I'm Alex Mehta, an engineering student who enjoys turning equations, sketches and messy prototypes into practical systems. My sweet spot is the space between analytical thinking and hands-on making.
My practice is built like a lattice: many small decisions connected into a dependable whole. Modular cells, blueprint lines and structural contrasts mirror that idea.
I'm pursuing engineering with a practical mindset: understand the theory, model the problem, build a version, measure what happened, then iterate. I enjoy multidisciplinary projects where mechanical design, electronics and computation have to cooperate.
Outside coursework, I keep a small prototype journal and turn class concepts into tangible experiments whenever possible.
Good engineering is not only about the final object. It is about the quality of the assumptions, tests and decisions that lead there.
Translate an open-ended problem into requirements, constraints and a testable definition of success.
Sketch, calculate and simulate enough of the system to make the first build purposeful rather than random.
Build quickly, observe failure modes and use measurements to decide what deserves the next iteration.
No artificial percentage bars: skills are shown as confidence dots, emphasizing progression and depth without pretending learning is finished.
Designed a compact lab setup for comparing predicted and measured beam deflection, then documented the mismatch as a learning artifact rather than hiding it.
A student portfolio should show evidence of thinking. These projects foreground the problem, the engineering choice and the lesson from iteration.
A compact sensor-driven lighting prototype that combines ambient sensing, microcontroller logic and a modular enclosure. The second iteration reduced wiring clutter and made calibration easier.
A repeatable experiment fixture for comparing theoretical beam behavior with measured displacement under controlled loads.
A student data project exploring hourly energy patterns, anomaly flags and simple visual explanations for non-technical audiences.
A parametric storage system designed around interchangeable trays, print tolerances and fast labeling.
A compact timeline showing how coursework becomes a growing engineering practice.
Developing multidisciplinary prototypes with emphasis on testing, documentation and design-for-iteration.
Expanded from circuit fundamentals into sensor integration, microcontroller programming and enclosure design.
Built fundamentals across mathematics, mechanics, programming, materials and technical communication.
Open to student collaborations, project teams, engineering internships and conversations with people who like learning through making.
Send a short note with the challenge, the context and what you are hoping to explore. I'll get back with a practical next step.