This disclosure relates to a method and apparatus for energy production from at least one of electron-mediated nuclear reaction and single-element nuclear reaction, wherein a reactive nuclei fuel is loaded into a reactor. The fuel includes one or more reactive nuclei. To maintain a chain reaction, the fuel structure has a multiplication factor of energetic electrons larger than one. A chain reaction is initiated and/or periodically re-initiated in the fuel.

This disclosure relates to a method and apparatus for energy production from at least one of electron-mediated nuclear reaction and single-element nuclear reaction, wherein a reactive nuclei fuel is loaded into a reactor. The fuel includes one or more reactive nuclei. To maintain a chain reaction, the fuel structure has a multiplication factor of energetic electrons larger than one. A chain reaction is initiated and/or periodically re-initiated in the fuel.

This invention show how to produce energy at special ways without pollution and at very efficient way.

This invention show how to produce energy at special ways without pollution and at very efficient way.

Methods, apparatus, devices, and systems for creating, controlling, conducting, and optimizing fusion activities of nuclei. In particular, the present inventions relate to, 5 among other things, fusion activities that are conducted individually or collectively on a very small scale, preferably on the nano-scale or smaller such as pico to femto scales, for the utilization of energy produced from these activities in smaller devices and for aggregation into larger devices.

Methods, apparatus, devices, and systems for creating, controlling, conducting, and optimizing fusion activities of nuclei. In particular, the present inventions relate to, 5 among other things, fusion activities that are conducted individually or collectively on a very small scale, preferably on the nano-scale or smaller such as pico to femto scales, for the utilization of energy produced from these activities in smaller devices and for aggregation into larger devices.

Embodiments of systems and methods for compressing plasma are described in which plasma pressures above the breaking point of solid material can be achieved by injecting a plasma into a funnel of liquid metal in which the plasma is compressed and/or heated.

Systems and methods utilizing successive, axially symmetric acceleration and adiabatic compression stages to heat and accelerate two compact tori towards each other and ultimately collide and compress the compact tori within a central chamber. Alternatively, systems and methods utilizing successive, axially asymmetric acceleration and adiabatic compression stages to heat and accelerate a first compact toroid towards and position within a central chamber and to heat and accelerate a second compact toroid towards the central chamber and ultimately collide and merge the first and second compact toroids and compress the compact merge tori within the central chamber.

Ocean water and/or heavy water will be utilized as fuel to derive fusion energy. Utilizing multiple coiled, triple-axis systems, shall produce magnetic flux densities from 10.sup.−6 Gauss to 10.sup.−21 Gauss as derived from mc.sup.2=BvLq (Jacobson Resonance). Matter may be cajoled, such as deuterons and protons to fuse, thereby providing energy. This energy will be withdrawn for conversion of heat energy to electricity.

Ocean water and/or heavy water will be utilized as fuel to derive fusion energy. Utilizing multiple coiled, triple-axis systems, shall produce magnetic flux densities from 10.sup.−6 Gauss to 10.sup.−21 Gauss as derived from mc.sup.2=BvLq (Jacobson Resonance). Matter may be cajoled, such as deuterons and protons to fuse, thereby providing energy. This energy will be withdrawn for conversion of heat energy to electricity.