B.Sc. Microengineering
Its hard to communicate the nature of the Microengineering discipline as it is a Swiss specific discipline that spams across all the engineering disciplines, but I hope this page can provide a glimpse of my engineering background.
Microengineering is a discipline deeply rooted in the intricate craftsmanship of Swiss watchmaking which has evolved into a dynamic realm where science meets innovation. This engineering discipline is a very unique program nestled at the intersection of physics, engineering, nanotechnology, and microfabrication.
Rooted in Swiss Precision
Interdisciplinary Engineering Program
As a Microengineer, I've delved into the rich tapestry of engineering, with a focus on semiconductor technologies and microfabrication. This multidisciplinary approach has allowed me to grasp the intricacies of electronics, mechanics, material science, and computer engineering—all crucial components in the mosaic of modern technology.
Understanding the Tech Landscape
My journey has not only been about mastering theories and equations; it's been about understanding the building blocks of the technology around us today. It offered me a holistic perspective, a lens through which I could view the world of technology in its entirety. From the inception of complex hardware designs to the nuanced intricacies of software architecture, I've gained insight into every stage of the technological lifecycle.
Derived Skillset
Beyond the technical expertise gained through my engineering journey, I believe the most invaluable skill I've acquired is the ability to problem solve. It entails dissecting complex issues, grasping constraints, and devising solutions that maximize available resources. Utilizing a blend of practical experience and theoretical frameworks, I'm adept at simplifying challenges, applying models, and navigating towards optimal solutions.
Programming
Design of Mechanisms
Electronics and Microcontrollers
Implementation of Materials
Semiconductor Devices
Embedded Systems and Robotics
Control Systems and Discrete-time Control
Actuators and Electromagnetic Systems
Manufacturing Technologies
Microfabrication Technologies
Program Courses
Mathematics and Scientific Foundation
Mechanical Engineering
Electronics and Robotics
Programming and Information Technologies
Material Science and Manufacturing
Project Portfolio
Program that simulates the spread of a contagious disease for a world with different densities and vaccination rates using C.
Multi-module programming project using C and C++ to develop an algorithmic robot/particle simulation using memory allocation, event handling, and a graphic interface.
Developed a multifunctional digital clock using an FPGA board that includes multiple functionalities notably an adjustable digital clock, alarm, a timer, a stopwatch, LED patterns, and a calculator.
Design a compliant mechanism using flexible joints for the Kibble balance that was used to define the kilogram using universal constants.
Program an ATMega128 microcontroller and pair it to various peripherals using an STK300 AVR board for a chicken egg incubation machine.
Develop an interactive boardgame using the epuck-2 robot using various peripherals and image processing algorithms.
Reverse engineering project involving deconstructing a Shirogorov F95 to analyze the materials, production processes, and cost estimation.
Electrothermally activated SU-8 microgripper for single cell manipulation in a solution, with the MEMS microgripper microfabrication processes involved.
A digital microfluidic device with integrated nanostructured microelectrodes for electrochemical immunoassays.
