Image
Clinical Investigation Track with Specialisation in
Clinical Physics in Radiation Oncology and Medical Imaging
The Specialisation in Clinical Physics in Radiation Oncology and Medical Imaging is designed to educate and prepare students for professional and research career development in medical physics. It provides comprehensive training in the principles and applications of physics in radiotherapy and medical imaging, equipping students with the knowledge and skills necessary to contribute to clinical services, safety management, and innovation in radiological sciences.
Students will gain expertise in radiation dosimetry, imaging technologies, radiological protection, and quality assurance, with exposure to advanced modalities such as MRI, nuclear medicine, and AI in medical imaging. This specialisation is ideal for those seeking to work in hospital-based radiology departments, cancer centres, research institutions, or regulatory agencies.
Highlights
- In-depth training in radiological physics, radiation therapy, and medical imaging
- Hands-on experience with advanced imaging technologies and safety protocols
- Integration of artificial intelligence and molecular imaging in clinical applications
Target Students
- Graduates in physics, engineering, or biomedical sciences aiming to specialise in clinical medical physics
- Healthcare professionals seeking advanced knowledge in radiation oncology and diagnostic imaging
- Individuals interested in applying physics and technology to improve patient care and safety
Curriculum
Total: 69 Credits
Core Course
(24 credits)
Specialised Course
(18 credits)
Casptone Experience
(27 credits)
The courses listed below are offered subject to availability and minimum student number.
Courses marked with an asterisk “*” are compulsory.
Core Courses (24 credits required)
Course Code | Course Name | Credits |
MSPH7901 | Introduction to Biostatistics | 6 |
MSPH7902 | Introduction to Epidemiology | 6 |
MEDI7901 | Cell Metabolism | 6 |
PAED7901 | Principles to Genetic Counselling | 6 |
PAED7902 | Introduction to Genomic Medicine and Precision Health | 6 |
PATH7901 | Laboratory Methods and Instrumentation | 6 |
PATH7902 | General Cytopathology | 6 |
PATH7903 | Practical Course in Laboratory Methods | 6 |
PATH7904 | Fundamentals of Common Human Diseases | 6 |
PATH7905 | Recent Advances in Cancer Biology | 6 |
PHAR7901 | Principles of Drug Action | 6 |
PHAR7902 | Clinical Trials Management and Pharmacovigilance | 6 |
MSBS7901 | Molecular Biology of the Gene and Diseases | 6 |
MSBS7902 | Advanced Cell Biology | 6 |
MSBS7903 | Integrative Perspectives of Body Functions | 6 |
SURG7901 | Human Genomics in Healthcare and Society | 6 |
Specialised Courses (18 credits required)
Course Code | Course Name | Credits |
DRAD7101 | Advance Radiological Physics and Radiation Dosimetry | 3 |
DRAD7102 | Brachytherapy Physics | 3 |
DRAD7103 | Health Physics with Focuses on Radiological Protection in Medical Sectors* | 3 |
DRAD7104 | Magnetic Resonance Imaging – Principles and Its Applications | 3 |
DRAD7105 | Molecular Imaging and Medical Cyclotron | 3 |
DRAD7106 | Nuclear Medicine Sciences | 3 |
DRAD7107 | Physics in Medical Imaging | 3 |
DRAD7108 | Principles and Practice of Radiotherapy Physics | 3 |
DRAD7109 | Quality Assurance (QA) in Radiation Therapy and Medical Imaging | 3 |
DRAD7110 | Cardiac Computed Tomography and Cardiac Magnetic Resonance Imaging | 3 |
DRAD7111 | AI in Radiology and Medical Imaging | 3 |
DRAD7112 | Medical Image Processing and Analysis | 3 |
DRAD7113 | Numerical Modeling Methods for Imaging and Treatment Systems | 3 |
DRAD7114 | Neuroimaging | 3 |
Capstone Experience
Course Code | Course Name | Credits |
DRAD7000 | Capstone: Clinical Physics in Radiation Oncology and Medical Imaging* | 27 |
MMSC6001 | Dissertation Writing* | N/A |
MMSC6003 | Research Ethics* | N/A |
Students undertaking the Capstone Experience in Clinical Physics in Radiation Oncology and Medical Imaging will engage in supervised research or applied project that integrates theoretical knowledge with practical application in clinical medical physics. The experience is designed to deepen students’ understanding of radiological sciences and develop their ability to solve real-world problems in radiation therapy and diagnostic imaging.
Students may choose from a range of topics, including but not limited to:
- Radiation dosimetry and treatment planning in oncology
- Development and evaluation of quality assurance protocols in radiotherapy
- Application of AI in medical image analysis and interpretation
- Safety and regulatory compliance in radiological practices
- Innovations in molecular imaging and cyclotron technologies
- Comparative studies of imaging modalities in clinical diagnosis
The Capstone involves literature review, data collection and analysis, and presentation of findings. Students will work closely with faculty advisors from the Departments of Diagnostic Radiology and Clinical Oncology, and may collaborate with clinical units or research labs. The final output may take the form of a thesis, technical report, or presentation, depending on the nature of the project.
Admission Advisor
Professor Cao, Peng
Associate Professor,
Department of Diagnostic Radiology,
School of Clinical Medicine, LKS Faculty of Medicine
Email: caopeng1@hku.hk
Dr. Peng Cao obtained his Ph.D. from The University of Hong Kong and completed his postdoctoral training at the University of California San Francisco. He is currently an Associate Professor in the Department of Diagnostic Radiology at The University of Hong Kong. With up to 15 years of experience in medical imaging, he focuses on investigating pathological changes in diseases, imaging reconstruction, and software and hardware development. His background in engineering and biomedical imaging enables him to design programs tailored to educate students for professional and research careers in medical physics.