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MPMM00
Medical Physics in Practice
This module introduces the fundamental physical principles underlying the generation, interaction, and detection of ionising and non-ionising radiation in medical imaging and therapy. Students will develop an understanding of radiation dosimetry, quality assurance, and image optimisation to ensure safety and accuracy in clinical practice.
Through the analysis of imaging technologies such as X-ray, CT, MRI, ultrasound, gamma cameras, and PET scanners, students will compare the physical principles, clinical applications, and limitations of different modalities. The module also emphasises the application of legislative principles, safety standards, and risk mitigation strategies essential for working with radiation in healthcare settings.
Students will explore treatment and imaging workflows, from pre-treatment planning to post-procedure assessment, considering patient outcomes, technical challenges, and innovations in medical physics. By integrating theoretical knowledge with practical applications, this module provides a foundation for understanding the role of radiation in modern diagnostic and therapeutic practices.
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MPMM01
Medical Physics Specialisms
This module provides students with an in-depth exploration of advanced principles and practices relevant to their area of expertise and/or interest of medical physics. Each year, a selection of specialised streams will be available to choose from, which will include at least two of: (1) Radiotherapy Physics, (2) Nuclear Medicine, (3) Radiation Safety and Diagnostic Radiology, (4) Imaging with Non-Ionising Radiation. Students will choose one of the available streams, allowing them to develop expertise in a particular area while gaining broader insights into related disciplines. The module fosters an interdisciplinary learning environment, promoting collaboration and cross-disciplinary perspectives.
Through flipped learning, case studies, practical sessions, and workshops, students will engage actively with both theoretical concepts and workplace-authentic applications, gaining hands-on experience in technologies, techniques, and regulatory frameworks relevant to their chosen stream. The module bridges theory and practice, preparing students to meet clinical challenges, navigate evolving regulatory landscapes, and critically evaluate emerging technologies. By emphasising real-world scenarios, students will enhance their technical expertise, safety practices, and innovation potential, equipping them to become future leaders in radiological science.
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PM-D00
Research Project: Medical Physics
This module provides an opportunity for students to conduct an independent research project in medical physics, developing essential skills for academic and professional research. With expert supervision, students will design, execute, and critically evaluate a research study, integrating advanced methodologies and analytical techniques. The project will culminate in a well-structured dissertation and a professional research presentation. This module offers a valuable foundation for careers in clinical, industrial, and academic settings, equipping students with the expertise to contribute to cutting-edge developments in medical physics.
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PM-D01
MSc Dissertation - Clinical Science
The module aims to develop fundamental research skills. It comprises the development of supervised research work leading to a dissertation in the field of the Master's degree programme. The specific research topic will be chosen by the student following consultation with academic staff.
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PMNM02
Diagnostics and Imaging
Nanotechnology may lead to more rapid diagnostic tests, implantable devices, point of care instruments and improved medical imaging. This module will explore the application of nanotechnology to various medical techniques, focussing on novel research devices, pre-clinical tools and emerging technology within hospitals.
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PMNM19
Diagnostics and Imaging
Nanotechnology may lead to more rapid diagnostic tests, implantable devices, point of care instruments and improved medical imaging. This module will explore the application of nanotechnology to various medical techniques, focusing on novel research devices, pre-clinical tools and emerging technology within hospitals.
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PMPM02
Research Methods in Medical Physics and Clinical Engineering
Generic teaching on research methodology in medical physics and clinical engineering clinical science specialism.
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PMPM05
Research Methods and the Medical Physics Specialties
This module provides healthcare professionals and clinical scientists with essential skills in research methods and evidence-based practice, alongside the opportunity to gain specialised knowledge in a chosen clinical domain.
The first component introduces key aspects of research design, statistical analysis, critical appraisal of scientific literature, and the integration of evidence-based practice into clinical decision-making. Learners will explore research ethics, governance frameworks, and public and patient involvement (PPI), alongside practical sessions focused on statistical techniques and effective communication of findings to diverse audiences
The second component offers a flexible, tailored learning experience. Students will have the opportunity to choose one of up to four (between two and four in any one year) specialist streams aligned to their area of interest and/or practice:
Stream 1: Radiotherapy Physics ¿ Brachytherapy and other specialised radiotherapy techniques.
Stream 2: Nuclear Medicine ¿ Quality control of nuclear medicine equipment.
Stream 3: Radiation Safety and Diagnostic Radiology ¿ Handling and safety of radioactive materials.
Stream 4: Imaging with Non-Ionising Radiation ¿ Advanced ultrasound techniques and optical radiation safety.
This flexible approach ensures that participants gain both a solid foundation in generic research methods and an in-depth understanding of a specific area relevant to their professional practice or interests.
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PMPM08
Nuclear Medicine and Diagnostic Radiology
The theory of the use of ionising radiation in medical imaging and medical physics practice in nuclear medicine and
diagnostic radiology.
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PMPM09
Radiation Protection
The theory of the risks associated with the use of ionising and non-ionising radiation in medicine and the practice of medical physicists in radiation protection.
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PMPM11
Advances in Radiotherapy
Advanced practice in radiotherapy physics and part 1 of the radiotherapy clinical science specialism.
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PMPM14
Advances in Imaging with Ionising Radiation
Part 1 of the imaging with ionising radiation clinical science specialism.
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PMPM16
Advanced MRI Physics
This module focuses on advanced MRI techniques and MRI safety. Mathematical and physical principles behind the formation of the MRI image will be covered, together with the key parameters that define optimal image quality in MRI for a range of clinical/research applications. Specialist methods including magnetic resonance spectroscopy, perfusion MRI, diffusion MRI, functional MRI, magnetic resonance angiography will be covered.
This module is part 1 of the imaging with non-ionising radiation clinical science specialism.
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PMPM19
Advances in Radiation Safety
Part 1 of the radiation safety clinical science specialism.
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PMPM22
Specialist Radiotherapy
Part 2 of the radiotherapy clinical science specialism.
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PMPM29
Specialist Radiation Safety
Part 2 of the imaging with ionising radiation clinical science specialism.
