A diff tool for language models

Overview

LMdiff

Qualitative comparison of large language models.

Demo & Paper: http://lmdiff.net

LMdiff is a MIT-IBM Watson AI Lab collaboration between:
Hendrik Strobelt (IBM, MIT) , Benjamin Hoover (IBM, GeorgiaTech), Arvind Satyanarayan (MIT), and Sebastian Gehrmann (HarvardNLP, Google).

Setting up / Quick start

From the root directory install Conda dependencies:

conda env create -f environment.yml
conda activate LMdiff
pip install -e .

Run the backend in development mode, deploying default models and configurations:

uvicorn backend.server:app --reload

Check the output for the right port (something like http://localhost:8000) and open in Browser.

Rebuild frontend

This is optional, because we have a compiled version checked into this repo.

cd client
npm install
npm run build:backend
cd ..

Using your own models

To use your own models:

  1. Create a TextDataset of phrases to analyze

    You can create the dataset file in several ways:

    From a text file So you have already collected all the phrases you want into a text file separated by newlines. Simply run:
    python scripts/make_dataset.py path/to/my_dataset.txt my_dataset -o folder/i/want/to/save/in
    
    From a python object (list of strings) Want to only work within python?
    from analysis.create_dataset import create_text_dataset_from_object
    
    my_collection = ["Phrase 1", "My second phrase"]
    create_text_dataset_from_object(my_collection, "easy-first-dataset", "human_created", "folder/i/want/to/save/in")
    From [Huggingface Datasets](https://huggingface.co/docs/datasets/) It can be created from one of Huggingface's provided datasets with:
    from analysis.create_dataset import create_text_dataset_from_hf_datasets
    import datasets
    import path_fixes as pf
    
    glue_mrpc = datasets.load_dataset("glue", "mrpc", split="train")
    name = "glue_mrpc_train"
    
    def ds2str(glue):
        """(e.g.,) Turn the first 50 sentences of the dataset into sentence information"""
        sentences = glue['sentence1'][:50]
        return "\n".join(sentences)
    
    create_text_dataset_from_hf_datasets(glue_mrpc, name, ds2str, ds_type="human_created", outfpath=pf.DATASETS)

    The dataset is a simple .txt file, with a new phrase on every line, and with a bit of required metadata header at the top. E.g.,

    ---
    checksum: 92247a369d5da32a44497be822d4a90879807a8751f5db3ff1926adbeca7ba28
    name: dataset-dummy
    type: human_created
    ---
    
    This is sentence 1, please analyze this.
    Every line is a new phrase to pass to the model.
    I can keep adding phrases, so long as they are short enough to pass to the model. They don't even need to be one sentence long.
    

    The required fields in the header:

    • checksum :: A unique identifier for the state of that file. It can be calculated however you wish, but it should change if anything at all changes in the contents below (e.g., two phrases are transposed, a new phase added, or a period is added after a sentence)
    • name :: The name of the dataset.
    • type :: Either human_created or machine_generated if you want to compare on a dataset that was spit out by another model

    Each line in the contents is a new phrase to compare in the language model. A few warnings:

    • Make sure the phrases are short enough that they can be passed to the model given your memory constraints
    • The dataset is fully loaded into memory to serve to the front end, so avoid creating a text file that is too large to fit in memory.
  2. Choose two comparable models

    Two models are comparable if they:

    1. Have the exact same tokenization scheme
    2. Have the exact same vocabulary

    This allows us to do tokenwise comparisons on the model. For example, this could be:

    • A pretrained model and a finetuned version of it (e.g., distilbert-base-cased and distilbert-base-uncased-finetuned-sst-2-english)
    • A distilled version mimicking the original model (e.g., bert-base-cased and distilbert-base-cased)
    • Different sizes of the same model architecture (e.g., gpt2 and gpt2-large)
  3. Preprocess the models on the chosen dataset

    python scripts/preprocess.py all gpt2-medium distilgpt2 data/datasets/glue_mrpc_1+2.csv --output-dir data/sample/gpt2-glue-comparisons
    
  4. Start the app

    python backend/server/main.py --config data/sample/gpt2-glue-comparisons
    

    Note that if you use a different tokenization scheme than the default gpt, you will need to tell the frontend how to visualize the tokens. For example, a bert based tokenization scheme:

    python backend/server/main.py --config data/sample/bert-glue-comparisons -t bert
    

Architecture

LMdiff Architecture

(Admin) Getting the Data

Models and datasets for the deployed app are stored on the cloud and require a private .dvc/config file.

With the correct config:

dvc pull

will populate the data directories correctly for the deployed version.

Testing
make test

or

python -m pytest tests

All tests are stored in tests.

Frontend

We like pnpm but npm works just as well. We also like Vite for its rapid hot module reloading and pleasant dev experience. This repository uses Vue as a reactive framework.

From the root directory:

cd client
pnpm install --save-dev
pnpm run dev

If you want to hit the backend routes, make sure to also run the uvicorn backend.server:app command from the project root.

For production (serve with Vite)
pnpm run serve
For production (serve with this repo's FastAPI server)
cd client
pnpm run build:backend
cd ..
uvicorn backend.server:app

Or the gunicorn command from above.

All artifacts are stored in the client/dist directory with the appropriate basepath.

For production (serve with external tooling like NGINX)
pnpm run build

All artifacts are stored in the client/dist directory.

