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Imagine a plasma ball where the energy is efficiently pumped into the electrons, keeping the ions cool. This produces an extremely high energy density without the plasma structure destabilizing. This would look like a perfectly uniform heat signature within the orb.

Ashton Forbes

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26,613 görüntüleme • 2 ay önce •via X (Twitter)

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Dense Plasma Focus fusion is a two stage process where the pinch filaments generate hot electrons. That's the heat signature we see in the orbs. The plasmoid is produced from the filaments converging inside, and that's where the fusion occurs with the hot ions. This also creates ion and electron beams that are used to extract electrical energy.

Dense Plasma Focus fusion is a two stage process where the pinch filaments generate hot electrons. That's the heat signature we see in the orbs. The plasmoid is produced from the filaments converging inside, and that's where the fusion occurs with the hot ions. This also creates ion and electron beams that are used to extract electrical energy.

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Real Non-Linear Plasma Orb This is a 100GW, 35 femtosecond, 1kHz laser producing a floating orb of plasma. The buzz you hear is 1kHz frequency. This video is from 2009. The faster the pulses, the more energy produced. We have much more powerful lasers now. EVOs aka Ball Lightning aka Plasmoids are real.

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Check out this orb this guy captured after the earthquake. Is that a plasma lense for the directed energy or something even more exotic? This video seems legit. 🤯📡

BGimpl

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Forgive me guys, Im jus obsessed with these plasma visualizations😍 A relativistic electron beam can rip plasma electrons out of its path and leave behind a positively charged iron cavity. As the driver passes, the light electrons are expelled outward into a dense sheath, while the much heavier ions remain almost stationary.

Forgive me guys, Im jus obsessed with these plasma visualizations😍 A relativistic electron beam can rip plasma electrons out of its path and leave behind a positively charged iron cavity. As the driver passes, the light electrons are expelled outward into a dense sheath, while the much heavier ions remain almost stationary.

Mathelirium

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The plasma orbs are aneutronic fusion reactors running proton boron 11 fusion at extremely low temperatures due to spacetime manipulation lowering the coulomb barrier. The dark lines are bremsstrahlung radiation. The heat signature is the high beta regime within the larger plasma bubble. I'm gonna cook the CIA, Air Force, DoE, etc over these videos.

The plasma orbs are aneutronic fusion reactors running proton boron 11 fusion at extremely low temperatures due to spacetime manipulation lowering the coulomb barrier. The dark lines are bremsstrahlung radiation. The heat signature is the high beta regime within the larger plasma bubble. I'm gonna cook the CIA, Air Force, DoE, etc over these videos.

Ashton Forbes

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Bob Greenyer was right about everything. The plasma produces a toroid (donut) to manipulate the A vector potential (Aharonov-Bohm effect), and the teleportation doesn't require a fourth orb because the total energy input determines how far the object goes in hyperspace. Bob is a cold fusion engineer, btw.

Bob Greenyer was right about everything. The plasma produces a toroid (donut) to manipulate the A vector potential (Aharonov-Bohm effect), and the teleportation doesn't require a fourth orb because the total energy input determines how far the object goes in hyperspace. Bob is a cold fusion engineer, btw.

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vegastar

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This is a computational electromagnetics simulation of a magnetron. A magnetron is a high-power microwave oscillator that uses crossed electric and magnetic fields to control electrons inside resonant cavities. Here, electrons emitted from the central cathode begin to organize into rotating spokes. As they phase-lock with the cavity field, they transfer energy into the resonant microwave mode and sustain the oscillation. Magnetrons are used in microwave ovens, radar systems, industrial heating, plasma generation, and high-power microwave sources.

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Mathelirium

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This video shows an Euler's disk gradually losing its rotational energy as a result of friction with the platform surface, air, and even within the disk itself. The energy is primarily converted into heat and sound waves energy.

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ProPixel Video Analysis and Research

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Researchers at Tokamak Energy have captured for the first time a real-time, high-speed video of plasma behaviour inside their ST40 spherical tokamak, tracking visible green and red light emissions as the fusion process occurs. This visual insight comes via a camera operating at thousands of frames per second, offering unprecedented detail of how the plasma evolves, interacts with the surrounding lithium blanket and outer regions, and ultimately radiates energy. The imaging enables scientists to observe how the ultra-hot core transitions outward into cooler zones, how magnetic confinement shapes the plasma behaviour, and how impurities or outer-region interactions influence the process. By giving a ‘star-in-a-donut’ view of fusion in action, this breakthrough adds a new diagnostic tool to the development of fusion energy, helping engineers refine the magnetic confinement, optimise plasma stability and better understand the heat and light flows at play. It was slowed down by 100x. All this was for 0.3s A tokamak is one of the most advanced devices ever created to achieve controlled nuclear fusion, the same process that powers the Sun. Its goal is simple in principle but incredibly challenging in practice: heat a gas until it becomes plasma, raise that plasma to over 100 million degrees, and confine it long enough for hydrogen nuclei to fuse and release energy. Because no material container can survive such temperatures, a tokamak uses powerful magnetic fields to hold and shape the plasma like an invisible cage. The device has a distinctive doughnut-shaped (toroidal) chamber surrounded by magnetic coils. When the machine is switched on, electric currents and external magnets work together to create helical magnetic fields that trap the plasma and keep it away from the walls. As the plasma spirals around these magnetic lines, it heats up dramatically. Additional heating comes from methods like radio-frequency waves and neutral-beam injection, pushing the plasma toward the extreme temperatures needed for fusion. Inside this tightly controlled environment, hydrogen isotopes such as deuterium and tritium can collide and fuse, releasing fast neutrons and a burst of energy. The goal of tokamak research is to reach a point where the fusion reactions produce more energy than the system consumes, a milestone known as “net energy gain.” Modern machines like ITER, JET, and Tokamak Energy’s ST40 are bringing this vision closer, using advanced diagnostics, superconducting magnets, and increasingly stable plasma control. 👉

