BLUESAT UNSW
Digital Signal & Processing Engineer
June 2025—Present · Developed motor-control signals, interfaced microcontrollers and an IMU, contributed to groundstation circuitry and PCB prototyping, and processed satellite signals using SDR++.
Electrical engineer SYD / AUS
I make ideas
move through
hardware.
I design electrical systems that connect thoughtful hardware, reliable embedded software and clear human feedback.
01 / About
Curious by default.
Rigorous by design.
Bachelor of Electrical Engineering student at UNSW, January 2024—December 2027.
I enjoy the point where theory meets a physical system: interpreting a datasheet, debugging a signal, refining a control decision and watching the complete design behave as intended.
- Embedded systems
- Control systems
- Digital signal processing
- PCB design
- MATLAB
- Python
- Simulink
- LTSpice
- KiCad
- C / C++
- STM32
- Laboratory measurement
02 / Experience
Built in teams.
Shared in labs.
UNSW
ELEC1111 Lab Demonstrator
May 2026—Present · Helped students connect theory to practical circuits through targeted questions, debugging and hands-on use of oscilloscopes, multimeters and signal generators.
ELSOC
Subcommittee Member
February 2026—Present · Supported technical workshops covering KiCad, STM32, LTSpice and practical electronic measurement equipment.
ENGINEERING SYSTEMONLINE
ACTIVE DOMAINEMBEDDEDsignal stable
Embedded systemsControlSignal processingPCB design
03 / Selected work
Engineering,
in motion.
Don't just look—interact. Each project is represented by a live model of its core engineering idea.
01
LIVE / SENSOR FIELDmedium alert
Vehicle detected on right side · medium haptic intensity
Embedded safety · ELEC3117
Driver Alert System
A standalone motorsport system that reduces cognitive overload through directional haptics, proximity sensing and immediate crash-response feedback.
- ATmega328P
- Embedded C++
- I²C
- Haptics
- IMU
- KiCad
Challenge
Entry-level racing drivers often juggle several visual displays while making time-critical decisions. The system needed to communicate hazards without adding more numbers or demanding another glance away from the track.
Approach
I integrated two ultrasonic channels, directional DRV2605L haptic drivers, an MPU-series IMU, OLED diagnostics and an LED severity ladder around a bare ATmega328P. Subsystems were validated independently before being combined one at a time.
Decisions
A TCA9548A multiplexer resolved identical haptic-driver I²C addresses. Fixed, testable acceleration thresholds were selected over a more complex dynamic model, and a 2 g crash event overrides every normal operating mode.
Outcome
The prototype demonstrated directional hazard feedback, distance-scaled vibration, vehicle-dynamics indication and a dedicated crash state in one battery-powered platform.
02
ENV / SCOUT 01Nominal
AHZ
Nominal monitoring conditions · 28°C / 48% humidity
Competition winner · Robotics
Bushfire Monitoring Robot
A first-place environmental monitoring robot built to measure temperature and humidity associated with dangerous bushfire conditions.
- Arduino
- Sensors
- Circuit Design
- CAD
- Robotics
- Teamwork
Challenge
The competition called for a practical mobile system that could gather useful environmental information while remaining robust, understandable and achievable under a tight build schedule.
Approach
Our team combined Arduino-based control, environmental sensors, circuit design and a purpose-built CAD model, iterating between physical construction and subsystem testing.
Decisions
We prioritised dependable sensing and straightforward control over speculative features, which kept integration manageable and made debugging faster during the competition timeline.
Outcome
The completed robot won first place and strengthened my ability to move from an open engineering problem to a working physical prototype with a team.
03
BOARD / REV APowered
STM32
MCU: STM32 MCU coordinates sensing, USB and control firmware.
Hardware design · Personal project
STM32 PCB
A custom STM32 board developed from schematic capture through PCB routing, created to deepen my practical electronics design experience.
- STM32
- KiCad
- PCB Layout
- USB
- Signal Integrity
- Datasheets
Challenge
Turning a microcontroller into a dependable standalone board requires more than connecting pins: power integrity, startup behaviour, USB layout and manufacturability all need deliberate treatment.
Approach
I designed the schematic and routed the PCB in KiCad, implementing local decoupling, crystal oscillator and reset circuitry, USB connectivity, clear grounding and disciplined power distribution.
Decisions
Differential USB routing, short return paths and component placement were treated as functional design constraints rather than cosmetic layout choices.
Outcome
The project developed my ability to interpret datasheets, make board-level trade-offs and carry an embedded hardware concept through a complete design workflow.
04
DSP / FILTER LABProcessing
Cutoff 2.6 kHz · medium noise · high-frequency noise attenuated
Signal processing · Audio
DSP Audio Filter
A collection of signal-processing experiments that turn frequency-domain theory into practical audio denoising and modelling tools.
- MATLAB
- C
- FFT
- Filtering
- LPC
- Signal Analysis
Challenge
Useful noise reduction must attenuate unwanted high-frequency content without erasing the information that makes speech and audio intelligible.
Approach
I explored Fourier-transform filtering, LPC excitation modelling and a hair-cell model through MATLAB, C-oriented processing and structured signal analysis.
Decisions
Frequency-domain inspection guided the filter design and helped connect mathematical behaviour with audible changes rather than relying only on trial and error.
Outcome
The work strengthened my understanding of spectra, filtering and signal models while producing practical methods for improving noisy audio.
04 / Contact
Have a problem
worth solving?
I'm interested in internships and projects across embedded systems, controls, DSP and electrical engineering.