Longview Fusion Energy Systems has contracted U.S. engineering and construction firm Fluor Corporation to design the world’s first commercial laser fusion power plant.
Longview said, “Fluor will leverage its global experience in developing and constructing complex, large-scale facilities to provide preliminary design and engineering to support the development of Longview’s fusion-powered plant.”
Longview noted that, unlike other approaches, it does not need to build a physics demonstration facility, and, with its partner Fluor, “can focus on designing and building the world’s first laser fusion energy plant to power communities and businesses”.
The historic breakthroughs in fusion energy gain at the Lawrence Livermore National Laboratory’s (LLNL) National Ignition Facility (NIF) have enabled their project.
Nuclear fusion is the process by which two light nuclei combine to form a single heavier nucleus. A huge amount of energy is released during fusion. LLNL has been pursuing the use of lasers to induce fusion in a laboratory setting since the 1960s. They built a series of increasingly powerful laser systems at the California lab and created the National Ignition Facility (NIF), described as the world’s largest and most energetic laser system. The NIF uses high-power laser beams to create temperatures and pressures similar to those found in the cores of stars and giant planets – and inside nuclear explosions.
On 5 December of 2022, the NIF achieved the first ever controlled experiment to produce more energy from fusion than the laser energy used to drive the reaction. The experiment utilized one hundred and ninety-two laser beams to deliver more than two million joules of ultraviolet energy to a deuterium-tritium fuel pellet to create so-called fusion ignition – also referred to as scientific energy breakeven. In achieving an output of three point one five megajoules of fusion energy from the delivery of two point zero five megajoules to the fuel target. The experiment demonstrated the fundamental science basis for inertial confinement fusion energy (IFE) for the first time.
Longview says it is the only fusion energy company using this verified approach. Its power plant designs include commercially available technologies from the semiconductor and other industries. Longview says that this is to ensure the delivery of carbon-free, safe, and economical laser fusion energy to the marketplace within a decade.
Valerie Roberts is Longview’s Chief Operating Officer and former National Ignition Facility construction/project manager. She said, “We are building on the success of the NIF, but the Longview plant will use today’s far more efficient and powerful lasers and utilize additive manufacturing and optimization through AI.”
Edward Moses is Longview’s CEO and former director of the NIF. He added, “Laser fusion energy gain has been demonstrated many times over the last 15 months, and the scientific community has verified these successes. Now is the time to focus on making this new carbon-free, safe, and abundant energy source available to the nation as soon as possible.”
In April of 2023, Fluor signed a memorandum of understanding with Longview to be its engineering and construction collaborator in designing and planning laser fusion energy commercialization.
Longview’s plan is for the development of laser fusion power plants. They will have the capacity of up to sixteen hundred MW to provide electricity or industrial production of hydrogen fuel and other materials that can help to decarbonize heavy industry.
Blog
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Nuclear Fusion 67 – Longview Fusion Energy Systems Has Contracted The Fluor Corporation To Design The First Commercial Laser Fusion Power Plant
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Nuclear News Roundup March 18, 2024
Iranian Cleric Calls For Nuclear Arms iranintl.com
Permit issued for dismantling of Isar 2 world-nuclear-news.org
Fourth Barakah unit connected to grid world-nuclear-news.org
Kenya agency outlines nuclear development strategy world-nuclear-news.org
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Geiger Readings for March 18, 2024
Ambient office = 106 nanosieverts per hour
Ambient outside = 143 nanosieverts per hour
Soil exposed to rain water = 151 nanosieverts per hour
Green onion from Central Market = 131 nanosieverts per hour
Tap water = 84 nanosieverts per hour
Filter water = 73 nanosieverts per hour
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Geiger Readings for March 17, 2024
Ambient office = 138 nanosieverts per hour
Ambient outside = 111 nanosieverts per hour
Soil exposed to rain water = 110 nanosieverts per hour
Garlic from Central Market = 68 nanosieverts per hour
Tap water = 81 nanosieverts per hour
Filter water = 70 nanosieverts per hour
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Nuclear News Roundup March 16, 2024
Contract for removal of Mühleberg reactor vessel world-nuclear-news.org
Bannerman completes scoping study for extended operations at Etango world-nuclear-news.org
Extrusion demo is milestone for Lightbridge Fuel fabrication world-nuclear-news.org
Haiyang 3 containment takes shape world-nuclear-news.org
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Geiger Readings for March 16, 2024
Ambient office = 143 nanosieverts per hour
Ambient outside = 106 nanosieverts per hour
Soil exposed to rain water = 107 nanosieverts per hour
Mini cucumber from Central Market = 104 nanosieverts per hour
Tap water = 70 nanosieverts per hour
Filter water = 59 nanosieverts per hour
Dover Sole from Central = 113 nanosieverts per hour
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Radioactive Waste 928 – The UK Moved A Thousand Drums Of Nuclear Waste From Winfrith To Cumbria
A project to transfer more than one thousand drums of radioactive waste from the Winfrith site in Dorset, in southern England, to the Low-Level Waste Repository (LLWR) site in Cumbria, in northwest England, has been finished earlier than expected. The project was an accumulation of eight years’ work. Eleven consignments of drums have been transported by rail from Winfrith to the LLWR site.
