Tyler Adams

I am a highly driven senior Biomedical Engineering student at the University of Georgia, graduating in May 2025. With hands-on experience in cell culture, tissue engineering, and biomedical device development, I'm seeking full-time opportunities or structured training programs with a biomedical company. I aim to leverage my project leadership, technical expertise, and passion for advancing healthcare technologies to make a meaningful impact while starting my career in the industry.

Wicking Fiber Project:

• Collaborated with a research team to improve cell separation techniques based on capillary action, enhancing the accuracy of cancer cell detection.
• Applied advanced techniques in cell culture and microscopy to track the movement of cancer cells along the fiber material.
• Analyzed data and optimized fiber materials for better capillary action efficiency and cancer cell isolation.

Capstone Design Project: 

• Led a team of 6 students to design and develop an innovative mouse mounting device for research applications, ensuring functionality and precision.
• Coordinated regular team meetings and maintained open communication with stakeholders and clients to align project goals.
• Proactively managed project timelines, successfully meeting key milestones ahead of deadlines.

Prosthetics Design Research Project:

• Conducted in-depth research on historical advancements and contemporary trends in prosthetic hand design.
• Analyzed the impact of evolving materials and manufacturing techniques on the functionality and accessibility of prosthetic hands, contributing to a comprehensive understanding of the field's progression.

Electric Guitar Amplifier Design and Fabrication:

• Designed a custom electric guitar amplifier circuit schematic, incorporating principles of electrical engineering and signal processing to achieve desired sound characteristics.
• Employed a methodical approach to circuit design, utilizing experimentation and mathematical equations to optimize the electric guitar amplifier circuit for low noise and high fidelity, mimicking the problem-solving process often encountered in biomedical device development.

DC Motor Design and Construction:

• Led a team to design and build a DC motor from scratch, incorporating principles of electrical engineering and mechanical design.
• Utilized 3D printing technology to fabricate custom housings for the motor components, showing proficiency in 3D modeling and engineering ingenuity.