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.
Core concepts and building blocks of deep neural networks.
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.
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.