Power Generation Training Courses > Generation-IV Nuclear Reactors - Advantages and Challenges of Innovative Nuclear Systems
Code Date Format Currency Team of 10
Per Person*
Team of 7
Per Person*
Early Bird Fee
Per Person
Normal Fee
Per Person
PWR1470 06 - 09 Jul 2026 Kuala Lumpur, Malaysia SGD 3,955 4,139 4,399 4,599
PWR1470 06 - 09 Jul 2026 Kuala Lumpur, Malaysia USD 3,095 3,239 3,399 3,599
PWR1470 06 - 10 Jul 2026 Abu Dhabi, United Arab Emirates USD 3,611 3,779 3,999 4,199
PWR1470 06 - 09 Jul 2026 Manila, Philippines USD 3,267 3,419 3,599 3,799
PWR1470 06 - 09 Jul 2026 Yogyakarta, Indonesia USD 3,095 3,239 3,399 3,599

*Fee per person in a team of 7 or 10 participating from the same organisation, registering 6 weeks before the course date
Request for a quote if you have different team sizes, content customisation, alternative dates or course timing requirements
Request for in-person classroom training or online (VILT) training format

Learn in teams and save more! Enjoy group discounts of up to 50% off normal fees for team based learning. Contact us on [email protected] to learn more today!

Code

PWR1470

Date

06 - 09 Jul 2026

Format

Kuala Lumpur, Malaysia

Currency

SGD

Team of 10
Per Person*

3,955

Team of 7
Per Person*

4,139

Early Bird Fee
Per Person

4,399

Normal Fee
Per Person

4,599

Code

PWR1470

Date

06 - 09 Jul 2026

Format

Kuala Lumpur, Malaysia

Currency

USD

Team of 10
Per Person*

3,095

Team of 7
Per Person*

3,239

Early Bird Fee
Per Person

3,399

Normal Fee
Per Person

3,599

Code

PWR1470

Date

06 - 10 Jul 2026

Format

Abu Dhabi, United Arab Emirates

Currency

USD

Team of 10
Per Person*

3,611

Team of 7
Per Person*

3,779

Early Bird Fee
Per Person

3,999

Normal Fee
Per Person

4,199

Code

PWR1470

Date

06 - 09 Jul 2026

Format

Manila, Philippines

Currency

USD

Team of 10
Per Person*

3,267

Team of 7
Per Person*

3,419

Early Bird Fee
Per Person

3,599

Normal Fee
Per Person

3,799

Code

PWR1470

Date

06 - 09 Jul 2026

Format

Yogyakarta, Indonesia

Currency

USD

Team of 10
Per Person*

3,095

Team of 7
Per Person*

3,239

Early Bird Fee
Per Person

3,399

Normal Fee
Per Person

3,599

*Fee per person in a team of 7 or 10 participating from the same organisation, registering 6 weeks before the course date
Request for a quote if you have different team sizes, content customisation, alternative dates or course timing requirements
Request for in-person classroom training or online (VILT) training format

About this Classroom Training

As the global energy landscape evolves, nuclear power is expected to play an increasingly important role in providing reliable and low-carbon energy. A new generation of advanced nuclear systems, grouped under the term Generation-IV Reactors, is being developed worldwide to improve fuel utilisation and reduce waste, enhance safety, and minimise proliferation risks, while remaining economically competitive with other energy sources. The Generation-IV International Forum (GIF) has identified six reference systems: the Supercritical-Water-cooled Reactor (SCWR), Very-High-Temperature Reactor (VHTR), Gas-cooled Fast Reactor (GFR), Sodium-cooled Fast Reactor (SFR), Lead-cooled Fast Reactor (LFR), and Molten Salt Reactor (MSR).

This 4-day course provides participants with a structured introduction to these systems through a comparative approach. Each reactor type will be discussed in terms of its general concept, key features, advantages and challenges, and examples of designs. In addition to lectures and discussions, participants will be expose to a reactor modelling project. Using provided geometry, material properties, power, and coolant data, they will solve one-dimensional radial heat transfer problems to estimate fuel, structural, and coolant temperatures under steady-state and simple transient conditions. The project concludes with group presentations, enabling direct cross-comparison of results across all reactor types. Through this combination of lectures, guided discussions, and modelling exercises, participants will gain both conceptual knowledge and practical skills.

