Non-Attentive-Tacotron - This is Pytorch Implementation of Google's Non-attentive Tacotron.

Overview

Non-attentive Tacotron - PyTorch Implementation

This is Pytorch Implementation of Google's Non-attentive Tacotron, text-to-speech system. There is some minor modifications to the original paper. We use grapheme directly, not phoneme. For that reason, we use grapheme based forced aligner by using Wav2vec 2.0. We also separate special characters from basic characters, and each is used for embedding respectively. This project is based on NVIDIA tacotron2. Feel free to use this code.

Install

  • Before you start the code, you have to check your python>=3.6, torch>=1.10.1, torchaudio>=0.10.0 version.
  • Torchaudio version is strongly restrict because of recent modification.
  • We support docker image file that we used for this implementation.
  • or You can install a package through the command below:
## download the git repository
git clone https://github.com/JoungheeKim/Non-Attentive-Tacotron.git
cd Non-Attentive-Tacotron

## install python dependency
pip install -r requirements.txt

## install this implementation locally for further development
python setup.py develop

Quickstart

  • Install a package.
  • Download Pretrained tacotron models through links below:
    • LJSpeech-1.1 (English, single-female speaker)
      • trained for 40,000 steps with 32 batch size, 8 accumulation) [LINK]
    • KSS Dataset (Korean, single-female speaker)
      • trained for 40,000 steps with 32 batch size, 8 accumulation) [LINK]
      • trained for 110,000 steps with 32 batch size, 8 accumulation) [LINK]
  • Download Pretrained VocGAN vocoder corresponding tacotron model in this [LINK]
  • Run a python code below:
## import library
from tacotron import get_vocgan
from tacotron.model import NonAttentiveTacotron
from tacotron.tokenizer import BaseTokenizer
import torch

## set device
device = torch.device('cuda' if torch.cuda.is_available() else 'cpu')

## set pretrained model path
generator_path = '???'
tacotron_path = '???'

## load generator model
generator = get_vocgan(generator_path)
generator.eval()

## load tacotron model
tacotron = NonAttentiveTacotron.from_pretrained(tacotron_path)
tacotron.eval()

## load tokenizer
tokenizer = BaseTokenizer.from_pretrained(tacotron_path)

## Inference
text = 'This is a non attentive tacotron.'
encoded_text = tokenizer.encode(text)
encoded_torch_text = {key: torch.tensor(item, dtype=torch.long).unsqueeze(0).to(device) for key, item in encoded_text.items()}

with torch.no_grad():
    ## make log mel-spectrogram
    tacotron_output = tacotron.inference(**encoded_torch_text)
    
    ## make audio
    audio = generator.generate_audio(**tacotron_output)

Preprocess & Train

1. Download Dataset

2. Build Forced Aligned Information.

  • Non-Attentive Tacotron is duration based model.
  • So, alignment information between grapheme and audio is essential.
  • We make alignment information using Wav2vec 2.0 released from fairseq.
  • We also support pretrained wav2vec 2.0 model for Korean in this [LINK].
  • The Korean Wav2vec 2.0 model is trained on aihub korean dialog dataset to generate grapheme based prediction described in K-Wav2vec 2.0.
  • The English model is automatically downloaded when you run the code.
  • Run the command below:
## 1. LJSpeech example
## set your data path and audio path(examples are below:)
AUDIO_PATH=/code/gitRepo/data/LJSpeech-1.1/wavs
SCRIPT_PATH=/code/gitRepo/data/LJSpeech-1.1/metadata.csv

## ljspeech forced aligner
## check config options in [configs/preprocess_ljspeech.yaml]
python build_aligned_info.py \
    base.audio_path=${AUDIO_PATH} \
    base.script_path=${SCRIPT_PATH} \
    --config-name preprocess_ljspeech
    
