MEDICAL PHYSICS INTERNATIONAL Journal, vol.1, No.1, 2013APPENDIX 12111 PHYSICISTS AND ASTRONOMERSPhysicists and astronomers conduct research and improve or developconcepts, theories and operational methods concerning matter, space,time, energy, forces and fields and the interrelationship between thesephysical phenomena. They apply scientific knowledge relating to<strong>physics</strong> and astronomy in industrial, <strong>medical</strong>, military or other fields.Tasks include -(a) conducting research and improving or developing concepts,theories, instrumentation, s<strong>of</strong>tware and operational methods related to<strong>physics</strong> and astronomy;(b) conducting experiments, tests and analyses on the structureand properties <strong>of</strong> matter in fields such as mechanics, thermodynamics,electronics, communications, power generation and distribution,aerodynamics, optics and lasers, remote sensing, medicine, sonics,magnetism, and nuclear <strong>physics</strong>;(c) evaluating results <strong>of</strong> investigations and experiments andexpressing conclusions, mainly using mathematical techniques andmodels;(d) applying principles, techniques and processes to develop orimprove industrial, <strong>medical</strong>, military and other practical applications <strong>of</strong>the principles and techniques <strong>of</strong> <strong>physics</strong> or astronomy;(e) ensuring the safe and effective delivery <strong>of</strong> radiation(ionising and non-ionising) to patients to achieve a diagnostic ortherapeutic result as prescribed by a <strong>medical</strong> practitioner;(f) ensuring the accurate measurement and characterization <strong>of</strong>physical quantities used in <strong>medical</strong> applications;(g) testing, commissioning and evaluating equipment used inapplications such as imaging, <strong>medical</strong> treatment and dosimetry;(h) advising and consulting with <strong>medical</strong> practitioners andother health care pr<strong>of</strong>essionals in optimizing the balance between thebeneficial and deleterious effects <strong>of</strong> radiation;(i) observing, analysing and interpreting celestial phenomenaand developing methods, numerical models and techniques to extendknowledge <strong>of</strong> fields such as navigation, satellite communication, spaceexploration, celestial bodies and cosmic radiation;(j) developing, implementing and maintaining standards andprotocols for the measurement <strong>of</strong> physical phenomena and for the use <strong>of</strong>nuclear technology in industrial and <strong>medical</strong> applications;(k) preparing scientific papers and reports.Examples <strong>of</strong> the occupations classified here:- Astronomer- <strong>Medical</strong> Physicist- Nuclear Physicist- PhysicistSome related occupations classified elsewhere:- Specialist physician (nuclear medicine) - 2212- Radiation oncologist - 2212- Radiologist - 2212- Radiographer - 3211NotesIt should be noted that, while they are appropriately classified in thisunit group with other physicists, <strong>medical</strong> physicists are considered to bean integral part <strong>of</strong> the health work force alongside those occupationsclassified in sub-major group 22, Health Pr<strong>of</strong>essionals and othersclassified in a number <strong>of</strong> other unit groups in major group 2,Pr<strong>of</strong>essionals.14
MEDICAL PHYSICS INTERNATIONAL Journal, vol.1, No.1, 2013IOMP MODEL CURRICULUM FOR POSTGRADUATE (MSC-LEVEL)EDUCATION PROGRAMME ON MEDICAL PHYSICSS Tabakov 1,5 , P Sprawls 2 , A Krisanachinda 3 , E Podgorsak 4 , C Lewis 51 King’s College London, UK2 Sprawls Educational Foundation, Montreat, NC, USA3 Chulalongkorn University, Bangkok, Thailand4 McGill University, Montréal, Canada5 King’s College Hospital, UKAbstract— The IOMP project for Model Curriculum for<strong>Medical</strong> Physics Education was completed in 2012. It aims topresent guidance on the organisation <strong>of</strong> post-graduate (MSclevel) courses. The project presents several models for this:modular, distributed, mixed, topical and e-Learning. Theadvantages/disadvantages <strong>of</strong> these models are discussed fromthe point <strong>of</strong> view <strong>of</strong> specificity in the country. The project alsosuggests topics for the Curriculum and indicative percentage<strong>of</strong> these, as well as introduces criteria and method for IOMPValidation <strong>of</strong> MSc courses in <strong>Medical</strong> Physics..Keywords— Education, MSc Curriculum in <strong>Medical</strong>Physics, Accreditation <strong>of</strong> MSc courses.INTRODUCTIONThe expansion <strong>of</strong> <strong>Medical</strong> Physics as a pr<strong>of</strong>essionrequires dedicated academic programs for the education andtraining <strong>of</strong> the young colleagues. At this time manycountries do not have guidance on how to develop theireducation programmes. The experience in other countriesprovides the foundation for a project to produce a veryuseful Guide for development <strong>of</strong> new programs.The Model Curriculum (Model Teaching programme)project was a spin <strong>of</strong>f activity <strong>of</strong> the World Conference onPhysics and Sustainable Development (November 2005,Durban, South Africa). It was supported both by the IUPAP(International Union <strong>of</strong> Pure and Applied Physics) and theIOMP (International Organization for <strong>Medical</strong> Physics).The project was discussed at the IOMP Education andTraining Committee (ETC, 2006) and resulted in theformation <strong>of</strong> Work Group <strong>of</strong> experts (the authors <strong>of</strong> thearticle), which had a meeting during the EMITELConference in ICTP, Trieste, October 2008 and a number <strong>of</strong>Internet discussions. Being all active educators, the authorsgathered expertise from countries with advanced <strong>Medical</strong>Physics education, as well as from countries whichsuccessfully developed their current education on thissubject. This paper presents an overview <strong>of</strong> the main issuesaddressed by the Model Curriculum project. These include:- Overall number <strong>of</strong> classroom contact and self-readinghours;- MSc project and thesis;- Structure <strong>of</strong> the Curriculum and Models <strong>of</strong> contentdelivery;- Entry requirements and students’ assessment;- Principles <strong>of</strong> validation <strong>of</strong> courses/programs;- Indicative content <strong>of</strong> the Curriculum.OVERALL NUMBER OF CONTACT AND SELF-READING HOURS<strong>Medical</strong> Physics education is usually provided at theMaster level (final University year). In general, the totalnumber <strong>of</strong> learning hours associated with a postgraduate(MSc-level) educational programme (also called UniversityMSc course) include:- Contact hours (lectures, seminars, tutorial, labs andpractical exercises);- Self-study hours (reading specified books an web-basedresources and preparation for course works / exams);- MSc project related hours (including the research andthe writing <strong>of</strong> the MSc thesis)The total number <strong>of</strong> contact hours (lectures, seminars andlabs) in a postgraduate (MSc-level) education programmecan vary according to the local University requirements andthe level <strong>of</strong> self-reading requested by students. There aretwo educational models representing the approximate lowerand upper limits <strong>of</strong> contact hours.In case <strong>of</strong> high self-reading expectation, the overallcontact hours could be <strong>of</strong> the order <strong>of</strong> 300 – 400 hours.However in this case each lecture hour has to becomplemented by at least 2 hours additional self study(depending on the difficulty <strong>of</strong> the subject). This modelrequires the existence <strong>of</strong> a good reference list and the15