Deep Learning

  - Mathematical Foundations
    
      - Scalars, vectors, matrices, and tensors
- Operations: matrix transpose, dot product, and inversion
- Vector spaces and their properties
 
- Introduction to Neural Networks
    
      - Perceptron: structure, components, and binary classification
- Activation functions: Sigmoid, ReLU, tanh, and step functions
- Basics of feedforward neural networks
 
  - Linear Regression
    
      - Concepts: dependent and independent variables
- Regression equation and modeling
- Applications in prediction and data analysis
 
- Logistic Regression
    
      - Sigmoid function for binary classification
- Logistic regression for multi-class classification
- Practical examples: classification using the Iris dataset
- Comparison of odds and probabilities
 
  - Deep Neural Networks
    
      - Structure of DNN: input, hidden, and output layers
- Challenges in training deep networks: vanishing and exploding gradients
 
- Training Techniques
    
      - Regularization methods: weight decay, dropout, and batch normalization
- Early stopping as a technique to prevent overfitting
- Optimization algorithms: Stochastic Gradient Descent (SGD), Adam, RMSProp
- Mini-batch gradient descent and its advantages
 
  - Fundamentals of Backpropagation
    
      - Forward pass to compute output
- Backward pass to calculate gradients using the chain rule
- Weight updates based on computed gradients
 
- Applications
    
      - Backpropagation in feedforward neural networks
- Backpropagation through time (BPTT) for recurrent networks
- Examples: gradient calculation and error minimization in small networks
 
  - Introduction to CNNs
    
      - Components: convolutional layers, pooling layers, and fully connected layers
- Feature extraction using kernels and filters
 
- Architectures and Applications
    
      - Famous architectures: AlexNet, ResNet, VGG, GoogLeNet
- Use cases: object detection, style transfer, super-resolution
 
- Training CNNs
    
      - Backpropagation for weight updates in convolutional layers
- Shared weights and localized feature extraction
 
  - Basics of RNNs
    
      - Sequential data modeling using RNNs
- Hidden states and time-step dependencies
 
- Advanced RNN Models
    
      - Long Short-Term Memory (LSTM): structure and role of cell states
- Gated Recurrent Unit (GRU): simplified LSTM with fewer parameters
 
- Training Techniques
    
      - Addressing vanishing gradients in RNNs
- Backpropagation through time (BPTT) for sequence-based tasks
 
  - Generative Adversarial Networks (GANs)
    
      - Architecture: generator and discriminator interaction
- Adversarial training process
- Applications: image synthesis, text-to-image generation, super-resolution
 
- Training Challenges
    
      - Stability issues in GAN training
- Techniques to balance generator and discriminator improvements
 
  - Encoder-Decoder Architecture
    
      - Compression and reconstruction using autoencoders
- Dimensionality reduction and feature extraction
 
- Advanced Autoencoders
    
      - Variational Autoencoders (VAE) for probabilistic modeling
- Use cases in anomaly detection and generative tasks
 
  - Evaluation Metrics
    
      - Accuracy, precision, recall, and F1-score
- Confusion matrix: true positive, false positive, true negative, false negative
- ROC curves and AUC as measures of classifier performance
 
- Model Comparison
    
      - Methods for comparing predictive capabilities of models
- Limitations of specific metrics like accuracy in imbalanced datasets
 
  - Transfer Learning
    
      - Leveraging pre-trained models for specific tasks
- Popular models: AlexNet, ResNet, and their applications
 
- Deep Learning Applications
    
      - Fields of use: healthcare, agriculture, genomics, autonomous systems
- Specialized tasks: video captioning, behavior prediction, and personalized recommendations