PiRank: Learning to Rank via Differentiable Sorting

Related tags

Deep Learningpirank
Overview

PiRank: Learning to Rank via Differentiable Sorting

This repository provides a reference implementation for learning PiRank-based models as described in the paper:

PiRank: Learning to Rank via Differentiable Sorting
Robin Swezey, Aditya Grover, Bruno Charron and Stefano Ermon.
Paper: https://arxiv.org/abs/2012.06731

Requirements

The codebase is implemented in Python 3.7. To install the necessary base requirements, run the following commands:

pip install -r requirements.txt

If you intend to use a GPU, modify requirements.txt to install tensorflow-gpu instead of tensorflow.

You will also need the NeuralSort implementation available here. Make sure it is added to your PYTHONPATH.

Datasets

PiRank was tested on the two following datasets:

Additionally, the code is expected to work with any dataset stored in the standard LibSVM format used for LTR experiments.

Scripts

There are two scripts for the code:

  • pirank_simple.py implements a simple depth-1 PiRank loss (d=1). It is used in the experiments of sections 4.1 (benchmark evaluation on MSLR-WEB30K and Yahoo! C14 datasets), 4.2.1 (effect of temperature parameter), and 4.2.2 (effect of training list size).

  • pirank_deep.py implements the deeper PiRank losses (d>=1). It is used for the experiments of section 4.2.3 and comes with a convenient synthetic data generator as well as more tuning options.

Options

Options are handled by Sacred (see Examples section below).

pirank_simple.py and pirank_deep.py

PiRank-related:

Parameter Default Value Description
loss_fn pirank_simple_loss The loss function to use (either a TFR RankingLossKey, or loss function from the script)
ste False Whether to use the Straight-Through Estimator
ndcg_k 15 [email protected] cutoff when using NS-NDCG loss

NeuralSort-related:

Parameter Default Value Description
tau 5 Temperature
taustar 1e-10 Temperature for trues and straight-through estimation.

TensorFlow-Ranking and architecture-related:

Parameter Default Value Description
hidden_layers "256,tanh,128,tanh,64,tanh" Hidden layers for an example-wise feedforward network in the format size,activation,...,size,activation
num_features 136 Number of features per document. The default value is for MSLR and depends on the dataset (e.g. for Yahoo!, please change to 700).
list_size 100 List size used for training
group_size 1 Group size used in score function

Training-related:

Parameter Default Value Description
train_path "/data/MSLR-WEB30K/Fold*/train.txt" Input file path used for training
vali_path "/data/MSLR-WEB30K/Fold*/vali.txt" Input file path used for validation
test_path "/data/MSLR-WEB30K/Fold*/test.txt" Input file path used for testing
model_dir None Output directory for models
num_epochs 200 Number of epochs to train, set 0 to just test
lr 1e-4 initial learning rate
batch_size 32 The batch size for training
num_train_steps None Number of steps for training
num_vali_steps None Number of steps for validation
num_test_steps None Number of steps for testing
learning_rate 0.01 Learning rate for optimizer
dropout_rate 0.5 The dropout rate before output layer
optimizer Adagrad The optimizer for gradient descent

Sacred:

In addition, you can use regular parameters from Sacred (such as -m for logging the experiment to MongoDB).

pirank_deep.py only

Parameter Default Value Description
merge_block_size None Block size used if merging, None if not merging
top_k None Use a different Top-k for merging than final [email protected] for loss
straight_backprop False Backpropagate on scores only through NS operator
full_loss False Use the complete loss at the end of merge
tau_scheme None Which scheme to use for temperature going deeper (default: constant)
data_generator None Data generator (default: TFR\s libsvm); use this for synthetic generation
num_queries 30000 Number of queries for synthetic data generator
num_query_features 10 Number of columns used as factors for each query by synthetic data generator
actual_list_size None Size of actual list per query in synthetic data generation
train_path "/data/MSLR-WEB30K/Fold*/train.txt" Input file path used for training; alternatively value of seed if using data generator
vali_path "/data/MSLR-WEB30K/Fold*/vali.txt" Input file path used for validation; alternatively value of seed if using data generator
test_path "/data/MSLR-WEB30K/Fold*/test.txt" Input file path used for testing; alternatively value of seed if using data generator
with_opa True Include pairwise metric OPA