Notes

  • Check the endpoints by visiting <localhost>:<port>/docs
Owner
Hendrik Strobelt
IBM Research // MIT-IBM AI Lab Updates on Twitter: @hen_str
Hendrik Strobelt
Bot developed in Python that automates races in pegaxy.

español | português About it: This is a fork from pega-racing-bot. This bot, developed in Python, is to automate races in pegaxy. The game developers

4 Apr 08, 2022
ConE: Cone Embeddings for Multi-Hop Reasoning over Knowledge Graphs

ConE: Cone Embeddings for Multi-Hop Reasoning over Knowledge Graphs This is the code of paper ConE: Cone Embeddings for Multi-Hop Reasoning over Knowl

MIRA Lab 33 Dec 07, 2022
Code for our paper "Graph Pre-training for AMR Parsing and Generation" in ACL2022

AMRBART An implementation for ACL2022 paper "Graph Pre-training for AMR Parsing and Generation". You may find our paper here (Arxiv). Requirements pyt

xfbai 60 Jan 03, 2023
ComPhy: Compositional Physical Reasoning ofObjects and Events from Videos

ComPhy This repository holds the code for the paper. ComPhy: Compositional Physical Reasoning ofObjects and Events from Videos, (Under review) PDF Pro

29 Dec 29, 2022
Neural Articulated Radiance Field

Neural Articulated Radiance Field NARF Neural Articulated Radiance Field Atsuhiro Noguchi, Xiao Sun, Stephen Lin, Tatsuya Harada ICCV 2021 [Paper] [Co

Atsuhiro Noguchi 144 Jan 03, 2023
Perform zero-order Hankel Transform for an 1D array (float or real valued).

perform zero-order Hankel Transform for an 1D array (float or real valued). An discrete form of Parseval theorem is guaranteed. Suit for iterative problems.

1 Jan 17, 2022
Dataloader tools for language modelling

Installation: pip install lm_dataloader Design Philosophy A library to unify lm dataloading at large scale Simple interface, any tokenizer can be inte

5 Mar 25, 2022
Implementation for "Seamless Manga Inpainting with Semantics Awareness" (SIGGRAPH 2021 issue)

Seamless Manga Inpainting with Semantics Awareness [SIGGRAPH 2021](To appear) | Project Website | BibTex Introduction: Manga inpainting fills up the d

101 Jan 01, 2023
Learning from Synthetic Humans, CVPR 2017

Learning from Synthetic Humans (SURREAL) Gül Varol, Javier Romero, Xavier Martin, Naureen Mahmood, Michael J. Black, Ivan Laptev and Cordelia Schmid,

Gul Varol 538 Dec 18, 2022
Robot Reinforcement Learning on the Constraint Manifold

Implementation of "Robot Reinforcement Learning on the Constraint Manifold"

31 Dec 05, 2022
EMNLP 2021: Single-dataset Experts for Multi-dataset Question-Answering

MADE (Multi-Adapter Dataset Experts) This repository contains the implementation of MADE (Multi-adapter dataset experts), which is described in the pa

Princeton Natural Language Processing 68 Jul 18, 2022
Implementation for paper "Towards the Generalization of Contrastive Self-Supervised Learning"

Contrastive Self-Supervised Learning on CIFAR-10 Paper "Towards the Generalization of Contrastive Self-Supervised Learning", Weiran Huang, Mingyang Yi

Weiran Huang 13 Nov 30, 2022
RaftMLP: How Much Can Be Done Without Attention and with Less Spatial Locality?

RaftMLP RaftMLP: How Much Can Be Done Without Attention and with Less Spatial Locality? By Yuki Tatsunami and Masato Taki (Rikkyo University) [arxiv]

Okojo 20 Aug 31, 2022
Playable Video Generation

Playable Video Generation Playable Video Generation Willi Menapace, Stéphane Lathuilière, Sergey Tulyakov, Aliaksandr Siarohin, Elisa Ricci Paper: ArX

Willi Menapace 136 Dec 31, 2022
This repo contains the official code of our work SAM-SLR which won the CVPR 2021 Challenge on Large Scale Signer Independent Isolated Sign Language Recognition.

Skeleton Aware Multi-modal Sign Language Recognition By Songyao Jiang, Bin Sun, Lichen Wang, Yue Bai, Kunpeng Li and Yun Fu. Smile Lab @ Northeastern

Isen (Songyao Jiang) 128 Dec 08, 2022
A Large Scale Benchmark for Individual Treatment Effect Prediction and Uplift Modeling

large-scale-ITE-UM-benchmark This repository contains code and data to reproduce the results of the paper "A Large Scale Benchmark for Individual Trea

10 Nov 19, 2022
Official code for "InfoGraph: Unsupervised and Semi-supervised Graph-Level Representation Learning via Mutual Information Maximization" (ICLR 2020, spotlight)

InfoGraph: Unsupervised and Semi-supervised Graph-Level Representation Learning via Mutual Information Maximization Authors: Fan-yun Sun, Jordan Hoffm

Fan-Yun Sun 232 Dec 28, 2022
U2-Net: Going Deeper with Nested U-Structure for Salient Object Detection

The code for our newly accepted paper in Pattern Recognition 2020: "U^2-Net: Going Deeper with Nested U-Structure for Salient Object Detection."

Xuebin Qin 6.5k Jan 09, 2023
Unofficial PyTorch implementation of Guided Dropout

Unofficial PyTorch implementation of Guided Dropout This is a simple implementation of Guided Dropout for research. We try to reproduce the algorithm

2 Jan 07, 2022
This is an official implementation of the High-Resolution Transformer for Dense Prediction.

High-Resolution Transformer for Dense Prediction Introduction This is the official implementation of High-Resolution Transformer (HRT). We present a H

HRNet 403 Dec 13, 2022