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Course Title

Radio Active Safety

Radiation Safety training aligned with IAEA GSR Part 3 and IAEA GSG-7, covering radiation protection principles, dose control, monitoring, and occupational exposure management.

Radio Active Safety Training Service in Saudi Arabia

ACCREDITATIONS

Clients

750+

Satisfied Clients

Our Clients

2025

Training Ratings Report

4.89 ★★★★★

Based on 2400+ Reviews

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4.8 ★★★★★

Based on 1000+ Reviews

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SUCCESS PROOF IN NUMBERS

RESULTS-ORITNTED Training Description

Course Duration

1 Day

Training Delivery Method

Classroom (Instructor-Led)

Instructors Languages

English / Arabic / Urdu / Hindi / Pashto

Certification Provider

Tamkene Saudi Training Center - Approved by TVTC (Technical and Vocational Training Corporation)

Certificate Validity

2 Years (Extendable with additional training hours)

Course Average Passing Rate

97%

Competency Assessment Criteria

Practical Assessment and Knowledge Assessment

Post Training Reporting

Post Training Report + Candidate(s) Training Evaluation Forms

Training Design Methodology

ADDIE Training Design Methodology

Certificate of Successful Completion

Certification is provided upon successful completion. The certificate can be verified through a QR-Code system.

Course Overview

Exposure to ionizing radiation is an inherent hazard in a wide range of industrial, medical, and research environments. Managing that hazard effectively requires personnel to understand the nature of radiation, how it interacts with the human body, and what measures reliably limit exposure to safe levels. This training course is designed to provide participants with the foundational knowledge and practical competencies needed to work safely in environments where radioactive sources or radiation-generating equipment are present, and to contribute actively to an effective workplace radiation protection program.


The course is aligned with internationally recognized frameworks including IAEA Safety Standards Series No. GSR Part 3: Radiation Protection and Safety of Radiation Sources — International Basic Safety Standards, jointly co-sponsored by the ILO, WHO, FAO, and OECD/NEA, and IAEA GSG-7: Occupational Radiation Protection. Participants will develop a clear understanding of the As Low As Reasonably Achievable (ALARA) principle, dose limits, radiation monitoring methods, personal protective equipment requirements, and emergency response procedures for radiological incidents. The course combines technical instruction with structured practical exercises to ensure participants can apply radiation safety protocols confidently and in full compliance with applicable regulatory requirements.

Key Learning Objectives

  • Understand the fundamental principles of ionizing radiation, its types, and its interaction with human tissue

  • Apply the As Low As Reasonably Achievable (ALARA) principle and the three pillars of radiation protection — time, distance, and shielding

  • Interpret occupational dose limits and exposure constraints in accordance with IAEA GSR Part 3

  • Select, use, and interpret personal and area radiation monitoring equipment correctly

  • Identify radiation hazards in the workplace and apply Hazard Identification, Risk Assessment, and Risk Control (HIRARC) methodology

  • Handle and store radioactive sources and materials safely in accordance with applicable regulatory requirements

  • Respond effectively to radiological emergencies including source loss, contamination events, and accidental overexposure

  • Apply HSE and quality management principles to occupational radiation protection programs

Course Outline

1. Introduction to Radiation Safety

  • Overview of ionizing radiation and its naturally occurring and artificial sources including (cosmic radiation, terrestrial radiation, medical X-ray equipment, and industrial radiography sources)

  • Applicable international standards and regulatory framework including (IAEA GSR Part 3, IAEA GSG-7: Occupational Radiation Protection, and national regulatory authority requirements)

  • Roles and responsibilities in workplace radiation protection including (Radiation Protection Officer — RPO, workers, employers, and regulatory authority obligations)

  • Overview of radiation-related incidents and their consequences including (occupational overexposure cases, source loss events, and lessons from historical radiological accidents)

  • The importance of radiation safety culture including (management commitment, worker engagement, and continuous improvement in protection programs)

2. Fundamentals of Ionizing Radiation

  • Types of ionizing radiation and their characteristics including (alpha particles, beta particles, gamma rays, X-rays, and neutron radiation)

  • Radiation interaction with matter and biological tissue including (ionization mechanisms, penetration depths, and deterministic versus stochastic health effects)

  • Radiation quantities and units including (activity in Becquerels — Bq, absorbed dose in Gray — Gy, equivalent dose in Sievert — Sv, and effective dose calculations)

  • Occupational dose limits and exposure constraints in accordance with IAEA GSR Part 3 including (annual effective dose limits for workers, lens of the eye dose limits, and skin dose constraints)