    
## 2. KSS Dataset 
## set your data path and audio path(examples are below:)
AUDIO_PATH=/code/gitRepo/data/kss
SCRIPT_PATH=/code/gitRepo/data/kss/transcript.v.1.4.txt
PRETRAINED_WAV2VEC=korean_wav2vec2

## kss forced aligner
## check config options in [configs/preprocess_kss.yaml]
python build_aligned_info.py \
    base.audio_path=${AUDIO_PATH} \
    base.script_path=${SCRIPT_PATH} \
    base.pretrained_model=${PRETRAINED_WAV2VEC} \
    --config-name preprocess_kss

3. Train & Evaluate

  • It is recommeded to download the pre-trained vocoder before training the non-attentive tacotron model to evaluate the model performance in training phrase.
  • You can download pre-trained VocGAN in this [LINK].
  • We only experiment with our codes on a one gpu such as 2080ti or TITAN RTX.
  • The robotic sounds are gone when I use batch size 32 with 8 accumulation corresponding to 256 batch size.
  • Run the command below:
## 1. LJSpeech example
## set your data generator path and save path(examples are below:)
GENERATOR_PATH=checkpoints_g/ljspeech_29de09d_4000.pt
SAVE_PATH=results/ljspeech

## train ljspeech non-attentive tacotron
## check config options in [configs/train_ljspeech.yaml]
python train.py \
    base.generator_path=${GENERATOR_PATH} \
    base.save_path=${SAVE_PATH} \
    --config-name train_ljspeech
  
  
    
## 2. KSS Dataset   
## set your data generator path and save path(examples are below:)
GENERATOR_PATH=checkpoints_g/vocgan_kss_pretrained_model_epoch_4500.pt
SAVE_PATH=results/kss

## train kss non-attentive tacotron
## check config options in [configs/train_kss.yaml]
python train.py \
    base.generator_path=${GENERATOR_PATH} \
    base.save_path=${SAVE_PATH} \
    --config-name train_kss

Audio Examples

Language Text with Accent(bold) Audio Sample
Korean 이 타코트론은 잘 작동한다. Sample
Korean 타코트론은 잘 작동한다. Sample
Korean 타코트론은 잘 작동한다. Sample
Korean 이 타코트론은 작동한다. Sample

Forced Aligned Information Examples

ToDo

  • Sometimes get torch NAN errors.(help me)
  • Remove robotic sounds in synthetic audio.

References

Owner
Jounghee Kim
I am interested in NLP, Representation Learning, Speech Recognition, Speech Generation.
Jounghee Kim
Speech Recognition is an important feature in several applications used such as home automation, artificial intelligence

Speech Recognition is an important feature in several applications used such as home automation, artificial intelligence, etc. This article aims to provide an introduction on how to make use of the S

RISHABH MISHRA 1 Feb 13, 2022
Large Scale Multi-Illuminant (LSMI) Dataset for Developing White Balance Algorithm under Mixed Illumination

Large Scale Multi-Illuminant (LSMI) Dataset for Developing White Balance Algorithm under Mixed Illumination (ICCV 2021) Dataset License This work is l

DongYoung Kim 33 Jan 04, 2023
Atif Hassan 103 Dec 14, 2022
Official implementation of DreamerPro: Reconstruction-Free Model-Based Reinforcement Learning with Prototypical Representations in TensorFlow 2

DreamerPro Official implementation of DreamerPro: Reconstruction-Free Model-Based Reinforcement Learning with Prototypical Representations in TensorFl

22 Nov 01, 2022
Face Recognition plus identification simply and fast | Python

PyFaceDetection Face Recognition plus identification simply and fast Ubuntu Setup sudo pip3 install numpy sudo pip3 install cmake sudo pip3 install dl

Peyman Majidi Moein 16 Sep 22, 2022
The source codes for TME-BNA: Temporal Motif-Preserving Network Embedding with Bicomponent Neighbor Aggregation.

