model-sd-multi / handler.py
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Update handler.py
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from typing import Dict, List, Any
import torch
from torch import autocast
from diffusers import StableDiffusionPipeline
import base64
from io import BytesIO
from typing import List, Optional
import torch
from data.dataAccessor import update_db
from data.task import Task, TaskType
from pipelines.commons import Img2Img, Text2Img
from pipelines.controlnets import ControlNet
from pipelines.prompt_modifier import PromptModifier
from util.cache import auto_clear_cuda_and_gc, clear_cuda
from util.commons import add_code_names, pickPoses, upload_images
from util.lora_style import LoraStyle
from util.slack import Slack
torch.backends.cudnn.benchmark = True
torch.backends.cuda.matmul.allow_tf32 = True
num_return_sequences = 4 # the number of results to generate
auto_mode = False
prompt_modifier = PromptModifier(num_of_sequences=num_return_sequences)
lora_style = LoraStyle()
slack = Slack()
# def get_patched_prompt(task: Task):
# def add_style_and_character(prompt: List[str]):
# for i in range(len(prompt)):
# prompt[i] = add_code_names(prompt[i])
# prompt[i] = lora_style.prepend_style_to_prompt(prompt[i], task.get_style())
# prompt = task.get_prompt()
# if task.is_prompt_engineering():
# prompt = prompt_modifier.modify(prompt)
# else:
# prompt = [prompt] * num_return_sequences
# ori_prompt = [task.get_prompt()] * num_return_sequences
# add_style_and_character(ori_prompt)
# add_style_and_character(prompt)
# print({"prompts": prompt})
# return (prompt, ori_prompt)
# # @update_db
# @auto_clear_cuda_and_gc(controlnet)
# @slack.auto_send_alert
# def canny(task: Task):
# prompt, _ = get_patched_prompt(task)
# controlnet.load_canny()
# lora_patcher = lora_style.get_patcher(controlnet.pipe, task.get_style())
# lora_patcher.patch()
# images = controlnet.process_canny(
# prompt=prompt,
# imageUrl=task.get_imageUrl(),
# seed=task.get_seed(),
# steps=task.get_steps(),
# width=task.get_width(),
# height=task.get_height(),
# negative_prompt=[
# f"monochrome, neon, x-ray, negative image, oversaturated, {task.get_negative_prompt()}"
# ]
# * num_return_sequences,
# **lora_patcher.kwargs(),
# )
# generated_image_urls = upload_images(images, "_canny", task.get_taskId())
# lora_patcher.cleanup()
# controlnet.cleanup()
# return {"modified_prompts": prompt, "generated_image_urls": generated_image_urls}
# # @update_db
# @auto_clear_cuda_and_gc(controlnet)
# @slack.auto_send_alert
# def pose(task: Task, s3_outkey: str = "_pose", poses: Optional[list] = None):
# prompt, _ = get_patched_prompt(task)
# controlnet.load_pose()
# lora_patcher = lora_style.get_patcher(controlnet.pipe, task.get_style())
# lora_patcher.patch()
# if poses is None:
# poses = [controlnet.detect_pose(task.get_imageUrl())] * num_return_sequences
# images = controlnet.process_pose(
# prompt=prompt,
# image=poses,
# seed=task.get_seed(),
# steps=task.get_steps(),
# negative_prompt=[task.get_negative_prompt()] * num_return_sequences,
# width=task.get_width(),
# height=task.get_height(),
# **lora_patcher.kwargs(),
# )
# generated_image_urls = upload_images(images, s3_outkey, task.get_taskId())
# lora_patcher.cleanup()
# controlnet.cleanup()
# return {"modified_prompts": prompt, "generated_image_urls": generated_image_urls}
# @update_db
# @auto_clear_cuda_and_gc(controlnet)
@slack.auto_send_alert
def text2img(task: Task, text2img_pipe ):
prompt, ori_prompt = get_patched_prompt(task)
print("logs post: text2img_pipe", text2img_pipe)
lora_patcher = lora_style.get_patcher(text2img_pipe.pipe, task.get_style())
lora_patcher.patch()
torch.manual_seed(task.get_seed())
images = text2img_pipe.process(
prompt=ori_prompt,
modified_prompts=prompt,
num_inference_steps=task.get_steps(),
guidance_scale=7.5,
height=task.get_height(),
width=task.get_width(),
negative_prompt=[task.get_negative_prompt()] * num_return_sequences,
iteration=task.get_iteration(),
**lora_patcher.kwargs(),
)
generated_image_urls = upload_images(images, "", task.get_taskId())
lora_patcher.cleanup()
return {"modified_prompts": prompt, "generated_image_urls": generated_image_urls}
