Bridging hardware and software as unified design spaces. Rethinking how systems are conceived, synthesized, and deployed, from algorithms to silicon.
I started tinkering with an 8085 microprocessor when I was 15. What hooked me wasn't just making LEDs blink - it was understanding how systems talk to each other. How data moves. How things orchestrate. That curiosity never left.
These days, I work at InCore Semiconductors as a SoC Design Engineer, building tools that help design chips faster. I write profilers, debuggers, and frameworks that turn design ideas into working silicon. I also think a lot about how compilers and hardware can co-evolve instead of being designed separately.
I studied Electronics and Communication Engineering at PES University, but honestly, most of what I know came from building things, breaking them, and figuring out why. I like working across the stack - embedded systems, HPC, compilers, verification - because the interesting problems live at the intersections.
When I'm not debugging SoCs, I'm probably taking photos, thinking about patterns, or reading papers at 2am.
I believe the future of computing lies in thinking beyond the hardware-software divide. Every system is a computational structure - a unified design space where algorithms, architectures, and programming models emerge together, not separately.
My work focuses on methodologies that capture problems at their essence and statically synthesize both the architecture and the software stack. Hardware makes it faster. Software makes it programmable. Together, they make it transformative.
If you want to chat about systems, compilers, chip design, or just say hi, feel free to reach out.