This course will be delivered face-to-face over 4-day sessions, comprising of 8 hours per day, 1 hour lunch and 2 breaks of 15 minutes per day. Course Duration: 26 hours in total, 26 CPD points.

By the end of this 4 days training course, participants will be able to:

  • Describe the main features, advantages, and challenges of the six Generation-IV reactor systems.
  • Compare Generation-IV designs with one another and with the current Generation-III Pressurized Water Reactor.
  • Gain hands-on experience by solving simplified steady-state and transient heat transfer problems for different reactor types.
  • Present and critically discuss results across reactor systems.

This course has been designed for professionals working in the energy sector looking to further develop their careers to keep up to date on emerging technologies.

  • Nuclear Engineers seeking to expand their knowledge of Generation-IV reactor concepts and comparative system features.
  • Reactor Designers and Analysts interested in the advantages, challenges, and applications of innovative nuclear systems.
  • Researchers researching advanced reactor physics, thermal-hydraulics, or Generation-IV technologies.
  • Project Managers overseeing nuclear development projects where emerging reactor concepts are under consideration.
  • Energy Analysts and Consultants evaluating the role of advanced reactors in future energy strategies.
  • Early-Career Professionals looking for a structured introduction to Generation-IV systems and hands-on reactor modelling experience.
  • Basic
  • Intermediate

This course will provide comprehensive learning resources, including course materials for future reference. Each topic will commence with a clearly defined intended learning outcome (LO). The learning experience will be enriched through diverse activities such as quizzes, videos, and assessments, ensuring engagement and understanding. In addition to the core material, participants will have access to additional resources like articles, case studies, and tools. The course structure incorporates interactive elements, such as group discussions, case studies, and practical exercises, enhancing hands-on learning experiences. Q&A sessions will provide opportunities for clarifications and deeper understanding.

Your expert instructor is a nuclear engineer and reactor physicist specialising in industry-oriented safety assessment and design support for advanced nuclear systems. He has worked at the Paul Scherrer Institute (PSI) in Villigen, Switzerland, for 23 years, where he is Group Leader of the Advanced Nuclear Reactors Group. His work focuses on turning complex fast-reactor safety questions into practical, decision-ready analyses through the development, verification, and application of computational tools and coupled neutronics/thermal-hydraulics/fuel behaviour methods for Sodium-, Lead-, Gas-cooled Fast Reactors and Molten Salt Reactors, including transient and beyond-design-basis behaviour.

He is known for bridging R&D and deployment needs by converting safety requirements into validated models, tools, and training material used by multidisciplinary teams. Before joining PSI, he worked at the Russian Research Centre “Kurchatov Institute” in Moscow, supporting the development and licensing work for the BREST-OD-300 lead-cooled fast reactor. He brings substantial program leadership and multi-stakeholder experience, having coordinated the Horizon-2020 ESFR-SMART project (EUR 10M, 19 partners), collaborating closely with industry, research organisations, and regulatory bodies to deliver research tools and safety measures assessment approaches.

For a decade, he has served as co-chair of the Generation IV International Forum (GIF) Education & Training Working Group, supporting and managing a webinar series that now includes 100+ webinars for the global advanced-reactor community. In current role, he contributes to physics-based technical due diligence and independent expert assessment, covering reactor physics, safety, and systems engineering, to support investment decision-making and reduce technical risk. He also supports analysis for the broader nuclear sector, including advanced modelling and simulation and safety-oriented evaluation for organisations developing or deploying nuclear technologies. He additionally supports the IAEA contributing to TECDOC preparation and to activities connected with safety standards and Coordinated Research Projects (CRPs). He has delivered numerous professional trainings and lectures internationally and has trained more than 200 professionals worldwide.

Unlock the potential of your workforce with customized in-house training programs designed specifically for the energy sector. Our tailored, in-house courses not only enhance employee skills and engagement but also offer significant cost savings by eliminating travel expenses. Invest in your team’s success and achieve specific outcomes aligned with your organization’s goals through our expert training solutions. Request for further information regarding our on-site or in-house training opportunities.

In our ongoing commitment to sustainability and environmental responsibility, we will no longer providing hard copy training materials. Instead, all training content and resources will be delivered in digital format. Inspired by the oil and energy industry’s best practices, we are leveraging on digital technologies to reduce waste, lower our carbon emissions, ensuring our training content is always up-to-date and accessible. Click here to learn more.

