Add files via upload

This commit is contained in:
Iván Eduardo Chavez Ayub
2025-07-20 03:43:36 -06:00
committed by GitHub
parent 142cc69c9e
commit 3cc06d905e
7 changed files with 656 additions and 127 deletions
+149 -41
View File
@@ -108,12 +108,100 @@ def find_by_relative_path(relative_path: str) -> str:
app_name = "Warlock-Studio"
version = "3.0-07.25"
version = "4.0-07.25"
# AI Model Base Class
class AI_model_base:
def __init__(self, model_path: str, device: str = "CPU"):
self.model_path = model_path
self.device = device
self.inferenceSession = None
self._load_inference_session()
def _load_inference_session(self):
"""Load the ONNX model for inference"""
try:
if not os_path_exists(self.model_path):
raise FileNotFoundError(
f"Model file not found: {self.model_path}")
# Set up providers for GPU acceleration
providers = ['DmlExecutionProvider', 'CPUExecutionProvider']
self.inferenceSession = InferenceSession(
self.model_path,
providers=providers
)
print(
f"[AI] Successfully loaded model: {os_path_basename(self.model_path)}")
except Exception as e:
print(
f"[AI ERROR] Failed to load model {self.model_path}: {str(e)}")
raise
# AI Super Resolution Implementation
class AI_super_resolution(AI_model_base):
def __init__(self, model_path: str, device: str = "CPU"):
super().__init__(model_path, device)
self.model_name = "SuperResolution-10"
self.upscale_factor = 10 # Based on the model name
def preprocess_super_resolution_image(self, image: numpy_ndarray) -> numpy_ndarray:
"""
Preprocess image for super resolution model input.
"""
# Convert image to float32 and normalize
image = (image.astype(float32) / 255.0)
# Convert image to CHW format (channels, height, width)
image = numpy_transpose(image, (2, 0, 1))
# Add batch dimension
image = numpy_expand_dims(image, axis=0)
return image
def postprocess_super_resolution_image(self, output: numpy_ndarray) -> numpy_ndarray:
"""
Postprocess model output to an image.
"""
# Remove batch dimension and convert back to HWC format
output = numpy_squeeze(output, axis=0)
output = numpy_transpose(output, (1, 2, 0))
# Clip values and convert to uint8
output = numpy_clip(output * 255.0, 0, 255).astype(uint8)
return output
def enhance_image(self, image: numpy_ndarray) -> numpy_ndarray:
"""
Enhance image using the super resolution model.
"""
input_image = self.preprocess_super_resolution_image(image)
input_name = self.inferenceSession.get_inputs()[0].name
output_name = self.inferenceSession.get_outputs()[0].name
result = self.inferenceSession.run(
[output_name], {input_name: input_image})[0]
enhanced_image = self.postprocess_super_resolution_image(result)
return enhanced_image
def AI_orchestration(self, image: numpy_ndarray) -> numpy_ndarray:
"""
Main orchestration function for super resolution processing.
"""
try:
return self.enhance_image(image)
except Exception as e:
print(f"[SUPER RESOLUTION ERROR] {str(e)}")
# Return original image if enhancement fails
return image
# Esquema de colores mejorado - Rojo, Gris, Amarillo, Negro, Blanco
background_color = "#1A1A1A" # Negro profundo
app_name_color = "#FF4444" # Rojo brillante para el nombre de la app
app_name_color = "#FFFFFF" # Rojo brillante para el nombre de la app
widget_background_color = "#2D2D2D" # Gris oscuro para widgets
text_color = "#FFFFFF" # Blanco puro para texto principal
secondary_text_color = "#E0E0E0" # Gris claro para texto secundario
@@ -135,6 +223,7 @@ VRAM_model_usage = {
'IRCNN_Mx1': 4,
'IRCNN_Lx1': 4,
'GFPGAN': 1.8,
'SuperResolution-10': 0.8,
}
MENU_LIST_SEPARATOR = ["----"]
@@ -143,10 +232,11 @@ BSRGAN_models_list = ["BSRGANx4", "BSRGANx2", "RealESRGANx4", "RealESRNetx4"]
IRCNN_models_list = ["IRCNN_Mx1", "IRCNN_Lx1"]
Face_restoration_models_list = ["GFPGAN"]
RIFE_models_list = ["RIFE", "RIFE_Lite"]
SuperResolution_models_list = ["SuperResolution-10"]
AI_models_list = (SRVGGNetCompact_models_list + MENU_LIST_SEPARATOR + BSRGAN_models_list +
MENU_LIST_SEPARATOR + IRCNN_models_list + MENU_LIST_SEPARATOR + Face_restoration_models_list +
MENU_LIST_SEPARATOR + RIFE_models_list)
MENU_LIST_SEPARATOR + SuperResolution_models_list + MENU_LIST_SEPARATOR + RIFE_models_list)
frame_interpolation_models_list = RIFE_models_list
frame_generation_options_list = [
"x2", "x4", "x8", "Slowmotion x2", "Slowmotion x4", "Slowmotion x8"
@@ -770,46 +860,45 @@ class AI_interpolation:
# EXTERNAL FUNCTION
def AI_orchestration(self, image1: numpy_ndarray, image2: numpy_ndarray) -> list[numpy_ndarray]:
generated_images = []
def AI_orchestration(self, image1: numpy_ndarray, image2: numpy_ndarray) -> list[numpy_ndarray]:
generated_images = []
# Optimización: Usar memoria contigua para las imágenes de entrada
image1 = numpy_ascontiguousarray(image1)
image2 = numpy_ascontiguousarray(image2)
# Optimización: Usar memoria contigua para las imágenes de entrada
image1 = numpy_ascontiguousarray(image1)
