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Nathan Butters commited on
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bdb6cd4
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Parent(s): 9d6f821
abs_diff attempt 0
Browse files- .DS_Store +0 -0
- .ipynb_checkpoints/NLselector-checkpoint.py +37 -13
- Assets/.DS_Store +0 -0
- NLselector.py +1 -1
.DS_Store
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Binary files a/.DS_Store and b/.DS_Store differ
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.ipynb_checkpoints/NLselector-checkpoint.py
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@@ -1,7 +1,6 @@
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#Import the libraries we know we'll need for the Generator.
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import pandas as pd, spacy, nltk, numpy as np, re
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from spacy.matcher import Matcher
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#!python -m spacy download en_core_web_md #Not sure if we need this so I'm going to keep it just in case
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nlp = spacy.load("en_core_web_lg")
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import altair as alt
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import streamlit as st
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@@ -14,6 +13,9 @@ import torch
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import torch.nn.functional as F
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from lime.lime_text import LimeTextExplainer
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class_names = ['negative', 'positive']
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explainer = LimeTextExplainer(class_names=class_names)
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tokenizer = AutoTokenizer.from_pretrained("distilbert-base-uncased-finetuned-sst-2-english")
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@@ -27,6 +29,10 @@ def predictor(texts):
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@st.experimental_singleton
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def critical_words(document, options=False):
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if type(document) is not spacy.tokens.doc.Doc:
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document = nlp(document)
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chunks = list(document.noun_chunks)
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@@ -43,6 +49,31 @@ def critical_words(document, options=False):
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lime_results = pd.DataFrame(lime_results, columns=["Word","Weight"])
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#Identify what we care about "parts of speech"
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for chunk in chunks:
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#The use of chunk[-1] is due to testing that it appears to always match the root
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root = chunk[-1]
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@@ -58,7 +89,7 @@ def critical_words(document, options=False):
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#creates a span for the entirety of the compound noun and adds it to the list.
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span = -1 * (1 + len(compound))
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pos_options.append(chunk[span:].text)
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cur_values + [token.text for token in chunk if token.pos_
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else:
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print(f"The elmenents in {compound} could not be added to the final list because they are not all relevant to the model.")
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else:
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@@ -67,21 +98,14 @@ def critical_words(document, options=False):
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pos_options.extend(cur_values)
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print(f"From {chunk.text}, {cur_values} added to pos_options due to entity recognition.") #for QA
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elif len(chunk) >= 1:
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cur_values = [token.text for token in chunk if token.pos_ in ["NOUN","ADJ"]]
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if (all(elem in lime_options for elem in cur_values) and (options is True)) or ((options is False)):
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pos_options.extend(cur_values)
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print(f"From {chunk.text}, {cur_values} added to pos_options due to wildcard.") #for QA
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else:
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print(f"No options added for \'{chunk.text}\' ")
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if (token.text not in pos_options) and ((token.text in lime_options) or (options == False)):
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#print(f"executed {token.text} with {token.pos_} and {token.dep_}") #QA
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if (token.pos_ == "ADJ") and (token.dep_ in ["acomp","conj"]):
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pos_options.append(token.text)
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elif (token.pos_ == "PRON") and (len(token.morph) !=0):
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if (token.morph.get("PronType") == "Prs"):
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pos_options.append(token.text)
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if options:
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return pos_options, lime_results
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text2 = Nearest Prediction
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text3 = Farthest Prediction'''
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target = df[df['Words'] == seed].pred.iloc[0]
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sub_df = df[df['Words'] != seed].reset_index()
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nearest_prediction = sub_df.pred[(sub_df.pred-target).abs().argsort()[:1]]
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df['similarity'] = df.Words.apply(lambda x: nlp(selection).similarity(nlp(x)))
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return df
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def gen_cf_profession(df,_document,selection):
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category = df.loc[df['Words'] == selection, 'Major'].iloc[0]
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df = df[df.Major == category]
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#Import the libraries we know we'll need for the Generator.
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import pandas as pd, spacy, nltk, numpy as np, re
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from spacy.matcher import Matcher
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nlp = spacy.load("en_core_web_lg")
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import altair as alt
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import streamlit as st
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import torch.nn.functional as F
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from lime.lime_text import LimeTextExplainer
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#Import WNgen.py
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from WNgen import *
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class_names = ['negative', 'positive']
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explainer = LimeTextExplainer(class_names=class_names)
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tokenizer = AutoTokenizer.from_pretrained("distilbert-base-uncased-finetuned-sst-2-english")
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@st.experimental_singleton
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def critical_words(document, options=False):
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'''This function is meant to select the critical part of a sentence. Critical, in this context means
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the part of the sentence that is either: A) a NOUN or PROPN from the correct entity group, B) a NOUN,
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C) a NOUN + ADJ combination, or D) ADJ and PROPN used to modify other NOUN tokens.
