Course Syllabus Adv. Positron Emission Tomography (PET) & Fusion Tech. NMTT 2333 Semester with Course Reference Number (CRN) SUMMER 2012 CRN 87599 Instructor contact L. Rene Hyder; information (phone Phone: 713-718-7355; number and email Email: rene.hyder@hccs.edu address) Office Location and Hours Coleman College for Health Sciences Room 524 Hours: Mon. 8-11 am; Tue. 8:00-9:00 am; Fri. 8:00-9:00 Course Location/Times Monday 1:00 – 4:20 and Friday 1:00-4:00 in room 574 Course Semester Credit Hours (SCH) (lecture, lab) If applicable Credit Hours 3.00 Lecture Hours 3.00 Laboratory Hours External Hours Total Course Contact Hours 48.00 Continuing Education Units (CEU): if applicable Course Length (number of weeks) 8 weeks Type of Instruction Lecture Web-enhanced Course Description: Advance study in the field of positron emission tomography and fusion technology. 1 Course Prerequisite(s) PREREQUISITE(S): NMTT 1409 FREQUENT REQUISITES College Level Writing Departmental approval Admission to the Program College Level Reading College Level Mathematics Academic Discipline/CTE Program Learning Outcomes 1. Prepare and administer radiopharmaceuticals. 2. Correlate nuclear medicine procedures with normal anatomy/physiology and abnormal pathology. 3. Utilize proper methods of patient care. 4. Demonstrate radiation safety techniques to minimize radiation exposure. 5. Perform quality control procedures. 6. Competently perform imaging and non-imaging nuclear medicine procedures. Course Student Learning Outcomes (SLO): 4 to 7 1. Explain the methodology of positron emission tomography and fusion technology. 2. Describe radiopharmaceuticals used and their patterns of biodistribution. 3. Identify required instrumentation and quality control measures. 4. Outline associated patient preparation." 5. Detail the usage of PACS, teleradiology, and other systems used in the healthcare setting to manage, store and transmit information. Learning Objectives (Numbering system should be linked to SLO e.g., 1.1, 1.2, 1.3, etc.) Explain the methodology of positron emission tomography and fusion technology. 1. Discuss how a PET, PET/CT, and/or SPECT/CT scan for oncology, cardiac and/or brain imaging is acquired. Describe radiopharmaceuticals used and their patterns of biodistribution. 1. Identify the radiopharmaceuticals used for PET, PET/CT and/or SPECT/CT. 2. Discuss the biodistribution of the radiopharmaceuticals used in PET, PET/CT and SPECT/CT imaging. Identify required instrumentation and quality control measures. 1. Detail the components of a PET, PET/CT and SPECT/CT imagers. 2. Discuss the quality control studies performed on PET, PET/CT and SPECT/CT imagers. Outline associated patient preparation." 1. List the patient preparation steps utilized in PET, PET/CT and SPECT/CT imaging. 2. Compare the images acquired when the patient is properly prepared for a study versus not correctly prepared for a study. Detail the usage of PACS, teleradiology, and other systems used in the healthcare setting to manage, store and transmit information. 1. Explain how acquired patient data is viewed, processed and archived on a PACS system. 2. Discuss the utilization of radiology and hospital information systems used to manage patient information in accordance with facility policies, state and federal statues and accreditation standards. SCANS and/or Core Curriculum Competencies: If applicable SCANS Explain the methodology of positron emission tomography and fusion technology. Foundation Skills - Basic -Writing Describe radiopharmaceuticals used and their patterns of biodistribution. Foundation Skills - Basic -Writing Identify required instrumentation and quality control measures. Foundation Skills - Basic -Writing Outline associated patient preparation." 2 Foundation Skills - Basic -Writing Detail the usage of PACS, teleradiology, and other systems used in the healthcare setting to manage, store and transmit information. NMTT - 2333 PET COURSE ; SUMMER 2012 Course Calendar CLASS : Mondays 1:00-4:20 pm & Fridays 1:00 am - 4:00 pm for 8 weeks TEXTBOOKS: Nuclear Medicine and PET/CT Technology and Techniques, Christian & Waterstram-Rich, 7TH Ed.,Mosby, 2012 WEEK 1 Mon., 5/14 Nuclear Medicine Procedure Manual Klingensmith, Eshima, Goodard Wick, 2012-2014 CONTENT ASSIGNMENT Radiopharmaceuticals: Production & Characteristics Objectives: Christian: 152-156, Ms. Hyder 1. Identify the radiopharmaceutical used in PET imaging and their methods of production 168-173, 2. Identify the clinical uses of PET and PET/CT 319-327 3. Define “occult” lesions as indicated in this lecture PM: 92 4. Describe the components and operation of a cyclotron 5. List the advantages of PET radiopharmaceuticals 6. Describe the physics of positrons decay and emissions 7. List detector crystals that can be used for PET imaging and describe their properties 8. Explain the fundamental operation of dedicated PET scanners and their design 9. Discuss 2D and 3D imaging and the advantages and disadvantages of each 10. Describe the detection of true, scatter and random events 11. Describe transmission images and it's use