -2 -2) (xy 2 -2) (xy 2 2) (xy 1 1) (xy 1 0) (xy 0 0) (xy 0 1) (xy 1 1) (xy 2 2) (xy -2 2)) (width 0)) )) )""" RESULT_CHAMFERED_PAD = """(module chamfered_pad (layer F.Cu) (tedit 0) (descr "A example footprint") (tags example) (fp_text reference REF** (at 0 0) (layer F.SilkS) (effects (font (size 1 1) (thickness 0.15))) ) (fp_text value chamfered_pad (at 0 0) (layer F.Fab) (effects (font (size 1 1) (thickness 0.15))) ) (pad 1 smd custom (at 0 0) (size 0.764298 0.764298) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -0.5 -0.166667) (xy -0.166667 -0.5) (xy 0.166667 -0.5) (xy 0.5 -0.166667) (xy 0.5 0.166667) (xy 0.166667 0.5) (xy -0.166667 0.5) (xy -0.5 0.166667)) (width 0)) )) (pad 1 smd custom (at 2 2) (size 1.357538 1.357538) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -1.05 -0.5) (xy -0.55 -1.55) (xy 0.55 -1.55) (xy 1.05 -0.5) (xy 1.05 0.5) (xy 0.55 1.55) (xy -0.55 1.55) (xy -1.05 0.5)) (width 0)) )) )""" RESULT_CHAMFERED_PAD_AVOID_CIRCLE = """(module test_avoid_circle (layer F.Cu) (tedit 0) (descr "A example footprint") (tags example) (fp_text reference REF** (at 0 0) (layer F.SilkS) (effects (font (size 1 1) (thickness 0.15))) ) (fp_text value test_avoid_circle (at 0 0) (layer F.Fab) (effects (font (size 1 1) (thickness 0.15))) ) (fp_circle (center 3 3.5) (end 3.3 3.5) (layer F.SilkS) (width 0.01)) (pad 1 smd custom (at 2 2.5) (size 1.445 1.445) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -0.875 -0.693665) (xy -0.443665 -1.125) (xy 0.443665 -1.125) (xy 0.875 -0.693665) (xy 0.875 0.693665) (xy 0.443665 1.125) (xy -0.443665 1.125) (xy -0.875 0.693665)) (width 0)) )) )""" RESULT_CHAMFERED_PAD_GRID = """(module test_chamfered_grid (layer F.Cu) (tedit 0) (descr "A example footprint") (tags example) (fp_text reference REF** (at 0 0) (layer F.SilkS) (effects (font (size 1 1) (thickness 0.15))) ) (fp_text value test_chamfered_grid (at 0 0) (layer F.Fab) (effects (font (size 1 1) (thickness 0.15))) ) (pad 1 smd custom (at 0 -1.25) (size 0.823223 0.823223) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -0.5 -0.75) (xy -0.25 -1) (xy 0.5 -1) (xy 0.5 1) (xy -0.25 1) (xy -0.5 0.75)) (width 0)) )) (pad 1 smd custom (at 0 1.25) (size 0.823223 0.823223) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -0.5 -0.75) (xy -0.25 -1) (xy 0.5 -1) (xy 0.5 1) (xy -0.25 1) (xy -0.5 0.75)) (width 0)) )) (pad 1 smd custom (at 0 3.75) (size 0.823223 0.823223) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -0.5 -0.75) (xy -0.25 -1) (xy 0.5 -1) (xy 0.5 1) (xy -0.25 1) (xy -0.5 0.75)) (width 0)) )) (pad 1 smd custom (at 0 6.25) (size 0.823223 0.823223) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -0.5 -0.75) (xy -0.25 -1) (xy 0.5 -1) (xy 0.5 1) (xy -0.25 1) (xy -0.5 0.75)) (width 0)) )) (pad 1 smd custom (at 1.5 -1.25) (size 0.823223 0.823223) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -0.5 -0.75) (xy -0.25 -1) (xy 0.25 -1) (xy 0.5 -0.75) (xy 0.5 1) (xy -0.5 1)) (width 0)) )) (pad 1 smd rect (at 1.5 1.25) (size 1 2) (layers F.Cu F.Mask F.Paste)) (pad 1 smd rect (at 1.5 3.75) (size 1 2) (layers F.Cu F.Mask F.Paste)) (pad 1 smd custom (at 1.5 6.25) (size 0.823223 0.823223) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -0.5 -1) (xy 0.5 -1) (xy 0.5 0.75) (xy 0.25 1) (xy -0.25 1) (xy -0.5 0.75)) (width 0)) )) (pad 1 smd custom (at 3 -1.25) (size 0.823223 0.823223) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -0.5 -1) (xy 0.25 -1) (xy 0.5 -0.75) (xy 0.5 0.75) (xy 0.25 1) (xy -0.5 1)) (width 0)) )) (pad 1 smd custom (at 3 1.25) (size 0.823223 0.823223) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -0.5 -1) (xy 0.25 -1) (xy 0.5 -0.75) (xy 0.5 0.75) (xy 0.25 1) (xy -0.5 1)) (width 0)) )) (pad 1 smd custom (at 3 3.75) (size 0.823223 0.823223) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -0.5 -1) (xy 0.25 -1) (xy 0.5 -0.75) (xy 0.5 0.75) (xy 0.25 1) (xy -0.5 1)) (width 0)) )) (pad 1 smd custom (at 3 6.25) (size 0.823223 0.823223) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -0.5 -1) (xy 0.25 -1) (xy 0.5 -0.75) (xy 0.5 0.75) (xy 0.25 1) (xy -0.5 1)) (width 0)) )) )""" RESULT_CHAMFERED_PAD_GRID_AVOID_CIRCLE = """(module test_chamfered_grid (layer F.Cu) (tedit 0) (descr "A example footprint") (tags example) (fp_text reference REF** (at 0 0) (layer F.SilkS) (effects (font (size 1 1) (thickness 0.15))) ) (fp_text value test_chamfered_grid (at 0 0) (layer F.Fab) (effects (font (size 1 1) (thickness 0.15))) ) (fp_circle (center 2 2.5) (end 2.2 2.5) (layer F.SilkS) (width 0.01)) (pad 1 smd custom (at -1.4 -2.1) (size 0.795 0.795) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -0.5 -0.210086) (xy -0.210086 -0.5) (xy 0.5 -0.5) (xy 0.5 0.5) (xy -0.5 0.5)) (width 0)) )) (pad 1 smd rect (at -1.4 -0.7) (size 1 1) (layers F.Cu F.Mask F.Paste)) (pad 1 smd rect (at -1.4 0.7) (size 1 1) (layers F.Cu F.Mask F.Paste)) (pad 1 smd custom (at -1.4 2.1) (size 0.795 0.795) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -0.5 -0.5) (xy 0.5 -0.5) (xy 0.5 0.5) (xy -0.210086 0.5) (xy -0.5 0.210086)) (width 0)) )) (pad 1 smd rect (at 0 -2.1) (size 1 1) (layers F.Cu F.Mask F.Paste)) (pad 1 smd rect (at 0 -0.7) (size 1 1) (layers F.Cu F.Mask F.Paste)) (pad 1 smd rect (at 0 0.7) (size 1 1) (layers F.Cu F.Mask F.Paste)) (pad 1 smd rect (at 0 2.1) (size 1 1) (layers F.Cu F.Mask F.Paste)) (pad 1 smd custom (at 1.4 -2.1) (size 0.795 0.795) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -0.5 -0.5) (xy 0.210086 -0.5) (xy 0.5 -0.210086) (xy 0.5 0.5) (xy -0.5 0.5)) (width 0)) )) (pad 1 smd rect (at 1.4 -0.7) (size 1 1) (layers F.Cu F.Mask F.Paste)) (pad 1 smd rect (at 1.4 0.7) (size 1 1) (layers F.Cu F.Mask F.Paste)) (pad 1 smd custom (at 1.4 2.1) (size 0.795 0.795) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -0.5 -0.5) (xy 0.5 -0.5) (xy 0.5 0.210086) (xy 0.210086 0.5) (xy -0.5 0.5)) (width 0)) )) )""" RESULT_CHAMFERED_ROUNDED_PAD = """(module chamfered_pad (layer F.Cu) (tedit 0) (descr "A example footprint") (tags example) (fp_text reference REF** (at 0 0) (layer F.SilkS) (effects (font (size 1 1) (thickness 0.15))) ) (fp_text value chamfered_pad (at 0 0) (layer F.Fab) (effects (font (size 1 1) (thickness 0.15))) ) (pad 1 smd custom (at 0 0) (size 3.646447 3.646447) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -2 -1.5) (xy -1.5 -2) (xy 1.5 -2) (xy 2 -1.5) (xy 2 1.5) (xy 1.5 2) (xy -1.5 2) (xy -2 1.5)) (width 0)) )) (pad 1 smd roundrect (at 0 0) (size 4 4) (layers B.Cu) (roundrect_rratio 0.25)) (pad 1 smd custom (at 0 5) (size 2.292893 2.292893) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -2 -0.5) (xy -1 -1.5) (xy 1 -1.5) (xy 2 -0.5) (xy 2 0.5) (xy 1 1.5) (xy -1 1.5) (xy -2 0.5)) (width 0)) )) (pad 1 smd custom (at 0 5) (size 2.292893 2.292893) (layers B.Cu) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -1.292893 -0.207107) (xy -0.707107 -0.792893) (xy 0.707107 -0.792893) (xy 1.292893 -0.207107) (xy 1.292893 0.207107) (xy 0.707107 0.792893) (xy -0.707107 0.792893) (xy -1.292893 0.207107)) (width 1.414214)) )) (pad 1 smd custom (at 5 0) (size 2.292893 2.292893) (layers F.Cu F.Mask F.Paste) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -2 -0.5) (xy -1 -1.5) (xy 2 -1.5) (xy 2 0.5) (xy 1 1.5) (xy -2 1.5)) (width 0)) )) (pad 1 smd custom (at 5 0) (size 2.292893 2.292893) (layers B.Cu) (options (clearance outline) (anchor circle)) (primitives (gr_poly (pts (xy -1.292893 -0.207107) (xy -0.707107 -0.792893) (xy 1.292893 -0.792893) (xy 1.292893 0.207107) (xy 0.707107 0.792893) (xy -1.292893 0.792893)) (width 1.414214)) )) )""" # NOQA: E501 class Kicad5PadsTests(unittest.TestCase): def testRoundRectPad(self): kicad_mod = Footprint("round_rect_test") kicad_mod.setDescription("A example footprint") kicad_mod.setTags("example") kicad_mod.append(Text(type='reference', text='REF**', at=[0, 0], layer='F.SilkS')) kicad_mod.append(Text(type='value', text="round_rect_test", at=[0, 0], layer='F.Fab')) kicad_mod.append(Pad(number=3, type=Pad.TYPE_SMT, shape=Pad.SHAPE_ROUNDRECT, at=[5, 0], rotation=45, size=[1, 1], layers=Pad.LAYERS_SMT, radius_ratio=0.1)) kicad_mod.append(Pad(number=2, type=Pad.TYPE_SMT, shape=Pad.SHAPE_ROUNDRECT, at=[-5, 0], size=[1, 1], layers=Pad.LAYERS_SMT, radius_ratio=0.5)) kicad_mod.append(Pad(number=1, type=Pad.TYPE_SMT, shape=Pad.SHAPE_ROUNDRECT, at=[0, 0], size=[1, 1], layers=Pad.LAYERS_SMT, radius_ratio=0)) file_handler = KicadFileHandler(kicad_mod) result = file_handler.serialize(timestamp=0) # file_handler.writeFile('test.kicad_mod') self.assertEqual(result, RESULT_ROUNDRECT_FP) def testRoundRectPad2(self): kicad_mod = Footprint("round_rect_test") kicad_mod.setDescription("A example footprint") kicad_mod.setTags("example") kicad_mod.append(Text(type='reference', text='REF**', at=[0, 0], layer='F.SilkS')) kicad_mod.append(Text(type='value', text="round_rect_test", at=[0, 0], layer='F.Fab')) kicad_mod.append(Pad(number=3, type=Pad.TYPE_SMT, shape=Pad.SHAPE_ROUNDRECT, at=[5, 0], rotation=45, size=[1, 1], layers=Pad.LAYERS_SMT, radius_ratio=0.25, maximum_radius=0.25)) kicad_mod.append(Pad(number=2, type=Pad.TYPE_SMT, shape=Pad.SHAPE_ROUNDRECT, at=[-5, 0], size=[1, 2], layers=Pad.LAYERS_SMT, radius_ratio=0.25, maximum_radius=0.25)) kicad_mod.append(Pad(number=1, type=Pad.TYPE_SMT, shape=Pad.SHAPE_ROUNDRECT, at=[0, 0], size=[2, 4], layers=Pad.LAYERS_SMT, radius_ratio=0.25, maximum_radius=0.25)) file_handler = KicadFileHandler(kicad_mod) result = file_handler.serialize(timestamp=0) # file_handler.writeFile('test_max_radius.kicad_mod') self.assertEqual(result, RESULT_ROUNDRECT_FP2) def testPolygonPad(self): kicad_mod = Footprint("round_rect_test") kicad_mod.setDescription("A example footprint") kicad_mod.setTags("example") kicad_mod.append(Text(type='reference', text='REF**', at=[0, 0], layer='F.SilkS')) kicad_mod.append(Text(type='value', text="round_rect_test", at=[0, 0], layer='F.Fab')) kicad_mod.append(Pad(number=1, type=Pad.TYPE_SMT, shape=Pad.SHAPE_CUSTOM, at=[0, 0], size=[1, 1], layers=Pad.LAYERS_SMT, primitives=[Polygon(nodes=[(-1, -1), (2, -1), (1, 1), (-1, 2)])] )) file_handler = KicadFileHandler(kicad_mod) result = file_handler.serialize(timestamp=0) # file_handler.writeFile('test.kicad_mod') self.assertEqual(result, RESULT_SIMPLE_POLYGON_PAD) def testCustomPadOtherPrimitives(self): kicad_mod = Footprint("round_rect_test") kicad_mod.setDescription("A example footprint") kicad_mod.setTags("example") kicad_mod.append(Text(type='reference', text='REF**', at=[0, 0], layer='F.SilkS')) kicad_mod.append(Text(type='value', text="round_rect_test", at=[0, 0], layer='F.Fab')) kicad_mod.append( Pad(number=1, type=Pad.TYPE_SMT, shape=Pad.SHAPE_CUSTOM, at=[0, 0], size=[1, 1], layers=Pad.LAYERS_SMT, primitives=[ Arc(center=(-1, 