StoneWood bypasses multi-billion-dollar EUV lithography bottlenecks. By uniting van der Waals additive integration with our multi-physics Sawyer EDA Suite, we unlock software-grade margins on post-silicon compute.
Switching Energy
Operating Temp
EUV Dependency
TAM Horizon
State actors have initiated procurement of over 5 million GaN semiconductors for 6G space-air-ground networks. Fusing wide-bandgap (WBG) materials introduces yield-killing interfacial defects that legacy commercial EDA tools cannot model. Cadence and Synopsys were built for silicon CMOS. That era is ending.
Silicon CMOS breaks down above 125°C. High-frequency 6G and defense platforms generate extreme thermal spikes that standard planar layouts cannot resolve.
Wide-bandgap interfaces exhibit stochastic defects and thermal boundary resistance (~220 m²K/GW). Unmodeled interface variations collapse wafer yield.
Legacy EDA tools assume perfect atomic lattice matching. They cannot simulate van der Waals thermal extraction, dipole shifts, or defect-adaptive placement.
Three integrated pillars that bypass the EUV wall and unlock the post-silicon era through software orchestration.
Capital-light additive packaging that vertically folds mature 90nm CMOS digital logic directly over high-performance GaN/SiC wide-bandgap power devices.
Proprietary multi-physics compiler that natively models Van der Waals interfaces, GaN-on-Si RF structures, and photonic nanocavities. The design tool legacy vendors cannot build.
100× energy-efficiency improvement over silicon CMOS. MoSe₂ 2D semiconductor matrices inside Si₃N₄ photonic nanocavities create exciton-polariton quasiparticles for non-linear optical switching.
Sawyer delivers software-grade business margins on a deep-tech hardware platform. By governing multi-physics design data across standard open-source libraries (SKY130, GF180, IHP130, ASAP7) and custom GaN-on-Diamond nodes, Sawyer acts as the indispensable compiler for the post-silicon era.
Calculates localized heat trapping at vdW interfaces and auto-shapes trace paths into micro-heat-sinks.
Algorithmically balances oxide coatings to automatically correct threshold voltage ($V_{th}$) shifts.
Ingests real-time characterization maps and automatically routes active gates around substrate defects.
Three execution phases aligned with defense milestones and the global IMEC logic scaling roadmap.
From a defensible beachhead in harsh-environment microelectronics to the high-density AI compute infrastructure of the next decade.
Harsh-Environment Microelectronics (Defense, Aerospace, Subterranean)
Wide-Bandgap Power Modules (EV Inverters, Industrial Power)
All-Optical AI Compute & Heterogeneous Accelerators
Deep hardware-software co-design expertise spanning sovereign defense, advanced EDA, and next-generation packaging architectures.
Deep experience in hardware-software co-design, multi-physics compiler orchestration, and sovereign packaging architectures.
Head of design workspace layout, PDK workflow optimization, and front-end CAD interface deployment for the Sawyer EDA platform.
Whether you are a potential design partner, defense buyer, deep-tech investor, or engineer — we want to hear from you.