|
Learning outcome |
Title |
Knowledge |
1 |
1 |
Perform planar gamma camera commissioning tests and participate in the commissioning tests of Single-photon emission computed tomography (SPECT)/ Computed Tomography (CT) and Positron emission tomography (PET)/ (CT) scanners |
- Correct and safe operation of imaging equipment
- Factors that affect dose and image quality in the context of intended use
- The benefits to patient treatment and care of performing commissioning tests
- Individual types and components of instrumentation
- Standards applicable to radionuclide imaging equipment, including National Electrical Manufacturers Association (NEMA), national standards and manufacturer’s guidance
- Current guidelines and legislative requirements for imaging equipment testing
- Analysis of performance trends
- Performance criteria, including remedial and suspension levels, for a broad range of imaging equipment
- Likely causes of degradation of image quality and timescale over which common defect types progress
- Awareness of escalation pathway for corrective action (eg first-line action, when to contact manufacturer)
- Principles of quality assurance and equipment quality control, including the key performance parameters for testing
- The range of suitable tests to carry out on equipment to establish safe, consistent and expected operation
- Errors and statistical analyses
- The performance and limitations of test procedures
- Appropriate specifications for different clinical requirements
- Appropriate level of accuracy and precision for a range of tests
|
2 |
1 |
Make comprehensive quantitative routine performance measurements on imaging equipment |
- Correct and safe operation of imaging equipment
- Factors that affect dose and image quality in the context of intended use
- The benefits to patient treatment and care of performing commissioning tests
- Individual types and components of instrumentation
- Standards applicable to radionuclide imaging equipment, including National Electrical Manufacturers Association (NEMA), national standards and manufacturer’s guidance
- Current guidelines and legislative requirements for imaging equipment testing
- Analysis of performance trends
- Performance criteria, including remedial and suspension levels, for a broad range of imaging equipment
- Likely causes of degradation of image quality and timescale over which common defect types progress
- Awareness of escalation pathway for corrective action (eg first-line action, when to contact manufacturer)
- Principles of quality assurance and equipment quality control, including the key performance parameters for testing
- The range of suitable tests to carry out on equipment to establish safe, consistent and expected operation
- Errors and statistical analyses
- The performance and limitations of test procedures
- Appropriate specifications for different clinical requirements
- Appropriate level of accuracy and precision for a range of tests
|
3 |
1 |
Critically review quality assurance programmes for radionuclide imaging |
- Correct and safe operation of imaging equipment
- Factors that affect dose and image quality in the context of intended use
- The benefits to patient treatment and care of performing commissioning tests
- Individual types and components of instrumentation
- Standards applicable to radionuclide imaging equipment, including National Electrical Manufacturers Association (NEMA), national standards and manufacturer’s guidance
- Current guidelines and legislative requirements for imaging equipment testing
- Analysis of performance trends
- Performance criteria, including remedial and suspension levels, for a broad range of imaging equipment
- Likely causes of degradation of image quality and timescale over which common defect types progress
- Awareness of escalation pathway for corrective action (eg first-line action, when to contact manufacturer)
- Principles of quality assurance and equipment quality control, including the key performance parameters for testing
- The range of suitable tests to carry out on equipment to establish safe, consistent and expected operation
- Errors and statistical analyses
- The performance and limitations of test procedures
- Appropriate specifications for different clinical requirements
- Appropriate level of accuracy and precision for a range of tests
|
4 |
1 |
Instigate corrective action based on an evaluation of quality control results |
- Correct and safe operation of imaging equipment
- Factors that affect dose and image quality in the context of intended use
- The benefits to patient treatment and care of performing commissioning tests
- Individual types and components of instrumentation
- Standards applicable to radionuclide imaging equipment, including National Electrical Manufacturers Association (NEMA), national standards and manufacturer’s guidance
- Current guidelines and legislative requirements for imaging equipment testing
- Analysis of performance trends
- Performance criteria, including remedial and suspension levels, for a broad range of imaging equipment
- Likely causes of degradation of image quality and timescale over which common defect types progress
- Awareness of escalation pathway for corrective action (eg first-line action, when to contact manufacturer)
- Principles of quality assurance and equipment quality control, including the key performance parameters for testing
- The range of suitable tests to carry out on equipment to establish safe, consistent and expected operation
- Errors and statistical analyses
- The performance and limitations of test procedures
- Appropriate specifications for different clinical requirements
- Appropriate level of accuracy and precision for a range of tests
|
5 |
1,4 |
Understand the wider clinical situation relevant to patients presenting to the modality |
- The wider clinical indications for a broad range of standardradionuclide imaging procedures
- The patient experience, expectations and needs associated with the modality, including patient information Alternative/complementary modalities
|
6 |
2,3,4 |
Develop and evaluate protocols for the optimal acquisition, processing and display of clinical images |
- Consequences of the selection of acquisition parameters (eg matrix size, collimator, dynamic phasing, etc)
- The techniques and applications inherent in standard image processing and types of errors that may result
|
7 |
2 |
Write standard operating procedures for radionuclide imaging |
- The range of radiopharmaceuticals, radioactivity administered and radiation dose in relation to clinical studies, including patient preparation and imaging parameters
|
8 |
3 |
Use sophisticated image analysis software to extract quantitative information and enhance diagnostic utility |
- Full range of methods to accurately extract quantitative data, eg ROI analysis and various background subtraction methods
- Attenuation correction
- Scatter correction
|
9 |
3 |
Modify and develop image acquisition and analysis software |
- Specific application software or programming language
|
10 |
3 |
Explain the cause and effect of a range of artefacts and of equipment performance limitations on the interpretation of clinical images |
- Performance characteristics on a range of imaging equipment
- Normal appearances of a range of diagnostic images
|
11 |
2 |
Participate in the clinical audit of radionuclide imaging in nuclear medicine |
- Ethical and governance regulations and guidance
- Risks associated with the procedure
|