| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 21 | 사용후 핵연료 저장조의 냉각과 모니터링을 위한 붕괴열로부터의 발전 | KR1020147003010 | 2012-07-27 | KR1020140058544A | 2014-05-14 | 타틀리,엠레; 벨리첵,조셉,쥐.; 루,바오푸; 스탠스버리,코리,에이.; 굴러,켄크; 오스트로스키,마이클,조셉 |
| 본 발명은 핵 발전소에서 발전소 정전 사고 시에, 사용후 연료 저장조에 물을 보충하기 위한 펌프 및 저장조를 모니터링하는 센서에 지속적으로 전원 공급하기 위한 보조 전원에 관한 것이다. 그 전원은 펌프 및 센서용 전력을 발생시키도록 스털링 사이클 또는 유기 랭킨 사이클 엔진과 같은, 열전소자 시스템 또는 폐열 엔진을 활성화하도록 저장조 내의 사용후 연료로부터의 폐열을 사용한다. 보조 전원은 또한 사용후 연료 저장조를 냉각시키도록 냉각 시스템에 전원을 공급할 수 있다.
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| 22 | DEVICE FOR RECLAMATION OF A RADIOACTIVE HIGH LEVEL WASTE FOR ENERGY CONSUMPTION | US15205609 | 2016-07-08 | US20180012670A1 | 2018-01-11 | Shawn Robinson |
| 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 | ||||||
| 23 | ELECTRIC FISSION REACTOR FOR SPACE APPLICATIONS | US14770894 | 2014-03-26 | US20160012924A1 | 2016-01-14 | Patrick Ray McClure; David Duff Dixon; David Irvin Poston; Lee Mason; Marc Gibson |
| Embodiments of the present invention pertain to a power system utilizing a uranium-based reactor for space missions. For example, the power system may include a reactor configured to generate thermal energy using a uranium core. A plurality of heat pipes may be configured to transfer thermal energy from the reactor core to a plurality of Stirling engines to generate electricity for a spacecraft. | ||||||
| 24 | SOURCE OF ELECTRICITY DERIVED FROM A SPENT FUEL CASK | US13798271 | 2013-03-13 | US20140270042A1 | 2014-09-18 | Jeffrey T. Dederer |
| Apparatus for extracting useful electric or mechanical power in significant quantities from the decay heat that is produced within spent nuclear fuel casks. The power is used for either powering an active forced air heat removal system for the nuclear casks, thereby increasing the thermal capacity of the casks, or for emergency nuclear plant power in the event of a station blackout. Thermoelectric generators or other heat engines are employed using the thermal gradient that exists between the spent nuclear fuel and the environment surrounding the cask's components housing the nuclear fuel to produce the power. | ||||||
| 25 | Vapor forming apparatus, system and method for producing vapor from radioactive decay material | US13340145 | 2011-12-29 | US08822963B2 | 2014-09-02 | Eric P. Loewen; Jordan E. Hagaman |
| Example embodiments include a vapor forming apparatus, system and/or method for producing vapor from radioactive decay material. The vapor forming apparatus including an insulated container configured to enclose a nuclear waste container. The nuclear waste container includes radioactive decay material. The insulated container includes an inlet valve configured to receive vapor forming liquid. The radioactive decay material transfers heat to the vapor forming liquid. The insulated container also includes an outlet valve configured to output the vapor forming liquid heated by the radioactive decay material. | ||||||
| 26 | VAPOR FORMING APPARATUS, SYSTEM AND METHOD FOR PRODUCING VAPOR FROM RADIOACTIVE DECAY MATERIAL | US13340145 | 2011-12-29 | US20130167531A1 | 2013-07-04 | Eric P. Loewen; Jordan E. Hagaman |
| Example embodiments include a vapor forming apparatus, system and/or method for producing vapor from radioactive decay material. The vapor forming apparatus including an insulated container configured to enclose a nuclear waste container. The nuclear waste container includes radioactive decay material. The insulated container includes an inlet valve configured to receive vapor forming liquid. The radioactive decay material transfers heat to the vapor forming liquid. The insulated container also includes an outlet valve configured to output the vapor forming liquid heated by the radioactive decay material. | ||||||
| 27 | DIRECT CHARGE RADIOISTOPE ACTIVATION AND POWER GENERATION | US09832342 | 2001-04-09 | US20030006668A1 | 2003-01-09 | Amit Lal; Hui Li; James P. Blanchard; Douglass L. Henderson |
| An activator has a base on which is mounted an elastically deformable micromechanical element that has a section that is free to be displaced toward the base. An absorber of radioactively emitted particles is formed on the base or the displaceable section of the deformable element and a source is formed on the other of the displaceable section or the base facing the absorber across a small gap. The radioactive source emits charged particles such as electrons, resulting in a buildup of charge on the absorber, drawing the absorber and source together and storing mechanical energy as the deformable element is bent. When the force between the absorber and the source is sufficient to bring the absorber into effective electrical contact with the source, discharge of the charge between the source and absorber allows the deformable element to spring back, releasing the mechanical energy stored in the element. An electrical generator such as a piezoelectric transducer may be secured to the deformable element to convert the released mechanical energy to electrical energy that can be used to provide power to electronic circuits. | ||||||
| 28 | Method and means for utilizing accelerated neutral particles | US17658471 | 1971-08-31 | US3846636A | 1974-11-05 | LANK P; ZEHR P; LANK M |
| The invention resides in the utilization of radiant energy by bringing together accelerated positive ions and accelerated electrons or accelerated negative ions to produce accelerated neutral particles the energy of which may then be converted to heat on bombardment of particles of an appropriate reactant, or utilized in other ways as in neutral particle radiography.
