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一、特征提取Feature Extraction:
- SIFT [1] [][] []
- PCA-SIFT [2] []
- Affine-SIFT [3] []
- SURF [4] [] []
- Affine Covariant Features [5] []
- MSER [6] [] []
- Geometric Blur [7] []
- Local Self-Similarity Descriptor [8] []
- Global and Efficient Self-Similarity [9] []
- Histogram of Oriented Graidents [10] [] []
- GIST [11] []
- Shape Context [12] []
- Color Descriptor [13] []
- Pyramids of Histograms of Oriented Gradients []
- Space-Time Interest Points (STIP) [14][] []
- Boundary Preserving Dense Local Regions [15][]
- Weighted Histogram[]
- Histogram-based Interest Points Detectors[][]
- An OpenCV - C++ implementation of Local Self Similarity Descriptors []
- Fast Sparse Representation with Prototypes[]
- Corner Detection []
- AGAST Corner Detector: faster than FAST and even FAST-ER[]
- Real-time Facial Feature Detection using Conditional Regression Forests[]
- Global and Efficient Self-Similarity for Object Classification and Detection[]
- WαSH: Weighted α-Shapes for Local Feature Detection[]
- HOG[]
- Online Selection of Discriminative Tracking Features[]
二、图像分割Image Segmentation:
- Normalized Cut [1] []
- Gerg Mori’ Superpixel code [2] []
- Efficient Graph-based Image Segmentation [3] [] []
- Mean-Shift Image Segmentation [4] [] []
- OWT-UCM Hierarchical Segmentation [5] []
- Turbepixels [6] [] [] []
- Quick-Shift [7] []
- SLIC Superpixels [8] []
- Segmentation by Minimum Code Length [9] []
- Biased Normalized Cut [10] []
- Segmentation Tree [11-12] []
- Entropy Rate Superpixel Segmentation [13] []
- Fast Approximate Energy Minimization via Graph Cuts[][]
- Efficient Planar Graph Cuts with Applications in Computer Vision[][]
- Isoperimetric Graph Partitioning for Image Segmentation[][]
- Random Walks for Image Segmentation[][]
- Blossom V: A new implementation of a minimum cost perfect matching algorithm[]
- An Experimental Comparison of Min-Cut/Max-Flow Algorithms for Energy Minimization in Computer Vision[][]
- Geodesic Star Convexity for Interactive Image Segmentation[]
- Contour Detection and Image Segmentation Resources[][]
- Biased Normalized Cuts[]
- Max-flow/min-cut[]
- Chan-Vese Segmentation using Level Set[]
- A Toolbox of Level Set Methods[]
- Re-initialization Free Level Set Evolution via Reaction Diffusion[]
- Improved C-V active contour model[][]
- A Variational Multiphase Level Set Approach to Simultaneous Segmentation and Bias Correction[][]
- Level Set Method Research by Chunming Li[]
- ClassCut for Unsupervised Class Segmentation[e]
- SEEDS: Superpixels Extracted via Energy-Driven Sampling ][]
三、目标检测Object Detection:
- A simple object detector with boosting []
- INRIA Object Detection and Localization Toolkit [1] []
- Discriminatively Trained Deformable Part Models [2] []
- Cascade Object Detection with Deformable Part Models [3] []
- Poselet [4] []
- Implicit Shape Model [5] []
- Viola and Jones’s Face Detection [6] []
- Bayesian Modelling of Dyanmic Scenes for Object Detection[][]
- Hand detection using multiple proposals[]
- Color Constancy, Intrinsic Images, and Shape Estimation[][]
- Discriminatively trained deformable part models[]
- Gradient Response Maps for Real-Time Detection of Texture-Less Objects: LineMOD []
- Image Processing On Line[]
- Robust Optical Flow Estimation[]
- Where's Waldo: Matching People in Images of Crowds[]
- Scalable Multi-class Object Detection[]
- Class-Specific Hough Forests for Object Detection[]
- Deformed Lattice Detection In Real-World Images[]
- Discriminatively trained deformable part models[]
四、显著性检测Saliency Detection:
- Itti, Koch, and Niebur’ saliency detection [1] []
- Frequency-tuned salient region detection [2] []
- Saliency detection using maximum symmetric surround [3] []
- Attention via Information Maximization [4] []
- Context-aware saliency detection [5] []
