Nuclear and Atomic Energy Technology: Principles,
Applications, and Regulatory Framework

21– 25 July 2025
Sandton Centre, Johannesburg South Africa

nuclear

Register Now! Limited Seats Available!

R24,999.00 Per Delegate

Course overview:

This course offers an in-depth exploration of nuclear and atomic energy technologies, focusing on their scientific principles, technological applications, and regulatory considerations. Participants will gain foundational knowledge of nuclear physics, reactor operation, radiation safety, nuclear fuel cycles, and waste management.

The course also emphasizes the role of atomic energy in sustainable development and its relevance in modern power generation, medicine, and industry. Designed to equip professionals with both theoretical and practical insights, the course balances scientific rigor with real-world applications and policy considerations.

Course Objectives

By the end of the course, participants will be able to:
1. Understand the fundamental principles of nuclear and atomic energy.
2. Identify the different types of nuclear reactors and their operation.
3. Analyze the nuclear fuel cycle and its components (mining, enrichment, fuel fabrication, and disposal).
4. Examine radiation types, protection methods, and health impacts.
5. Evaluate the environmental and economic impacts of nuclear power.
6. Understand the international regulatory frameworks and safety standards (e.g., IAEA, NRC).
7. Explore the role of nuclear energy in climate change mitigation and energy policy.
8. Assess best practices in nuclear waste management and decommissioning.
9. Gain insight into nuclear security, safeguards, and non-proliferation.
10. Discuss emerging trends such as small modular reactors (SMRs) and fusion technologies.

Who Should Attend:

• Energy sector professionals
• Engineers and technical officers in power generation
• Environmental and safety regulators
• Policy makers and government officials in energy and environment ministries
• Researchers and academics in nuclear science and energy
• Professionals in regulatory agencies (e.g., radiation boards, atomic commissions)
• Investment analysts and consultants in the energy industry
• Legal and compliance professionals dealing with energy regulations

Course Outline:

Module 1: Introduction to Nuclear Science and Atomic Energy
• Structure of the atom: protons, neutrons, electrons
• Radioactivity: alpha, beta, gamma emissions
• Nuclear reactions: fission vs. fusion
• Historical development: from discovery to peaceful use
• Overview of nuclear energy in global power generation

Module 2: Nuclear Reactor Technologies
• Types of nuclear reactors:
o Pressurized Water Reactor (PWR)
o Boiling Water Reactor (BWR)
o Heavy Water Reactors (e.g., CANDU)
o Gas-cooled Reactors (AGR, HTGR)
o Fast Breeder Reactors
o Molten Salt Reactors
o Small Modular Reactors (SMRs)
• Components of a nuclear power plant:
o Reactor core and control rods
o Heat exchangers and steam generators
o Turbine and generator systems
o Cooling towers and containment structures
• Reactor physics: neutron moderation, multiplication factor, criticality
• Control and instrumentation systems
• Emergency shutdown systems (SCRAM)

Module 3: The Nuclear Fuel Cycle
• Front-end of the fuel cycle:
o Uranium mining and milling
o Conversion and enrichment (gaseous diffusion, centrifuge)
o Fuel fabrication (pellets, rods, assemblies)
• In-core phase:
o Fuel burnup
o Neutron economy
• Back-end of the fuel cycle:
o Spent fuel storage (wet and dry)
o Reprocessing technologies (PUREX, UREX)
o Final disposal: geological repositories

Module 4: Radiation Protection and Health Physics
• Types and sources of radiation
• Radiation interaction with matter
• Biological effects of radiation (stochastic and deterministic effects)
• Measurement units: Becquerel, Gray, Sievert
• Radiation monitoring and detection instruments (Geiger-Müller counters, dosimeters)
• ALARA principle (As Low As Reasonably Achievable)
• Protective measures and shielding
• Occupational dose limits and personal dosimetry

Module 5: Nuclear Waste Management
• Classification: Low, Intermediate, and High-Level Waste
• Treatment techniques: compaction, incineration, vitrification
• Storage methods: on-site vs. off-site, dry cask vs. pool storage
• Deep geological disposal (e.g., Yucca Mountain concept)
• Transmutation and partitioning technologies
• International best practices in waste management

Module 6: Regulatory Framework and Licensing
• Role of the International Atomic Energy Agency (IAEA)
• International treaties and conventions:
o Nuclear Non-Proliferation Treaty (NPT)
o Convention on Nuclear Safety
o Joint Convention on Waste and Spent Fuel
• National regulatory bodies (e.g., NRC in the U.S., ASN in France)
• Licensing and permitting process:
o Site approval
o Construction license
o Operating license
o Decommissioning license
• Compliance monitoring, inspections, and audits

Module 7: Nuclear Security, Safeguards, and Non-Proliferation
• Physical protection of nuclear materials
• Insider threats and cyber-security measures
• IAEA safeguards: material accounting, surveillance
• Nuclear forensics and trafficking prevention
• Export controls and international collaboration
• Emergency preparedness and response planning

Module 8: Civil and Industrial Applications of Nuclear Technology
• Nuclear medicine:
o Radiopharmaceuticals (e.g., Tc-99m)
o Diagnostic imaging (PET, SPECT)
o Cancer treatment (brachytherapy, radiotherapy)
• Industrial applications:
o Radiography for weld inspection
o Gauging and material thickness
o Food irradiation
• Scientific research: nuclear research reactors, isotopic tracing

Module 9: Environmental, Safety, and Economic Aspects
• Environmental impact of nuclear power:
o Carbon footprint comparison
o Thermal pollution and water use
• Nuclear accidents and lessons learned:
o Three Mile Island
o Chernobyl
o Fukushima
• Economic analysis of nuclear power:
o Capital and operational costs
o Levelized Cost of Electricity (LCOE)
o Subsidies, incentives, and insurance
• Public perception and communication strategies

Module 10: Future Trends and Innovations in Nuclear Energy
• Advances in reactor technology:
o Generation III and IV designs
o SMRs and floating nuclear plants
• Fusion energy:
o Principles of fusion
o ITER project overview
o Challenges and prospects
• Hybrid energy systems (nuclear + renewables)
• Artificial intelligence in nuclear plant operations
• Climate change mitigation and the role of nuclear energy

End of the workshop

IN HOUSE AND ONLINE TRAINING

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While both In-House and Online training can present with cost-effectiveness and time-efficacy, there are some very specific differences between in-house courses and those based online.
The demand for additional courses by individuals or groups of people is increasing. Still, it depends entirely on the preferences of a person what type of training he or she wants to receive. Online courses and in-house training carry some similarities but they are considered to exhibit some very pivotal differences too. Despite that, both types of learning can be really beneficial for attendees.

For Registration and other Training arrangements,
contact us on the detail below.

SOUTH AFRICA : +27 11 057 6001
TANZANIA Cell: +255 769 688 544
WhatsApp +27 79 574 0389
info@bmktraining.co.za / www.bmktraining.com