A nanofuel engine including receiving nanofuel (including moderator, nanoscale molecular dimensions & molecular mixture) internally in an internal combustion engine that releases nuclear energy, is set forth. A nanofuel chemical composition of fissile fuel, passive agent, and moderator. A method of obtaining transuranic elements for nanofuel including: receiving spent nuclear fuel (SNF); separating elements from SNF, including a stream of elements with Z>92, fissile fuel, passive agent, fertile fuel, or fission products; and providing elements. A method of using transuranic elements to create nanofuel, including: receiving, converting, and mixing the transuranic elements with a moderator to obtain nanofuel. A method of operating a nanofuel engine loaded with nanofuel in spark or compression ignition mode. A method of cycling a nanofuel engine, including compressing nanofuel; igniting nanofuel; capturing energy released in nanofuel, which is also the working fluid; and using the working fluid to perform mechanical work or generate heat.

A work machine is provided. The work machines may include a power module configured to provide power including a battery and an engine and configured to a folding heat exchange device. The work machine may also include a drive module configured with one or more motors and positioned over a track roller frame. The work machine may also include a hydraulic module including one or more devices in a front region and one or more devices in a rear region to cut or rip encountered material

The present disclosure discloses a micro-nuclear battery. The micro-nuclear battery comprises a base frame comprising a bottom, a top and a side wall; a cantilever structure having a free end hung in the air and a fixed end fixed to the side wall of the base frame and provided with a piezoelectric component thereon; and a radiation unit comprising an upper radioactive source and a lower radioactive source configured to emit electrons to the free end and respectively arranged at positions in inner surfaces on the top and the bottom of the base frame corresponding to the free end of the cantilever structure, wherein a width of the free end is greater than a width of the fixed end.

A system for converting heat to kinetic energy is disclosed. The system may include a heat source, bimetallic bands and wheels that may support the bimetallic bands. The bimetallic bands may be heated by the heat source and may rotate the wheels. The rotation of the wheels may then be used to convert the kinetic energy to power.

A system for converting heat to kinetic energy is disclosed. The system may include a heat source, bimetallic bands and wheels that may support the bimetallic bands. The bimetallic bands may be heated by the heat source and may rotate the wheels. The rotation of the wheels may then be used to convert the kinetic energy to power.

A device for reclamation of radioactive high level wastes (HLW) for energy consumption comprises a containment shell that comprises a first closing/opening shell lid having an opening to push the radioactive material in one direction and to dispose the radioactive material out of a second closing/opening shell lid. At least one interchangeable buffer plate having a temperature resistant side is in contact with and bolted to the at least one side of the containment shell. A bimetallic band or cable is being curved and having a higher and a lower linear coefficient of thermal expansion. A gear assembly is adapted to be mounted on the support and meshing with the bimetallic band or cable to control the speed of the device. The device has a potential to consume many materials deemed as waste from various stockpiles and/or from power plants as high level radioactive substances to power itself and subsequently create power from sources of energy deemed otherwise unattainable. Also it has the ability to power select devices being used at power plants that would necessitate motor-driven capabilities even in conjunction with a vehicle, for example, turbines, fuel cells, propellers and/or tires

A heat keeping structure includes an additive, a first powdered substance and a second powdered substance. The additive and the first powdered substance are mixed to form the second powdered substance which is molded by a spinning device to form the heat keeping structure. The additive includes a radioactive mineral substance, a calcium silicate substance and a halobios calcium which are mixed and treated by a nanotechnology. Thus, the heat keeping structure has radioactive and activating functions, promotes blood circulation and has a heat keeping effect by provision of the radioactive mineral substance. In addition, the heat keeping structure has low thermal conductivity and has a heat storage function by provision of the calcium silicate substance. Further, the heat keeping structure has antibacterial, mildewproof, moisture absorption, deodorizing and anti-static effects by provision of the halobios calcium.

A heat keeping structure includes an additive, a first powdered substance and a second powdered substance. The additive and the first powdered substance are mixed to form the second powdered substance which is molded by a spinning device to form the heat keeping structure. The additive includes a radioactive mineral substance, a calcium silicate substance and a halobios calcium which are mixed and treated by a nanotechnology. Thus, the heat keeping structure has radioactive and activating functions, promotes blood circulation and has a heat keeping effect by provision of the radioactive mineral substance. In addition, the heat keeping structure has low thermal conductivity and has a heat storage function by provision of the calcium silicate substance. Further, the heat keeping structure has antibacterial, mildewproof, moisture absorption, deodorizing and anti-static effects by provision of the halobios calcium.

The present invention includes a cost effective custom-designed blend of organic chemicals to stimulate oil production. The invention includes a chemical composition for use in drilling operations for oil recovery and the method of using the chemical composition. The chemical composition includes an ammonia compound, an alcohol or polar organic compound, and aqueous carrier solution. The aqueous carrier solution is of sufficient volume such that it is operable to fully dissolve the ammonia compound and alcohol (or polar organic compound) in the aqueous carrier solution. Heating of the solution may be provide by encapsulated Polonium.

A meson converter, and method, for generating thermal energy from a meson flux includes a plurality of absorber layers, where each absorber layer includes a metal plate of a first type, and a plurality of heat transport layers where each heat transport layer includes a metal plate of a second type, where the plurality of absorber layers and the plurality of heat transport layers are arranged alternately in a stack, where each absorber layer is arranged in contact with at least one heat transport layer, where any two adjacent layers in the stack have dissimilar densities and where the thermal conductivity of the metal plate of the second type is higher than the thermal conductivity of the metal plate of the first type.