Added integration for "voicefixer", fixed issue where candidates>1 and lines>1 only outputs the last combined candidate, numbered step for each generation in progress, output time per generation step

This commit is contained in:
mrq 2023-02-11 15:02:11 +00:00
parent 841754602e
commit a7330164ab
5 changed files with 60 additions and 34 deletions

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@ -217,6 +217,7 @@ Below are settings that override the default launch arguments. Some of these req
* `Low VRAM`: disables optimizations in TorToiSe that increases VRAM consumption. Suggested if your GPU has under 6GiB. * `Low VRAM`: disables optimizations in TorToiSe that increases VRAM consumption. Suggested if your GPU has under 6GiB.
* `Embed Output Metadata`: enables embedding the settings and latents used to generate that audio clip inside that audio clip. Metadata is stored as a JSON string in the `lyrics` tag. * `Embed Output Metadata`: enables embedding the settings and latents used to generate that audio clip inside that audio clip. Metadata is stored as a JSON string in the `lyrics` tag.
* `Slimmer Computed Latents`: falls back to the original, 12.9KiB way of storing latents (without the extra bits required for using the CVVP model). * `Slimmer Computed Latents`: falls back to the original, 12.9KiB way of storing latents (without the extra bits required for using the CVVP model).
* `Voice Fixer`: runs each generated audio clip through `voicefixer`, if available and installed.
* `Voice Latent Max Chunk Size`: during the voice latents calculation pass, this limits how large, in bytes, a chunk can be. Large values can run into VRAM OOM errors. * `Voice Latent Max Chunk Size`: during the voice latents calculation pass, this limits how large, in bytes, a chunk can be. Large values can run into VRAM OOM errors.
* `Sample Batch Size`: sets the batch size when generating autoregressive samples. Bigger batches result in faster compute, at the cost of increased VRAM consumption. Leave to 0 to calculate a "best" fit. * `Sample Batch Size`: sets the batch size when generating autoregressive samples. Bigger batches result in faster compute, at the cost of increased VRAM consumption. Leave to 0 to calculate a "best" fit.
* `Concurrency Count`: how many Gradio events the queue can process at once. Leave this over 1 if you want to modify settings in the UI that updates other settings while generating audio clips. * `Concurrency Count`: how many Gradio events the queue can process at once. Leave this over 1 if you want to modify settings in the UI that updates other settings while generating audio clips.

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@ -16,3 +16,4 @@ numba
gradio gradio
music-tag music-tag
k-diffusion k-diffusion
voicefixer

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@ -61,7 +61,7 @@ def tqdm_override(arr, verbose=False, progress=None, desc=None):
if progress is None: if progress is None:
return tqdm(arr, disable=not verbose) return tqdm(arr, disable=not verbose)
return progress.tqdm(arr, desc=desc, track_tqdm=True) return progress.tqdm(arr, desc=f'{progress.msg_prefix} {desc}' if hasattr(progress, 'msg_prefix') else desc, track_tqdm=True)
def download_models(specific_models=None): def download_models(specific_models=None):
""" """

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@ -21,7 +21,7 @@ def tqdm_override(arr, verbose=False, progress=None, desc=None):
if progress is None: if progress is None:
return tqdm(arr, disable=not verbose) return tqdm(arr, disable=not verbose)
return progress.tqdm(arr, desc=desc, track_tqdm=True) return progress.tqdm(arr, desc=f'{progress.msg_prefix} {desc}' if hasattr(progress, 'msg_prefix') else desc, track_tqdm=True)
def normal_kl(mean1, logvar1, mean2, logvar2): def normal_kl(mean1, logvar1, mean2, logvar2):
""" """

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@ -20,6 +20,8 @@ from tortoise.api import TextToSpeech
from tortoise.utils.audio import load_audio, load_voice, load_voices, get_voice_dir from tortoise.utils.audio import load_audio, load_voice, load_voices, get_voice_dir
from tortoise.utils.text import split_and_recombine_text from tortoise.utils.text import split_and_recombine_text
voicefixer = None
def generate( def generate(
text, text,
delimiter, delimiter,
@ -51,7 +53,6 @@ def generate(
except NameError: except NameError:
raise gr.Error("TTS is still initializing...") raise gr.Error("TTS is still initializing...")
