# Engineering Student Stories: Materials, Medicine, & Innovation Source: https://www.youtube.com/watch?v=PwuAOTeRuUw Recap page: https://rapidrecap.app/video/PwuAOTeRuUw Generated: 2025-11-20T23:04:20.453+00:00 --- ## Quick Overview The University of Waterloo's Faculty of Engineering hosted a webinar featuring current students sharing their experiences across various engineering disciplines, focusing on materials, medicine, and innovation, with students detailing Mechanical, Mechatronics, Biomedical, Chemical, and Nanotechnology Engineering curricula, co-op opportunities, and project-based learning. **Key Points:** - Charis, a second-year Mechanical Engineering student, noted that the program studies how things move, incorporating physics, math, and material science, with first-year skills including rapid prototyping, 3D printing, and CAD. - Mulei, a fourth-year Mechatronics Engineering student, described the discipline as a combination of mechanical and electronics, hardware-based, and suitable for those who like mechanical, electrical, and software components combined. - Emilia, a 3B Biomedical Engineering student, highlighted that the field involves applying engineering skills to the medical field, citing a favorite project where they built a 3D system to help forearm amputees play basketball. - Megan, a 3B Chemical Engineering student, explained that the program uses chemistry, physics, and math to design processes converting raw materials into useful products, noting the first-year soap design project. - Katelyn, a 2A Nanotechnology Engineering student, stated that nanotechnology utilizes quantum and physics to solve problems across industries like electronics and medicine, emphasizing that the program is very lab-heavy, potentially having the most heavy lab hours of all engineering programs. - Mechatronics and Mechanical Engineering students indicated minimal required chemistry beyond foundational first-year courses, allowing students to specialize later if interested in material science or metallurgy. - Students consistently praised the supportive nature of professors across all disciplines and emphasized the value of the co-op program for exploring different industries and gaining real-world experience. **Context:** The content is derived from a University of Waterloo Faculty of Engineering undergraduate recruitment webinar, hosted by Abby, the Undergraduate Recruitment Specialist, designed to share student stories centered on materials, medicine, and innovation within specific engineering programs. Before proceeding, the host delivered a territorial acknowledgement recognizing the traditional territory of the Neutral, Anishinaabeg, and Haudenosaunee peoples. ## Detailed Analysis The webinar featured five students—Charis (Mechanical), Mulei (Mechatronics), Emilia (Biomedical), Megan (Chemical), and Katelyn (Nanotechnology)—who detailed their respective programs, coursework, projects, and co-op experiences. Mechanical engineering focuses on motion, physics, and prototyping; Mechatronics blends mechanical, electrical, and software skills, often involving robotics projects. Biomedical engineering applies engineering to medicine, with paths ranging from biomechanics to medical AI, including hands-on anatomy labs. Chemical engineering centers on process design across industries like energy and pharmaceuticals, featuring labs like soap making and distillation. Nanotechnology is heavily lab-intensive, focusing on quantum physics, materials synthesis, and applications in electronics and targeted drug delivery. Students stressed that while first-year courses build fundamentals, upper-year technical electives allow for specialization, and co-op experiences are crucial for career exploration. A recurring theme was the supportive faculty and the practical, hands-on nature of the learning, even in highly theoretical fields like nanotechnology, where lab hours are reportedly the heaviest among the programs discussed. ### Program Overviews - Mechanical Engineering studies motion using physics and materials science - Mechatronics combines mechanical, electrical, and software for hardware-focused roles - Biomedical Engineering solves medical problems across imaging, devices, and AI - Chemical Engineering designs processes using chemistry, physics, and biology fundamentals - Nanotechnology Engineering focuses on materials at the quantum level through heavy lab work. ### Curriculum and Learning Style - First-year courses build foundational theory across all streams - Project-based learning is key, exemplified by Mechanical's brick breaker and Connect 4 robot, and Chemical's soap design project - Mulei noted Mechatronics moves from theory-based in early years to project-based in third/fourth year. ### Lab Intensity Comparison - Katelyn suggested Nanotechnology has the most heavy lab hours, involving synthesis, clean room work, and electronics - Chemical Engineering consolidates labs per term covering various topics like battery making and distillation - Mechanical Engineering features two major design projects in first year, with labs becoming more specialized or research-based later. ### Specialization and Career Paths - Biomedical Engineering offers specializations allowing focus on bio-heavy routes or physics/biomechanics - Mechatronics does not have specializations but utilizes technical electives to focus degree direction - Chemical Engineering co-ops significantly aided Megan in determining preferred industries like R&D versus manufacturing. ### Student Experience and Advice - All students highlighted supportive professors eager to see them succeed - Co-op terms provide extensive exploration; Mulei worked software engineering in Seattle and deployed code to production at Amazon - Students advise prospective applicants to ensure they like the core components of the chosen field, as course content is less flexible than extracurriculars or co-op placements.