A total of one thousand sixty-eight drums of waste from the Winfrith Steam Generating Heavy Water Reactor (SGHWR) were moved to the Treated Radwaste Store at the Dorset site. They are awaiting transfer to the intermediate-level waste storage facility at the Harwell site in Oxfordshire. However, the radioactive materials in the drums has decayed which means that the drums are now classed as low-level, rather than intermediate-level, waste. This allows early disposal at the LLW, the UK’s primary LLW disposal facility.
The drums have been disposed of by utilizing void space in Vault 8, optimizing the use of the LLW Repository, and freeing up the Winfrith facility for alternative use or decommissioning, the UK’s Nuclear Decommissioning Authority (NDA) said. Final disposal of this waste has also removed the requirement for long-term storage. This will result in saving money for the UK taxpayer.
The initiative was a collaboration with Nuclear Waste Services (NWS), Nuclear Restoration Services (NRS) and Nuclear Transport Solutions (NTS). They are all part of the NDA group.
Laura Street is the NRS’s head of waste at Winfrith and Harwell. She said, “The retrieval operation of the drums from the store went really well. We managed to improve our timings on each retrieval, meaning that the final drum was retrieved well ahead of schedule. The shipment of the drums by rail provided significant savings to the taxpayer and also saved 7502 kg of carbon emissions for each rail shipment compared to transporting these drums by road. This achievement takes us another step closer to completing our decommissioning mission and returning the site to heathland with public access.”
Howard Falcone is the Head of Waste Services at NWS. He added, “Seeing the final train arrive at the LLWR was a proud moment and significant milestone for this successful project. It is the result of years of collaborative planning and preparation by Nuclear Waste Services, Nuclear Restoration Services, Nuclear Transport Solutions and our extensive supply chain partners involved. Planning and preparation were key to the success of this project with NWS staff working with Winfrith Site to explore alternatives to manage the waste more effectively. This work is integral to our mission, to make the UK’s nuclear waste permanently safe, sooner.”
SGHWR was a one-hundred-megawatt prototype reactor which operated from 1968 until 1990. It supplied electricity to the grid as well as performing its prime function of supporting research into water-cooled reactor technology. It is one of only two remaining reactors Winfrith. Both of these reactors are being decommissioned. The 84-hectare site was a center for nuclear research and development to enable vital research into reactor design. It was home to nine experimental reactors at various times from the 1950s to the 1990s. -
Nuclear News Roundup March 15, 2024
Guterres urges disarmament now as nuclear risk reaches ‘highest point in decades’ mews.un.org
US, Japan Urge Nations Not to Deploy Nuclear Weapons in Orbit voanews.com
3 Companies Awarded GAIN Vouchers to Advance Nuclear Technologies energy.gov
US Navy Christens Latest Nuclear Submarine USS Idaho In Groton ctnewsjunkie.com
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Geiger Readings for March 15, 2024
Ambient office = 141 nanosieverts per hour
Ambient outside = 100 nanosieverts per hour
Soil exposed to rain water = 104 nanosieverts per hour
Blueberry from Central Market = 108 nanosieverts per hour
Tap water = 70 nanosieverts per hour
Filter water = 57 nanosieverts per hour