Signals in the void

Gawtham Senthilvelan

tat tvam asi

Engineer in Toronto working at the intersection of communications and digital design. Focused on FPGA acceleration, signal processing, and applied AI.

The frequency.

I translate complex signal workflows into elegant systems, balancing rigorous engineering with human-centered digital design.

Focus

FPGA acceleration, RF systems, and applied AI. I obsess over signal clarity, latency, and the quiet details that make systems feel alive.

Approach

Crafting scalable architectures and interfaces that feel calm under pressure, so teams can move fast without losing the signal.

Selected projects.

CVChess: Deep Learning Chessboard State Recognition

Deep learning computer vision system for chess piece recognition achieving 99.5% accuracy using ResNet-inspired CNN with OpenCV preprocessing.

Apr 2025 – Aug 2025
RF Receiver Front-End with Quadrature Mixer

Built an RF front-end that filters, downconverts, and amplifies 8–16 MHz HF signals with quadrature mixer producing phase-accurate I/Q signals for SDR integration.

Jan 2025 – Apr 2025
Zephron: Robotic Arm Controller

Real-time robotic arm controller using C on NIOS V soft processor with AXI memory-mapped I/O, custom PID loop, VGA dashboard, and I²C bridge for PWM servo control.

Mar 2025 – Apr 2025
Hardware-Accelerated Spectral Analysis Engine

FFT-based spectral analysis on FPGA using SystemVerilog for real-time audio DSP with MATLAB filter ports to ARM Cortex-M for embedded benchmarking.

May 2025 – Aug 2025

Experience.

ASIC Engineer Intern

Qualcomm · Markham, ON

Incoming May 2026.

May 2026

Machine Learning Researcher

RBC Borealis · Toronto, ON

Machine learning optimization of atmospheric water harvesting systems.

Oct 2025 – Present

Software Developer

Acceleration Consortium · Toronto, ON

Bayesian optimization for laboratory automation.

May 2025 – Aug 2025

Researcher

Advanced Membranes Lab · Toronto, ON

Advanced synthesis of membranes for high-pressure reverse osmosis. Supervisor: Dr. Jay Werber.

May 2024 – Aug 2024

Technical writing.

explaining orthogonal frequency division multiplexing

A first-principles walkthrough of OFDM, from delay spread and coherence bandwidth to orthogonality and practical FFT/IFFT-based implementation.

Mar 2026
explaining the fast fourier transform

An intuitive build-up from signals and Fourier series to the DFT and twiddle-factor symmetry, showing why FFT reduces complexity from O(N^2) to O(N log N).

Nov 2025

Let's build resonance.

Reach out for collaborations in communications, signal processing, and thoughtful digital systems.