[EMNLP 2021] Distantly-Supervised Named Entity Recognition with Noise-Robust Learning and Language Model Augmented Self-Training

Overview

RoSTER

The source code used for Distantly-Supervised Named Entity Recognition with Noise-Robust Learning and Language Model Augmented Self-Training, published in EMNLP 2021.

Requirements

At least one GPU is required to run the code.

Before running, you need to first install the required packages by typing following commands:

$ pip3 install -r requirements.txt

Python 3.6 or above is strongly recommended; using older python versions might lead to package incompatibility issues.

Reproducing the Results

The three datasets used in the paper can be found under the data directory. We provide three bash scripts run_conll.sh, run_onto.sh and run_wikigold.sh for running the model on the three datasets.

Note: Our model does not use any ground truth training/valid/test set labels but only distant labels; we provide the ground truth label files only for completeness and evaluation.

The training bash scripts assume you use one GPU for training (a GPU with around 20GB memory would be sufficient). If your GPUs have smaller memory sizes, try increasing gradient_accumulation_steps or using more GPUs (by setting the CUDA_VISIBLE_DEVICES environment variable). However, the train_batch_size should be always kept as 32.

Command Line Arguments

The meanings of the command line arguments will be displayed upon typing

python src/train.py -h

The following arguments are important and need to be set carefully:

  • train_batch_size: The effective training batch size after gradient accumulation. Usually 32 is good for different datasets.
  • gradient_accumulation_steps: Increase this value if your GPU cannot hold the training batch size (while keeping train_batch_size unchanged).
  • eval_batch_size: This argument only affects the speed of the algorithm; use as large evaluation batch size as your GPUs can hold.
  • max_seq_length: This argument controls the maximum length of sequence fed into the model (longer sequences will be truncated). Ideally, max_seq_length should be set to the length of the longest document (max_seq_length cannot be larger than 512 under RoBERTa architecture), but using larger max_seq_length also consumes more GPU memory, resulting in smaller batch size and longer training time. Therefore, you can trade model accuracy for faster training by reducing max_seq_length.
  • noise_train_epochs, ensemble_train_epochs, self_train_epochs: They control how many epochs to train the model for noise-robust training, ensemble model trianing and self-training, respectively. Their default values will be a good starting point for most datasets, but you may increase them if your dataset is small (e.g., Wikigold dataset) and decrease them if your dataset is large (e.g., OntoNotes dataset).
  • q, tau: Hyperparameters used for noise-robust training. Their default values will be a good starting point for most datasets, but you may use higher values if your dataset is more noisy and use lower values if your dataset is cleaner.
  • noise_train_update_interval, self_train_update_interval: They control how often to update training label weights in noise-robust training and compute soft labels in soft-training, respectively. Their default values will be a good starting point for most datasets, but you may use smaller values (more frequent updates) if your dataset is small (e.g., Wikigold dataset).

Other arguments can be kept as their default values.

Running on New Datasets

To execute the code on a new dataset, you need to

  1. Create a directory named your_dataset under data.
  2. Prepare a training corpus train_text.txt (one sequence per line; words separated by whitespace) and the corresponding distant label train_label_dist.txt (one sequence per line; labels separated by whitespace) under your_dataset for training the NER model.
  3. Prepare an entity type file types.txt under your_dataset (each line contains one entity type; no need to include O class; no need to prepend I-/B- to type names). The entity type names need to be consistant with those in train_label_dist.txt.
  4. (Optional) You can choose to provide a test corpus test_text.txt (one sequence per line) with ground truth labels test_label_true.txt (one sequence per line; labels separated by whitespace). If the test corpus is provided and the command line argument do_eval is turned on, the code will display evaluation results on the test set during training, which is useful for tuning hyperparameters and monitoring the training progress.
  5. Run the code with appropriate command line arguments (I recommend creating a new bash script by referring to the three example scripts).
  6. The final trained classification model will be saved as final_model.pt under the output directory specified by the command line argument output_dir.

You can always refer to the example datasets when preparing your own datasets.

Citations

Please cite the following paper if you find the code helpful for your research.

@inproceedings{meng2021distantly,
  title={Distantly-Supervised Named Entity Recognition with Noise-Robust Learning and Language Model Augmented Self-Training},
  author={Meng, Yu and Zhang, Yunyi and Huang, Jiaxin and Wang, Xuan and Zhang, Yu and Ji, Heng and Han, Jiawei},
  booktitle={Proceedings of the 2021 Conference on Empirical Methods in Natural Language Processing},
  year={2021},
}
Owner
Yu Meng
Ph.D. student, Text Mining
Yu Meng
Code for ICCV 2021 paper Graph-to-3D: End-to-End Generation and Manipulation of 3D Scenes using Scene Graphs

Graph-to-3D This is the official implementation of the paper Graph-to-3d: End-to-End Generation and Manipulation of 3D Scenes Using Scene Graphs | arx

Helisa Dhamo 33 Jan 06, 2023
GANSketchingJittor - Implementation of Sketch Your Own GAN in Jittor

GANSketching in Jittor Implementation of (Sketch Your Own GAN) in Jittor(计图). Or

Bernard Tan 10 Jul 02, 2022
Some methods for comparing network representations in deep learning and neuroscience.

