Explainable Zero-Shot Topic Extraction

Last update: Dec 14, 2022

Related tags

Overview

Zero-Shot Topic Extraction with Common-Sense Knowledge Graph

This repository contains the code for reproducing the results reported in the paper "Explainable Zero-Shot Topic Extraction with Common-Sense Knowledge Graph" (pdf) at the LDK 2021 Conference.

A user-friendly demo is available at: http://zeste.tools.eurecom.fr/

ZeSTE

Based on ConceptNet's common sense knowledge graph and embeddings, ZeSTE generates explainable predictions for a document topical category (e.g. politics, sports, video_games ..) without reliance on training data. The following is a high-level illustration of the approach:

API

ZeSTE can also be accessed via a RESTful API for easy deployment and use. For further information, please refer to the documentation: https://zeste.tools.eurecom.fr/doc

Dependencies

Before running any code in this repo, please install the following dependencies:

numpy
pandas
matplotlib
nltk
sklearn
tqdm
gensim

Code Overview

This repo is organized as follows:

generate_cache.py: this script processes the raw ConceptNet dump to produce cached files for each node in ConceptNet to accelerate the label neighborhood generation. It also transforms ConceptNet Numberbatch text file into a Gensim word embedding that we pickle for quick loading.
zeste.py: this is the main script for evaluation. It takes as argument the dataset to process as well as model configuration parameters such as neighborhood depth (see below). The results (classification report, confusion matrix, and classification metrics) are persisted into text files.
util.py: contains the functions that are used in zeste.py
label_mappings: contains the tab-separated mappings for the studied datasets.

Reproducing Results

1. Downloads

The two following files need to be downloaded to bypass the use of ConceptNet's web API: the dump of ConceptNet triplets, and the ConceptNet Numberbatch pre-computed word embeddings. You can download them from ConceptNet's and Numberbatch's repos, respectively.

# wget https://s3.amazonaws.com/conceptnet/downloads/2019/edges/conceptnet-assertions-5.7.0.csv.gz
# wget https://conceptnet.s3.amazonaws.com/downloads/2019/numberbatch/numberbatch-19.08.txt.gz
# gzip -d conceptnet-assertions-5.7.0.csv.gz
# gzip -d numberbatch-19.08.txt.gz

2. generate_cache.py

This script takes as input the two just-downloaded files and the cache path to where precomputed 1-hop label neighborhoods will be saved. This can take up to 7.2G of storage space.

usage: generate_cache.py [-h] [-cnp CONCEPTNET_ASSERTIONS_PATH] [-nbp CONCEPTNET_NUMBERBATCH_PATH] [-zcp ZESTE_CACHE_PATH]

Zero-Shot Topic Extraction

optional arguments:
  -h, --help            show this help message and exit
  -cnp CONCEPTNET_ASSERTIONS_PATH, --conceptnet_assertions_path CONCEPTNET_ASSERTIONS_PATH
                        Path to CSV file containing ConceptNet assertions dump
  -nbp CONCEPTNET_NUMBERBATCH_PATH, --conceptnet_numberbatch_path CONCEPTNET_NUMBERBATCH_PATH
                        Path to W2V file for ConceptNet Numberbatch
  -zcp ZESTE_CACHE_PATH, --zeste_cache_path ZESTE_CACHE_PATH
                        Path to the repository where the generated files will be saved

3. zeste.py

This script uses the precomputed 1-hop label neighborhoods to recursively generate label neighborhoods of any given depth (-d). It takes also as parameters the path to the dataset CSV file (which should have two columns: text and label). The rest of the arguments are for model experimentation.

usage: zeste.py [-h] [-cp CACHE_PATH] [-pp PREFETCH_PATH] [-nb NUMBERBATCH_PATH] [-dp DATASET_PATH] [-lm LABELS_MAPPING] [-rp RESULTS_PATH]
                [-d DEPTH] [-f FILTER] [-s {simple,compound,depth,harmonized}] [-ar ALLOWED_RELS]

