BE225   Technology & Engineering in Medicine

Bioengineering Undergraduate Program

 

 

 

 

Bioengineering course for the Benjamin Franklin Scholars Program

Instructor: Beth Winkelstein, Bioengineering

 

This course will provide an in-depth examination of technology and its impact on medicine, with an emphasis on the intersection of engineering with medicine and health.  Basic foundations of historical perspective, constraints on technological development, and the promise and peril of technological impact on medicine will be discussed.  Modules will also focus on specific technological advances which have had significant impact on the field of medicine.  These include: imaging and diagnosis of disease, genetic therapy and pharmacology, and rehabilitative devices, assistive devices and transplantation. 

 

The course is geared to all students interested in aspects of medicine and engineering and applied science.  Reading will integrate topics of the impact of technology on medicine with specific major technologies, as well as examine societal issues related to effects on human nature and the future of biotechnology.  The course will be discussion-based and structured around readings of primary sources, commentaries, and publications in the literature.  Discussions will be augmented by guest lecturers in the fields of medicine and engineering, as well as those from technology driven research sectors.  Throughout the term, students will be expected to select a specific technology to follow in the medical, scientific and engineering, as well as popular and lay literature and discuss its applications and impact.

 

Pre-requisite or co-requisite: First year college physics, chemistry, and biology or AP credits; Sophomore and higher classes only.

 

Grading:  45% Homework & Writing Assignments;

                20% Midterm;

                15% Final Presentation;

                20% Final Paper

                

Textbook: Bulkpack of isolated book chapters & journal articles

 

Selected References:

 

Science and Technology in Medicine: An Illustrated Account Based on Ninety-Nine Landmark Publications from Five Centuries. A Gedeon, Springer, 2006.

Insight & Industry: On the Dynamics of Technological Change in Medicine. SS Blume, MIT Press, 1991.

Enabling Technologies in Rehabilitation. M MacLachlan, P Gallagher, Churchill Livingstone, 2004.

Our Posthuman Future: Consequences of the Biotechnology Revolution. F Fukuyama, Picador, 2003.

Technology & the Future of Health Care: Preparing for the Next 30 Years. D Ellis, Wiley, 2001.

 

 

Course Outline (2 meetings per week for 13 weeks):

 

Week 1:                Introduction; Historical Perspective; Framework for Discussions

Week 2:                Constraints & Concerns (“Pros and Cons of Technology” in Medicine)

Weeks 3 & 4:       Immunophenotyping (technologies: biomedical platforms, FACS, combined immuno- and molecular phenotyping; medical applications: AIDS, transplantation, pathology detection)

Weeks 5 & 6:       Genetic Therapies  & Gene Delivery (technologies: viral vectors, non-viral; monitoring therapy; medical applications: cancer, CNS repair, cardiovascular disease)

Weeks 7 & 8:       Pharmaceuticals; Neuropharmacologics (technologies: biopolymers, microreactors, BioMEMs; medical applications: diabetes, pain, stroke & Alzheimer’s disease)

Weeks 9 & 10:    Imaging & Medical Diagnostic Techniques (technologies: 4D ultrasound, MR, FRET, microarrays, biosensors; medical applications: image-guided surgery, cancer, disease detection)

Weeks 11 & 12:  Rehabilitative & Assistive Devices; Transplants & Artificial Organs (technologies: robotics & prosthetics, cardiac assist devices & replacements, transplant, tissue engineering; medical applications: dialysis, cardiac disease, sensorimotor systems, rehabilitation)

Week 12:             Trends for Future Impacts

Week 13:             Student project presentations

 

Person(s) Preparing Description and Date:

Beth Winkelstein
July 2007