radiation safety of particle accelerators and high power ... · 1. ionizing radiation – basics...

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IT-ELLI TRAINING COURSE C5 Radiation Safety of Particle Accelerators and High Power Laser Facilities 14 – 18 May 2018 ELI-NP/IFIN-HH, Magurele Romania To gain a basic knowledge of nuclear physics and understand the mechanisms of laser-matter interaction • To understand dosimetric and radiation protection quantities and their units and to perform simple calculations. To be familiar with operational quantities To understand the mechanisms of different types of biological effects following exposure to ionizing radiation To become familiar with different types of radiation detectors and their operating principles, their charac- teristics and applicability To become aware of international recommendations on radiation protection and the safe use of radiation sources. To become acquainted with the elements of a national regulatory infrastructure in this field. To gain a basic knowledge of particle accelerators, including laser-driven acceleration, and basic require- ments for safety associated to the equipment To become familiar with different types of radioactive sources and their characteristics. To be able to apply the radiation protection principles to the usage of radioactive sources To become aware of the management of disused radioactive sources. To become acquainted with basics of decommissioning of the radiological facilities To develop an awareness of the causes and consequences of radiological accidents and approaches to mitigate their consequences Learning Objectives • Daily expenses 55 € per day • Travel expenses 275 € maximum per participant - for travel distances between 100 and 1999 km 360 € maximum per participant - for travel distances of 2000 km or more Expenses Covered by the IT-ELLI Project Programme 1. Ionizing radiation – basics 1.1. Introduction. 1.2. Fundamentals of nuclear physics in relation to radiation protection. 1.3 Ionizing radiation sources: types and basic characteristics (including laser generated) 1.4 Interaction of radiation with matter 2. Dosimetric and radiation protection quantities 2.1. Dosimetric quantities and units. 2.2. Radiation protection quantities. Operational quantities 3. Biological effects of ionizing radiation 3.1. Effects of radiation at the molecular and the cellular level. 3.2. Deterministic effects. 3.3. Stochastic effects. Monday – May 14, 2018 7. Accelerators, lasers and related radioprotection issues: 1 st submodule: 7.1. Accelerator systems. Components of accelerators. 7.2. Types of accelerators. 7.3. Radiation protection issues associated to particle accelerators. Practical Activities (3 groups) IFIN-HH visit: 9 MV and 3 MeV Tandem accelerators, Gamma Irradiator, Radioactive Waste Treatment Center Wednesday – May 16, 2018 8. Sealed and unsealed, orphan and vulnerable radioactive sources. 8.1. Types of radioactive sources. 8.2. Categorization of radioactive sources. 8.3. Safety and security of sources. 9. Radiological accidents 9.1. Radiological accidents. 9.2. Case studies. Q&A Session Evaluation Friday – May 18, 2018 7. Accelerators, lasers and related radioprotection issues: 2 nd submodule: 7.4. High power lasers. 7.5. Laser-matter interaction and laser-generated particle beams 7.6. Radiation protection issues associated to laser particle acceleration. ELI-NP visit (and radioprotection aspects presentation) Practical Activities (2 nd and 3 rd rotations) Thursday – May 17, 2018 4. Radiation detection and measurement. Detectors 4.1. Principles of radiation detection and measurement – dosimetry and analysis 4.2. Passive and active radiation detectors. 4.3. Detectors for high fluence pulsed field radiation generated by high power lasers 5. International and European framework for radiation protection. Regulatory system. National regulations 5.1. Principles of radiation protection. 5.2. The role of international organizations in radiation protection. 5.3. Directive 2013/59/EURATOM. Regulatory control. 5.4. National regulations 6. Radioactive waste management 6.1. Radioactive waste arising. Waste classification. Exemptions and clearance 6.2. Safety requirements for waste disposal. 6.3. Management of disused sealed radioactive sources. 6.4. Decommissioning of the radiological facilities. 6.5. Contamination and decontamination. Tuesday – May 15, 2018 Contact for registration and details: [email protected]

