Unified MultiWOZ evaluation scripts for the context-to-response task.

Overview

MultiWOZ Context-to-Response Evaluation

Standardized and easy to use Inform, Success, BLEU

~ See the paper ~

 


Easy-to-use scripts for standardized evaluation of response generation on the MultiWOZ benchmark. This repository contains an implementation of the MultiWOZ database with fuzzy matching, functions for normalization of slot names and values, and a careful implementation of the BLEU score and Inform & Succes rates.

🚀 Usage

Install the repository:

pip install git+https://github.com/Tomiinek/[email protected]

Use it directly from your code. Instantiate an evaluator and then call the evaluate method with dictionary of your predictions with a specific format (described later). Set bleu to evaluate the BLEU score, success to get the Success & Inform rate, and use richness for getting lexical richness metrics such as the number of unique unigrams, trigrams, token entropy, bigram conditional entropy, corpus MSTTR-50, and average turn length. Pseudo-code:

from mwzeval.metrics import Evaluator
...

e = Evaluator(bleu=True, success=False, richness=False)
my_predictions = {}
for item in data:
    my_predictions[item.dialog_id] = model.predict(item)
    ...
    
results = e.evaluate(my_predictions)
print(f"Epoch {epoch} BLEU: {results}")

Alternative usage:

git clone https://github.com/Tomiinek/MultiWOZ_Evaluation.git && cd MultiWOZ_Evaluation
pip install -r requirements.txt

And evaluate you predictions from the input file:

python evaluate.py [--bleu] [--success] [--richness] --input INPUT.json [--output OUTPUT.json]

Set the options --bleu, --success, and --richness as you wish.

Input format:

{
    "xxx0000" : [
        {
            "response": "Your generated delexicalized response.",
            "state": {
                "restaurant" : {
                    "food" : "eatable"
                }, ...
            }, 
            "active_domains": ["restaurant"]
        }, ...
    ], ...
}

The input to the evaluator should be a dictionary (or a .json file) with keys matching dialogue ids in the xxx0000 format (e.g. sng0073 instead of SNG0073.json), and values containing a list of turns. Each turn is a dictionary with keys:

  • response – Your generated delexicalized response. You can use either the slot names with domain names, e.g. restaurant_food, or the domain adaptive delexicalization scheme, e.g. food.

  • stateOptional, the predicted dialog state. If not present (for example in the case of policy optimization models), the ground truth dialog state from MultiWOZ 2.2 is used during the Inform & Success computation. Slot names and values are normalized prior the usage.

  • active_domainsOptional, list of active domains for the corresponding turn. If not present, the active domains are estimated from changes in the dialog state during the Inform & Success rate computation. If your model predicts the domain for each turn, place them here. If you use domains in slot names, run the following command to extract the active domains from slot names automatically:

    python add_slot_domains.py [-h] -i INPUT.json -o OUTPUT.json

See the predictions folder with examples.

Output format:

{
    "bleu" : {'damd': … , 'uniconv': … , 'hdsa': … , 'lava': … , 'augpt': … , 'mwz22': … },
    "success" : {
        "inform"  : {'attraction': … , 'hotel': … , 'restaurant': … , 'taxi': … , 'total': … , 'train': … },
        "success" : {'attraction': … , 'hotel': … , 'restaurant': … , 'taxi': … , 'total': … , 'train': … },
    },
    "richness" : {
        'entropy': … , 'cond_entropy': … , 'avg_lengths': … , 'msttr': … , 
        'num_unigrams': … , 'num_bigrams': … , 'num_trigrams': … 
    }
}

The evaluation script outputs a dictionary with keys bleu, success, and richness corresponding to BLEU, Inform & Success rates, and lexical richness metrics, respectively. Their values can be None if not evaluated, otherwise:

  • BLEU results contain multiple scores corresponding to different delexicalization styles and refernces. Currently included references are DAMD, HDSA, AuGPT, LAVA, UniConv, and MultiWOZ 2.2 whitch we consider to be the canonical one that should be reported in the future.
  • Inform & Succes rates are reported for each domain (i.e. attraction, restaurant, hotel, taxi, and train in case of the test set) separately and in total.
  • Lexical richness contains the number of distinct uni-, bi-, and tri-grams, average number of tokens in generated responses, token entropy, conditional bigram entropy, and MSTTR-50 calculated on concatenated responses.

Secret feature

You can use this code even for evaluation of dialogue state tracking (DST) on MultiWOZ 2.2. Set dst=True during initialization of the Evaluator to get joint state accuracy, slot precision, recall, and F1. Note that the resulting numbers are very different from the DST results in the original MultiWOZ evaluation. This is because we use slot name and value normalization, and careful fuzzy slot value matching.

🏆 Results

Please see the orginal MultiWOZ repository for the benchmark results.

👏 Contributing

  • If you would like to add your results, modify the particular table in the original reposiotry via a pull request, add the file with predictions into the predictions folder in this repository, and create another pull request here.
  • If you need to update the slot name mapping because of your different delexicalization style, feel free to make the changes, and create a pull request.
  • If you would like to improve normalization of slot values, add your new rules, and create a pull request.