Examples

Run the benchmark experiment of section 4.1 with PiRank simple loss on MSLR-WEB30K

cd pirank
python3 pirank_simple.py with loss_fn=pirank_simple_loss \
    ndcg_k=10 \
    tau=5 \
    list_size=80 \
    hidden_layers=256,relu,256,relu,128,relu,64,relu \
    train_path=/data/MSLR-WEB30K/Fold1/train.txt \
    vali_path=/data/MSLR-WEB30K/Fold1/vali.txt \
    test_path=/data/MSLR-WEB30K/Fold1/test.txt \
    num_features=136 \
    optimizer=Adam \
    learning_rate=0.00001 \
    num_epochs=100 \
    batch_size=16 \
    model_dir=/tmp/model

Run the benchmark experiment of section 4.1 with PiRank simple loss on Yahoo! C14

cd pirank
python3 pirank_simple.py with loss_fn=pirank_simple_loss \
    ndcg_k=10 \
    tau=5 \
    list_size=80 \
    hidden_layers=256,relu,256,relu,128,relu,64,relu \
    train_path=/data/YAHOO/set1.train.txt \
    vali_path=/data/YAHOO/set1.valid.txt \
    test_path=/data/YAHOO/set1.test.txt \
    num_features=700 \
    optimizer=Adam \
    learning_rate=0.00001 \
    num_epochs=100 \
    batch_size=16 \
    model_dir=/tmp/model

Run the benchmark experiment of section 4.1 with classic LambdaRank on MSLR-WEB30K

cd pirank
python3 pirank_simple.py with loss_fn=lambda_rank_loss \
    ndcg_k=10 \
    tau=5 \
    list_size=80 \
    hidden_layers=256,relu,256,relu,128,relu,64,relu \
    train_path=/data/MSLR-WEB30K/Fold1/train.txt \
    vali_path=/data/MSLR-WEB30K/Fold1/vali.txt \
    test_path=/data/MSLR-WEB30K/Fold1/test.txt \
    num_features=136 \
    optimizer=Adam \
    learning_rate=0.00001 \
    num_epochs=100 \
    batch_size=16 \
    model_dir=/tmp/model

Run the scaling ablation experiment of section 4.2.3 using synthetic data generation (d=2)

cd pirank
python3 pirank_deep.py with loss_fn=pirank_deep_loss \
    ndcg_k=10 \
    ste=True \
    merge_block_size=100 \
    tau=5 \
    taustar=1e-10 \
    tau_scheme=square \
    data_generator=synthetic_data_generator \
    actual_list_size=1000 \
    list_size=1000 \
    vali_list_size=1000 \
    test_list_size=1000 \
    full_loss=False \
    train_path=0 \
    vali_path=1 \
    test_path=2 \
    num_queries=1000 \
    num_features=25 \
    num_query_features=5 \
    hidden_layers=256,relu,256,relu,128,relu,128,relu,64,relu,64,relu \
    optimizer=Adam \
    learning_rate=0.00001 \
    num_epochs=100 \
    batch_size=16

Help

If you need help, reach out to Robin Swezey or raise an issue.

Citing

If you find PiRank useful in your research, please consider citing the following paper:

@inproceedings{
swezey2020pirank,
title={PiRank: Learning to Rank via Differentiable Sorting},
author={Robin Swezey and Aditya Grover and Bruno Charron and Stefano Ermon},
year={2020},
url={},
}

DeiT: Data-efficient Image Transformers

DeiT: Data-efficient Image Transformers This repository contains PyTorch evaluation code, training code and pretrained models for DeiT (Data-Efficient

Facebook Research 3.2k Jan 06, 2023
Compact Bidirectional Transformer for Image Captioning

Compact Bidirectional Transformer for Image Captioning Requirements Python 3.8 Pytorch 1.6 lmdb h5py tensorboardX Prepare Data Please use git clone --

YE Zhou 19 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
Source code for "Understanding Knowledge Integration in Language Models with Graph Convolutions"

Graph Convolution Simulator (GCS) Source code for "Understanding Knowledge Integration in Language Models with Graph Convolutions" Requirements: PyTor

yifan 10 Oct 18, 2022
This is my codes that can visualize the psnr image in testing videos.