0), start=(-1, -0.5), angle=-180, width=0.15), Line(start=(-1, -0.5), end=(1.25, -0.5), width=0.15), Line(start=(1.25, -0.5), end=(1.25, 0.5), width=0.15), Line(start=(1.25, 0.5), end=(-1, 0.5), width=0.15) ] )) kicad_mod.append( Pad(number=2, type=Pad.TYPE_SMT, shape=Pad.SHAPE_CUSTOM, at=[0, 3], size=[1, 1], layers=Pad.LAYERS_SMT, primitives=[ Arc(center=(-1, 0), start=(-1, -0.5), angle=-180, width=0.15), PolygoneLine(nodes=[(-1, -0.5), (1.25, -0.5), (1.25, 0.5), (-1, 0.5)], width=0.15) ] )) kicad_mod.append( Pad(number=3, type=Pad.TYPE_SMT, shape=Pad.SHAPE_CUSTOM, at=[0, -3], size=[1, 1], layers=Pad.LAYERS_SMT, primitives=[ Circle(center=(0.5, 0.5), radius=0.5, width=0.15) ] )) file_handler = KicadFileHandler(kicad_mod) result = file_handler.serialize(timestamp=0) # file_handler.writeFile('test.kicad_mod') self.assertEqual(result, RESULT_SIMPLE_OTHER_CUSTOM_PAD) def testCutPolygon(self): kicad_mod = Footprint("round_rect_test") kicad_mod.setDescription("A example footprint") kicad_mod.setTags("example") kicad_mod.append(Text(type='reference', text='REF**', at=[0, 0], layer='F.SilkS')) kicad_mod.append(Text(type='value', text="round_rect_test", at=[0, 0], layer='F.Fab')) p1 = Polygon(nodes=[(0, 0), (1, 0), (1, 1), (0, 1)]) p2 = Polygon(nodes=[(-2, -2), (2, -2), (2, 2), (-2, 2)]) p2.cut(p1) kicad_mod.append(Pad(number=1, type=Pad.TYPE_SMT, shape=Pad.SHAPE_CUSTOM, at=[0, 0], size=[0.5, 0.5], layers=Pad.LAYERS_SMT, primitives=[p2] )) file_handler = KicadFileHandler(kicad_mod) result = file_handler.serialize(timestamp=0) # file_handler.writeFile('test.kicad_mod') self.assertEqual(result, RESULT_CUT_POLYGON) def testChamferedPad(self): kicad_mod = Footprint("chamfered_pad") kicad_mod.setDescription("A example footprint") kicad_mod.setTags("example") kicad_mod.append(Text(type='reference', text='REF**', at=[0, 0], layer='F.SilkS')) kicad_mod.append(Text(type='value', text="chamfered_pad", at=[0, 0], layer='F.Fab')) kicad_mod.append( ChamferedPad(number=1, type=Pad.TYPE_SMT, at=[0, 0], size=[1, 1], layers=Pad.LAYERS_SMT, chamfer_size=[1/3, 1/3], corner_selection=[1, 1, 1, 1] )) kicad_mod.append( ChamferedPad(number=1, type=Pad.TYPE_SMT, at=[2, 2], size=[2.1, 3.1], layers=Pad.LAYERS_SMT, chamfer_size=[0.5, 1.05], corner_selection=[1, 1, 1, 1] )) file_handler = KicadFileHandler(kicad_mod) result = file_handler.serialize(timestamp=0) # file_handler.writeFile('test_cp.kicad_mod') self.assertEqual(result, RESULT_CHAMFERED_PAD) def testChamferedPadAvoidCircle(self): kicad_mod = Footprint("test_avoid_circle") kicad_mod.setDescription("A example footprint") kicad_mod.setTags("example") kicad_mod.append(Text(type='reference', text='REF**', at=[0, 0], layer='F.SilkS')) kicad_mod.append(Text(type='value', text="test_avoid_circle", at=[0, 0], layer='F.Fab')) pad = ChamferedPad( number=1, type=Pad.TYPE_SMT, at=[2, 2.5], size=[1.75, 2.25], layers=Pad.LAYERS_SMT, chamfer_size=[0.25, 0.25], corner_selection=[1, 1, 1, 1] ) c = [3, 3.5] d = 0.6 kicad_mod.append(Circle(center=c, radius=d/2, width=0.01)) pad.chamferAvoidCircle(center=c, diameter=d, clearance=0.005) kicad_mod.append(pad) file_handler = KicadFileHandler(kicad_mod) result = file_handler.serialize(timestamp=0) # file_handler.writeFile('test_avoid_circle.kicad_mod') self.assertEqual(result, RESULT_CHAMFERED_PAD_AVOID_CIRCLE) def testChamferedPadGrid(self): kicad_mod = Footprint("test_chamfered_grid") kicad_mod.setDescription("A example footprint") kicad_mod.setTags("example") kicad_mod.append(Text(type='reference', text='REF**', at=[0, 0], layer='F.SilkS')) kicad_mod.append(Text(type='value', text="test_chamfered_grid", at=[0, 0], layer='F.Fab')) kicad_mod.append( ChamferedPadGrid( number=1, type=Pad.TYPE_SMT, center=[1.5, 2.5], size=[1, 2], layers=Pad.LAYERS_SMT, chamfer_size=[0.25, 0.25], chamfer_selection=1, pincount=[3, 4], grid=[1.5, 2.5] )) file_handler = KicadFileHandler(kicad_mod) result = file_handler.serialize(timestamp=0) # file_handler.writeFile('test_chamfered_grid.kicad_mod') self.assertEqual(result, RESULT_CHAMFERED_PAD_GRID) def testChamferedPadGridCornerOnly(self): kicad_mod = Footprint("test_chamfered_grid") kicad_mod.setDescription("A example footprint") kicad_mod.setTags("example") kicad_mod.append(Text(type='reference', text='REF**', at=[0, 0], layer='F.SilkS')) kicad_mod.append(Text(type='value', text="test_chamfered_grid", at=[0, 0], layer='F.Fab')) chamfer_select = ChamferSelPadGrid(0) chamfer_select.setCorners() pad = ChamferedPadGrid( number=1, type=Pad.TYPE_SMT, center=[0, 0], size=[1, 1], layers=Pad.LAYERS_SMT, chamfer_size=[0.25, 0.25], chamfer_selection=chamfer_select, pincount=[3, 4], grid=[1.4, 1.4] ) c = [2.0, 2.5] d = 0.4 kicad_mod.append(Circle(center=c, radius=d/2, width=0.01)) pad.chamferAvoidCircle(center=c, diameter=d, clearance=0.005) kicad_mod.append(pad) file_handler = KicadFileHandler(kicad_mod) result = file_handler.serialize(timestamp=0) # file_handler.writeFile('test_chamfered_grid.kicad_mod') self.assertEqual(result, RESULT_CHAMFERED_PAD_GRID_AVOID_CIRCLE) def testChamferedRoundedPad(self): kicad_mod = Footprint("chamfered_pad") kicad_mod.setDescription("A example footprint") kicad_mod.setTags("example") kicad_mod.append(Text(type='reference', text='REF**', at=[0, 0], layer='F.SilkS')) kicad_mod.append(Text(type='value', text="chamfered_pad", at=[0, 0], layer='F.Fab')) kicad_mod.append( ChamferedPad(number=1, type=Pad.TYPE_SMT, at=[0, 0], size=[4, 4], layers=Pad.LAYERS_SMT, chamfer_size=[0.5, 0.5], corner_selection=[1, 1, 1, 1] )) kicad_mod.append( ChamferedPad(number=1, type=Pad.TYPE_SMT, at=[0, 0], size=[4, 4], layers=["B.Cu"], chamfer_size=[0.5, 0.5], corner_selection=[1, 1, 1, 1], radius_ratio=0.25 )) kicad_mod.append( ChamferedPad(number=1, type=Pad.TYPE_SMT, at=[0, 5], size=[4, 3], layers=Pad.LAYERS_SMT, chamfer_size=[1, 1], corner_selection=[1, 1, 1, 1] )) kicad_mod.append( ChamferedPad(number=1, type=Pad.TYPE_SMT, at=[0, 5], size=[4, 3], layers=["B.Cu"], chamfer_size=[1, 1], corner_selection=[1, 1, 1, 1], radius_ratio=0.25 )) kicad_mod.append( ChamferedPad(number=1, type=Pad.TYPE_SMT, at=[5, 0], size=[4, 3], layers=Pad.LAYERS_SMT, chamfer_size=[1, 1], corner_selection=[1, 0, 1, 0] )) kicad_mod.append( ChamferedPad(number=1, type=Pad.TYPE_SMT, at=[5, 0], size=[4, 3], layers=["B.Cu"], chamfer_size=[1, 1], corner_selection=[1, 0, 1, 0], radius_ratio=0.25 )) file_handler = KicadFileHandler(kicad_mod) result = file_handler.serialize(timestamp=0) # file_handler.writeFile('test_cp.kicad_mod') self.assertEqual(result, RESULT_CHAMFERED_ROUNDED_PAD)
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1057f1cfeeeeaf5980f0ba235f3ed7dfa0ac48cf
38
py
Python
data/__init__.py
nilesh2797/perceiver-lm
2431e7bb68fbd118273f7feb35559de47eb341a2
[ "MIT" ]
null
null
null
data/__init__.py
nilesh2797/perceiver-lm
2431e7bb68fbd118273f7feb35559de47eb341a2
[ "MIT" ]
null
null
null
data/__init__.py
nilesh2797/perceiver-lm
2431e7bb68fbd118273f7feb35559de47eb341a2
[ "MIT" ]
null
null
null
from data.mnist import MNISTDataModule
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0.894737
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38
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true
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null
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0
0
null
0
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0
0
0
1
0
1
0
1
0
0
6
107ad86525db42d105b828cdc6f1f58cdb61aab6
48
py
Python
flask_gdrive/__init__.py
Shubby98/Flask-GDrive
b6876fa224b24f4d00ff9382a46a7bc573331198
[ "MIT" ]
8
2019-10-09T19:42:56.000Z
2020-02-22T02:14:09.000Z
flask_gdrive/__init__.py
Shubby98/Flask-GDrive
b6876fa224b24f4d00ff9382a46a7bc573331198
[ "MIT" ]
9
2019-10-22T16:32:23.000Z
2019-12-26T17:57:32.000Z
flask_gdrive/__init__.py
Shubby98/Flask-GDrive
b6876fa224b24f4d00ff9382a46a7bc573331198
[ "MIT" ]
7
2019-10-22T20:29:54.000Z
2021-01-27T19:42:00.000Z
from .flask_gdrive import GDriveDB, GDriveStatic
48
48
0.875
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48
6.833333
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0.083333
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48
48
0.931818
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true
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1
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null
0
0
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0
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1
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0
0
0
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null
0
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0
0
1
0
1
0
1
0
0
6
108fa568c8c68bc0dd73a4e1b35ad8ae6c4fffd7
16
py
Python
python/20181228/Code/p3/c1.py
Realize0917/career
b5d02ac53cfc3ce3a2ca38d11480c51560283e67
[ "MIT" ]
3
2019-01-17T05:50:51.000Z
2019-03-15T10:10:07.000Z
python/20181228/Code/p3/c1.py
Realize0917/career
b5d02ac53cfc3ce3a2ca38d11480c51560283e67
[ "MIT" ]
10
2019-01-17T06:07:03.000Z
2019-02-19T05:55:25.000Z
python/20181228/Code/p3/c1.py
Realize0917/career
b5d02ac53cfc3ce3a2ca38d11480c51560283e67
[ "MIT" ]
4
2018-12-22T07:32:55.000Z
2019-03-06T09:13:48.000Z
from . import c2
16
16
0.75
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16
4
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0.076923
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16
16
0.846154
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true
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null
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0
0
1
0
1
0
1
0
0
6
52e04bbe3b8482d94899bd6269df5fecbcf95a06
88
py
Python
publichealth/home/models/__init__.py
pcoder/public-health-ch
cebc4849653560c54238b67814074353ff7c01f3
[ "MIT" ]
2
2020-10-29T16:27:21.000Z
2021-06-07T12:47:46.000Z
publichealth/home/models/__init__.py
pcoder/public-health-ch
cebc4849653560c54238b67814074353ff7c01f3
[ "MIT" ]
11
2017-05-09T10:50:28.000Z
2021-12-15T17:01:23.000Z
publichealth/home/models/__init__.py
pcoder/public-health-ch
cebc4849653560c54238b67814074353ff7c01f3
[ "MIT" ]
4
2017-04-24T13:06:55.000Z
2021-06-04T02:18:32.000Z
from .forms import * from .models import * from .snippets import * from .admin import *
17.6
23
0.727273
12
88
5.333333
0.5
0.46875
0
0
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88
4
24
22
0.888889
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true
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null
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null
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1
0
1
0
0
6
52fe4b7dc792f6d4a01c74ad7832281ff390be3b
66
py
Python
doorknob/__init__.py
escofresco/tinydoor
a8810cf7ca302bb91f5089f1ccdc37c30ec81cf6
