Official PyTorch implementation of the paper "Self-Supervised Relational Reasoning for Representation Learning", NeurIPS 2020 Spotlight.
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Updated
Apr 21, 2024 - Python
Official PyTorch implementation of the paper "Self-Supervised Relational Reasoning for Representation Learning", NeurIPS 2020 Spotlight.
[NeurIPS 2021] Why Spectral Normalization Stabilizes GANs: Analysis and Improvements
Steering Self-Supervised Feature Learning Beyond Local Pixel Statistics. In CVPR, 2020.
Implementation of Pre-text invariant representation learning algorithm in pytorch
Pytorch model for classification
A clean, from-scratch PyTorch implementation of I-JEPA trained on STL-10. Built to benchmark representation-space vs. pixel-space prediction against MAE.
SimCLR implementation in PyTorch.
Code for my Master's thesis on Multi‑Task Self‑Supervised Learning for label‑efficient learning. Modular PyTorch framework combining contrastive + pretext tasks with dynamic loss weighting, and centralized/federated training (HAR/STL‑10) to learn compact, robust representations.
Transfer learning from imagenet VGG16 CNN for classifying stl10 database using Keras
GAN implementation in PyTorch
A few machine learning projects that I made using PyTorch
Experiments with Variational Autoencoders in pytorch
CSE-164-Computer-Vision
In this project, we executed an optimized architecture for image recognition on the CIFAR-10 dataset using the Particle Swarm Optimization (PSO) method.
Comparing different learning paradigms on the STL 10 dataset and carrying further analysis in each method
Reconstructing STL-10 images from 9 shuffled, border-eroded patches with an end-to-end network: Sinkhorn permutation layer, differentiable assembly and U-Net inpainting. MAE 0.043 vs 0.182 baseline, 3.26M params, Keras 3.
Reconstructing a 96×96 image from 9 shuffled, border-eroded patches with deep learning (TensorFlow/Keras, STL-10).
Code repository for the paper titled "MIO : Mutual Information Optimization using Self-Supervised Binary Contrastive Learning"
A PyTorch implementation of Masked Autoencoders (MAE) on the STL-10 dataset, demonstrating how self-supervised learning significantly improves classification accuracy and convergence speed on limited labeled data.
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