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small fixes

This commit is contained in:
Johannes Stelzer 2023-02-18 07:56:30 +01:00
parent bb573b2f9e
commit 3c6015782f
3 changed files with 531 additions and 467 deletions
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386
gradio_ui.py
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@ -32,23 +32,35 @@ torch.set_grad_enabled(False)
import gradio as gr
import copy
from dotenv import find_dotenv, load_dotenv
import shutil
"""
never hit compute trans -> multi movie add fail
"""
#%%
class BlendingFrontend():
def __init__(self, sdh=None):
self.num_inference_steps = 30
if sdh is None:
self.use_debug = True
self.height = 768
self.width = 768
else:
self.use_debug = False
self.lb = LatentBlending(sdh)
self.lb.sdh.num_inference_steps = self.num_inference_steps
self.height = self.lb.sdh.height
self.width = self.lb.sdh.width
self.share = True
self.num_inference_steps = 30
self.init_save_dir()
self.save_empty_image()
self.share = False
self.depth_strength = 0.25
self.seed1 = 42
self.seed1 = 420
self.seed2 = 420
self.guidance_scale = 4.0
self.guidance_scale_mid_damper = 0.5
@ -72,16 +84,13 @@ class BlendingFrontend():
self.current_timestamp = None
self.recycle_img1 = False
self.recycle_img2 = False
self.fp_img1 = None
self.fp_img2 = None
self.multi_idx_current = -1
self.multi_list_concat = []
self.list_imgs_shown_last = 5*[self.fp_img_empty]
self.nmb_trans_stack = 6
if not self.use_debug:
self.lb.sdh.num_inference_steps = self.num_inference_steps
self.height = self.lb.sdh.height
self.width = self.lb.sdh.width
else:
self.height = 768
self.width = 768
self.init_save_dir()
def init_save_dir(self):
@ -89,12 +98,18 @@ class BlendingFrontend():
try:
self.dp_out = os.getenv("dp_out")
except Exception as e:
print(f"did not find .env file. using local folder. {e}")
self.dp_out = ""
self.dp_imgs = os.path.join(self.dp_out, "imgs")
os.makedirs(self.dp_imgs, exist_ok=True)
self.dp_movies = os.path.join(self.dp_out, "movies")
os.makedirs(self.dp_movies, exist_ok=True)
# make dummy image
def save_empty_image(self):
self.fp_img_empty = os.path.join(self.dp_out, 'empty.jpg')
self.fp_img_empty = os.path.join(self.dp_imgs, 'empty.jpg')
Image.fromarray(np.zeros((self.height, self.width, 3), dtype=np.uint8)).save(self.fp_img_empty, quality=5)
@ -140,22 +155,21 @@ class BlendingFrontend():
def compute_img1(self, *args):
list_ui_elem = args
self.setup_lb(list_ui_elem)
fp_img1 = os.path.join(self.dp_out, f"img1_{get_time('second')}.jpg")
self.fp_img1 = os.path.join(self.dp_imgs, f"img1_{get_time('second')}.jpg")
img1 = Image.fromarray(self.lb.compute_latents1(return_image=True))
img1.save(fp_img1)
self.save_empty_image()
img1.save(self.fp_img1)
self.recycle_img1 = True
self.recycle_img2 = False
return [fp_img1, self.fp_img_empty, self.fp_img_empty, self.fp_img_empty, self.fp_img_empty]
return [self.fp_img1, self.fp_img_empty, self.fp_img_empty, self.fp_img_empty, self.fp_img_empty]
def compute_img2(self, *args):
list_ui_elem = args
self.setup_lb(list_ui_elem)
fp_img2 = os.path.join(self.dp_out, f"img2_{get_time('second')}.jpg")
self.fp_img2 = os.path.join(self.dp_imgs, f"img2_{get_time('second')}.jpg")
img2 = Image.fromarray(self.lb.compute_latents2(return_image=True))
img2.save(fp_img2)
img2.save(self.fp_img2)
self.recycle_img2 = True
return [self.fp_img_empty, self.fp_img_empty, self.fp_img_empty, fp_img2]
return [self.fp_img_empty, self.fp_img_empty, self.fp_img_empty, self.fp_img2]
def compute_transition(self, *args):
@ -199,7 +213,7 @@ class BlendingFrontend():
self.current_timestamp = get_time('second')
self.list_fp_imgs_current = []
for i in range(len(list_imgs_preview)):
fp_img = f"img_preview_{i}_{self.current_timestamp}.jpg"
fp_img = os.path.join(self.dp_imgs, f"img_preview_{i}_{self.current_timestamp}.jpg")
list_imgs_preview[i].save(fp_img)
self.list_fp_imgs_current.append(fp_img)
@ -207,52 +221,39 @@ class BlendingFrontend():
imgs_transition_ext = add_frames_linear_interp(imgs_transition, self.duration_video, self.fps)
# Save as movie
fp_movie = self.get_fp_movie(self.current_timestamp)
if os.path.isfile(fp_movie):
os.remove(fp_movie)
ms = MovieSaver(fp_movie, fps=self.fps)
self.fp_movie = os.path.join(self.dp_movies, f"movie_{self.current_timestamp}.mp4")
if os.path.isfile(self.fp_movie):
os.remove(self.fp_movie)
ms = MovieSaver(self.fp_movie, fps=self.fps)
for img in tqdm(imgs_transition_ext):
ms.write_frame(img)
ms.finalize()
print("DONE SAVING MOVIE! SENDING BACK...")
# Assemble Output, updating the preview images and le movie
list_return = self.list_fp_imgs_current + [fp_movie]
list_return = self.list_fp_imgs_current + [self.fp_movie]
return list_return
def get_fp_movie(self, timestamp, is_stacked=False):
if not is_stacked:
fn = f"movie_{timestamp}.mp4"
else:
fn = f"movie_stacked_{timestamp}.mp4"
fp = os.path.join(self.dp_out, fn)
return fp
def stack_forward(self, prompt2, seed2):
# Save preview images, prompts and seeds into dictionary for stacking
dp_out = os.path.join(self.dp_out, get_time('second'))
self.lb.write_imgs_transition(dp_out)
# self.list_imgs_shown_last = self.get_multi_trans_imgs_preview(f"lowres_{self.current_timestamp}")[0:5]
timestamp_section = get_time('second')
self.lb.write_imgs_transition(os.path.join(self.dp_out, f"lowres_{timestamp_section}"))
self.lb.write_imgs_transition(os.path.join(self.dp_out, "lowres_current"))
shutil.copyfile(self.fp_movie, os.path.join(self.dp_out, f"lowres_{timestamp_section}", "movie.mp4"))
self.lb.swap_forward()
list_out = [self.list_fp_imgs_current[-1]]
list_out = [self.fp_img2]
list_out.extend([self.fp_img_empty]*4)
list_out.append(prompt2)
list_out.append(seed2)
list_out.append("")
list_out.append(np.random.randint(0, 10000000))
return list_out
def stack_movie(self):
