About Me
Technical Skills
Front-End & Mobile
Back-End & Databases
Data & Automation
Engineering & Design Tools
Projects
Software
Helps Texas A&M students explore historical grade distributions, drop rates, and instructor statistics across courses.
Hardware
Academic Journey
Fall 2024 Semester - Texas A&M
First semester as an Aggie Engineer. Excited to dive into these foundational courses.
- CSCE 120: C++ Programming
- MATH 311: Applications of Mathematics
- ENGR 102: Engineering Lab I
- CLEN 181: First Year Engineering Seminar
- ANTH 222: Intro to Archaeology
- ENGL 210: Technical & Business Writing
Pre-Collegiate Credits
Advanced coursework that built a strong, early foundation in the math and logic essential for engineering.
- Math 151, 152, 253: Calculus I, II, III
- MATH 308: Differential Equations
- ECEN 214: Electrical Circuit Theory
- Click to View All Credits
Advanced Placement (AP)
- AP Biology
- AP Calculus BC
- AP Chemistry
- AP Computer Science A
- AP Comp Sci Principles
- AP English Language
- AP English Literature
- AP European History
- AP Human Geography
- AP Physics 1
- AP Physics C: E&M
- AP Physics C: Mechanics
- AP Statistics
- AP World Geography
Dual Credit (TCCNS)
- ECON 2301: Principles of Macroeconomics
- ENGR 2301: Statics
- ENGR 2405: Electrical Circuits
- GOVT 2305: US Government
- GOVT 2306: Texas and Local Government
- HIST 1301: US History I
- HIST 1302: US History II
- ITSC 1307: UNIX Operating System I
- Math 2415: Multivariable Calculus
- Math 2420: Differential Equations
- MUSC 1301: Music Appreciation
- PHYS 1402: General Physics II (E&M and Optics)
Learning Roadmap
This is my living engineer's notebook. I believe in learning by doing, and this section documents my journey as I tackle new concepts in electronics, one day at a time. It's a real-time log of my progress and discoveries.
Building with Logic Gates
Moved from theory to practice by constructing fundamental logic gates (AND, OR, NAND, NOR) on a breadboard using transistors and resistors.
After understanding the theory, the real test was building physical gates. I used NPN transistors to create the basic building blocks of digital computing. It was a challenge to manage the wiring, but seeing an LED light up only when both input buttons were pressed (a working AND gate) was incredibly rewarding.
Key Takeaways:
- Transistor logic is the foundation of modern CPUs.
- Clean wiring on a breadboard is crucial for debugging.
- NAND and NOR gates are "universal gates" from which all others can be built.
Hello, LED! Intro to GPIO
Started with the "Hello, World!" of electronics: blinking an LED using a microcontroller's GPIO pin. Explored digital output and simple fading effects.
The first step was understanding how to control a General Purpose Input/Output (GPIO) pin. I wrote a simple script on an Arduino to set a pin to HIGH and LOW, effectively turning an LED on and off. I also experimented with Pulse Width Modulation (PWM) to create a smooth fading effect, which was a great introduction to analog-like control using digital signals.
Key Takeaways:
- A current-limiting resistor is essential to protect the LED.
- GPIO pins can be configured as either inputs or outputs.
- PWM is a powerful technique for controlling brightness and motor speed.