in attenuation correction of PET images 12. Discuss attenuation correction techniques in PET 13.. Discuss the design of a PET/CT scanner 14. Discuss the advantages of a PET/CT Scanner 15. Explain how the CT transmission scan is utilized 3 WEEK 1 Fri., 5/18 CONTENT ASSIGNMENT CT Physics & Instrumentation Objectives: Christian: Chapter 11 ** 12-3 ** Roger Bumgardner MPh, RT: (R),(N), & (CT 1. Describe the physics processes involved in the production of x-rays 2. Describe the role of each component in the x-ray tube and its operation 3. Discuss the proper adjustment of the x-ray tube voltage and current in CT 4. Name the principle parts of a CT scanner and the function of each component 5. Describe how helical CT scanner operates and the component changes made this technology possible 6. Discuss how CT image data are acquired and processed 7. Describe the calculation process of Hounsfield units 8. Describe CT number values assigned to various tissues and how these values are assigned into meaningful display windowing 9. List parameters set by the operator for CT use and describe the effect of each on the images 10. Discuss CT Image quality issues 12. Describe the parameters and imaging characteristics required for a diagnostic quality CT scan 13. Discuss patient & occupational radiation exposure from a CT scanner 2 Mon.,5/21 PET Instrumentation Part 2 Objectives: Christian: 327-342, Jeff Evrard, PETNET 1. Explain the pharmacokinetics of FDG 2. Describe the normal and abnormal distribution of F-18-FDG 3. Describe the patient preparation for a F-18-FDG oncology study 4. Identify the usual adult and pediatric dosage and route of administration 5. Explain patient positioning for the dosing and scanning for F-18-FDG 6. List the indications for oncology imaging with F-18-FDG 7. Discuss the impact of FDAMA on the growth of PET 8. List the indications for cardiology imaging with PET 9. List the radiopharmaceuticals used for PET Cardiac Imaging 10. Explain patient preparation for PET cardiac studies 11 . Explain how a Sr82/Rb-82 generator/infusion system is used to dose patient 12. List the indications for brain imaging with PET/CT 13. List the advantages of using F-18-F-Na for bone PET imaging 14. List two other current PET radiopharmaceuticals and their proposed use 15. Describe the appearance of attenuation corrected versus non corrected images 16. Describe the process of storing reconstructed data in sinograms and reconstruction methods in PET 391-396 PM: 36, 37, 40 4 WEEK 2 Fri., 5/25 CONTENT ASSIGNMENT Radiation Safety Objectives: Christian: Hyder 347-349, 1. Describe the radiation safety techniques used to reduce radiation exposure in PET imaging 2. Discuss patient radiation exposure from PET and CT scanner 3. Discuss occupational radiation exposure from operating a CT scanner 4. List the HVL of lead for Tc-99m vs F-18 and the HVL of tungsten for F-18 5. What are the items considered in getting a site ready for F-18 studies 372-373, 189-199 PET/CT Scanners 1. Discuss the evolution of the PET/CT scanners 1. Discuss various manufacturers of PET/CT scanners 3 Mon., 5/28 3 Fri, 6/1 Memorial Day Holiday PET, CT & PET/CT Quality Assurance Objectives: 1. Discuss a PET quality control program, including: blank scan, absolute activity calibration, normalization scan, sinogram, coincidence timing window, gain and energy calibration, etc. 2. Describe a CT Quality control program 3. List the origin of CT and PET/CT image artifacts and how they may be prevented 4. Explain truncation and its effect on image quality 5. Discuss the integration of CT procedures into the combined PET/CT examination 6. Discuss the critical elements in generating quantitative measurements 7. Discuss SUV 8. Discuss appropriate parameters for the acquisition of low dose CT for PET attenuation correction Christian: 342-345,, 373-374 PM: 16, 17 Review previously discussed information 5 WEEK 4 Mon., 6/ 4 CONTENT ASSIGNMENT SPECT/CT Instrumentation Objectives: Christian: Chapter 9 Dr. Kappadath 4 Fri., 6/ 8 1. Discuss the components of a SPECT camera 2. Describe the principles of tomographic reconstruction 3. Discuss the physics of SPECT relative to attenuation, scatter, reconstruction and detector response 4. Describe the attenuation correction performed by transmission imaging 5. Discuss advantages of SPECT/CT systems 6. Describe image quality and artifacts in SPECT/CT imaging 7. Discuss scatter correction methods 8. Discuss gray scale versus color display 9. List quality control test performed specifically for SPECT Patient Preparation & Artifacts Objectives: Christian: 391-398 MDACC PET Brandon Simon 5 Mon., 6/ 11 5 Fri., 6/ 15 1:00-4:00 6 Mon., 6 / 18 1. Describe the patient preparation for oncology studies 2. Explain the patient preparation differences for cardiology, brain and oncology studies 3. Describe the normal distribution of F-18-FDG 4. Discuss appropriate acquisition parameters for PET and CT 5. Describe various artifacts that may be seen in PET images 6. Define SUV and explain how it is calculated and used; Discuss how it can be effected by incorrect patient