High Bandwidth Memory (HBM)
High Bandwidth Memory (HBM) architecture: 3D-stacked DRAM with TSV technology powering NVIDIA GPUs and AI accelerators with TB/s bandwidth.
Explore machine learning concepts related to gpu. Clear explanations and practical insights.
High Bandwidth Memory (HBM) architecture: 3D-stacked DRAM with TSV technology powering NVIDIA GPUs and AI accelerators with TB/s bandwidth.
Master GPU memory hierarchy from registers to global memory, understand coalescing patterns, bank conflicts, and optimization strategies for maximum performance
NVIDIA Unified Virtual Memory (UVM): on-demand page migration, memory oversubscription, and simplified CPU-GPU memory management.
CUDA page migration and fault handling between CPU and GPU memory. Learn TLB management, DMA transfers, and memory optimization.
Understanding character devices, major/minor numbers, and the device file hierarchy created by NVIDIA drivers for GPU access in Linux.
GPU distributed parallelism: Data Parallel (DDP), Tensor Parallel, Pipeline Parallel, and ZeRO optimization for training large AI models.
Learn nvidia-modeset for display configuration on Linux. Understand kernel mode-setting, DRM integration, and GPU drivers.
Learn CUDA Multi-Process Service (MPS) for GPU sharing. Enable concurrent kernel execution from multiple processes and maximize GPU utilization.
Automate NVIDIA GPU management in Kubernetes with the GPU Operator. Deploy drivers, device plugins, and monitoring as DaemonSets.
Explore the concept of CUDA contexts, their role in managing GPU resources, and how they enable parallel execution across multiple CPU threads.
Master Structure of Arrays (SoA) vs Array of Structures (AoS) data layouts for optimal cache efficiency, SIMD vectorization, and GPU memory coalescing.
Eliminating GPU initialization latency through nvidia-persistenced - a userspace daemon that maintains GPU driver state for optimal startup performance.
Interactive Flash Attention visualization - the IO-aware algorithm achieving memory-efficient exact attention through tiling and kernel fusion.
Master NVIDIA NCCL for multi-GPU deep learning. Learn AllReduce, ring algorithms, and GPU-Direct communication for efficient distributed training on CUDA.
Understanding how PyTorch DataLoader moves data from disk through CPU to GPU, including Dataset, Sampler, Workers, and Collate components.
Understanding PyTorch pin_memory for faster CPU to GPU data transfers using DMA (Direct Memory Access) and page-locked memory.
NVIDIA Tensor Cores explained: mixed-precision matrix operations delivering 10x speedups for AI training and inference on CUDA GPUs.
Deep dive into the fundamental processing unit of modern GPUs - the Streaming Multiprocessor architecture, execution model, and memory hierarchy