In collaboration with 3 other students, we created a VR environment which simulates many processes of semiconductor microfrabrication, and cleanroom training and education. Very proud of this one!
Designed and analyzed five controllers: PD, PI, PID, Phase-lead, and Phase-lag with the goal of understanding their effects on system performance.
Simulated an FM-modulated signal in both time and frequency domains, applying random noise to analyze signal retrieval. The project explores the effects of varying modulation index (Kf) on signal quality, balancing noise resistance and bandwidth.
In collaboration with 2 other classmates, we created a basic CPU architecture from scratch in Verilog, with additional custom instructions and logic.
This was my first meaningful venture into web-development. I am proud to say I created this entire website myself, without the use of third-party services. Thank you for visiting my webpage!
This was a year-long collaborative project which included myself and 8 other students, including students from HRW University in Mulheim, Germany. We successfully developed an intelligent emergency system that detects child presence in a car and alerts the car owner and authorities when critical temperatures are reached. The system, which integrated various custom and stock sensors, a GSM module, and a custom mobile app, monitored cabin conditions and communicated alerts. The project focused on hardware design, embedded systems programming, and adhering to industry standards.
This experiment involved measuring key properties of a transmission line such as wavelength, standing wave ratio (SWR), and load impedance under various conditions.
Developed a wireless power transfer system using magnetic coupling between two handmade coils. Measured inductance, mutual inductance, and optimizing resonance.
Developed a console-based image processing application using OpenCV in C++. The software allows users to adjust brightness, contrast, and apply filtering for noise reduction on grayscale MRI images.
Benchmarked the efficiency of QuickSort, MergeSort, and HeapSort algorithms using Boost.Chrono in C++ to measure execution time. The project analyzed the performance of each algorithm on a dataset of 10,000 random integers, repeated 30 times, highlighting trade-offs between speed and consistency. HeapSort demonstrated the best average performance, while MergeSort showed the most consistent execution time.
In collaboration with 3 other students, we developed a client-server quiz system using low-level socket programming in Python. The server handles user authentication and quiz-related functions, while the client interacts via sockets to take quizzes or view grades. The system supports multiple users (students/instructors), real-time question shuffling, grading, and grade storage.
Implemented the Lorenz chaotic system using analog circuit components to study its non-linear, chaotic behavior, simulating the system in Simulink.
Designed a 4th-order Butterworth low-pass filter, analyzing its frequency response, step response, and impulse response.
Developed 2 predictive models using machine learning and logistic regression to identify heart disease risk based on 13 clinical variables: 1.Single decision tree artificial neural network (ANN) and 2. logistic regression model.
In collaboration with 2 other students, we designed and 3D printed a functioning and accurate mechanical clock.