image2 = numpy_ascontiguousarray(image2)
# Generate 1 image [image1 / image_A / image2]
if self.frame_gen_factor == 2:
image_A = self.AI_interpolation(image1, image2)
generated_images.append(image_A)
# Generate 1 image [image1 / image_A / image2]
if self.frame_gen_factor == 2:
image_A = self.AI_interpolation(image1, image2)
generated_images.append(image_A)
# Generate 3 images [image1 / image_A / image_B / image_C / image2]
elif self.frame_gen_factor == 4:
image_B = self.AI_interpolation(image1, image2)
image_A = self.AI_interpolation(image1, image_B)
image_C = self.AI_interpolation(image_B, image2)
generated_images.append(image_A)
generated_images.append(image_B)
generated_images.append(image_C)
# Generate 3 images [image1 / image_A / image_B / image_C / image2]
elif self.frame_gen_factor == 4:
image_B = self.AI_interpolation(image1, image2)
image_A = self.AI_interpolation(image1, image_B)
image_C = self.AI_interpolation(image_B, image2)
generated_images.append(image_A)
generated_images.append(image_B)
generated_images.append(image_C)
# Generate 7 images [image1 / image_A / image_B / image_C / image_D / image_E / image_F / image_G / image2]
elif self.frame_gen_factor == 8:
image_D = self.AI_interpolation(image1, image2)
image_B = self.AI_interpolation(image1, image_D)
image_A = self.AI_interpolation(image1, image_B)
image_C = self.AI_interpolation(image_B, image_D)
image_F = self.AI_interpolation(image_D, image2)
image_E = self.AI_interpolation(image_D, image_F)
image_G = self.AI_interpolation(image_F, image2)
generated_images.append(image_A)
generated_images.append(image_B)
generated_images.append(image_C)
generated_images.append(image_D)
generated_images.append(image_E)
generated_images.append(image_F)
generated_images.append(image_G)
# Generate 7 images [image1 / image_A / image_B / image_C / image_D / image_E / image_F / image_G / image2]
elif self.frame_gen_factor == 8:
image_D = self.AI_interpolation(image1, image2)
image_B = self.AI_interpolation(image1, image_D)
image_A = self.AI_interpolation(image1, image_B)
image_C = self.AI_interpolation(image_B, image_D)
image_F = self.AI_interpolation(image_D, image2)
image_E = self.AI_interpolation(image_D, image_F)
image_G = self.AI_interpolation(image_F, image2)
generated_images.append(image_A)
generated_images.append(image_B)
generated_images.append(image_C)
generated_images.append(image_D)
generated_images.append(image_E)
generated_images.append(image_F)
generated_images.append(image_G)
return generated_images
return generated_images
# AI FACE RESTORATION for face enhancement -----------------
@@ -3513,6 +3602,13 @@ def upscale_orchestrator(
input_resize_factor, output_resize_factor, tiles_resolution)
for _ in range(selected_AI_multithreading)
]
# Check if the selected model is a super resolution model
elif selected_AI_model in SuperResolution_models_list:
AI_upscale_instance_list = [
AI_super_resolution(
f"AI-onnx{os_separator}super-resolution-10.onnx", selected_gpu)
for _ in range(selected_AI_multithreading)
]
else:
AI_upscale_instance_list = [
AI_upscale(selected_AI_model, selected_gpu,
@@ -3594,7 +3690,12 @@ def upscale_image(
write_process_status(
process_status_q, f"{file_number}. Enchanting your image. Be patient...")
upscaled_image = AI_instance.AI_orchestration(starting_image)
# Check if using SuperResolution-10 model
if selected_AI_model in SuperResolution_models_list:
upscaled_image = AI_instance.enhance_image(starting_image)
else:
upscaled_image = AI_instance.AI_orchestration(starting_image)
if selected_blending_factor > 0:
blend_images_and_save(
@@ -3760,7 +3861,7 @@ def upscale_video(
processing_time = (end_timer - start_timer)/threads_number
global_processing_times_list.append(processing_time)
# Fix 3.1: Write frames immediately to disk to reduce memory usage
# Fix 4.0: Write frames immediately to disk to reduce memory usage
if (frame_index + 1) % MULTIPLE_FRAMES_TO_SAVE == 0:
# Save frames present in RAM on disk
save_frames_on_disk(starting_frames_to_save, upscaled_frames_to_save,
@@ -4333,6 +4434,13 @@ def place_AI_menu():
" • Excellent frame generation quality\n" +
" • Lite is 10% faster than full model\n" +
" • Recommended for GPUs with VRAM < 4GB \n",
"\n SuperResolution-10 \n"
"\n • Advanced super-resolution model with 10x upscaling\n"
" • Year: 2023\n"
" • Function: High-resolution image enhancement\n"
" • Excellent for very low resolution images\n"
" • Specialized for significant resolution increases\n",
]
MessageBox(
@@ -4460,7 +4568,7 @@ def place_AI_multithreading_menu():
MessageBox(
messageType="info",
title="AI multithreading (EXPERIMENTAL)",
title="AI multithreading",
subtitle="This widget allows to choose how many video frames are upscaled simultaneously",
default_value=None,
option_list=option_list