# collect all that are in...
list_fp_movies = []
list_fp_movies.append(self.get_fp_movie(timestamp))
fp_stacked = self.get_fp_movie(get_time('second'), True)
concatenate_movies(fp_stacked, list_fp_movies)
return fp_stacked
def get_state_dict(self):
state_dict = {}
@ -265,6 +266,89 @@ class BlendingFrontend():
return state_dict
def get_list_all_stacked(self):
list_all = os.listdir(os.path.join(self.dp_out))
list_all = [l for l in list_all if l[:8]=="lowres_2"]
list_all.sort()
return list_all
def multi_trans_show_older(self):
list_all = self.get_list_all_stacked()
if self.multi_idx_current == -1:
self.multi_idx_current = len(list_all) - 1
else:
self.multi_idx_current -= 1
if self.multi_idx_current < 0:
self.multi_idx_current = 0
dn = list_all[self.multi_idx_current]
return self.get_multi_trans_imgs_preview(dn)
def multi_trans_show_newer(self):
list_all = self.get_list_all_stacked()
if self.multi_idx_current == -1:
self.multi_idx_current = len(list_all) - 1
else:
self.multi_idx_current += 1
if self.multi_idx_current >= len(list_all):
self.multi_idx_current = len(list_all) - 1
dn = list_all[self.multi_idx_current]
return self.get_multi_trans_imgs_preview(dn)
def get_multi_trans_imgs_preview(self, dn):
dp_show = os.path.join(self.dp_out, dn)
list_imgs_transition = os.listdir(dp_show)
list_imgs_transition = [l for l in list_imgs_transition if l[:11]=="lowres_img_"]
list_imgs_transition.sort()
idx_img_prev = np.round(np.linspace(0, len(list_imgs_transition)-1, 5)).astype(np.int32)
list_imgs_preview = []
for j in idx_img_prev:
list_imgs_preview.append(os.path.join(dp_show, list_imgs_transition[j]))
list_out = list_imgs_preview
list_out.append(dn[7:])
return list_out
def multi_append(self):
list_all = self.get_list_all_stacked()
dn = list_all[self.multi_idx_current]
self.multi_list_concat.append(dn)
list_short = [dn[7:] for dn in self.multi_list_concat]
str_out = "\n".join(list_short)
return str_out
def multi_reset(self):
self.multi_list_concat = []
str_out = ""
return str_out
def multi_concat(self):
# Make new output directory
dp_multi = os.path.join(self.dp_out, f"multi_{get_time('second')}")
os.makedirs(dp_multi, exist_ok=False)
# Copy all low-res folders (prepending multi001_xxxx), however leave out the movie.mp4
# also collect all movie.mp4
list_fp_movies = []
for i, dn in enumerate(self.multi_list_concat):
dp_source = os.path.join(self.dp_out, dn)
dp_sequence = os.path.join(dp_multi, f"{str(i).zfill(3)}_{dn}")
os.makedirs(dp_sequence, exist_ok=False)
list_source = os.listdir(dp_source)
list_source = [l for l in list_source if not l.endswith(".mp4")]
for fn in list_source:
shutil.copyfile(os.path.join(dp_source, fn), os.path.join(dp_sequence, fn))
list_fp_movies.append(os.path.join(dp_source, "movie.mp4"))
# Concatenate movies and save
fp_final = os.path.join(dp_multi, "movie.mp4")
concatenate_movies(fp_final, list_fp_movies)
return fp_final
def get_img_rand():
return (255*np.random.rand(self.height,self.width,3)).astype(np.uint8)
@ -287,119 +371,149 @@ def generate_list_output(
return list_output
if __name__ == "__main__":
# fp_ckpt = "../stable_diffusion_models/ckpt/v2-1_768-ema-pruned.ckpt"
fp_ckpt = "../stable_diffusion_models/ckpt/v2-1_512-ema-pruned.ckpt"
sdh = StableDiffusionHolder(fp_ckpt)
self = BlendingFrontend(sdh) # Yes this is possible in python and yes it is an awesome trick
fp_ckpt = "../stable_diffusion_models/ckpt/v2-1_768-ema-pruned.ckpt"
# fp_ckpt = "../stable_diffusion_models/ckpt/v2-1_512-ema-pruned.ckpt"
self = BlendingFrontend(StableDiffusionHolder(fp_ckpt)) # Yes this is possible in python and yes it is an awesome trick
# self = BlendingFrontend(None) # Yes this is possible in python and yes it is an awesome trick
dict_ui_elem = {}
with gr.Blocks() as demo:
with gr.Row():
prompt1 = gr.Textbox(label="prompt 1")
prompt2 = gr.Textbox(label="prompt 2")
with gr.Tab("Single Transition"):
with gr.Row():
prompt1 = gr.Textbox(label="prompt 1")
prompt2 = gr.Textbox(label="prompt 2")
with gr.Row():
duration_compute = gr.Slider(5, 45, self.t_compute_max_allowed, step=1, label='compute budget for transition (seconds)', interactive=True)
duration_video = gr.Slider(0.1, 30, self.duration_video, step=0.1, label='result video duration (seconds)', interactive=True)
height = gr.Slider(256, 2048, self.height, step=128, label='height', interactive=True)
width = gr.Slider(256, 2048, self.width, step=128, label='width', interactive=True)
with gr.Row():
duration_compute = gr.Slider(5, 45, self.t_compute_max_allowed, step=1, label='compute budget for transition (seconds)', interactive=True)
duration_video = gr.Slider(0.1, 30, self.duration_video, step=0.1, label='result video duration (seconds)', interactive=True)
height = gr.Slider(256, 2048, self.height, step=128, label='height', interactive=True)
width = gr.Slider(256, 2048, self.width, step=128, label='width', interactive=True)
with gr.Accordion("Advanced Settings (click to expand)", open=False):
with gr.Accordion("Advanced Settings (click to expand)", open=False):
with gr.Accordion("Diffusion settings", open=True):
with gr.Row():
num_inference_steps = gr.Slider(5, 100, self.num_inference_steps, step=1, label='num_inference_steps', interactive=True)
guidance_scale = gr.Slider(1, 25, self.guidance_scale, step=0.1, label='guidance_scale', interactive=True)
negative_prompt = gr.Textbox(label="negative prompt")
with gr.Accordion("Diffusion settings", open=True):
with gr.Row():
num_inference_steps = gr.Slider(5, 100, self.num_inference_steps, step=1, label='num_inference_steps', interactive=True)
guidance_scale = gr.Slider(1, 25, self.guidance_scale, step=0.1, label='guidance_scale', interactive=True)
negative_prompt = gr.Textbox(label="negative prompt")
with gr.Accordion("Seeds control", open=True):
with gr.Row():
seed1 = gr.Number(420, label="seed 1", interactive=True)
b_newseed1 = gr.Button("randomize seed 1", variant='secondary')
seed2 = gr.Number(420, label="seed 2", interactive=True)
b_newseed2 = gr.Button("randomize seed 2", variant='secondary')
with gr.Accordion("Seeds control", open=True):
with gr.Row():
seed1 = gr.Number(self.seed1, label="seed 1", interactive=True)
b_newseed1 = gr.Button("randomize seed 1", variant='secondary')
seed2 = gr.Number(self.seed2, label="seed 2", interactive=True)
b_newseed2 = gr.Button("randomize seed 2", variant='secondary')
