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"All About ITER," ITER's first podcast miniseries, is now available through  the only 24/7 English-speaking national radio channel in France. If you haven't heard about it already, "All About ITER" is a miniseries with six episodes that dive deep into what makes ITER tick: from the science behind fusion, to the manufacturing taking place all over the world, to the people behind the project.

You can listen to "All About ITER" live on World Radio Paris (WRP) between the weeks of 7 March and 16 May (schedule below), on the WRP website, or by downloading the WRP app.

And if you're not in France, the ITER podcast "All About ITER" is available on , , , , ,  and the ITER website.

Schedule: World Radio Paris
Mondays, 2 p.m.
Tuesdays, 11 a.m.
Fridays, 7 p.m.
Episode 1: Week of 7 March
Episode 2: Week of 21 March
Episode 3: Week of 4 April
Episode 4: Week of 18 April
Episode 5: Week of 2 May
Episode 6: Week of 16 May

A theoretical physicist, but one who views theory as something "to be put to use," Alain Bécoulet can speak (and write) about fusion in terms that are both simple and inspiring. In his recently published Star Power: ITER and the International Quest for Fusion Energy (MIT Press), he offers a concise and accessible overview of fusion energy promises and challenges, not only explaining the underlying science and technology but also describing the massive international effort to harness this potential new energy source.

Having embraced plasma physics in the mid-1980s as a student at France's prestigious École Normale Supérieure, Bécoulet draws from his long experience in fusion research, first at France's Institute for Magnetic Fusion Research (IRFM), and since February 2020 as head of the ITER Engineering Domain, to explain how the long-pursued dream of harnessing the energy of the Sun and stars is on the verge of becoming reality.

Find out more .

In this ITER Talk, the seventh in the series, ITER scientific expert Joseph Snipes walks us through plans for ITER operation. What does the "Q" in ITER's goal of Q=10 stand for? How will the machine and its systems be prepped for operation? What are the different steps between First Plasma and full fusion power operation?

The ITER Research Plan will proceed in four stages—a careful step-by-step strategy designed to achieve high plasma performance operation up to a plasma current of 15 MA, with key milestones along the way. Learn about the staggered assembly of key systems, the specific goals of each operation phase, the means to achieve the goals, and the importance of robust plasma control. By the end of the talk, you'll know (a lot) more about the unique capabilities of the ITER experimental device.

A note to viewers: This ITER Talk goes hand in hand with ITER Talk (6)—"Tokamak Physics for Nuclear Fusion" by the head of the ITER Science Division Alberto Loarte (viewable ).

Watch the seventh episode of ITER Talks .

See the full ITER Talks playlist on YouTube .

Alberto Loarte, head of the Science Division at the ITER Organization, introduces us to the physics of ITER plasmas and explains how the physics justifies the design of the machine. He reviews the deuterium-tritium nuclear fusion process, the role of magnetic fields in fusion, the specificities of the tokamak configuration, energy and particle confinement, heating and fuelling, and finally fusion power, particle exhaust and plasma-wall interactions. And he does it all in a clear and understandable way!

A note to viewers: This ITER Talk goes hand in hand with ITER Talk (7)—"The ITER Research Plan: How to Reach Q=10" by ITER scientific expert Joseph Snipes (viewable on the ITER YouTube channel .

Watch the sixth episode of ITER Talks .

See the full ITER Talks playlist on YouTube .

There are presently two approaches to realizing hydrogen fusion. One, implemented in tokamaks and stellarators, consists in heating a very tenuous plasma to temperatures in the 100 million degrees Celsius range and to confine it in a magnetic cage—this is magnetic fusion. Another, called inertial fusion, is implemented in installations such as the American National Ignition Facility (NIF) or the French Laser Mégajoule. In inertial fusion an array of hundreds of powerful lasers, precisely focused, is used to compress to extreme density (and hence very high temperature) tiny hydrogen-filled capsules inside which fusion reactions can occur.

Now, a third approach is being considered and experimented at , in Cleveland, Ohio. Called "lattice confinement fusion," it could one day provide enough power to operate small space probes or rovers for planetary exploration.

In lattice confinement fusion (LCF), a beam of gamma rays is directed at a sample of erbium or titanium saturated with deuterium nuclei (deuteron). Occasionally, gamma rays of sufficient energy will break apart a deuteron in the metal lattice into its constituent proton and neutron. The energetic neutron has a chance of colliding with another deuteron in the lattice, imparting it with some of its energy. And sometimes that energy is enough for deuterons to fuse into a helium-3 nucleus (helion) and give off useful energy. A leftover neutron could provide the push for another energetic deuteron elsewhere in the lattice.

"Our work represents just the first step toward realizing that goal," say the scientists involved in this endeavour. "If the reaction rates can be significantly boosted, LCF may open an entirely new door for generating clean nuclear energy, both for space missions and for the many people who could use it here on Earth."

 Read more about lattice confinement fusion on the IEEE Spectrum .

During the operation of a fusion machine, it is important to know the surface composition of the plasma-facing components, which can evolve over time (erosion, oxidation...) and modify plasma interaction conditions.