- Graph-based visual saliency [6] []
- Saliency detection: A spectral residual approach. [7] []
- Segmenting salient objects from images and videos. [8] []
- Saliency Using Natural statistics. [9] []
- Discriminant Saliency for Visual Recognition from Cluttered Scenes. [10] []
- Learning to Predict Where Humans Look [11] []
- Global Contrast based Salient Region Detection [12] []
- Bayesian Saliency via Low and Mid Level Cues[]
- Top-Down Visual Saliency via Joint CRF and Dictionary Learning[][]
- Saliency Detection: A Spectral Residual Approach[]
五、图像分类、聚类Image Classification, Clustering
- Pyramid Match [1] []
- Spatial Pyramid Matching [2] []
- Locality-constrained Linear Coding [3] [] []
- Sparse Coding [4] [] []
- Texture Classification [5] []
- Multiple Kernels for Image Classification [6] []
- Feature Combination [7] []
- SuperParsing []
- Large Scale Correlation Clustering Optimization[]
- Detecting and Sketching the Common[]
- Self-Tuning Spectral Clustering[][]
- User Assisted Separation of Reflections from a Single Image Using a Sparsity Prior[][]
- Filters for Texture Classification[]
- Multiple Kernel Learning for Image Classification[]
- SLIC Superpixels[]
六、抠图Image Matting
- A Closed Form Solution to Natural Image Matting []
- Spectral Matting []
- Learning-based Matting []
七、目标跟踪Object Tracking:
- A Forest of Sensors - Tracking Adaptive Background Mixture Models []
- Object Tracking via Partial Least Squares Analysis[][]
- Robust Object Tracking with Online Multiple Instance Learning[][]
- Online Visual Tracking with Histograms and Articulating Blocks[]
- Incremental Learning for Robust Visual Tracking[]
- Real-time Compressive Tracking[]
- Robust Object Tracking via Sparsity-based Collaborative Model[]
- Visual Tracking via Adaptive Structural Local Sparse Appearance Model[]
- Online Discriminative Object Tracking with Local Sparse Representation[][]
- Superpixel Tracking[]
- Learning Hierarchical Image Representation with Sparsity, Saliency and Locality[][]
- Online Multiple Support Instance Tracking [][]
- Visual Tracking with Online Multiple Instance Learning[]
- Object detection and recognition[]
- Compressive Sensing Resources[]
- Robust Real-Time Visual Tracking using Pixel-Wise Posteriors[]
- Tracking-Learning-Detection[][]
- the HandVu:vision-based hand gesture interface[]
- Learning Probabilistic Non-Linear Latent Variable Models for Tracking Complex Activities[]
八、Kinect:
- Kinect toolbox[]
- OpenNI[]
- zouxy09 CSDN Blog[]
- FingerTracker 手指跟踪[]
九、3D相关:
- 3D Reconstruction of a Moving Object[] []
- Shape From Shading Using Linear Approximation[]
- Combining Shape from Shading and Stereo Depth Maps[][]
- Shape from Shading: A Survey[][]
- A Spatio-Temporal Descriptor based on 3D Gradients (HOG3D)[][]
- Multi-camera Scene Reconstruction via Graph Cuts[][]
- A Fast Marching Formulation of Perspective Shape from Shading under Frontal Illumination[][]
- Reconstruction:3D Shape, Illumination, Shading, Reflectance, Texture[]
- Monocular Tracking of 3D Human Motion with a Coordinated Mixture of Factor Analyzers[]
- Learning 3-D Scene Structure from a Single Still Image[]
十、机器学习算法:
- Matlab class for computing Approximate Nearest Nieghbor (ANN) [ providing interface to]
- Random Sampling[]
- Probabilistic Latent Semantic Analysis (pLSA)[]
- FASTANN and FASTCLUSTER for approximate k-means (AKM)[]
- Fast Intersection / Additive Kernel SVMs[]
- SVM[]
- Ensemble learning[]
- Deep Learning[]
- Deep Learning Methods for Vision[]
- Neural Network for Recognition of Handwritten Digits[]
- Training a deep autoencoder or a classifier on MNIST digits[]
- THE MNIST DATABASE of handwritten digits[]
- Ersatz:deep neural networks in the cloud[]
- Deep Learning []
- sparseLM : Sparse Levenberg-Marquardt nonlinear least squares in C/C++[]