with gr.Accordion("Crossfeeding for last image", open=True):
with gr.Row():
branch1_influence = gr.Slider(0.0, 1.0, self.branch1_influence, step=0.01, label='crossfeed power', interactive=True)
branch1_max_depth_influence = gr.Slider(0.0, 1.0, self.branch1_max_depth_influence, step=0.01, label='crossfeed range', interactive=True)
branch1_influence_decay = gr.Slider(0.0, 1.0, self.branch1_influence_decay, step=0.01, label='crossfeed decay', interactive=True)
with gr.Accordion("Crossfeeding for last image", open=True):
with gr.Row():
branch1_influence = gr.Slider(0.0, 1.0, self.branch1_influence, step=0.01, label='crossfeed power', interactive=True)
branch1_max_depth_influence = gr.Slider(0.0, 1.0, self.branch1_max_depth_influence, step=0.01, label='crossfeed range', interactive=True)
branch1_influence_decay = gr.Slider(0.0, 1.0, self.branch1_influence_decay, step=0.01, label='crossfeed decay', interactive=True)
with gr.Accordion("Transition settings", open=True):
with gr.Row():
depth_strength = gr.Slider(0.01, 0.99, self.depth_strength, step=0.01, label='depth_strength', interactive=True)
guidance_scale_mid_damper = gr.Slider(0.01, 2.0, self.guidance_scale_mid_damper, step=0.01, label='guidance_scale_mid_damper', interactive=True)
parental_influence = gr.Slider(0.0, 1.0, self.parental_influence, step=0.01, label='parental power', interactive=True)
parental_max_depth_influence = gr.Slider(0.0, 1.0, self.parental_max_depth_influence, step=0.01, label='parental range', interactive=True)
parental_influence_decay = gr.Slider(0.0, 1.0, self.parental_influence_decay, step=0.01, label='parental decay', interactive=True)
with gr.Accordion("Transition settings", open=True):
with gr.Row():
depth_strength = gr.Slider(0.01, 0.99, self.depth_strength, step=0.01, label='depth_strength', interactive=True)
guidance_scale_mid_damper = gr.Slider(0.01, 2.0, self.guidance_scale_mid_damper, step=0.01, label='guidance_scale_mid_damper', interactive=True)
parental_influence = gr.Slider(0.0, 1.0, self.parental_influence, step=0.01, label='parental power', interactive=True)
parental_max_depth_influence = gr.Slider(0.0, 1.0, self.parental_max_depth_influence, step=0.01, label='parental range', interactive=True)
parental_influence_decay = gr.Slider(0.0, 1.0, self.parental_influence_decay, step=0.01, label='parental decay', interactive=True)
with gr.Row():
b_compute1 = gr.Button('compute first image', variant='primary')
b_compute_transition = gr.Button('compute transition', variant='primary')
b_compute2 = gr.Button('compute last image', variant='primary')
with gr.Row():
b_compute1 = gr.Button('compute first image', variant='primary')
b_compute_transition = gr.Button('compute transition', variant='primary')
b_compute2 = gr.Button('compute last image', variant='primary')
with gr.Row():
img1 = gr.Image(label="1/5")
img2 = gr.Image(label="2/5")
img3 = gr.Image(label="3/5")
img4 = gr.Image(label="4/5")
img5 = gr.Image(label="5/5")
with gr.Row():
img1 = gr.Image(label="1/5")
img2 = gr.Image(label="2/5")
img3 = gr.Image(label="3/5")
img4 = gr.Image(label="4/5")
img5 = gr.Image(label="5/5")
with gr.Row():
vid_transition = gr.Video()
with gr.Row():
vid_transition = gr.Video()
with gr.Row():
b_stackforward = gr.Button('multi-movie start next segment (move last image -> first image)')
with gr.Row():
b_stackforward = gr.Button('multi-movie start next segment (move last image -> first image)')
# Collect all UI elemts in list to easily pass as inputs
dict_ui_elem["prompt1"] = prompt1
dict_ui_elem["negative_prompt"] = negative_prompt
dict_ui_elem["prompt2"] = prompt2
# Collect all UI elemts in list to easily pass as inputs
dict_ui_elem["prompt1"] = prompt1
dict_ui_elem["negative_prompt"] = negative_prompt
dict_ui_elem["prompt2"] = prompt2
dict_ui_elem["duration_compute"] = duration_compute
dict_ui_elem["duration_video"] = duration_video
dict_ui_elem["height"] = height
dict_ui_elem["width"] = width
dict_ui_elem["duration_compute"] = duration_compute
dict_ui_elem["duration_video"] = duration_video
dict_ui_elem["height"] = height
dict_ui_elem["width"] = width
dict_ui_elem["depth_strength"] = depth_strength
dict_ui_elem["branch1_influence"] = branch1_influence
dict_ui_elem["branch1_max_depth_influence"] = branch1_max_depth_influence
dict_ui_elem["branch1_influence_decay"] = branch1_influence_decay
dict_ui_elem["depth_strength"] = depth_strength
dict_ui_elem["branch1_influence"] = branch1_influence
dict_ui_elem["branch1_max_depth_influence"] = branch1_max_depth_influence
dict_ui_elem["branch1_influence_decay"] = branch1_influence_decay
dict_ui_elem["num_inference_steps"] = num_inference_steps
dict_ui_elem["guidance_scale"] = guidance_scale
dict_ui_elem["guidance_scale_mid_damper"] = guidance_scale_mid_damper
dict_ui_elem["seed1"] = seed1
dict_ui_elem["seed2"] = seed2
dict_ui_elem["num_inference_steps"] = num_inference_steps
dict_ui_elem["guidance_scale"] = guidance_scale
dict_ui_elem["guidance_scale_mid_damper"] = guidance_scale_mid_damper
dict_ui_elem["seed1"] = seed1
dict_ui_elem["seed2"] = seed2
dict_ui_elem["parental_max_depth_influence"] = parental_max_depth_influence
dict_ui_elem["parental_influence"] = parental_influence
dict_ui_elem["parental_influence_decay"] = parental_influence_decay
dict_ui_elem["parental_max_depth_influence"] = parental_max_depth_influence
dict_ui_elem["parental_influence"] = parental_influence
dict_ui_elem["parental_influence_decay"] = parental_influence_decay
# Convert to list, as gradio doesn't seem to accept dicts
list_ui_elem = []
list_ui_keys = []
for k in dict_ui_elem.keys():
list_ui_elem.append(dict_ui_elem[k])
list_ui_keys.append(k)
self.list_ui_keys = list_ui_keys
# Convert to list, as gradio doesn't seem to accept dicts
list_ui_elem = []
list_ui_keys = []
for k in dict_ui_elem.keys():
list_ui_elem.append(dict_ui_elem[k])
list_ui_keys.append(k)
self.list_ui_keys = list_ui_keys
b_newseed1.click(self.randomize_seed1, outputs=seed1)
b_newseed2.click(self.randomize_seed2, outputs=seed2)
b_compute1.click(self.compute_img1, inputs=list_ui_elem, outputs=[img1, img2, img3, img4, img5])
b_compute2.click(self.compute_img2, inputs=list_ui_elem, outputs=[img2, img3, img4, img5])
b_compute_transition.click(self.compute_transition,
inputs=list_ui_elem,
outputs=[img2, img3, img4, vid_transition])
b_stackforward.click(self.stack_forward,