The team at the WEST tokamak in France is testing a new kind of diagnostic, called the fibered LIBS (for Laser-Induced Breakdown Spectroscopy), to characterize internal surfaces of WEST and later ITER. 

In LIBS, a high-intensity pulsed laser beam is focused on the surface to be analyzed. The laser/matter interaction leads to the ablation of the material and the creation of a plasma plume. The spectral analysis of the plasma emission gives access to the elemental composition of the ablated material and thus the composition of the material under study.

Installed on an inspection robot equipped with an articulated arm, the LIBS tool consists of an optical fibre carrying the incident laser light and the light emitted during the interaction of the laser beam with the material under study. The diagnostic can not only characterize all internal surfaces of the machine and follow their evolution, but also (in ITER) monitor tritium concentration in the first wall and detect eventual helium bubbles in plasma-facing components coming from the interaction of fusion neutrons with the materials.

The first tests were carried out in December 2021. Read the original article in or in .

Mark your calendars: The Head of ITER's Science Division, Alberto Loarte, will be giving a webinar on 2 February 2022 called "Burning Plasma Aspects at ITER."

The talk is part of a webinar series organized by the U.S. Burning Plasma Organization (USBPO) that runs from January through August 2022 with one or two webinars a month. (See the full program .) 

The U.S. Burning Plasma Organization (USBPO) is a national organization of scientists and engineers involved in researching magnetically confined burning fusion plasmas.

To sign up for "Burning Plasma Aspects at ITER," see .

The global manufacturing intelligence firm Hexagon AB is providing metrology support to ITER for the precise assembly of components during the machine assembly phase. In this promotional video you can watch how the huge components of ITER's first vacuum vessel sub-assembly are brought together with assembly tolerances of just 1 mm.

See the video .

The 59th Culham Plasma Physics Summer School will take place from 18 to 28 July 2022 at the Culham Science Centre in Oxfordshire (UK).

The aim of the Summer School is to provide an introduction to the fundamental principles of plasma physics, together with a broad understanding of its fields of application. It assumes no previous knowledge of the subject, but familiarity with electromagnetism and applied mathematics at first degree level would be helpful.

The 2022 school will cover fundamental plasma physics, as well as important topics in fusion, astrophysical, laser and low temperature plasmas. Lecturers are drawn from the Culham Centre for Fusion Energy (CCFE), the Rutherford Appleton Laboratory (RAL) together with leading European universities. All are renowned experts in their fields.

Special arrangements are being made this year to allow for COVID. For more details and to apply visit the .

The deadline for applications is 20 June 2022.

Scientists from the European research consortium EUROfusion have recently completed ambitious fusion energy experiments at the world-leading fusion research facility JET (Joint European Torus) at the UK Atomic Energy Authority in Oxford, UK. Join them for a media event on Wednesday 9 February 2022 at 12pm - 2pm GMT as they reveal the exciting results.

to link to the media event.

On Friday, 11 February 2022—International Day of Women and Girls in Science— and the  will be hosting a webinar on the role of Women in Big Science. The session will bring together representatives from big science organizations, industry and policy in Europe to discuss the potential of women in big science and some of the long-lasting challenges they face.

The idea of an award promoting best practice involving women in big science will also be discussed.

Registration is open .

For 15 years ITER has been opening its doors to visitors, either in small groups or during regular Open Doors Days. Approximately 160,000 visitors from all horizons—school children, students, members of the public, companies, politicians—have passed through the ITER gates since 2007, returning home with a better idea of the scale and importance of ITER and of the passion that animates the men and women who work here.

Because in-person Open Door Days have been impossible for the past two years, the ITER Communication team innovated in 2021, creating a virtual experience on line for "visitors" from around the world.

Demonstrations, livestreams from the worksite, videos, presentations, virtual reality ... there is something for everyone.

The three-hour event is now available in replay. Follow to view it.

The 11th ITER International School will be held from 25 to 29 July 2022, hosted in person by the U.S. Burning Plasma Organization, University of California at San Diego, and General Atomics.

The subject of this year's school is "ITER Plasma Scenarios and Control." As the start of ITER operation approaches, it is timely to address this challenging multidisciplinary topic: the development of integrated operating scenarios and required plasma control to facilitate the ITER goals, particularly for plasmas self-heated by fusion-born alpha particles.

The ITER International School is organized regularly with the goal of giving young scientists and engineers a taste of the stimulating, multi-disciplinary and challenging field that is nuclear fusion.

For all information on the 2022 edition, see .

Carlos Alejaldre, who was an ITER Organization Deputy-Director-General from 2006 to 2015 and who is the current Director-General of CIEMAT (Centro de Investigaciones Energéticas, Medioambientales y Tecnológicas), the Spanish public research agency focused on energy and the environment, has been appointed as the new Chair of the Fusion for Energy (F4E) Governing Board.

A plasma physicist by training, Carlos has held several important positions in fusion research. Prior to joining ITER, he headed CIEMAT's national fusion laboratory (1992-2004) and was for two years (2004-2006) the director general of technological policy at the Spanish ministry of Education and Science. At ITER, he was head of the Safety and Security Department.

Alejaldre will act as Chair of the F4E Governing Board, the body that supervises the activities of the European Joint Undertaking for ITER and the development of fusion energy, for an initial period of two years starting on 1 January 2022. 

See the for more information. 

In a rare and memorable moment, the Joint European Torus (JET) team today received His Royal Highness the Prince of Wales for a tour and first-hand discussion of fusion energy. Long known as an advocate of environmental awareness and sustainable energy, Prince Charles was, according to UKAEA CEO Ian Chapman, "keen to understand more about how fusion can be a critical piece of the future global energy puzzle." Together with European and UK officials, ITER Chief Scientist Tim Luce was present to meet the Prince of Wales and explain the JET-ITER connection.

Currently the world's most powerful tokamak, JET is a direct precursor to ITER, and recently celebrated the completion of its 100,000th pulse. New scientific results from the most recent JET deuterium-tritium campaign will be released in February.

During his visit, the Prince of Wales was introduced to ITER by Tim Luce, head of the ITER Science & Operations Domain (left).

See the official UK government press release .

On 17 December 2021, the Fusion Energy Forum of Japan (FEFJ) held its annual Symposium on the ITER Project and Broader Approach* activities. Featuring speakers from government, business, academia, and science, the 4.5-hour event covered fusion energy policy in Japan, progress in domestic and international fusion projects (including ITER and the Broader Approach), frontiers in research, and industrial applications.

See all speakers and presentations at . 

Watch the event on YouTube or with a .  

* The Broader Approach activities, financed by Europe and Japan, aim to accelerate the realization of fusion energy. Find out more .

Since its inauguration in 1983 in the presence of Her Majesty Queen Elizabeth II, the European tokamak JET has cemented its reputation as "one of the most important machines in the history of fusion energy research," according to Ian Chapman, CEO of the UK Atomic Energy Authority. On 18 January 2022, the machine ran its 100,000th plasma pulse.

JET, for Joint European Torus, is the focal point of the European fusion research program, designed to study fusion in conditions approaching those needed for a power plant. It is the only experiment that can operate with the deuterium-tritium fuel mix that will be used for commercial fusion power (and in ITER).

In 1997 JET successfully produced a world record 22.5 megajoules of fusion energy and 16 megawatts of fusion power during the first dedicated deuterium-tritium experiments, proving large amounts of power can be produced from fusion.

In 2011 JET was equipped with a new ITER-like inner wall made of beryllium and tungsten metals, enabling scientists to develop plasma scenarios that resemble as closely as possible those planned for ITER, investigate the interaction of the plasma with wall materials, and study the accumulation of tungsten from the wall in the plasma core.

In 2021, JET carried out a second full-power run of experiments using deuterium and tritium. Stay tuned: the results from these experiments will be announced in early February 2022.

The JET facilities located at the Culham Centre for Fusion Energy () in Abingdon, Oxfordshire UK, are collectively used by all European fusion laboratories under the . About 350 scientists from EU countries (plus Switzerland, the UK and Ukraine), and more from around the globe, participate in JET experiments each year. CCFE is responsible for operating the facility for fusion researchers and for maintaining and upgrading it. This work is carried out under a contract between the European Commission and the UK Atomic Energy Authority (CCFE's operator). 

The ITER community congratulates the JET team on its 100,000th pulse!

Thesis supervisors are invited to nominate a student for the 2021 FuseNet Master Thesis Prize by 10 February 2022.

FuseNet will award the prizes to students who write outstanding Master's theses that were (at least partially) carried out and completed across Europe. The prizes serve to highlight the important research that is carried out by dedicated and talented fusion students.

As a prize, the winners will be invited to present their work as a poster at the 48th European Physical Society Conference of Plasma Physics held in Maastricht, the Netherlands, from 27 June to 1 July 2022. Travel, subsistence, and fees will all be covered by FuseNet.

Learn more about the prize on the FuseNet .

The size and weight of major ITER components, the careful handling, tiny assembly tolerances, the breadth of manufacturers, the tight schedule, complex interfaces ... all of these elements combine to make the assembly of the ITER machine an engineering and logistics challenge of enormous proportions.

In this new ITER Talks video, two members of the Construction Domain—Jens Reich (Ex-Vessel Delivery & Assembly Division Head) and Brian Macklin (Group Leader for Ex-Vessel Assembly)—describe how teams have planned for the assembly of the 23,000-tonne ITER machine, how the sequences are unfolding, what the main challenges are, and what lessons have been learned since the first machine assembly activity was launched in 2018.

Watch the fifth episode of the ITER Talks .

See the full ITER Talks playlist on YouTube .

The ITER Organization has launched the procurement for the Hot Cell Facility Project Integrator. 

The ITER Hot Cell Facility is the maintenance and refurbishment facility supporting tokamak operation. The role of the Project Integrator will be to prepare and promote the collaboration to realize the ITER Hot Facility, working with both the clients and first-tier contractors through all project phases.

For companies interested in learning more about the Hot Cell Facility Project Integrator contract, a virtual procurement Information Day will be organized on 24 January 2022. 

Register  by 20 January.

The deadline for this Call for Nomination is 28 January 2022.