Code for paper "Do Language Models Have Beliefs? Methods for Detecting, Updating, and Visualizing Model Beliefs"

Overview

This is the codebase for the paper: Do Language Models Have Beliefs? Methods for Detecting, Updating, and Visualizing Model Beliefs

Directory Structure

data/ --> data folder including splits we use for FEVER, zsRE, Wikidata5m, and LeapOfThought
training_reports/ --> folder to be populated with individual training run reports produced by main.py
result_sheets/ --> folder to be populated with .csv's of results from experiments produced by main.py
aggregated_results/ --> contains combined experiment results produced by run_jobs.py
outputs/ --> folder to be populated with analysis results, including belief graphs and bootstrap outputs
models/ --> contains model wrappers for Huggingface models and the learned optimizer code
data_utils/ --> contains scripts for making all datasets used in paper
main.py --> main script for all individual experiments in the paper
metrics.py --> functions for calculing metrics reported in the paper
utils.py --> data loading and miscellaneous utilities
run_jobs.py --> script for running groups of experiments
statistical_analysis.py --> script for running bootstraps with the experimental results
data_analysis.Rmd --> R markdown file that makes plots using .csv's in result_sheets
requirements.txt --> contains required packages

Requirements

The code is compatible with Python 3.6+. data_analysis.Rmd is an R markdown file that makes all the plots in the paper.

The required packages can be installed by running:

pip install -r requirements.txt

If you wish to visualize belief graphs, you should also install a few packages as so:

sudo apt install python-pydot python-pydot-ng graphviz

Making Data

We include the data splits from the paper in data/ (though the train split for Wikidata5m is divided into two files that need to be locally combined.) To construct the datasets from scratch, you can follow a few steps:

  1. Set the DATA_DIR environment variable to where you'd like the data to be stored. Set the CODE_DIR to point to the directory where this code is.
  2. Run the following blocks of code

Make FEVER and ZSRE

cd $DATA_DIR
git clone https://github.com/facebookresearch/KILT.git
cd KILT
mkdir data
python scripts/download_all_kilt_data.py
mv data/* ./
cd $CODE_DIR
python data_utils/shuffle_fever_splits.py
python data_utils/shuffle_zsre_splits.py

Make Leap-Of-Thought

cd $DATA_DIR
git clone https://github.com/alontalmor/LeapOfThought.git
cd LeapOfThought
python -m LeapOfThought.run -c Hypernyms --artiset_module soft_reasoning -o build_artificial_dataset -v training_mix -out taxonomic_reasonings.jsonl.gz
gunzip taxonomic_reasonings_training_mix_train.jsonl.gz taxonomic_reasonings_training_mix_dev.jsonl.gz taxonomic_reasonings_training_mix_test.jsonl.gz taxonomic_reasonings_training_mix_meta.jsonl.gz
cd $CODE_DIR
python data_utils/shuffle_leapofthought_splits.py

Make Wikidata5m

cd $DATA_DIR
mkdir Wikidata5m
cd Wikidata5m
wget https://www.dropbox.com/s/6sbhm0rwo4l73jq/wikidata5m_transductive.tar.gz
wget https://www.dropbox.com/s/lnbhc8yuhit4wm5/wikidata5m_alias.tar.gz
tar -xvzf wikidata5m_transductive.tar.gz
tar -xvzf wikidata5m_alias.tar.gz
cd $CODE_DIR
python data_utils/filter_wikidata.py

Experiment Replication

Experiment commands require a few arguments: --data_dir points to where the data is. --save_dir points to where models should be saved. --cache_dir points to where pretrained models will be stored. --gpu indicates the GPU device number. --seeds indicates how many seeds per condition to run. We give commands below for the experiments in the paper, saving everything in $DATA_DIR.

To train the task and prepare the necessary data for training learned optimizers, run:

python run_jobs.py -e task_model --seeds 5 --dataset all --data_dir $DATA_DIR --save_dir $DATA_DIR --cache_dir $DATA_DIR
python run_jobs.py -e write_LeapOfThought_preds --seeds 5 --dataset LeapOfThought --do_train false --data_dir $DATA_DIR --save_dir $DATA_DIR --cache_dir $DATA_DIR

To get the main experiments in a single-update setting, run:

python run_jobs.py -e learned_opt_main --seeds 5 --dataset all --data_dir $DATA_DIR --save_dir $DATA_DIR --cache_dir $DATA_DIR

For results in a sequential-update setting (with r=10) run:

python run_jobs.py -e learned_opt_r_main --seeds 5 --dataset all --data_dir $DATA_DIR --save_dir $DATA_DIR --cache_dir $DATA_DIR