inputs=[prompt2, seed2],
outputs=[img1, img2, img3, img4, img5, prompt1, seed1, prompt2])
with gr.Tab("Multi Transition"):
with gr.Row():
multi_img1_prev = gr.Image(value=self.list_imgs_shown_last[0], label="1/5")
multi_img2_prev = gr.Image(value=self.list_imgs_shown_last[1], label="2/5")
multi_img3_prev = gr.Image(value=self.list_imgs_shown_last[2], label="3/5")
multi_img4_prev = gr.Image(value=self.list_imgs_shown_last[3], label="4/5")
multi_img5_prev = gr.Image(value=self.list_imgs_shown_last[4], label="5/5")
with gr.Row():
b_older = gr.Button("show older")
b_newer = gr.Button("show newer")
text_timestamp = gr.Textbox(label="created", interactive=False)
b_append = gr.Button("append this transition")
with gr.Row():
text_all_timestamps = gr.Textbox(label="movie list", interactive=False)
with gr.Row():
b_reset = gr.Button("reset")
b_concat = gr.Button("merge together", variant='primary')
with gr.Row():
vid_multi = gr.Video()
b_older.click(self.multi_trans_show_older, inputs=[], outputs=[multi_img1_prev, multi_img2_prev, multi_img3_prev, multi_img4_prev, multi_img5_prev, text_timestamp])
b_newer.click(self.multi_trans_show_newer, inputs=[], outputs=[multi_img1_prev, multi_img2_prev, multi_img3_prev, multi_img4_prev, multi_img5_prev, text_timestamp])
b_append.click(self.multi_append, inputs=[], outputs=[text_all_timestamps])
b_reset.click(self.multi_reset, inputs=[], outputs=[text_all_timestamps])
b_concat.click(self.multi_concat, inputs=[], outputs=[vid_multi])
b_newseed1.click(self.randomize_seed1, outputs=seed1)
b_newseed2.click(self.randomize_seed2, outputs=seed2)
b_compute1.click(self.compute_img1, inputs=list_ui_elem, outputs=[img1, img2, img3, img4, img5])
b_compute2.click(self.compute_img2, inputs=list_ui_elem, outputs=[img2, img3, img4, img5])
b_compute_transition.click(self.compute_transition,
inputs=list_ui_elem,
outputs=[img2, img3, img4, vid_transition])
b_stackforward.click(self.stack_forward,
inputs=[prompt2, seed2],
outputs=[img1, img2, img3, img4, img5, prompt1, seed1, prompt2])
demo.launch(share=self.share, inbrowser=True, inline=False)

391
latent_blending.py
View File

@ -231,36 +231,36 @@ class LatentBlending():
if quality == 'lowest':
num_inference_steps = 12
nmb_branches_final = 5
nmb_max_branches = 5
elif quality == 'low':
num_inference_steps = 15
nmb_branches_final = nmb_frames//16
nmb_max_branches = nmb_frames//16
elif quality == 'medium':
num_inference_steps = 30
nmb_branches_final = nmb_frames//8
nmb_max_branches = nmb_frames//8
elif quality == 'high':
num_inference_steps = 60
nmb_branches_final = nmb_frames//4
nmb_max_branches = nmb_frames//4
elif quality == 'ultra':
num_inference_steps = 100
nmb_branches_final = nmb_frames//2
nmb_max_branches = nmb_frames//2
elif quality == 'upscaling_step1':
num_inference_steps = 40
nmb_branches_final = 12
nmb_max_branches = 12
elif quality == 'upscaling_step2':
num_inference_steps = 100
nmb_branches_final = 6
nmb_max_branches = 6
else:
raise ValueError(f"quality = '{quality}' not supported")
self.autosetup_branching(depth_strength, num_inference_steps, nmb_branches_final)
self.autosetup_branching(depth_strength, num_inference_steps, nmb_max_branches)
def autosetup_branching(
self,
depth_strength: float = 0.65,
num_inference_steps: int = 30,
nmb_branches_final: int = 20,
nmb_max_branches: int = 20,
nmb_mindist: int = 3,
):
r"""
@ -273,7 +273,7 @@ class LatentBlending():
more shallow values will go into alpha-blendy land.
num_inference_steps: int
Number of diffusion steps. Higher values will take more compute time.
nmb_branches_final (int): The number of diffusion-generated images
nmb_max_branches (int): The number of diffusion-generated images
at the end of the inference.
nmb_mindist (int): The minimum number of diffusion steps
between two injections.
@ -285,7 +285,7 @@ class LatentBlending():
list_injection_idx = [0]
list_injection_idx.extend(np.linspace(idx_injection_first, idx_injection_last, nmb_injections).astype(int))
list_nmb_branches = np.round(np.logspace(np.log10(2), np.log10(nmb_branches_final), nmb_injections+1)).astype(int)
list_nmb_branches = np.round(np.logspace(np.log10(2), np.log10(nmb_max_branches), nmb_injections+1)).astype(int)
# Cleanup. There should be at least nmb_mindist diffusion steps between each injection and list_nmb_branches increases
list_nmb_branches_clean = [list_nmb_branches[0]]
@ -294,7 +294,7 @@ class LatentBlending():
if idx_injection - list_injection_idx_clean[-1] >= nmb_mindist and nmb_branches > list_nmb_branches_clean[-1]:
list_nmb_branches_clean.append(nmb_branches)
list_injection_idx_clean.append(idx_injection)
list_nmb_branches_clean[-1] = nmb_branches_final
list_nmb_branches_clean[-1] = nmb_max_branches
list_injection_idx_clean = [int(l) for l in list_injection_idx_clean]
list_nmb_branches_clean = [int(l) for l in list_nmb_branches_clean]
@ -394,8 +394,36 @@ class LatentBlending():
recycle_img2: Optional[bool] = False,
num_inference_steps: Optional[int] = 30,
depth_strength: Optional[float] = 0.3,
t_compute_max_allowed: Optional[float] = None,
nmb_max_branches: Optional[int] = None,
fixed_seeds: Optional[List[int]] = None,
):
r"""
Function for computing transitions.
Returns a list of transition images using spherical latent blending.
Args:
recycle_img1: Optional[bool]:
Don't recompute the latents for the first keyframe (purely prompt1). Saves compute.
recycle_img2: Optional[bool]:
Don't recompute the latents for the second keyframe (purely prompt2). Saves compute.
num_inference_steps:
Number of diffusion steps. Higher values will take more compute time.
depth_strength:
Determines how deep the first injection will happen.
Deeper injections will cause (unwanted) formation of new structures,
more shallow values will go into alpha-blendy land.
t_compute_max_allowed:
Either provide t_compute_max_allowed or nmb_max_branches.
The maximum time allowed for computation. Higher values give better results but take longer.
nmb_max_branches: int
Either provide t_compute_max_allowed or nmb_max_branches. The maximum number of branches to be computed. Higher values give better
results. Use this if you want to have controllable results independent
of your computer.
fixed_seeds: Optional[List[int)]:
You can supply two seeds that are used for the first and second keyframe (prompt1 and prompt2).
