Course Title: Radiation Physics and Laboratory
Part A: Course Overview
Course Title: Radiation Physics and Laboratory
Credit Points: 12.00
171H School of Science
Sem 1 2019,
Sem 1 2020,
Sem 1 2021,
Sem 1 2022,
Sem 1 2023
Course Coordinator: Prof. Rick Franich
Course Coordinator Phone: +61 3 9925 3390
Course Coordinator Email: email@example.com
Course Coordinator Location: 14.06.07
Course Coordinator Availability: By appointment
Pre-requisite Courses and Assumed Knowledge and Capabilities
It is assumed that you have a thorough grounding in the following areas of knowledge such as provided by the recommended course in each case (or equivalent):
- Scientific mathematics, calculus, uncertainties (MATH1142 Calculus and Analysis 1 and MATH1144 Calculus and Analysis 2). It is assumed that you have completed courses in mathematics at the second year university level.
- Kinematics, energy, momentum, forces (PHYS2122 Mechanics)
- Basic quantum mechanics and relativity (PHYS2123 Modern Physics)
- Electromagnetism (PHYS2127 Thermodynamics and Electromagnetism)
- Scientific communication and presentation of data such as provided by a first year laboratory program and ONPS2334 Scientific Skills and Communication
This course deals with the behaviour of electromagnetic radiation in the form of ionising radiation including; X-rays, Gamma Rays, Electrons, Alphas, and Neutrons. You will study the basic properties and phenomena of ionising radiation. You will be introduced to the fundamentals of radiation detection, and its practical applications in medicine, radiation protection, and to the study of the structure of matter. The course is augmented with practical laboratory sessions in radiation physics.
On completing this course you will be well prepared for advanced studies of theory and applications of, particularly courses in Nuclear Physics and Medical Physics. The course provides the necessary background for some advanced laboratory and final year project experiments. Importantly, the course gives you the opportunity to use high-quality equipment in the radiation laboratories within the School and teaches the principles of good laboratory practice in preparation for a more extended research project in a following semester.
Objectives/Learning Outcomes/Capability Development
This course contributes to the following Program Learning Outcomes for MC215 Master of Medical Physics: PLO-2 Advanced understanding of the origins of radiation and its interactions with matter pertaining to the production and use of ionising radiation, with particular regard to the protection of people and environments. PLO-4 Skills to investigate, analyse and interrogate scientific data to ensure quality control of complex technological systems and to diagnose causes of discrepancies. PLO-5 Skills to identify problems, generate novel solutions and evaluate their effectiveness. PLO-6 Communication and research skills to interpret Medical Physics issues and justify decisions for specialist and non-specialist audiences. PLO-9 Demonstrate the application of knowledge and skills with a high level of personal autonomy and accountability.
On completion of this course you should be able to:
- Demonstrate an extended knowledge of concepts related to ionising radiation and its interactions with matter.
- Solve conceptual and quantitative problems in Radiation Physics.
- Employ relevant mathematical tools to process experimental data.
- Communicate experimental findings and explain concepts to others – both to experts and non-specialists using several modes: written reports, posters and oral presentations.
- Work in a group environment to solve extended physics problems and to conduct experiments;
- Apply the theory you have learned to novel physical situations; Apply physics principles to interpret your experimental findings.
- Undertake laboratory work and record your progress in a scientific, laboratory journal, and report on technical matters in a clear and concise manner;
Overview of Learning Activities
You will learn in this course by:
- Participation in lectorials where material will be presented and explained, and the subject will be illustrated with demonstrations and examples followed by active class discussion of key concepts and emerging developments;
- Private study, working through the theory as presented in lectures, texts and notes, and gaining practice at solving conceptual and numerical problems;
- Completing tutorial questions designed to give you further practice in application of theory, and to give feedback on your progress and understanding;
- Completing written and online assignments consisting of numerical and other problems requiring an integrated understanding of the subject matter;
- Undertaking a number of laboratory experiments related to the theory topics, keeping a laboratory journal and preparing reports on their outcomes.
Overview of Learning Resources
You will be able to access comprehensive course information, lecture notes, laboratory manuals, learning materials and other useful resources through the myRMIT website. You will also use laboratory equipment and computer-aided learning technologies within the School for project and assignment work. Lists of relevant reference texts, resources in the library and internet-based resources will be provided in the lecture notes and during the classes. Details of the recommended textbooks for this course are also provided in Part B of the course guide. Experiment notes and supplementary materials will be made available as required. Some references relevant to the individual experiments may be suggested by the supervisors but you are also expected to seek out appropriate references yourself, from the Library or on-line. You will conduct experiments using equipment provided by the School, including computing facilities.
Overview of Assessment
Note that this course has no hurdle requirements.
Radiation Physics Assignments
This assessment task supports CLOs 1, 2, 3, & 5
This assessment task supports CLO 3, 4, 5, 6 & 7
Skills and Capabilities Assessments
This assessment supports CLO 1, 2, 3, & 4