TME The source codes for TME-BNA: Temporal Motif-Preserving Network Embedding with Bicomponent Neighbor Aggregation. Our implementation is based on TG

2 Feb 10, 2022
YOLOv5🚀 reproduction by Guo Quanhao using PaddlePaddle

YOLOv5-Paddle YOLOv5 🚀 reproduction by Guo Quanhao using PaddlePaddle 支持AutoBatch 支持AutoAnchor 支持GPU Memory 快速开始 使用AIStudio高性能环境快速构建YOLOv5训练(PaddlePa

QuanHao Guo 20 Nov 14, 2022
Complete system for facial identity system

Complete system for facial identity system. Include one-shot model, database operation, features visualization, monitoring

4 May 02, 2022
RETRO-pytorch - Implementation of RETRO, Deepmind's Retrieval based Attention net, in Pytorch

RETRO - Pytorch (wip) Implementation of RETRO, Deepmind's Retrieval based Attent

Phil Wang 556 Jan 04, 2023
(CVPR 2022) Pytorch implementation of "Self-supervised transformers for unsupervised object discovery using normalized cut"

(CVPR 2022) TokenCut Pytorch implementation of Tokencut: Self-supervised Transformers for Unsupervised Object Discovery using Normalized Cut Yangtao W

YANGTAO WANG 200 Jan 02, 2023
Guiding evolutionary strategies by (inaccurate) differentiable robot simulators @ NeurIPS, 4th Robot Learning Workshop

Guiding Evolutionary Strategies by Differentiable Robot Simulators In recent years, Evolutionary Strategies were actively explored in robotic tasks fo

Vladislav Kurenkov 4 Dec 14, 2021
API for RL algorithm design & testing of BCA (Building Control Agent) HVAC on EnergyPlus building energy simulator by wrapping their EMS Python API

RL - EmsPy (work In Progress...) The EmsPy Python package was made to facilitate Reinforcement Learning (RL) algorithm research for developing and tes

20 Jan 05, 2023
An Straight Dilated Network with Wavelet for image Deblurring

SDWNet: A Straight Dilated Network with Wavelet Transformation for Image Deblurring(offical) 1. Introduction This repo is not only used for our paper(

FlyEgle 41 Jan 04, 2023
UnpNet - Rethinking 3-D LiDAR Point Cloud Segmentation(IEEE TNNLS)

UnpNet Citation Please cite the following paper if you use this repository in your reseach. @article {PMID:34914599, Title = {Rethinking 3-D LiDAR Po

Shijie Li 4 Jul 15, 2022
Code To Tune or Not To Tune? Zero-shot Models for Legal Case Entailment.

COLIEE 2021 - task 2: Legal Case Entailment This repository contains the code to reproduce NeuralMind's submissions to COLIEE 2021 presented in the pa

NeuralMind 13 Dec 16, 2022
The Python ensemble sampling toolkit for affine-invariant MCMC

emcee The Python ensemble sampling toolkit for affine-invariant MCMC emcee is a stable, well tested Python implementation of the affine-invariant ense

Dan Foreman-Mackey 1.3k Dec 31, 2022
[ACM MM 2021] Joint Implicit Image Function for Guided Depth Super-Resolution

Joint Implicit Image Function for Guided Depth Super-Resolution This repository contains the code for: Joint Implicit Image Function for Guided Depth

hawkey 78 Dec 27, 2022
Code for classifying international patents based on the text of their titles/abstracts

Patent Classification Goal: To train a machine learning classifier that can automatically classify international patents downloaded from the WIPO webs

Prashanth Rao 1 Nov 08, 2022
Efficient Training of Visual Transformers with Small Datasets

Official codes for "Efficient Training of Visual Transformers with Small Datasets", NerIPS 2021.

Yahui Liu 112 Dec 25, 2022
The full training script for Enformer (Tensorflow Sonnet) on TPU clusters

Enformer TPU training script (wip) The full training script for Enformer (Tensorflow Sonnet) on TPU clusters, in an effort to migrate the model to pyt

Phil Wang 10 Oct 19, 2022