Otherwise random seeds will be taken.
"""
# Sanity checks first
assert self.text_embedding1 is not None, 'Set the first text embedding with .set_prompt1(...) before'
@ -412,7 +440,8 @@ class LatentBlending():
self.seed2 = fixed_seeds[1]
# Ensure correct num_inference_steps in holder
self.sdh.num_inference_steps = self.num_inference_steps
self.num_inference_steps = num_inference_steps
self.sdh.num_inference_steps = num_inference_steps
# Compute / Recycle first image
if not recycle_img1 or len(self.tree_latents[0]) != self.num_inference_steps:
@ -433,11 +462,61 @@ class LatentBlending():
self.tree_idx_injection = [0, 0]
# Set up branching scheme (dependent on provided compute time)
list_idx_injection, list_nmb_stems = self.get_time_based_branching(depth_strength, t_compute_max_allowed, nmb_max_branches)
# Run iteratively, starting with the longest trajectory.
# Always inserting new branches where they are needed most according to image similarity
for s_idx in tqdm(range(len(list_idx_injection))):
nmb_stems = list_nmb_stems[s_idx]
idx_injection = list_idx_injection[s_idx]
for i in range(nmb_stems):
fract_mixing, b_parent1, b_parent2 = self.get_mixing_parameters(idx_injection)
self.set_guidance_mid_dampening(fract_mixing)
list_latents = self.compute_latents_mix(fract_mixing, b_parent1, b_parent2, idx_injection)
self.insert_into_tree(fract_mixing, idx_injection, list_latents)
# print(f"fract_mixing: {fract_mixing} idx_injection {idx_injection}")
return self.tree_final_imgs
def get_time_based_branching(self, depth_strength, t_compute_max_allowed=None, nmb_max_branches=None):
r"""
Sets up the branching scheme dependent on the time that is granted for compute.
The scheme uses an estimation derived from the first image's computation speed.
Either provide t_compute_max_allowed or nmb_max_branches
Args:
depth_strength:
Determines how deep the first injection will happen.
Deeper injections will cause (unwanted) formation of new structures,
more shallow values will go into alpha-blendy land.
t_compute_max_allowed: float
The maximum time allowed for computation. Higher values give better results
but take longer. Use this if you want to fix your waiting time for the results.
nmb_max_branches: int
The maximum number of branches to be computed. Higher values give better
results. Use this if you want to have controllable results independent
of your computer.
"""
idx_injection_base = int(round(self.num_inference_steps*depth_strength))
list_idx_injection = np.arange(idx_injection_base, self.num_inference_steps-1, 3)
list_nmb_stems = np.ones(len(list_idx_injection), dtype=np.int32)
t_compute = 0
while t_compute < self.t_compute_max_allowed:
if nmb_max_branches is None:
assert t_compute_max_allowed is not None, "Either specify t_compute_max_allowed or nmb_max_branches"
stop_criterion = "t_compute_max_allowed"
elif t_compute_max_allowed is None:
assert nmb_max_branches is not None, "Either specify t_compute_max_allowed or nmb_max_branches"
stop_criterion = "nmb_max_branches"
nmb_max_branches -= 2 # discounting the outer frames
else:
raise ValueError("Either specify t_compute_max_allowed or nmb_max_branches")
stop_criterion_reached = False
is_first_iteration = True
while not stop_criterion_reached:
list_compute_steps = self.num_inference_steps - list_idx_injection
list_compute_steps *= list_nmb_stems
t_compute = np.sum(list_compute_steps) * self.dt_per_diff + 0.15*np.sum(list_nmb_stems)
@ -449,23 +528,21 @@ class LatentBlending():
break
if not increase_done:
list_nmb_stems[-1] += 1
if stop_criterion == "t_compute_max_allowed" and t_compute > t_compute_max_allowed:
stop_criterion_reached = True
# FIXME: also undersample here... but how... maybe drop them iteratively?
elif stop_criterion == "nmb_max_branches" and np.sum(list_nmb_stems) >= nmb_max_branches:
stop_criterion_reached = True
if is_first_iteration:
# Need to undersample.
list_idx_injection = np.linspace(list_idx_injection[0], list_idx_injection[-1], nmb_max_branches).astype(np.int32)
list_nmb_stems = np.ones(len(list_idx_injection), dtype=np.int32)
else:
is_first_iteration = False
# print(f"t_compute {t_compute} list_nmb_stems {list_nmb_stems}")
# Run iteratively, always inserting new branches where they are needed most
for s_idx in tqdm(range(len(list_idx_injection))):
nmb_stems = list_nmb_stems[s_idx]
idx_injection = list_idx_injection[s_idx]
for i in range(nmb_stems):
fract_mixing, b_parent1, b_parent2 = self.get_mixing_parameters(idx_injection)
self.set_guidance_mid_dampening(fract_mixing)
# print(f"fract_mixing: {fract_mixing} idx_injection {idx_injection}")
list_latents = self.compute_latents_mix(fract_mixing, b_parent1, b_parent2, idx_injection)
self.insert_into_tree(fract_mixing, idx_injection, list_latents)
return self.tree_final_imgs
return list_idx_injection, list_nmb_stems
def get_mixing_parameters(self, idx_injection):
r"""
@ -581,7 +658,7 @@ class LatentBlending():
whether to return an image or the list of latents
"""
print("starting compute_latents1")
list_conditionings = [self.text_embedding1]
list_conditionings = self.get_mixed_conditioning(0)
t0 = time.time()
latents_start = self.get_noise(self.seed1)
list_latents1 = self.run_diffusion(
@ -604,7 +681,8 @@ class LatentBlending():
return_image: bool
whether to return an image or the list of latents
"""
list_conditionings = [self.text_embedding2]
print("starting compute_latents2")
list_conditionings = self.get_mixed_conditioning(1)
latents_start = self.get_noise(self.seed2)
# Influence from branch1
if self.branch1_influence > 0.0:
@ -630,177 +708,23 @@ class LatentBlending():
return list_latents2
def get_noise(self, seed):
generator = torch.Generator(device=self.sdh.device).manual_seed(int(seed))
shape_latents = [self.sdh.C, self.sdh.height // self.sdh.f, self.sdh.width // self.sdh.f]
C, H, W = shape_latents
return torch.randn((1, C, H, W), generator=generator, device=self.sdh.device)
def run_transition_legacy(
self,
recycle_img1: Optional[bool] = False,
recycle_img2: Optional[bool] = False,
fixed_seeds: Optional[List[int]] = None,
premature_stop: Optional[int] = np.inf,
):
r"""
Old legacy function for computing transitions.
Returns a list of transition images using spherical latent blending.
Helper function to get noise given seed.
Args:
recycle_img1: Optional[bool]:
Don't recompute the latents for the first keyframe (purely prompt1). Saves compute.
recycle_img2: Optional[bool]:
Don't recompute the latents for the second keyframe (purely prompt2). Saves compute.
fixed_seeds: Optional[List[int)]:
You can supply two seeds that are used for the first and second keyframe (prompt1 and prompt2).
