Electronic design, in three dimensionsPhysics / Silicon / Compute

The next
dimension of
chip design.

We’re building a new generation of EDA tools for 3D integrated circuits. Grounded in physics. Designed for hardware acceleration. Built from the ground up.

Starting with thermal simulation. Thinking beyond it.

Inside a 3D package
A 3D chip package with a finned heatsink An isometric illustration of a finned aluminum heatsink, copper heat spreader, thermal interface, stacked silicon dies, copper interconnects, silicon interposer, and package substrate with solder balls. The layers share one vertical axis. Dimensions are illustrative. Heatsink / Stacked silicon / Package substrate 3D IC / PACKAGE ASSEMBLY
SiliconCopper
Illustrative package · Not to scale3DA chips / Research & development
01What we’re building

More dimensions.
Deeper understanding.

Our starting point is heat: how it moves through a stack, across materials, and between dies. Our ambition is broader—a connected set of physics tools that helps engineers make better decisions throughout the design process.

Our starting point

Thermal, first.

GPU thermal simulation for the structures that make 3D ICs possible. We study heat flow through stacked layers, material interfaces, and vertical interconnects to inform design choices.

Heat flow / Materials / Interfaces
Our foundation

Acceleration, by design.

We’re writing EDA tools from scratch for GPUs and other hardware accelerators. Algorithms, data structures, and workflows are designed around the hardware from the outset.

Parallel compute / Purpose-built tools
Our direction

More physics, connected.

We’re working to extend our thermal expertise into other physical domains. The goal is an end-to-end design and verification platform that brings those perspectives together.

Research expansion / Coupled physics
02Our approach

From physical insight
to engineering tools.

Research guides what we build. Measurement guides what we improve. We connect physical models, modern compute, and engineering validation in one development process.

01 / RESEARCH

Understand the physics.

Study research papers, technical documentation, and design specifications to define the right problems.

02 / ENGINEER

Build for the hardware.

Turn physical models into algorithms and tools designed for parallel computation.

03 / VALIDATE

Make the evidence count.

Check implementations against numerical tests and reference data. Measure accuracy and computational cost together.

04 / EXPAND

Connect more domains.

Use what we learn to refine our tools and extend the platform beyond thermal simulation.

A growing toolset. A consistent foundation in physics.

03Let’s build what’s next

Working on the
next stack?

We’d like to hear about your design challenges, research ideas, and the tools you wish existed.