Build the demo, not just the slide.
I like projects where the output is visible: a robot moves, a sensor streams, an inference pipeline runs locally, or a prototype proves the product direction.
I’m Duc Tran — a Biomedical Engineering student at Waterloo building across embedded robotics, edge AI, computer vision, hardware prototyping, and medical technology. I care about products that move from messy bench prototypes to real systems people can use.
Personal thesis
My long-term direction is robotics, data, and systems-based healthcare first, then gradually moving toward deeper molecular and genetics technology. The near-term work is physical systems: sensors, embedded AI, robotics, and usable demos.
I like projects where the output is visible: a robot moves, a sensor streams, an inference pipeline runs locally, or a prototype proves the product direction.
Strong technical work needs clean communication. I focus on both the system architecture and the pitch that helps people quickly understand why it matters.
Most real-world AI products fail at power, latency, integration, or reliability. That is why I keep coming back to firmware, edge compute, sensors, and controls.
Company-building work
A cleaner founder/CEO vibe should show ownership, product judgment, and a technical roadmap — not only a list of tools.
Building low-power perception systems for autonomous drones. My work focuses on embedded integration, prototype bring-up, and turning early technical ideas into clear demos.
Built computer-vision demos and dashboard workflows for edge AI systems. Focused on product demos, camera setup, model behavior, and explaining the system clearly to non-technical audiences.
Technical builds
A tighter set of builds focused on robotics simulation, FPGA/digital systems, and custom embedded electronics.
Multi-robot simulation and waypoint workflow using image processing, robot state topics, and Gazebo-based testing for coordinated robot movement.
Digital systems project building and validating UART, SPI, and I2C-style interface logic through simulation, testbenches, and hardware-oriented debugging.
Custom embedded board concept connecting FPGA-style digital logic with an ESP32 control layer for hardware experiments, interfaces, and bring-up practice.
Compact STM32 core board designed for embedded firmware practice, MCU bring-up, pinout planning, and reusable robotics/control experiments.
Minimal ESP32-WROOM board focused on clean power, boot/programming access, compact layout, and fast prototyping for wireless embedded systems.
AVR development board for digital I/O, peripheral testing, embedded fundamentals, and repeatable bench validation with a custom PCB workflow.
Execution history
Focused on ownership, prototype work, and engineering execution.
Technical stack
Organized by area so recruiters can quickly see where I fit.
Contact
Reach out for embedded robotics, healthcare hardware, edge AI, technical demos, or early-stage product work.