[ "MIT" ]
4
2020-06-17T13:45:57.000Z
2020-06-25T17:10:18.000Z
doorknob/__init__.py
escofresco/tinydoor
a8810cf7ca302bb91f5089f1ccdc37c30ec81cf6
[ "MIT" ]
80
2020-06-16T18:53:42.000Z
2022-03-12T00:44:37.000Z
doorknob/__init__.py
escofresco/tinydoor
a8810cf7ca302bb91f5089f1ccdc37c30ec81cf6
[ "MIT" ]
null
null
null
from .detect import * from .foyer import * from .helpers import *
16.5
22
0.727273
9
66
5.333333
0.555556
0.416667
0
0
0
0
0
0
0
0
0
0
0.181818
66
3
23
22
0.888889
0
0
0
0
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0
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1
0
true
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1
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1
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0
null
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null
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1
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1
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1
0
0
6
5e0cb7f52572d0a94fba5847fd8189821152e621
20
py
Python
perceptual/alignment/ewert/__init__.py
LIMUNIMI/PerceptualEvaluation
6e1fcdf65ae5cb86997443607bb2050163b64720
[ "MIT" ]
6
2021-09-18T08:36:26.000Z
2022-03-25T16:37:04.000Z
perceptual/alignment/ewert/__init__.py
LIMUNIMI/PerceptualEvaluation
6e1fcdf65ae5cb86997443607bb2050163b64720
[ "MIT" ]
1
2021-08-24T11:18:25.000Z
2021-12-18T19:46:05.000Z
perceptual/alignment/ewert/__init__.py
LIMUNIMI/PerceptualEvaluation
6e1fcdf65ae5cb86997443607bb2050163b64720
[ "MIT" ]
3
2021-07-13T15:11:38.000Z
2021-11-26T07:38:00.000Z
from . import align
10
19
0.75
3
20
5
1
0
0
0
0
0
0
0
0
0
0
0
0.2
20
1
20
20
0.9375
0
0
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1
0
true
0
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1
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1
1
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null
0
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0
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0
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null
0
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0
0
0
0
1
0
1
0
1
0
0
6
eabc2d596d684adf815d34a4c8002b761aab2c78
21,923
py
Python
nova/tests/unit/api/openstack/compute/test_extended_server_attributes.py
bopopescu/nova-token
ec98f69dea7b3e2b9013b27fd55a2c1a1ac6bfb2
[ "Apache-2.0" ]
null
null
null
nova/tests/unit/api/openstack/compute/test_extended_server_attributes.py
bopopescu/nova-token
ec98f69dea7b3e2b9013b27fd55a2c1a1ac6bfb2
[ "Apache-2.0" ]
null
null
null
nova/tests/unit/api/openstack/compute/test_extended_server_attributes.py
bopopescu/nova-token
ec98f69dea7b3e2b9013b27fd55a2c1a1ac6bfb2
[ "Apache-2.0" ]
2
2017-07-20T17:31:34.000Z
2020-07-24T02:42:19.000Z
begin_unit comment|'# Copyright 2011 OpenStack Foundation' nl|'\n' comment|'# All Rights Reserved.' nl|'\n' comment|'#' nl|'\n' comment|'# Licensed under the Apache License, Version 2.0 (the "License"); you may' nl|'\n' comment|'# not use this file except in compliance with the License. You may obtain' nl|'\n' comment|'# a copy of the License at' nl|'\n' comment|'#' nl|'\n' comment|'# http://www.apache.org/licenses/LICENSE-2.0' nl|'\n' comment|'#' nl|'\n' comment|'# Unless required by applicable law or agreed to in writing, software' nl|'\n' comment|'# distributed under the License is distributed on an "AS IS" BASIS, WITHOUT' nl|'\n' comment|'# WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. See the' nl|'\n' comment|'# License for the specific language governing permissions and limitations' nl|'\n' comment|'# under the License.' nl|'\n' nl|'\n' name|'from' name|'oslo_config' name|'import' name|'cfg' newline|'\n' name|'from' name|'oslo_serialization' name|'import' name|'jsonutils' newline|'\n' name|'import' name|'webob' newline|'\n' nl|'\n' name|'from' name|'nova' op|'.' name|'api' op|'.' name|'openstack' name|'import' name|'wsgi' name|'as' name|'os_wsgi' newline|'\n' name|'from' name|'nova' name|'import' name|'compute' newline|'\n' name|'from' name|'nova' name|'import' name|'exception' newline|'\n' name|'from' name|'nova' name|'import' name|'objects' newline|'\n' name|'from' name|'nova' name|'import' name|'test' newline|'\n' name|'from' name|'nova' op|'.' name|'tests' op|'.' name|'unit' op|'.' name|'api' op|'.' name|'openstack' name|'import' name|'fakes' newline|'\n' nl|'\n' nl|'\n' DECL|variable|NAME_FMT name|'NAME_FMT' op|'=' name|'cfg' op|'.' name|'CONF' op|'.' name|'instance_name_template' newline|'\n' DECL|variable|UUID1 name|'UUID1' op|'=' string|"'00000000-0000-0000-0000-000000000001'" newline|'\n' DECL|variable|UUID2 name|'UUID2' op|'=' string|"'00000000-0000-0000-0000-000000000002'" newline|'\n' DECL|variable|UUID3 name|'UUID3' op|'=' string|"'00000000-0000-0000-0000-000000000003'" newline|'\n' DECL|variable|UUID4 name|'UUID4' op|'=' string|"'00000000-0000-0000-0000-000000000004'" newline|'\n' DECL|variable|UUID5 name|'UUID5' op|'=' string|"'00000000-0000-0000-0000-000000000005'" newline|'\n' nl|'\n' nl|'\n' DECL|function|fake_services name|'def' name|'fake_services' op|'(' name|'host' op|')' op|':' newline|'\n' indent|' ' name|'service_list' op|'=' op|'[' name|'objects' op|'.' name|'Service' op|'(' name|'id' op|'=' number|'0' op|',' name|'host' op|'=' name|'host' op|',' name|'forced_down' op|'=' name|'True' op|',' nl|'\n' name|'binary' op|'=' string|"'nova-compute'" op|')' op|']' newline|'\n' name|'return' name|'objects' op|'.' name|'ServiceList' op|'(' name|'objects' op|'=' name|'service_list' op|')' newline|'\n' nl|'\n' nl|'\n' DECL|function|fake_compute_get dedent|'' name|'def' name|'fake_compute_get' op|'(' op|'*' name|'args' op|',' op|'**' name|'kwargs' op|')' op|':' newline|'\n' indent|' ' name|'return' name|'fakes' op|'.' name|'stub_instance_obj' op|'(' nl|'\n' name|'None' op|',' number|'1' op|',' name|'uuid' op|'=' name|'UUID3' op|',' name|'host' op|'=' string|'"host-fake"' op|',' nl|'\n' name|'node' op|'=' string|'"node-fake"' op|',' nl|'\n' name|'reservation_id' op|'=' string|'"r-1"' op|',' name|'launch_index' op|'=' number|'0' op|',' nl|'\n' name|'kernel_id' op|'=' name|'UUID4' op|',' name|'ramdisk_id' op|'=' name|'UUID5' op|',' nl|'\n' name|'display_name' op|'=' string|'"hostname-1"' op|',' nl|'\n' name|'root_device_name' op|'=' string|'"/dev/vda"' op|',' nl|'\n' name|'user_data' op|'=' string|'"userdata"' op|',' nl|'\n' name|'services' op|'=' name|'fake_services' op|'(' string|'"host-fake"' op|')' op|')' newline|'\n' nl|'\n' nl|'\n' DECL|function|fake_compute_get_all dedent|'' name|'def' name|'fake_compute_get_all' op|'(' op|'*' name|'args' op|',' op|'**' name|'kwargs' op|')' op|':' newline|'\n' indent|' ' name|'inst_list' op|'=' op|'[' nl|'\n' name|'fakes' op|'.' name|'stub_instance_obj' op|'(' nl|'\n' name|'None' op|',' number|'1' op|',' name|'uuid' op|'=' name|'UUID1' op|',' name|'host' op|'=' string|'"host-1"' op|',' name|'node' op|'=' string|'"node-1"' op|',' nl|'\n' name|'reservation_id' op|'=' string|'"r-1"' op|',' name|'launch_index' op|'=' number|'0' op|',' nl|'\n' name|'kernel_id' op|'=' name|'UUID4' op|',' name|'ramdisk_id' op|'=' name|'UUID5' op|',' nl|'\n' name|'display_name' op|'=' string|'"hostname-1"' op|',' nl|'\n' name|'root_device_name' op|'=' string|'"/dev/vda"' op|',' nl|'\n' name|'user_data' op|'=' string|'"userdata"' op|',' nl|'\n' name|'services' op|'=' name|'fake_services' op|'(' string|'"host-1"' op|')' op|')' op|',' nl|'\n' name|'fakes' op|'.' name|'stub_instance_obj' op|'(' nl|'\n' name|'None' op|',' number|'2' op|',' name|'uuid' op|'=' name|'UUID2' op|',' name|'host' op|'=' string|'"host-2"' op|',' name|'node' op|'=' string|'"node-2"' op|',' nl|'\n' name|'reservation_id' op|'=' string|'"r-2"' op|',' name|'launch_index' op|'=' number|'1' op|',' nl|'\n' name|'kernel_id' op|'=' name|'UUID4' op|',' name|'ramdisk_id' op|'=' name|'UUID5' op|',' nl|'\n' name|'display_name' op|'=' string|'"hostname-2"' op|',' nl|'\n' name|'root_device_name' op|'=' string|'"/dev/vda"' op|',' nl|'\n' name|'user_data' op|'=' string|'"userdata"' op|',' nl|'\n' name|'services' op|'=' name|'fake_services' op|'(' string|'"host-2"' op|')' op|')' op|',' nl|'\n' op|']' newline|'\n' name|'return' name|'objects' op|'.' name|'InstanceList' op|'(' name|'objects' op|'=' name|'inst_list' op|')' newline|'\n' nl|'\n' nl|'\n' DECL|class|ExtendedServerAttributesTestV21 dedent|'' name|'class' name|'ExtendedServerAttributesTestV21' op|'(' name|'test' op|'.' name|'TestCase' op|')' op|':' newline|'\n' DECL|variable|content_type indent|' ' name|'content_type' op|'=' string|"'application/json'" newline|'\n' DECL|variable|prefix name|'prefix' op|'=' string|"'OS-EXT-SRV-ATTR:'" newline|'\n' DECL|variable|fake_url name|'fake_url' op|'=' string|"'/v2/fake'" newline|'\n' DECL|variable|wsgi_api_version name|'wsgi_api_version' op|'=' name|'os_wsgi' op|'.' name|'DEFAULT_API_VERSION' newline|'\n' nl|'\n' DECL|member|setUp name|'def' name|'setUp' op|'(' name|'self' op|')' op|':' newline|'\n' indent|' ' name|'super' op|'(' name|'ExtendedServerAttributesTestV21' op|',' name|'self' op|')' op|'.' name|'setUp' op|'(' op|')' newline|'\n' name|'fakes' op|'.' name|'stub_out_nw_api' op|'(' name|'self' op|')' newline|'\n' name|'self' op|'.' name|'stubs' op|'.' name|'Set' op|'(' name|'compute' op|'.' name|'api' op|'.' name|'API' op|',' string|"'get'" op|',' name|'fake_compute_get' op|')' newline|'\n' name|'self' op|'.' name|'stubs' op|'.' name|'Set' op|'(' name|'compute' op|'.' name|'api' op|'.' name|'API' op|',' string|"'get_all'" op|',' name|'fake_compute_get_all' op|')' newline|'\n' name|'self' op|'.' name|'stub_out' op|'(' string|"'nova.db.instance_get_by_uuid'" op|',' name|'fake_compute_get' op|')' newline|'\n' nl|'\n' DECL|member|_make_request dedent|'' name|'def' name|'_make_request' op|'(' name|'self' op|',' name|'url' op|')' op|':' newline|'\n' indent|' ' name|'req' op|'=' name|'fakes' op|'.' name|'HTTPRequest' op|'.' name|'blank' op|'(' name|'url' op|')' newline|'\n' name|'req' op|'.' name|'headers' op|'[' string|"'Accept'" op|']' op|'=' name|'self' op|'.' name|'content_type' newline|'\n' name|'req' op|'.' name|'headers' op|'=' op|'{' name|'os_wsgi' op|'.' name|'API_VERSION_REQUEST_HEADER' op|':' nl|'\n' name|'self' op|'.' name|'wsgi_api_version' op|'}' newline|'\n' name|'res' op|'=' name|'req' op|'.' name|'get_response' op|'(' nl|'\n' name|'fakes' op|'.' name|'wsgi_app_v21' op|'(' name|'init_only' op|'=' op|'(' string|"'servers'" op|',' nl|'\n' string|"'os-extended-server-attributes'" op|')' op|')' op|')' newline|'\n' name|'return' name|'res' newline|'\n' nl|'\n' DECL|member|_get_server