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The ºÚÁÏרÇø Project has been selected as one of the world's most influential projects by the in its 2020 ratings, released in November.

The professional organization's Top 50 list singles out "compelling efforts across industries and around the world that have achieved significant milestones" during the year. "In a time of uncertainty and upheaval, bold projects are paving the way to a new future." Each effort is "a distinct masterclass in how to navigate change and deliver results."

The ºÚÁÏרÇø Project is #34 overall and #3 in the Top 10 list for projects in the domain of energy, recognized for "boldly exploring next-gen nuclear energy."

Find out more here: .

The list of ºÚÁÏרÇø Technical Reports available on the public website continues to grow.

These reports, freely downloadable, aim to make the results of scientific and technical activities carried out under the ºÚÁÏרÇø Agreement widely available.

Typically, they are versions of internal reports that have been deemed of interest for the wider scientific and technical community, but that have not been submitted for conventional publication in scientific journals or books.

View the growing list here : /technical-reports

Whether in person or virtual, the world's largest fusion conference will forge ahead: FEC 2020 will be maintained for 10-15 May 2021 with the now-finalized .

The International Atomic Energy Agency (IAEA), together with the Local Organizing Committee, is currently reviewing the evolving COVID-19 situation and its impact on the conference. 

A decision whether to maintain a physical conference or move to a virtual event will be taken in early 2021. You will be kept informed.

So be ready to join us at the 28th IAEA Fusion Energy Conference (FEC 2020) whatever its format, as the fusion show must go on. We look forward to seeing you there!

For more information about the conference and updates regarding the program, please visit the .

The Governing Board of the European Domestic Agency for ºÚÁÏרÇø, Fusion for Energy, announced on 29 September that it has extended the contract of the current Director, Johannes Schwemmer, through 31 December 2023. Mr. Schwemmer has led Fusion for Energy since .

"This unanimous decision shows that Mr Schwemmer has the full support of the Governing Board to continue to lead Fusion for Energy," said Chair Beatrix Vierkorn-Rudolph. Massimo Garribba, Deputy Director-General of the European Commission Directorate-General for Energy and Euratom's representative to Fusion for Energy's Governing Board, "[...] looks forward to his continued dedication to this international flagship project."

Read the full news article on the Fusion for Energy .

The international fusion community lost a major contributor when Dr. David Swain passed away last month. His contributions to the advancement of experimental and theoretical plasma physics and technology spanned more than half a century during which he produced over 150 scientific papers.

For much of his career, Swain's research focused on confining and heating high density plasmas, largely with high power radiowaves. He received his PhD in Physics from the Massachusetts Institute of Technology in 1969, after receiving a Bachelor of Science from North Carolina State University in 1963. He became a Fellow of the American Physical Society in 1985.

His professional career began in 1969 at Sandia Laboratories; in 1975, he joined Oak Ridge National Laboratory as a member of the ORMAK tokamak team. He played a leading role in radiofrequency development activities for at Princeton Plasma Physics Laboratory and Tore Supra in France, plus other ion cyclotron systems for devices around the world including NSTX and KSTAR. Swain was also an early and critical member of the international team that designed ºÚÁÏרÇø's ion cyclotron heating system. He retired from ORNL in 2017, but continued to contribute as a consultant, helping US ºÚÁÏרÇø and the ºÚÁÏרÇø.

In his professional and personal life, Swain possessed a generosity of spirit, good-natured friendliness, and a dry sense of humour that made it a pleasure to work and travel with him. His folksy sayings, rooted in his rural North Carolina upbringing, were legendary. The global ºÚÁÏרÇø community will miss his character and his contributions.

-- US ºÚÁÏרÇø and the ºÚÁÏרÇø

The fusion team at the International Atomic Energy Agency (IAEA) has introduced a worldwide tracking and information system for fusion devices, located within the IAEA's .

The Fusion Device Information System (FusDIS), developed and maintained by the IAEA, focuses on experimental fusion research devices worldwide. FusDIS contains information on fusion devices public or private that are currently in operation, under construction, closed or being planned. All information is collected by the IAEA and undergoes a process of review involving the International Fusion Research Council.

It currently lists 62 tokamaks, 12 stellarators/heliotrons, 7 laser fusion devices, and 31 innovative/alternate fusion concepts.

The IAEA fusion team is interested in feedback on FusDIS. Please send comments to: @email

From the Princeton Plasma Physics Laboratory:

The American Nuclear Society has bestowed its distinguished Nuclear Historic Landmark designation on the pioneering Tokamak Fusion Test Reactor (TFTR) that ran from 1982 to 1997 at the US Department of Energy's Princeton Plasma Physics Laboratory (PPPL).

The groundbreaking facility laid the foundation for future fusion power plants and set world records for fusion power (10.7 million watts) in 1994 and total fusion energy production (1,500 million joules) from 1993 to 1997.  The achievements marked a major step in fusion history.