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| 29 | Combined radioisotope power and propulsion system | US3528245D | 1968-05-27 | US3528245A | 1970-09-15 | SITNEY LAWRENCE R |
| 30 | Powerplant having radi active heat source | US3435617D | 1966-04-06 | US3435617A | 1969-04-01 | WAGLE JOSEPH A |
| 31 | Radioisotope subliming solid propulsion system | US51426865 | 1965-12-16 | US3373563A | 1968-03-19 | MCCABE JAMES A |
| 32 | Motor using nuclear charged particles | US14008761 | 1961-09-22 | US3302024A | 1967-01-31 | EDLING ELLSWORTH A; MCKENNA RICHARD P |
| 33 | Radioisotope attitude control engine | US27137663 | 1963-04-08 | US3280568A | 1966-10-25 | FRIEDMAN BURNAM I; MARTINEZ JOHN S; DONALD JORTNER |
| 34 | Radionuclide propulsion device | US29159863 | 1963-06-24 | US3258911A | 1966-07-05 | BOUQUET JR FRANCIS L; SMYTH SAMUEL J |
| 35 | Radioactive heat source and container with helium permeable window in the container | US84959359 | 1959-10-29 | US3133196A | 1964-05-12 | ROCHLIN ROBERT S |
| 36 | POWER GENERATOR FOR USE IN LEFT VENTRICULAR ASSIST DEVICE (LVAD) AND TOTAL ARTIFICIAL HEART (TAH) AND RELATED METHODS | US16325183 | 2017-08-14 | US20190192755A1 | 2019-06-27 | Claudio Filippone |
| Various embodiments of a medical device for displacing a bodily fluid inside a patient's body and the related methods are disclosed. In one exemplary embodiment, the medical device may include a source heat exchanger containing a heat generating in source and being configured to transfer heat from the heat generating source to a working fluid. The medical device also includes a hollow shaft comprising a plurality of permanent magnets, an impeller shroud disposed inside the hollow shaft, where the impeller shroud defines an internal passageway through which the bodily fluid passes through. The medical device further includes an impeller disposed inside the internal passageway of the impeller shroud, where the impeller is magnetically coupled to the permanent magnets of the hollow shaft. The medical device includes an expander comprising a rotary component mechanically coupled to the hollow shaft, where the expander being driven by the working fluid flowing from the source heat exchanger to rotate the hollow shaft. Rotation of the hollow shaft generates a rotary magnetic field in the hollow shaft to cause the impeller to rotate and displace the bodily fluid flowing through the internal passageway. | ||||||
| 37 | Nuclear powered internal engine nuclear fuel cycle and housing design improvement | US15883066 | 2018-01-29 | US20180170496A1 | 2018-06-21 | Mark Adams |
| 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. | ||||||
| 38 | SYSTEM AND METHOD FOR CONVERTING HEAT TO KINETIC ENERGY | US15855951 | 2017-12-27 | US20180106242A1 | 2018-04-19 | Shawn Robinson |
| 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. | ||||||
| 39 | Heat Keeping Structure | US15203832 | 2016-07-07 | US20180012674A1 | 2018-01-11 | Yeh-Hsun Wang |
| 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. | ||||||
| 40 | Direct charge radioisotope activation and power generation | US09832342 | 2001-04-09 | US06479920B1 | 2002-11-12 | Amit Lal; Hui Li; James P. Blanchard; Douglass L. Henderson |
| An activator has a base on which is mounted an elastically deformable micromechanical element that has a section that is free to be displaced toward the base. An absorber of radioactively emitted particles is formed on the base or the displaceable section of the deformable element and a source is formed on the other of the displaceable section or the base facing the absorber across a small gap. The radioactive source emits charged particles such as electrons, resulting in a buildup of charge on the absorber, drawing the absorber and source together and storing mechanical energy as the deformable element is bent. When the force between the absorber and the source is sufficient to bring the absorber into effective electrical contact with the source, discharge of the charge between the source and absorber allows the deformable element to spring back, releasing the mechanical energy stored in the element. An electrical generator such as a piezoelectric transducer may be secured to the deformable element to convert the released mechanical energy to electrical energy that can be used to provide power to electronic circuits. | ||||||
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