Bachelor of Science in Biomedical Engineering - Smart Health and Biomedical Devices Track
What is Biomedical Engineering - Smart Health and Biomedical Devices About?
This track focuses on key science aspects of Genetics, Biochemistry, and Microbiology and is complimented with foundational engineering courses such as Strength of Materials, Circuits, Instrumentation, and Biomaterials. The main thrust is to teach the students in the track to use science and engineering approaches to design and manufacture new tissue, such as skin and bone, in the laboratory. There is also a course offered to learn research and development techniques related to tissue engineering. The students in this track will have a solid foundation in science and engineering and can apply to medical school if interested while satisfying all necessary science courses. The graduates of this track will likely work in any field or company that requires laboratory work or a research and development focus. There are a growing number of companies that produce either laboratory-grown tissue or allografts; these companies are especially interested in graduates of this track.
Biomedical Engineering Undergraduate Degree Program Information
Admission Requirements
All students must meet the minimum admission requirements of the University. Please refer to the Admissions section of the University Catalog for detailed information.
All students must meet the preprofessional requirements listed here in order to be accepted into the Biomedical Engineering program.
The department accepts freshmen and transfer students. Students should refer to the general statements on admission to the College of Engineering and Computer Science and to the University requirements for freshmen and for transfer students.
Prerequisite Coursework for Transfer Students
Students transferring to Florida Atlantic University must complete both lower-division requirements (including the requirements of the Intellectual Foundations Program) and requirements for the college and major. Lower-division requirements may be completed through the A.A. degree from any Florida public college, university or community college or through equivalent coursework at another regionally accredited institution. Before transferring and to ensure timely progress toward the baccalaureate degree, students must also complete the prerequisite courses for their major as outlined in the Transition Guides and below.
All courses not approved by the Florida Statewide Course Numbering System that will be used to satisfy requirements will be evaluated individually on the basis of content and will require a catalog course description and a copy of the syllabus for assessment.
Admission Requirements for a Second BS in Biomedical Engineering
This program is for those individuals with a degree in another discipline who are seeking a Bachelor of Science in Biomedical Engineering degree at FAU.
Students seeking a bachelor's degree or graduate degree in another discipline must satisfy all admission requirements of the first bachelor's degree in Biomedical Engineering at FAU.
Degree Requirements
The minimum number of credits required for the Bachelor of Science with major in Biomedical Engineering is 123 credits. The following are requirements for the degree BS in Biomedical Engineering:
- Satisfy all admission and degree requirements of the Department and University.
- All courses that count toward the degree must be completed with a grade of "C" or better.
- Complete the specific degree requirements for Biomedical Engineering, which total 123 credits
Undergraduate Transfer Students
Prior to the academic advising session, course syllabi need to be submitted to the Undergraduate Academic Advisor for evaluation of possible transfer credits. Course descriptions can be provided by submitting an undergraduate catalog from the post-secondary institution attended, submitting course descriptions from an online catalog (requires that the post-secondary institution web address be at the bottom of each page), or providing course syllabi. The Academic Advisor evaluation needs to be performed even if a student has an evaluation by an approved agency.
