Engineering Faculty Document No. 31-04

March 21, 2005

Page 1 of 4

TO: The Engineering Faculty

FROM: The Faculty of the Department of Biomedical Engineering

RE: New Dual Level Course

The faculty of the Department of Biomedical Engineering has approved the following new course. This action is now submitted to the Engineering Faculty with a recommendation for approval.

BME 553 Biomedical Optics

 

Sem. 1, Class 3, cr. 3.

 

Prerequisite:    PHYS 241 or equivalent, BIOL 295E or equivalent

 

Course description: Optical methods applied to address biological and biomedical problems. Course includes two parts: fundamentals of optical microscopy and advanced techniques that are currently used to probe and/or manipulate cell and tissue samples.

 

 

Reasons: This course introduces biophotonics, a frontier area of biomedical engineering. A variety of advanced optical methods and their applications to biomedical research are presented. By taking this course, students will learn physical principles and practical methods of optical imaging. Students will also be able to incorporate what they learn in class to their research. This course has been taught twice on an experimental basis with an enrollment of 15 and 16 students.

 

 

 

 

George Wodicka

Professor and Head


Engineering Faculty Document No. 31-04

March 21, 2005

Page 2 of 4

Supporting Documentation:

1.         Level: Graduate and Undergraduate

2.         Course Instructor: Ji-Xin Cheng

3.         Course Outline:

 Syllabus

Class 1             Basics of light

Class 2             Light matter interactions

Class 3             Principle of lasers and current laser technology

 

Class 4             Interactions of cells and tissues with light

Class 5             Principles of optical microscopy

Class 6             Diagnostic detection with optical spectroscopy and imaging

 

Class 7            Labor Day

Class 8             Confocal microscopy

Class 9             Exam 1

 

Class 10           Total internal reflection fluorescence microscopy

Class 11           Fluorescence energy transfer and lifetime imaging

Class 12           Literature review

 

Class 13           Two-photon fluorescence microscopy

Class 14           Nonlinear optics and second harmonic generation imaging

Class 15           Literature review

 

Class 16           Single molecule fluorescence detection and spectroscopy

Class 17           High-resolution imaging by near field optical microscopy

Class 18           Literature review

 

Class 19           Exam 2

Class 20          FTIR spectroscopy and imaging

Class 21           Spontaneous Raman microscopy and applications to diagnostic detection

 

Class 22           Literature review

Class 23           Coherent anti-Stokes Raman scattering microscopy

Class 24           Third harmonic generation microscopy

Engineering Faculty Document No. 31-04

March 21, 2005

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Class 25           Literature review

Class 26           Light fluctuation correlation spectroscopy

Class 27           Fluorescence recovery after photo bleaching and single particle tracking

 

Class 27           Literature review          

Class 28           Methods for deep tissue imaging

Class 29           Literature review          

 

Class 30           Optical and magnetic tweezers

Class 31           Literature review          

Class 32           Light fluctuation correlation spectroscopy

 

Class 33           Literature review          

Class 34           Biomedical imaging with nano materials

Class 35           Teraherz spectroscopy and imaging      

 

Class 36           Optical biosensors

Class 37           Photodynamic therapy

Class 38           Exam 3

 

Class 39           Course review 

Class 40           Student presentation of original proposals (final project)

Class 41           Student presentation of original proposals (final project)

 

Class 42           Student presentation of original proposals (final project)

Class 43           Student presentation of original proposals (final project)

Class 44           Student presentation of original proposals (final project)

 

Class 45           Final exam

 

Note for literature review:  For each specific topic, two or three students will present in class a few recently published papers. Each student will submit a short paper that summarizes their comments on the significance, methods and results, strength and weakness of the papers.

 

Textbook:                   Introduction to Biophotonics (John Wiley & Sons, Inc. 2003)

 

Grading:                      Three exams                 45%

                                    Literature review           15%

                                    Homework                   20%

                                    Final project    20%

Engineering Faculty Document No.31-04

March 21, 2005

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Documentation on previous teaching

Fall semester of 2003

The total number of the registered students is 15, 4 of which from BME, 8 from Chemistry, 2 from ECE, 1 from ME. The result of the student evaluation is as follows

BME595Z / CHM 599Z

 

From BME

From Chemistry

Ave. rate for the course

4.6

4.8

Ave. rate for the instructor

4.2

4.8

 

Fall semester of 2004

The total number of the registered students is 16, 6 of which from BME, 8 from Chemistry, 2 from ME. The result of the student evaluation is as follows

BME595Z / CHM 599Z

 

From BME

From Chemistry

Ave. rate for the course

3.7

3.8

Ave. rate for the instructor

3.3

3.6