Search topics…
Tutorials
Explore
June 6 Offline Event →
Model Development

PyTorch Deep Learning

Complete PyTorch Deep Learning syllabus path — from basic tensor operations and Autograd calculations to GPU CUDA accelerations, CNNs, and recurrent networks.

Master tensor programming, dynamic computation graphs, automatic differentiation, model architectures, custom loaders, and multi-GPU acceleration pipelines.

8Modules
16Parts
1CUDA Setup
Module 1

Tensors & Dynamic Graphs

Master multi-dimensional tensor arrays, dynamic run-time layout compilation, and basic initializations.

  • Tensor declarations & properties
  • Dynamic vs. Static session graphs
  • Define-by-Run control flow loops
Read Module
Module 2

Autograd Engine

Analyze how requires_grad, DAG operations tracking, and backward loops compute network weight derivatives.

  • Gradient tracking flags
  • Vector-Jacobian products DAGs
  • The Backward pass trigger
Read Module
Module 3

torch.nn & Pipelines

Structure models inheriting from nn.Module, specifying active layer transformations, criterion, and SGD updates.

  • Linear and Activation layers
  • Zeroing gradients buffers
  • Standard training step loops
Read Module
Module 4

Dataset & DataLoader

Implement custom index mapping subclasses to preprocess items, handle mini-batch partitions, and assign worker nodes.

  • Custom CSV & Image subclasses
  • Batch size & shuffling configs
  • Parallel workers streams
Read Module
Module 5

GPU CUDA Acceleration

Accelerate matrix logic operations by pushing weights, variables, and tensors to GPU VRAM using CUDA pipelines.

  • CPU vs GPU core counts
  • torch.device config checks
  • PCIe bus data transfers
Read Module
Module 6

Optimizations & Regularization

Minimize loss functions using Adam and SGD. Fine-tune learning rate schedules, weight decay, and dropout masks.

  • Stochastic updates vs Adaptive Adam
  • Dropout node deactivations
  • Batch Normalization layers
Read Module
Module 7

CNNs Classifier Pipelines

Extract structural context from grid arrays. Compute Conv2d channels, kernel boundaries, and MaxPool steps.

  • Convolutional 2D filters
  • MaxPool dimensions transitions
  • Torchvision image transforms
Read Module
Module 8

RNNs & Time Series Sequences

Process sequence context logs through recurring weights states. Implement unrolled backpropagation loops.

  • Hidden recurrent context vectors
  • Backpropagation Through Time DAGs
  • Sequential text & series training
Read Module

PyTorch Syllabus Quick Nav