Otherwise random seeds will be taken.
premature_stop: Optional[int]:
Stop the computation after premature_stop frames have been computed in the transition
seed: int
"""
# Sanity checks first
assert self.text_embedding1 is not None, 'Set the first text embedding with .set_prompt1(...) before'
assert self.text_embedding2 is not None, 'Set the second text embedding with .set_prompt2(...) before'
assert self.list_injection_idx is not None, 'Set the branching structure before, by calling autosetup_branching or setup_branching'
generator = torch.Generator(device=self.sdh.device).manual_seed(int(seed))
if self.mode == 'standard':
shape_latents = [self.sdh.C, self.sdh.height // self.sdh.f, self.sdh.width // self.sdh.f]
C, H, W = shape_latents
elif self.mode == 'upscale':
w = self.image1_lowres.size[0]
h = self.image1_lowres.size[1]
shape_latents = [self.sdh.model.channels, h, w]
C, H, W = shape_latents
if fixed_seeds is not None:
if fixed_seeds == 'randomize':
fixed_seeds = list(np.random.randint(0, 1000000, 2).astype(np.int32))
else:
assert len(fixed_seeds)==2, "Supply a list with len = 2"
self.seed1 = fixed_seeds[0]
self.seed2 = fixed_seeds[1]
# Process interruption variable
self.stop_diffusion = False
# Ensure correct num_inference_steps in holder
self.sdh.num_inference_steps = self.num_inference_steps
# Make a backup for future reference
self.list_nmb_branches_prev = self.list_nmb_branches[:]
self.list_injection_idx_prev = self.list_injection_idx[:]
# Split the first block if there is branch1 crossfeeding
if self.branch1_influence > 0.0 and not self.branch1_insertion_completed:
assert self.list_nmb_branches[0]==2, 'branch1 influnce currently requires the self.list_nmb_branches[0] = 0'
self.branch1_influence = np.clip(self.branch1_influence, 0, 1)
self.branch1_max_depth_influence = np.clip(self.branch1_max_depth_influence, 0, 1)
self.list_nmb_branches.insert(1, 2)
idx_crossfeed = int(round(self.list_injection_idx[1]*self.branch1_max_depth_influence))
self.list_injection_idx_ext.insert(1, idx_crossfeed)
self.tree_fracts.insert(1, self.tree_fracts[0])
self.tree_status.insert(1, self.tree_status[0])
self.tree_latents.insert(1, self.tree_latents[0])
self.branch1_insertion_completed = True
# Pre-define entire branching tree structures
self.tree_final_imgs = [None]*self.list_nmb_branches[-1]
nmb_blocks_time = len(self.list_injection_idx_ext)-1
if not recycle_img1 and not recycle_img2:
self.init_tree_struct()
else:
self.tree_final_imgs = [None]*self.list_nmb_branches[-1]
for t_block in range(nmb_blocks_time):
nmb_branches = self.list_nmb_branches[t_block]
for idx_branch in range(nmb_branches):
self.tree_status[t_block][idx_branch] = 'untouched'
if recycle_img1:
self.tree_status[t_block][0] = 'computed'
self.tree_final_imgs[0] = self.sdh.latent2image(self.tree_latents[-1][0][-1])
self.tree_final_imgs_timing[0] = 0
if recycle_img2:
self.tree_status[t_block][-1] = 'computed'
self.tree_final_imgs[-1] = self.sdh.latent2image(self.tree_latents[-1][-1][-1])
self.tree_final_imgs_timing[-1] = 0
# setup compute order: goal: try to get last branch computed asap.
# first compute the right keyframe. needs to be there in any case
list_compute = []
list_local_stem = []
for t_block in range(nmb_blocks_time - 1, -1, -1):
if self.tree_status[t_block][0] == 'untouched':
self.tree_status[t_block][0] = 'prefetched'
list_local_stem.append([t_block, 0])
list_compute.extend(list_local_stem[::-1])
# setup compute order: start from last leafs (the final transition images) and work way down. what parents do they need?
for idx_leaf in range(1, self.list_nmb_branches[-1]):
list_local_stem = []
t_block = nmb_blocks_time - 1
t_block_prev = t_block - 1
self.tree_status[t_block][idx_leaf] = 'prefetched'
list_local_stem.append([t_block, idx_leaf])
idx_leaf_deep = idx_leaf
for t_block in range(nmb_blocks_time-1, 0, -1):
t_block_prev = t_block - 1
fract_mixing = self.tree_fracts[t_block][idx_leaf_deep]
list_fract_mixing_prev = self.tree_fracts[t_block_prev]
b_parent1, b_parent2 = get_closest_idx(fract_mixing, list_fract_mixing_prev)
assert self.tree_status[t_block_prev][b_parent1] != 'untouched', 'Branch destruction??? This should never happen!'
if self.tree_status[t_block_prev][b_parent2] == 'untouched':
self.tree_status[t_block_prev][b_parent2] = 'prefetched'
list_local_stem.append([t_block_prev, b_parent2])
idx_leaf_deep = b_parent2
list_compute.extend(list_local_stem[::-1])
# Diffusion computations start here
time_start = time.time()
for t_block, idx_branch in tqdm(list_compute, desc="computing transition", smoothing=0.01):
if self.stop_diffusion:
print("run_transition: process interrupted")
return self.tree_final_imgs
if idx_branch > premature_stop:
print(f"run_transition: premature_stop criterion reached. returning tree with {premature_stop} branches")
return self.tree_final_imgs
# print(f"computing t_block {t_block} idx_branch {idx_branch}")
idx_stop = self.list_injection_idx_ext[t_block+1]
fract_mixing = self.tree_fracts[t_block][idx_branch]
list_conditionings = self.get_mixed_conditioning(fract_mixing)
self.set_guidance_mid_dampening(fract_mixing)
# print(f"fract_mixing {fract_mixing} guid {self.sdh.guidance_scale}")
if t_block == 0:
if fixed_seeds is not None:
if idx_branch == 0:
self.set_seed(fixed_seeds[0])
elif idx_branch == self.list_nmb_branches[0] -1:
self.set_seed(fixed_seeds[1])
list_latents = self.run_diffusion(list_conditionings, idx_stop=idx_stop)
# Inject latents from first branch for very first block
if idx_branch==1 and self.branch1_influence > 0:
fract_base_influence = np.clip(self.branch1_influence, 0, 1)
for i in range(len(list_latents)):
list_latents[i] = interpolate_spherical(list_latents[i], self.tree_latents[0][0][i], fract_base_influence)
else:
# find parents latents
b_parent1, b_parent2 = get_closest_idx(fract_mixing, self.tree_fracts[t_block-1])
latents1 = self.tree_latents[t_block-1][b_parent1][-1]
if fract_mixing == 0:
latents2 = latents1
else:
latents2 = self.tree_latents[t_block-1][b_parent2][-1]
idx_start = self.list_injection_idx_ext[t_block]
fract_mixing_parental = (fract_mixing - self.tree_fracts[t_block-1][b_parent1]) / (self.tree_fracts[t_block-1][b_parent2] - self.tree_fracts[t_block-1][b_parent1])
latents_for_injection = interpolate_spherical(latents1, latents2, fract_mixing_parental)
list_latents = self.run_diffusion(list_conditionings, latents_for_injection, idx_start=idx_start, idx_stop=idx_stop)
self.tree_latents[t_block][idx_branch] = list_latents
self.tree_status[t_block][idx_branch] = 'computed'
# Convert latents to image directly for the last t_block
if t_block == nmb_blocks_time-1:
self.tree_final_imgs[idx_branch] = self.sdh.latent2image(list_latents[-1])
self.tree_final_imgs_timing[idx_branch] = time.time() - time_start
return self.tree_final_imgs
return torch.randn((1, C, H, W), generator=generator, device=self.sdh.device)
def run_multi_transition(
@ -906,24 +830,31 @@ class LatentBlending():
return_image = return_image,
)
elif self.mode == 'upscale':
cond = list_conditionings[0]
uc_full = list_conditionings[1]
return self.sdh.run_diffusion_upscaling(
cond,
uc_full,
latents_start=latents_start,
idx_start=idx_start,
list_latents_mixing = list_latents_mixing,
mixing_coeffs = mixing_coeffs,
return_image=return_image)