  • Naturally Occurring Radioactive Material (NORM) and Technologically Enhanced NORM (TENORM) including (common industrial NORM sources, exposure pathways, and regulatory classification)

3. Radiation Protection Principles and Controls

  • The ALARA principle and its practical application in the workplace including (optimization of protection, dose constraint setting, and cost-benefit analysis of protective measures)

  • The three pillars of radiation protection including (time — minimizing exposure duration, distance — applying the inverse square law, and shielding — selecting appropriate shielding materials for each radiation type)

  • Radiation controlled area and supervised area designation including (boundary determination criteria, access control requirements, and signage and demarcation standards)

  • Personal protective equipment for radiation work including (lead aprons, thyroid shields, leaded gloves, face shields, and respiratory protection for airborne radioactive contamination)

  • Administrative controls in radiation protection programs including (work planning, dose budgeting, written procedures, and authorization-to-work systems for radiation work)

4. Radiation Monitoring and Dose Assessment

  • Types of personal dosimetry and their correct use including (Thermoluminescent Dosimeters — TLD, Electronic Personal Dosimeters — EPD, and film badges)

  • Area radiation monitoring equipment and operation including (Geiger-Müller counters, ionization chambers, scintillation detectors, and contamination survey meters)

  • Workplace monitoring program requirements in accordance with IAEA GSG-7 including (routine survey frequency, trigger levels, and monitoring record documentation)

  • Internal dose assessment and bioassay methods including (inhalation and ingestion pathway evaluation, whole-body counting, and urinalysis for radionuclide intakes)

  • Dose record management and regulatory reporting including (individual dose record maintenance, dose history review, and overexposure notification procedures)

5. Safe Handling and Storage of Radioactive Sources

  • Classification of radioactive sources by activity and hazard level including (exempt sources, low-activity sealed sources, high-activity sources, and category 1–5 source classification under IAEA security guidance)

  • Safe handling procedures for sealed and unsealed radioactive sources under supervision including (remote handling tools, source containers, transfer procedures, and contamination prevention measures)

  • Radioactive material labeling, packaging, and transport requirements including (UN packaging standards, radiation transport index — TI determination, and transport documentation requirements)

  • Radioactive source storage requirements including (shielded storage facility design, inventory control, physical security measures, and periodic source accountability checks)

  • Radioactive waste classification and management including (exempt waste, low-level waste, and intermediate-level waste handling, segregation, and regulatory disposal requirements)

6. Radiological Emergency Response

  • Types of radiological emergencies and their recognition including (sealed source loss or theft, unsealed source spill, accidental overexposure, and contamination spread events)

  • Initial response actions for radiological incidents including (evacuating the area, preventing spread of contamination, notifying the Radiation Protection Officer, and isolating the affected zone)

  • Contamination control and decontamination procedures including (personnel contamination survey, skin and wound decontamination, and equipment and surface decontamination methods)

  • Radiological emergency notification and reporting obligations including (internal escalation procedures, regulatory authority notification timelines, and emergency services coordination)

  • Post-incident dose assessment and medical follow-up including (emergency dosimetry, biological dosimetry for high-dose events, and long-term health surveillance requirements)

7. HSE, Quality, and Case Studies

  • Integration of radiation safety within the organizational Health, Safety, and Environment (HSE) management system including (radiation protection programs, permit-to-work systems for radiation work, and incident reporting procedures)

  • Quality assurance in radiation protection programs including (calibration of monitoring equipment, dosimetry audit programs, and documentation and record management in accordance with IAEA GSG-7)

  • Application of HIRARC methodology to radiation work activities including (pre-task radiation risk assessment, exposure scenario analysis, and control hierarchy determination)

  • Case studies from radiological incidents in Middle East industrial and medical environments including (NORM exposure in oil and gas operations, industrial radiography source incidents, and medical facility radiation safety failures) and the importance of proper radiation safety training in preventing occupational overexposure and regulatory violations

  • Group discussion on lessons learned from radiological incident investigations including (root cause findings, corrective actions implemented, and improvements to workplace radiation protection programs)

1. Introduction to Radiation Safety

  • Overview of ionizing radiation and its naturally occurring and artificial sources including (cosmic radiation, terrestrial radiation, medical X-ray equipment, and industrial radiography sources)

  • Applicable international standards and regulatory framework including (IAEA GSR Part 3, IAEA GSG-7: Occupational Radiation Protection, and national regulatory authority requirements)

  • Roles and responsibilities in workplace radiation protection including (Radiation Protection Officer — RPO, workers, employers, and regulatory authority obligations)

