Abbreviation | IRPA |
---|---|
Formation | 19 June 1965 |
Region | Global |
President | Bernard le Guen |
Vice-President | Christopher Clement |
Website | www |
The International Radiation Protection Association (IRPA) is an independent non-profit association of national and regional radiation protection societies, and its mission is to advance radiation protection throughout the world. It is the international professional association for radiation protection. [1]
IRPA is recognized by the IAEA as a Non Governmental Organization (NGO) and is an observer on the IAEA Radiation Safety Standards Committee (RASSC). [2]
IRPA was formed on June 19, 1965, at a meeting in Los Angeles; stimulated by the desire of radiation protection professionals to have a world-wide body. Membership includes 50 Associate Societies covering 65 countries, totaling approximately 18,000 individual members. [3] [4]
The General Assembly, made up of representatives from the Associate Societies, is the representative body of the Association. It delegates authority to the Executive Council for the efficient administration of the affairs of the Association.
Specific duties are carried out by IRPA Commissions, Committees, Task Groups and Working Groups:
The following is a list of the 50 Associate Societies (covering 65 countries):
State | Member Organisation | Date of membership [5] |
---|---|---|
Argentina | Sociedad Argentina de Radioprotección | 1966 |
Australasian | Australasian Radiation Protection Society ( Australia & New Zealand) | 1976 for Australia 1999 for Australasian |
Austria | Österreichischer Verband für Strahlenschutz | 1966 |
Belgium | Belgian Association for Radiological Protection | 1965 |
Brazil | Sociedade Brasileira de Proteção Radiológica | 1989 |
Bulgaria | Bulgarian Association of Radiobiology and Radiation Protection | 2007 |
Cameroon | Cameroon Radiological Protection Society | 2013 |
Canada | Canadian Radiation Protection Association | 1979 |
China | Chinese Society of Radiation Protection | 1989 |
Colombia | Asociación Colombiana de Protección Radiológica | 2008 |
Croatia | Croatian Radiation Protection Association | 1992 |
Cuba | Cuban Physics Society, Radiation Protection Section | 1997 |
Cyprus | Cyprus Association of Medical Physics and BioMeedical Engineering | 1992 |
Czech Republic | Czech Society for Radiation Protection | 1968 |
Eastern Africa | Eastern Africa Association for Radiation Protection ( Burundi, Ethiopia, Kenya, Rwanda, Somalia, Tanzania, Uganda) | 2004 |
Egypt | IRPA Egypt Radiation Protection | 1992 |
France | Société Française de Radioprotection | 1965 |
German-Swiss | German-Swiss Association for Radiation Protection ( Germany & Switzerland) | 1965 |
Ghana | Ghana Association for Radiation Protection | 2016 |
Greece | Greek Radiation Protection Association | 1988 |
Hungary | Health Physics Section of the Roland Eötvös Physical Society | 1966 |
India | Indian Association for Radiation Protection | 1969 |
Iran | Iranian Radiation Protection Society | 2011 |
Ireland | Irish Radiation Research Society | 1984 |
Israel | Israel Society for Radiation Protection | 1965 |
Italy | Associazione Italiana di Radioprotezione | 1965 |
Japan | Japan Health Physics Society | 1965 |
Korea | Korean Society for Radiation Protection | 1976 |
Lithuania | Radiacines saugos centras | 2002 |
Madagascar | Institut National des Sciences et Techniques Nucléaires | 1999 |
Malaysia | Malaysian Radiation Protection Association | 2006 |
Mexico | Sociedad Mexicana de Seguridad Radiológica | 1976 |
Morocco | Association Marocaine de Radioprotection | 2004 |
Netherlands | Nederlandse Vereniging voor Stralingshygiëne | 1965 |
Nigeria | Nigeria Society for Radiation Protection | 2016 |
Nordic | Nordic Society for Radiation Protection | 1965 |
Peru | Sociedad Peruana de Radioproteccion | 1989 |
Philippines | Philippine Association for Radiation Protection | 1966 |
Poland | Polskie Towarzystwo Fizyki Medycznej | 1970 |
Portugal | Sociedade Portuguesa De Protecção Contra Radiacoes | 1995 |
Romania | Societatea Romana De Radioprotectie | 1992 |
Russia | Sectiya Radiazionnoy Gigieny of Russia | 1972 |
Serbia-Montenegro | Radiation Protection Society of Serbia and Montenegro ( Serbia & Montenegro) | |
Slovak Republic | Slovak Society of Nuclear Medicine and Radiation Hygiene | 1995 |
Slovenia | Radiation Protection Association of Slovenia | 1992 |
Southern Africa | Southern African Radiation Protection Association ( South Africa, Namibia, Botswana) | 1969 |
Spain | Sociedad Española de Protección Radiológica [6] | 1982 |
Tunisia | Tunisian Radiation Protection Society | 2015 |
United Kingdom | Society for Radiological Protection | 1965 |
Uruguay | Uruguayan Society of Radioprotection | 1999 |
USA | Health Physics Society | 1965 |
Venezuela | Sociedad Venezolana de Protección Radiológica | 2012 |
The 2032 Congress (IRPA18) will be in Australia.