- Weka 3: Data Mining Software in Java[]
- Invited talk "A Tutorial on Deep Learning" by Dr. Kai Yu (余凯)[]
- CNN - Convolutional neural network class[]
- Yann LeCun's Publications[]
- LeNet-5, convolutional neural networks[]
- Training a deep autoencoder or a classifier on MNIST digits[]
- Deep Learning 大牛Geoffrey E. Hinton's HomePage[]
- Multiple Instance Logistic Discriminant-based Metric Learning (MildML) and Logistic Discriminant-based Metric Learning (LDML)[]
- Sparse coding simulation software[]
- Visual Recognition and Machine Learning Summer School[]
十一、目标、行为识别Object, Action Recognition:
- Action Recognition by Dense Trajectories[][]
- Action Recognition Using a Distributed Representation of Pose and Appearance[]
- Recognition Using Regions[][]
- 2D Articulated Human Pose Estimation[]
- Fast Human Pose Estimation Using Appearance and Motion via Multi-Dimensional Boosting Regression[][]
- Estimating Human Pose from Occluded Images[][]
- Quasi-dense wide baseline matching[]
- ChaLearn Gesture Challenge: Principal motion: PCA-based reconstruction of motion histograms[]
- Real Time Head Pose Estimation with Random Regression Forests[]
- 2D Action Recognition Serves 3D Human Pose Estimation[
- A Hough Transform-Based Voting Framework for Action Recognition[
- Motion Interchange Patterns for Action Recognition in Unconstrained Videos[
- 2D articulated human pose estimation software[]
- Learning and detecting shape models []
- Progressive Search Space Reduction for Human Pose Estimation[]
- Learning Non-Rigid 3D Shape from 2D Motion[]
十二、图像处理:
- Distance Transforms of Sampled Functions[]
- The Computer Vision Homepage[]
- Efficient appearance distances between windows[]
- Image Exploration algorithm[]
- Motion Magnification 运动放大 []
- Bilateral Filtering for Gray and Color Images 双边滤波器 []
- A Fast Approximation of the Bilateral Filter using a Signal Processing Approach [
十三、一些实用工具:
- EGT: a Toolbox for Multiple View Geometry and Visual Servoing[] []
- a development kit of matlab mex functions for OpenCV library[]
- Fast Artificial Neural Network Library[]
十四、人手及指尖检测与识别:
- finger-detection-and-gesture-recognition []
- Hand and Finger Detection using JavaCV[]
- Hand and fingers detection[]
十五、场景解释:
- Nonparametric Scene Parsing via Label Transfer []
十六、光流Optical flow:
- High accuracy optical flow using a theory for warping []
- Dense Trajectories Video Description []
- SIFT Flow: Dense Correspondence across Scenes and its Applications[]
- KLT: An Implementation of the Kanade-Lucas-Tomasi Feature Tracker []
- Tracking Cars Using Optical Flow[]
- Secrets of optical flow estimation and their principles[]
- implmentation of the Black and Anandan dense optical flow method[]
- Optical Flow Computation[]
- Beyond Pixels: Exploring New Representations and Applications for Motion Analysis[]
- A Database and Evaluation Methodology for Optical Flow[]
- optical flow relative[]
- Robust Optical Flow Estimation []
- optical flow[]
十七、图像检索Image Retrieval:
- Semi-Supervised Distance Metric Learning for Collaborative Image Retrieval ][]
十八、马尔科夫随机场Markov Random Fields:
- Markov Random Fields for Super-Resolution ]
- A Comparative Study of Energy Minimization Methods for Markov Random Fields with Smoothness-Based Priors []
十九、运动检测Motion detection:
- Moving Object Extraction, Using Models or Analysis of Regions ]
- Background Subtraction: Experiments and Improvements for ViBe []
- A Self-Organizing Approach to Background Subtraction for Visual Surveillance Applications []
- changedetection.net: A new change detection benchmark dataset[]
- ViBe - a powerful technique for background detection and subtraction in video sequences[]
- Background Subtraction Program[]
- Motion Detection Algorithms[]
- Stuttgart Artificial Background Subtraction Dataset[]
- Object Detection, Motion Estimation, and Tracking[]