DIAGNOSTIC APPLICATIONS OF IONISING RADIATION PHYSICS - 2022/3
Module code: PHYM043
In light of the Covid-19 pandemic the University has revised its courses to incorporate the ‘Hybrid Learning Experience’ in a departure from previous academic years and previously published information. The University has changed the delivery (and in some cases the content) of its programmes. Further information on the general principles of hybrid learning can be found at: Hybrid learning experience | University of Surrey.
We have updated key module information regarding the pattern of assessment and overall student workload to inform student module choices. We are currently working on bringing remaining published information up to date to reflect current practice in time for the start of the academic year 2021/22.
This means that some information within the programme and module catalogue will be subject to change. Current students are invited to contact their Programme Leader or Academic Hive with any questions relating to the information available.
Ionising radiation is widely used for diagnostic purposes, and multi-modality imaging is now becoming ubiquitous. The majority of hospital physicists work with ionising radiation and hence the topic is fundamental for anyone entering the profession.
In this module, an introduction is given to imaging systems and image perception. Detailed lectures then cover X-radiography, X-ray computed tomography, radiopharmaceuticals, nuclear medicine. The lectures will be supported by an assessed nuclear medicine practical and by tutorials in image processing and image registration.
PANI Silvia (Physics)
Number of Credits: 15
ECTS Credits: 7.5
Framework: FHEQ Level 7
JACs code: F350
Module cap (Maximum number of students): N/A
Overall student workload
Independent Learning Hours: 106
Lecture Hours: 9
Tutorial Hours: 11
Laboratory Hours: 3
Guided Learning: 3
Captured Content: 18
Prerequisites / Co-requisites
Radiation Physics and Interactions with Matter
Indicative content includes:
Dr LM Warren (5 hours)
X-rays, γ-rays, MTF and ROC analysis
Mathematical formulation of the imaging system; impulse response function, stationarity, line spread function, edge spread function, MTF. Usefulness of MTF, modulation input and output, test objects, measure of performance, cascade of MTFs. Perception of detail, visual acuity, resolution criteria. Existence of observer, decision criteria. Construction of the ROC curve and principle of ROC analysis.
Attenuation and scattering of x-ray photons by breast tissues. Contrast, resolution, dose, noise and dynamic range in mammography. The design and performance of the components of the mammographic imaging system: X-ray tube (focal spot size, choice of X-ray spectrum), anti-scatter grid, compression paddle, automatic exposure control and image receptor (screen film, DR and CR systems). Comparison of digital and analog systems for mammography. New developments in mammography: digital breast tomosynthesis and spectral imaging. The NHS Breast Screening Programme - organisation, facts and figures. Quality assurance. Risk/benefit analysis in mammography.
Mr J Price
X-ray imaging and analysis
The X-ray tube construction and operational needs.
X-ray scatter in diagnostic imaging and scatter reduction methods.
Applications of medical X-ray imaging.
Mr M. Pryor
X-ray Computed Tomography
Fundamental principles of x-ray computed tomography. Reconstruction algorithms. CT equipment and instrumentation: x-ray tube design, filtration, collimation, x-ray detectors. Axial and spiral CT, multi-slice CT. Quality control and performance tests for diagnostic CT. Radiation safety, room design and optimisation of exposure. CT artefacts. Clinical applications of x-ray CT.
Dr E Lewis, Dr P Elangovan
Image processing and image registration
Images in the Fourier domain. Object segmentation – thresholding, k-means and region growing, Filtering: Edge enhancement and smoothing filters. Edge detection, 2D morphological operators.
Image registration: rigid and non-rigid techniques; affine and non-affine methods. Application examples in Multi-modality imaging.
7 hours lectures/computing tutorials
Dr J Scuffham
Radionuclide calibrators, sample counters, in-vitro nuclear medicine tests. Gamma camera components, signal processing and corrections. SPECT imaging, reconstruction and corrections. Clinical applications of single photon scintigraphy. Quality assurance in nuclear medicine. Positron Emission Tomography: principles and equipment. Clinical applications of PET.