# elif self.mode == 'inpaint':
# text_embeddings = list_conditionings[0]
# assert self.sdh.image_source is not None, "image_source is None. Please run init_inpainting first."
# assert self.sdh.mask_image is not None, "image_source is None. Please run init_inpainting first."
# return self.sdh.run_diffusion_inpaint(text_embeddings, latents_for_injection=latents_for_injection, idx_start=idx_start, idx_stop=idx_stop, return_image=return_image)
# # FIXME LONG LINE and bad args
# elif self.mode == 'upscale':
# cond = list_conditionings[0]
# uc_full = list_conditionings[1]
# return self.sdh.run_diffusion_upscaling(cond, uc_full, latents_for_injection=latents_for_injection, idx_start=idx_start, idx_stop=idx_stop, return_image=return_image)
# FIXME. new transition engine
def run_upscaling_step1(
self,
dp_img: str,
depth_strength: float = 0.65,
num_inference_steps: int = 30,
nmb_branches_final: int = 10,
nmb_max_branches: int = 10,
fixed_seeds: Optional[List[int]] = None,
):
r"""
@ -932,6 +863,7 @@ class LatentBlending():
dp_img:
Path to directory where the low-res images and yaml will be saved to.
This directory cannot exist and will be created here.
FIXME
quality: str
Determines how many diffusion steps are being made + how many branches in total.
We suggest to leave it with upscaling_step1 which has 10 final branches.
@ -951,7 +883,6 @@ class LatentBlending():
fixed_seeds = list(np.random.randint(0, 1000000, 2).astype(np.int32))
# Run latent blending
self.autosetup_branching(depth_strength, num_inference_steps, nmb_branches_final)
imgs_transition = self.run_transition(fixed_seeds=fixed_seeds)
self.write_imgs_transition(dp_img, imgs_transition)
@ -962,13 +893,14 @@ class LatentBlending():
self,
dp_img: str,
depth_strength: float = 0.65,
num_inference_steps: int = 30,
nmb_branches_final: int = 10,
num_inference_steps: int = 100,
nmb_max_branches_highres: int = 5,
nmb_max_branches_lowres: int = 6,
fixed_seeds: Optional[List[int]] = None,
):
fp_yml = os.path.join(dp_img, "lowres.yaml")
fp_movie = os.path.join(dp_img, "movie.mp4")
fp_movie = os.path.join(dp_img, "movie_highres.mp4")
fps = 24
ms = MovieSaver(fp_movie, fps=fps)
assert os.path.isfile(fp_yml), "lowres.yaml does not exist. did you forget run_upscaling_step1?"
@ -978,8 +910,9 @@ class LatentBlending():
nmb_images_lowres = dict_stuff['nmb_images']
prompt1 = dict_stuff['prompt1']
prompt2 = dict_stuff['prompt2']
idx_img_lowres = np.round(np.linspace(0, nmb_images_lowres-1, nmb_max_branches_lowres)).astype(np.int32)
imgs_lowres = []
for i in range(nmb_images_lowres):
for i in idx_img_lowres:
fp_img_lowres = os.path.join(dp_img, f"lowres_img_{str(i).zfill(4)}.jpg")
assert os.path.isfile(fp_img_lowres), f"{fp_img_lowres} does not exist. did you forget run_upscaling_step1?"
imgs_lowres.append(Image.open(fp_img_lowres))
@ -989,13 +922,12 @@ class LatentBlending():
text_embeddingA = self.sdh.get_text_embedding(prompt1)
text_embeddingB = self.sdh.get_text_embedding(prompt2)
self.autosetup_branching(depth_strength, num_inference_steps, nmb_branches_final)
#FIXME: have a total length for the whole video section
duration_single_trans = 3
list_fract_mixing = np.linspace(0, 1, nmb_images_lowres-1)
list_fract_mixing = np.linspace(0, 1, nmb_max_branches_lowres-1)
for i in range(nmb_images_lowres-1):
print(f"Starting movie segment {i+1}/{nmb_images_lowres-1}")
for i in range(nmb_max_branches_lowres-1):
print(f"Starting movie segment {i+1}/{nmb_max_branches_lowres-1}")
self.text_embedding1 = interpolate_linear(text_embeddingA, text_embeddingB, list_fract_mixing[i])
self.text_embedding2 = interpolate_linear(text_embeddingA, text_embeddingB, 1-list_fract_mixing[i])
@ -1008,7 +940,15 @@ class LatentBlending():
self.set_image1(imgs_lowres[i])
self.set_image2(imgs_lowres[i+1])
list_imgs = self.run_transition(recycle_img1=recycle_img1)
list_imgs = self.run_transition(
recycle_img1 = recycle_img1,
recycle_img2 = False,
num_inference_steps = num_inference_steps,
depth_strength = depth_strength,
nmb_max_branches = nmb_max_branches_highres,
)
list_imgs_interp = add_frames_linear_interp(list_imgs, fps, duration_single_trans)
# Save movie frame
@ -1075,11 +1015,12 @@ class LatentBlending():
return self.sdh.get_text_embedding(prompt)
def write_imgs_transition(self, dp_img, imgs_transition):
def write_imgs_transition(self, dp_img):
r"""
Writes the transition images into the folder dp_img.
