Convolution Operation: The Foundation of CNNs
Master the convolution operation through interactive visualizations of sliding windows, feature detection, and the mathematical mechanics behind convolutional neural networks.
Explore machine learning concepts related to deep-learning. Clear explanations and practical insights.
Master the convolution operation through interactive visualizations of sliding windows, feature detection, and the mathematical mechanics behind convolutional neural networks.
Understand cross-entropy loss through interactive visualizations of probability distributions, gradient flow, and its connection to maximum likelihood estimation.
Master dilated (atrous) convolutions through interactive visualizations of dilation rates, receptive field expansion, gridding artifacts, and applications in segmentation.
Understand Feature Pyramid Networks (FPN) through interactive visualizations of top-down pathways, lateral connections, and multi-scale object detection.
Explore how receptive fields grow through CNN layers with interactive visualizations of effective vs theoretical fields, architecture comparisons, and pixel contributions.
Explore the latent space of Variational Autoencoders through interactive visualizations of encoding, decoding, interpolation, and the reparameterization trick.
Learn how the CLS token acts as a global information aggregator in Vision Transformers, enabling whole-image classification through attention mechanisms.
Explore how hierarchical attention enables Vision Transformers (ViT) to process sequential data by encoding relative positions.
Explore how multi-head attention enables Vision Transformers (ViT) to process sequential data by encoding relative positions.
Explore how positional embeddings enable Vision Transformers (ViT) to process sequential data by encoding relative positions.
Interactively explore how self-attention allows Vision Transformers (ViT) to understand images by capturing global context. Click, explore, and see how it differs from CNNs.
Understand ALiBi, the position encoding method that adds linear biases to attention scores, enabling exceptional length extrapolation without position embeddings.
Compare Multi-Head, Grouped-Query, and Multi-Query Attention mechanisms to understand their trade-offs and choose the optimal approach for your use case.
Understand attention sinks, the phenomenon where LLMs concentrate attention on initial tokens, and how preserving them enables infinite-length streaming inference.
Understand cross-attention, the mechanism that enables transformers to align and fuse information from different sources, sequences, or modalities.
Learn how Grouped-Query Attention balances the quality of Multi-Head Attention with the efficiency of Multi-Query Attention, enabling faster inference in large language models.
Explore linear complexity attention mechanisms including Performer, Linformer, and other efficient transformers that scale to very long sequences.
Learn how masked attention enables autoregressive generation and prevents information leakage in transformers, essential for language models and sequential generation.
Understand Multi-Query Attention, the radical efficiency optimization that shares keys and values across all attention heads, enabling massive memory savings for inference.
Understand Rotary Position Embeddings, the elegant position encoding method that encodes relative positions through rotation matrices, used in LLaMA, GPT-NeoX, and most modern LLMs.
Master the fundamental building block of transformers - scaled dot-product attention. Learn why scaling is crucial and how the mechanism enables parallel computation.
Learn how Sliding Window Attention enables efficient processing of long sequences by limiting attention to local context windows, used in Mistral and Longformer.
Explore sparse attention mechanisms that reduce quadratic complexity to linear or sub-quadratic, enabling efficient processing of long sequences.
Master He (Kaiming) initialization, the optimal weight initialization technique for ReLU networks that prevents gradient vanishing in deep neural architectures.
Understand Xavier (Glorot) initialization, the weight initialization technique that maintains signal variance across layers for stable deep network training.
Master contrastive loss functions including InfoNCE, NT-Xent, and Triplet Loss for representation learning and self-supervised training.
Master focal loss, the game-changing loss function that addresses extreme class imbalance by down-weighting easy examples and focusing on hard negatives.
Understand Kullback-Leibler divergence, the fundamental measure of difference between probability distributions used in VAEs, information theory, and model compression.
Understand Mean Squared Error (MSE) and Mean Absolute Error (MAE), the fundamental loss functions for regression tasks with different sensitivity to outliers.
Master dropout, the powerful regularization technique that prevents overfitting by randomly deactivating neurons during training, creating an ensemble of sub-networks.
Understanding adaptive tiling in vision transformers - a technique that dynamically adjusts image partitioning based on complexity to optimize token usage while preserving detail.
Understanding emergent abilities in large language models - sudden capabilities that appear at scale thresholds, from arithmetic to reasoning and self-reflection.
Master the art of prompt engineering - from basic composition to advanced techniques like Chain-of-Thought and Tree-of-Thoughts.
Deep dive into how different prompt components influence model behavior across transformer layers, from surface patterns to abstract reasoning.
Understanding neural scaling laws - the power law relationships between model size, data, compute, and performance that govern AI capabilities and guide development decisions.
Understanding how AI models analyze visual complexity to optimize processing - measuring entropy, edge density, saliency, and texture for intelligent resource allocation.
Understanding how gradients propagate through deep neural networks and the vanishing/exploding gradient problems.
Understanding layer normalization technique that normalizes inputs across features, making it ideal for sequence models and transformers.
Understanding the distribution shift problem in deep neural networks that batch normalization solves.
Understanding batch normalization technique that normalizes inputs to accelerate training and improve neural network performance.
Understanding skip connections, residual blocks, and their crucial role in training deep neural networks.