To get the corresponding off-the-shelf optimizer baselines for these experiments, run

python run_jobs.py -e base_optimizers --seeds 5 --do_train false  --data_dir $DATA_DIR --save_dir $DATA_DIR --cache_dir $DATA_DIR
python run_jobs.py -e base_optimizers_r_main --seeds 5 --do_train false  --data_dir $DATA_DIR --save_dir $DATA_DIR --cache_dir $DATA_DIR

To get ablations across values of r for the learned optimizer and baselines, run

python run_jobs.py -e base_optimizers_r_ablation --seeds 1 --do_train false  --data_dir $DATA_DIR --save_dir $DATA_DIR --cache_dir $DATA_DIR

Next we give commands for for ablations across k, the choice of training labels, the choice of evaluation labels, training objective terms, and a comparison to the objective from de Cao (in order):

python run_jobs.py -e learned_opt_k_ablation --seeds 1 --dataset ZSRE  --data_dir $DATA_DIR --save_dir $DATA_DIR --cache_dir $DATA_DIR
python run_jobs.py -e learned_opt_label_ablation --seeds 1 --dataset ZSRE --data_dir $DATA_DIR --save_dir $DATA_DIR --cache_dir $DATA_DIR
python run_jobs.py -e learned_opt_eval_ablation --seeds 1 --dataset ZSRE  --data_dir $DATA_DIR --save_dir $DATA_DIR --cache_dir $DATA_DIR
python run_jobs.py -e learned_opt_objective_ablation --seeds 1 --dataset all  --data_dir $DATA_DIR --save_dir $DATA_DIR --cache_dir $DATA_DIR
python run_jobs.py -e learned_opt_de_cao --seeds 5 --dataset all --data_dir $DATA_DIR --save_dir $DATA_DIR --cache_dir $DATA_DIR

Analysis

Statistical Tests

After running an experiment from above, you can compute confidence intervals and hypothesis tests using statistical_analysis.py.

To get confidence intervals for the main single-update learned optimizer experiments, run

python statistical_analysis -e learned_opt_main -n 10000

To run hypothesis tests between statistics for the learned opt experiment and its baselines, run

python statistical_analysis -e learned_opt_main -n 10000 --hypothesis_tests true

You can substitute the experiment name for results for other conditions.

Belief Graphs

Add --save_dir, --cache_dir, and --data_dir arguments to the commands below per the instructions above.

Write preds from FEVER model:
python main.py --dataset FEVER --probing_style model --probe linear --model roberta-base --seed 0 --do_train false --do_eval true --write_preds_to_file true

Write graph to file:
python main.py --dataset FEVER --probing_style model --probe linear --model roberta-base --seed 0 --do_train false --do_eval true --test_batch_size 64 --update_eval_truthfully false --fit_to_alt_labels true --update_beliefs true --optimizer adamw --lr 1e-6 --update_steps 100 --update_all_points true --write_graph_to_file true --use_dev_not_test false --num_random_other 10444

Analyze graph:
python main.py --dataset FEVER --probing_style model --probe linear --model roberta-base --seed 0 --test_batch_size 64 --update_eval_truthfully false --fit_to_alt_labels true --update_beliefs true --use_dev_not_test false --optimizer adamw --lr 1e-6 --update_steps 100 --do_train false --do_eval false --pre_eval false --do_graph_analysis true

Combine LeapOfThought Main Inputs and Entailed Data:
python data_utils/combine_leapofthought_data.py

Write LeapOfThought preds to file:
python main.py --dataset LeapOfThought --probing_style model --probe linear --model roberta-base --seed 0 --do_train false --do_eval true --write_preds_to_file true --leapofthought_main main

Write graph for LeapOfThought:
python main.py --dataset LeapOfThought --leapofthought_main main --probing_style model --probe linear --model roberta-base --seed 0 --do_train false --do_eval true --test_batch_size 64 --update_eval_truthfully false --fit_to_alt_labels true --update_beliefs true --optimizer sgd --update_steps 100 --lr 1e-2 --update_all_points true --write_graph_to_file true --use_dev_not_test false --num_random_other 8642

Analyze graph (add --num_eval_points 2000 to compute update-transitivity):
python main.py --dataset LeapOfThought --leapofthought_main main --probing_style model --probe linear --model roberta-base --seed 0 --do_train false --do_eval true --test_batch_size 64 --update_eval_truthfully false --fit_to_alt_labels true --update_beliefs true --optimizer sgd --update_steps 100 --lr 1e-2 --do_train false --do_eval false --pre_eval false --do_graph_analysis true

Plots

The data_analysis.Rmd R markdown file contains code for plots in the paper. It reads data from aggregated_results and saves plots in a ./figures directory.