if voice != "microphone": if voice != "microphone":
voices = [voice] voices = [voice]
else: else:
@ -128,14 +129,17 @@ def generate(
audio_cache = {} audio_cache = {}
resampler = torchaudio.transforms.Resample( resample = None
tts.output_sample_rate, # not a ternary in the event for some reason I want to rely on librosa's upsampling interpolator rather than torchaudio's, for some reason
args.output_sample_rate, if tts.output_sample_rate != args.output_sample_rate:
lowpass_filter_width=16, resampler = torchaudio.transforms.Resample(
rolloff=0.85, tts.output_sample_rate,
resampling_method="kaiser_window", args.output_sample_rate,
beta=8.555504641634386, lowpass_filter_width=16,
) if tts.output_sample_rate != args.output_sample_rate else None rolloff=0.85,
resampling_method="kaiser_window",
beta=8.555504641634386,
)
volume_adjust = torchaudio.transforms.Vol(gain=args.output_volume, gain_type="amplitude") if args.output_volume != 1 else None volume_adjust = torchaudio.transforms.Vol(gain=args.output_volume, gain_type="amplitude") if args.output_volume != 1 else None
@ -147,11 +151,10 @@ def generate(
idx = idx + 1 idx = idx + 1
def get_name(line=0, candidate=0, combined=False): def get_name(line=0, candidate=0, combined=False):
if combined:
return f"{idx}_combined"
name = f"{idx}" name = f"{idx}"
if len(texts) > 1: if combined:
name = f"{name}_combined"
elif len(texts) > 1:
name = f"{name}_{line}" name = f"{name}_{line}"
if candidates > 1: if candidates > 1:
name = f"{name}_{candidate}" name = f"{name}_{candidate}"
@ -164,12 +167,14 @@ def generate(
else: else:
cut_text = f"[I am really {emotion.lower()},] {cut_text}" cut_text = f"[I am really {emotion.lower()},] {cut_text}"
print(f"[{str(line+1)}/{str(len(texts))}] Generating line: {cut_text}") progress.msg_prefix = f'[{str(line+1)}/{str(len(texts))}]'
print(f"{progress.msg_prefix} Generating line: {cut_text}")
start_time = time.time() start_time = time.time()
gen, additionals = tts.tts(cut_text, **settings ) gen, additionals = tts.tts(cut_text, **settings )
seed = additionals[0] seed = additionals[0]
run_time = time.time()-start_time run_time = time.time()-start_time
print(f"Generating line took {run_time} seconds")
if isinstance(gen, list): if isinstance(gen, list):
for j, g in enumerate(gen): for j, g in enumerate(gen):
@ -203,15 +208,11 @@ def generate(
for candidate in range(candidates): for candidate in range(candidates):
audio_clips = [] audio_clips = []
for line in range(len(texts)): for line in range(len(texts)):
if isinstance(gen, list): name = get_name(line=line, candidate=candidate)
name = get_name(line=line, candidate=candidate) audio = audio_cache[name]['audio']
audio = audio_cache[name]['audio']
else:
name = get_name(line=line)
audio = audio_cache[name]['audio']
audio_clips.append(audio) audio_clips.append(audio)
name = get_name(combined=True) name = get_name(candidate=candidate, combined=True)
audio = torch.cat(audio_clips, dim=-1) audio = torch.cat(audio_clips, dim=-1)
torchaudio.save(f'{outdir}/{voice}_{name}.wav', audio, args.output_sample_rate) torchaudio.save(f'{outdir}/{voice}_{name}.wav', audio, args.output_sample_rate)
@ -225,16 +226,10 @@ def generate(
output_voices.append(f'{outdir}/{voice}_{name}.wav') output_voices.append(f'{outdir}/{voice}_{name}.wav')
if output_voice is None: if output_voice is None:
output_voice = f'{outdir}/{voice}_{name}.wav' output_voice = f'{outdir}/{voice}_{name}.wav'
# output_voice = audio
else: else:
if candidates > 1: for candidate in range(candidates):
for candidate in range(candidates): name = get_name(candidate=candidate)
name = get_name(candidate=candidate)
output_voices.append(f'{outdir}/{voice}_{name}.wav')
else:
name = get_name()
output_voices.append(f'{outdir}/{voice}_{name}.wav') output_voices.append(f'{outdir}/{voice}_{name}.wav')
