Explore design spaces
Rapidly evaluate architecture, topology, and partitioning alternatives.
AI SYSTEM CO-DESIGN & PERFORMANCE INTELLIGENCE
Interplane creates an executable representation of AI workloads, compute architectures, memory systems, interconnects, and runtime behavior so teams can identify bottlenecks and evaluate changes before committing to hardware.
Early access for AI infrastructure and semiconductor design teams
AN EXECUTABLE MODEL OF YOUR AI SYSTEM
Outcomes
Rapidly evaluate architecture, topology, and partitioning alternatives.
Identify where compute, memory, interconnect, and I/O limit performance.
Tune models and hardware together for greater efficiency.
Avoid expensive respins and infrastructure mistakes before committing.
Design better scheduling, placement, routing, and load-balancing policies.
Analyze systems from chip and package through rack and data center.
How It Works
Interplane supports an executable world model for AI-system performance: a structured representation of workload, hardware, interconnect, and runtime choices that can be explored together.
Compare architecture choices quickly and identify where performance is likely to be constrained.
Understand how complete workloads interact with compute, memory, and communication resources.
Examine communication behavior across complex, connected systems.
Current results are internally modeled and uncalibrated. They support controlled relative comparisons and bottleneck analysis, not yet hardware-calibrated wall-clock prediction.
Use Cases
Compare accelerator, memory, fabric, and package choices around real workload behavior.
Study how chiplets, interposers, I/O, and packaging constraints shape the full system.
Evaluate where data movement, memory pressure, and topology choices create bottlenecks.
Explore scheduling, placement, routing, and load-balancing policies before deployment.
Connect chip, package, board, rack, and data-center questions in one design loop.
Early Access
Interplane is working with design partners on architecture studies, performance modeling, and hardware-software co-design.