Architecture-Aware Optimization

The Optimization Layer Between Models and Silicon

MarsCompute is the adaptive optimization layer for heterogeneous AI hardware, continuously improving latency, efficiency, and small-batch behavior across NVIDIA, AMD, and mixed accelerator fleets.

  • Architecture-aware optimization across heterogeneous hardware
  • Self-evolving performance engine driven by live execution behavior
  • Cross-platform execution intelligence for production AI infrastructure
Abstract compute grid visualization

The Problem

AI infrastructure bottlenecks are increasingly caused by optimization limits, not lack of theoretical compute.

  • Hardware heterogeneity across NVIDIA, AMD, and custom ASIC environments
  • Underutilized accelerators caused by weak architecture-specific execution plans
  • Poor small-batch latency in real production serving paths
  • Manual kernel-level tuning loops that do not scale
  • Framework-hardware fragmentation across compiler, runtime, and deployment layers
Raw FLOPs are not the primary constraint. Optimization intelligence is.

The Solution: Mars Optimization Brain

A system layer that continuously optimizes execution across heterogeneous hardware instead of relying on static, one-time tuning.

  • Continuously discovers optimization opportunities from live workload behavior
  • Learns hardware topology and architecture-level constraints
  • Models kernel, memory, and runtime interactions before applying changes
  • Plans non-conflicting optimization sequences using conflict-aware scheduling
  • Evolves as new architectures, drivers, and serving patterns are introduced

Core system language

Optimization Graph
Conflict-aware scheduling
Architecture discovery
Cross-layer co-design

Why AMD / MI300 Matters

MI300-class hardware has major headroom. Turning that potential into production performance still requires deeper optimization intelligence.

The Opportunity

AMD MI300 offers substantial theoretical performance and efficiency potential for large-scale AI workloads.

Current Gap

Tooling maturity is still uneven across parts of the ecosystem, including Triton/ROCm paths and small-batch inference optimization.

MarsCompute Role

MarsCompute acts as the performance unlock layer for MI300 by translating architecture specifics into stable execution gains.

Ecosystem Positioning

This approach accelerates AMD ecosystem readiness and deployment confidence without replacing existing toolchains.

Performance Evidence

Representative optimization result from our current execution pipeline.

Automated optimization on Flash Attention 2 by 52% on H100

Recorded demonstration of MarsCompute optimization workflow on a production-relevant inference kernel path.

Product Layers

Three coordinated layers connect architecture signals to production execution improvements.

Layer 1: Architecture Discovery

Maps topology, memory hierarchy, interconnect behavior, and execution constraints for each target environment.

Layer 2: Optimization Planning Engine

Builds optimization graphs and generates conflict-aware plans across kernels, runtime policy, and scheduling paths.

Layer 3: Execution & Continuous Adaptation

Applies optimizations safely in production, measures impact, and keeps improving as workloads and systems change.

Who This Is For

MarsCompute is built for teams managing infrastructure-critical AI performance at system scale.

Built for

  • Hyperscalers operating multi-architecture AI fleets
  • AI infrastructure and platform engineering teams
  • GPU and accelerator vendors scaling production adoption
  • Advanced model serving teams focused on latency and efficiency

Not designed for

  • Casual developers
  • Hobby ML users
  • Non-production experimentation stacks

Long-Term Vision

Execution OS for heterogeneous AI hardware.

In five years, multi-architecture AI infrastructure will be the default operating condition. Manual optimization workflows will not scale, and static compilers alone will not keep pace with workload and silicon change. MarsCompute is building the adaptive intelligence layer between models and hardware.

Team

Led by Prof. Bingsheng He (National University of Singapore). We are a focused team of experts in compilers, kernels, and AI systems.

Mars began as a pioneering project on GPU acceleration led by Prof. He in 2007, the year CUDA was born. You can read more about the original work here.

Kernel OptimizationAI SystemsCompilers & Runtime

Building the Adaptive Optimization Layer for AI Infrastructure

Use the form to start a technical discussion, submit a partnership inquiry, or apply as a design partner.

We work with teams operating production AI systems where architecture-aware optimization is infrastructure-critical.

- Technical architecture reviews

- Partnership and ecosystem collaboration

- Design partner program participation