Undergraduate Minor in Biomedical Engineering
Biomedical engineering is a burgeoning field and has been a major driving force in the U.S.’s job market over the recent decades. This interdisciplinary field brings together electrical engineers, mechanical engineers, biologists, medical physicians, business entrepreneurs, and many other professionals to create the modern medical technology and advances that our society has witnessed to dramatically improve healthcare. At the foundation of biomedical engineering is a deep understanding of engineering electrical and mechanical systems and an integration of knowledge in biology and medicine.
Thus, the Biomedical Engineering (BME) minor degree program is designed for students interested in pursuing biomedical engineering in their careers to obtain a strong foundation in one of the major engineering disciplines (EE or ME) and understand how to apply their engineering skills to contribute to the advancement of medical technology and treatments as well as the design of products to improve the human quality of life.
A minimum of 15 units is required, of which 12 can be used to satisfy major requirements in Electrical Engineering or 6 units in Mechanical Engineering (reflects 2018-2019 catalog changes to the Mechanical Engineering program). For example, the EE course offerings in this BME minor are part of an existing upper division specialization in Biomedical Engineering within the BSEE degree program, and thus would enable EE majors to obtain the biomedical minor degree while fulfilling their upper division specialization requirement.
Successful completion requires a 2.0 overall grade point average in the BME minor, good academic standing, and completion of all minor courses by the time students earn their baccalaureate.
Curriculum (effective Fall 2018)
A minimum of 15 units of which 9 units must come from the upper division level.
Required Biology Course (3 units): Course Schedule
BIOL 2800 Physiology for Biomedical Engineering (3) Fall
Required BME Courses (6 units):
ME/EE 2801 Introduction to Biomedical Engineering (3) Fall
EE 3810 Sensors, Data Acquisition, and Instrumentation with Applications in BME (3) Fall, Spring
Elective courses (select 6 units):
ME 4500 Biomechanics (3) Fall
ME 4510 Biomaterials (3) Spring
ME 4590 Rehabilitation Design (3) Fall, Spring
EE 4810 Biomedical Devices (3) Fall
EE 4820 Biomedical Signal Processing (3) Fall
ME/EE 4990 Directed Study (3) Fall / Spring
BINF 4000 Bioinformatics and Computational Biology (3)
BINF 4500 Process Estimation and Detection in Cellular Biology (3)
KIN 3350 Anatomical Kinesiology (3) Fall / Spring
Course Descriptions (units)
BIOL 2800 - Physiology for Biomedical Engineering (3)
Prerequisite: CHEM 1040. Basic human physiology and its connection to engineering design. Pathophysiology of some major diseases and disorders that are currently treated and/or monitored by biomedical devices and technology. Lecture 3 hours per week.
EE 2049 – Electrical Measurements and Circuits Laboratory (1)
Prerequisites: EE 2040 or ME 2040. Characteristics and limitations of electrical instrumentation and experimental verification of the laws of electrical circuits.
EE/ME 2801 – Introduction to Biomedical Engineering (3)
Prerequisite or Co-requisite: BIOL 2800. Introduction to the field of biomedical engineering. Exposure to applications in biomedical engineering and various subfields of biomedical engineering, including biomechanics, rehabilitation engineering, biomedical devices, biosignal processing, and responsible conduct in biomedical research.
EE 3810 – Sensors, Data Acquisition and Instrumentation with Applications in Biomed. Engineering (3)
Pre-requisites: EE 2049. Commonly used sensor technologies and measurements in engineering systems, hardware interfaces, data collection; practical applications of sensors and instrumentation in biomedical engineering. Note: Fullfills G.E. block B2 requirement for engineering majors.
KIN 3350 Anatomical Kinesiology (3)
Prerequisites: BIOL 2010 and BIOL 2020. Structure and function of the musculoskeletal system in relation to human movement. Lecture 3 hrs, laboratory 3 hrs.
BINF 4000 – Bioinformatics and Computational Biology (3)
Prerequisites: BIOL 1100 and CS 2011 (or CIS 2830); upper division or graduate level standing. Theory and application of software programs that analyze genes and proteins; creation of programs designed to search databases and align sequences. Lecture 2 hours, laboratory 3 hours.
BINF 4500 – Advanced Topics in Bioinformatics and Computational Biology (1)
Prerequisite: BINF 4010. Review of current advances in bioinformatics and computational biology. Recitation-Laboratory 6 hours.
ME 4500 – Biomechanics (3)
Prerequisites: ME 2050, ME 3200. Application of mechanical principles on living things, statics and dynamics of human activities, study of biomechanical mechanisms and structures, and mechanics of materials and tissues.
ME 4510 – Biomaterials (3)
Prerequisites: CHEM 1040, ME 2070, ME 2050. Materials for biomedical applications, their chemical structures, physical and mechanical properties and processing, bio-reaction with biomaterials, bio-integration, implantation, inflammation, immune response, thrombosis, and calcification.
ME 4590 – Rehabilitation Design (3)
Prerequisite: ME3200. Corequisites: ME 3210 or 4201. Introduction to Rehabilitation & Biomedical Engineering utilizing cutting-edge analysis and measurement tools to apply students’ skills to maximize independence and enhance activities of people with disabilities. This course requires Service-Learning.
EE 4810 – Biomedical Devices (3)
Prerequisites: EE2040, EE3810. Introduction to engineering of biomedical devices; use of electronic circuit design in medical instrumentation with a focus on implantable devices; electronic device design of neural prostheses and signal conditioning circuitry.
EE 4820 – Biomedical Signal Processing (3)
Prerequisites: EE 3020, EE 3810. Signal processing techniques to analyze bioelectrical signals for biomedical applications, such as diagnostics of neurological disorders and development of neurostimulation therapies.
EE/ME 4990 – Undergraduate Directed Study (3)
Prerequisites: Permission needed by department. Project selected in conference with the sponsor before registration; progress meeting held regularly, and a final report submitted.
BME Faculty Core Department
Deborah Won, Ph.D. Electrical and Computer Engineering
David E. Raymond, Ph.D., P.E. Mechanical Engineering
Mathias Brieu, Ph.D. Mechanical Engineering
Samuel Landsberger, Sc.D. Mechanical Engineering & Kinesiology
Curtis Wang, Ph.D. Electrical and Computer Engineering
Affiliated Faculty Core Department
Nancy Warter-Perez, Ph.D. Mechanical Engineering
Christine Dy, Ph.D. Kinesiology
Ray de Leon, Ph.D. Kinesiology
Andrew Cornwell, Ph.D. Kinesiology
Katrina Yamazaki, Ph.D. Biological Sciences
Ali Nikooyan, Ph.D. Mechanical Engineering
Nurullah Arslen, Ph.D. Mechanical Engineering
BME Research Labs
Dr. Deborah Won's Research Lab: http://debbie.mdag.org/Lab/
Dr. David Raymond's Research Lab: http://www.csula-aibl.com
Dr. Mathias Brieu's Research Lab: Coming Soon!
Dr. Sam Landsberger's Research Lab: Coming Soon!
Dr. Curtis Wang's Research Lab: Coming Soon!