
Contributed to the AI-Hypercomputer/maxdiffusion repository by developing advanced transformer-based pipelines for facial and character animation, enabling the generation of animated content from static images and video inputs. Leveraged Python, JAX, and TPU programming to implement novel attention mechanisms, including Ulysses and hybrid Ulysses-ring attention, optimizing inference for long sequences and distributed environments. Enhanced workflow reliability and efficiency through CI/CD concurrency controls and model inference caching with Orbax, reducing latency and accelerating feedback cycles. Addressed transformer sharding and cross-attention challenges with dynamic utilities and comprehensive unit testing, resulting in improved maintainability, scalability, and performance across deep learning and video processing workflows.
May 2026 performance summary for AI-Hypercomputer/maxdiffusion. The team delivered a set of high-value features, reliability improvements, and performance optimizations that collectively reduce inference latency, accelerate CI feedback, and enable scalable context-aware modeling. Key work focused on transformer-based motion mimic for character animation, efficient CI/CD, aHybrid attention kernel for context-parallel processing, and fast model loading through weight caching. Where applicable, pre-computations and explicit sharding configurations increased throughput and reliability across workflows and inference paths.
May 2026 performance summary for AI-Hypercomputer/maxdiffusion. The team delivered a set of high-value features, reliability improvements, and performance optimizations that collectively reduce inference latency, accelerate CI feedback, and enable scalable context-aware modeling. Key work focused on transformer-based motion mimic for character animation, efficient CI/CD, aHybrid attention kernel for context-parallel processing, and fast model loading through weight caching. Where applicable, pre-computations and explicit sharding configurations increased throughput and reliability across workflows and inference paths.
April 2026 focused on advancing core diffusion/modeling capabilities and improving inference efficiency on WAN TPU within the AI-Hypercomputer/maxdiffusion project. Delivered a transformer-based Face Motion Vector Transformer to animate facial motion vectors from input images, enabling generation of animated content from stills. Implemented Ulysses attention to enable sequence-parallel attention for long sequences on WAN TPU, including configuration updates, new attention logic, and tests. Resolved a transformer sharding bug and optimized cross-attention with utilities to compute sequence lengths and select block sizes based on input dimensions, plus updated initializers for compatibility. These changes increase generation capabilities, reduce latency for long sequences, and improve maintainability of the transformer stack.
April 2026 focused on advancing core diffusion/modeling capabilities and improving inference efficiency on WAN TPU within the AI-Hypercomputer/maxdiffusion project. Delivered a transformer-based Face Motion Vector Transformer to animate facial motion vectors from input images, enabling generation of animated content from stills. Implemented Ulysses attention to enable sequence-parallel attention for long sequences on WAN TPU, including configuration updates, new attention logic, and tests. Resolved a transformer sharding bug and optimized cross-attention with utilities to compute sequence lengths and select block sizes based on input dimensions, plus updated initializers for compatibility. These changes increase generation capabilities, reduce latency for long sequences, and improve maintainability of the transformer stack.

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