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BEV portfolio company Zap Energy's Fusion Z-pinch Experiment (FuZE) has surpassed the scorching temperature of 10 million degrees Celsius, joining an exclusive club of fusion technologies capable of reaching the sun's core-like heat. Their approach, called sheared-flow-stabilized Z-pinch, has accomplished this feat on a smaller and more cost-effective scale than its competitors, offering a promising path toward fusion energy. Zap Energy reports plasma electron temperatures between 11 and 37 million degrees Celsius, indicating significant progress in fusion energy research. "These are meticulous, unequivocal measurements on a device of incredibly modest scale," says Ben Levitt, VP of R&D. This achievement signals a potential revolution in the fusion energy sector, bringing the dream of clean, abundant energy closer to reality. https://nt-z.ro/4aWlbLC

Exciting news in the world of fusion energy! Zap Energy, along with their collaborators at Lawrence Livermore National Laboratory, Los Alamos National Laboratory, University of California, San Diego, and University of Washington, have achieved a significant milestone in fusion energy. They’ve published a peer-reviewed article demonstrating electron temperature greater than 10 million degrees in a sheared-flow-stabilized Z pinch. This is a major physics milestone for the broader fusion energy research community. This achievement marks a dividing line between “concept exploration” and readiness for “concept development” as measured by the Lawson criterion. It’s a testament to the hard work, dedication, and innovation of the team at Zap Energy and their collaborators. We’re thrilled to see such progress in the field of fusion energy. It’s advancements like these that bring us closer to a sustainable and efficient energy future. Congratulations to everyone involved in this groundbreaking work! Read More or watch the video here: https://lnkd.in/eTdkW-_S #FusionEnergy #Innovation #Sustainability #EnergyFuture

💡 What are the key insights from our recent "Advancing Fusion Technology" report? Bibake Uppal, Head of Kyoto Fusioneering America, discusses strategies to accelerate engineering a fusion pilot plant and our dedication to being the partner of choice for a faster, more capital-efficient, and lower-risk path to commercial fusion. Read the article on Fusion Energy Insights.

Fusion Energy-"The Joint European Torus (JET), one of the world's largest and most powerful fusion machines, has demonstrated the ability to reliably generate fusion energy, while simultaneously setting a world record in energy output. These notable accomplishments represent a significant milestone in the field of fusion science and engineering. In JET's final deuterium-tritium experiments (DTE3), high fusion power was consistently produced for five seconds, resulting in a ground-breaking record of 69 megajoules using a mere 0.2 milligrams of fuel. JET is a tokamak, a design which uses powerful magnetic fields to confine a plasma in the shape of a doughnut. Most approaches to creating commercial fusion favor the use of two hydrogen variants—deuterium and tritium. When deuterium and tritium fuse together they produce helium and vast amounts of energy, a reaction that will form the basis of future fusion powerplants. Dr. Fernanda Rimini, JET Senior Exploitation Manager, said, "We can reliably create fusion plasmas using the same fuel mixture to be used by commercial fusion energy powerplants, showcasing the advanced expertise developed over time." Professor Ambrogio Fasoli, Program Manager (CEO) at EUROfusion, said, "Our successful demonstration of operational scenarios for future fusion machines like ITER and DEMO, validated by the new energy record, instill greater confidence in the development of fusion energy. Beyond setting a new record, we achieved things we've never done before and deepened our understanding of fusion physics." Dr. Emmanuel Joffrin, EUROfusion Tokamak Exploitation Task Force Leader from CEA, said, "Not only did we demonstrate how to soften the intense heat flowing from the plasma to the exhaust, we also showed in JET how we can get the plasma edge into a stable state thus preventing bursts of energy reaching the wall. Both techniques are intended to protect the integrity of the walls of future machines. This is the first time that we've ever been able to test those scenarios in a deuterium-tritium environment." Over 300 scientists and engineers from EUROfusion—a consortium of researchers across Europe, contributed to these landmark experiments at the UK Atomic Energy Authority (UKAEA) site in Oxford, showcasing the unparalleled dedication and effectiveness of the international team at JET. The results solidify JET's pivotal role in advancing safe, low-carbon, and sustainable fusion energy."... PHYS ORG