CVPR2018-Baseline-PSNRplot This is my codes that can visualize the psnr image in testing videos. Future Frame Prediction for Anomaly Detection – A New

Wenhao Yang 12 May 29, 2021
Tool for working with Y-chromosome data from YFull and FTDNA

ycomp ycomp is a tool for working with Y-chromosome data from YFull and FTDNA. Run ycomp -h for information on how to use the program. Installation Th

Alexander Regueiro 2 Jun 18, 2022
DGN pymarl - Implementation of DGN on Pymarl, which could be trained by VDN or QMIX

This is the implementation of DGN on Pymarl, which could be trained by VDN or QM

4 Nov 23, 2022
Source Code For Template-Based Named Entity Recognition Using BART

Template-Based NER Source Code For Template-Based Named Entity Recognition Using BART Training Training train.py Inference inference.py Corpus ATIS (h

174 Dec 19, 2022
ATOMIC 2020: On Symbolic and Neural Commonsense Knowledge Graphs

(Comet-) ATOMIC 2020: On Symbolic and Neural Commonsense Knowledge Graphs Paper Jena D. Hwang, Chandra Bhagavatula, Ronan Le Bras, Jeff Da, Keisuke Sa

AI2 152 Dec 27, 2022
Implementation of 'X-Linear Attention Networks for Image Captioning' [CVPR 2020]

Introduction This repository is for X-Linear Attention Networks for Image Captioning (CVPR 2020). The original paper can be found here. Please cite wi

JDAI-CV 240 Dec 17, 2022
3D-CariGAN: An End-to-End Solution to 3D Caricature Generation from Normal Face Photos

3D-CariGAN: An End-to-End Solution to 3D Caricature Generation from Normal Face Photos This repository contains the source code and dataset for the pa

54 Oct 09, 2022
Robust Consistent Video Depth Estimation

[CVPR 2021] Robust Consistent Video Depth Estimation This repository contains Python and C++ implementation of Robust Consistent Video Depth, as descr

Facebook Research 213 Dec 17, 2022
Neural Architecture Search Powered by Swarm Intelligence 🐜

Neural Architecture Search Powered by Swarm Intelligence 🐜 DeepSwarm DeepSwarm is an open-source library which uses Ant Colony Optimization to tackle

288 Oct 28, 2022
An Approach to Explore Logistic Regression Models

User-centered Regression An Approach to Explore Logistic Regression Models This tool applies the potential of Attribute-RadViz in identifying correlat

0 Nov 12, 2021
Lightweight plotting to the terminal. 4x resolution via Unicode.

Uniplot Lightweight plotting to the terminal. 4x resolution via Unicode. When working with production data science code it can be handy to have plotti

Olav Stetter 203 Dec 29, 2022
Official implementation of our paper "Learning to Bootstrap for Combating Label Noise"

Learning to Bootstrap for Combating Label Noise This repo is the official implementation of our paper "Learning to Bootstrap for Combating Label Noise

21 Apr 09, 2022
Simple and Effective Few-Shot Named Entity Recognition with Structured Nearest Neighbor Learning

structshot Code and data for paper "Simple and Effective Few-Shot Named Entity Recognition with Structured Nearest Neighbor Learning", Yi Yang and Arz

ASAPP Research 47 Dec 27, 2022
PyTorch implementation of "Image-to-Image Translation Using Conditional Adversarial Networks".

pix2pix-pytorch PyTorch implementation of Image-to-Image Translation Using Conditional Adversarial Networks. Based on pix2pix by Phillip Isola et al.

mrzhu 383 Dec 17, 2022
Checkout some cool self-projects you can try your hands on to curb your boredom this December!

SoC-Winter Checkout some cool self-projects you can try your hands on to curb your boredom this December! These are short projects that you can do you

Web and Coding Club, IIT Bombay 29 Nov 08, 2022
DLL: Direct Lidar Localization

DLL: Direct Lidar Localization Summary This package presents DLL, a direct map-based localization technique using 3D LIDAR for its application to aeri

Service Robotics Lab 127 Dec 16, 2022