I worked as a sessional academic staff member at Deakin University, contributing to the Deep Learning (SIT319, SIT744) and Artificial and Computational Intelligence (SIT215) units. My responsibilities included conducting tutorials and workshops, as well as marking assignments. During the workshops, I:

• Designed, demonstrated, and explained deep learning models in Keras and TensorFlow as part of the workshop.
• Addressed student queries to enhance understanding and engagement.
• Provided academic consultation and contributed to the development of course materials.

EMVision is an innovative medical device company developing portable electromagnetic microwave imaging solutions. My responsibilities included:

• Inspecting, developing, and validating device testing plans.
• Designing a GUI for device testing and automating the test bench analysis process.
• Documenting product specifications, installation procedures, and testing protocols.
• Researching emerging technologies and optimising processes to improve testing workflows and foster innovation.

RF Technology is a leading Australian manufacturer of wireless communication products. My responsibilities included:

• Programming, testing, and ensuring the quality of digital radios, power amplifiers, and power supplies.
• Documenting, implementing, and verifying testing processes for all products.
• Enhancing product quality by refining hardware designs and advancing RF module expertise.
• Guiding the production team and ensuring timely product status updates.

This project involved the design and development of advanced reconfigurable antenna systems capable of operating across multiple frequency bands. The work focused on implementing frequency-agile antenna solutions using electronic switching mechanisms for modern wireless communication applications.

The project required comprehensive understanding of antenna theory, electromagnetic modeling, and practical RF switch implementation. Multiple antenna topologies were explored including patch, dipole, and leaky-wave configurations to achieve optimal performance across target frequencies.

Key Technical Achievements:

• Designed versatile reconfigurable antenna systems (patch, dipole, leaky-wave configurations) operating at dual frequencies: 5GHz and 2.5GHz
• Implemented electronic frequency switching using Infineon BAT18-04 PIN diodes for seamless band reconfiguration
• Optimized antenna design for Rogers 5880 substrate (εr=2.2, h=1.6mm) with precise 50Ω impedance matching
• Performed comprehensive theoretical calculations for antenna dimensions and electromagnetic performance optimization
• Conducted detailed electromagnetic modeling and simulation using CST Studio Suite
• Validated antenna performance across both frequency bands with consideration for switching mechanism impact

Software and Tools:

• CST Studio Suite for electromagnetic simulation and antenna modeling

This project demonstrated expertise in advanced antenna design principles, reconfigurable RF systems, and electromagnetic simulation. The work contributed to understanding of frequency-agile antenna technologies essential for modern multi-band wireless communication systems and software-defined radio applications.

This project focused on the comprehensive design and implementation of digital logic circuits using CMOS technology. The work involved developing both universal and compound gates while mastering the fundamental principles of CMOS logic design and transistor-level implementation.

The project encompassed the complete design process from theoretical analysis to practical implementation, utilizing industry-standard VLSI design methodologies. Key emphasis was placed on understanding CMOS pull-up and pull-down tree logic structures and their optimization for performance and power efficiency.

Key Technical Achievements:

• Designed and implemented universal gates including NAND, XOR, and OAI22 configurations using CMOS logic
• Developed comprehensive stick diagram implementations for CMOS pull-up and pull-down tree structures
• Successfully implemented a carry ripple adder utilizing a full adder circuit with optimized transistor count (14 PMOS and 14 NMOS transistors)
• Gained proficiency in transistor-level circuit design and layout optimization
• Performed circuit simulation and verification using industry-standard tools

Software and Tools:

• Electric VLSI Design Software for layout and design
• LTSpice for circuit simulation and analysis

This project provided foundational knowledge in digital circuit design and VLSI implementation, establishing critical skills in transistor-level design, logic optimization, and electronic design automation tools essential for modern integrated circuit development.

This advanced RF circuit design project involved the complete development of a Low Noise Amplifier (LNA) system, from initial circuit design through final package implementation. The project addressed critical RF design challenges including noise optimization, impedance matching, and electromagnetic compatibility.

The design process required precise biasing of GaAs pHEMT transistor technology and comprehensive RF circuit analysis to meet stringent performance specifications. The project demonstrated expertise in high-frequency circuit design, electromagnetic simulation, and practical RF system implementation.

Key Technical Achievements:

• Developed complete LNA circuit achieving demanding specifications: 25 dB S21 gain, -10 dB S11 & S22 reflection coefficients, 1.3 dB noise figure, and 20 mA current consumption
• Successfully biased GaAs pHEMT 10µm transistor with optimized voltages for maximum gain across required bandwidth
• Designed sophisticated input/output matching circuits using Smith Chart analysis in AWR software
• Implemented comprehensive physical verification including DRC/DFM checks and parasitic extraction for high-quality layout delivery
• Performed detailed electromagnetic simulation and iterative circuit optimization to meet all specifications
• Developed complete package layout with bond wire modeling for 4x4 QFN package PCB implementation

Software and Tools:

• AWR Design Environment for RF circuit design and electromagnetic simulation

This project provided comprehensive experience in RF/microwave circuit design, demonstrating proficiency in advanced simulation tools, electromagnetic modeling, and practical considerations for high-frequency circuit implementation and packaging.