Preparation Review for Mid-Term Exam; Smith / Hyder MID-TERM EXAM Fusion Technology & Infomatics Objectives: ** 9-12 ** Martha Mar PM: 82 Christian: 347-348 1. Explain the DICOM system 2. Discuss computer programming and programming languages 3. Explain digital storage of images 4. Diagram computer network configurations 5. Discuss uses of non-imaging computers 6. Discuss dedicated PET images & QC 6 WEEK 6 Fri., 6/ 22 Ms. Hyder 7 Mon., 6/ 25 MDACC Dr. Rohen 7 Fri., 6/ 29 9:00-12:00 CONTENT PET Oncology 1: Clinical Indications for PET/CT Objectives: ASSIGNMENT Christian; 402-418 1. Discuss the different types of PET oncology applications 2. Discuss the various scanning protocols for PET/CT and when they are used with each type of cancer 3. Explain the steps in properly preparing a patient for a PET/CT oncology study 4. Describe the patient positioning and comfort issues that hinder the acquisition of a quality PET/CT study 5. Discuss the significance of peripheral blood glucose levels in FDG imaging 6. Discuss the value of future PET oncology radiotracers 7. Discuss the potential future directions of PET/CT oncology PET Oncology 2 Objectives: 1. Discuss benign causes of increased FDG uptake 2. Identify normal and abnormal PET/CT images 3. Identify patterns associated with the various types of cancer using PET/CT 4. Identify artifacts in PET/CT oncology images 5. Discuss the normal pattern of head and neck FDG Activity PET/CT & SPECT/CT Brain Imaging Objectives: Christian: 436-441 Andrea Vinson Methodist Hospital 1. List the radiopharmaceutical used in PET/CT brain imaging and associated patient preparation 2. Describe the procedure used in PET/CT brain imaging 3. Identify normal and abnormal PET/CT images 4. Identify artifacts in PET/CT brain Images 5. Describe the advantages and disadvantages of PET brain images compared to SPECT images PET/CT & SPECT/CT Cardiology { Review } Objectives: 1. List the radiopharmaceuticals used in PET cardiac Imaging and how they are administered 2. Describe the various patterns of normal FDG myocardial uptake 3. Describe the protocol for PET/CT cardiac imaging 4. Describe the technique used to acquire SPECT/CT images 5. Identify normal and abnormal cardiac PET/CT & SPECT/CT images 6. Identify artifacts in cardiac PET/CT & SPECT/CT images 7. Describe the technique used to acquire gated SPECT cardiac results PM: 42, 45 Christian: 520-523 PM: 36, 37, 40 7 WEEK CONTENT 8 Mon., 7/2 1:30-3:30 REVIEW 8 Fri., 7/6 1:00-4:00 ASSIGNMENT FINAL EXAM Instructional Methods Web-enhanced (49% or less) Face to Face Student Assignments Explain the methodology of positron emission tomography and fusion technology. Various assigned readings from textbooks, peer-rev Papers Describe radiopharmaceuticals used and their patterns of biodistribution. Various assigned readings from textbooks, peer-rev Papers Identify required instrumentation and quality control measures. Various assigned readings from textbooks, peer-rev Papers Outline associated patient preparation." Papers Various assigned readings from textbooks, peer-rev Detail the usage of PACS, teleradiology, and other systems used in the healthcare setting to manage, store and transmit information. Various assigned readings from textbooks, peer-rev Student Assessment(s) Explain the methodology of positron emission tomography and fusion technology. Quizzes/Tests which may include: definitions, matching, multiple choice, true/false, short answer, brief essay Various assigned readings from textbooks Writing papers including essays, analyses, reviews, research, comparing and contrasting Research papers Describe radiopharmaceuticals used and their patterns of biodistribution. Quizzes/Tests which may include: definitions, matching, multiple choice, true/false, short answer, brief essay Various assigned readings from textbooks Writing papers including essays, analyses, reviews, research, comparing and contrasting Research papers Identify required instrumentation and quality control measures. Reading and then writing about seminal texts and theories Quizzes/Tests which may include: definitions, matching, multiple choice, true/false, short answer, brief essay Various assigned readings from textbooks Writing papers including essays, analyses, reviews, research, comparing and contrasting Research papers Outline associated patient preparation." Reading and then writing about seminal texts and theories Quizzes/Tests which may include: definitions, matching, multiple choice, true/false, short answer, brief essay Various assigned readings from textbooks Writing papers including essays, analyses, reviews, research, comparing and contrasting Research papers Detail the usage of PACS, teleradiology, and other systems used in the healthcare setting to manage, store and transmit information. Quizzes/Tests which may include: definitions, matching, multiple choice, true/false, short 8 answer, brief essay Various assigned readings from textbooks Instructor's Requirements All students are expected to attend classes regularly in which they are enrolled. Attendance will be checked regularly by