"""
os.makedirs(dp_img)
imgs_transition = self.tree_final_imgs
os.makedirs(dp_img, exist_ok=True)
for i, img in enumerate(imgs_transition):
img_leaf = Image.fromarray(img)
img_leaf.save(os.path.join(dp_img, f"lowres_img_{str(i).zfill(4)}.jpg"))
@ -1090,6 +1031,7 @@ class LatentBlending():
def save_statedict(self, fp_yml):
# Dump everything relevant into yaml
imgs_transition = self.tree_final_imgs
state_dict = self.get_state_dict()
state_dict['nmb_images'] = len(imgs_transition)
yml_save(fp_yml, state_dict)
@ -1098,7 +1040,9 @@ class LatentBlending():
state_dict = {}
grab_vars = ['prompt1', 'prompt2', 'seed1', 'seed2', 'height', 'width',
'num_inference_steps', 'depth_strength', 'guidance_scale',
'guidance_scale_mid_damper', 'mid_compression_scaler', 'negative_prompt']
'guidance_scale_mid_damper', 'mid_compression_scaler', 'negative_prompt',
'branch1_influence', 'branch1_max_depth_influence', 'branch1_influence_decay'
'parental_influence', 'parental_max_depth_influence', 'parental_influence_decay']
for v in grab_vars:
if hasattr(self, v):
if v == 'seed1' or v == 'seed2':
@ -1107,8 +1051,10 @@ class LatentBlending():
state_dict[v] = float(getattr(self, v))
else:
state_dict[v] = getattr(self, v)
try:
state_dict[v] = getattr(self, v)
except Exception as e:
pass
return state_dict
@ -1163,8 +1109,7 @@ class LatentBlending():
as in run_multi_transition()
"""
# Move over all latents
for t_block in range(len(self.tree_latents)):
self.tree_latents[t_block][0] = self.tree_latents[t_block][-1]
self.tree_latents[0] = self.tree_latents[-1]
# Move over prompts and text embeddings
self.prompt1 = self.prompt2

183
stable_diffusion_holder.py
View File

@ -285,8 +285,7 @@ class StableDiffusionHolder:
return_image: Optional[bool] = False,
):
r"""
Wrapper function for run_diffusion_standard and run_diffusion_inpaint.
Depending on the mode, the correct one will be executed.
Diffusion standard version.
Args:
text_embeddings: torch.FloatTensor
@ -364,6 +363,99 @@ class StableDiffusionHolder:
else:
return list_latents_out
@torch.no_grad()
def run_diffusion_upscaling(
self,
cond,
uc_full,
latents_start: torch.FloatTensor,
idx_start: int = -1,
list_latents_mixing = None,
mixing_coeffs = 0.0,
return_image: Optional[bool] = False
):
r"""
Diffusion upscaling version.
# FIXME
Args:
??
latents_for_injection: torch.FloatTensor
Latents that are used for injection
idx_start: int
Index of the diffusion process start and where the latents_for_injection are injected
return_image: Optional[bool]
Optionally return image directly
"""
# Asserts
if type(mixing_coeffs) == float:
list_mixing_coeffs = self.num_inference_steps*[mixing_coeffs]
elif type(mixing_coeffs) == list:
assert len(mixing_coeffs) == self.num_inference_steps
list_mixing_coeffs = mixing_coeffs
else:
raise ValueError("mixing_coeffs should be float or list with len=num_inference_steps")
if np.sum(list_mixing_coeffs) > 0:
assert len(list_latents_mixing) == self.num_inference_steps
precision_scope = autocast if self.precision == "autocast" else nullcontext
generator = torch.Generator(device=self.device).manual_seed(int(self.seed))
h = uc_full['c_concat'][0].shape[2]
w = uc_full['c_concat'][0].shape[3]
with precision_scope("cuda"):
with self.model.ema_scope():
shape_latents = [self.model.channels, h, w]
self.sampler.make_schedule(ddim_num_steps=self.num_inference_steps-1, ddim_eta=self.ddim_eta, verbose=False)
C, H, W = shape_latents
size = (1, C, H, W)
b = size[0]
latents = latents_start.clone()
timesteps = self.sampler.ddim_timesteps
time_range = np.flip(timesteps)
total_steps = timesteps.shape[0]
# collect latents
list_latents_out = []
for i, step in enumerate(time_range):
# Set the right starting latents
if i < idx_start:
list_latents_out.append(None)
continue
elif i == idx_start:
latents = latents_start.clone()
# Mix the latents.
if i > 0 and list_mixing_coeffs[i]>0:
latents_mixtarget = list_latents_mixing[i-1].clone()
latents = interpolate_spherical(latents, latents_mixtarget, list_mixing_coeffs[i])
# print(f"diffusion iter {i}")
index = total_steps - i - 1
ts = torch.full((b,), step, device=self.device, dtype=torch.long)
outs = self.sampler.p_sample_ddim(latents, cond, ts, index=index, use_original_steps=False,
quantize_denoised=False, temperature=1.0,
noise_dropout=0.0, score_corrector=None,
corrector_kwargs=None,
unconditional_guidance_scale=self.guidance_scale,
unconditional_conditioning=uc_full,
dynamic_threshold=None)
latents, pred_x0 = outs
list_latents_out.append(latents.clone())
if return_image:
return self.latent2image(latents)
else:
return list_latents_out
@torch.no_grad()
def run_diffusion_inpaint(
self,
@ -474,93 +566,6 @@ class StableDiffusionHolder:
else:
return list_latents_out
@torch.no_grad()
def run_diffusion_upscaling(
self,
cond,
uc_full,
latents_for_injection: torch.FloatTensor = None,
idx_start: int = -1,
idx_stop: int = -1,
return_image: Optional[bool] = False
):
r"""
Wrapper function for run_diffusion_standard and run_diffusion_inpaint.
Depending on the mode, the correct one will be executed.
Args:
??
latents_for_injection: torch.FloatTensor
Latents that are used for injection
idx_start: int
Index of the diffusion process start and where the latents_for_injection are injected
idx_stop: int
Index of the diffusion process end.
return_image: Optional[bool]
Optionally return image directly
"""
if latents_for_injection is None:
do_inject_latents = False
else:
do_inject_latents = True
precision_scope = autocast if self.precision == "autocast" else nullcontext
generator = torch.Generator(device=self.device).manual_seed(int(self.seed))
h = uc_full['c_concat'][0].shape[2]
w = uc_full['c_concat'][0].shape[3]
with precision_scope("cuda"):
with self.model.ema_scope():
shape_latents = [self.model.channels, h, w]
self.sampler.make_schedule(ddim_num_steps=self.num_inference_steps-1, ddim_eta=self.ddim_eta, verbose=False)
C, H, W = shape_latents
size = (1, C, H, W)
b = size[0]
latents = torch.randn(size, generator=generator, device=self.device)
timesteps = self.sampler.ddim_timesteps
time_range = np.flip(timesteps)
total_steps = timesteps.shape[0]
# collect latents
list_latents_out = []
for i, step in enumerate(time_range):
if do_inject_latents:
# Inject latent at right place
if i < idx_start:
continue
elif i == idx_start:
latents = latents_for_injection.clone()
if i == idx_stop:
return list_latents_out
# print(f"diffusion iter {i}")
index = total_steps - i - 1
ts = torch.full((b,), step, device=self.device, dtype=torch.long)
outs = self.sampler.p_sample_ddim(latents, cond, ts, index=index, use_original_steps=False,
quantize_denoised=False, temperature=1.0,
noise_dropout=0.0, score_corrector=None,
corrector_kwargs=None,
unconditional_guidance_scale=self.guidance_scale,
unconditional_conditioning=uc_full,
dynamic_threshold=None)
latents, pred_x0 = outs
list_latents_out.append(latents.clone())
if return_image:
return self.latent2image(latents)
else:
return list_latents_out
@torch.no_grad()
def latent2image(
self,