Where Ideas Become Real:
My Electrical Creations!

I developed a real-time smart grid control system to retrofit existing hydropower stations using Typhoon HIL. The project involved simulating dynamic interactions between hydropower, solar PV, battery storage, and variable loads within a full HIL environment.

In this project, I simulated a complete power conversion and motor control system using Typhoon HIL's real-time Hardware-in-the-Loop environment. The system begins with a three-phase AC grid input, which is passed through a three-phase diode rectifier to generate a DC bus voltage. This DC power is stabilized using a DC-link capacitor and then fed into a three-phase inverter that uses PWM switching to drive an induction motor.

A three-phase inverter-fed induction motor system was simulated using Typhoon HIL's real-time simulation environment and SCADA interface. The system used a DC power source with Clarke (αβ) to abc transformation for inverter modulation, and real-time control logic executed on the User CPU.

I designed and developed a compact LED torch (flashlight) using KiCad, featuring a high-brightness LED, a current-limiting resistor, a DPDT switch for user control, and a CR2032 coin cell battery holder. The project involved full schematic capture, PCB layout optimization, and 3D visualization to ensure a functional and reliable design.

I recently designed and simulated a 3-stage BJT amplifier in Multisim using 2N3904 NPN transistors, consisting of two common-emitter gain stages and an emitter-follower buffer. The goal was to amplify a small 1 kHz input signal while maintaining signal integrity and stability.

In this project I designed and implemented a basic Central Processing Unit (CPU) using VHDL and deployed it on an Altera FPGA board. The central processing unit (CPU) had an Arithmetic Logic Unit (ALU) that could do different kinds of math and logic operations, a Finite State Machine (FSM)-based program counter (PC) that could get and run instructions, and registers that could store temporary data.

I developed a Java-based application that simulates and analyzes simple DC resistive circuits. The program parses circuit descriptions from user input, supports resistors and voltage sources, and outputs the corresponding SPICE representation.

I built a fully functional Simplified Blackjack game using Java, showcasing object-oriented programming and user interface integration. The project involved developing core classes such as Card, CardPile, BlackjackGame, and a SimpleUI, while managing game logic through user input and dynamic card handling.

I developed a Java-based Bank Account Management System that simulates real-world banking operations using object-oriented programming principles. The project includes two core classes—Account and Bank—designed to handle tasks such as deposits, withdrawals, and account management with data validation and duplication checks.