dedent|'' name|'def' name|'_get_server' op|'(' name|'self' op|',' name|'body' op|')' op|':' newline|'\n' indent|' ' name|'return' name|'jsonutils' op|'.' name|'loads' op|'(' name|'body' op|')' op|'.' name|'get' op|'(' string|"'server'" op|')' newline|'\n' nl|'\n' DECL|member|_get_servers dedent|'' name|'def' name|'_get_servers' op|'(' name|'self' op|',' name|'body' op|')' op|':' newline|'\n' indent|' ' name|'return' name|'jsonutils' op|'.' name|'loads' op|'(' name|'body' op|')' op|'.' name|'get' op|'(' string|"'servers'" op|')' newline|'\n' nl|'\n' DECL|member|assertServerAttributes dedent|'' name|'def' name|'assertServerAttributes' op|'(' name|'self' op|',' name|'server' op|',' name|'host' op|',' name|'node' op|',' name|'instance_name' op|')' op|':' newline|'\n' indent|' ' name|'self' op|'.' name|'assertEqual' op|'(' name|'server' op|'.' name|'get' op|'(' string|"'%shost'" op|'%' name|'self' op|'.' name|'prefix' op|')' op|',' name|'host' op|')' newline|'\n' name|'self' op|'.' name|'assertEqual' op|'(' name|'server' op|'.' name|'get' op|'(' string|"'%sinstance_name'" op|'%' name|'self' op|'.' name|'prefix' op|')' op|',' nl|'\n' name|'instance_name' op|')' newline|'\n' name|'self' op|'.' name|'assertEqual' op|'(' name|'server' op|'.' name|'get' op|'(' string|"'%shypervisor_hostname'" op|'%' name|'self' op|'.' name|'prefix' op|')' op|',' nl|'\n' name|'node' op|')' newline|'\n' nl|'\n' DECL|member|test_show dedent|'' name|'def' name|'test_show' op|'(' name|'self' op|')' op|':' newline|'\n' indent|' ' name|'url' op|'=' name|'self' op|'.' name|'fake_url' op|'+' string|"'/servers/%s'" op|'%' name|'UUID3' newline|'\n' name|'res' op|'=' name|'self' op|'.' name|'_make_request' op|'(' name|'url' op|')' newline|'\n' nl|'\n' name|'self' op|'.' name|'assertEqual' op|'(' name|'res' op|'.' name|'status_int' op|',' number|'200' op|')' newline|'\n' name|'self' op|'.' name|'assertServerAttributes' op|'(' name|'self' op|'.' name|'_get_server' op|'(' name|'res' op|'.' name|'body' op|')' op|',' nl|'\n' name|'host' op|'=' string|"'host-fake'" op|',' nl|'\n' name|'node' op|'=' string|"'node-fake'" op|',' nl|'\n' name|'instance_name' op|'=' name|'NAME_FMT' op|'%' number|'1' op|')' newline|'\n' nl|'\n' DECL|member|test_detail dedent|'' name|'def' name|'test_detail' op|'(' name|'self' op|')' op|':' newline|'\n' indent|' ' name|'url' op|'=' name|'self' op|'.' name|'fake_url' op|'+' string|"'/servers/detail'" newline|'\n' name|'res' op|'=' name|'self' op|'.' name|'_make_request' op|'(' name|'url' op|')' newline|'\n' nl|'\n' name|'self' op|'.' name|'assertEqual' op|'(' name|'res' op|'.' name|'status_int' op|',' number|'200' op|')' newline|'\n' name|'for' name|'i' op|',' name|'server' name|'in' name|'enumerate' op|'(' name|'self' op|'.' name|'_get_servers' op|'(' name|'res' op|'.' name|'body' op|')' op|')' op|':' newline|'\n' indent|' ' name|'self' op|'.' name|'assertServerAttributes' op|'(' name|'server' op|',' nl|'\n' name|'host' op|'=' string|"'host-%s'" op|'%' op|'(' name|'i' op|'+' number|'1' op|')' op|',' nl|'\n' name|'node' op|'=' string|"'node-%s'" op|'%' op|'(' name|'i' op|'+' number|'1' op|')' op|',' nl|'\n' name|'instance_name' op|'=' name|'NAME_FMT' op|'%' op|'(' name|'i' op|'+' number|'1' op|')' op|')' newline|'\n' nl|'\n' DECL|member|test_no_instance_passthrough_404 dedent|'' dedent|'' name|'def' name|'test_no_instance_passthrough_404' op|'(' name|'self' op|')' op|':' newline|'\n' nl|'\n' DECL|function|fake_compute_get indent|' ' name|'def' name|'fake_compute_get' op|'(' op|'*' name|'args' op|',' op|'**' name|'kwargs' op|')' op|':' newline|'\n' indent|' ' name|'raise' name|'exception' op|'.' name|'InstanceNotFound' op|'(' name|'instance_id' op|'=' string|"'fake'" op|')' newline|'\n' nl|'\n' dedent|'' name|'self' op|'.' name|'stubs' op|'.' name|'Set' op|'(' name|'compute' op|'.' name|'api' op|'.' name|'API' op|',' string|"'get'" op|',' name|'fake_compute_get' op|')' newline|'\n' name|'url' op|'=' name|'self' op|'.' name|'fake_url' op|'+' string|"'/servers/70f6db34-de8d-4fbd-aafb-4065bdfa6115'" newline|'\n' name|'res' op|'=' name|'self' op|'.' name|'_make_request' op|'(' name|'url' op|')' newline|'\n' nl|'\n' name|'self' op|'.' name|'assertEqual' op|'(' name|'res' op|'.' name|'status_int' op|',' number|'404' op|')' newline|'\n' nl|'\n' nl|'\n' DECL|class|ExtendedServerAttributesTestV2 dedent|'' dedent|'' name|'class' name|'ExtendedServerAttributesTestV2' op|'(' name|'ExtendedServerAttributesTestV21' op|')' op|':' newline|'\n' nl|'\n' DECL|member|setUp indent|' ' name|'def' name|'setUp' op|'(' name|'self' op|')' op|':' newline|'\n' indent|' ' name|'super' op|'(' name|'ExtendedServerAttributesTestV2' op|',' name|'self' op|')' op|'.' name|'setUp' op|'(' op|')' newline|'\n' name|'self' op|'.' name|'flags' op|'(' nl|'\n' name|'osapi_compute_extension' op|'=' op|'[' nl|'\n' string|"'nova.api.openstack.compute.contrib.select_extensions'" op|']' op|',' nl|'\n' name|'osapi_compute_ext_list' op|'=' op|'[' string|"'Extended_server_attributes'" op|']' op|')' newline|'\n' nl|'\n' DECL|member|_make_request dedent|'' name|'def' name|'_make_request' op|'(' name|'self' op|',' name|'url' op|')' op|':' newline|'\n' indent|' ' name|'req' op|'=' name|'webob' op|'.' name|'Request' op|'.' name|'blank' op|'(' name|'url' op|')' newline|'\n' name|'req' op|'.' name|'headers' op|'[' string|"'Accept'" op|']' op|'=' name|'self' op|'.' name|'content_type' newline|'\n' name|'res' op|'=' name|'req' op|'.' name|'get_response' op|'(' name|'fakes' op|'.' name|'wsgi_app' op|'(' name|'init_only' op|'=' op|'(' string|"'servers'" op|',' op|')' op|')' op|')' newline|'\n' name|'return' name|'res' newline|'\n' nl|'\n' nl|'\n' DECL|class|ExtendedServerAttributesTestV23 dedent|'' dedent|'' name|'class' name|'ExtendedServerAttributesTestV23' op|'(' name|'ExtendedServerAttributesTestV21' op|')' op|':' newline|'\n' DECL|variable|wsgi_api_version indent|' ' name|'wsgi_api_version' op|'=' string|"'2.3'" newline|'\n' nl|'\n' DECL|member|assertServerAttributes name|'def' name|'assertServerAttributes' op|'(' name|'self' op|',' name|'server' op|',' name|'host' op|',' name|'node' op|',' name|'instance_name' op|',' nl|'\n' name|'reservation_id' op|',' name|'launch_index' op|',' name|'kernel_id' op|',' nl|'\n' name|'ramdisk_id' op|',' name|'hostname' op|',' name|'root_device_name' op|',' nl|'\n' name|'user_data' op|')' op|':' newline|'\n' indent|' ' name|'super' op|'(' name|'ExtendedServerAttributesTestV23' op|',' name|'self' op|')' op|'.' name|'assertServerAttributes' op|'(' nl|'\n' name|'server' op|',' name|'host' op|',' name|'node' op|',' name|'instance_name' op|')' newline|'\n' name|'self' op|'.' name|'assertEqual' op|'(' name|'server' op|'.' name|'get' op|'(' string|"'%sreservation_id'" op|'%' name|'self' op|'.' name|'prefix' op|')' op|',' nl|'\n' name|'reservation_id' op|')' newline|'\n' name|'self' op|'.' name|'assertEqual' op|'(' name|'server' op|'.' name|'get' op|'(' string|"'%slaunch_index'" op|'%' name|'self' op|'.' name|'prefix' op|')' op|',' nl|'\n' name|'launch_index' op|')' newline|'\n' name|'self' op|'.' name|'assertEqual' op|'(' name|'server' op|'.' name|'get' op|'(' string|"'%skernel_id'" op|'%' name|'self' op|'.' name|'prefix' op|')' op|',' nl|'\n' name|'kernel_id' op|')' newline|'\n' name|'self' op|'.' name|'assertEqual' op|'(' name|'server' op|'.' name|'get' op|'(' string|"'%sramdisk_id'" op|'%' name|'self' op|'.' name|'prefix' op|')' op|',' nl|'\n' name|'ramdisk_id' op|')' newline|'\n' name|'self' op|'.' name|'assertEqual' op|'(' name|'server' op|'.' name|'get' op|'(' string|"'%shostname'" op|'%' name|'self' op|'.' name|'prefix' op|')' op|',' nl|'\n' name|'hostname' op|')' newline|'\n' name|'self' op|'.' name|'assertEqual' op|'(' name|'server' op|'.' name|'get' op|'(' string|"'%sroot_device_name'" op|'%' name|'self' op|'.' name|'prefix' op|')' op|',' nl|'\n' name|'root_device_name' op|')' newline|'\n' name|'self' op|'.' name|'assertEqual' op|'(' name|'server' op|'.' name|'get' op|'(' string|"'%suser_data'" op|'%' name|'self' op|'.' name|'prefix' op|')' op|',' nl|'\n' name|'user_data' op|')' newline|'\n' nl|'\n' DECL|member|test_show dedent|'' name|'def' name|'test_show' op|'(' name|'self' op|')' op|':' newline|'\n' indent|' ' name|'url' op|'=' name|'self' op|'.' name|'fake_url' op|'+' string|"'/servers/%s'" op|'%' name|'UUID3' newline|'\n' name|'res' op|'=' name|'self' op|'.' name|'_make_request' op|'(' name|'url' op|')' newline|'\n' nl|'\n' name|'self' op|'.' name|'assertEqual' op|'(' name|'res' op|'.' name|'status_int' op|',' number|'200' op|')' newline|'\n' name|'self' op|'.' name|'assertServerAttributes' op|'(' name|'self' op|'.' name|'_get_server' op|'(' name|'res' op|'.' name|'body' op|')' op|',' nl|'\n' name|'host' op|'=' string|"'host-fake'" op|',' nl|'\n' name|'node' op|'=' string|"'node-fake'" op|',' nl|'\n' name|'instance_name' op|'=' name|'NAME_FMT' op|'%' number|'1' op|',' nl|'\n' name|'reservation_id' op|'=' string|'"r-1"' op|',' nl|'\n' name|'launch_index' op|'=' number|'0' op|',' nl|'\n' name|'kernel_id' op|'=' name|'UUID4' op|',' nl|'\n' name|'ramdisk_id' op|'=' name|'UUID5' op|',' nl|'\n' name|'hostname' op|'=' string|'"hostname-1"' op|',' nl|'\n' name|'root_device_name' op|'=' string|'"/dev/vda"' op|',' nl|'\n' name|'user_data' op|'=' string|'"userdata"' op|')' newline|'\n' nl|'\n' DECL|member|test_detail dedent|'' name|'def' name|'test_detail' op|'(' name|'self' op|')' op|':' newline|'\n' indent|' ' name|'url' op|'=' name|'self' op|'.' name|'fake_url' op|'+' string|"'/servers/detail'" newline|'\n' name|'res' op|'=' name|'self' op|'.' name|'_make_request' op|'(' name|'url' op|')' newline|'\n' nl|'\n' name|'self' op|'.' name|'assertEqual' op|'(' name|'res' op|'.' name|'status_int' op|',' number|'200' op|')' newline|'\n' name|'for' name|'i' op|',' name|'server' name|'in' name|'enumerate' op|'(' name|'self' op|'.' name|'_get_servers' op|'(' name|'res' op|'.' name|'body' op|')' op|')' op|':' newline|'\n' indent|' ' name|'self' op|'.' name|'assertServerAttributes' op|'(' name|'server' op|',' nl|'\n' name|'host' op|'=' string|"'host-%s'" op|'%' op|'(' name|'i' op|'+' number|'1' op|')' op|',' nl|'\n' name|'node' op|'=' string|"'node-%s'" op|'%' op|'(' name|'i' op|'+' number|'1' op|')' op|',' nl|'\n' name|'instance_name' op|'=' name|'NAME_FMT' op|'%' op|'(' name|'i' op|'+' number|'1' op|')' op|',' nl|'\n' name|'reservation_id' op|'=' string|'"r-%s"' op|'%' op|'(' name|'i' op|'+' number|'1' op|')' op|',' nl|'\n' name|'launch_index' op|'=' name|'i' op|',' nl|'\n' name|'kernel_id' op|'=' name|'UUID4' op|',' nl|'\n' name|'ramdisk_id' op|'=' name|'UUID5' op|',' nl|'\n' name|'hostname' op|'=' string|'"hostname-%s"' op|'%' op|'(' name|'i' op|'+' number|'1' op|')' op|',' nl|'\n' name|'root_device_name' op|'=' string|'"/dev/vda"' op|',' nl|'\n' name|'user_data' op|'=' string|'"userdata"' op|')' newline|'\n' nl|'\n' nl|'\n' DECL|class|ExtendedServerAttributesTestV216 