Metatron N.R.G.

Pioneering

the Future of

Clean Energy

Discover the groundbreaking small-scale nuclear fusion technology that promises to 
revolutionize the energy landscape. Our stable micro-plasmoids offer a cost-effective, 
compact, and green energy solution that surpasses traditional methods. Join us on our journey 
towards a cleaner, sustainable world with limitless possibilities.

About us

Revolutionizing Energy:

Metatron N.R.G. offers a revolutionary approach to generating nuclear fusion, the holy grail of energy sources. Unlike existing methods that aim to replicate the violent and extreme
conditions of the sun and stars, Metatron N.R.G. employs micro- entities called plasmoids.
 These plasmoids catalyze fusion via the quantum mechanical effect known as tunneling.
While micro-plasmoids—self-confined plasma—are known, their instability has precluded their use as core elements in fusion reactors. Metatron N.R.G.’s primary and exciting
achievement lies in generating new types of stable plasmoids. This breakthrough is analogous to the invention of transistors that replaced vacuum tubes in radio and electronics, opening
the doors to a novel kind of small fusion reactor, comparable in size to a desktop computer.

After three years of research and development, we have achieved ongoing fusion events in the lab, establishing the proof of concept for this novel approach. Our current efforts focus on enhancing what we have already achieved to establish a fully functioning nuclear fusion reactor capable of directly generating electric power.

Our Mission

Energy Innovation

Metatron N.R.G. aims to develop and produce a mass- market product: a small, plug-and-use
device serving as a source of virtually unlimited, affordable, green, and clean energy for
industry, home consumption, vehicles, and more.

Our vision

Nuclear Technology

Envision a world where clean, abundant, and affordable energy is a reality. With our innovative small-scale nuclear fusion technology, global pollution can be reversed, leading to a healthier planet. Imagine a revolution in energy, driven by compact and sustainable fusion technology. Picture a world where energy is both affordable and abundant. This is the future
we strive to create. Metatron N.R.G. is committed to making this vision a reality.

What are our advantages

Energy Innovation

Size
matters

Metatron’s fusion reactor stands out due
to its very small size, distinguishing it
from all other

attempts worldwide to build fusion
reactors, which, even if successful, would
serve only as

small and medium power plants rather
than as individual house power supplies.

cost and development
time

Additional key differences include cost
and development time. Metatron’s
approach focuses on cost-effective,
small-scale reactors. With an initial $2
million investment, the company has

demonstrated proof-of-concept fusion
events and estimates that, within 36
months, Metatron could refine its
prototype and develop a full-scale
reactor capable of producing net energy.

Working faster and more
efficiently than others

In contrast to us, parallel projects require
hundreds of millions of dollars and
significantly longer

timelines.

What are our advantages

Energy Innovation

how the magic happens
step by step

step inside the magic

Plasmoids generation in the initiation mode:

Within a tube containing a special combination of materials including Deuterium dioxide (heavy water) as the nuclear fusion fuel, and surrounded by a magnetic configuration, underwater plasma is generated by high voltage pulses (around 20,000 volts). Guided by their own magnetic fields, tiny vortices of plasma implode into self-confined structures the size of few micrometers called plasmoids.

Collective structure of plasmoids:

After the initiation mode, low DC voltage is applied (10-50 volts). Due to the strong magnetic dipole moment of the plasmoids they tend to self-arrange into different phases of collective structures on the bottom of the tube. Part of these structures can be seen with the naked eye. An example of such structure can be seen in the following video.

Zoom-in into the collective structure of plasmoids.
Fusion events:

Due to the quantum mechanical effect known as tunneling, nuclear fusion events start to take place within and between plasmoids. These are expressed as small explosions followed by a bluish arc and shockwaves.

The following video demonstrates fusion events in darkness, which improves our sighting of the bluish light following the fusion events.
Plasmoids generation in the initiation mode:

Within a tube containing a special combination of materials including Deuterium dioxide (heavy water) as the nuclear fusion fuel, and surrounded by a magnetic configuration, underwater plasma is generated by high voltage pulses (around 20,000 volts). Guided by their own magnetic fields, tiny vortices of plasma implode into self-confined structures the size of few micrometers called plasmoids. 

Collective structure of plasmoids:

After the initiation mode, low DC voltage is applied (10-50 volts). Due to the strong magnetic dipole moment of the plasmoids they tend to self-arrange into different phases of collective structures on the bottom of the tube. Part of these structures can be seen with the naked eye. An example of such structure can be seen in the video above.

Zoom-in into the collective structure of plasmoids.
Fusion events:

Due to the quantum mechanical effect known as tunneling, nuclear fusion events start to take place within and between plasmoids. These are expressed as small explosions followed by a bluish arc and shockwaves.

The video above demonstrates fusion events in darkness, which improves our sighting of the bluish light following the fusion events.

Our History

History of Our nuclear Fusion Project

The roots of our nuclear fusion project trace back to 1989, when Clara Szalai—a writer,
 philosopher, and inventor— conceptualized the foundational ideas of our current setup, which
initially seemed unconventional.

By 2003, Dr. Eisenberg began to understand the potential behind the concept. From that point onwards, Clara Szalai and Dr. Eisenberg dedicated themselves to refining the original ideas

At the end of 2021, with a budget of $2 million and a team of only three people, the project
transitioned from the conceptual stage to reality. Within three years of R&D, the first fusion events began to occur, achieving proof of concept for this unconventional idea.

Around 1995, Dr. Yeshayahu Eisenberg, a physicist with a PhD from the Weizmann Institute in high-energy physics (string theory) and a postdoctoral fellowship from the Institute for Advanced Study in Princeton, was introduced to Clara Szalai’s vision. Although he initially approached the idea with skepticism, it continued to intrigue him over the years.

By 2016, they concluded that the project was ready for realization.

The roots of our nuclear fusion project trace back to 1989, when Clara Szalai—a writer, philosopher, and inventor—conceptualized the foundational ideas of our current setup, which initially seemed unconventional.

Around 1995, Dr. Yeshayahu Eisenberg, a physicist with a PhD from the Weizmann Institute in high-energy physics (string theory) and a postdoctoral fellowship from the Institute for Advanced Study in Princeton, was introduced to Clara Szalai’s vision. Although he initially approached the idea with skepticism, it continued to intrigue him over the years.

By 2003, Dr. Eisenberg began to understand the potential behind the concept. From that point onwards, Clara Szalai and Dr. Eisenberg dedicated themselves to refining the original ideas

By 2016, they concluded that the project was ready for realization.

At the end of 2021, with a budget of $2 million and a team of only three people, the project transitioned from the conceptual stage to reality. Within three years of R&D, the first fusion events began to occur, achieving proof of concept for this unconventional idea.

PATENT

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Protected by Provisional Patent Application No. 63/756,172

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