This was a pioneering research project completed during my Master’s degree that developed an innovative wearable ultraviolet light-detecting system with wireless communication capabilities. This project addressed the critical health challenge of balancing beneficial UV exposure for vitamin D synthesis while preventing harmful overexposure that can lead to skin damage and cancer.

The project involved comprehensive design and implementation of a real-time UV monitoring system that could wirelessly transmit ultraviolet intensity measurements to alert users before reaching dangerous exposure levels. The system represented a significant advancement in personal health monitoring technology, combining sensor engineering, wireless communications, and health safety applications.

Key Technical Achievements:

• Designed and implemented a comprehensive wearable UV sensing system
• Integrated wireless communication capabilities for real-time data transmission
• Developed algorithms to accurately detect and measure ultraviolet light intensity
• Created user alert mechanisms to prevent harmful overexposure
• Integrated the system for practical, everyday use

The innovation gained recognition through media coverage highlighting its potential as a world-first technology for personal UV protection. The project’s significance was further acknowledged through coverage discussing its potential to help users make informed decisions about sun exposure while maintaining the health benefits of appropriate UV light. Additional media attention highlighted the wearable UV device’s capability to ping users out of the sun when exposure levels become dangerous.

This work contributed to the emerging field of wearable health monitoring devices and demonstrated practical applications of sensor technology in preventive healthcare, providing a foundation for consumer-grade UV protection systems that could help reduce skin cancer risks while preserving the essential health benefits of controlled sun exposure.

This project involved the complete design and implementation of a 68HC11-compatible microcontroller using hardware description languages. The work required comprehensive understanding of processor architecture, digital system design, and FPGA implementation methodologies.

The project encompassed the development of essential microcontroller components including bus architecture, register files, and multiple addressing modes. The design utilized both structural and behavioral modeling approaches to create a functional processor implementation.

Key Technical Achievements:

• Developed complete microcontroller architecture using VHDL in Xilinx development environment
• Implemented comprehensive dual-bus structure including dedicated address bus and data bus architectures
• Designed essential processor registers including program counter and accumulator with appropriate control logic
• Successfully implemented multiple addressing modes: inherent, relative, and extended addressing capabilities
• Created detailed block diagrams and system architecture documentation for complex digital system design
• Utilized both structural and sequential combination logic design methodologies for optimal implementation
• Demonstrated proficiency in digital system design from concept through FPGA implementation

Software and Tools:

• Xilinx ISE for FPGA development and synthesis
• VHDL for hardware description and system modeling

This project provided comprehensive experience in processor design, digital system architecture, and FPGA implementation. The work established foundational knowledge in computer architecture, hardware description languages, and embedded system design essential for modern digital system development.

This collaborative project involved the design and implementation of a comprehensive Traffic Light Controller (TLC) system using FPGA technology. The project required advanced digital design skills, finite state machine implementation, and practical hardware interfacing for real-world traffic management applications.

Working in a multidisciplinary team environment, the project encompassed complete system development from initial design specification through final hardware demonstration. The implementation utilized advanced VHDL programming techniques and sophisticated display interfacing for user interaction.

Key Technical Achievements:

• Collaborated in team environment to develop complex Traffic Light Controller system with approximately 15 input/output interfaces
• Successfully implemented design on Xilinx Spartan3 XC3S200-FT256 development board with full hardware verification
• Demonstrated advanced proficiency in VHDL programming with working knowledge of Verilog HDL
• Implemented sophisticated sequential behavioral logic and finite state machine architectures for traffic control algorithms
• Conducted comprehensive RTL module analysis and optimized CLB (Configurable Logic Block) utilization
• Developed advanced 7-segment display interface (anode-based) to provide real-time countdown visualization for traffic signals
• Successfully demonstrated complete TLC system functionality with comprehensive technical documentation

Software and Tools:

• Xilinx ISE for FPGA development and synthesis
• VHDL for hardware description and system implementation

This project provided extensive experience in collaborative digital system design, advanced FPGA programming, and practical hardware implementation. The work demonstrated capability in complex state machine design, real-time system development, and professional project management in engineering team environments.

This comprehensive undergraduate project focused on the analysis and implementation of advanced power electronics systems with emphasis on power factor correction and converter efficiency optimization. The project addressed critical challenges in power quality, harmonic distortion reduction, and adaptive power management systems.

The work involved both theoretical analysis of power converter topologies and practical implementation of smart control systems. The project demonstrated the integration of digital control systems with power electronics to achieve improved system performance and energy efficiency.

Key Technical Achievements:

• Conducted comprehensive analysis of power converter circuits for DC voltage level conversion and optimization
• Developed innovative Smart Power Factor Correction system using Arduino-based digital control
• Addressed critical power quality issues including low efficiency, increased line losses, thermal management, and total harmonic distortion reduction
• Implemented adaptive control system capable of maintaining constant DC output voltage despite variable load conditions
• Integrated pulse width modulation (PWM) techniques with passive filtering for harmonic reduction
• Designed system to achieve improved power factor across varying load conditions
• Demonstrated practical application of power electronics principles in energy efficiency improvement

Key Technologies:

• Arduino microcontroller for digital control implementation
• Passive filter design for harmonic mitigation
• Pulse Width Modulation (PWM) for power control optimization

This project provided foundational experience in power electronics, digital control systems, and energy efficiency optimization. The work established critical understanding of power quality management, converter design principles, and microcontroller-based control systems essential for modern power electronics applications and renewable energy systems.