ECE-GY 6813/BE-GY 6203/BMSC-GA.4426 Medical Imaging

Jointly Offered by Tandon School of Engineering and School of Medicine, New York University

3 credits, Fall Semester 2018

Course description:

This course introduces the physics, instrumentation, and signal processing methods used in X-ray (projection radiography), X-ray computed tomography, ultrasound imaging, nuclear medicine (SPECT/PET), and magnetic resonance imaging. The course builds on fundamental signal processing, basic electricity and magnetism, and multivariate calculus.

Course Webpage: http://eeweb.poly.edu/~yao/EL6813

Goals and Objectives:

·      Familiarity with the basic biomedical imaging modalities and their history

·      Working knowledge of the basic physics, engineering and instrumentation principles of each modality

·      Understanding of the typical applications for each modality

·      Understanding of each modality strength and weaknesses

·      Current research directions for each modality

Course Director:

Prof. Yao Wang (NYU Tandon School of Engineering)

646-997-3469, yaowang@nyu.edu

Instructors:

Dr. Jonathan Mamou (NYU Tandon School of Engineering, Adjunct Professor) 917-225-0824, jonathan.mamou@nyu.edu, JMamou@RiversideResearch.org

 

Prof. Steven Baete (NYU School of Medicine),

 212-263-4861, steven.baete@nyumc.org

Prof. Daniel Turnbull (NYU School of Medicine)

212-263-7262, daniel.turnbull@nyumc.org

Prof. Yu-Shin Ding (NYU School of Medicine)

212-263-6605, yu-shin.ding@nyumc.org

Teaching Assistant:

Weiwei Dai (NYU Tandon School of Engineering, Graduate Student) wd471@nyu.edu

Format:

The course is organized as 12 150-minute lectures, two exams, and 1 lecture session used for a tour of medical imaging facilities. Students will be evaluated based upon course participation, homework and programming assignments, a midterm exam, a final exam.

Homework policy:

Homework will be assigned weekly and collected a week later. Homework solution will be provided the following week. Select homework problem will be graded and count towards the final grade. Exams will be primarily based on homework problems. There will also be several MATLAB assignments, and these will be collected and counted towards the final grade.

Grading policy:

Exam 1: 40%, Exam 2: 40%, Homework Assignments: 10%, Programming Assignments: 10%.

Lectures:

For lectures 1-6 and both exams: Friday, 9:50 am-12:20 pm, 2 Metro Tech Center, Rm 9.007, Brooklyn Campus (NYU Tandon)

For lectures 7-12: Friday, 9:50 am – 12:20 pm, Center for Biomedical Imaging, 3rd floor large conference room, 660 1st Avenue, New York, NY 10016.

Textbooks:

J. L. Prince and J. M. Links, Medical imaging: signals and systems, 2/E, Prentice Hall, 2015. ISBN-10: 0132145189.

Outline:

Lecture #1 Introduction (September 7, 2018) Lecture note (updated September 6, 2018)

·      Introduction to the course

·      Overview of medical imaging modalities (history and basic principles)

·      Review of signals and system basic concepts

·      Image quality metrics

Lecture #2 Physics of radiography (September 14, 2018) Lecture note (updated September 13, 2018)

·      Ionizing radiation

·      Electromagnetic radiation

·      Compton scattering

Lecture #3 Projection radiography (September 21, 2018) Lecture note (updated September 18, 2018)

·      X-ray tubes

·      Film/screen detectors

·      conventional x-ray imaging equation

Lecture #4 X-Ray computed tomography (CT) part 1 (September 28, 2018) Lecture note (updated September 21, 2018)

·      Instrumentation

·      Image formation

·      Radon transform

Lecture #5 X-Ray computed tomography (CT) part 2 (September 28, 2018) Lecture note (updated September 28, 2018)

·      Back projection

·      Filtered back projection

·      Image quality

Lecture #6 Nuclear Medicine (October 5, 2018) Lecture note (updated October 03, 2018)

·      The physics of nuclear medicine

·      Positron Emission Tomography (PET)

MIDTERM EXAM (October 19, 2018) (2011 Fall Midterm) (2011 Fall Midterm Solution) (2012 Spring Midterm) (2012 Spring Midterm Solution) (2013 Spring Midterm) (2013 Spring Midterm Solution) (2014 Spring Midterm) (2014 Spring Solution) (2015 Fall Midterm) (2015 Fall Midterm Solution) (2016 Fall Midterm) (2016 Fall Midterm Solution) (2017 Fall Midterm) (2017 Fall Midterm Solution)

Lecture #7 Physics of Magnetic Resonance Imaging (October 26, 2018)

·      Magnetization

·      Precession and Larmor frequency

·      RF excitation

·      Relaxation

Lecture #8 Magnetic Resonance Imaging (November 2, 2018)

·      Instrumentation

·      Data acquisition

·      Image reconstruction

Lecture #9 Advanced Magnetic Resonance Imaging (November 9, 2018)

·      Image quality

·      Diffusion MRI

·      Functional MRI

Lecture #10 Physics of Ultrasound (November 16, 2018)

·      Acoustic waves: properties of media

·      Wave propagation: speed, reflection, attenuation

·      Axial vs Lateral resolution

·      Doppler effect

Lecture #11 Ultrasound Imaging (November 30, 2018)

·      Ultrasound imaging principles

·      Beam pattern formation and focusing

·      Instrumentation (transducers, system components)

Lecture #12 Clinical aspects of PET (December 7, 2018)

·         Tracer Development and Validation

·         Drug Pharmacokinetics & Pharmacodynamics

·         Preclinical & Translational Research

·         Clinical Applications

 

Tour of the NYU Center for Biomedical Imaging (December 14, 2018)

·      Tour of the RF Lab and explanation of RF coils components

·      Tour of the MRI facilities (including a 7T whole body scanner)

·      Practical session at the MRI console

 

 

FINAL EXAM (December 21, 2018)