Kabir Ahmed

• Passionate about space technology with hands-on experience in mechanical design and manufacturing
• Skilled in 3D printing, SolidWorks, stress analysis, and Excel VBA
• Committed to continuous learning and teamwork
• Strong in active listening, analytical thinking, and creative problem-solving skills

• Team Member, International student office, Quebec, 2020-08-01,

Spearheaded the organization of engineering events tailored for new international students. Provided guidance and support to facilitate seamless integration of newcomers into university life.

• Junior Staff, Hack Concordia, Montreal, Quebec, 2021-01-01,

Outlined and provided important information to participants about the offered workshop, processed registrations for 40+ participants, efficiently handling inquiries and managing event logistics and provided customer service contributing to make the event successful

• Experience Abroad I
• interest in Photography
• Sports Enthusiasm
• Artistic Passion

Space Concordia, 2019-2020

• Actively participated in diverse projects, contributing to the design of a rover stand, robotic manipulator, and multipurpose arm. Leveraged expertise in mechanical engineering to provide valuable support to team members. Acquired practical experience in utilizing tools from various domains, including computer, software, and electrical engineering, enriching my skill set.

Designing a Rover Stand, Space Concordia (Robotic Division), Montreal, QC 2019-2020

• Assisted in a diverse team of newcomers, experienced members, and senior engineers in constructing a versatile stand for the newly developed URC SAR 2019 rover.
• Utilized SolidWorks and AutoCAD software to design a 5-foot adjustable stand, ensuring it met project specifications and environmental conditions
• Supervised the fabrication process, employing composite materials, including 50% wood and 50% concrete, to build a robust stand capable of withstanding rigorous tests and operations.
• 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).

Arduino Project (Hand Sanitizer) Arduino Integration:(2021-2021)

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.

• Applied in-depth knowledge of C++ and Arduino programming to code and program the Arduino microcontroller, ensuring the seamless operation of a hand sanitizer dispenser.
• Leveraged coding skills and course insights to develop an automated dispenser that accurately measured and dispensed sanitizer with a precision of ±0.5 ml per use. Deployed the device in the laboratory washroom, significantly enhancing hygiene practices within the academic environment.
• Collaborated with a team of 2 members to integrate engineering principles and coding expertise, resulting in a highly functional and reliable hygiene solution that streamlined usage and maintenance

Mini Capstone: Amphibious Vehicle (2022-2023)

The project aimed to develop a versatile vehicle capable of transitioning seamlessly between land and water, addressing mobility challenges across diverse terrains. Designed and engineered a vehicle with a 15-foot length and a weight of 800 pounds, incorporating a retractable wheel system and amphibious propulsion.

• Contributed innovative ideas and worked with a team of 6 to design a versatile amphibious vehicle. Implemented a retractable wheel system and dual-mode propulsion, achieving a seamless transition in under 10 seconds.
• Utilized SolidWorks extensively for 3D modeling, rendering, and simulation to bring the amphibious vehicle concept to life, ensuring precision in design and functionality.
• Implemented a composite structure, achieving a 25% increase in strength-to-weight ratio and a buoyancy margin of 30% above the required threshold.
• 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 (2023-2024)

As part of a capstone project, led a team of 5 members in designing and constructing a heavy-duty bike trailer with a 1,500-pound load capacity. The trailer was specifically engineered to meet the unique requirements of the polo court wall system. This initiative aimed to deliver a robust and efficient solution for transporting and deploying the polo court infrastructure.

• Designed a heavy-duty bike trailer with a 1,500-pound load capacity, specifically tailored to meet the unique requirements of the polo court wall system. Integrated 10 innovative features, including adjustable mounts and reinforced supports, to ensure seamless compatibility and efficient deployment.
• Applied advanced engineering principles to enhance load-bearing capabilities, achieving a 25% increase in structural integrity and durability. Optimized the trailer’s maneuverability, resulting in improved handling and stability across various terrains.
• Assessed and selected 6 high-strength, weather-resistant materials, such as aluminum alloys and treated steel, to balance strength and weight. This selection reduced the trailer’s overall weight by 12% while maintaining exceptional performance and resistance to environmental factors.
• Developed and implemented a comprehensive manufacturing strategy, streamlining production processes and reducing costs by 8%. Ensured high-quality standards and a 98% on-time delivery rate through meticulous planning and coordination.
• Conducted rigorous testing on the trailer, including 3 braking and stability assessments and 10 dynamic load tests. Validated the trailer's performance, safety, and reliability under various conditions, ensuring it met all required specifications.