The 2028 Congress (IRPA17) will be in Spain.
IRPA 16 Orlando, July 2024
IRPA 15 Seoul, January 2021
IRPA 14 Cape Town, May 2016
IRPA 13 Glasgow, May 2012
IRPA 12 Buenos Aires, October 2008
IRPA 11 Madrid, May 2004
IRPA 10 Hiroshima, May 2000
IRPA 9 Vienna, April 1996
IRPA 8 Montreal, May 1992
IRPA 7 Sydney, April 1988
IRPA 6 Berlin, May 1984
IRPA 5 Jerusalem, March 1980
IRPA 4 Paris, April 1977
IRPA 3 Washington, September 1973
IRPA 2 Brighton, May 1970
IRPA 1 Rome, September 1966
IRPA maintains relations with many other international organizations in the field of radiation protection, such as those listed here.
IOMP - International Organization for Medical Physics |
ISR - International Society of Radiology |
ISRO - International Society for Radiation Oncology |
WFNMB - World Federation of Nuclear Medicine and Biology |
Commencing with the 1973 IRPA Congress, each International Congress has been opened by the Sievert Lecture which is presented by the winner of the Sievert Award. This award is in honour of Rolf M. Sievert, a pioneer in radiation physics and radiation protection.
The Sievert Award consists of a suitable scroll, certificate or parchment, containing the name of the recipient, the date it is presented, and an indication that the award honours the memory of Professor Rolf M. Sievert.
The recipients of the Sievert Award are listed below:
Background radiation is a measure of the level of ionizing radiation present in the environment at a particular location which is not due to deliberate introduction of radiation sources.
The sievert is a unit in the International System of Units (SI) intended to represent the stochastic health risk of ionizing radiation, which is defined as the probability of causing radiation-induced cancer and genetic damage. The sievert is important in dosimetry and radiation protection. It is named after Rolf Maximilian Sievert, a Swedish medical physicist renowned for work on radiation dose measurement and research into the biological effects of radiation.
Ionizing radiation, including nuclear radiation, consists of subatomic particles or electromagnetic waves that have sufficient energy to ionize atoms or molecules by detaching electrons from them. Some particles can travel up to 99% of the speed of light, and the electromagnetic waves are on the high-energy portion of the electromagnetic spectrum.
Radiation protection, also known as radiological protection, is defined by the International Atomic Energy Agency (IAEA) as "The protection of people from harmful effects of exposure to ionizing radiation, and the means for achieving this". Exposure can be from a source of radiation external to the human body or due to internal irradiation caused by the ingestion of radioactive contamination.
Equivalent dose is a dose quantity H representing the stochastic health effects of low levels of ionizing radiation on the human body which represents the probability of radiation-induced cancer and genetic damage. It is derived from the physical quantity absorbed dose, but also takes into account the biological effectiveness of the radiation, which is dependent on the radiation type and energy. In the SI system of units, the unit of measure is the sievert (Sv).
Health physics, also referred to as the science of radiation protection, is the profession devoted to protecting people and their environment from potential radiation hazards, while making it possible to enjoy the beneficial uses of radiation. Health physicists normally require a four-year bachelor’s degree and qualifying experience that demonstrates a professional knowledge of the theory and application of radiation protection principles and closely related sciences. Health physicists principally work at facilities where radionuclides or other sources of ionizing radiation are used or produced; these include research, industry, education, medical facilities, nuclear power, military, environmental protection, enforcement of government regulations, and decontamination and decommissioning—the combination of education and experience for health physicists depends on the specific field in which the health physicist is engaged.
The roentgen equivalent man (rem) is a CGS unit of equivalent dose, effective dose, and committed dose, which are dose measures used to estimate potential health effects of low levels of ionizing radiation on the human body.
Radioactive contamination, also called radiological pollution, is the deposition of, or presence of radioactive substances on surfaces or within solids, liquids, or gases, where their presence is unintended or undesirable.
In radiation physics, kerma is an acronym for "kinetic energy released per unit mass", defined as the sum of the initial kinetic energies of all the charged particles liberated by uncharged ionizing radiation in a sample of matter, divided by the mass of the sample. It is defined by the quotient .