#output_voice = f'{outdir}/{voice}_{name}.wav'
info = { info = {
'text': text, 'text': text,
@ -267,8 +262,21 @@ def generate(
with open(f'{get_voice_dir()}/{voice}/cond_latents.pth', 'rb') as f: with open(f'{get_voice_dir()}/{voice}/cond_latents.pth', 'rb') as f:
info['latents'] = base64.b64encode(f.read()).decode("ascii") info['latents'] = base64.b64encode(f.read()).decode("ascii")
if voicefixer:
# we could do this on the pieces before they get stiched up anyways to save some compute
# but the stitching would need to read back from disk, defeating the point of caching the waveform
for path in progress.tqdm(audio_cache, desc="Running voicefix..."):
print("VoiceFix starting")
voicefixer.restore(
input=f'{outdir}/{voice}_{k}.wav',
output=f'{outdir}/{voice}_{k}.wav',
#cuda=False,
#mode=mode,
)
print("VoiceFix finished")
if args.embed_output_metadata: if args.embed_output_metadata:
for path in audio_cache: for path in progress.tqdm(audio_cache, desc="Embedding metadata..."):
info['text'] = audio_cache[path]['text'] info['text'] = audio_cache[path]['text']
info['time'] = audio_cache[path]['time'] info['time'] = audio_cache[path]['time']
@ -438,7 +446,7 @@ def cancel_generate():
def update_voices(): def update_voices():
return gr.Dropdown.update(choices=sorted(os.listdir(get_voice_dir())) + ["microphone"]) return gr.Dropdown.update(choices=sorted(os.listdir(get_voice_dir())) + ["microphone"])
def export_exec_settings( share, listen, check_for_updates, models_from_local_only, low_vram, embed_output_metadata, latents_lean_and_mean, cond_latent_max_chunk_size, sample_batch_size, concurrency_count, output_sample_rate, output_volume ): def export_exec_settings( share, listen, check_for_updates, models_from_local_only, low_vram, embed_output_metadata, latents_lean_and_mean, voice_fixer, cond_latent_max_chunk_size, sample_batch_size, concurrency_count, output_sample_rate, output_volume ):
args.share = share args.share = share
args.listen = listen args.listen = listen
args.low_vram = low_vram args.low_vram = low_vram
@ -448,6 +456,7 @@ def export_exec_settings( share, listen, check_for_updates, models_from_local_on
args.sample_batch_size = sample_batch_size args.sample_batch_size = sample_batch_size
args.embed_output_metadata = embed_output_metadata args.embed_output_metadata = embed_output_metadata
args.latents_lean_and_mean = latents_lean_and_mean args.latents_lean_and_mean = latents_lean_and_mean
args.voice_fixer = voice_fixer
args.concurrency_count = concurrency_count args.concurrency_count = concurrency_count
args.output_sample_rate = output_sample_rate args.output_sample_rate = output_sample_rate
args.output_volume = output_volume args.output_volume = output_volume
@ -462,6 +471,7 @@ def export_exec_settings( share, listen, check_for_updates, models_from_local_on
'sample-batch-size': args.sample_batch_size, 'sample-batch-size': args.sample_batch_size,
'embed-output-metadata': args.embed_output_metadata, 'embed-output-metadata': args.embed_output_metadata,
'latents-lean-and-mean': args.latents_lean_and_mean, 'latents-lean-and-mean': args.latents_lean_and_mean,
'voice-fixer': args.voice_fixer,
'concurrency-count': args.concurrency_count, 'concurrency-count': args.concurrency_count,
'output-sample-rate': args.output_sample_rate, 'output-sample-rate': args.output_sample_rate,
'output-volume': args.output_volume, 'output-volume': args.output_volume,
@ -480,6 +490,7 @@ def setup_args():
'sample-batch-size': None, 'sample-batch-size': None,
'embed-output-metadata': True, 'embed-output-metadata': True,
'latents-lean-and-mean': True, 'latents-lean-and-mean': True,
'voice-fixer': True,
'cond-latent-max-chunk-size': 1000000, 'cond-latent-max-chunk-size': 1000000,
'concurrency-count': 2, 'concurrency-count': 2,
'output-sample-rate': 44100, 'output-sample-rate': 44100,
@ -500,6 +511,7 @@ def setup_args():
