EP Scaling in MoE Inference: Why Prefill and Decode Diverge
Expert parallelism changes weight reuse, token replication, and load imbalance. A simple cost model explains why prefill favors small EP groups while decode benefits from wider ones.
Research interests
My work connects algorithm design with scientific discovery, from multimodal generation and ML engineering to biomolecular design.
How can self-generated feedback and synthetic data improve models through post-training?
How can search and computation scale efficiently for reasoning, design, and optimization?
How can computational and experimental feedback enable continual model improvement and scientific discovery?
Self-improving AI, automated research, and biomolecular design.
Multimodal Models / Post-training
Self-Improving AI / Automated ResearchIn progress
Genomic Foundation Model
Long-horizon Evaluation / Lab-in-the-LoopIn progress
Alignment/Synthetic data
Scaling computation at test time
Notes on machine learning systems, GPU kernels, and efficient inference.
Expert parallelism changes weight reuse, token replication, and load imbalance. A simple cost model explains why prefill favors small EP groups while decode benefits from wider ones.
Compare four DeepEP dispatch designs through buffer ownership, completion signals, and network traffic—and connect those choices to communication latency.
The direction of a transfer follows who knows its final address. DeepEP and Mega MoE illustrate how that choice shapes buffering, execution order, and GPU resource use.