Silimate provides an AI‑native copilot for frontend digital chip designers that automatically detects and repairs functional bugs and optimizes power‑performance‑area trade‑offs in RTL code. The platform integrates plug‑and‑play with existing EDA flows, delivering bug fixes and PPA improvements within a day for designs of millions of gates, enabling faster convergence and higher‑quality silicon.
Funding
Funding not disclosed
Founders
Product
Problem
Chip designers spend extensive time manually locating and fixing functional bugs and performance trade‑offs in complex RTL, leading to slow design convergence and delayed product releases. Traditional EDA flows often require lengthy integration effort and provide limited automation for front‑end verification and power‑performance‑area (PPA) optimization.
Solution
Silimate offers an AI‑native copilot that autonomously detects and repairs critical front‑end issues in RTL designs, dramatically accelerating bug resolution and PPA closure. The platform combines core AI engines with intuitive user workflows, allowing designers to guide the copilot toward target specifications while preserving design intent. Integration is designed to be plug‑and‑play, requiring less than a day to deliver results on designs with millions of gates. By continuously analyzing the design, Silimate provides rapid convergence, enabling teams to iterate faster and achieve higher‑quality silicon.
Target Audience
Silimate is aimed at frontend digital design teams, SoC and IP architects, and verification engineers in semiconductor companies that need faster RTL convergence and higher design quality.
Features
- AI‑driven engine that automatically finds and fixes functional bugs in RTL code
- Automated PPA optimization suggestions that accelerate performance, power, and area trade‑off analysis
- Seamless integration with existing design flows; results available within a day of setup
- Scalable analysis capable of handling designs with millions of gates while maintaining high QoR
- Interactive user workflow that lets designers steer the copilot toward specific design targets
- Support for both standard and custom design flows across block, partition, and full‑chip levels