  • Overview of radiation-related incidents and their consequences including (occupational overexposure cases, source loss events, and lessons from historical radiological accidents)

  • The importance of radiation safety culture including (management commitment, worker engagement, and continuous improvement in protection programs)

2. Fundamentals of Ionizing Radiation

  • Types of ionizing radiation and their characteristics including (alpha particles, beta particles, gamma rays, X-rays, and neutron radiation)

  • Radiation interaction with matter and biological tissue including (ionization mechanisms, penetration depths, and deterministic versus stochastic health effects)

  • Radiation quantities and units including (activity in Becquerels — Bq, absorbed dose in Gray — Gy, equivalent dose in Sievert — Sv, and effective dose calculations)

  • Occupational dose limits and exposure constraints in accordance with IAEA GSR Part 3 including (annual effective dose limits for workers, lens of the eye dose limits, and skin dose constraints)

  • Naturally Occurring Radioactive Material (NORM) and Technologically Enhanced NORM (TENORM) including (common industrial NORM sources, exposure pathways, and regulatory classification)

3. Radiation Protection Principles and Controls

  • The ALARA principle and its practical application in the workplace including (optimization of protection, dose constraint setting, and cost-benefit analysis of protective measures)

  • The three pillars of radiation protection including (time — minimizing exposure duration, distance — applying the inverse square law, and shielding — selecting appropriate shielding materials for each radiation type)

  • Radiation controlled area and supervised area designation including (boundary determination criteria, access control requirements, and signage and demarcation standards)

  • Personal protective equipment for radiation work including (lead aprons, thyroid shields, leaded gloves, face shields, and respiratory protection for airborne radioactive contamination)

  • Administrative controls in radiation protection programs including (work planning, dose budgeting, written procedures, and authorization-to-work systems for radiation work)

4. Radiation Monitoring and Dose Assessment

  • Types of personal dosimetry and their correct use including (Thermoluminescent Dosimeters — TLD, Electronic Personal Dosimeters — EPD, and film badges)

  • Area radiation monitoring equipment and operation including (Geiger-Müller counters, ionization chambers, scintillation detectors, and contamination survey meters)

  • Workplace monitoring program requirements in accordance with IAEA GSG-7 including (routine survey frequency, trigger levels, and monitoring record documentation)

  • Internal dose assessment and bioassay methods including (inhalation and ingestion pathway evaluation, whole-body counting, and urinalysis for radionuclide intakes)

  • Dose record management and regulatory reporting including (individual dose record maintenance, dose history review, and overexposure notification procedures)

5. Safe Handling and Storage of Radioactive Sources

  • Classification of radioactive sources by activity and hazard level including (exempt sources, low-activity sealed sources, high-activity sources, and category 1–5 source classification under IAEA security guidance)

  • Safe handling procedures for sealed and unsealed radioactive sources under supervision including (remote handling tools, source containers, transfer procedures, and contamination prevention measures)

  • Radioactive material labeling, packaging, and transport requirements including (UN packaging standards, radiation transport index — TI determination, and transport documentation requirements)

  • Radioactive source storage requirements including (shielded storage facility design, inventory control, physical security measures, and periodic source accountability checks)

  • Radioactive waste classification and management including (exempt waste, low-level waste, and intermediate-level waste handling, segregation, and regulatory disposal requirements)

6. Radiological Emergency Response

  • Types of radiological emergencies and their recognition including (sealed source loss or theft, unsealed source spill, accidental overexposure, and contamination spread events)

  • Initial response actions for radiological incidents including (evacuating the area, preventing spread of contamination, notifying the Radiation Protection Officer, and isolating the affected zone)

  • Contamination control and decontamination procedures including (personnel contamination survey, skin and wound decontamination, and equipment and surface decontamination methods)

  • Radiological emergency notification and reporting obligations including (internal escalation procedures, regulatory authority notification timelines, and emergency services coordination)

  • Post-incident dose assessment and medical follow-up including (emergency dosimetry, biological dosimetry for high-dose events, and long-term health surveillance requirements)

7. HSE, Quality, and Case Studies

  • Integration of radiation safety within the organizational Health, Safety, and Environment (HSE) management system including (radiation protection programs, permit-to-work systems for radiation work, and incident reporting procedures)

  • Quality assurance in radiation protection programs including (calibration of monitoring equipment, dosimetry audit programs, and documentation and record management in accordance with IAEA GSG-7)

  • Application of HIRARC methodology to radiation work activities including (pre-task radiation risk assessment, exposure scenario analysis, and control hierarchy determination)