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Page 1: Radiation Safety of Particle Accelerators and High Power ... · 1. Ionizing radiation – basics 1.1. Introduction. 1.2. Fundamentals of nuclear physics in relation to radiation protection

IT-ELLI TRAINING COURSE C5

Radiation Safety of Particle Accelerators and High Power Laser Facilities

14 – 18 May 2018ELI-NP/IFIN-HH, Magurele

Romania• To gain a basic knowledge of nuclear physics and understand the mechanisms of laser-matter interaction• To understand dosimetric and radiation protection quantities and their units and to perform simple calculations. To be familiar with operational quantities• To understand the mechanisms of different types of biological effects following exposure to ionizing radiation• To become familiar with different types of radiation detectors and their operating principles, their charac-teristics and applicability• To become aware of international recommendations on radiation protection and the safe use of radiation sources. To become acquainted with the elements of a national regulatory infrastructure in this field.• To gain a basic knowledge of particle accelerators, including laser-driven acceleration, and basic require-ments for safety associated to the equipment• To become familiar with different types of radioactive sources and their characteristics. To be able to apply the radiation protection principles to the usage of radioactive sources • To become aware of the management of disused radioactive sources. To become acquainted with basics of decommissioning of the radiological facilities• To develop an awareness of the causes and consequences of radiological accidents and approaches to mitigate their consequences

Learning Objectives

• Daily expenses 55 € per day• Travel expenses 275 € maximum per participant - for travel distances between 100 and 1999 km 360 € maximum per participant - for travel distances of 2000 km or more

Expenses Covered by the IT-ELLI Project

Programme

1. Ionizing radiation – basics 1.1. Introduction. 1.2. Fundamentals of nuclear physics in relation to radiation protection. 1.3 Ionizing radiation sources: types and basic characteristics (including laser generated) 1.4 Interaction of radiation with matter2. Dosimetric and radiation protection quantities 2.1. Dosimetric quantities and units. 2.2. Radiation protection quantities. Operational quantities

3. Biological effects of ionizing radiation 3.1. Effects of radiation at the molecular and the cellular level. 3.2. Deterministic effects. 3.3. Stochastic effects.

Monday – May 14, 2018

7. Accelerators, lasers and related radioprotection issues: 1st submodule: 7.1. Accelerator systems. Components of accelerators. 7.2. Types of accelerators. 7.3. Radiation protection issues associated to particle accelerators.Practical Activities (3 groups)IFIN-HH visit: 9 MV and 3 MeV Tandem accelerators, Gamma Irradiator, Radioactive Waste Treatment Center

Wednesday – May 16, 2018

8. Sealed and unsealed, orphan and vulnerable radioactive sources. 8.1. Types of radioactive sources. 8.2. Categorization of radioactive sources. 8.3. Safety and security of sources. 9. Radiological accidents 9.1. Radiological accidents. 9.2. Case studies. Q&A SessionEvaluation

Friday – May 18, 2018

7. Accelerators, lasers and related radioprotection issues: 2nd submodule: 7.4. High power lasers. 7.5. Laser-matter interaction and laser-generated particle beams 7.6. Radiation protection issues associated to laser particle acceleration.ELI-NP visit (and radioprotection aspects presentation)Practical Activities (2nd and 3rd rotations)

Thursday – May 17, 2018

4. Radiation detection and measurement. Detectors 4.1. Principles of radiation detection and measurement – dosimetry and analysis 4.2. Passive and active radiation detectors. 4.3. Detectors for high fluence pulsed field radiation generated by high power lasers

5. International and European framework for radiation protection. Regulatory system. National regulations 5.1. Principles of radiation protection. 5.2. The role of international organizations in radiation protection. 5.3. Directive 2013/59/EURATOM. Regulatory control. 5.4. National regulations6. Radioactive waste management 6.1. Radioactive waste arising. Waste classification. Exemptions and clearance 6.2. Safety requirements for waste disposal. 6.3. Management of disused sealed radioactive sources. 6.4. Decommissioning of the radiological facilities. 6.5. Contamination and decontamination.

Tuesday – May 15, 2018

Contact for registration and details: [email protected]