Bachelor of Engineering in Biomedical Engineering
Biomedical engineers design devices and instruments that improve the quality of life for medical patients and aid physicians in medical diagnosis and treatment of disease, such as total implantable hearts, pacemakers and defibrillators, imaging devices, prostheses, replacement parts, portable EKG machines, and heart-lung machines.
Program Description
The Bachelor of Engineering in Biomedical Engineering degree begins by introducing students to the scientific foundations that are the basis of all engineering disciplines. Specialized biomedical-focused courses follow, providing depth in many related issues, including biology and physiology, prostheses, bioimaging, medical and monitoring devices, and more. In addition to biomedical engineering courses, students can draw upon technical elective courses in other disciplines to develop the skills appropriate for their career objectives. In the senior year, students participate in an engineering design project, often working directly with industry partners to contribute to a current commercial application. The program is designed to produce graduates who are prepared for careers in the biotech industry, to enter medical school, or to continue in graduate or professional school.
The Bachelor of Engineering in Biomedical Engineering program is accredited by the Engineering Accreditation Commission (EAC) of the Accreditation Board for Engineering and Technology (ABET).
Concentrations
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Biomechanical Rehabilitation
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Biomaterials and Tissue Engineering
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Neuroengineering and Biomedical Imaging
Program Objectives and Outcomes
The biomedical engineering program produces graduates who possess a broad foundation in engineering and liberal arts, combined with a depth of disciplinary knowledge at the interface of engineering and biology. This knowledge is mandatory for success in a biomedical engineering career. Biomedical engineering is also an enabling step for a career in medicine, dentistry, business, or law.
The objectives of the biomedical engineering program are to prepare students such that, within several years after graduation:
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Graduates will identify biomedical engineering challenges and lead solution concepts
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Graduates will be able to nurture concepts to commercialization by applying their knowledge of fundamental engineering principles, work experience, and state-of-the-art tools and techniques
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Graduates will be among the leaders of the fields in the development of biomedical devices, implants, tissues, and systems to meet the needs of society
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Graduates will establish themselves as leaders in their chosen career path by applying their skills in problem solving, teamwork, ethics, management, communication, and their awareness of professional and social issues
To accomplish this, the undergraduate program provides a balanced education in fundamental principles, design methodologies, and practical experiences in biomedical engineering, general engineering, and physical and mathematical sciences topics through which graduates can enter and sustain lifelong professional careers of engineering innovation and creativity.
Graduates of the biomedical engineering program will:
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Be recognized as innovative technical experts who demonstrate advanced understandings of the state-of-the-art in biomedical engineering, as well as their professional, social, and ethical responsibilities.
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Emerge as technical leaders through their own individual contributions and their abilities to work with and influence others.
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Function as effective entrepreneurs who nurture innovative technologies from concept to commercialization.
Student Objectives and Outcomes
By the time of graduation, biomedical engineering students will have:
- An ability to identify, formulate, and solve complex engineering problems by applying principles of engineering, science, and mathematics
- An ability to apply engineering design to produce solutions that meet specified needs with consideration of public health, safety, and welfare, as well as global, cultural, social, environmental, and economic factors
- An ability to communicate effectively with a range of audiences
- An ability to recognize ethical and professional responsibilities in engineering situations and make informed judgments, which must consider the impact of engineering solutions in global, economic, environmental, and societal contexts
- An ability to function effectively on a team whose members together provide leadership, create a collaborative and inclusive environment, establish goals, plan tasks, and meet objectives
- An ability to develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgment to draw conclusions
- An ability to acquire and apply new knowledge as needed, using appropriate learning strategies
- A fundamental knowledge and an appreciation of the technology and business processes necessary to nurture new technologies from concept to commercialization.
