Tokamak Energy’s Post

Would you think of magnets when you see this image? These giants are ITER poloidal field coils - both were manufactured on site due to their size - i.e. 24 and 17 m in diametre. Their role? Shaping the fusion plasma. Now in storage, they will be inserted into the Tokamak pit in the coming years. More about the magnet system here: https://lnkd.in/eMRuHYVB #fusionenergy #ITER #magnets #manufacturing #superconducting

Great development on HTS technologies for fusion and other applications.

High-temperature superconductors have a reputation for being difficult to work with. But in this video explainer Rod Bateman at Tokamak Energy shows how the company's HTS magnets can be designed and manufactured to be robust - even when holes are drilled through them. Another hugely important point about Tokamak Energy magnets is that they can be made using HTS tapes from six different suppliers, thereby reducing risk on the supply chain.

Darby Dunn, our Vice President of Production, breaks down the three types of magnets we’re manufacturing for SPARC. Each plays a distinct role in controlling the plasma we’ll use to create fusion energy. Did you know the CFS logo represents the 18 toroidal field (TF) magnets used in SPARC? These have the strongest magnetic field in the world for magnets with such a large bore in the center. Their D shape contains and squishes a plasma that SPARC will heat to 100M degrees Celsius.  #FusionEnergy #Fusion #Superconductors

Super conductors Superconductors are materials that, when cooled to a critical temperature, can conduct electricity without any resistance or energy loss. This property allows them to expel magnetic fields as they transition to the superconducting state. Superconductivity was discovered over 100 years ago, and it is characterized by the complete cancelation of the magnetic field in the interior of the material during its superconducting state, a phenomenon known as the Meissner effect. Superconductors have various applications, including the creation of powerful magnets and potential use in future fusion reactors. They are made of elements, intermetallic alloys, or compounds that conduct electricity without resistance below a critical temperature. https://lnkd.in/d-kbQMm9 #Superconductors #Superconductivity #RoomTempSuperconductivity #QuantumSuperconductivity #SocialMediaSuperconductivity #RevolutionarySuperconductivity #SuperconductingMaterials #SuperconductingTech #SuperconductivityResearch #SuperconductivityDiscussions #fusionreactors #Meissnereffect

Humans have put magnets to use for more than 2,500 years. Fast forward to today: our team is hard at work building three types of magnets that’ll make fusion energy possible. One type is the PF (poloidal field) magnets for SPARC — our innovative fusion machine. These crucial magnet components help shape and control plasma during the fusion process. It’s a small piece of the larger power plants that will bring us commercial fusion in the 2030s.    #FusionEnergy #EnergyTransition

Widemist Ultrasonic Atomizer Nozzles-For CCM Catalyst Coating-Siansonic #Ultrasonic atomizer nozzle for Catalyst Coating

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