Researchers at Tokamak Energy have captured for the first time a real-time, high-speed video of plasma behaviour inside their ST40 spherical tokamak, tracking visible green and red light emissions as the fusion process occurs. This visual insight comes via a camera operating at thousands of frames per second, offering unprecedented detail of how the plasma evolves, interacts with the surrounding lithium blanket and outer regions, and ultimately radiates energy. The imaging enables scientists to observe how the ultra-hot core transitions outward into cooler zones, how magnetic confinement shapes the plasma behaviour, and how impurities or outer-region interactions influence the process. By giving a ‘star-in-a-donut’ view of fusion in action, this breakthrough adds a new diagnostic tool to the development of fusion energy, helping engineers refine the magnetic confinement, optimise plasma stability and better understand the heat and light flows at play. It was slowed down by 100x. All this was for 0.3s A tokamak is one of the most advanced devices ever created to achieve controlled nuclear fusion, the same process that powers the Sun. Its goal is simple in principle but incredibly challenging in practice: heat a gas until it becomes plasma, raise that plasma to over 100 million degrees, and confine it long enough for hydrogen nuclei to fuse and release energy. Because no material container can survive such temperatures, a tokamak uses powerful magnetic fields to hold and shape the plasma like an invisible cage. The device has a distinctive doughnut-shaped (toroidal) chamber surrounded by magnetic coils. When the machine is switched on, electric currents and external magnets work together to create helical magnetic fields that trap the plasma and keep it away from the walls. As the plasma spirals around these magnetic lines, it heats up dramatically. Additional heating comes from methods like radio-frequency waves and neutral-beam injection, pushing the plasma toward the extreme temperatures needed for fusion. Inside this tightly controlled environment, hydrogen isotopes such as deuterium and tritium can collide and fuse, releasing fast neutrons and a burst of energy. The goal of tokamak research is to reach a point where the fusion reactions produce more energy than the system consumes, a milestone known as “net energy gain.” Modern machines like ITER, JET, and Tokamak Energy’s ST40 are bringing this vision closer, using advanced diagnostics, superconducting magnets, and increasingly stable plasma control. 👉

Erika 

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Taming the Edge: How lithium could help us control #fusion plasmas. This video captures the first flashes of lithium being injected into the #plasma of our ST40 tokamak, marking the start of our exploration into its effects. Why lithium? In fusion research, we aim for H-mode, a high-performance state with improved plasma confinement. Future fusion power plants are expected to operate in this mode. But H-mode brings a challenge: ELMs (Edge Localised Modes) are bursts of energy at the plasma edge, similar to mini solar flares. These can reduce plasma temperature and damage the divertor with intense heat and particles. Pioneering work by PPPL and others has shown that lithium can suppress ELMs and increase energy confinement time, leading to higher temperatures. On ST40, we’re currently injecting lithium powder during plasma shots to explore its effects. As part of our upcoming ST40 LEAPS upgrade – in partnership with the U.S. Department of Energy and Department for Energy Security and Net Zero – we’ll go further, coating plasma-facing components with solid lithium using the ‘lithium evaporation’ technique. We’ll be experimentally testing several mechanisms. One key focus is how lithium absorbs hydrogen isotopes and reduces their recycling back into the plasma, lowering the density at the plasma edge, leading to a more stable edge pressure gradient. We’re starting to understand more about lithium’s effect on plasma performance, and early results show lithium isn't getting into the plasma core, which is good news for avoiding diluting the fusion fuel in future plants. The physics is complex, and we’re still learning. But each step brings us closer to fusion energy. By incorporating lithium into ST40, the world’s highest field spherical tokamak, we’re advancing our understanding of this critical enabling technology. #Fusion #FusionEnergy #Innovation #Limitless #EnergyTransition