Biomedical Engineering Curriculum
Term I
| CH 115 | General Chemistry I | 3 |
| CH 117 | General Chemistry Laboratory I | 1 |
| ENGR 111 | Introduction to Engineering Design & Systems Thinking | 4 |
| ENGR 116 | Intro to Programming & Algorithmic Thinking | 3 |
| HASS 103 | Writing and Communications Colloquium | 3 |
| MA 121 | Differential Calculus | 2 |
| MA 122 | Integral Calculus | 2 |
| PRV 101 | First Year Experience | 1 |
Term II
| CH 116 | General Chemistry II | 3 |
| CH 118 | General Chemistry Laboratory II | 1 |
| ENGR 122 | Field Sustainable Systems with Sensors | 2 |
| HASS 105 | Knowledge, Nature, Culture | 3 |
| MA 125 | Vectors and Matrices | 2 |
| MA 126 | Multivariable Calculus I | 2 |
| MGT 103 | Introduction to Entrepreneurial Thinking | 2 |
| PEP 111 | Mechanics | 3 |
Term III
| BIO 181 | Biology and Biotechnology | 3 |
| Or | |
| BME 306 | Introduction to Biomedical Engineering | 3 |
| | |
| ENGR 211 | Statics and Introduction to Engineering Mechanics | 4 |
| ENGR 245 | Circuits and Systems | 3 |
| MA 221 | Differential Equations | 4 |
| PEP 112 | Electricity and Magnetism | 3 |
Term IV
| | |
| BME 306 | Introduction to Biomedical Engineering | 3 |
| Or | |
| BIO 181 | Biology and Biotechnology | 3 |
| | |
| ENGR 212 | Design of Dynamical Systems | 4 |
| ENGR 234 | Thermodynamics | 3 |
| ENGR 241 | Probability and Statistics with Data Science Applications | 4 |
| PRV 20X | Frontiers of Technology | 1 |
Term V
| BIO 291 | Cell and Molecular Biology | 4 |
| | |
| BME 312 | Biomaterials in Medical Device Design | 3 |
| BME 313 | Biomaterials in Medical Device Design Laboratory | 1 |
| Or | |
G.E.
| General Elective | 3 |
| | |
| BME 506 | Biomechanics | 3 |
| MA 225 | Infinite Series | 2 |
| MA 226 | Multivariable Calculus II | 2 |
| Humanities | 3 |
Term VI
| | |
| BME 312 | Biomaterials in Medical Device Design | 3 |
| BME 313 | Biomaterials in Medical Device Design Laboratory | 1 |
| Or | |
G.E.
| General Elective | 3 |
| | |
| BME 322 | Engineering Design VI | 2 |
| BME 343 | Biotransport | 3 |
| BME 460 | Biomedical Digital Signal Processing Laboratory | 2 |
| IDE 399 | Engineering Economics & Project Management | 2 |
| PRV 20X | Frontiers of Technology | 1 |
| General Elective | 3 |
Term VII
| BME 423 | Engineering Design VII | 3 |
| BME 502 | Physiology for Engineers I | 3 |
| BME 512 | Engineering Physiology Lab 1 | 1 |
| IDE 401 | Senior Innovation-II:Value Proposition | 1 |
| PRV 20X | Frontiers of Technology | 1 |
| TE 400 | Technical Elective 400 Level | 1 - 3 |
| Humanities | 3 |
Term VIII
| BME 424 | Engineering Design VIII | 3 |
| BME 465 | Principles of Biomedical Imaging | 3 |
| BME 503 | Physiology for Engineers II | 3 |
| BME 513 | Engineering Physiology Lab 2 | 1 |
| IDE 402 | Senior Innovation III: Venture Planning and Pitch | 1 |
| TE 400 | Technical Elective 400 Level | 1 - 3 |
| Humanities | 3 |
Notes:
(1) Technical Electives can be selected from available 400-599 courses offered by the BME program. Courses listed in the Areas of Concentration are common choices. Additional courses can be selected with the approval of the student’s advisor.
(2) General Electives can be selected from available courses offered by programs in SES, SSE, SOB and HASS (including BME courses). Approval from the student’s advisor and the course instructor may be required.
(3) Humanities: Please see Humanities Requirements for specific requirements.
(4) SUCCESS Core Curriculum: Students must complete requirements including PRV 101, and three (3) courses from PRV 201, PRV 202, PRV 203, PRV 204, PRV 205.
*Students in Prehealth should follow the Prehealth study plan (Please see your advisor).
Biomaterials and Tissue Engineering Concentration Curriculum
Required Course
And two Courses from the following
| BME 515 | Natural Polymers in Medicine | 3 |
| BME 520 | Cardiopulmonary Mechanics and Physiology | 3 |
| BME 570 | Lab-on-a-Chip Technology in Biomedical Applications | 3 |
| BME 575 | Cell-materials Interactions | 3 |
| ME 580 | Medical Device Design and Technology | 3 |
Biomechanical Rehabilitation Concentration Curriculum
Required Course
And two courses from the following
| BME 520 | Cardiopulmonary Mechanics and Physiology | 3 |
| BME 558 | Introduction to Brain-Machine Interfaces | 3 |
| BME 560 | Movement Control Rehabilitation | 3 |
| BME 561 | Biofeedback Innovations for Musculoskeletal Rehabilitation | 3 |
Neuroengineering and Biomedical Imaging Concentration Curriculum
Required Course
| BME 504 | Medical Instrumentation and Imaging | 3 |
And two courses from the following
| BME 558 | Introduction to Brain-Machine Interfaces | 3 |
| BME 571 | Machine learning in Biomedical Engineering | 3 |
| CPE 440 | Introduction to AI Engineering | 3 |
| CPE 462 | Introduction to Image Processing and Coding | 3 |