Owner
Peter Hase
I am a PhD student in the UNC-NLP group at UNC Chapel Hill.
Peter Hase
Official codes: Self-Supervised Learning by Estimating Twin Class Distribution

TWIST: Self-Supervised Learning by Estimating Twin Class Distributions Codes and pretrained models for TWIST: @article{wang2021self, title={Self-Sup

Bytedance Inc. 85 Dec 15, 2022
Codes for AAAI22 paper "Learning to Solve Travelling Salesman Problem with Hardness-Adaptive Curriculum"

Paper For more details, please see our paper Learning to Solve Travelling Salesman Problem with Hardness-Adaptive Curriculum which has been accepted a

14 Sep 30, 2022
The implementation of DeBERTa

DeBERTa: Decoding-enhanced BERT with Disentangled Attention This repository is the official implementation of DeBERTa: Decoding-enhanced BERT with Dis

Microsoft 1.2k Jan 06, 2023
Collection of common code that's shared among different research projects in FAIR computer vision team.

fvcore fvcore is a light-weight core library that provides the most common and essential functionality shared in various computer vision frameworks de

Meta Research 1.5k Jan 07, 2023
Semiconductor Machine learning project

Wafer Fault Detection Problem Statement: Wafer (In electronics), also called a slice or substrate, is a thin slice of semiconductor, such as a crystal

kunal suryawanshi 1 Jan 15, 2022
Bridging Composite and Real: Towards End-to-end Deep Image Matting

Bridging Composite and Real: Towards End-to-end Deep Image Matting Please note that the official repository of the paper Bridging Composite and Real:

Jizhizi_Li 30 Oct 31, 2022
Code for STFT Transformer used in BirdCLEF 2021 competition.

STFT_Transformer Code for STFT Transformer used in BirdCLEF 2021 competition. The STFT Transformer is a new way to use Transformers similar to Vision

Jean-François Puget 69 Sep 29, 2022
PyTorch implementation of neural style randomization for data augmentation

README Augment training images for deep neural networks by randomizing their visual style, as described in our paper: https://arxiv.org/abs/1809.05375

84 Nov 23, 2022
On the Analysis of French Phonetic Idiosyncrasies for Accent Recognition

On the Analysis of French Phonetic Idiosyncrasies for Accent Recognition With the spirit of reproducible research, this repository contains codes requ

0 Feb 24, 2022
CLASP - Contrastive Language-Aminoacid Sequence Pretraining

CLASP - Contrastive Language-Aminoacid Sequence Pretraining Repository for creating models pretrained on language and aminoacid sequences similar to C

Michael Pieler 133 Dec 29, 2022
PyTorch implementation for "Mining Latent Structures with Contrastive Modality Fusion for Multimedia Recommendation"

MIRCO PyTorch implementation for paper: Latent Structures Mining with Contrastive Modality Fusion for Multimedia Recommendation Dependencies Python 3.

Big Data and Multi-modal Computing Group, CRIPAC 9 Dec 08, 2022
A modular domain adaptation library written in PyTorch.

A modular domain adaptation library written in PyTorch.

Kevin Musgrave 225 Dec 29, 2022
Fully Convolutional DenseNet (A.K.A 100 layer tiramisu) for semantic segmentation of images implemented in TensorFlow.

FC-DenseNet-Tensorflow This is a re-implementation of the 100 layer tiramisu, technically a fully convolutional DenseNet, in TensorFlow (Tiramisu). Th

Hasnain Raza 121 Oct 12, 2022
GitHub repository for "Improving Video Generation for Multi-functional Applications"

Improving Video Generation for Multi-functional Applications GitHub repository for "Improving Video Generation for Multi-functional Applications" Pape

Bernhard Kratzwald 328 Dec 07, 2022
Experiments with Fourier layers on simulation data.

Factorized Fourier Neural Operators This repository contains the code to reproduce the results in our NeurIPS 2021 ML4PS workshop paper, Factorized Fo

Alasdair Tran 57 Dec 25, 2022
GT China coal model

GT China coal model The full version of a China coal transport model with a very high spatial reslution. What it does The code works in a few steps: T

0 Dec 13, 2021
NVIDIA container runtime

nvidia-container-runtime A modified version of runc adding a custom pre-start hook to all containers. If environment variable NVIDIA_VISIBLE_DEVICES i

NVIDIA Corporation 938 Jan 06, 2023
Open source Python implementation of the HDR+ photography pipeline

hdrplus-python Open source Python implementation of the HDR+ photography pipeline, originally developped by Google and presented in a 2016 article. Th

77 Jan 05, 2023
Cold Brew: Distilling Graph Node Representations with Incomplete or Missing Neighborhoods

Cold Brew: Distilling Graph Node Representations with Incomplete or Missing Neighborhoods Introduction Graph Neural Networks (GNNs) have demonstrated

37 Dec 15, 2022
Implementation of StyleSpace Analysis: Disentangled Controls for StyleGAN Image Generation in PyTorch

StyleSpace Analysis: Disentangled Controls for StyleGAN Image Generation Implementation of StyleSpace Analysis: Disentangled Controls for StyleGAN Ima

Xuanchi Ren 86 Dec 07, 2022