💭 Citation

@inproceedings{nekvinda-dusek-2021-shades,
    title = "Shades of {BLEU}, Flavours of Success: The Case of {M}ulti{WOZ}",
    author = "Nekvinda, Tom{\'a}{\v{s}} and Du{\v{s}}ek, Ond{\v{r}}ej",
    booktitle = "Proceedings of the 1st Workshop on Natural Language Generation, Evaluation, and Metrics (GEM 2021)",
    month = aug,
    year = "2021",
    address = "Online",
    publisher = "Association for Computational Linguistics",
    url = "https://aclanthology.org/2021.gem-1.4",
    doi = "10.18653/v1/2021.gem-1.4",
    pages = "34--46"
}

Owner
Tomáš Nekvinda
Wisdom giver, bacon & eggs master, ant lover
Tomáš Nekvinda
LeetCode Solutions https://t.me/tenvlad

leetcode LeetCode Solutions groupped by common patterns YouTube: https://www.youtube.com/c/vladten Telegram: https://t.me/nilinterface Problems source

Vlad Ten 158 Dec 29, 2022
Reinforcement learning for self-driving in a 3D simulation

SelfDrive_AI Reinforcement learning for self-driving in a 3D simulation (Created using UNITY-3D) 1. Requirements for the SelfDrive_AI Gym You need Pyt

Surajit Saikia 17 Dec 14, 2021
Advances in Neural Information Processing Systems (NeurIPS), 2020.

What is being transferred in transfer learning? This repo contains the code for the following paper: Behnam Neyshabur*, Hanie Sedghi*, Chiyuan Zhang*.

Google Research 36 Aug 26, 2022
Unsupervised clustering of high content screen samples

Microscopium Unsupervised clustering and dataset exploration for high content screens. See microscopium in action Public dataset BBBC021 from the Broa

60 Dec 05, 2022
Like Dirt-Samples, but cleaned up

Clean-Samples Like Dirt-Samples, but cleaned up, with clear provenance and license info (generally a permissive creative commons licence but check the

TidalCycles 39 Nov 30, 2022
Unofficial Alias-Free GAN implementation. Based on rosinality's version with expanded training and inference options.

Alias-Free GAN An unofficial version of Alias-Free Generative Adversarial Networks (https://arxiv.org/abs/2106.12423). This repository was heavily bas

dusk (they/them) 75 Dec 12, 2022
Implement Decoupled Neural Interfaces using Synthetic Gradients in Pytorch

disclaimer: this code is modified from pytorch-tutorial Image classification with synthetic gradient in Pytorch I implement the Decoupled Neural Inter

Andrew 114 Dec 22, 2022
code for paper -- "Seamless Satellite-image Synthesis"

Seamless Satellite-image Synthesis by Jialin Zhu and Tom Kelly. Project site. The code of our models borrows heavily from the BicycleGAN repository an

Light 14 Apr 05, 2022
smc.covid is an R package related to the paper A sequential Monte Carlo approach to estimate a time varying reproduction number in infectious disease models: the COVID-19 case by Storvik et al

smc.covid smc.covid is an R package related to the paper A sequential Monte Carlo approach to estimate a time varying reproduction number in infectiou

0 Oct 15, 2021
Code for "Neural 3D Scene Reconstruction with the Manhattan-world Assumption" CVPR 2022 Oral

News 05/10/2022 To make the comparison on ScanNet easier, we provide all quantitative and qualitative results of baselines here, including COLMAP, COL

ZJU3DV 365 Dec 30, 2022
LLVM-based compiler for LightGBM gradient-boosted trees. Speeds up prediction by ≥10x.

LLVM-based compiler for LightGBM gradient-boosted trees. Speeds up prediction by ≥10x.

Simon Boehm 183 Jan 02, 2023
A pytorch &keras implementation and demo of Fastformer.

Fastformer Notes from the authors Pytorch/Keras implementation of Fastformer. The keras version only includes the core fastformer attention part. The

153 Dec 28, 2022
Adversarial Graph Representation Adaptation for Cross-Domain Facial Expression Recognition (AGRA, ACM 2020, Oral)

Cross Domain Facial Expression Recognition Benchmark Implementation of papers: Cross-Domain Facial Expression Recognition: A Unified Evaluation Benchm

89 Dec 09, 2022
Cancer Drug Response Prediction via a Hybrid Graph Convolutional Network

DeepCDR Cancer Drug Response Prediction via a Hybrid Graph Convolutional Network This work has been accepted to ECCB2020 and was also published in the

Qiao Liu 50 Dec 18, 2022
Library of various Few-Shot Learning frameworks for text classification

FewShotText This repository contains code for the paper A Neural Few-Shot Text Classification Reality Check Environment setup # Create environment pyt

Thomas Dopierre 47 Jan 03, 2023
An offline deep reinforcement learning library

d3rlpy: An offline deep reinforcement learning library d3rlpy is an offline deep reinforcement learning library for practitioners and researchers. imp

Takuma Seno 817 Jan 02, 2023
Deconfounding Temporal Autoencoder: Estimating Treatment Effects over Time Using Noisy Proxies

Deconfounding Temporal Autoencoder (DTA) This is a repository for the paper "Deconfounding Temporal Autoencoder: Estimating Treatment Effects over Tim

Milan Kuzmanovic 3 Feb 04, 2022
Tensorflow implementation and notebooks for Implicit Maximum Likelihood Estimation

tf-imle Tensorflow 2 and PyTorch implementation and Jupyter notebooks for Implicit Maximum Likelihood Estimation (I-MLE) proposed in the NeurIPS 2021

NEC Laboratories Europe 69 Dec 13, 2022
Learning Domain Invariant Representations in Goal-conditioned Block MDPs

Learning Domain Invariant Representations in Goal-conditioned Block MDPs Beining Han, Chongyi Zheng, Harris Chan, Keiran Paster, Michael R. Zhang, Jim

Chongyi Zheng 3 Apr 12, 2022
DAFNe: A One-Stage Anchor-Free Deep Model for Oriented Object Detection

DAFNe: A One-Stage Anchor-Free Deep Model for Oriented Object Detection Code for our Paper DAFNe: A One-Stage Anchor-Free Deep Model for Oriented Obje

Steven Lang 58 Dec 19, 2022