Biomedical Engineering (Biomed - Arizona State U

The Biomedical Engineering (Biomedical Devices) program at Arizona State University equips students with the knowledge and skills to translate healthcare needs into viable biomedical device prototypes. The program combines engineering and life sciences, emphasizing ethical and sustainable practices in device design and manufacturing. Graduates are prepared for careers in the medical device industry, including research and development, design, quality assurance, and regulatory affairs. The program offers hands-on experience, global opportunities, and accelerated degree options.

Program Outline

Objectives:

Equip students with in-depth knowledge of biomedical engineering principles and their application in device design and development.
Foster the ability to translate healthcare needs into functional biomedical device prototypes.
Develop critical thinking and problem-solving skills necessary for innovation in the biomedical field.
Emphasize ethical and sustainable practices in the design and manufacturing of biomedical devices.

Program Description:

The curriculum emphasizes a strong foundation in engineering and life sciences, with courses covering topics such as biomaterials, biomechanics, physiology, and electronics. Students gain hands-on experience through design projects, laboratory work, and research opportunities. The program culminates in a capstone project where students apply their knowledge and skills to develop a real-world biomedical device prototype.

Outline

Program Structure:

The Biomedical Engineering (Biomedical Devices) program follows a traditional semester system with a total of 121 credit hours required for graduation. The program is typically completed within four years of full-time study.

Course Schedule:

The program offers a variety of courses covering the core areas of biomedical engineering, including:

Biomaterials and Tissue Engineering
Biomechanics
Physiology
Electronics
Signal Processing
Bioinstrumentation
Medical Imaging
Biomedical Design
Regulatory Affairs for Medical Devices

Individual Modules:

Biomaterials and Tissue Engineering: This module introduces students to the properties and applications of biomaterials in medical devices.
Electronics: This module covers the fundamentals of electrical circuits and their application in medical devices.
Signal Processing: This module introduces students to the principles of signal processing and their application in medical devices.
Bioinstrumentation: This module covers the design and development of bioinstrumentation systems for measuring and analyzing physiological signals.
Medical Imaging: This module introduces students to the principles of medical imaging modalities and their application in diagnostics and treatment.
Biomedical Design: This module focuses on the process of designing and developing biomedical devices, including prototyping, testing, and regulatory considerations.

Assessment

Assessment Methods:

Exams: Students are assessed through individual and group exams, which test their understanding of the theoretical concepts and their ability to apply them to practical problems.
Assignments: Regular assignments requiring calculations, simulations, and design projects are used to assess students' understanding of the material and their ability to apply it to real-world situations.
Presentations: Students are required to present their work in both written and oral formats, allowing them to demonstrate their communication skills and ability to think critically.
Capstone Project: The capstone project serves as a comprehensive assessment of the student's ability to apply their knowledge and skills to the design and development of a real-world biomedical device prototype.

Assessment Criteria:

Knowledge: Students are assessed on their understanding of the fundamental concepts and principles of biomedical engineering.
Comprehension: Students are assessed on their ability to apply their knowledge to solve problems and analyze complex situations.
Application: Students are assessed on their ability to use their knowledge and skills to design and develop biomedical devices.
Communication: Students are assessed on their ability to communicate their ideas effectively in written and oral formats.
Teamwork: Students are assessed on their ability to work effectively in teams on collaborative projects.

Teaching

Teaching Methods:

The program utilizes a variety of teaching methods, including:

Lectures: Lectures are used to introduce students to new concepts and provide a foundation for further learning.
Tutorials: Tutorials provide students with an opportunity to work on problems and receive feedback from instructors.
Laboratory Work: Laboratory sessions allow students to gain hands-on experience with biomedical equipment and techniques.
Design Projects: Design projects provide students with the opportunity to apply their knowledge and skills to real-world problems.
Research Opportunities: Students have the opportunity to participate in research projects with faculty members, gaining valuable experience in research methods and biomedical engineering.

Faculty:

The program is staffed by a team of experienced and dedicated faculty members who are actively involved in research and industry collaborations. The faculty members have expertise in various areas of biomedical engineering, including biomaterials, biomechanics, medical imaging, and bioinstrumentation.

Unique Approach:

The program emphasizes a hands-on, project-based learning approach that allows students to apply their knowledge and skills to real-world problems. The program also places a strong emphasis on ethical and sustainable practices in the design and manufacturing of biomedical devices.

Careers

Career Paths:

Graduates of the Biomedical Engineering (Biomedical Devices) program are prepared for a variety of careers in the medical device industry, including:

Research and Development Engineer
Design Engineer
Quality Assurance Engineer
Regulatory Affairs Specialist
Project Manager
Sales Engineer

Opportunities:

The medical device industry is a rapidly growing field with a high demand for qualified engineers. Graduates of the program are well-positioned to find employment in a variety of settings, including large medical device companies, startups, and research institutions.

Outcomes:

The program has a strong track record of preparing graduates for successful careers in the medical device industry. Many graduates go on to work for leading companies such as Medtronic, Boston Scientific, and Johnson & Johnson.

Other

Global Experience:

The program offers students the opportunity to participate in global experiences, such as study abroad programs and internships, to gain international perspectives and enhance their cultural awareness.

The program is accredited by the Engineering Accreditation Commission of ABET.
The program is eligible for the STEM-OPT extension, which allows international students to extend their stay in the United States for up to 36 months to gain work experience in their field.

Biomedical Engineering (Biomedical Devices) - BSE

Program Overview