Designing a Rover Stand, Space Concordia (Robotic Division), Montreal, QC, 2019-01-01, 2020-12-31, Team Member: Team of including newcomers, experienced members, and senior engineers, in the construction of a stand for our newly developed rover, URC SAR 2019.
CAD Design Proficiency: Utilized SolidWorks and AutoCAD software to design a versatile and adjustable rover stand, aligning with project specifications and environmental conditions.
Material Expertise: Oversaw the fabrication process, employing composite materials such as wood and concrete to construct a robust and durable rover stand.
Structural Stability Assurance: Ensured the stability and safety of the rover stand by conducting rigorous testing, verifying its capacity to securely support the weight of a rover (1000 lbs).
Recognition for Excellence: Acknowledged by the university as a standout contributor, nominated to represent the institution in the prestigious Base11 Space Challenge, showcasing leadership and technical prowess. Arduino Project (Hand Sanitizer), Arduino Integration: Led the development of an automated hand sanitizer dispenser as a part of the MIAE 215 course, incorporating an Arduino kit and an ultrasonic sensor for efficient and touch-free operation.
C++ and Arduino Coding Proficiency: Applied in-depth knowledge of C++ and Arduino programming to successfully code and program the Arduino microcontroller, ensuring seamless functionality of the dispenser and motor.
Operational Success: Through the application of coding skills and course insights, successfully implemented a functional automated hand sanitizer dispenser. The device proved effective and was deployed in the laboratory washroom, contributing to hygiene practices within the academic environment.
Cross-disciplinary Application: Collaborated with team members to integrate engineering principles and coding expertise, resulting in a practical and reliable solution for promoting cleanliness and hygiene. Mini capstone: Project Amphibious Vehicle, The project aimed to create a versatile vehicle capable of seamless transition between land and water, addressing the challenges of mobility in diverse terrains.
Contributing innovative ideas and collaborating with team members to create a comprehensive design for the amphibious vehicle.
Utilized SolidWorks extensively for 3D modeling, rendering, and simulation to bring the amphibious vehicle concept to life, ensuring precision in design and functionality.
Conducted in-depth material selection processes and structural analysis to ensure the vehicle's durability, buoyancy, and overall safety.
Detailing the project's design rationale, engineering processes in a document.
Using 3D printing techniques to create prototypes of key components, facilitating rapid iteration and during the development of the amphibious vehicle. Capstone: Heavy duty Bike Trailer, Present, Project focused on designing and constructing a heavy-duty bike trailer tailored to accommodate the unique requirements of the polo court wall system. The initiative aimed at providing a robust and efficient solution for transporting and deploying the polo court infrastructure.
Design: Designing of the heavy-duty bike trailer, incorporating innovative solutions to ensure compatibility with the polo court wall system.
Engineering Proficiency: Applied engineering principles to address load-bearing requirements, durability, and maneuverability, contributing to the trailer's overall structural integrity.
Material Selection: Assessed and selected materials suitable for the trailer's construction, considering factors such as strength, weight, and weather resistance to ensure optimal performance.
Manufacturing Strategy: Developed and implemented a comprehensive manufacturing strategy, ensuring the efficient and cost-effective production of the heavy-duty bike trailer while maintaining high-quality standards.
Testing: Currently working on the testing of different parts of the bike trailer to make sure overall safety and compatibility.