Public facing deeplift repo

Pytorch implementation of various neural network interpretability methods

SyReNN: Symbolic Representations for Neural Networks

In this part, I've introduced and experimented with ways to interpret and evaluate models in the field of image. (Pytorch)

A small repository to test Captum Explainable AI with a trained Flair transformers-based text classifier.

Integrated gradients attribution method implemented in PyTorch

PyTorch implementation of 'Vanilla' Gradient, Grad-CAM, Guided backprop, Integrated Gradients and their SmoothGrad variants.

simple implementation of Expected Gradients and Integrated Gradients by pytorch

Attribution methods that explain image classification models, implemented in PyTorch, and support batch input and GPU.

Code and data for the ACL 2023 NLReasoning Workshop paper "Saliency Map Verbalization: Comparing Feature Importance Representations from Model-free and Instruction-based Methods" (Feldhus et al., 2023)

Neural network visualization tool after an optional model compression with parameter pruning: (integrated) gradients, guided/visual backpropagation, activation maps for the cao model on the IndianPines dataset

Scripts to reproduce results within the following manuscript: Perez, I., Skalski, P., Barns-Graham, A., Wong, J. and Sutton, D. (2022) Attribution of Predictive Uncertainties in Classification Models, 38th Conference on Uncertainty in Artificial Intelligence (UAI), Eindhoven, Netherlands, 2022.

Suite of methods that create attribution maps from image classification models.

The code for integrated gradients in torch.

Reproducible code for our paper "Explainable Learning with Gaussian Processes"

Implementation of 2 XAI methods to visualize the region highlighted by the network to make a prediction

Source code for the IJCKG2021 paper "Normal vs. Adversarial: Salience-based Analysis of Adversarial Samples for Relation Extraction".

Exercise on interpretability with integrated gradients.

This repository is the code basis for the paper titled "Balancing Privacy and Explainability in Federated Learning"