the instructor. Any student may be dropped from a course after accumulating absences in excess of 12.5 percent of the total hours of instruction, which is 6.25 hours for this course If a student enters the class more than thirty minutes after class has begun or leaves more than thirty minutes before the class ends, the student will be counted as absent for the entire class time. Program/Discipline Students absent at the time when a major exam or class quiz is given will have NO MAKE-UP EXAMINATION. This also includes a student who comes to class late. Student will not be Requirements: If allowed to take exams at a later time during the class. All exams will have time periods applicable designated therefore all test papers and practicals must be terminated at the end of that time period. This policy is absolutely necessary in order to carry out all laboratory activities in the given time period and allow for fairness to all students present. Any student absent from the classroom for a major scheduled exam will have the percent (%) value of that exam added to the percent value of the appropriate FINAL EXAM. For example: If the Mid-Term Exam was missed, the 43% value would be added to the Comprehensive Final Exam and it would then be worth 88%. All laboratory assignments are to be done outside the class, completed and turned in at the beginning of the next class. A student will lose 10 points on a lab assignment if the assignment is not turned in at the beginning of the lab and will lose 10 additional points a day (not including weekends) until the assignment is turned in. If the graded assignment has been returned. Final examinations must be taken on the day and time designated by the instructor, unless there is a personal illness, accident or death in the immediate family (parent, child, brother, sister, spouse or grandparent). In the event any of these occur, the student must call and speak personally with the instructor or department head on the day of the examination. The student must provide documented evidence of the reason for missing the examination: doctor's statement in the case of personal illness, an accident report in the case of an accident, or obituary or funeral program in the case of death in the immediate family. This documentation must be provided prior to taking a make-up final examination. The make-up final must be taken within 7 working days from the original test date or at the discretion of the instructor. In the case of a severe injury or long term illness, the student will be given an "I", incomplete, until the final examination is taken. An "I" will automatically turn into an "F" if the student does not take the examination by the end of the following term (excluding Summer). A student may not register for the next semester's nuclear medicine technology courses, if they have an incomplete in any of their nuclear medicine technology courses. If notification on the day of a missed final examination to the involved instructor/department head by the student is not made, a student will receive a 0 for their final exam grade and course's final grade will be calculated as prescribed in the individual course syllabi. Also, if documented evidence as described in the preceding paragraph is not provided, a student will receive a 0 on their final examination. For other program/discipline requirements: see Nuclear Medicine Technology Program Student Handbook. HCC Grading Scale A = 100- 90 B = 89 - 80: C = 79 - 70: 4 points per semester hour 3 points per semester hour 2 points per semester hour 9 D = 69 - 60 1 point per semester hour 59 and below = F 0 points per semester hour IP (In Progress) 0 points per semester hour W(Withdrawn) 0 points per semester hour I (Incomplete) 0 points per semester hour AUD (Audit) 0 points per semester hour IP (In Progress) is given only in certain developmental courses. The student must re-enroll to receive credit. COM (Completed) is given in non-credit and continuing education courses. To compute grade point average (GPA), divide the total grade points by the total number of semester hours attempted. The grades "IP," "COM" and "I" do not affect GPA. For Health Science programs, see the Program/Discipline Requirements section for specific grading requirements. Instructor Grading Criteria METHOD FOR DETERMINING COURSE GRADE Assignments/Class work/Quizzes 12% Mid-Term Exams 43% Final Examination 45% NUCLEAR MEDICINE TECHNOLOGY PROGRAM GRADING SCALE 90 - 100 A 80 - 89 B 75 - 79 C Below 75 Instructional Materials F Remember: You need a C or better to continue to the next semester Nuclear Medicine Procedure Manual, Klingensmith, Eshima, Goddard, Wick Publishing, 2009-2011 Nuclear Medicine and PET/CT, Christian & Waterstram-Rich, Mosby, 2007 HCC Policy Statement: Access Student Services Policies on their Web site: http://hccs.edu/student-rights Distance Education and/or Continuing Education Policies Access DE Policies on their Web site: http://de.hccs.edu/Distance_Ed/DE_Home/faculty_resources/PDFs/DE_Syllabus.pdf Access CE Policies on their Web site: http://hccs.edu/CE-student-guidelines 10 11