🌟 Breaking Through: Fusion Energy's Latest Milestones 🌟 Fusion energy - it's the dream that's been dancing on the horizon of scientific possibility for decades. And now, we're closer than ever to turning this dream into a reality. Here's why you should keep your eyes peeled for the latest in fusion energy progress: 🔬 Paragraph 1: The Science Simplified Fusion energy mimics the sun's power generation, fusing atoms together to release massive amounts of energy. Unlike fission, which splits atoms apart, fusion promises a cleaner, safer, and virtually limitless energy source. It's the kind of science that could revolutionize our world, but the journey there is complex and challenging. 🌍 Paragraph 2: Global Efforts Amplify Countries around the globe are ramping up their efforts. The UK, for instance, has been a pioneer with projects like JET and the upcoming STEP program, aiming to build the first fusion power plant by 2040. These initiatives are not just about national pride; they're about a collaborative push towards a sustainable future. 💡 Paragraph 3: The Impact on You Imagine a world where energy is not only clean but abundant. This isn't just about turning on your lights without guilt; it's about reshaping industries, economies, and the very way we live. The progress in fusion energy could mean a seismic shift in how we address climate change and secure energy independence. So, stay tuned and stay informed. The fusion energy story is unfolding, and it's one you won't want to miss. The future is bright, and it's powered by the stars themselves. #FusionEnergy #SustainableFuture #Innovation

Fusion energy: IPP receives four million euros from the Federal Ministry of Education and Research's new funding programme.   In an initial joint project, the Max Planck Institute for Plasma Physics (IPP) will develop concepts for future fusion power plants with the company Proxima Fusion. The IPP is also involved as a project partner of the Karlsruher Institut für Technologie (KIT) Institute of Technology (KIT) and the company Gauss Fusion.   On 13 March 2024, Federal Research Minister Bettina Stark-Watzinger presented the new funding programme "Fusion 2040 - Research on the way to a fusion power plant". "We want to build a fusion ecosystem of industry, start-ups and science so that a fusion power plant can become a reality in Germany as quickly as possible," said the Minister. Her ministry will add a second pillar to the existing institutional funding with the new project funding programme. The Federal Ministry of Education and Research (BMBF) is now also supporting application-orientated collaborative research in the form of a public-private partnership (PPP).   The IPP will receive four million euros from the new programme for the implementation of the first approved magnetic fusion project and will also act as the project coordinator. The project consists of two large content blocks. In the first, IPP will work together with the start-up company Proxima Fusion on fundamental questions relating to the concept of a stellarator power plant. This involves the optimisation of the magnetic cage, the controlled dissipation of heat and the development of a remote maintenance concept. Proxima Fusion is receiving almost six million euros in additional funding from the BMBF.   In the second block, KIT is cooperating with the German fusion company Gauss Fusion. The aim is to develop dismantlable, superconducting coils to facilitate the maintenance of a future fusion power plant. The IPP is involved as a partner.   The BMBF is funding the entire project to the tune of almost 20 million euros over a period of three years. #fusionenergy #nuclearfusion #engineering #energy

