plasma
nanoreactor
The world's first reactor,
which is based
on the principle of the sun. Inside the reactor, inside the plasma, is
an ignited nanometric artificial sun, with similar conditions as inside
a sun - high temperature, high density of plasma, high gravity, and
high density of gamma photons. A Nanoreactor can run in three modes -
in PhotoFission (igniting of the sun - 300 times higher
efficiency), in PhotoFusion (main sequence of the sun), and in
PhotoFission-Annihilation (as a supernova - 30000 times higher
efficiency than a chain nuclear reaction).
Our Laser Fusion (1MW gamma laser), in comparison with other laser fusion experiments, runs continually (106 times more energy) and concentrates energy to a 1-nanometer focus, a 1018times higher energy density (totally 1000000000000000000000000 times more energy) than the ultraviolet laser in NIF (Livermore). In comparison to many cold fusion experiments, like Tokamak, or Inertial fusion (based on quantum tunneling), our PhotoFusion technology uses (similar to the sun or nuclear weapons) the energy of gamma photons to overcome the Coulomb barrier (by overcoming the speed of light, overcome infinite temperature). So, our design is, in the world, the only one, a functional FUSION REACTOR that overcomes infinite temperature and can generate usable energy.
Our Laser Fusion (1MW gamma laser), in comparison with other laser fusion experiments, runs continually (106 times more energy) and concentrates energy to a 1-nanometer focus, a 1018times higher energy density (totally 1000000000000000000000000 times more energy) than the ultraviolet laser in NIF (Livermore). In comparison to many cold fusion experiments, like Tokamak, or Inertial fusion (based on quantum tunneling), our PhotoFusion technology uses (similar to the sun or nuclear weapons) the energy of gamma photons to overcome the Coulomb barrier (by overcoming the speed of light, overcome infinite temperature). So, our design is, in the world, the only one, a functional FUSION REACTOR that overcomes infinite temperature and can generate usable energy.
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PhotoFission Plasma NanoreactorA Gravi-nuclear PhotoFission or PhotoFusion Plasma Nanoreactor, based on an ignited nanometric artificial sun, is only 3-5cm small. Nanoreactors are highly safe and do not generate any radioactive waste (they burn 100% of the fuel). Plasma Nanoreactor uses, as nuclear fuel, Thorium for ignition and Mercury. Plasma Nanoreactor is about 300 times more effective, 100 times smaller, and 1000 times cheaper than today's nuclear reactors, based on a chain reaction. A Gravi-nuclear PhotoFission Plasma Nanoreactor is a universal energy source that generates a gamma beam, which can be converted into thermal, chemical, mechanical, or electrical energy. This technology can power a single-family home or a car for a few years, and can decrease the price of energy by 10 times.
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PhotoFusion Plasma NanoreactorA Gravi-nuclear PhotoFission has a safe power limit (about 100kW), but a PhotoFusion Plasma Nanoreactor has no limit. PhotoFusion Plasma Nanoreactor has more configurations; the one-chamber has similar limitations, the dual-chamber can generate higher power in a denser plasma of about 10MW, and the dual-phase has no limitations similar to hydrogen nuclear weapons. Maximum usable power depends on the size, construction, possibility of a thermal exchanger, and efficiency of the generator. As nuclear fuel, Thorium Deuteride can be used, where Thorium starts the reaction and ignites the laser, and high power gives fusion reactions (or Lithium Deuteride in dual-phase). This technology can, with high power, replace power stations and heating plants based on fossil fuels, with reduced price and size.
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Applications of Nanoreactors - boiler, electric generatorNanoreactors have many applications in space, energy, and defense industries. A nanoreactor generates a gamma beam, absorbed in a rod, and a thermal exchanger (lead rod in a tube with cycling water) is a complete boiler (5x5x50cm), that can heat a single-family home. Hot water can be used for showering, for radiators, or for underfloor heating. We will develop a cogenerator of electric energy, directly by a magnetoplasma generator, or a chemical nuclear battery, or by plasmaticising of water on H2+O by a gamma beam, that will be burned into high-pressure vapor for turbines, or a rotating piston engine.
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Applications of Nanoreactors - synthetic fuel, chemical factoryA gamma beam deconstructs compounds into elements, so from the air (H2O + CO2 ) can generate Ethanol, which can remove CO2 from the air, to generate cheap Synthetic fuel (E85), that can be used for cars, homes, and industry (carbon recycling technology for sustainable transportation with piston engines). One big coal power station can generate E85 fuel in volume for one nation (10 million tons a year, in value $10 billion, to get fuel for whole Europe needs instal technology on 30 chimneys). Nanoreactors can be used in the chemical and mining industries to change chemicals without additional energy. A gamma beam decomposes all compounds into elements, and elements can separate or react into other chemicals that we need.
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Applications of Nanoreactors - cutting toolThe Nanoreactor is a universal cutting tool and pocket-sized chemical factory. Can be used for cutting stones up to 5 meters thick, for building objects that exist for thousands of years. It can be used for mining elements from ore in nature, without devastating nature and underground water. It can be used for the ecological liquidation of dangerous waste (chemical, biological, toxic, or radioactive, including spent nuclear fuel). It can be used as a weapon, known as a vajra. With gamma optics, it can be focussed on long distances (can cut at 20 km). The nanoreactor has many applications.
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Nuclear Fusion Power StationNuclear Fusion Power Station, up to 10MW can be small in continuous laser mode in a dual-chamber configuration. Can use different energy exchangers like magneto-plasma, plasma piston, or turbine, or a classic thermal exchanger, turbine, and generator. Can be used as a heating plant for a housing estate. Over 10 MW needs to use two phase configuration, with a secondary detonation reactor, where a gamma laser detonates lithium-deuteride milligram capsules. The detonating reactor has thick contraradiation walls with a thermal exchanger, which heats the medium for the turbine and generator. The primary source of the gamma laser is the same few-centimeter-sized Plasma Nanoreactor, and the secondary reactor is dependent on a power of about 1GW have up to 6 meters, including a thermal exchanger. These fusion power stations can be 100 times cheaper than conventional nuclear power stations, and a reactor can be built in one day, and a complete nuclear fusion power station in a month.
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A Gravi-nuclear Photofission Plasma Nanoreactor with gamma optics generates a gamma laser beam (intensity of the epicenter of a nuclear explosion) at a distance of more than 20km, so it can protect the city under the dome from any aerial threats. It can destroy any swarm of drones, ballistic and cruise missiles, airplanes, invisible, hypersonic, and all explosive, nuclear, and chemical weapons, including electronics in low orbit. The Gamma Dome (laser on a gimbal with infrared radar) has less than 200g, so it can be mounted on any mobile systém, including drones.
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For InvestorsOpportunity for an investors: - invest $1-10 million for 1-10% of the share (1st round)
We prefer a Joint-Venture Company or equity form of investment.The nuclear fusion market could achieve a $40 trillion valuation by Bloomberg >>> Plasma Nanoreactor in PhotoFission mode has more applications and a negligible manufacturing price, so valuation is about $200 trillion.
Our technology is principally verified in secret military projects and nuclear weapons, but our technology is smaller, and safer.
A license for the PhotoFission or PhotoFusion Plasma Nanoreactor is available in NATO territory. Part of the license is teaching advanced physics (Unified Theory of Everything), and cooperation on research and development.