Taming the Edge: How lithium could help us control #fusion plasmas. This video captures the first flashes of lithium being injected into the #plasma of our ST40 tokamak, marking the start of our exploration into its effects. Why lithium? In fusion research, we aim for H-mode, a high-performance state with improved plasma confinement. Future fusion power plants are expected to operate in this mode. But H-mode brings a challenge: ELMs (Edge Localised Modes) are bursts of energy at the plasma edge, similar to mini solar flares. These can reduce plasma temperature and damage the divertor with intense heat and particles. Pioneering work by PPPL and others has shown that lithium can suppress ELMs and increase energy confinement time, leading to higher temperatures. On ST40, we’re currently injecting lithium powder during plasma shots to explore its effects. As part of our upcoming ST40 LEAPS upgrade – in partnership with the U.S. Department of Energy and Department for Energy Security and Net Zero – we’ll go further, coating plasma-facing components with solid lithium using the ‘lithium evaporation’ technique. We’ll be experimentally testing several mechanisms. One key focus is how lithium absorbs hydrogen isotopes and reduces their recycling back into the plasma, lowering the density at the plasma edge, leading to a more stable edge pressure gradient. We’re starting to understand more about lithium’s effect on plasma performance, and early results show lithium isn't getting into the plasma core, which is good news for avoiding diluting the fusion fuel in future plants. The physics is complex, and we’re still learning. But each step brings us closer to fusion energy. By incorporating lithium into ST40, the world’s highest field spherical tokamak, we’re advancing our understanding of this critical enabling technology. #Fusion #FusionEnergy #Innovation #Limitless #EnergyTransition

Tokamak Energy

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The video shows a glowing plasma toroid resembling a hollow, dynamic donut. This mirrors the “snowflake” plasma shape in tokamaks, where magnetic fields create a hexagonal pattern that spreads heat, reduces wall wear, and stabilizes fusion plasma. Only 15 views on YT

The video shows a glowing plasma toroid resembling a hollow, dynamic donut. This mirrors the “snowflake” plasma shape in tokamaks, where magnetic fields create a hexagonal pattern that spreads heat, reduces wall wear, and stabilizes fusion plasma. Only 15 views on YT

Bluntly Put Philosopher (BPP)

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$A 200-femtosecond laser strips electrons from the air, creating a plasma “seed”. Microwaves rapidly heat that path until branching fractal patterns appear and a Mach 1 shockwave races outward. For a split second, the air starts behaving like a living structure.$

A 200-femtosecond laser strips electrons from the air, creating a plasma “seed”. Microwaves rapidly heat that path until branching fractal patterns appear and a Mach 1 shockwave races outward. For a split second, the air starts behaving like a living structure.

Bluntly Put Philosopher (BPP)

18,719 görüntüleme • 4 ay önce

A knockout finish to 2025 for ST40! This video shows a stunning colour plasma pulse at 16,000 frames per second, from a campaign where our ST40 spherical tokamak achieved three new performance records before heading into a major upgrade: ✅Highest plasma current – 1 MA (one million amperes) ✅Highest stored energy ✅Highest fusion triple product ST40 set a new record by reaching 1 MA of plasma current, while stored energy nearly doubled compared to earlier campaigns. This demonstrates that a relatively small plasma volume can hold immense power – an important insight on the path to energy-producing devices. The fusion triple product—a key measure of performance combining plasma temperature, density, and energy confinement—rose over 30% to ~8 ±2 × 10¹⁸m⁻³·keV·s. Next up: a $52M upgrade in partnership with the U.S. Department of Energy and Department for Energy Security and Net Zero, driving the development of key technologies and expertise for fusion. ST40 continues to punch above its weight—and we’re just getting started. Read more: 👇 #FusionEnergy #CleanEnergy #Innovation #Limitless

A knockout finish to 2025 for ST40! This video shows a stunning colour plasma pulse at 16,000 frames per second, from a campaign where our ST40 spherical tokamak achieved three new performance records before heading into a major upgrade: ✅Highest plasma current – 1 MA (one million amperes) ✅Highest stored energy ✅Highest fusion triple product ST40 set a new record by reaching 1 MA of plasma current, while stored energy nearly doubled compared to earlier campaigns. This demonstrates that a relatively small plasma volume can hold immense power – an important insight on the path to energy-producing devices. The fusion triple product—a key measure of performance combining plasma temperature, density, and energy confinement—rose over 30% to ~8 ±2 × 10¹⁸m⁻³·keV·s. Next up: a $52M upgrade in partnership with the U.S. Department of Energy and Department for Energy Security and Net Zero, driving the development of key technologies and expertise for fusion. ST40 continues to punch above its weight—and we’re just getting started. Read more: 👇 #FusionEnergy #CleanEnergy #Innovation #Limitless

Tokamak Energy

46,765 görüntüleme • 9 ay önce

I predicted this exact scientific discovery six months ago. "The plasma itself is being used as a mirror to amplify energy."

I predicted this exact scientific discovery six months ago. "The plasma itself is being used as a mirror to amplify energy."

Ashton Forbes

66,536 görüntüleme • 5 ay önce