Zero-Shot Topic Extraction

optional arguments:
  -h, --help            show this help message and exit
  -cp CACHE_PATH, --cache_path CACHE_PATH
                        Path to where the 1-hop word neighborhoods are cached
  -pp PREFETCH_PATH, --prefetch_path PREFETCH_PATH
                        Path to where the precomputed n-hop neighborhoods are cached
  -nb NUMBERBATCH_PATH, --numberbatch_path NUMBERBATCH_PATH
                        Path to the pickled Numberbatch
  -dp DATASET_PATH, --dataset_path DATASET_PATH
                        Path to the dataset to process
  -lm LABELS_MAPPING, --labels_mapping LABELS_MAPPING
                        Path to the mapping between the dataset labels and ZeSTE labels (multiword labels are comma-separated)
  -rp RESULTS_PATH, --results_path RESULTS_PATH
                        Path to the directory where to store the results
  -d DEPTH, --depth DEPTH
                        How many hops to generate the neighborhoods
  -f FILTER, --filter FILTER
                        Filtering method: top[N], top[P]%, thresh[T], all
  -s {simple,compound,depth,harmonized}, --similarity {simple,compound,depth,harmonized}
  -ar ALLOWED_RELS, --allowed_rels ALLOWED_RELS
                        Which relationships to use (comma-separated or all)

Cite this work

@InProceedings{harrando_et_al_zeste_2021,
  author ={Harrando, Ismail and Troncy, Rapha\"{e}l},
  title ={{Explainable Zero-Shot Topic Extraction Using a Common-Sense Knowledge Graph}},
  booktitle ={3rd Conference on Language, Data and Knowledge (LDK 2021)},
  pages ={17:1--17:15},
  year ={2021},
  volume ={93},
  publisher ={Schloss Dagstuhl -- Leibniz-Zentrum f{\"u}r Informatik},
  URL ={https://drops.dagstuhl.de/opus/volltexte/2021/14553},
  URN ={urn:nbn:de:0030-drops-145532},
  doi ={10.4230/OASIcs.LDK.2021.17},
}

Explainable Zero-Shot Topic Extraction

Related tags

Overview

Zero-Shot Topic Extraction with Common-Sense Knowledge Graph

ZeSTE

API

Dependencies

Code Overview

Reproducing Results

1. Downloads

2. generate_cache.py

3. zeste.py

Cite this work

Owner

D2K Lab

Official implementation of VQ-Diffusion

A forwarding MPI implementation that can use any other MPI implementation via an MPI ABI

Kindle is an easy model build package for PyTorch.

Python and C++ implementation of "MarkerPose: Robust real-time planar target tracking for accurate stereo pose estimation". Accepted at LXCV @ CVPR 2021.

Multi-Stage Progressive Image Restoration

[NeurIPS 2021 Spotlight] Aligning Pretraining for Detection via Object-Level Contrastive Learning

This project aim to create multi-label classification annotation tool to boost annotation speed and make it more easier.

StyleGAN2-ADA - Official PyTorch implementation

Demystifying How Self-Supervised Features Improve Training from Noisy Labels

Official implementation of ETH-XGaze dataset baseline

A neuroanatomy-based augmented reality experience powered by computer vision. Features 3D visuals of the Atlas Brain Map slices.

Frequency Spectrum Augmentation Consistency for Domain Adaptive Object Detection

Classify music genre from a 10 second sound stream using a Neural Network.

[CVPR2021] The source code for our paper 《Removing the Background by Adding the Background: Towards Background Robust Self-supervised Video Representation Learning》.

Finetune SSL models for MOS prediction

A pytorch reproduction of { Co-occurrence Feature Learning from Skeleton Data for Action Recognition and Detection with Hierarchical Aggregation }.

'Aligned mixture of latent dynamical systems' (amLDS) for stimulus decoding probabilistic manifold alignment across animals. P. Herrero-Vidal et al. NeurIPS 2021 code.

Graph Robustness Benchmark: A scalable, unified, modular, and reproducible benchmark for evaluating the adversarial robustness of Graph Machine Learning.

A framework for attentive explainable deep learning on tabular data

catch-22: CAnonical Time-series CHaracteristics