ThermodynamicArchitecturefor AI Silicon
Coeffici integrates precision microfluidics, magnetocaloric entropy layers, and multi-physics orchestration to extend compute density for the AI era.
We don't just move heat;
we manage thermodynamics
Our unified stack integrates precision microfluidics, magnetocaloric materials, and active field control through three integrated layers working in harmony.
Precision Microfluidics
Hardware Layer
Deterministic microchannel geometry engineered for hotspot targeting and minimized pressure drop. Each channel is optimized for extreme thermal density.
Magnetocaloric Buffering
Entropy Layer
Low-hysteresis, room-temperature magnetocaloric materials embedded as dynamic entropy reservoirs. Actively absorbs transient heat spikes.
Active Field Cycling
Field Layer
Actively cycled magnetic fields (0–1.5 T) engineered for integration feasibility and EMI safety. Triggers entropy absorption and release.
EntropyOS Orchestration
Control Layer
Real-time thermodynamic control engine that dynamically controls field cycling to regulate entropy absorption and release. The brain of the system.
Four layers. One unified system. Infinite thermal control.
Engineered for extreme density
Every component of our stack is precision-engineered for AI silicon. From microchannel geometry to field modulation algorithms.
Microfluidics
Magnetocaloric
Field Control
What makes us different
Deterministic Flow Architecture
Unlike conventional liquid cooling that relies on turbulent flow, our microfluidic channels are precision-engineered for laminar flow with predictable thermal impedance.
Active Entropy Management
Traditional cooling is passive. Our magnetocaloric layers actively absorb and release thermal energy on demand, creating a thermal buffer that smooths transient heat spikes.
Real-Time Field Modulation
Static magnetic fields are inefficient. Our actively cycled fields respond to thermal load in real-time, optimizing energy efficiency while maintaining cooling capacity.
Four layers. One unified system. Infinite thermal control.
The brain of the system
EntropyOS is a real-time thermodynamic control engine that orchestrates field cycling, monitors thermal state, and optimizes cooling strategies.
Real-Time Control
Sub-millisecond response to thermal load changes with predictive algorithms.
Multi-Physics Simulation
Coupled thermal, magnetic, and fluid dynamics modeling for accurate predictions.
Predictive Analytics
AI-powered forecasting of thermal behavior to optimize cooling strategies.
"The next generation of AI scaling will not be limited by transistor count or memory bandwidth. It will be limited by the laws of thermodynamics."
Coeffici is building the entropy infrastructure required to sustain the future of global compute. We believe that mastering thermodynamics at the chip scale is the key to unlocking the next decade of AI advancement.
Let's build the future together
Ready to extend compute density beyond conventional limits? Get in touch with our team.
Location
San Francisco, CA
Working Hours
Monday - Friday: 9:00 AM - 6:00 PM PST
We typically respond within 24 hours