
Developed and integrated a new Mixture of Experts (MoE) switch model into the apple/axlearn repository, targeting scalable experimentation on TPU v6e and Fuji architectures. Leveraging Python and deep learning frameworks, the work introduced architecture enhancements and utilities to infer optimal batch sizes from mesh shapes, enabling efficient distribution and improved throughput. Expanded the test suite to comprehensively validate both the MoE switch model and Fuji-specific configurations, including rematerialization-aware training setups for better memory and performance optimization. This engineering effort established a foundation for production-ready, cost-efficient MoE workflows on advanced TPU hardware, emphasizing model optimization and robust machine learning practices.
July 2025: Delivered a new MoE switch model for TPU v6e testing and added Fuji-architecture support to AxLearn's MoE workflow. Implemented architecture enhancements and utilities to infer batch sizes from mesh shapes for scalable distribution, expanded test coverage, and introduced rematerialization-aware training configurations to optimize performance and memory usage. The work lays the groundwork for scalable MoE experimentation on TPU v6e and Fuji, enabling improved throughput and cost efficiency in large-scale experiments.
July 2025: Delivered a new MoE switch model for TPU v6e testing and added Fuji-architecture support to AxLearn's MoE workflow. Implemented architecture enhancements and utilities to infer batch sizes from mesh shapes for scalable distribution, expanded test coverage, and introduced rematerialization-aware training configurations to optimize performance and memory usage. The work lays the groundwork for scalable MoE experimentation on TPU v6e and Fuji, enabling improved throughput and cost efficiency in large-scale experiments.

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