dedent|'' dedent|'' dedent|'' name|'class' name|'ExtendedServerAttributesTestV216' op|'(' name|'ExtendedServerAttributesTestV21' op|')' op|':' newline|'\n' DECL|variable|wsgi_api_version indent|' ' name|'wsgi_api_version' op|'=' string|"'2.16'" newline|'\n' nl|'\n' DECL|member|assertServerAttributes name|'def' name|'assertServerAttributes' op|'(' name|'self' op|',' name|'server' op|',' name|'host' op|',' name|'node' op|',' name|'instance_name' op|',' nl|'\n' name|'host_status' op|')' op|':' newline|'\n' indent|' ' name|'super' op|'(' name|'ExtendedServerAttributesTestV216' op|',' name|'self' op|')' op|'.' name|'assertServerAttributes' op|'(' nl|'\n' name|'server' op|',' name|'host' op|',' name|'node' op|',' name|'instance_name' op|')' newline|'\n' name|'self' op|'.' name|'assertEqual' op|'(' name|'server' op|'.' name|'get' op|'(' string|"'host_status'" op|')' op|',' name|'host_status' op|')' newline|'\n' nl|'\n' DECL|member|test_show dedent|'' name|'def' name|'test_show' op|'(' name|'self' op|')' op|':' newline|'\n' indent|' ' name|'url' op|'=' name|'self' op|'.' name|'fake_url' op|'+' string|"'/servers/%s'" op|'%' name|'UUID3' newline|'\n' name|'res' op|'=' name|'self' op|'.' name|'_make_request' op|'(' name|'url' op|')' newline|'\n' nl|'\n' name|'self' op|'.' name|'assertEqual' op|'(' name|'res' op|'.' name|'status_int' op|',' number|'200' op|')' newline|'\n' name|'self' op|'.' name|'assertServerAttributes' op|'(' name|'self' op|'.' name|'_get_server' op|'(' name|'res' op|'.' name|'body' op|')' op|',' nl|'\n' name|'host' op|'=' string|"'host-fake'" op|',' nl|'\n' name|'node' op|'=' string|"'node-fake'" op|',' nl|'\n' name|'instance_name' op|'=' name|'NAME_FMT' op|'%' number|'1' op|',' nl|'\n' name|'host_status' op|'=' string|'"DOWN"' op|')' newline|'\n' nl|'\n' DECL|member|test_detail dedent|'' name|'def' name|'test_detail' op|'(' name|'self' op|')' op|':' newline|'\n' indent|' ' name|'url' op|'=' name|'self' op|'.' name|'fake_url' op|'+' string|"'/servers/detail'" newline|'\n' name|'res' op|'=' name|'self' op|'.' name|'_make_request' op|'(' name|'url' op|')' newline|'\n' nl|'\n' name|'self' op|'.' name|'assertEqual' op|'(' name|'res' op|'.' name|'status_int' op|',' number|'200' op|')' newline|'\n' name|'for' name|'i' op|',' name|'server' name|'in' name|'enumerate' op|'(' name|'self' op|'.' name|'_get_servers' op|'(' name|'res' op|'.' name|'body' op|')' op|')' op|':' newline|'\n' indent|' ' name|'self' op|'.' name|'assertServerAttributes' op|'(' name|'server' op|',' nl|'\n' name|'host' op|'=' string|"'host-%s'" op|'%' op|'(' name|'i' op|'+' number|'1' op|')' op|',' nl|'\n' name|'node' op|'=' string|"'node-%s'" op|'%' op|'(' name|'i' op|'+' number|'1' op|')' op|',' nl|'\n' name|'instance_name' op|'=' name|'NAME_FMT' op|'%' op|'(' name|'i' op|'+' number|'1' op|')' op|',' nl|'\n' name|'host_status' op|'=' string|'"DOWN"' op|')' newline|'\n' dedent|'' dedent|'' dedent|'' endmarker|'' end_unit
12.125553
88
0.597774
3,269
21,923
3.929642
0.073417
0.163008
0.047408
0.054647
0.817998
0.780165
0.733147
0.699284
0.681924
0.634205
0
0.015661
0.097067
21,923
1,807
89
12.132263
0.633291
0
0
0.942446
0
0
0.353328
0.050677
0
0
0
0
0.017709
0
null
null
0.001107
0.004981
null
null
0
0
0
0
null
0
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1
1
1
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0
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0
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null
0
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1
0
0
0
0
0
0
0
0
6
eac05de33ce6171f7a6b4c2473c0c4605f5814d7
134
py
Python
semiconductor_photophysics/old/_semiconductor.py
wright-group/semiconductor-photophysics
e4c03aace7828a9b69b77dcc7a4fdd1de3f3fc20
[ "MIT" ]
null
null
null
semiconductor_photophysics/old/_semiconductor.py
wright-group/semiconductor-photophysics
e4c03aace7828a9b69b77dcc7a4fdd1de3f3fc20
[ "MIT" ]
null
null
null
semiconductor_photophysics/old/_semiconductor.py
wright-group/semiconductor-photophysics
e4c03aace7828a9b69b77dcc7a4fdd1de3f3fc20
[ "MIT" ]
null
null
null
""" """ import numpy as np def beta_mu(): """ pg. 96, eq. 6.37 of Haug and Koch eq. 14 of 10.1063/1.340957 """
12.181818
38
0.492537
23
134
2.826087
0.913043
0
0
0
0
0
0
0
0
0
0
0.224719
0.335821
134
11
39
12.181818
0.505618
0.455224
0
0
0
0
0
0
0
0
0
0
0
1
0.5
true
0
0.5
0
1
0
1
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0
null
0
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0
0
0
0
0
0
0
1
0
0
0
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0
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0
0
0
0
0
0
0
null
0
0
0
0
0
1
1
0
1
0
1
0
0
6
d800a109eaaaa7b619651dfd9eb4c99865844e37
32
py
Python
obliquestrategies/__init__.py
FdelMazo/obliquestrategies
f2db3ef378c642b2cecd55945c68c03ab9cc4d9a
[ "MIT" ]
3
2019-01-09T02:04:16.000Z
2021-03-02T07:05:51.000Z
obliquestrategies/__init__.py
FdelMazo/obliquestrategies
f2db3ef378c642b2cecd55945c68c03ab9cc4d9a
[ "MIT" ]
null
null
null
obliquestrategies/__init__.py
FdelMazo/obliquestrategies
f2db3ef378c642b2cecd55945c68c03ab9cc4d9a
[ "MIT" ]
null
null
null
from .obliquestrategies import *
32
32
0.84375
3
32
9
1
0
0
0
0
0
0
0
0
0
0
0
0.09375
32
1
32
32
0.931034
0
0
0
0
0
0
0
0
0
0
0
0
1
0
true
0
1
0
1
0
1
1
0
null
0
0
0
0
0
0
0
0
0
0
0
0
0
1
0
0
0
0
0
0
0
0
0
0
null
0
0
0
0
0
0
1
0
1
0
1
0
0
6
dc33488317528d08ed53ed4e99476b80f3f60b4c
117
py
Python
hong/__init__.py
SherylHYX/Ro-SOS-Metric-Expression-Network-MEnet-for-Robust-Salient-Object-Segmentation
d774372e474161aae4dd26a033ae3858ed7255cf
[ "MIT" ]
2
2021-12-21T03:20:28.000Z
2022-02-08T12:35:34.000Z
hong/__init__.py
SherylHYX/Ro-SOS-Metric-Expression-Network-MEnet-for-Robust-Salient-Object-Segmentation
d774372e474161aae4dd26a033ae3858ed7255cf
[ "MIT" ]
null
null
null
hong/__init__.py
SherylHYX/Ro-SOS-Metric-Expression-Network-MEnet-for-Robust-Salient-Object-Segmentation
d774372e474161aae4dd26a033ae3858ed7255cf
[ "MIT" ]
null
null
null
from hong.data1 import InputLayer from hong.resize import ResizeToSameSize from hong.pyloss import EuclideanLossLayer
39
42
0.880342
15
117
6.866667
0.6
0.23301
0
0
0
0
0
0
0
0
0
0.009434
0.094017
117
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py
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src/models/__init__.py
behavioral-data/multiverse
82b7265de0aa3e9d229ce9f3f86b8b48435ca365
[ "MIT" ]
null
null
null
src/models/__init__.py
behavioral-data/multiverse
82b7265de0aa3e9d229ce9f3f86b8b48435ca365
[ "MIT" ]
null
null
null
src/models/__init__.py
behavioral-data/multiverse
82b7265de0aa3e9d229ce9f3f86b8b48435ca365
[ "MIT" ]
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2021-08-19T15:21:50.000Z
2021-08-19T15:21:50.000Z
from .CORAL_BART import *
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py
Python
tests/test_version.py
fabaff/hrepr
f6de915f1d34c47ceab11f5f70e433a30e6de174
[ "MIT" ]
null
null
null
tests/test_version.py
fabaff/hrepr
f6de915f1d34c47ceab11f5f70e433a30e6de174
[ "MIT" ]
null
null
null
tests/test_version.py
fabaff/hrepr
f6de915f1d34c47ceab11f5f70e433a30e6de174
[ "MIT" ]
null
null
null
def test_version(): from hrepr.version import version assert isinstance(version, str) and len(version.split(".")) == 3
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py
Python
db/data/2008/11/get_gzs.py
nataliemcmullen/WikiMiney
562177a74179cb28469604f4fb9d021cebeed0a6
[ "MIT" ]
1
2020-11-18T19:20:58.000Z
2020-11-18T19:20:58.000Z
db/data/2008/11/get_gzs.py
nataliemcmullen/WikiMiney
562177a74179cb28469604f4fb9d021cebeed0a6
[ "MIT" ]
null
null
null
db/data/2008/11/get_gzs.py
nataliemcmullen/WikiMiney
562177a74179cb28469604f4fb9d021cebeed0a6
[ "MIT" ]
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null
null
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"pagecounts-20081129-180000.gz", "pagecounts-20081129-190001.gz", "pagecounts-20081129-200000.gz", "pagecounts-20081129-210000.gz", "pagecounts-20081129-220000.gz", "pagecounts-20081129-230000.gz", "pagecounts-20081130-000000.gz", "pagecounts-20081130-010000.gz", "pagecounts-20081130-020001.gz", "pagecounts-20081130-030000.gz", "pagecounts-20081130-040000.gz", "pagecounts-20081130-050000.gz", "pagecounts-20081130-060000.gz", "pagecounts-20081130-070001.gz", "pagecounts-20081130-080000.gz", "pagecounts-20081130-090000.gz", "pagecounts-20081130-100000.gz", "pagecounts-20081130-110000.gz", "pagecounts-20081130-120000.gz", "pagecounts-20081130-130001.gz", "pagecounts-20081130-140000.gz", "pagecounts-20081130-150000.gz", "pagecounts-20081130-160000.gz", "pagecounts-20081130-170000.gz", "pagecounts-20081130-180000.gz", "pagecounts-20081130-190001.gz", "pagecounts-20081130-200000.gz", "pagecounts-20081130-210000.gz", "pagecounts-20081130-220000.gz", "pagecounts-20081130-230000.gz", ] import os base = "http://dumps.wikimedia.org/other/pagecounts-raw/" tail = "2008/2008-11/" i = 0 for url in urls: i = i + 1 one = "en-" + url[:-3] two = url[:-3] three = url if not (os.path.isfile(one) or os.path.isfile(two) or os.path.isfile(three)): #os.system("curl --silent -O %s >> /dev/null" % (base + tail + url)) os.system("curl -O %s" % (base + tail + url)) print "%d completeted of %d total. %d remaining" % (i, len(urls), len(urls) - i)
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py
Python
ocrsite/ocrlab/migrations/0001_initial.py
mikesname/python-ocrlab
435cc2548b38d92f8ffdc4bee8845f5a58d655ce
[ "MIT" ]
4
2016-01-04T09:36:05.000Z
2020-10-18T01:33:39.000Z
ocrsite/ocrlab/migrations/0001_initial.py
mikesname/python-ocrlab
435cc2548b38d92f8ffdc4bee8845f5a58d655ce
[ "MIT" ]
null
null
null
ocrsite/ocrlab/migrations/0001_initial.py
mikesname/python-ocrlab
435cc2548b38d92f8ffdc4bee8845f5a58d655ce
[ "MIT" ]
3
2017-05-04T08:46:45.000Z
2021-10-06T19:25:11.000Z