The designation, which will be formally announced at the American Nuclear Society's November meeting, recognizes TFTR "for demonstrating significant fusion energy production and tritium technologies for future nuclear fusion power plants and the first detailed exploration of magnetically confined deuterium-tritium fusion plasmas."

Read the full statement by .

Read the original article on the .

Secondary school teachers across Europe are invited to participate virtually in the 2020 European Fusion Teacher Day, hosted by , the European Fusion Education Network.

Registration for the 2 October event closes on 27 September.

The European Fusion Teacher Day will premiere new education materials for the classroom, offer a behind-the-scenes look at international fusion experiments such as ºÚÁÏרÇø, JET and GOLEM, and host a live connection with teachers throughout Europe. At the end of the event you will be able to tell your students all about nuclear fusion: from the cutting-edge research that is going on, to how to make fusion a career.

For the first part of the event, participants will join video calls in the language of their choice, hosted by fusion institutes in Austria, Bulgaria, the Czech Republic, France, Germany, the Netherlands, Portugal, Slovenia, Spain, Sweden, Ukraine, and the United Kingdom. An introductory lecture followed by a presentation of newly developed classroom materials will be the highlights of this part of the program.

Then, all participants will tune into a livestream (in English) with fusion students and scientists located on site at three tokamak facilities: ºÚÁÏרÇø, JET and GOLEM.

For more information on how to participate, see .

On 17 September, the chiller plant in the Site Services Building was turned over to the ºÚÁÏרÇø Science, Controls & Operation Department (SCOD) for commissioning.

This is the first of many handovers to come between the ºÚÁÏרÇø construction and operation teams, and it signals that equipment installation is complete. Now, a commissioning team led by SCOD will start to energize the equipment, fill the pipes, and test the circuits and related control interfaces.

The chiller plant is one element of the chilled water system that is, in turn, part of the overall ºÚÁÏרÇø cooling water system. The tokamak cooling water system, the component cooling water system, the chilled water system and the heat rejection system are together responsible for removing the enormous amounts of heat generated by the tokamak and its auxiliary systems.

On August 28, two upper port extensions procured by the Russian Domestic Agency arrived at the South Korean port of Busan.

Each of the vacuum vessel's 44 openings will have custom-made "extensions" to create the junction to the surrounding cryostat. The first link in the two-part chain—the port stub extension—will be welded to the vacuum vessel sectors before they are shipped from their manufacturing locations; (the second, port extensions, will be added during assembly on site).

Responsible for the 18 upper ports, the Russian Domestic Agency has been delivering upper port stub extensions to vacuum vessel manufacturers in Korea and Europe since 2017. They are procured under the general contracting responsibility of JSC NIIEFA (part of Rosatom State Corporation), and manufactured by MAN Energy Solutions, Germany.

Upper port extensions #14 and #16 were delivered to Korea late August after a one-month sea voyage. The timely delivery of all port stub extensions is critical for the on-time fabrication of vacuum vessel sectors, and thus the overall ºÚÁÏרÇø schedule.

The ºÚÁÏרÇø community was saddened to learn that Vladimir Sergeevich Voitsenya, a Ukrainian physicist, researcher, and Fellow of the Ukrainian Physical Society, passed away in August 2020. 

Trained as a Doctor of Science in Physics and Mathematics, he spent much of his career at the Kharkov Institute of Physics and Technology, KhIPT, moving from laboratory head to leading research scientist, head of the plasma diagnostics laboratory, and finally head of the Stellarators Division. Dr Voitsenya's scientific interests included magnetic plasma confinement, plasma-surface interaction, and plasma-facing mirrors for the diagnostics in ºÚÁÏרÇø.

"Vladimir was a key player in the mirror program for ºÚÁÏרÇø diagnostics and indeed his work is the foundation of the current excellent progress in this area," commented Michael Walsh, Head of ºÚÁÏרÇø Diagnostics. Colleagues at the International Tokamak Physics Activity (ITPA*) remember him for his enthusiasm, his visionary papers, his ideas—many of which are now implemented in ºÚÁÏרÇø diagnostics—and his kind and friendly attitude. "For us he was a diagnostic pioneer, one of the founders and strongest proponents of the ITPA."

*The International Tokamak Physics Activity (ITPA) provides a framework for internationally coordinated fusion research activities.

ºÚÁÏרÇø's start-of-assembly celebration on 28 July 2020 generated unprecedented media interest in the project, as evidenced by 3,500 news stories in the printed press in 41 languages (101 countries). A small sampling can be found in Press Clippings (/pressclippings). For full information about the project see the ºÚÁÏרÇø website at /.

In this 16-minute feature on the ºÚÁÏרÇø Project aired by the Seoul-based English language channel Arirang TV on 5 August, the head of ºÚÁÏרÇø Korea, Jung Kijung, explains how South Korea joined ºÚÁÏרÇø in 2003, how Korean expertise has contributed to the science and engineering that underpins the mega-science project, what in-kind components South Korea has contributed to the project, and what milestones have to be realized before the advent of fusion electricity.

Watch the segment of News, In Depth .

