I am a 3rd Year Electronic and Electrical Engineering Student Attending the University of Strathclyde. Specializing in innovative solutions in renewables and advanced technology, my work spans from FPGA-based systems to Python-driven mini-grid designs as well as strong experience in industry standard software such as MATLAB, Altium, and Autodesk Inventor. Explore my projects that blend academic knowledge with practical applications, reflecting a commitment to engineering excellence and sustainable progress.
Throughout the past two years I have played a pivotal role in a team associated with the Vertically Integrated Projects (VIP) scheme, an innovative program that drives sustainable development by empowering undergraduate engineering students to create impactful projects. Our team’s initiative was to develop a Python-based interactive web application designed to assist mini grid developers in finding the best possible design implementation for their personalised mini grid requirements. The core functionality revolves around optimising energy distribution. Upon user input, which requires the user to provide geographical coordinate values of prospective energy consumers and several personalised parameters, the system deploys the k-means clustering algorithm to group customers together, followed by a minimum spanning tree algorithm to create the network. The user benefits from the ability to save their tailored implementation and receives a comprehensive cost analysis, detailing expenses like cable costs and pole installations. Through this I was able to gain invaluable experience in software development in the context of engineering and sustainability and delve into personal interests such as machine learning and unsupervised learning algorithms. My involvement allowed me to secure an internship and funding to continue research and development of the tool where I enhanced the systems features and functionality. This involved meeting with mini grid developers to gain insight into what materials are necessary to a bill of quantities, allowing me to write a cost estimate algorithm that details the expenses of a specific implementation. This development led to my elevation as the technical lead of the project.
At the end of 2020, I had the privilege of undertaking work experience at Keysight Technologies in Edinburgh, a global leader in electronic measurement and testing. During my tenure there, I was given the task of assembling an FM radio. This project demanded proficiency in precise soldering of components onto a PCB, a skill I honed during this period. A key aspect of this task was accurately reading resistor values and diligently following the intricate pathways of the PCB schematic to ensure correct component placement and connections. My experience extended beyond just assembly. Throughout my time at Keysight I revolved different stations to gain diverse insights from industry experts in both hardware and software domains. This involved a project that delved into finite state machines, specifically the Mealy and Moore models. Applying theoretical knowledge, I simulated traffic light systems, allowing me to understand the practical applications and nuances of these models in real-world applications. Additionally, I was given the opportunity to handle cutting edge instrumentation that Keysight is renowned for. I acquired hands-on experience with oscilloscopes, logic analysers, and industry standard software, understanding their functionalities and applications in electronic testing. This work placement not only solidified my foundational knowledge but also exposed me to the forefront of electronic and electrical engineering, making me appreciate the symbiosis of theoretical concepts and their real-world applications.
During my tenure at Star Refrigeration, I was instrumental in the development and implementation of a cutting-edge Door Management System for industrial refrigerators, utilizing the ESP8266 microcontroller and advanced light sensor technology. This project was aimed at enhancing energy efficiency and reducing operational costs by optimizing the cooling process. I was responsible for designing and programming the ESP8266 to monitor and control access to the refrigeration units, ensuring airtight sealing and minimal temperature fluctuations. My innovative approach involved the integration of light sensors to detect door openings and relay real-time data, enabling proactive maintenance and swift response to potential issues. This system not only led to significant energy savings but also extended the lifespan of perishable goods stored within the refrigerators, showcasing my ability to deliver practical and sustainable engineering solutions in a commercial setting.
2nd Year Average: 83.23%
Grade: AAAAA
Grade: A*
As a dynamic Electrical and Electronic Engineering student, my interests extend beyond the classroom into diverse realms where I can apply and expand my engineering knowledge. I am deeply passionate about sustainable energy solutions, consistently exploring the latest advancements in renewable technologies and their practical applications. My fascination with microcontrollers, particularly in projects like the ESP8266-based Door Management System, demonstrates my keen interest in IoT and smart systems.
Outside of engineering, I maintain an active lifestyle, reflecting my commitment to physical and mental well-being. As a Scottish champion in the 800-meter track, I value discipline, resilience, and strategic planning, which parallel my approach to engineering challenges. My engagement in Brazilian Jiu-Jitsu and participation in athletics at a national level further emphasize my dedication to continuous learning and adaptability.
Additionally, my involvement with the University’s Motorsport Society, where I contribute to building an electric race car, mirrors my enthusiasm for sustainable automotive technologies. These diverse interests not only fuel my engineering aspirations but also shape my holistic approach to problem-solving, innovation, and teamwork.