# encoding: utf-8 import datetime from south.db import db from south.v2 import SchemaMigration from django.db import models class Migration(SchemaMigration): def forwards(self, orm): # Adding model 'Preset' db.create_table('ocrlab_preset', ( ('id', self.gf('django.db.models.fields.AutoField')(primary_key=True)), ('created_on', self.gf('django.db.models.fields.DateField')()), ('updated_on', self.gf('django.db.models.fields.DateField')(null=True, blank=True)), ('name', self.gf('django.db.models.fields.CharField')(unique=True, max_length=100)), ('slug', self.gf('autoslug.fields.AutoSlugField')(unique=True, max_length=50, populate_from=None, unique_with=(), db_index=True)), ('description', self.gf('django.db.models.fields.TextField')(blank=True)), ('public', self.gf('django.db.models.fields.BooleanField')(default=True)), ('data', self.gf('ocrlab.models.jsonfield.JSONTextField')(name='data')), ('profile', self.gf('django.db.models.fields.related.ForeignKey')(blank=True, related_name='presets', null=True, to=orm['ocrlab.Profile'])), )) db.send_create_signal('ocrlab', ['Preset']) # Adding model 'Profile' db.create_table('ocrlab_profile', ( ('id', self.gf('django.db.models.fields.AutoField')(primary_key=True)), ('created_on', self.gf('django.db.models.fields.DateField')()), ('updated_on', self.gf('django.db.models.fields.DateField')(null=True, blank=True)), ('name', self.gf('django.db.models.fields.CharField')(unique=True, max_length=100)), ('slug', self.gf('autoslug.fields.AutoSlugField')(unique=True, max_length=50, populate_from=None, unique_with=(), db_index=True)), ('description', self.gf('django.db.models.fields.TextField')(blank=True)), ('data', self.gf('ocrlab.models.jsonfield.JSONTextField')(name='data')), )) db.send_create_signal('ocrlab', ['Profile']) # Adding model 'HelperFileApp' db.create_table('ocrlab_helperfileapp', ( ('id', self.gf('django.db.models.fields.AutoField')(primary_key=True)), ('name', self.gf('django.db.models.fields.CharField')(unique=True, max_length=100)), ('slug', self.gf('autoslug.fields.AutoSlugField')(unique=True, max_length=50, populate_from=None, unique_with=(), db_index=True)), ('description', self.gf('django.db.models.fields.TextField')(blank=True)), )) db.send_create_signal('ocrlab', ['HelperFileApp']) # Adding model 'HelperFileType' db.create_table('ocrlab_helperfiletype', ( ('id', self.gf('django.db.models.fields.AutoField')(primary_key=True)), ('name', self.gf('django.db.models.fields.CharField')(unique=True, max_length=100)), ('slug', self.gf('autoslug.fields.AutoSlugField')(unique=True, max_length=50, populate_from=None, unique_with=(), db_index=True)), ('description', self.gf('django.db.models.fields.TextField')(blank=True)), )) db.send_create_signal('ocrlab', ['HelperFileType']) # Adding model 'HelperFile' db.create_table('ocrlab_helperfile', ( ('id', self.gf('django.db.models.fields.AutoField')(primary_key=True)), ('created_on', self.gf('django.db.models.fields.DateField')()), ('updated_on', self.gf('django.db.models.fields.DateField')(null=True, blank=True)), ('name', self.gf('django.db.models.fields.CharField')(unique=True, max_length=100)), ('slug', self.gf('autoslug.fields.AutoSlugField')(unique=True, max_length=50, populate_from=None, unique_with=(), db_index=True)), ('description', self.gf('django.db.models.fields.TextField')(blank=True)), ('file', self.gf('django.db.models.fields.files.FileField')(max_length=100)), ('type', self.gf('django.db.models.fields.related.ForeignKey')(to=orm['ocrlab.HelperFileType'])), ('app', self.gf('django.db.models.fields.related.ForeignKey')(to=orm['ocrlab.HelperFileApp'])), )) db.send_create_signal('ocrlab', ['HelperFile']) def backwards(self, orm): # Deleting model 'Preset' db.delete_table('ocrlab_preset') # Deleting model 'Profile' db.delete_table('ocrlab_profile') # Deleting model 'HelperFileApp' db.delete_table('ocrlab_helperfileapp') # Deleting model 'HelperFileType' db.delete_table('ocrlab_helperfiletype') # Deleting model 'HelperFile' db.delete_table('ocrlab_helperfile') models = { 'contenttypes.contenttype': { 'Meta': {'ordering': "('name',)", 'unique_together': "(('app_label', 'model'),)", 'object_name': 'ContentType', 'db_table': "'django_content_type'"}, 'app_label': ('django.db.models.fields.CharField', [], {'max_length': '100'}), 'id': ('django.db.models.fields.AutoField', [], {'primary_key': 'True'}), 'model': ('django.db.models.fields.CharField', [], {'max_length': '100'}), 'name': ('django.db.models.fields.CharField', [], {'max_length': '100'}) }, 'ocrlab.helperfile': { 'Meta': {'object_name': 'HelperFile'}, 'app': ('django.db.models.fields.related.ForeignKey', [], {'to': "orm['ocrlab.HelperFileApp']"}), 'created_on': ('django.db.models.fields.DateField', [], {}), 'description': ('django.db.models.fields.TextField', [], {'blank': 'True'}), 'file': ('django.db.models.fields.files.FileField', [], {'max_length': '100'}), 'id': ('django.db.models.fields.AutoField', [], {'primary_key': 'True'}), 'name': ('django.db.models.fields.CharField', [], {'unique': 'True', 'max_length': '100'}), 'slug': ('autoslug.fields.AutoSlugField', [], {'unique': 'True', 'max_length': '50', 'populate_from': 'None', 'unique_with': '()', 'db_index': 'True'}), 'type': ('django.db.models.fields.related.ForeignKey', [], {'to': "orm['ocrlab.HelperFileType']"}), 'updated_on': ('django.db.models.fields.DateField', [], {'null': 'True', 'blank': 'True'}) }, 'ocrlab.helperfileapp': { 'Meta': {'object_name': 'HelperFileApp'}, 'description': ('django.db.models.fields.TextField', [], {'blank': 'True'}), 'id': ('django.db.models.fields.AutoField', [], {'primary_key': 'True'}), 'name': ('django.db.models.fields.CharField', [], {'unique': 'True', 'max_length': '100'}), 'slug': ('autoslug.fields.AutoSlugField', [], {'unique': 'True', 'max_length': '50', 'populate_from': 'None', 'unique_with': '()', 'db_index': 'True'}) }, 'ocrlab.helperfiletype': { 'Meta': {'object_name': 'HelperFileType'}, 'description': ('django.db.models.fields.TextField', [], {'blank': 'True'}), 'id': ('django.db.models.fields.AutoField', [], {'primary_key': 'True'}), 'name': ('django.db.models.fields.CharField', [], {'unique': 'True', 'max_length': '100'}), 'slug': ('autoslug.fields.AutoSlugField', [], {'unique': 'True', 'max_length': '50', 'populate_from': 'None', 'unique_with': '()', 'db_index': 'True'}) }, 'ocrlab.preset': { 'Meta': {'object_name': 'Preset'}, 'created_on': ('django.db.models.fields.DateField', [], {}), 'data': ('ocrlab.models.jsonfield.JSONTextField', [], {'name': "'data'"}), 'description': ('django.db.models.fields.TextField', [], {'blank': 'True'}), 'id': ('django.db.models.fields.AutoField', [], {'primary_key': 'True'}), 'name': ('django.db.models.fields.CharField', [], {'unique': 'True', 'max_length': '100'}), 'profile': ('django.db.models.fields.related.ForeignKey', [], {'blank': 'True', 'related_name': "'presets'", 'null': 'True', 'to': "orm['ocrlab.Profile']"}), 'public': ('django.db.models.fields.BooleanField', [], {'default': 'True'}), 'slug': ('autoslug.fields.AutoSlugField', [], {'unique': 'True', 'max_length': '50', 'populate_from': 'None', 'unique_with': '()', 'db_index': 'True'}), 'updated_on': ('django.db.models.fields.DateField', [], {'null': 'True', 'blank': 'True'}) }, 'ocrlab.profile': { 'Meta': {'object_name': 'Profile'}, 'created_on': ('django.db.models.fields.DateField', [], {}), 'data': ('ocrlab.models.jsonfield.JSONTextField', [], {'name': "'data'"}), 'description': ('django.db.models.fields.TextField', [], {'blank': 'True'}), 'id': ('django.db.models.fields.AutoField', [], {'primary_key': 'True'}), 'name': ('django.db.models.fields.CharField', [], {'unique': 'True', 'max_length': '100'}), 'slug': ('autoslug.fields.AutoSlugField', [], {'unique': 'True', 'max_length': '50', 'populate_from': 'None', 'unique_with': '()', 'db_index': 'True'}), 'updated_on': ('django.db.models.fields.DateField', [], {'null': 'True', 'blank': 'True'}) }, 'taggit.tag': { 'Meta': {'object_name': 'Tag'}, 'id': ('django.db.models.fields.AutoField', [], {'primary_key': 'True'}), 'name': ('django.db.models.fields.CharField', [], {'max_length': '100'}), 'slug': ('django.db.models.fields.SlugField', [], {'unique': 'True', 'max_length': '100', 'db_index': 'True'}) }, 'taggit.taggeditem': { 'Meta': {'object_name': 'TaggedItem'}, 'content_type': ('django.db.models.fields.related.ForeignKey', [], {'related_name': "'taggit_taggeditem_tagged_items'", 'to': "orm['contenttypes.ContentType']"}), 'id': ('django.db.models.fields.AutoField', [], {'primary_key': 'True'}), 'object_id': ('django.db.models.fields.IntegerField', [], {'db_index': 'True'}), 'tag': ('django.db.models.fields.related.ForeignKey', [], {'related_name': "'taggit_taggeditem_items'", 'to': "orm['taggit.Tag']"}) } } complete_apps = ['ocrlab']
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0
0
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0
6
dcaf01bcebe9e95a012850cce9fe142ee7956fb5
1,241
py
Python
scripts.old/diff_blend.py
nangtani/blender-import-lwo
0bb9856642e04a44e081f1af4089c842d9b405cb
[ "MIT" ]
33
2020-04-14T07:48:20.000Z
2022-03-30T14:59:33.000Z
scripts.old/diff_blend.py
nangtani/blender-import-lwo
0bb9856642e04a44e081f1af4089c842d9b405cb
[ "MIT" ]
15
2020-04-16T23:27:00.000Z
2022-03-19T16:18:01.000Z
scripts.old/diff_blend.py
nangtani/blender-import-lwo
0bb9856642e04a44e081f1af4089c842d9b405cb
[ "MIT" ]
4
2020-04-22T17:40:11.000Z
2022-02-04T16:37:47.000Z
import os import sys sys.path.append(os.environ["LOCAL_PYTHONPATH"]) from lwo_helper import diff_files, delete_everything def main(): # # outfile0 = "tests/basic/ref_blend/2.80/cycles/LWO2/ngon/ngon0.lwo.blend" # # outfile1 = "tests/basic/dst_blend/2.80/cycles/LWO2/ngon/ngon0.lwo.blend" # # outfile0 = "tests/basic/ref_blend/2.80/cycles/LWO2/box/box5-ngon.lwo.blend" # # outfile1 = "tests/basic/dst_blend/2.80/cycles/LWO2/box/box5-ngon.lwo.blend" # outfile0 = "tests/basic/ref_blend/2.79/blender_render/LWO2/box/box5-ngon.lwo.blend" # outfile1 = "tests/basic/dst_blend/2.79/blender_render/LWO2/box/box5-ngon.lwo.blend" # # diff_files(outfile0, outfile1) # # delete_everything() outfile0 = "tests/basic/ref_blend/2.80/cycles/LWO2/ngon/ngon0.lwo.blend" outfile1 = "tests/basic/dst_blend/2.80/cycles/LWO2/ngon/ngon0.lwo.blend" diff_files(outfile0, outfile1) # delete_everything() # outfile0 = "tests/basic/ref_blend/2.80/cycles/LWO2/box/box5-ngon.lwo.blend" # outfile1 = "tests/basic/dst_blend/2.80/cycles/LWO2/box/box5-ngon.lwo.blend" # diff_files(outfile0, outfile1) # # delete_everything() if __name__ == "__main__": main()
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0
0
0
0
0
6
f4b01973aab9cd5ae90ff9b7672b6fb5cf74f590
160
py
Python
bot/config/logger.py
guibperes/botnet
4f41f94774fa45f04290668c007bde8b1ae7e948
[ "MIT" ]
null
null
null
bot/config/logger.py
guibperes/botnet
4f41f94774fa45f04290668c007bde8b1ae7e948
[ "MIT" ]
null
null
null
bot/config/logger.py
guibperes/botnet
4f41f94774fa45f04290668c007bde8b1ae7e948
[ "MIT" ]
null
null
null
import logging def logger_init(): logging.basicConfig(format='%(process)s [%(levelname)s] (%(asctime)s) %(threadName)s - %(message)s', level=logging.INFO)
32
124
0.7
21
160
5.285714
0.714286
0
0
0
0
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0
0
0
0.1
160
4
125
40
0.770833
0
0
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0.333333
0.4375
0
0
0
0
0
0
1
0.333333
true
0
0.333333
0
0.666667
0
1
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0
null
0
