Naman Goyal
// I like to solve problems.
I am a third-year in Electrical Engineering at the Indian Institute of Technology Delhi, ranked first in my department. I work on quantum computing in Prof. Rajendra Kumar's group. I am an incoming Software Engineering Intern at Virtu Financial for the summer of 2027.
Previously I was a Research Intern in the Trusted Systems Group at CISPA Helmholtz Center for Information Security, where I ran a measurement study of the hardware supply chain: forensically grading 131 open-source RISC-V CPU and GPU cores against their own security claims, by reading RTL, testbenches and commit history rather than READMEs. A publication is in progress.
Outside research I build low-latency systems — execution paths in C++, data planes in FPGA fabric, and the hardware underneath them. I also compete: olympiads in physics, astronomy and mathematics, and competitive programming.
News
- [Aug 2026]
Joining Virtu Financial as a Software Engineering Intern for Summer 2027.
- [Aug 2026]
Started research on the quantum complexity of minimum weight cycles and triangles. more
- [Jul 2026]
Wrapped up a research internship at CISPA Helmholtz Center on the hardware supply-chain security of open-source RISC-V cores. Publication in progress. more
- [2026]
Won the CISPA European AI & Cybersecurity Hackathon. more
- [2026]
Released a formally verified tick-to-trade engine and a wire-speed packet parser, both in SystemVerilog. more
Research
- Quantum Complexity of Minimum Weight Cycles and Triangles
IIT Delhi · Department of Computer Science and Engineering · 2026 – present
Roditty and Vassilevska Williams showed that finding a minimum weight cycle in a weighted graph reduces to finding a minimum weight triangle — a classical equivalence that settled a question of Itai and Rodeh. Our goal is to understand what these problems cost on a quantum computer: which parts of that reduction survive, and what the true quantum complexity of minimum weight cycle and minimum weight triangle actually is.
- Hardware Supply-Chain Security of Open-Source CPU & GPU Cores
CISPA Helmholtz Center for Information Security · Trusted Systems Group · May – Jul 2026
A large-scale measurement study of how secure open-source hardware really is. I forensically graded 131 open-source RISC-V CPU and GPU cores against their security claims — reading RTL, testbenches, and commit history rather than trusting the README.
Selected Work
- FPGA Tick-to-Trade Pipeline 2026
An ultra-low-latency trading system implemented entirely in FPGA fabric for wire-speed execution: hardware protocol decoding, deterministic order encoding, and fault tolerance with real-time heartbeat monitoring and corruption handling.
- Low-Latency C++ Execution Engine 2025
A trading-style execution pipeline engineered for nanoseconds: zero-allocation architecture, lock-free SPSC ring buffers, SIMD prefetching, cache-locality tuning, and a hardware-aware scheduler with core pinning and explicit memory ordering.
[private]
- Wire-Speed FPGA Network Parser 2026
A wire-speed MAC/IP/UDP header parser with a fixed-latency Level-1 trigger. Formally verified with SymbiYosys and adversarially tested with a cocotb + scapy bench that fires malformed and edge-case packets through the pipeline.