The 360° virtual tour of ºÚÁÏרÇø construction has been updated with drone footage from late May 2020. Plunge 30 metres into the ºÚÁÏרÇø Tokamak pit, relive the insertion of the cryostat base, and fly in and out of the ºÚÁÏרÇø plant buildings to see what has changed since the last update in February 2020..

Accessible from the home page of the ºÚÁÏרÇø website (yellow icon) or by clicking on the link below, the 2D tour requires no special equipment to enjoy. (If you do have 3D glasses, click on the yellow goggle symbol at the top of any screen.)

 to enter the latest 360° ºÚÁÏרÇø virtual tour.

Timed to meet worldwide attention on the ºÚÁÏרÇø Project at the launch of its machine assembly phase, a new section of the ºÚÁÏרÇø website has just been released. The ºÚÁÏרÇø assembly pages are the place to go for information, photos, videos, articles and links about the step-by-step process of building the world's largest tokamak.

And, thanks to the skill of ºÚÁÏרÇø CAD technician Kevin Ballant, the pages open to a new video that shows you how the ºÚÁÏרÇø assembly teams will proceed—from installing the cryostat base and lower cryostat components at the bottom of the assembly arena, to the placement of the central column and radial beams of the in-pit assembly tool, the vacuum sector sub-assemblies, the magnets, upper cryostat components, and finally the cryostat lid.

Visit the new ºÚÁÏרÇø assembly pages here.

In a report published this month, the European Domestic Agency for ºÚÁÏרÇø, Fusion for Energy, explains how progress was maintained on the fabrication of five ºÚÁÏרÇø vacuum vessel sectors despite some factory shutdowns due to Covid-19.

"We had to analyze the impact of the pandemic on our production plants, figure out which tasks could be performed in line with the instructions issued by the Italian authorities, and adopt measures of health and safety in line with this new reality. Therefore, we re-arranged the planning of activities, prioritised some critical ones. We put forward a short-term plan to keep up the progress, while ensuring full compliance with protocols," explains Max Febvre, Fusion for Energy Manufacturing Project Manager for the vacuum vessel. As a result, the impact of the pandemic was not as disruptive as expected. 

See a full report plus recent photos .

Secondary school teachers across Europe are invited to participate virtually in the 2020 European Fusion Teacher Day, hosted by , the European Fusion Education Network.

Registration for the event on 2 October is free of charge and open now.

The European Fusion Teacher Day will premiere new education materials for the classroom, offer a behind-the-scenes look at international fusion experiments such as ºÚÁÏרÇø, JET and GOLEM, and host a live connection with teachers throughout Europe. At the end of the event you will be able to tell your students all about nuclear fusion: from the cutting-edge research that is going on, to how to make fusion a career!

For the first part of the event, participants will join video calls in the language of their choice, hosted by fusion institutes in Austria, Bulgaria, the Czech Republic, France, Germany, the Netherlands, Portugal, Slovenia, Spain, Sweden, Ukraine, and the United Kingdom. An introductory lecture followed by a presentation of newly developed classroom materials will be the highlights of this part of the program.

Then, all participants will tune into a livestream (in English) with fusion students and scientists located on site at three tokamak facilities: ºÚÁÏרÇø, JET and GOLEM.

For more information on how to participate, see .

Looking for a new way to explain fusion in your classrooms and boardrooms? Interested in a two-minute summary of what fusion is and how it can change our future?

A new animation from Fusion for Energy, the European Domestic Agency for ºÚÁÏרÇø, uses a fresh visual approach to make fusion accessible to all. Subtitles are available in English, French, German, Italian, and Spanish.

See the video .

Synthetic diamond windows will play a double function in the ºÚÁÏרÇø machine—allowing the microwaves of the electron cyclotron heating system to pass through to reach the plasma while providing an effective leak-proof vacuum barrier.

High-purity CVD (chemical vapour deposition) diamond windows offer unsurpassed hardness, broad band optical transparency, and extremely high thermal conductivity.

The European Domestic Agency, Fusion for Energy, is working with the German firm Diamond Materials for the production of 60 diamond disks (Ø 7 cm) for the electron cyclotron heating system.

See the full story .

A wealth of information about the behaviour and stability of the ºÚÁÏרÇø plasma will be communicated by the return signals of the low-field side reflectometer (LFSR)—a diagnostic that shoots a frequency-modulated (FM) millimetre wave signal (a type of microwave) into the plasma and gathers information about the plasma edge in return.

The LFSR is the first device of its kind to measure the plasma density, and process and report the data to the central tokamak control system in real-time. This allows it to serve as an alert system, as abrupt changes in the steepness of the edge density profile, or gradient, can lead to instabilities known as edge localized modes (ELMs), which release large amounts of energy.

A final design review is planned this summer by the US ºÚÁÏרÇø diagnostics team, which is based out of the Princeton Plasma Physics Laboratory. The device will be installed on ºÚÁÏרÇø before its First Plasma.

See the original news on the US ºÚÁÏרÇø  or from the Princeton Plasma Physics Laboratory.