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0
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0
null
0
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0
0
1
1
0
1
0
0
0
0
6
f4b358b0ecdcbaee8dcaf28ad910d28e89f14e32
101
py
Python
tests/test_day23.py
runfalk/advent-of-code-2019-py
992ab28fc03a9944796688e96536d22b4541bf3f
[ "MIT" ]
null
null
null
tests/test_day23.py
runfalk/advent-of-code-2019-py
992ab28fc03a9944796688e96536d22b4541bf3f
[ "MIT" ]
null
null
null
tests/test_day23.py
runfalk/advent-of-code-2019-py
992ab28fc03a9944796688e96536d22b4541bf3f
[ "MIT" ]
null
null
null
from aoc.day23 import solve def test_solve(): assert solve("data/day23.txt") == (17740, 12567)
16.833333
52
0.683168
15
101
4.533333
0.8
0
0
0
0
0
0
0
0
0
0
0.166667
0.168317
101
5
53
20.2
0.642857
0
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0.333333
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0.333333
true
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1
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1
0
1
0
0
6
f4bc0aa8e5f93035dccd23b6580f6f4f55633390
9,077
py
Python
tests/test_base_api.py
asampat3090/pymeerkat
94ab92535bf88a43300eb3dc8fb70cc3ad83f9a3
[ "MIT" ]
null
null
null
tests/test_base_api.py
asampat3090/pymeerkat
94ab92535bf88a43300eb3dc8fb70cc3ad83f9a3
[ "MIT" ]
3
2015-07-16T06:26:47.000Z
2015-07-16T21:38:28.000Z
tests/test_base_api.py
asampat3090/pymeerkat
94ab92535bf88a43300eb3dc8fb70cc3ad83f9a3
[ "MIT" ]
null
null
null
""" Test cases for the base_api.py file """ # Import generic libraries import unittest # Add relevant dirs to the sys path import env import os # Import library to test import base_api API_VERSION = '1.0' # Read API_KEY from 'my_api_key' in 'tests/' directory OR if os.path.isfile('my_api_key'): with open('my_api_key', 'rb') as f: API_KEY = f.readline() else: API_KEY = os.environ['MEERKAT_API_KEY'] MEERKAT_API = base_api.MeerkatAPI(API_KEY) # Global test vars TEST_HEADER = {'Authorization': API_KEY} TEST_CODE = 200 class MeerkatAPITests(unittest.TestCase): """ Test class with test cases for the MeerkatAPI class """ # Test methods that use the HTTP requests library def test_get_leaderboard(self): """ Tests get_leaderboard() function """ # Set url for this function test_url = MEERKAT_API.leaderboard_url + '?v=%s' % API_VERSION # Execute the actual code and get status code called_header = MEERKAT_API.headers called_code, called_url, _ = MEERKAT_API.get_leaderboard(print_flag=False) # verify the results self.assertEqual(called_header, TEST_HEADER) self.assertEqual(called_code, TEST_CODE) self.assertEqual(called_url, test_url) def test_get_live_broadcasts(self): """ Test for get_live_broadcasts() """ # Set url for this function test_url = MEERKAT_API.live_now_url + '?v=%s' % API_VERSION # Execute the actual code and get status code called_header = MEERKAT_API.headers called_code, called_url, _ = MEERKAT_API.get_live_broadcasts(print_flag=False) # verify the results self.assertEqual(called_header, TEST_HEADER) self.assertEqual(called_code, TEST_CODE) self.assertEqual(called_url, test_url) def test_get_scheduled_broadcasts(self): """ Test for get_scheduled_broadcasts() """ # Set url for this function test_url = MEERKAT_API.scheduled_streams_url + '?v=%s' % API_VERSION # Execute the actual code and get status code called_header = MEERKAT_API.headers called_code, called_url, _ = MEERKAT_API.get_scheduled_broadcasts(print_flag=False) # verify the results self.assertEqual(called_header, TEST_HEADER) self.assertEqual(called_code, TEST_CODE) self.assertEqual(called_url, test_url) def test_get_broadcast_summary(self): """ Test for get_broadcast_summary(broadcast_id) """ # Get the first broadcast id from most recent live broadcast broadcast_id = MEERKAT_API.get_live_broadcasts(print_flag=False)[2][0]['id'] # Set url for this function test_url = MEERKAT_API.stream_summary_template_url.replace( '{broadcastId}', str(broadcast_id)) + '?v=%s' % API_VERSION # Execute the actual code and get status code called_header = MEERKAT_API.headers called_code, called_url, _ = MEERKAT_API.get_broadcast_summary( broadcast_id, print_flag=False) # verify the results self.assertEqual(called_header, TEST_HEADER) self.assertEqual(called_code, TEST_CODE) self.assertEqual(called_url, test_url) def test_get_broadcast_watchers(self): """ Test for get_broadcast_watchers(broadcast_id) """ # Get the first broadcast id from most recent live broadcast broadcast_id = MEERKAT_API.get_live_broadcasts(print_flag=False)[2][0]['id'] # Set url for this function test_url = MEERKAT_API.broadcast_watchers_url.replace( '{broadcastId}', str(broadcast_id)) + '?v=%s' % API_VERSION # Execute the actual code and get status code called_header = MEERKAT_API.headers called_code, called_url, _ = MEERKAT_API.get_broadcast_watchers( broadcast_id, print_flag=False) # verify the results self.assertEqual(called_header, TEST_HEADER) self.assertEqual(called_code, TEST_CODE) self.assertEqual(called_url, test_url) def test_get_broadcast_restreams(self): """ Test for get_broadcast_restreams(broadcast_id) """ # Get the first broadcast id from most recent live broadcast broadcast_id = MEERKAT_API.get_live_broadcasts(print_flag=False)[2][0]['id'] # Set url for this function test_url = MEERKAT_API.broadcast_restreams_url.replace('{broadcastId}',str(broadcast_id)) + '?v=%s' % API_VERSION # Execute the actual code and get status code called_header = MEERKAT_API.headers called_code, called_url, _ = MEERKAT_API.get_broadcast_restreams(broadcast_id, print_flag=False) # verify the results self.assertEqual(called_header, TEST_HEADER) self.assertEqual(called_code, TEST_CODE) self.assertEqual(called_url, test_url) def test_get_broadcast_likes(self): """ Test for get_broadcast_likes(broadcast_id) """ # Get the first broadcast id from most recent live broadcast broadcast_id = MEERKAT_API.get_live_broadcasts(print_flag=False)[2][0]['id'] # Set url for this function test_url = MEERKAT_API.broadcast_likes_url.replace( '{broadcastId}', str(broadcast_id)) + '?v=%s' % API_VERSION # Execute the actual code and get status code called_header = MEERKAT_API.headers called_code, called_url, _ = MEERKAT_API.get_broadcast_likes(broadcast_id, print_flag=False) # verify the results self.assertEqual(called_header, TEST_HEADER) self.assertEqual(called_code, TEST_CODE) self.assertEqual(called_url, test_url) def test_get_broadcast_comments(self): """ Test for get_broadcast_comments(broadcast_id) """ # Get the first broadcast id from most recent live broadcast broadcast_id = MEERKAT_API.get_live_broadcasts(print_flag=False)[2][0]['id'] # Set url for this function test_url = MEERKAT_API.broadcast_comments_url.replace( '{broadcastId}', str(broadcast_id)) + '?v=%s' % API_VERSION # Execute the actual code and get status code called_header = MEERKAT_API.headers called_code, called_url, _ = MEERKAT_API.get_broadcast_comments( broadcast_id, print_flag=False) # verify the results self.assertEqual(called_header, TEST_HEADER) self.assertEqual(called_code, TEST_CODE) self.assertEqual(called_url, test_url) def test_get_broadcast_activities(self): """ Test for get_broadcast_activities(broadcast_id) """ # Get the first broadcast id from most recent live broadcast broadcast_id = MEERKAT_API.get_live_broadcasts(print_flag=False)[2][0]['id'] # Set url for this function test_url = MEERKAT_API.broadcast_activities_url.replace( '{broadcastId}', str(broadcast_id)) + '?v=%s' % API_VERSION # Execute the actual code and get status code called_header = MEERKAT_API.headers called_code, called_url, _ = MEERKAT_API.get_broadcast_activities( broadcast_id, print_flag=False) # verify the results self.assertEqual(called_header, TEST_HEADER) self.assertEqual(called_code, TEST_CODE) self.assertEqual(called_url, test_url) def test_get_broadcast_stream_link(self): """ Test for get_broadcast_stream_link(broadcast_id) """ # Get the first broadcast id from most recent live broadcast broadcast_id = MEERKAT_API.get_live_broadcasts(print_flag=False)[2][0]['id'] # test url test_link = 'http://cdn.meerkatapp.co/broadcast/' + str(broadcast_id) + '/live.m3u8' # Execute code to get link called_link = MEERKAT_API.get_broadcast_stream_link(broadcast_id) self.assertEqual(called_link, test_link) def test_get_user_profile(self): """ Test for get_user_profile(user_id) """ # Get the first user id from leaderboard user_id = MEERKAT_API.get_leaderboard(print_flag=False)[2][0]['id'] # Set url for this function test_url = MEERKAT_API.profile_url.replace('{userId}', str(user_id)) + '?v=%s' % API_VERSION # Execute the actual code and get status code called_header = MEERKAT_API.headers called_code, called_url, _ = MEERKAT_API.get_user_profile(user_id, print_flag=False) # verify the results self.assertEqual(called_header, TEST_HEADER) self.assertEqual(called_code, TEST_CODE) self.assertEqual(called_url, test_url) # # Test method that saves the live stream as images. # def test_save_live_stream(): # # check number of files in the directory # pass if __name__ == '__main__': unittest.main()
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0.104491
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0.752414
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0.736611
0.735909
0.729236
0
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0.250303
9,077
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35.87747
0.833505
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1
0.094828
false
0
0.034483
0
0.137931
0.155172
0
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0
null
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1
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1
1
1
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0
0
0
0
0
0
0
0
0
6
52010d535b2e970b837548d198e51bcfe4f505e7
59
py
Python
elliot/recommender/NN/user_knn/__init__.py
swapUniba/Elliot_refactor-tesi-Ventrella
3ddffc041696c90a6f6d3e8906c212fc4f55f842
[ "Apache-2.0" ]
null
null
null
elliot/recommender/NN/user_knn/__init__.py
swapUniba/Elliot_refactor-tesi-Ventrella
3ddffc041696c90a6f6d3e8906c212fc4f55f842
[ "Apache-2.0" ]
null
null
null
elliot/recommender/NN/user_knn/__init__.py
swapUniba/Elliot_refactor-tesi-Ventrella
3ddffc041696c90a6f6d3e8906c212fc4f55f842
[ "Apache-2.0" ]
1
2021-06-02T06:57:07.000Z
2021-06-02T06:57:07.000Z
from elliot.recommender.NN.user_knn.user_knn import UserKNN
59
59
0.881356
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5
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1
0
1
0
0
6
523c863e99c11f3053687e0105d0e8af145350a0
170
py
Python
tpu_star/__init__.py
shonenkov/TPU-Star
184ca912e4c3e6300af0156213ed792997d1fcc4
[ "Apache-2.0" ]
8
2020-10-28T07:03:20.000Z
2021-12-22T09:10:40.000Z
tpu_star/__init__.py
