Close Menu
Illustrated Curiosity | Economics, History, Science, Space, Technology, Health, Physics, Earth
    Facebook X (Twitter) Instagram YouTube
    Illustrated Curiosity | Economics, History, Science, Space, Technology, Health, Physics, Earth
    • Earth
    • Economics
    • Environment
      • Environmental Tech
      • Pollution
      • Wildlife
    • Health
      • Health Tech
      • Medicine
      • Nutrition
      • Exercise
    • History
      • Prehistory
      • Ancient History
      • Postclassical Era
      • Modern History
    • Humans
      • Human Brain
      • Psychology
    • Life
      • Animals & Plants
      • Genetics
      • Paleontology
      • Evolution
      • Genetic Engineering
    • Physics
    • Space
      • Astrobiology
      • Astronomy
      • Extrasolar Planets
      • Space Tech
      • Spaceflight
    • Technology
      • Artificial Intelligence
      • Energy
      • Engineering
      • Materials
      • Robotics
      • Vehicles
    Illustrated Curiosity | Economics, History, Science, Space, Technology, Health, Physics, Earth
    Home » Tokamak Energy Has Heated a Plasma of Hydrogen Hotter Than the Core of the Sun
    Energy

    Tokamak Energy Has Heated a Plasma of Hydrogen Hotter Than the Core of the Sun

    July 18, 20183 Mins Read
    Image: Pixabay
    Share
    Facebook Twitter LinkedIn Pinterest Email

    A milestone on the way to controlled fusion, with private nuclear-fusion company British Tokamak Energy, has achieved 15 million degrees in a new reactor for the first time — hotter than the core of the sun.

    Fusion energy is the future; this is what we have been told for several decades. Tokamak Energy is one of the players in the slow race to develop commercial fusion energy power.

    They have now achieved a major milestone as they have managed to produce plasma at temperatures above 15 million degrees Celsius – that is, hotter than the core of the sun.

    The reactor is named ST40 and is the third machine in a five-step plan to achieve the goal of pure fusion energy. A goal they are hoping to reach by 2025.

    The next goal is to reach an even higher temperature that allows for controlled fusion, the key aspect if fusion is ever to become a commercially viable alternative to fission

    “Reaching 15 million degrees is yet another indicator of the progress at Tokamak Energy and a further validation of our approach. Our aim is to make fusion energy a commercial reality by 2030. We view the journey as a series of engineering challenges, raising additional investment on reaching each new milestone.”

    “We are taking significant steps towards achieving fusion energy and doing so with the agility of a private venture, driven by the goal of achieving something that will have huge benefits worldwide.”

    – Jonathan Carling, Tokamak Energy CEO

    Tokamak Energy is a spin-off from the Culham Centre for Fusion Energy in British Oxfordshire. The key to success is that the company uses a so-called tokamak reactor, in combination with specifically designed superconducting magnets. The successful attempt means that you can start preparing for even higher temperatures.

    The ST40 reactor and future reactors planned by Tokamak Energy use a compact spherical tokamak design, with an almost round vacuum chamber instead of the wider donut shape being used in the ITER reactor. The 2.1 meter electromagnets that surround the Tokamak Energy reactor were cooled by liquid helium to operate at minus 253.15 degrees Celsius.

    The British company has come a long way, but there are several players aiming at becoming the first supplier of commercial fusion energy. For example, in France, the building of the International Thermonuclear Experimental Reactor is progressing, albeit slowly. It will be ready in 2025, and it aims to be able to deliver energy in the 2030’s. In addition, there are several research institutions that have come a long way in the U.S. and China.

    Tokamak Energy’s five steps to fusion energy:

    Step 1: Build a small prototype to demonstrate the concept – achieved in 2013

    Step 2: Build a tokamak with superconducting magnets – achieved in 2015

    Step 3: Reach 100 million degrees fusion temperatures in a compact tokamak, followed by further development to produce high-density plasma and achieve fusion energy

    Step 4: Achieve Industrial Energy Level with Fusion Power Demonstrators 2025

    Step 5: Produce commercially viable fusion power with the first Fusion Power Module 2030.

    Nuclear Fusion
    Share. Facebook Twitter Pinterest LinkedIn Tumblr Email Copy Link

    Related Posts

    A Fusion Energy Breakthrough? Major Announcement Expected From US Scientists

    December 12, 2022

    New Efficiency Record for Transparent Solar Cells

    August 26, 2020

    IBM’s Lithium Battery Uses Seawater Materials Instead of Heavy Metals

    May 31, 2020

    Demand for batteries will increase tenfold

    May 20, 2020

    Samsung Unveils Groundbreaking All-solid-state Battery Technology

    May 5, 2020

    Unveiling the Future of Energy: Small Modular Reactors (SMRs)

    January 27, 2020
    Recent Posts
    • The Day the Alliance Died
    • Evaluating Heart Disease: How Cumulative Diet Choices Compound Your Risk
    • What Would Happen If China Attacked Taiwan?
    • Geopoliticisation as a Structural Tailwind for Commodity Prices
    • America’s Economic Remodel: Who’s Really Paying the Bill?
    • Why Inflation May Be Preparing for a Second Act
    • How the End of Bretton Woods Reshaped Our Economies — and Our Politics
    • Can the U.S. Really Handle 250% Debt-to-GDP? Why Jackson Hole’s Daring Paper Is Wrong
    • Japan’s Fiscal Trap: What Happens If Austerity Is No Longer an Option?
    • The Rise of Range Extended Electric Vehicles (REEVs): A New Era of Hybrid Mobility
    © 2025 Illustrated Curiosity

    Type above and press Enter to search. Press Esc to cancel.