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Computer Science
Artificial Intelligence
Deep Learning
Deep Learning and Neural Networks
1. Foundations of Machine Learning and Neural Networks
2. Training Shallow Neural Networks
3. Deepening the Network
4. Practical Considerations for Training
5. Convolutional Neural Networks (CNNs)
6. Recurrent Neural Networks (RNNs)
7. The Transformer Architecture
8. Generative Models
9. Deep Reinforcement Learning
10. Advanced Topics and Specialized Architectures
11. Deployment and Production
Deepening the Network
The Rise of Deep Learning
Historical Context
Key Breakthroughs and Milestones
Computational Advances
Data Availability
Challenges with Deep Networks
The Vanishing Gradient Problem
Causes and Mathematical Explanation
Effects on Training Deep Networks
Impact on Early Layers
The Exploding Gradient Problem
Causes and Mathematical Explanation
Effects on Training Stability
Gradient Clipping Solutions
Overfitting in Deep Networks
Increased Model Complexity
Memorization vs. Generalization
Training Instability
Computational Complexity
Solutions and Modern Practices
Improved Activation Functions
ReLU and its Variants
Addressing Vanishing Gradients
Weight Initialization Schemes
Importance of Proper Initialization
Random Initialization Problems
Xavier/Glorot Initialization
Mathematical Formulation
Variance Preservation
Use Cases
He Initialization
Mathematical Formulation
ReLU-Specific Design
Use Cases
Normalization Techniques
Batch Normalization
Normalizing Activations
Internal Covariate Shift
Impact on Training Speed and Stability
Implementation Details
Layer Normalization
Per-Sample Normalization
Comparison to Batch Normalization
Group Normalization
Instance Normalization
Residual Connections
Skip Connections
Identity Mappings
Benefits for Deep Networks
ResNet Architecture
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2. Training Shallow Neural Networks
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4. Practical Considerations for Training