NVIDIA has introduced native Python support for its CUDA platform, which allows developers to write CUDA code directly in Python without needing to rely on additional wrappers. This enhancement simplifies the process of leveraging GPU capabilities for machine learning and scientific computing, making it more accessible for Python users.

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A demo showcases a unified Rust codebase that can run on various GPU platforms, including CUDA, SPIR-V, Metal, DirectX 12, and WebGPU, without relying on specialized shader or kernel languages. This achievement is made possible through collaborative projects like Rust GPU, Rust CUDA, and Naga, enabling seamless cross-platform GPU compute. While still in development, this milestone demonstrates Rust's potential for GPU programming and enhances developer experience by simplifying the coding process.

Tile Language (tile-lang) is a domain-specific language designed to simplify the creation of high-performance GPU/CPU kernels with a Pythonic syntax, built on the TVM infrastructure. Recent updates include support for Apple Metal, Huawei Ascend chips, and various performance enhancements for AMD and NVIDIA GPUs. The language allows developers to efficiently implement complex AI operations while focusing on productivity and optimization.

Chris Lattner, creator of LLVM and the Swift language, discusses the development of Mojo, a new programming language aimed at optimizing GPU productivity and ease of use. He emphasizes the importance of balancing control over hardware details with user-friendly features, advocating for a programming ecosystem that allows for specialization and democratization of AI compute resources.

This roadmap offers an introduction to GPU architecture for those new to the technology, emphasizing the differences between GPUs and CPUs. It outlines objectives such as understanding GPU features, implications for program construction in GPGPU, and specifics about NVIDIA GPU components. Familiarity with high-performance computing concepts may be beneficial but is not required.