BIOE 3300 – Biomedical Electronics

DESIGNATION:                   Required

DESCRIPTION:                    Measurement circuits, signal analysis, and computer design in biological systems and medicine. Electronic devices, digital devices, amplifier design, and instrumentation safety. Laboratory reinforces lecture topics and their application to the acquisition of biological signals.

PREREQUISITE:                  BIOE 1200; EECS 2300

TEXTBOOK:                         Electrical Engineering:  Principles and Applications; A.R. Hambley; Prentice Hall

OBJECTIVES:                       To apply electrical engineering principles to bioinstrumentation

To formulate solutions to problems in biomedical electronics

To design electronic devices and systems for use in biomedical applications

To design, conduct and document laboratory experiments involving biomedical instrumentation

To obtain and analyze electrical signals from biological systems

To function on a team of students in a laboratory setting

To communicate laboratory results in written form

To use computational tools and laboratory instruments to design and analyze electrical circuits and devices

TOPICS COVERED:             Review of circuits

Op-amps

Diodes

Transistors

Sinusoidal analysis

Laplace transforms

Design and use of bio-potential amplifiers and other biomedical instruments

SCHEDULE:                          2 - 1 hour and 15 minute lectures per week; 2 hour and 50 minute lab per week

CONTRIBUTION:                Engineering Topics

OUTCOMES:                        This course will develop the following skills that are required of bioengineering graduates:

(a)   The ability to apply knowledge of life sciences, advanced mathematics (including differential equations and statistics), physical sciences and engineering to biological and medical systems.

(b)   The ability to design, conduct and document laboratory experiments involving biological or medical systems

(c)   The ability to design systems, devices and processes for use in medicine, health care or biological applications.

(d)   The ability to function on multidisciplinary teams consisting of engineers, clinicians, medical researchers, biologist and non-technical personnel

(e)   An ability to identify, formulate and solve problems at the interface of engineering and biology.

(g)   An ability to communicate effectively

(k)   An ability to use the techniques, skills, and modern engineering tools necessary for engineering practice

(8c) The ability to make measurements on and interpret data from living systems, addressing the problems associated with the interaction between living and non-living materials and systems

PREPARED BY:                    Scott Molitor (smolitor@eng.utoledo.edu) and Tamara Phares (tphares@eng.utoledo.edu)