# # @update_db
# @auto_clear_cuda_and_gc(controlnet)
# @slack.auto_send_alert
# def img2img(task: Task):
# prompt, _ = get_patched_prompt(task)
# lora_patcher = lora_style.get_patcher(img2img_pipe.pipe, task.get_style())
# lora_patcher.patch()
# torch.manual_seed(task.get_seed())
# images = img2img_pipe.process(
# prompt=prompt,
# imageUrl=task.get_imageUrl(),
# negative_prompt=[task.get_negative_prompt()] * num_return_sequences,
# steps=task.get_steps(),
# **lora_patcher.kwargs(),
# )
# generated_image_urls = upload_images(images, "_imgtoimg", task.get_taskId())
# lora_patcher.cleanup()
# return {"modified_prompts": prompt, "generated_image_urls": generated_image_urls}
# set device
device = torch.device('cuda' if torch.cuda.is_available() else 'cpu')
if device.type != 'cuda':
raise ValueError("need to run on GPU")
# multi-model list
multi_model_list = [
{"model_id": "jayparmr/icbinp"},
{"model_id": "jayparmr/anything-v5"},
{"model_id": "jayparmr/v5onad-new"},
]
multi_controlnet_model={}
multi_text2image_model={}
multi_image2image_model={}
class EndpointHandler():
def __init__(self, path=""):
# load the optimized model
print("Logs: model loaded .... starts")
# print("Logs: self.multi_text2image_model", multi_text2image_model)
prompt_modifier.load()
lora_style.load(path)
self.path = path
for model in multi_model_list:
controlnet = ControlNet()
img2img_pipe = Img2Img()
text2img_pipe = Text2Img()
multi_controlnet_model[model["model_id"]] = controlnet;
controlnet.load(model["model_id"])
multi_text2image_model[model["model_id"]] = text2img_pipe;
text2img_pipe.load( model["model_id"])
multi_image2image_model[model["model_id"]] = img2img_pipe;
img2img_pipe.load( model["model_id"])
# print(" Logs: model[model_id]",model, model["model_id"])
print("Logs: multimodel controlnet pipelines are",model, multi_controlnet_model)
print("Logs: multimodel text2img pipelines are",model, multi_text2image_model)
print("Logs: multimodel imgtoimage pipelines are",model, multi_image2image_model)
# controlnet.load(path)
# text2img_pipe.load(path)
# img2img_pipe.load(path)
print("Logs: self.multi_image2image_model")
print("Logs: self.multi_text2image_model", multi_text2image_model)
print("Logs: self.multi_controlnet_model", multi_controlnet_model)
print("Logs: model loaded ....")
def __call__(self, data: Any) -> List[List[Dict[str, float]]]:
"""
Args:
data (:obj:):
includes the input data and the parameters for the inference.
Return:
A :obj:`dict`:. base64 encoded image
"""
# deserialize incomin request
# inputs = data.pop("inputs", data)
# parameters = data.pop("parameters", None)
# model_id = data.pop("model_id", None)
# check if model_id is in the list of models
# if model_id is None or model_id not in multi_model_list:
# raise ValueError(f"model_id: {model_id} is not valid. Available models are: {list(self.multi_model.keys())}")
# # pass inputs with all kwargs in data
# if parameters is not None:
# prediction = self.multi_model[model_id](inputs, **parameters)
# else:
# prediction = self.multi_model[model_id](inputs)
# # postprocess the prediction
# return prediction
print("Logs post: init")
print("Logs post: task is ", data)
inputs = data.pop("inputs", data)
parameters = data.pop("parameters", None)
model_id = data.pop("model_id", None)
print("Logs post: model_id is", model_id)
task = Task(data)
try:
task_type = task.get_type()
print("logs post: self.multi_text2image_model[model_id]", multi_text2image_model)
if task_type == TaskType.TEXT_TO_IMAGE:
# character sheet
if "character sheet" in task.get_prompt().lower():
print("pose is here")
# return pose(task, s3_outkey="", poses=pickPoses())
else:
print("pose is not here")
# return text2img(task, multi_text2image_model["jayparmr/icbinp"])
# elif task_type == TaskType.IMAGE_TO_IMAGE:
# return img2img(task)
# elif task_type == TaskType.CANNY:
# return canny(task)
# elif task_type == TaskType.POSE:
# return pose(task)
else:
raise Exception("Invalid task type")
except Exception as e:
print(f"Error: {e}")
slack.error_alert(data, e)
return { "error": e, "data":data, "task_type":task_type }
# inputs = data.pop("inputs", data)
# # run inference pipeline
# with autocast(device.type):
# image = self.pipe(inputs, guidance_scale=7.5)
# # encode image as base 64
# buffered = BytesIO()
# # image.save(buffered, format="JPEG")
# # img_str = base64.b64encode(buffered.getvalue())
# print(image)
# # postprocess the prediction
# return image["images"]