Hospital visit in which students will tour a nuclear medicine department and participate in experiments using gamma cameras and non-imaging equipment.
Mr Paul Hinton
Radiopharmaceuticals and Molecular Imaging
Radionuclides - review of decay modes and production methods. Preparation of radiopharmaceuticals - Pharmacopoeial requirements. Overview of radiopharmaceuticals - labelling methodologies. Diagnostic radiopharmaceuticals - selection of radionuclide, localisation mechanisms, clinical applications, protein and peptide based radiopharmaceuticals.
|Assessment type||Unit of assessment||Weighting|
|Examination Online||ONLINE (OPEN BOOK) EXAM||70|
An essay on a topic relevant to nuclear medicine will be assigned to students unable to attend the hospital practical. 30%
The assessment strategy is designed to provide students with the opportunity to demonstrate their understanding of both the theory and the practice of the use of ionising radiation for clinical imaging and the implications of different image processing modalities.
Thus, the summative assessment for this module consists of:
1.5 hour examination, with three questions to be answered out of five.
Report on hospital practical, to be submitted typically in Week 9 or 10 (max 2000 words)
Non-marked optional quiz.
Feedback will be given verbally during classes and the hospital practical. Written feedback on the hospital visit practical will be given
- Give students both theoretical foundations and practical experience on the main imaging modalities based on ionising radiation.
- Provide students with an awareness of the issues in image processing and registration.
|001||Describe the general principles of imaging systems and image perception||KC|
|002||Describe and compare the physical principles and key technologies which determine the performance of medical X-ray and gamma ray imaging systems||KC|
|003||Describe and compare the physical principles and key technologies of transmission and emission tomography||KC|
|004||Appraise the quality assurance cycle required for diagnostic X-ray and nuclear medicine equipment and to be familiar with test equipment commonly used for the most important measurements undertaken by physicists in an imaging department||KPT|
|005||Describe the properties, production processes and uptake mechanisms of radiopharmaceuticals for diagnostic applications||KC|
|006||Appraise the suitability of filters for specific applications and apply them to different imaging problems||KC|
|007||Independently apply their knowledge when taking up posts within the Health Service and other related fields (K,T,P)||KPT|
|008||Apply physics techniques to a multidisciplinary context||PT|
|009||Assess the risks involved in a particular application||KPT|
C - Cognitive/analytical
K - Subject knowledge
T - Transferable skills
P - Professional/Practical skills
Methods of Teaching / Learning
The learning and teaching strategy is designed to:
provide students with the theoretical foundations of the current imaging modalities as well as knowledge about instrumentations, procedures and regulations.
give students practical experience in calibration and quality assurance in nuclear medicine give students direct experience of typical filters used in image processing and their effects.
The learning and teaching methods include:
• Formal lectures and occasional large group tutorial/question sessions (28 hours, 2- or 3-hours lectures). Teaching given by handouts and white board presentations and notes.
• Image processing lab sessions (4 hours)
• Hospital visit (3 hours)
Indicated Lecture Hours (which may also include seminars, tutorials, workshops and other contact time) are approximate and may include in-class tests where one or more of these are an assessment on the module. In-class tests are scheduled/organised separately to taught content and will be published on to student personal timetables, where they apply to taken modules, as soon as they are finalised by central administration. This will usually be after the initial publication of the teaching timetable for the relevant semester.
Upon accessing the reading list, please search for the module using the module code: PHYM043
Programmes this module appears in
|Medical Imaging MSc||2||Compulsory||A weighted aggregate mark of 50% is required to pass the module|
|Physics MSc||2||Optional||A weighted aggregate mark of 50% is required to pass the module|
|Medical Physics MSc||2||Compulsory||A weighted aggregate mark of 50% is required to pass the module|
Please note that the information detailed within this record is accurate at the time of publishing and may be subject to change. This record contains information for the most up to date version of the programme / module for the 2022/3 academic year.