shonenkov/TPU-Star
184ca912e4c3e6300af0156213ed792997d1fcc4
[ "Apache-2.0" ]
8
2020-10-21T10:00:22.000Z
2021-10-05T18:45:04.000Z
tpu_star/__init__.py
shonenkov/TPU-Star
184ca912e4c3e6300af0156213ed792997d1fcc4
[ "Apache-2.0" ]
null
null
null
# -*- coding: utf-8 -*- from . import datasets, experiment, colab_utils, utils __version__ = '0.0.1-rc10' __all__ = ['datasets', 'experiment', 'colab_utils', 'utils']
21.25
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0.446602
0.543689
0.640777
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0
0.041096
0.141176
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false
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0
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0
1
0
0
0
0
6
5292eefe114d53fff74bd33058d4916a0aa620fe
8,176
py
Python
build/ARM/python/m5/internal/CreditLink_vector.py
Jakgn/gem5_test
0ba7cc5213cf513cf205af7fc995cf679ebc1a3f
[ "BSD-3-Clause" ]
null
null
null
build/ARM/python/m5/internal/CreditLink_vector.py
Jakgn/gem5_test
0ba7cc5213cf513cf205af7fc995cf679ebc1a3f
[ "BSD-3-Clause" ]
null
null
null
build/ARM/python/m5/internal/CreditLink_vector.py
Jakgn/gem5_test
0ba7cc5213cf513cf205af7fc995cf679ebc1a3f
[ "BSD-3-Clause" ]
null
null
null
# This file was automatically generated by SWIG (http://www.swig.org). # Version 2.0.11 # # Do not make changes to this file unless you know what you are doing--modify # the SWIG interface file instead. from sys import version_info if version_info >= (2,6,0): def swig_import_helper(): from os.path import dirname import imp fp = None try: fp, pathname, description = imp.find_module('_CreditLink_vector', [dirname(__file__)]) except ImportError: import _CreditLink_vector return _CreditLink_vector if fp is not None: try: _mod = imp.load_module('_CreditLink_vector', fp, pathname, description) finally: fp.close() return _mod _CreditLink_vector = swig_import_helper() del swig_import_helper else: import _CreditLink_vector del version_info try: _swig_property = property except NameError: pass # Python < 2.2 doesn't have 'property'. def _swig_setattr_nondynamic(self,class_type,name,value,static=1): if (name == "thisown"): return self.this.own(value) if (name == "this"): if type(value).__name__ == 'SwigPyObject': self.__dict__[name] = value return method = class_type.__swig_setmethods__.get(name,None) if method: return method(self,value) if (not static): self.__dict__[name] = value else: raise AttributeError("You cannot add attributes to %s" % self) def _swig_setattr(self,class_type,name,value): return _swig_setattr_nondynamic(self,class_type,name,value,0) def _swig_getattr(self,class_type,name): if (name == "thisown"): return self.this.own() method = class_type.__swig_getmethods__.get(name,None) if method: return method(self) raise AttributeError(name) def _swig_repr(self): try: strthis = "proxy of " + self.this.__repr__() except: strthis = "" return "<%s.%s; %s >" % (self.__class__.__module__, self.__class__.__name__, strthis,) try: _object = object _newclass = 1 except AttributeError: class _object : pass _newclass = 0 def _swig_setattr_nondynamic_method(set): def set_attr(self,name,value): if (name == "thisown"): return self.this.own(value) if hasattr(self,name) or (name == "this"): set(self,name,value) else: raise AttributeError("You cannot add attributes to %s" % self) return set_attr class SwigPyIterator(object): thisown = _swig_property(lambda x: x.this.own(), lambda x, v: x.this.own(v), doc='The membership flag') def __init__(self, *args, **kwargs): raise AttributeError("No constructor defined - class is abstract") __repr__ = _swig_repr __swig_destroy__ = _CreditLink_vector.delete_SwigPyIterator __del__ = lambda self : None; def value(self): return _CreditLink_vector.SwigPyIterator_value(self) def incr(self, n=1): return _CreditLink_vector.SwigPyIterator_incr(self, n) def decr(self, n=1): return _CreditLink_vector.SwigPyIterator_decr(self, n) def distance(self, *args): return _CreditLink_vector.SwigPyIterator_distance(self, *args) def equal(self, *args): return _CreditLink_vector.SwigPyIterator_equal(self, *args) def copy(self): return _CreditLink_vector.SwigPyIterator_copy(self) def next(self): return _CreditLink_vector.SwigPyIterator_next(self) def __next__(self): return _CreditLink_vector.SwigPyIterator___next__(self) def previous(self): return _CreditLink_vector.SwigPyIterator_previous(self) def advance(self, *args): return _CreditLink_vector.SwigPyIterator_advance(self, *args) def __eq__(self, *args): return _CreditLink_vector.SwigPyIterator___eq__(self, *args) def __ne__(self, *args): return _CreditLink_vector.SwigPyIterator___ne__(self, *args) def __iadd__(self, *args): return _CreditLink_vector.SwigPyIterator___iadd__(self, *args) def __isub__(self, *args): return _CreditLink_vector.SwigPyIterator___isub__(self, *args) def __add__(self, *args): return _CreditLink_vector.SwigPyIterator___add__(self, *args) def __sub__(self, *args): return _CreditLink_vector.SwigPyIterator___sub__(self, *args) def __iter__(self): return self SwigPyIterator_swigregister = _CreditLink_vector.SwigPyIterator_swigregister SwigPyIterator_swigregister(SwigPyIterator) import m5.internal.param_CreditLink import m5.internal.param_NetworkLink import m5.internal.param_ClockedObject import m5.internal.param_ClockDomain import m5.internal.param_SimObject import m5.internal.drain import m5.internal.serialize import m5.internal.enum_PwrState import m5.internal.param_PowerModel import m5.internal.PowerModelState_vector import m5.internal.param_PowerModelState import m5.internal.param_SubSystem import m5.internal.param_ThermalDomain class vector_CreditLink(object): thisown = _swig_property(lambda x: x.this.own(), lambda x, v: x.this.own(v), doc='The membership flag') __repr__ = _swig_repr def iterator(self): return _CreditLink_vector.vector_CreditLink_iterator(self) def __iter__(self): return self.iterator() def __nonzero__(self): return _CreditLink_vector.vector_CreditLink___nonzero__(self) def __bool__(self): return _CreditLink_vector.vector_CreditLink___bool__(self) def __len__(self): return _CreditLink_vector.vector_CreditLink___len__(self) def pop(self): return _CreditLink_vector.vector_CreditLink_pop(self) def __getslice__(self, *args): return _CreditLink_vector.vector_CreditLink___getslice__(self, *args) def __setslice__(self, *args): return _CreditLink_vector.vector_CreditLink___setslice__(self, *args) def __delslice__(self, *args): return _CreditLink_vector.vector_CreditLink___delslice__(self, *args) def __delitem__(self, *args): return _CreditLink_vector.vector_CreditLink___delitem__(self, *args) def __getitem__(self, *args): return _CreditLink_vector.vector_CreditLink___getitem__(self, *args) def __setitem__(self, *args): return _CreditLink_vector.vector_CreditLink___setitem__(self, *args) def append(self, *args): return _CreditLink_vector.vector_CreditLink_append(self, *args) def empty(self): return _CreditLink_vector.vector_CreditLink_empty(self) def size(self): return _CreditLink_vector.vector_CreditLink_size(self) def clear(self): return _CreditLink_vector.vector_CreditLink_clear(self) def swap(self, *args): return _CreditLink_vector.vector_CreditLink_swap(self, *args) def get_allocator(self): return _CreditLink_vector.vector_CreditLink_get_allocator(self) def begin(self): return _CreditLink_vector.vector_CreditLink_begin(self) def end(self): return _CreditLink_vector.vector_CreditLink_end(self) def rbegin(self): return _CreditLink_vector.vector_CreditLink_rbegin(self) def rend(self): return _CreditLink_vector.vector_CreditLink_rend(self) def pop_back(self): return _CreditLink_vector.vector_CreditLink_pop_back(self) def erase(self, *args): return _CreditLink_vector.vector_CreditLink_erase(self, *args) def __init__(self, *args): this = _CreditLink_vector.new_vector_CreditLink(*args) try: self.this.append(this) except: self.this = this def push_back(self, *args): return _CreditLink_vector.vector_CreditLink_push_back(self, *args) def front(self): return _CreditLink_vector.vector_CreditLink_front(self) def back(self): return _CreditLink_vector.vector_CreditLink_back(self) def assign(self, *args): return _CreditLink_vector.vector_CreditLink_assign(self, *args) def resize(self, *args): return _CreditLink_vector.vector_CreditLink_resize(self, *args) def insert(self, *args): return _CreditLink_vector.vector_CreditLink_insert(self, *args) def reserve(self, *args): return _CreditLink_vector.vector_CreditLink_reserve(self, *args) def capacity(self): return _CreditLink_vector.vector_CreditLink_capacity(self) __swig_destroy__ = _CreditLink_vector.delete_vector_CreditLink __del__ = lambda self : None; vector_CreditLink_swigregister = _CreditLink_vector.vector_CreditLink_swigregister vector_CreditLink_swigregister(vector_CreditLink)
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py
Python
nytram_box2d/shapes/__init__.py
cloew/NytramBox2D
0c01bd592322fcfa8bbf6fc9374e4958edc69f0b
[ "MIT" ]
null
null
null
nytram_box2d/shapes/__init__.py
cloew/NytramBox2D
0c01bd592322fcfa8bbf6fc9374e4958edc69f0b
[ "MIT" ]
1
2021-10-17T10:18:04.000Z
2021-10-17T10:18:04.000Z
nytram_box2d/shapes/__init__.py
cloew/NytramBox2D
0c01bd592322fcfa8bbf6fc9374e4958edc69f0b
[ "MIT" ]
null
null
null
from .box import Box
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871ebc6e1f97d365b4a7e4805eb6210fd26cef50
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py
Python
vedastr/optimizers/__init__.py
csmasters/vedastr
7513384ab503f15dc574c7d92b75ff2092354757
[ "Apache-2.0" ]
475
2020-03-17T01:46:32.000Z
2022-03-29T23:30:15.000Z
vedastr/optimizers/__init__.py
csmasters/vedastr
7513384ab503f15dc574c7d92b75ff2092354757
[ "Apache-2.0" ]
71
2020-04-01T04:17:47.000Z
2021-11-18T06:55:14.000Z
vedastr/optimizers/__init__.py
csmasters/vedastr
7513384ab503f15dc574c7d92b75ff2092354757
[ "Apache-2.0" ]
108
2020-02-21T10:30:37.000Z
2022-03-21T12:03:30.000Z
from .builder import build_optimizer
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872c1e9bced709a6d81e485c6b2f93d21b7f7960
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py
Python
jptools/mocks/languageHandler.py
riku22/nvdajp
66a828ea89d317e4aa0ad2aed4b3b1e08920afb6
[ "bzip2-1.0.6" ]
19
2016-05-11T05:15:31.000Z
2022-03-17T12:40:10.000Z
jptools/mocks/languageHandler.py
riku22/nvdajp
66a828ea89d317e4aa0ad2aed4b3b1e08920afb6
[ "bzip2-1.0.6" ]
307
2015-08-27T11:22:33.000Z
2022-03-29T10:43:34.000Z
jptools/mocks/languageHandler.py
riku22/nvdajp
66a828ea89d317e4aa0ad2aed4b3b1e08920afb6
[ "bzip2-1.0.6" ]
14
2016-03-28T07:31:49.000Z
2022-03-30T04:56:35.000Z
def setLanguage(lang): pass def getLanguage(): return 'ja-JP'
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