Introduction of Biomedical Signals and Images: ECG, EEG, Imaging Modalities: Survey of major modalities for medical imaging: ultrasound, X-ray, CT, MRI, PET, and SPECT, MRI, FMRI, Various Applications

Introduction (ML applications)-topics in Linear system (linear regression)-Basics of Gradient Descent and its variants (logistic regression)-A detailed understanding of Projected Gradient (white-box adversarial attack)and Proximal Gradient (lasso)-Details of Conditional Gradient (recommendation system)-The Sub gradient approach (svm)-Mirror Descent and Metric Gradient methods-Acceleration (total variation denoising)-Smoothing (robust svm)-optimal transport for machine learning -Alternating (VAE)- Minimax (adversarial training)-Averaging (GANs)-Splitting (federated learning)-Extra gradient (

The Perceptron, Feed-forward networks and Multi-layer perceptron, Memory based networks like Boltzmann Machines, Hopfield Networks. State based networks like Recurrent Neural Networks, Long Short Term Memory Networks.

Introduction to Neural network and Back propagation-Basics of Tensor flow and Keras-Details on Convolutional Neural Networks and types of different convolutions-recent topics in Recurrent Neural Net-works, LSTM, GRUs-Time series Processing-Details of Transformer Networks for text and Vision- Instance and Semantic Segmentation-Generative Models, VAE-Deep Generative Adversarial Networks- Model Interpretation etc.

Review of basic probability and stochastic processes. Introduction to Markov chains. Markov models for discrete time dynamic systems, Reward, Policies, Policy evaluation, Markov decision processes, Optimality criteria, Bellman’s optimality principle, Dynamic programming, Optimality equations, Policy search, Policy iteration, Value iteration. Generalized Policy Iteration, Approximate dynamic programming.

Introduction of deep learning- Foundations of deep learning, basics aspects of machine learning, artificial intelligence, mathematics, statistics, and neurosciences (both theory and applications)- Applications in self-driving cars, new kinds of video games, AI, Automation, object detection and recognition, surveillance tracking etc.- Introduce to Neural networks and Deep learning approaches (mainly Convolutional Neural networks) and give a few typical applications.

Human visual system and image perception; monochrome and color vision models; image digitization, display, and storage; 2‐D signals and systems; image transforms‐ 2D DFT, DCT, KLT, Harr transform and discrete wavelet transform; image enhancement: histogram processing.

Feature Detection and Characterization, Scale Space idea, Laplacian and Gaussian Derivatives, Differential Invariant Structure–Nonlinear Scale Space, Anisotropic Diffusion, PDE for image processing

Image Enhancement-Noise models, image de-noising using linear filters, order statistics-based filters and wavelet shrinkage methods, image sharpening, image super-resolution using Bayesian methods

Image segmentation: Graph-based techniques, Active Contours, Active Shape Models, Shape Analysis

PR overview - Feature extraction - Statistical Pattern Recognition - Supervised Learning - Parametric methods - non-parametric methods; ML estimation - Bayes estimation - KNN approaches. Dimensionality reduction, data normalization. Regression, and time series analysis. Linear discriminant functions. Fisher's linear discriminant and linear perceptron. Kernel methods and Support vector machine. Decision trees for classification. Unsupervised learning and clustering. K-means and hierarchical clustering. Decision Trees for classification.

Introduction: What is VR, applications, basic components of VR, Success stories of VR and challenges, VR hardware, visualization, VR content generation, and storing. Human Senses and VR: Discussion on how human senses correlate to VR such as Visual system, Auditory System, Olfaction, Gustation, etc.

Three-dimensional geometry theory: coordinate system, Vectors, Line, plane transformation etc. The rendering pipeline: Geometry and vertex operations, culling and clipping, screen mapping, scan conversion or rasterization, fragment processing, texturing, etc.

International standards related to image/video/audio formulated by ISO/IEC/ITU. Short‐term Fourier Transform & Continuous Wave let Transform, CWT and its discretization, Discrete Wavelet Transforms, 2 ‐ D Wavelet Transforms, Coding Techniques in 2 ‐ D Wavelet Transforms, Family of MPEG 1/2/4 (Moving Picture Experts Group), H.26x(x=1,2,3), JPEG/JPEG‐LS/JPEG2000 (Joint Photographic Experts Group), JBIG1/2(Joint Binary Image Group), H.264/MPEG ‐ 4 Part 10 AVC (Advanced Video Coding) and the emerging H.265 standard (HEVC) and latest standard such as H.264 etc.

Basic topics of computer vision, and image processing -Introduce some fundamental approaches for computer vision research: Image Filtering, Edge Detection, Interest Point Detectors, Motion and Optical Flow, Object Detection and Tracking, Region/Boundary Segmentation, Shape Analysis, and Statistical Shape Models, Deep Learning for Computer Vision, Imaging Geometry, Camera Modeling, and Calibration. Recent Advances in Computer vision.

Programming: