ºÚÁÏÉçapp

Two months after the announcement of a ?86 million government investment in the UK's nuclear fusion research program, the UK's Atomic Energy Authority (UKAEA) met with more than 80 industry stakeholders on 16 January in Oxford to present opportunities for the nuclear industry to get involved and secure major contracts with ºÚÁÏÉçapp.

The government investment will support the UKAEA's plan to build a National Fusion Technology Platform at its Culham Science Centre. The platform will consist of two centres of excellence which, according to the Head of the UKAEA, Ian Chapman, would help in making commercial fusion a reality:

- the Hydrogen-3 Advanced Technology (H3AT) centre to research how to process and store tritium, with a direct link to ºÚÁÏÉçapp's development;
- and the Fusion Technology Facilities (FTF) to develop thermal hydraulic tests for components under fusion conditions. 

Both centres open up opportunities for British industry. Partnering with UKAEA will support industry in preparing to bid for forthcoming multi-million-pound ºÚÁÏÉçapp contracts. 

Read the full article on the UKAEA website .

While ºÚÁÏÉçapp takes shape, plasma physicists continue searching for answers to some rather tough questions. What causes a plasma to go from a weakly confined, turbulent state to a more defined and calmer state which is necessary for fusion to occur? Answering this question, scientists from the Princeton Plasma Physics Laboratory, the University of California and the Massachusetts Institute of Technology join forces to simulate tokamak plasmas.

With the help of a supercomputer located at the Oak Ridge National Laboratory (ORNL) called Titan, the research team uncovered for the first time the basic physics behind a plasma's transition into the high-confinement or H-mode.

Future simulations will study the transition of a plasma into H-mode at ºÚÁÏÉçapp scale. An issue of crucial importance is the right balance between the core temperature of a plasma and the temperature at its edge, which will have an effect on the size of the plasma.

These simulations are of unprecedented scale. Only with such high-performance computing resources such as Titan involving over 18,000 graphic processing units (GPUs) and close to 300,000 central processing units (CPUs), can problems of such great scientific complexity and importance be addressed.

See the full article on the ORNL website .

Early January, ºÚÁÏÉçapp's Director-General spoke with Foro Nuclear, the Spanish nuclear industry forum. The exchange covered the challenge of leading a multicultural project, the critical phase ahead as ºÚÁÏÉçapp begins assembly activities, and Bernard Bigot's conviction that there is nothing more exciting, more motivating, than contributing to a project that could change the course of civilization for hundreds of thousands of years.

Excerpts below

On managing one of the world's largest research projects:

I accepted the Council's offer at a crucial moment in ºÚÁÏÉçapp history, when the project was entering into manufacturing and preparations for assembly. This new phase required a new organization¡ªone tailored to meet the double challenge of delivering an installation that is both a research facility and an industrial facility.  What we needed at that point and need even more today was integration.

ºÚÁÏÉçapp is a complex structure, with a central team here in France and seven "domestic agencies" emanating from the seven ºÚÁÏÉçapp Members that are responsible for the in-kind procurement of machine components and installation systems. To achieve this integration, we needed a clear, centralized decision-making process under the authority of the Director-General. This being established and accepted by all, we could move on, as "One ºÚÁÏÉçapp," to promote and establish a project culture based on shared values of excellence, adherence to commitments, adherence to schedule and budget, and careful and effective use of public funds. And all the while making safety and quality our highest priority.

On striving for excellence in a multicultural environment:

How do we achieve harmony and efficiency? Through mutual respect and the understanding that each culture has its own work habits, traditions and "best practices." However at the end of the day, after well documented debates, decisions have to be taken and implemented by all. The global world we live in has not erased national particularisms. But instead of seeing this as a problem, we see it as an asset: we are building a project culture in a way that takes advantage of the diversity of these "best practices" to achieve an optimal result. 

On considering a job at ºÚÁÏÉçapp:

I've often said that, when joining ºÚÁÏÉçapp you symbolically abandon your nationality. You become Iternational... Working at ºÚÁÏÉçapp is very demanding but it is also very rewarding. Can you think of something more exciting, more motivating, than contributing to a project that can change the course of civilization for hundreds of thousands of years?

On the importance of fusion

My conviction is that in the second half of this century, beyond 2060, we will have accumulated enough knowledge and experience to create a large fusion industry¡ªjust like in the past decades we have created an oil, gas or nuclear fission industry. But like with any of these industries, the decision will be both technical and political and rest in the individual governments' and investors' hands.

Follow these links to read the article in or .

Bored with the Kardashians? Not interested in your regular TV program? You can now tune in to a new channel that will allow you to follow¡ªin real time!¡ªthe construction of the Tokamak Complex.

Streamed from a video camera mounted 60 metres above platform level, the footage gives you an eagle eye's view of the ongoing activities in the Holy of Holies of the ºÚÁÏÉçapp Project ¡ªday and night, any day, any hour.

Follow this link to the ºÚÁÏÉçapp homepage.

On 18 December 2017, the current was raised in the divertor coils and the very first X-point plasma was obtained in the  (France).

The current was raised in limiter configuration up to 500 kA and controlled during a couple of seconds, while the divertor coils entered into action and an ºÚÁÏÉçapp-like configuration was reached.

The WEST project consists in transforming the former Tore Supra tokamak in order to extend its long pulse capability and test ºÚÁÏÉçapp's divertor technology. The implementation of a full tungsten, actively cooled divertor with plasma-facing units that are representative of ºÚÁÏÉçapp's divertor targets will allow scientists and engineers to address the risks both in terms of industrial-scale manufacturing and operation.

Read all about the test campaign underway in WEST's December 2017 newsletter .

The L'Or¨¦al Foundation, in partnership with UNESCO and the French Academy of Sciences, is calling for applications to its 2018 "For Women in Science" Fellowship program.

Thirty young and talented female scientists at the doctoral or postdoctoral level will be selected this year in France. Candidates must be specialized in Life or Physical Sciences, currently work or study in France, and demonstrate academic excellence and original research. 

The application deadline is 4 April 2018.

For full information, please see the website in and .

EyeSteelFilm's 90-minute documentary on fusion and ºÚÁÏÉçapp¡ªLet there be light¡ªis now available worldwide for rent or purchase on the Vimeo platform. For audiences in North America it is also available on iTunes for purchase and on Amazon Prime for rent or purchase.

Subtitled ''The 100 Year Journey to Fusion,'' the documentary shows work underway around the world at both ends of the fusion spectrum¡ªfrom the giant ºÚÁÏÉçapp Project to the warehouse-based startup. It has had success at film festivals in North America and Europe since its launch in early 2017 and major international broadcast stations are showing interest. The European culture channel Arte is set to show the documentary in the coming months.

In early January 2018, "Let there be light" was listed as one of the top ten Canadian films in 2017.

The documentary is now available for rent or purchase worldwide on Vimeo.com in or . In North America it is also available for purchase on  and for purchase or rent on , both in English.

The  tokamak is part of the  agreement signed between Japan and Euratom to complement the ºÚÁÏÉçapp Project and accelerate the realization of fusion energy. The JT-60SA tokamak represents an upgrade of a previous tokamak at the Naka facility, designed to support the operation of ºÚÁÏÉçapp. It will investigate how best to optimize the design and operation of fusion power plants built after ºÚÁÏÉçapp. First Plasma is planned for 2020, at the end of a six-year assembly and commissioning period.

In the latest news of progress, 12 cryostat vessel sectors manufactured in Spain are now ready for transport to Naka. Heavy frames and robust plastic and tarpaulin wrapping will ensure adequate protection during transport of the sectors, each measuring approximately 11 metres in height, and during storage in Japan. (Storage is required as the elements will arrive ahead of their scheduled assembly in the JT-60SA Torus Hall.)

Along with the completed cryostat vessel sectors the shipment also includes heavy lifting equipment. In total the shipment weighs about 322 tonnes. It is scheduled to arrive at the Hitachi port in Japan by mid-January 2018.

See the full article and related information here.

The ASDEX Upgrade at the Max-Planck Institute for Plasma Physics (IPP) in Garching, Germany, is one of three medium-sized tokamaks which are part of the EUROfusion program. In conjunction with JET it provides important input to the ºÚÁÏÉçapp Project.

The 18th issue of the ASDEX Upgrade Letter provides the latest news in three topics. The first presents results of research on plasma stability, in particular on instabilities in the plasma edge. The second item describes the use of a newly upgraded core turbulence microwave diagnostic system, known as correlation electron cyclotron emission (CECE). Thanks to the CECE, plasma physicists will have a better understanding of turbulence in fusion plasmas.

A third contribution focuses on alternative power exhaust concepts for the APDEX Upgrade tokamak. The extraction of the power produced in a future reactor poses one of the challenges in fusion research. In the ASDEX Upgrade the lower divertor is normally used for this purpose; now, scientists are investigating alternative configurations with a new, modified upper divertor. The design phase has already started and first hardware installation is expected in 2020/2021.

The Letter also honours the young IPP physicist Benedikt Geiger who was awarded the Hans Werner Osthoff Plasma Physics Prize 2016. The prize honours outstanding achievements in the field of plasma physics.

For more information and access to the ASDEX Upgrade Letter click .

The Polish Institute of Plasma Physics and Laser Microfusion (IPPLM) invites young scientists to attend the 14th Kudowa Summer School. The summer school, under the motto "Towards fusion energy," will be held in Kudowa-Zdr¨®j, in the Lower Silesia region in southwest Poland, from 4 to 8 June 2018.

The school provides courses on fusion energy, plasma experiments and related technology. It will mainly look at laser fusion and laser-matter interaction studies. Topics include plasma basics and fusion energy; inertial confinement fusion; magnetic confinement fusion; plasma-diagnostics; and technology.

Registration is open until 20 March 2018. Interested participants are encouraged to give presentations. The deadline for submitting abstracts is 8 February 2018.

For all related information please go to the Kudowa Summer School .

One of the big challenges in developing fusion energy is controlling the plasma. Disruptions of the burning plasma can halt the fusion reaction and damage the walls of the fusion device. Scientists therefore are keen to learn how to predict plasma disruptions.

Researchers at the Princeton Plasma Physics Laboratory (PPPL) employ artificial intelligence to improve predictive capability. They developed predictive software, the Fusion Recurrent Neural Network (FRNN) code, which is a form of what is called "deep learning"¡ªa powerful version of modern machine-learning software. (Research team: William Tang, to the left; Eliot Feibush; and Alexey Svyatkovskiy, seated)

Drawing from data of the JET facility in the UK, the team has demonstrated the tool's ability to predict disruptions more accurately than previous methods. Turning their attention now to ºÚÁÏÉçapp, the team aims to improve the correct prediction of disruptions and reduce the number of false alarms.

The deep learning software is also a challenge for computing hardware. Several tests with the FRNN on modern powerful supercomputing devices, so-called GPU clusters, in the United States, Europe and Asia showed promising results.

Read the full article on the .

At the joint meeting of the 26th International Toki Conference (ITC) and the 11th Asia Plasma and Fusion Association (APFA) conference¡ªheld from 5 to 8 December in Toki, Japan¡ªºÚÁÏÉçapp Science & Operations Department head David Campbell gave a plenary talk on ºÚÁÏÉçapp progress.

It was the occasion to recognize the many contributions of Dr Campbell to fusion research over the course of his career. The chair of the international program committee, Yutaka Kamada, and the chair of the international advisory committee, Yasuhiko Takeiri, both presented tributes. Dr Campbell retired in December from the ºÚÁÏÉçapp.

The theme this year of the ITC meeting was "A new era in plasma and fusion research." The launch of deuterium experiments in Japan's , and the first experimental results, were highlighted at the meeting, which also brought together academics and researchers from Japan, China, Korea and India in the context of the biennial APFA meeting. Three hundred participants in all took part in the four-day event. 

The UK's nuclear fusion research program can expect a big financial boost. A ?86 million government investment¡ªannounced last week¡ªwill benefit the UK's Atomic Energy Authority's (UKAEA's) Culham Science Centre and its plan to build a National Fusion Technology Platform.

The platform will comprise two centres of excellence:

-        The Hydrogen-3 Advanced Technology (H3AT) centre to research how to process and store tritium;

-        The Fusion Technology Facilities to conduct tests on prototype components under conditions they would experience in future fusion reactors.

The new national fusion technology platform will open in 2020. It will enhance the UK's expertise in critical areas of fusion research and help British industry to secure contracts from ºÚÁÏÉçapp and other global fusion projects. It will also provide a powerful signal of the UK's intent to continue its participation in international science collaboration after leaving the European Union.

Taking a longer term view, the platform's two centres will help the UK to prepare the grounds for the first nuclear fusion power plants.

The Head of the UKAEA, Ian Chapman, said that this latest development means that: "...the UK will be at the forefront of developing fusion and bringing cleaner energy to the world."

Read the full article .

The starting shot for the 2018 SOFT Innovation Prize has sounded. The prize is a feature of the Symposium on Fusion Technology (SOFT), a biennial conference organized by the Italian National Agency for New Technologies, Energy and Sustainable Economic Development (ENEA). It rewards outstanding researchers or companies who find new physics or technology solutions to address the challenges of fusion, with the potential of wider application.

The competition is open to researchers, research teams and companies from around the world. Anyone interested to enter the competition needs to apply through the of the European Commission; the deadline for submissions is 8 March 2018. An independent jury of experts in technology transfer will select the three winners and the award ceremony will take place as part of the 30th SOFT conference taking place in Giardini Naxos, Sicily, Italy, from 17-21 September.

Last year's winners were awarded the prize for a novel type of high temperature superconductor cable based on REBCO tape material, a new membrane technology to produce ultra-pure hydrogen and a new virtual reality software technology to improve radioprotection.

SOFT is an important conference in the area of fusion technology and research in Europe. It attracts over 800 scientists, engineers, industry representatives and exhibitors from around the world.

Read the full article .