The linear no-threshold model (LNT) is a dose-response model used in radiation protection to estimate stochastic health effects such as radiation-induced cancer, genetic mutations and teratogenic effects on the human body due to exposure to ionizing radiation. The model assumes a linear relationship between dose and health effects, even for very low doses where biological effects are more difficult to observe. The LNT model implies that all exposure to ionizing radiation is harmful, regardless of how low the dose is, and that the effect is cumulative over lifetime.
Rolf Maximilian Sievert was a Swedish medical physicist whose major contribution was in the study of the biological effects of ionizing radiation.
The International Commission on Radiological Protection (ICRP) is an independent, international, non-governmental organization, with the mission to protect people, animals, and the environment from the harmful effects of ionising radiation. Its recommendations form the basis of radiological protection policy, regulations, guidelines and practice worldwide.
The International Commission on Radiation Units and Measurements (ICRU) is a standardization body set up in 1925 by the International Congress of Radiology, originally as the X-Ray Unit Committee until 1950. Its objective "is to develop concepts, definitions and recommendations for the use of quantities and their units for ionizing radiation and its interaction with matter, in particular with respect to the biological effects induced by radiation".
Radiobiology is a field of clinical and basic medical sciences that involves the study of the effects of ionizing radiation on living things, in particular health effects of radiation. Ionizing radiation is generally harmful and potentially lethal to living things but can have health benefits in radiation therapy for the treatment of cancer and thyrotoxicosis. Its most common impact is the induction of cancer with a latent period of years or decades after exposure. High doses can cause visually dramatic radiation burns, and/or rapid fatality through acute radiation syndrome. Controlled doses are used for medical imaging and radiotherapy.
The collective effective dose, dose quantity S, is calculated as the sum of all individual effective doses over the time period or during the operation being considered due to ionizing radiation. It can be used to estimate the total health effects of a process or accidental release involving ionizing radiation to an exposed population. The total collective dose is the dose to the exposed human population between the time of release until its elimination from the environment, perhaps integrating to time equals infinity. However, doses are generally reported for specific populations and a stated time interval. The International Commission on Radiological Protection (ICRP) states: "To avoid aggregation of low individual doses over extended time periods and wide geographical regions the range in effective dose and the time period should be limited and specified.
Patients are exposed to ionizing radiation when they undergo diagnostic examinations using x-rays or radiopharmaceuticals. Radiation emitted by radioisotopes or radiation generators is utilized in therapy for cancer or benign lesions and also in interventional procedures using fluoroscopy. There has been a tremendous increase in the use of ionizing radiation in medicine during recent decades and health professionals and patients are concerned about the harmful effects of radiation. The International Atomic Energy Agency (IAEA) has established a program on radiological protection of patients in recognition of the increasing importance of this topic. The emphasis in the past had been on radiation protection of staff and this has helped to reduce radiation doses to staff at levels well below the limits prescribed by the International Commission on Radiological Protection (ICRP) and accepted by most countries. The recent emphasis on radiation protection of patients is helping in developing strategies to reduce radiation doses to patients without compromising on diagnostic or therapeutic purpose.
The roentgen or röntgen is a legacy unit of measurement for the exposure of X-rays and gamma rays, and is defined as the electric charge freed by such radiation in a specified volume of air divided by the mass of that air . In 1928, it was adopted as the first international measurement quantity for ionizing radiation to be defined for radiation protection, as it was then the most easily replicated method of measuring air ionization by using ion chambers. It is named after the German physicist Wilhelm Röntgen, who discovered X-rays and was awarded the first Nobel Prize in Physics for the discovery.
Banana equivalent dose (BED) is an informal unit of measurement of ionizing radiation exposure, intended as a general educational example to compare a dose of radioactivity to the dose one is exposed to by eating one average-sized banana. Bananas contain naturally occurring radioactive isotopes, particularly potassium-40 (40K), one of several naturally occurring isotopes of potassium. One BED is often correlated to 10−7 sievert ; however, in practice, this dose is not cumulative, as the potassium in foods is excreted in urine to maintain homeostasis. The BED is only meant as an educational exercise and is not a formally adopted dose measurement.
Madan M. Rehani is an Indian-born medical physicist.
Caridad Borrás is a Spanish medical physicist. Her career started in 1964 at the Santa Creu i Sant Pau Hospital in Barcelona. From 1988 to 2000, she was Regional Advisor of the Radiological Health Program and, from 2000 to 2002, Coordinator of Essential Drugs and Technology at the Pan American Health Organization in Washington D.C.
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