Program Summary (Requires 118 credits)
|
Course Title |
Credits |
|---|---|
|
General Education |
18 |
|
Mathematics |
14 |
|
Science |
32 |
|
Common Core |
39 |
|
Tech Electives |
12 |
|
Research Core |
3 |
|
Subtotal |
123 |
General Education
|
Course Title |
Credits |
|---|---|
|
College Writing I |
3 |
| College Writing II |
3 |
|
General Psychology |
3 |
|
Civic Literacy |
3 |
|
Humanitites Group A |
3 |
|
Humanitites Group A or B |
3 |
|
Subtotal |
18 |
Mathematics
|
Course Title |
Credits |
|---|---|
|
Calculus I |
4 |
|
Calculus II |
4 |
|
Differential Equations |
3 |
|
Biostatistics |
3 |
|
Subtotal |
14 |
Science
|
Course Title |
Credits |
|---|---|
|
Chemistry I |
3 |
|
Chemistry I Lab |
1 |
|
Chemistry II |
3 |
|
Chemistry II Lab |
1 |
|
Physics I |
3 |
|
Physics Lab I |
1 |
|
Physics II |
3 |
|
Physics Lab II |
1 |
|
Anatomy & Physiology |
3 |
|
Anatomy & Physiology Lab I |
1 |
|
Genetics |
4 |
|
Quanitative Analysis |
4 |
|
Bio Principles |
3 |
|
Bio Principles Lab |
1 |
|
Subtotal |
32 |
Core Courses
|
Course Title |
Credits |
|---|---|
|
Engineering Graphics |
3 |
|
Biomaterials |
3 |
|
Biomechanics |
3 |
|
Biotechnology Lab |
3 |
|
Circuits |
3 |
|
Statics |
3 |
|
Biomedical Signal Processing |
3 |
|
Bioanalytical Instrumentation |
3 |
|
Biofluid Mechanics |
3 |
|
Engineering Design I |
3 |
|
Engineering Design II |
3 |
|
Signal & Digital Filter Design |
3 |
|
Intro to Programming |
3 |
|
Subtotal |
39 |
Electives (12 credits)
All students must take 9 credits of elective courses. Any 4000-level course offered by the College of Engineering and Computer Science department can be used as an elective. Certain 5000- or 6000-level courses may be taken as Engineering electives. Students must see an advisor for a current list of approved elective courses.
Research Core (3 credits)
Please check University Catalog for newest updates.
Mission
- Our mission is to advance the field of biomedical engineering through excellence in education, research, and clinical applications. We are dedicated to integrating engineering principles with biological sciences to address critical challenges in healthcare and improve human health. We aim to prepare the next generation of biomedical engineers to innovate, lead, and make meaningful contributions to the biomedical engineering field.
Educational Objectives
- Provide a Rigorous Education: Deliver a comprehensive curriculum that combines fundamental engineering principles with advanced biomedical knowledge, preparing students for diverse careers in biomedical engineering.
- Promote Innovative Research: Foster a dynamic research environment where students and faculty engage in pioneering projects across various biomedical engineering disciplines, applying discoveries to practical solutions for real-world healthcare problems.
- Encourage Professional Development: Offer opportunities for students to gain hands-on experience through internships, research projects, and industry collaborations, preparing them with the skills and expertise needed to excel in their careers.
- Advance Healthcare Solutions: Focus on interdisciplinary research and collaboration to develop new technologies, devices, and therapies that enhance patient care and address pressing health challenges.
- Cultivate a Collaborative Community: Build an inclusive environment encouraging teamwork, mentorship, and industry and clinical partner engagement.
Student Outcomes
Graduates of the Biomedical Engineering program will possess the following attributes.
- Apply Engineering Principles: Demonstrate proficiency in applying engineering principles to solve complex biomedical problems, including the design, analysis, and evaluation of biomedical systems and devices.
- Conduct Innovative Research: Engage in and contribute to research that advances the field of biomedical engineering, including the ability to design experiments, analyze data, and interpret results.
- Communicate Effectively: Exhibit strong communication skills, both written and oral, to effectively convey technical information to diverse audiences, including technical and non-technical audiences.
- Work Collaboratively: Collaborate effectively in multidisciplinary teams, demonstrating the ability to work with engineers, scientists, clinicians, and other professionals to achieve common goals.
- Commit to Lifelong Learning: Show a commitment to lifelong learning and professional development, advancing biomedical engineering and contributing to the ongoing growth of the field.
- Understand Ethical Implications: Recognize and address ethical issues related to biomedical engineering practices, ensuring that their work adheres to high standards of professional and ethical conduct.
The Bachelor of Science in Biomedical Engineering program is accredited by the Engineering Accreditation Commission of ABET.
Additional Resources
-
IFP Check Lists and Flight Plans for a Bachelor of Science in Biomedical Engineering (BME)
- MAC1105 (College Algebra)
- MAC1140 (Pre-Calculus Algebra)
- MAC2311 (Calculus with Analytic Geometry 1)
- Student Learning Outcomes Assessment