To further optimise your learning experience from our courses, we also offer individualized “One to One” coaching support for 2 hours post training. We can help improve your competence in your chosen area of interest, based on your learning needs and available hours. This is a great opportunity to improve your capability and confidence in a particular area of expertise. It will be delivered over a secure video conference call by one of our senior trainers. They will work with you to create a tailor-made coaching program that will help you achieve your goals faster.
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1. What are Generation-IV nuclear reactors, and how do they differ from current reactors?

Generation-IV nuclear reactors are advanced reactor concepts designed to succeed today’s Generation-III systems. They aim to improve sustainability, safety, economics, and proliferation resistance through new coolant types, fuel cycles, and operating conditions. Unlike conventional light-water reactors, many Gen-IV designs operate at higher temperatures, lower pressures, or with fast neutron spectra. These features enable better fuel utilisation, reduced long-lived nuclear waste, and enhanced passive safety characteristics, while also supporting non-electric applications such as industrial heat and hydrogen production.

2. What are the main types of Generation-IV reactor systems?

The Generation-IV International Forum has identified six reference reactor systems: Supercritical Water-Cooled Reactor (SCWR), Very-High-Temperature Reactor (VHTR), Gas-Cooled Fast Reactor (GFR), Sodium-Cooled Fast Reactor (SFR), Lead-Cooled Fast Reactor (LFR), and Molten Salt Reactor (MSR). These systems differ mainly in coolant choice, neutron spectrum, fuel configuration, and operating temperature. Each design targets specific goals, such as high thermal efficiency, actinide recycling, improved safety margins, or process-heat applications.

3. What advantages do Generation-IV reactors offer over Generation-III reactors?

Generation-IV reactors offer several potential advantages, including higher thermal efficiency, improved fuel utilisation, and reduced radioactive waste generation. Many designs incorporate inherent or passive safety features that rely on physical principles rather than active systems. Fast-spectrum reactors can transmute long-lived actinides, reducing the burden on geological repositories. Additionally, high-temperature designs can support industrial heat, hydrogen production, and synthetic fuels, expanding the role of nuclear energy beyond electricity generation.

4. What are the key technical challenges facing Generation-IV reactors?

Major challenges include materials performance under high temperature, radiation, and corrosive environments; qualification of advanced fuels; and long-term reliability of novel coolants such as liquid metals or molten salts. Licensing and safety demonstration are also significant hurdles, as many Gen-IV concepts depart from existing regulatory experience. Fuel-cycle infrastructure, waste management strategies, and supply-chain readiness must be developed in parallel to enable commercial deployment.

5. How do fast-spectrum Generation-IV reactors support advanced fuel cycles?

Fast-spectrum reactors enable efficient breeding and transmutation because fast neutrons interact more effectively with heavy actinides. This allows conversion of fertile materials into fissile fuel and burning of transuranic elements that dominate long-term radiotoxicity. As a result, fast reactors support closed fuel cycles with reduced waste volumes and improved resource utilisation. These capabilities are central to long-term nuclear sustainability strategies.

6. What role does safety play in Generation-IV reactor design?

Safety is a core design objective of Generation-IV systems. Many concepts rely on low operating pressure, strong negative temperature feedbacks, and passive heat removal to limit accident progression. Instead of focusing primarily on high-pressure containment, safety strategies often emphasize material integrity, thermal inertia, and simplified system layouts. This shift aims to reduce both the likelihood and consequences of severe accidents while improving public and regulatory confidence.

7. What non-electric applications can Generation-IV reactors support?

High-temperature Generation-IV reactors can provide process heat for hydrogen production, desalination, synthetic fuel manufacturing, and other industrial applications. Outlet temperatures significantly higher than those of conventional reactors make them suitable for coupling with thermochemical hydrogen cycles or high-efficiency electrolysis. These applications position nuclear energy as a broader decarbonisation tool beyond grid electricity, particularly for hard-to-abate industrial sectors.

8. What is the future outlook for Generation-IV nuclear reactors?

Generation-IV reactors are expected to progress through demonstration and pilot deployments over the coming decades rather than immediate large-scale rollout. Their future depends on successful materials qualification, regulatory adaptation, cost control, and alignment with national energy strategies. While near-term nuclear deployment will likely rely on Generation-III and small modular reactors, Generation-IV technologies are viewed as a long-term solution for sustainable, flexible, and low-carbon energy systems.

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