Engineering the Future of Practical Fusion

Engineering the Future of Practical Fusion

Hybrid confinement, no massive infrastructure. Just clean, limitless energy.

Engineering the Future of Practical Fusion

Hybrid confinement, no massive infrastructure. Just clean, limitless energy.

Global Needs

Global Needs

For nearly seventy-five years, nuclear fusion has remained just out of reach as a practical energy source. The science and reaction are well understood, but we still lack a way to harness it at scale. The challenge lies in optimizing the process so that it produces more energy than it consumes.

We need solutions that are scalable, modular, and provide reliable baseload energy as our needs grow.

Simple, Efficient, Practical

At Horne Technologies, our path to hybrid fusion starts with proven technology coupled with modern engineering. We put real hardware at the center, using rapid prototyping and iterative design to refine what works and scale it forward.

Combining two proven confinement approaches, Horne Technologies’ fusion reactor design overcomes the limitations of each. This, coupled with the ability to run continuously, is the foundation of the Horne Fusion Reactor.

Combining two proven confinement approaches, Horne Technologies’ fusion reactor design overcomes the limitations of each. This, coupled with the ability to run continuously, is the foundation of the Horne Fusion Reactor.

Leveraging in-house manufacturing capabilities and prototype testbed, Horne is able to design, fabricate, test, and iterate at a pace only made accessible by our unique approach.

Leveraging in-house manufacturing capabilities and prototype testbed, Horne is able to design, fabricate, test, and iterate at a pace only made accessible by our unique approach.

By targeting abundant deuterium as our initial fuel source, we reduce overhead and complexity, de-risking our innovative path to market.

By targeting abundant deuterium as our initial fuel source, we reduce overhead and complexity, de-risking our innovative path to market.

A New Way Forward

A New Way Forward

Our hybrid approach overcomes the constraints of other fusion methods, combining proven core technologies.

Project Engineer George Ressinger works on vacuum jacket construction in the main chamber

Magnetic cusp confinement

MHD-stable magnetic geometry confines plasma in a high-beta condition, increasing the rate of reaction

Magnetically-shielded HTS grid
Inertial electrostatic heating (IEC)
Patented hybrid confinement methods

Project Engineer George Ressinger works on vacuum jacket construction in the main chamber

Magnetic cusp confinement

MHD-stable magnetic geometry confines plasma in a high-beta condition, increasing the rate of reaction

Magnetically-shielded HTS grid
Inertial electrostatic heating (IEC)
Patented hybrid confinement methods

10^-8 Torr capable, idles at 10^-5 Torr.

10^-8 Torr capable, idles at 10^-5 Torr.

Horne Testbed Real-Time Pressure

...

...

22K

Lowest Magnet Temperature

22K

Lowest Magnet Temperature

60KV

Operational Coil Bias

60KV

Operational Coil Bias

5

Multi-Tesla HTS Magnets

5

Multi-Tesla HTS Magnets

Horne Technologies is forging a path for modular, scalable, and safe energy abundance. Join us today.

Horne Technologies is forging a path for modular, scalable, and safe energy abundance. Join us today.

Global Needs

For nearly seventy-five years, nuclear fusion has remained just out of reach as a practical energy source. The science and reaction are well understood, but we still lack a way to harness it at scale. The challenge lies in optimizing the process so that it produces more energy than it consumes.

We need solutions that are scalable, modular, and provide reliable baseload energy as our needs grow.

Simple, Efficient, Practical

At Horne Technologies, our path to hybrid fusion starts with proven technology coupled with modern engineering. We put real hardware at the center, using rapid prototyping and iterative design to refine what works and scale it forward.

Combining two proven confinement approaches, Horne Technologies’ fusion reactor design overcomes the limitations of each. This, coupled with the ability to run continuously, is the foundation of the Horne Fusion Reactor.

Leveraging in-house manufacturing capabilities and prototype testbed, Horne is able to design, fabricate, test, and iterate at a pace only made accessible by our unique approach.

By targeting abundant deuterium as our initial fuel source, we reduce overhead and complexity, de-risking our innovative path to market.

A New Way Forward

Our hybrid approach overcomes the constraints of other fusion methods, combining proven core technologies.

Project Engineer George Ressinger works on vacuum jacket construction in the main chamber

Magnetic cusp confinement

MHD-stable magnetic geometry confines plasma in a high-beta condition, increasing the rate of reaction

Magnetically-shielded HTS grid
Inertial electrostatic heating (IEC)
Patented hybrid confinement methods

10^-8 Torr capable, idles at 10^-5 Torr.

Horne Testbed Real-Time Pressure

...

22K

Lowest Magnet Temperature

60KV

Operational Coil Bias

5

Multi-Tesla HTS Magnets
Horne Technologies is forging a path for modular, scalable, and safe energy abundance. Join us today.