  • Case studies from radiological incidents in Middle East industrial and medical environments including (NORM exposure in oil and gas operations, industrial radiography source incidents, and medical facility radiation safety failures) and the importance of proper radiation safety training in preventing occupational overexposure and regulatory violations

  • Group discussion on lessons learned from radiological incident investigations including (root cause findings, corrective actions implemented, and improvements to workplace radiation protection programs)

Group Exercises

  • Team-based radiation work pre-task risk assessment exercise including (identifying radiation hazards in a given work scenario, applying ALARA controls, determining controlled area boundaries, and completing a radiation work permit)

  • Radiological incident investigation group exercise including (reviewing a simulated source loss scenario, identifying direct and root causes, and developing a corrective action plan to prevent recurrence and strengthen source accountability procedures)

Gained Core Technical Skills

  • Ability to identify types of ionizing radiation and explain their biological effects, penetration characteristics, and associated health risks

  • Proficiency in applying the ALARA principle using time, distance, and shielding controls to reduce occupational radiation exposure to acceptable levels

  • Competency in interpreting occupational dose limits and exposure constraints in accordance with IAEA GSR Part 3 and applying them to workplace dose management decisions

  • Skill in selecting, operating, and interpreting personal dosimeters and area radiation survey instruments including TLDs, EPDs, and contamination survey meters

  • Ability to conduct pre-task radiation risk assessments using HIRARC methodology and determine appropriate controlled area boundaries and access controls

  • Proficiency in safe handling, transfer, and storage of radioactive sources under supervision in compliance with IAEA source security and safety requirements

  • Competency in recognizing radiological emergency scenarios and executing correct initial response actions including area isolation, contamination control, and regulatory notification

  • Skill in conducting personnel and equipment contamination surveys and performing decontamination procedures following radiological incidents

  • Understanding of radioactive waste classification, segregation, and regulatory disposal requirements applicable to workplace radiation protection programs

Services Geographical Coverage

In Tamkene Training Center or at our client's facility (On-Site), Covering All Saudi Arabia Cities and Locations:


Targeted Audience

  • Workers and operators who work in or adjacent to radiation-controlled or supervised areas

  • Radiation Protection Officers and HSE personnel responsible for managing occupational radiation protection programs

  • Maintenance and inspection personnel working with or near radiation-generating equipment or radioactive sources

  • Industrial radiographers and non-destructive testing personnel using sealed radioactive sources under supervision

  • Operations and facilities supervisors responsible for ensuring radiation safety compliance in their work areas

  • Quality assurance and regulatory compliance personnel responsible for radiation safety documentation and auditing

Practical Assessment

  • Radiation monitoring equipment operation exercise under supervision including (instrument pre-use checks, area survey technique, contamination detection, and correct interpretation and recording of results)

  • Personal protective equipment selection and donning exercise including (correct PPE identification for a given radiation work scenario, donning and doffing sequence, and contamination check procedure)

  • Simulated radiological emergency response exercise including (recognition of a contamination event, initial isolation and notification actions, contamination control measures, and completion of an incident report)

Knowledge Assessment

  • Multiple-choice questions on radiation fundamentals including (radiation types and penetration characteristics, dose quantities and units, and occupational dose limit values under IAEA GSR Part 3)

  • Scenario-based questions on ALARA application and radiation protection controls including (selecting appropriate shielding materials, calculating safe working distances, and determining exposure time limits for a given dose rate)

  • Radiation monitoring equipment questions including (correct dosimeter selection for specific radiation types, contamination survey procedures, and interpretation of monitoring instrument readings)

  • Radiological emergency response assessment including (correct initial response sequence for a contamination event, notification obligations, and decontamination procedure selection)

Why Choose This Course

  • Fully aligned with IAEA GSR Part 3 and IAEA GSG-7: Occupational Radiation Protection for internationally credible radiation safety competency development

  • Covers the complete spectrum of occupational radiation protection — from fundamental physics and dose limits through to monitoring, source handling, and emergency response

  • Applies the ALARA principle and HIRARC methodology throughout, developing both proactive protection skills and practical risk management capability

  • Structured practical exercises conducted under supervision build genuine confidence in monitoring equipment operation, PPE use, and emergency response procedures

  • Incorporates Middle East–relevant case studies addressing NORM exposure in oil and gas environments and regional industrial radiography safety challenges

  • Supports organizations in meeting national regulatory authority obligations for radiation worker training and maintaining a verifiable, audit-ready radiation protection program

Note: This course outline, including specific topics, modules, and duration, can be customized based on the specific needs and requirements of the client.

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