Detailed profiling data from a training and inference framework is shared, highlighting communication-computation overlap strategies with PyTorch Profiler visualizations. The framework implements DualPipe with MoE layers across different configurations, including EP64/TP1 for training and EP32/TP1 for prefilling, demonstrating balanced routing and micro-batch optimization techniques.
Researchers developed a deep reinforcement learning system that trains anthropomorphic robot hands to play piano, using MuJoCo physics engine and MIDI files for simulation. The system achieves high performance by incorporating human fingering patterns and energy optimization, demonstrating significant improvements over baseline methods with an average F1 score of 0.79 across test pieces.
DeepGEMM is a CUDA library offering efficient FP8 matrix multiplications with fine-grained scaling, supporting both normal and Mix-of-Experts GEMMs. The lightweight library matches or exceeds performance of expert-tuned libraries, featuring runtime compilation and Hopper tensor core optimization, while maintaining a simple ~300-line core kernel.
An implementation guide for llama3 from scratch using JAX in 100 lines of code, covering model architecture, initialization, and training on Shakespeare dataset. The implementation focuses on pure functional programming principles with JAX's unique features like xla, jit, and vmap for optimized performance.
Transformers' extraordinary learning capabilities allow them to master skills through simple observation of related tasks, showcasing the potential of emergent behavior in AI. Recent studies demonstrate that transformer models can learn complex skills without explicit training, revealing profound implications for future AI development and understanding.
Andrej Karpathy's deep dive into LLMs covers the complete lifecycle from pretraining to post-training, explaining tokenization, neural network architectures, and fine-tuning processes. The comprehensive guide explores how LLMs process information, handle hallucinations, and utilize reinforcement learning to improve performance and reasoning capabilities.
Large Language Models (LLMs) face significant limitations in OCR tasks due to their probabilistic nature and inability to maintain precise visual information, particularly struggling with complex layouts and tables. LLMs' vision processing architecture leads to critical errors in data extraction, including financial and medical data corruption, while also being susceptible to prompt injection vulnerabilities.