Generalized Shape Metrics on Neural Representations In neuroscience and in deep learning, quantifying the (dis)similarity of neural representations ac

Alex Williams 45 Dec 27, 2022
Implementation of the GVP-Transformer, which was used in the paper "Learning inverse folding from millions of predicted structures" for de novo protein design alongside Alphafold2

GVP Transformer (wip) Implementation of the GVP-Transformer, which was used in the paper Learning inverse folding from millions of predicted structure

Phil Wang 19 May 06, 2022
Implementation of Deep Deterministic Policy Gradiet Algorithm in Tensorflow

ddpg-aigym Deep Deterministic Policy Gradient Implementation of Deep Deterministic Policy Gradiet Algorithm (Lillicrap et al.arXiv:1509.02971.) in Ten

Steven Spielberg P 247 Dec 07, 2022
code for paper "Not All Unlabeled Data are Equal: Learning to Weight Data in Semi-supervised Learning" by Zhongzheng Ren*, Raymond A. Yeh*, Alexander G. Schwing.

Not All Unlabeled Data are Equal: Learning to Weight Data in Semi-supervised Learning Overview This code is for paper: Not All Unlabeled Data are Equa

Jason Ren 22 Nov 23, 2022
(Personalized) Page-Rank computation using PyTorch

torch-ppr This package allows calculating page-rank and personalized page-rank via power iteration with PyTorch, which also supports calculation on GP

Max Berrendorf 69 Dec 03, 2022
Deformable DETR is an efficient and fast-converging end-to-end object detector.

Deformable DETR: Deformable Transformers for End-to-End Object Detection.

2k Jan 05, 2023
Joint deep network for feature line detection and description

SOLD² - Self-supervised Occlusion-aware Line Description and Detection This repository contains the implementation of the paper: SOLD² : Self-supervis

Computer Vision and Geometry Lab 427 Dec 27, 2022
Density-aware Single Image De-raining using a Multi-stream Dense Network (CVPR 2018)

DID-MDN Density-aware Single Image De-raining using a Multi-stream Dense Network He Zhang, Vishal M. Patel [Paper Link] (CVPR'18) We present a novel d

He Zhang 224 Dec 12, 2022
Noise Conditional Score Networks (NeurIPS 2019, Oral)

Generative Modeling by Estimating Gradients of the Data Distribution This repo contains the official implementation for the NeurIPS 2019 paper Generat

451 Dec 26, 2022
Official implementation of the paper "Steganographer Detection via a Similarity Accumulation Graph Convolutional Network"

SAGCN - Official PyTorch Implementation | Paper | Project Page This is the official implementation of the paper "Steganographer detection via a simila

ZHANG Zhi 1 Nov 26, 2021
Fast Axiomatic Attribution for Neural Networks (NeurIPS*2021)

Fast Axiomatic Attribution for Neural Networks This is the official repository accompanying the NeurIPS 2021 paper: R. Hesse, S. Schaub-Meyer, and S.

Visual Inference Lab @TU Darmstadt 11 Nov 21, 2022
Implementation of FSGNN

FSGNN Implementation of FSGNN. For more details, please refer to our paper Experiments were conducted with following setup: Pytorch: 1.6.0 Python: 3.8

19 Dec 05, 2022
Bayesian-Torch is a library of neural network layers and utilities extending the core of PyTorch to enable the user to perform stochastic variational inference in Bayesian deep neural networks

Bayesian-Torch is a library of neural network layers and utilities extending the core of PyTorch to enable the user to perform stochastic variational inference in Bayesian deep neural networks. Bayes

Intel Labs 210 Jan 04, 2023
Picasso: A CUDA-based Library for Deep Learning over 3D Meshes

The Picasso Library is intended for complex real-world applications with large-scale surfaces, while it also performs impressively on the small-scale applications over synthetic shape manifolds. We h

97 Dec 01, 2022
A curated list of awesome Active Learning

Awesome Active Learning 🤩 A curated list of awesome Active Learning ! 🤩 Background (image source: Settles, Burr) What is Active Learning? Active lea

BAI Fan 431 Jan 03, 2023
Official PyTorch implementation of Synergies Between Affordance and Geometry: 6-DoF Grasp Detection via Implicit Representations

Synergies Between Affordance and Geometry: 6-DoF Grasp Detection via Implicit Representations Zhenyu Jiang, Yifeng Zhu, Maxwell Svetlik, Kuan Fang, Yu

UT-Austin Robot Perception and Learning Lab 63 Jan 03, 2023
LSTM-VAE Implementation and Relevant Evaluations

LSTM-VAE Implementation and Relevant Evaluations Before using any file in this repository, please create two directories under the root directory name

Lan Zhang 5 Oct 08, 2022
Image Lowpoly based on Centroid Voronoi Diagram via python-opencv and taichi

CVTLowpoly: Image Lowpoly via Centroid Voronoi Diagram Image Sharp Feature Extraction using Guide Filter's Local Linear Theory via opencv-python. The

Pupa 4 Jul 29, 2022