Physicist Fran?ois Ryter, of the Max Planck Institute for Plasma Physics (IPP) in Garching, Germany, has received the 2017 Nuclear Fusion Award.

The annual award recognizes exceptional work that has appeared in Nuclear Fusion, and that has had the greatest influence in the two years following publication.

Ryter was honoured for his 2014 paper on experiments in Garching's ASDEX Upgrade tokamak. "Delivering an outstanding piece of work on L¡ªH transition physics, Ryter et al present a systematic and rigorous experimental study revealing the key role of the ion heat flux at the plasma edge. This explains the nonlinear dependence of the L¡ªH threshold power on density and enables the derivation of a general expression for the density minimum. This is an important physics finding, with implications for ºÚÁÏÉçapp operation," the award panel .

See a full report on the IPP .

"Few projects in the world combine such ambition, cutting-edge science and technology, and energy for future generations."

With these words Johannes Schwemmer, the Director of the European Domestic Agency, opened the 10-year anniversary celebration of Europe's involvement in ºÚÁÏÉçapp on 30 November.

European Commissioner for Climate Action and Energy, Miguel Arias Ca?ete, went on to highlight the human capital behind this one-of-kind project and praised "the work of so-many scientists and engineers, and the fact that countries, industries and research centres are working together to translate a common vision into a reality." The Mayor of the city of Barcelona, Ada Colau, explained that it was "an honour to host the European Agency and this was also proof of Barcelona's commitment to science and innovation." For Spain's Secretary of State for Research, Development and Innovation, Carmen Vela, ºÚÁÏÉçapp will "also open the door to the commercialization of fusion energy by laying the industrial foundations in each of its parties." 

View more on the event, as well as anniversary video clips, .

The US Department of Energy (DOE) has awarded physicist Edmund Synakowski with its Meritorious Service Award. He received the honour "for strong and insightful leadership" during his eight years as Associate Director of the DOE's Office of Fusion Energy Sciences and for having "reshaped and improved the national fusion energy sciences program," administering an annual budget of about US $400 million to develop nuclear fusion as an energy source.

Synakowski is the new vice president for research and economic development of the University of Wyoming where the award ceremony took place on 29 November 2017. He previously led the fusion energy program at the Lawrence Livermore National Laboratory and held a number of roles at Princeton University's Plasma Physics Laboratory.

Synakowski is an expert in plasma physics and has authored over 160 peer-reviewed articles on plasma fusion science.

Read the full article by the University of Wyoming .

An unknown version of the famous Beatles song? No¡ªa new way of exploring the experimental fusion device Wendelstein 7-X, located at the Max Planck Institute for Plasma Physics in Greifswald, Germany.

Similar to ºÚÁÏÉçapp, Wendelstein 7-X aims to replicate the process at work in the core of the Sun to develop a clean and abundant energy source. This fusion device of the stellarator variety celebrated its first plasma in December 2015.

Are you interested in having a peek inside an extraordinary feat of science and technology? Normally accessible to experts only, Wendelstein 7-X has now opened its virtual doors and invites the interested public to a 360-degree tour. You can look into every corner of the experimentation hall, climb into the plasma vessel itself and visit the beam duct or listen to scientists explain the intricacies of the device and present their work. Information panels provide further background on plasma, superconducting magnets, graphite cladding, divertors and much more.

Go to this to take a tour on your PC, tablet or smartphone.

At the Dutch Institute for Fundamental Energy Research, , scientists are working to accelerate the transition to a sustainable society.

In the latest edition of the newsletter EXPLORE, researchers report on the promise of liquid metal walls in fusion reactors, the possibility of vapour shielding, and the institute's strategic plan for 2017-2022, which maintains a strong focus on fusion energy and solar fuels.

Read the latest DIFFER newsletter .

Plasma science is about to get a new online outlet. Aptly named Plasma, the cross-disciplinary scholarly journal will be a platform for all aspects of plasma science such as plasma physics, plasma chemistry and space plasma. Publication formats include research articles, reviews, short communications and letters.

The international, open-access and peer-reviewed scientific journal will be published quarterly by the Swiss online publisher MDPI. The first volume of the new journal is expected to come out in 2018.

David A. Gates, principal research physicist and Stellarator Physics Division Head at the US Department of Energy's Princeton Plasma Physics Laboratory (PPPL), is the newly appointed editor-in-chief of the journal. Following his nomination Gates said: "I look forward to helping advance the international research arena in plasma science. This is an outstanding opportunity to help promote the research of a vital area of physics and to open the door to communicating that research to the global community."

Plasma is the fourth state of matter. It is a hot, electrically charged gas and the most abundant form of visible matter in the universe. Some 99 percent of the known universe is in plasma state. Plasma can also be found on Earth such as in lightning and fluorescent light bulbs.

Read more about the and its new .