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It also checks this against what the model thinks is important if the user defines "options" as "LIME" or True.'''
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if type(document) is not spacy.tokens.doc.Doc:
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document = nlp(document)
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chunks = list(document.noun_chunks)
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lime_results = pd.DataFrame(lime_results, columns=["Word","Weight"])
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#Identify what we care about "parts of speech"
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# Here I am going to try to pick up pronouns, which are people, and Adjectival Compliments.
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for token in document:
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if (token.text not in pos_options) and ((token.text in lime_options) or (options == False)):
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#print(f"executed {token.text} with {token.pos_} and {token.dep_}") #QA
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if (token.pos_ in ["ADJ","PROPN"]) and (token.dep_ in ["compound", "amod"]) and (document[token.i - 1].dep_ in ["compound", "amod"]):
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compound = document[token.i - 1: token.i +1].text
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pos_options.append(compound)
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print(f'Added {compound} based on "amod" and "compound" adjectives.')
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elif (token.pos_ in ["NOUN"]) and (token.dep_ in ["compound", "amod", "conj"]) and (document[token.i - 1].dep_ in ["compound"]):
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compound = document[token.i - 1: token.i +1].text
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pos_options.append(compound)
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print(f'Added {compound} based on "amod" and "compound" and "conj" nouns.')
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elif (token.pos_ == "PROPN") and (token.dep_ in ["prep","amod"]):
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pos_options.append(token.text)
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print(f"Added '{token.text}' based on their adjectival state.")
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elif (token.pos_ == "ADJ") and (token.dep_ in ["acomp","conj","amod"]):
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pos_options.append(token.text)
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print(f"Added '{token.text}' based on their adjectival state.")
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elif (token.pos_ == "PRON") and (len(token.morph) !=0):
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if (token.morph.get("PronType") == "Prs"):
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pos_options.append(token.text)
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print(f"Added '{token.text}' because it's a human pronoun.")
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#Noun Chunks parsing
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for chunk in chunks:
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#The use of chunk[-1] is due to testing that it appears to always match the root
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root = chunk[-1]
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#creates a span for the entirety of the compound noun and adds it to the list.
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span = -1 * (1 + len(compound))
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pos_options.append(chunk[span:].text)
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cur_values + [token.text for token in chunk if token.pos_ in ["ADJ","NOUN","PROPN"]]
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else:
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print(f"The elmenents in {compound} could not be added to the final list because they are not all relevant to the model.")
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else:
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pos_options.extend(cur_values)
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print(f"From {chunk.text}, {cur_values} added to pos_options due to entity recognition.") #for QA
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elif len(chunk) >= 1:
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cur_values = [token.text for token in chunk if token.pos_ in ["NOUN","ADJ","PROPN"]]
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if (all(elem in lime_options for elem in cur_values) and (options is True)) or ((options is False)):
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pos_options.extend(cur_values)
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print(f"From {chunk.text}, {cur_values} added to pos_options due to wildcard.") #for QA
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else:
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print(f"No options added for \'{chunk.text}\' ")
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pos_options = list(set(pos_options))
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if options:
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return pos_options, lime_results
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text2 = Nearest Prediction
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text3 = Farthest Prediction'''
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#seed = process_text(seed)
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target = df[df['Words'] == seed].pred.iloc[0]
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sub_df = df[df['Words'] != seed].reset_index()
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nearest_prediction = sub_df.pred[(sub_df.pred-target).abs().argsort()[:1]]
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df['similarity'] = df.Words.apply(lambda x: nlp(selection).similarity(nlp(x)))
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return df
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def gen_cf_profession(df,_document,selection):
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category = df.loc[df['Words'] == selection, 'Major'].iloc[0]
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df = df[df.Major == category]
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Assets/.DS_Store
CHANGED
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Binary files a/Assets/.DS_Store and b/Assets/.DS_Store differ
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NLselector.py
CHANGED
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@@ -181,7 +181,7 @@ def abs_dif(df,seed):
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text2 = Nearest Prediction
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text3 = Farthest Prediction'''
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seed = process_text(seed)
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target = df[df['Words'] == seed].pred.iloc[0]
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sub_df = df[df['Words'] != seed].reset_index()
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nearest_prediction = sub_df.pred[(sub_df.pred-target).abs().argsort()[:1]]
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text2 = Nearest Prediction
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text3 = Farthest Prediction'''
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#seed = process_text(seed)
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target = df[df['Words'] == seed].pred.iloc[0]
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sub_df = df[df['Words'] != seed].reset_index()
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nearest_prediction = sub_df.pred[(sub_df.pred-target).abs().argsort()[:1]]
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