Official Course
Description: MCCCD Approval: 05-27-08 |
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DMI267
2008 Fall – 2009 Summer II |
LEC |
3.0 Credit(s) |
3.0 Period(s) |
Nuclear
Medicine Imaging I |
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Radiopharmaceuticals
including contraindications, adverse reactions, and patient preparation.
Indications, equipment, procedure and processing for routine bone imaging, 3
and 4 phase imaging and single photon emission computed tomography (SPECT)
and SPECT/CT. Image interpretation and diagnostic and/or prognostic value of
study. Respiratory system studies to include perfusion, gas ventilation,
aerosol ventilation, combined ventilation/perfusion study, quantitative lung
study. Prerequisites: HCC200, HCC218, DMI251 and
DMI253, or permission of Nuclear Medicine Technology program director. Corequisites:
DMI269. |
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Go to Competencies Go to Outline
MCCCD
Official Course Competencies: |
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DMI267 2008
Fall – 2009 Summer II |
Nuclear Medicine Imaging I |
1.
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Apply knowledge of bone, and lung system anatomy and
physiology to nuclear medicine imaging indications and procedures. (I, X) |
2.
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Describe characteristics and causes of common bone, and
lung pathologies and related potential treatments. (II, XI) |
3.
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Describe the radiopharmaceuticals used for bone, and lung
imaging including their physical and chemical properties, biorouting,
route and method of administration, and advantages and disadvantages of each
agent. (III, XII, XIII, XIV) |
4.
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Specify the dose range for bone, and lung imaging agents
and the resulting radiation dose to various organs and tissues. (III, XII) |
5.
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Discuss any physical or pathological conditions or
medications that would interfere or contraindicate bone, and lung imaging.
(IV, XII) |
6.
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Describe patient preparation for a bone, and lung scan.
(V, XII) |
7.
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List the indications for bone, and lung scans. (VI, XII,
XIII, XIV, XVI) |
8.
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Discuss why nuclear medicine study would be preferable to
or complement other diagnostic modalities in various cases. (VI, XII, XIII,
XIV, XVI) |
9.
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Describe the procedures for routine static planar and
whole body bone imaging and lung imaging including equipment, protocols, dose
and administration technique, administration- to-acquisition times,
acquisition parameters, standard positioning and views, special imaging
adaptations, image formatting and potential pitfalls. (VI) |
10.
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Discuss the indications for a 3-phase, 4-phase, and SPECT
and SPECT/CT bone scan including why a nuclear medicine study would be
preferable to, or complement other diagnostic modalities. (VII, VIII) |
11.
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Describe the protocols for a 3-phase, 4-phase, and SPECT
and SPECT/CT bone imaging including equipment, protocols, dose and
administration technique, administration-to-acquisition times, acquisition
parameters, standard positioning and views, special imaging adaptations,
imaging formatting and potential pitfalls. (VII, VIII) |
12.
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Recognize normal distribution, normal variants and various
artifacts seen on bone, and lung imaging, and on printed images. (IX, XII,
XIV, XVI) |
13.
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Identify structures on bone images and SPECT slices. (IX) |
14.
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Recognize the appearance of various pathologies seen on
bone images. (IX) |
15.
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Discuss the diagnostic and prognostic value of bone, and
lung imaging studies. (IX, XII, XIII, XIV, XV, XVI) |
16.
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Explain some common causes of false-negative and false-
positive bone studies. (IX) |
17.
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Discuss possible adverse reactions and contraindications
and regulations associated with gas ventilation and aerosol ventilation
imaging. (XIII, XIV) |
18.
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Discuss special radiation safety considerations associated
with gas ventilation and aerosol ventilation imaging. (XIII, XIV) |
19.
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Discuss advantages and disadvantages associated with
ventilation/perfusion and perfusion/ventilation sequences. (XV) |
20.
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Describe the interpretive criteria for the
ventilation/perfusion study including the probability table for pulmonary
embolism. (XV) |
Go to Description Go to top of
Competencies
MCCCD
Official Course Outline: |
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DMI267 2008
Fall – 2009 Summer II |
Nuclear Medicine Imaging I |
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I. Review of Anatomy and
Physiology of the Bone A. Matrix structure and
composition B. Bone growth C. Bone repair D. Hormonal control of
blood/bone calcium II. Skeletal System
Pathology A. Low back pain B. Fracture C. Osteitis
fibrosa cystica D. Osteomalacia/rickets
E. Osteomyelitis
F. Tuberculosis (Pott's Disease) G. Legg-Perthes
