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The Super Critical Water Reactors System Steering Committee (SCWR SSC) was initially formed following the signing of the SCWR System Arrangement in 2006. This FA expired in early 2025. A new SCWR FA has been proposed under the current 2025 GIF FA. It will become effective once three signatories are gathered. The resulting committee goal is to supervise four projects encompassing a wide array of subjects pertaining to Super Critical Water Reactors.

The Very High Temperature Reactor System Steering Committee (VHTR SSC) was initially established under the now expired 2005 GIF Framework Agreement after the VHTR System Arrangement was signed in 2006. The new VHTR SA became effective in 2025 under the new 2025 GIF Framework Agreement. This committee oversees four projects that cover a broad range of topics related to Very High Temperature Reactors. The VHTR, along with Sodium Fast Reactors, is one of the Generation IV systems that has commercial-scale power reactors in operation today and has also had several in operation previously.

The provisional System Steering Committee for Molten Salt Reactors (MSR pSSC) was intially established after the MSR Memorandum of Understanding was signed in 2010. A new MSR MoU has been opened for signatures under the new 2025 GIF Framework Agreement. Once three signatures are gathered it will for the new GIF MSR pSSC. This committee goal is to explore a broad range of topics related to Molten Salt Reactors. 

The first GIF provisional System Steering Committee for Lead Fast Reactors (LFR pSSC) was established after the LFR Memorandum of Understanding was signed in 2010. In 2025, under the new 2025 GIF Framework Agreement, a new version of the GIF LFR MoU was opened for signature. It will become effective once three signatures are gathered. The resulting committee is aimed at exploring a broad range of topics related to Lead Fast Reactors. One LFR is currently under construction and about a dozen are under development around the world. 

DISCLAIMER: The entry into force of the 2025 GIF Framework Agreement on 1st March 2025 brings changes to the GIF membership. The website will be updated in due course to reflect these changes.

Since its inception in 2001 the Generation IV has been coordinating and implementing a broad range of activities aimed at fostering international cooperation to advance the development and deployment of Generation IV Nuclear Energy Systems. The core of GIF activities is carried out by its System Steering Committees and its Working Groups and Task Forces. 

The main focus of GIF was defined in the GIF Charter:

The general framework for GIF activities and its organisational structure have been outlined in the founding agreements of the GIF and are then detailed in the policy statements by the GIF Policy Group.

DISCLAIMER: The entry into force of the 2025 GIF Framework Agreement on 1st March 2025 brings changes to the GIF membership. The website will be updated in due course to reflect these changes.

On this page you will find the list of all the GIF Webinars.

The first table lists all the Webinars from the Education and Training series.

The second table lists all the Webinars from the GIF Talks with Industry series.

The GFR system is a high-temperature helium-cooled fast-spectrum reactor with a closed fuel cycle. It combines the advantages of fast-spectrum systems for long-term sustainability of uranium resources and waste minimisation (through fuel multiple reprocessing and fission of long-lived actinides), with those of high-temperature systems (high thermal cycle efficiency and industrial use of the generated heat, for hydrogen production for example).

LFR (Lead-cooled Fast Reactor) systems are reactors cooled by liquid lead (Pb) or, in very few cases, by lead-bismuth (Pb-Bi) alloy and operating in the fast neutron spectrum at atmospheric pressure and high temperature. Many advantages of the LFR system are related to its choice of coolant: lead has a very high boiling point (up to 1743°C), favorable neutronic and radiation shielding properties as well as its benign interaction with water and air. 

The Sodium-cooled Fast Reactor (SFR) utilizes liquid sodium as a coolant and functions within the fast neutron spectrum, which facilitates a high power density and the advantage of low-pressure operation. Despite ongoing challenges in its development, SFRs draw on the collective experience of over 20 reactors globally, amounting to more than 400 reactor-years of operation. This extensive experience has progressively improved the safety and reliability of these reactors.

The Very High Temperature Reactor (VHTR), one of six Gen IV nuclear system candidates, is designed for electricity and heat cogeneration, and its high outlet temperature is ideal for hydrogen production and use in the chemical, oil, and iron industries. Drawing on operational experience from past or operating gas-cooled reactors in five countries, the VHTR features TRi-structural ISOtropic (TRISO) fuel, helium coolant, and low power density that supports passive decay heat removal.

Molten Salt Reactors (MSRs) are a class of nuclear fission reactors where molten salts serve as the reactor fuel, coolant, and / or moderator. Research on MSRs began early in the development of nuclear energy. These reactors can operate at lower pressures (ambient) and higher temperatures compared to conventional water-cooled reactors.