There is good successful advancement towards net fusion energy generation by multiple teams using different methods. I believe we will be presented with scalable reactors with manufacturing, installation and operational guidelines most probably by 2027. The Joint European Torus (JET), one of the world's largest and most powerful fusion machines, has demonstrated the ability to reliably generate fusion energy, while simultaneously setting a world record in energy output. In JET's final deuterium-tritium experiments (DTE3), high fusion power was consistently produced for five seconds, resulting in a ground-breaking record of 69 megajoules using a mere 0.2 milligrams of fuel. Dr. Emmanuel Joffrin, EUROfusion Tokamak Exploitation Task Force Leader from CEA, said, "Not only did we demonstrate how to soften the intense heat flowing from the plasma to the exhaust, we also showed in JET how we can get the plasma edge into a stable state thus preventing bursts of energy reaching the wall. Both techniques are intended to protect the integrity of the walls of future machines. This is the first time that we've ever been able to test those scenarios in a deuterium-tritium environment." These experiments were primarily designed as the first-ever opportunity to demonstrate the feasibility of minimizing heat loads on the wall in a deuterium-tritium environment, crucial for ITER scenarios. Most approaches to creating commercial fusion favor the use of two hydrogen variants—deuterium and tritium. When deuterium and tritium fuse together they produce helium and vast amounts of energy—a reaction that will form the basis of future fusion powerplants. Deuterium is plentiful and can be extracted from water. Tritium is a radioactive variant of hydrogen with a half-life of about 12 years. Tritium can be farmed from lithium. As it transitions into the next phase of its life cycle for repurposing and decommissioning, a celebration in late February 2024 will honor its founding vision and the collaborative spirit that has driven its success. #climatechange #fusionenergy #tokomaks

Engineers and scientists are charting a path towards a future powered by fusion energy, offering a nearly limitless and sustainable energy source to meet the world's growing demands. Recent strides in controlled fusion reactions have shifted focus towards scalability and commercialization, with initiatives like the U.S. Department of Energy's INFUSE program supporting groundbreaking projects in fusion technology. 💡🌍 Companies like Thea Energy are at the forefront, pioneering innovative approaches to fusion with initiatives like their boron-based renewable first wall for stellarator fusion devices. By leveraging advancements in physics, engineering, and computing, these efforts are driving progress towards scalable and cost-effective fusion energy solutions. As we continue to support and champion these advancements, fusion energy holds the promise of a cleaner and brighter future for all. Read more: https://lnkd.in/dtuyB2ip #quantumtechnology #FusionEnergy

⚡When will fusion be ready?⌚   🗣Trinomics shares insights with leading experts…  📈Fusion energy is one of the big hopes for advanced sustainable energy generation. A long running joke always has fusion 30 years away, however innovation in the sector looks to have finally flipped the switch on the countdown, and new private players are hoping to massively accelerate this. The most ambitious projects aim to deliver fusion power in 5 years.     📊Trinomics conducted a study for the European Commission which provided a clear overview of the state of fusion initiatives around the world and developed scenarios of potential fusion development to explore the implications for the sector and policymakers. The results were presented by our senior consultant Matthew Smith to global experts, in a webinar hosted by the International Atomic Energy Agency (IAEA). Find the link to the study below. 🔍Three key points from Matthew's presentation are: 🚀Several private fusion initiatives are set to complete their next experimental devices between 2024-2030 – which could be groundbreaking, and a step towards pilot power plants in the 2030’s 🌍Public fusion programmes, especially ITER Organization, continue to drive progress in fusion science, technology and engineering – ITER will remain a crucial contributor to fusion in all likely scenarios 🤝It is very likely that public and private fusion programmes will need to collaborate to address the full range of challenges that need to be overcome to bring fusion to market readiness 💬If you are curious about #fusion energy, reach out to Matthew via the comments and he will share his insights. #cleanenergy #fusionpower #fusionenergy #innovation #breakthrough #ITER #collaboration #futureenergy

Exciting news from the fusion energy science front: European researchers at the JET facility achieved a fusion energy record of 69 megajoules. Their innovative experiment aims to verify scenarios for future fusion machines, such as ITER. This milestone, breaking previous records, marks significant progress towards sustainable fusion energy. JET's findings, crucial for ITER and DEMO, promise a clean, low-carbon energy future.   https://lnkd.in/g4x7CDpf #science #technology #energy #sustainability