Post-Training
Investigating reinforcement learning, fine-tuning, distillation, and model specialization to advance reasoning, coding, and task-specific capabilities.
We develop methods to make AI models more capable, efficient, and faster to run.
Explore our missionWe are developing Sinefour Intelligence, a unified research initiative connecting post-training, intelligence optimization, and inference acceleration. Our aim is to advance what models can do while reducing the compute, memory, and time they need.
Aiming for more capable AI with less compute. Early-stage research; not a claim of production-ready performance.
One research initiative across three connected directions: improving capability, optimizing computation, and accelerating execution.
Investigating reinforcement learning, fine-tuning, distillation, and model specialization to advance reasoning, coding, and task-specific capabilities.
Exploring model compression, quantization, adaptive optimization, and hardware-aware optimization to improve AI performance and computational efficiency.
Exploring high-throughput token generation through compute-memory co-design, optimized dataflow, compiler-driven execution, and specialized inference architectures.
Early-stage experiments and prototypes across AI execution and engineering. This work informs our direction; it is not a claim of production-ready performance.
Architecture-search experiments explore tradeoffs across throughput, power, physical constraints, and model-specific execution. Results are analytical estimates, not silicon measurements.
We have built and exercised RTL components, simulation workflows, and early physical-design flows to connect architectural ideas to implementable hardware.
Work with an open-weight coding model includes a GPU inference baseline and a separate RTL-simulation effort, supporting a more disciplined path toward future comparisons.
Research conversations, collaborations, and new ideas start here.