30 open-source projects similar to decisionforce/vthcl, ranked by how many features they have in common. Compare stars, activity and what each one does to find the best VTHCL alternative.
This is a PyTorch self-supervised learning framework designed to train models that learn visual representations from video. It implements a joint-embedding predictive architecture that extracts spatio-temporal features by predicting missing regions of a signal within a latent representation space rather than reconstructing raw pixels. The project includes a latent space visualization tool that uses a conditional diffusion model to decode feature-space predictions back into pixels. This allows for the verification of learned representations by transforming abstract predictions into interpretab
NeurIPS 2021 Spotlight Official implementation of Long Short-Term Transformer for Online Action Detection
This code implements the video- and sensor-based action segmentation models from Temporal Convolutional Networks for Action Segmentation and Detection by Colin Lea, Michael Flynn, Rene Vidal, Austin Reiter, Greg Hager arXiv 2016 (in-review).
Convolutional neural network model for video classification trained on the Kinetics dataset.
An efficient video loader for deep learning with smart shuffling that's super easy to digest
:platewithcutlery: Annotations for the public release of the EPIC-KITCHENS-100 dataset
C3D is a modified version of BVLC caffe to support 3D ConvNets.
VMZ: Model Zoo for Video Modeling
SlowFast is a PyTorch video understanding framework and spatiotemporal neural network library. It serves as a toolset for video action recognition, enabling the training and evaluation of models designed to classify complex activities and objects within video sequences. The framework is distinguished by its use of dual-pathway spatiotemporal sampling to capture both slow and fast motions. It supports self-supervised video learning for pre-training models on unlabeled data and employs multigrid spatiotemporal training to optimize learning across multiple spatial and temporal resolutions. The
Long-Term Feature Banks for Detailed Video Understanding
Non-local Neural Networks for Video Classification
Code release for "Convolutional Two-Stream Network Fusion for Video Action Recognition", CVPR 2016.
A repository of common methods, datasets, and tasks for video research
Train action classification model based on individual frames
Code and training data for our ECCV 2016 paper on Unsupervised Learning
PyTorch implementation of the R2Plus1D convolution based ResNet architecture described in the paper "A Closer Look at Spatiotemporal Convolutions for Action Recognition"
This project is a PyTorch implementation of 3D residual networks designed for video action recognition. It provides a spatiotemporal architecture that analyzes both spatial frames and temporal motion to classify human activities within video clips. The system includes a distributed model training framework to accelerate learning across multiple compute nodes. It supports the deployment and fine-tuning of pre-trained model weights, allowing the adaptation of existing networks to specific new datasets. The codebase covers the full pipeline for spatiotemporal learning, including video dataset p
Joint-task Self-supervised Learning for Temporal Correspondence (NeurIPS 2019)
Human action classification for video, offline and natively on iOS via Core ML
A one stop shop for all of your activity recognition needs.
An open-source toolbox for action understanding based on PyTorch
mmaction2 is a PyTorch video understanding toolbox designed for training and evaluating deep learning models. It serves as a framework for action recognition, temporal localization, and spatio-temporal action detection, providing specialized tools for both pixel-based video analysis and skeleton-based action recognition. The project distinguishes itself through a modular architecture featuring registry-based component discovery and hierarchical, config-driven model assembly. It supports multi-modal feature fusion, integrating RGB frames, optical flow, and audio, and includes capabilities for