parser.add_argument("--low-vram", action='store_true', default=default_arguments['low-vram'], help="Disables some optimizations that increases VRAM usage") parser.add_argument("--low-vram", action='store_true', default=default_arguments['low-vram'], help="Disables some optimizations that increases VRAM usage")
parser.add_argument("--no-embed-output-metadata", action='store_false', default=not default_arguments['embed-output-metadata'], help="Disables embedding output metadata into resulting WAV files for easily fetching its settings used with the web UI (data is stored in the lyrics metadata tag)") parser.add_argument("--no-embed-output-metadata", action='store_false', default=not default_arguments['embed-output-metadata'], help="Disables embedding output metadata into resulting WAV files for easily fetching its settings used with the web UI (data is stored in the lyrics metadata tag)")
parser.add_argument("--latents-lean-and-mean", action='store_true', default=default_arguments['latents-lean-and-mean'], help="Exports the bare essentials for latents.") parser.add_argument("--latents-lean-and-mean", action='store_true', default=default_arguments['latents-lean-and-mean'], help="Exports the bare essentials for latents.")
parser.add_argument("--voice-fixer", action='store_true', default=default_arguments['voice-fixer'], help="Uses python module 'voicefixer' to improve audio quality, if available.")
parser.add_argument("--cond-latent-max-chunk-size", default=default_arguments['cond-latent-max-chunk-size'], type=int, help="Sets an upper limit to audio chunk size when computing conditioning latents") parser.add_argument("--cond-latent-max-chunk-size", default=default_arguments['cond-latent-max-chunk-size'], type=int, help="Sets an upper limit to audio chunk size when computing conditioning latents")
parser.add_argument("--sample-batch-size", default=default_arguments['sample-batch-size'], type=int, help="Sets an upper limit to audio chunk size when computing conditioning latents") parser.add_argument("--sample-batch-size", default=default_arguments['sample-batch-size'], type=int, help="Sets an upper limit to audio chunk size when computing conditioning latents")
parser.add_argument("--concurrency-count", type=int, default=default_arguments['concurrency-count'], help="How many Gradio events to process at once") parser.add_argument("--concurrency-count", type=int, default=default_arguments['concurrency-count'], help="How many Gradio events to process at once")
@ -526,6 +538,17 @@ def setup_args():
def setup_tortoise(): def setup_tortoise():
global args global args
global voicefixer
if args.voice_fixer:
try:
from voicefixer import VoiceFixer
print("Initializating voice-fixer")
voicefixer = VoiceFixer()
print("initialized voice-fixer")
except Exception as e:
pass
print("Initializating TorToiSe...") print("Initializating TorToiSe...")
tts = TextToSpeech(minor_optimizations=not args.low_vram) tts = TextToSpeech(minor_optimizations=not args.low_vram)
print("TorToiSe initialized, ready for generation.") print("TorToiSe initialized, ready for generation.")
@ -736,6 +759,7 @@ def setup_gradio():
gr.Checkbox(label="Low VRAM", value=args.low_vram), gr.Checkbox(label="Low VRAM", value=args.low_vram),
gr.Checkbox(label="Embed Output Metadata", value=args.embed_output_metadata), gr.Checkbox(label="Embed Output Metadata", value=args.embed_output_metadata),
gr.Checkbox(label="Slimmer Computed Latents", value=args.latents_lean_and_mean), gr.Checkbox(label="Slimmer Computed Latents", value=args.latents_lean_and_mean),
gr.Checkbox(label="Voice Fixer", value=args.voice_fixer),
] ]
gr.Button(value="Check for Updates").click(check_for_updates) gr.Button(value="Check for Updates").click(check_for_updates)
gr.Button(value="Reload TTS").click(reload_tts) gr.Button(value="Reload TTS").click(reload_tts)