disease H. Osteoporosis I. Acute arthritis J. Rheumatoid arthritis K. Osteoarthritis L. Alkylosing
arthritis M. Gout N. Fibrous dysplasia O. Paget's disease (osteitis deformans) P. Osteosarcoma
Q. Ewing's sarcoma R. Chondrosarcoma
S. Metastatic tumors to
bone T. Multiple myeloma U. Giant cell tumor V. Benign osteoma (osteois osteoma) W. Benign chondroma X. Bone cyst III. Radiopharmaceuticals A. Historical tracers 1. Strontium-90 (Sr-90) 2. Technetium-99m (Tc-99m)
pyrophosphate (PYP) B. Current tracers 1. Tc-99m MDP (methylene diphosphonate) 2. Tc-99m HDP (hyddroxymethylene diphosphonate)
C. Physical and chemical
characteristics D. Dose range and route of
administration E. Biorouting
1. Uptake 2. Distribution 3. Excretion F. Dosimetry
IV. Contraindications and
adverse reactions A. Physical or pathologic
conditions B. Interfering studies C. Interfering drugs D. Precautions E. Adverse reactions V. Patient preparation VI. Routine bone imaging A. Indications B. Equipment 1. Camera 2. Collimators C. Basic procedure and
processing 1. Protocols 2. Dose and administration
technique 3. Acquisition parameters 4. Positioning and views,
including adaptations 5. Image formatting 6. Pitfalls VII. 3-phase and 4-phase
imaging A. Indications B. Equipment 1. Camera 2. Collimator 3. Computer C. Basic procedure and
processing 1. Protocols 2. Dose and administration
and technique 3. Acquisition parameters 4. Positioning and views,
including adaptations 5. Image formatting 6. Pitfalls VIII. SPECT and SPECT/CT A. Indications B. Equipment 1. Camera 2. Collimator 3. Computer C. Basic procedure and
processing 1. Protocols 2. Dose and administration
and technique 3. Acquisition parameters 4. Positioning and views,
including adaptations 5. Data processing 6. Image formatting 7. Pitfalls IX. Interpretation of
images A. Normal B. Normal variants C. Abnormal D. Artifacts E. Diagnostic/Prognostic
Value of the Study 1. Outcomes 2. Treatment decisions 3. Prognostic risk factors
based on diagnosis X. Review of anatomy &
physiology A. Gross anatomy B. Cellular anatomy and
function C. Blood flow XI. Pathology of the
Respiratory System A. Pulmonary embolism B. Primary and secondary neoplasms C. Chronic obstructive
pulmonary disease 1. Asthma 2. Emphysema 3. Pneumoconiosis 4. Chronic bronchitis D. Infectious diseases 1. Tuberculosis 2. Pneumonia E. Pulmonary edema F. Pleural effusion G. Sarcoidosis
H. Atelectasis
I. Congenital heart disease
involving right-to-left cardiac shunt XII. Perfusion A. Indications B. Radiopharmaceuticals 1. Tc-99m Macroaggregated albumin (MAA) 2. Physical and chemical
characteristics 3. Kit and
radiopharmaceutical preparation 4. Dose range and route of
administration 5. Biorouting
a. Uptake b. Distribution c. Excretion 6. Dosimetry
C. Contraindications and
adverse reactions 1. Physical and pathologic
conditions 2. Interfering studies 3. Precautions 4. Adverse reactions D. Patient preparation E. Equipment 1. Camera 2. Collimators 3. Computer F. Basic procedure and
processing 1. Protocols 2. Dose range and
administration technique 3. Acquisition parameters 4. Positioning and views,
including adaptations a. Standard lung imaging b. Right-to-left 5. Data processing 6. Image formatting 7. Pitfalls G. Interpretation of images
and data 1. Normal 2. Normal variants 3. Abnormal 4. Artifacts XIII. Gas Ventilation A. Indications B. Radiopharmaceuticals 1. Tracers a. Xenon-133 (Xe-133) b. Krypton-81m (Kr-81m) 2. Physical and chemical
characteristics 3. Radionuclide preparation
4. Dose range and route of
administration 5. Biorouting
a. Uptake b. Distribution c. Excretion 6. Dosimetry
C. Contraindications and
adverse reactions 1. Physical conditions 2. Interfering studies 3. Precautions 4. Adverse reactions D. Special radiation safety
considerations and regulations E. Patient preparation F. Equipment 1. Camera 2. Collimators 3. Computer 4. Ventilation trapping
system 5. Negative pressure room 6. Room air monitor G. Basic procedure and
processing 1. Protocols 2. Dose range and
administration technique 3. Acquisition parameters 4. Positioning and views,
including adaptations 5. Image formatting 6. Pitfalls H. Interpretation of images
and data 1. Normal 2. Normal variants 3. Abnormal 4. Artifacts XIV. Aerosol Ventilation A. Indications B. Radiopharmaceuticals 1. Tracers a. Nebulized
Te-99m Diethylenetriaminepentaacetate (DTPA) b. Others 2. Physical and chemical
characteristics 3. Kit and
radiopharmaceutical preparation 4. Dose range and route of
administration 5. Biorouting
a. Uptake b. Distribution c. Excretion 6. Dosimetry
C. Contraindications and
adverse reactions 1. Physical conditions 2. Interfering studies 3. Precautions 4. Adverse reactions D. Special radiation safety
considerations and regulations E. Patient preparation F. Equipment 1. Camera 2. Collimators 3. Computer 4. Aerosol system G. Basic procedure and
processing 1. Protocols 2. Dose range and
administration technique 3. Acquisition parameters 4. Positioning and views,
including adaptations 5. Image formatting 6. Pitfalls H. Interpretation of images
and data 1. Normal 2. Normal variants 3. Abnormal 4. Artifacts XV. Combined
Ventilation/Perfusion Study A. Order of studies B. Interpretative criteria
(probabilities) C. Diagnostic/Prognostic
Value of Study 1. Outcomes 2. Treatment decisions 3. Prognostic risk factors
based on diagnosis XVI. Quantitative Lung
Study A. Indications B. Basic procedure and
processing 1. Protocols 2. Acquisition parameters 3. Positioning and views,
including adaptations 4. Data processing 5. Image formatting 6. Pitfalls C. Interpretation of images
and data 1. Normal 2. Normal variants 3. Abnormal 4. Artifacts 5. Diagnostic/prognostic
value of study a. Outcomes b. Treatment decisions C. Prognostic risk factors
based on diagnosis |
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