Course Content and Outcome Guide for RAD 211 Effective Summer 2015
- Course Number:
- RAD 211
- Course Title:
- Advanced Imaging Modalities
- Credit Hours:
- Lecture Hours:
- Lecture/Lab Hours:
- Lab Hours:
- Special Fee:
Course DescriptionBuilds on information from previous radiation physics courses in the series. Introduces computed tomography, magnetic resonance, nuclear medicine, sonography and radiation therapy. Department permission required. Prerequisites: RAD 107.
Addendum to Course Description
This course is the third in a series of three courses in Radiological Physics. Each course builds upon information from the previous courses in the series. The student will receive instruction on advanced imaging equipment which includes computed tomography, magnetic resonance imaging, radiation therapy, nuclear medicine and ultrasound.
Physics of Advanced Imaging is required as part of the Radiologic Technology degree program. It is also a prerequisite for taking the American Registry of Radiologic Technologists examination for certification in Radiography. Transferability of credit depends entirely upon the institution to which the student wishes to transfer.
Intended Outcomes for the course
1. Communicate basic knowledge of advanced imaging technology.
2. Evaluate advanced imaging opportunities for professional growth.
Outcome Assessment Strategies
1. Develop a case study of a disease process that uses one of the advanced imaging procedures studied this term.
2. Read and summarize a professional journal article regarding an advanced imaging procedure.
3. Write a self-assessment to evaluate why and how you would progress into a particular advanced imaging field.
Course Content (Themes, Concepts, Issues and Skills)
Themes Concepts and Issues:
- data acquisition
- image reconstruction
- window level/width
Magnetic Resonance Imaging
- free induction decay
- pulse sequences
- spatial encoding
- system magnets
- patient care
- nuclear physics
- gamma cameras
- physics of sound
- Piezoelectric effect
- biologic effects
1. Analyze equipment requirements for CT compared to diagnostic radiography.
2. Determine window level and width for a given scan.
3. Use safety measures for all persons in a MRI unit magnetic field.
4. Analyze the various events during pulse echo sequences.
5. Develop an understanding of cancer treatment using large doses of radiation.
6. Determine various radioactive tracers used for diagnostic exams.
7. Analyze sounds waves used for diagnostic exams.