专利快速检索-快速检索全球专利，免费商用专利数据库-IPRDB

61. 发明授权

US10647312B2 Apparatus and method 有权
公开(公告)号：US10647312B2
公开(公告)日：2020-05-12
申请号：US16064987
申请日：2016-12-16
申请人： Castrol Limited
发明人： Rana Ali , David John Roach Williams
IPC分类号： B60W20/00 , F01M1/02 , F01M5/00 , F01M11/04 , F28D20/02 , B60L50/50 , F01M11/10 , B60W10/04 , B60W10/30 , B60W40/12 , F04B51/00 , F01M11/03 , F28D20/00
摘要： In one embodiment, there is provided a device for a vehicle, having: a first interface configured to couple to at least one replaceable fluid container for a vehicle comprising a battery, the first interface comprising at least one fluid port configured to couple to at least one fluid port of the replaceable fluid container; a second interface configured to couple to an engine of the vehicle, the second interface comprising at least one fluid port configured to couple to at least one fluid port of a fluid circulation system of the vehicle; a fluid path coupled to at least one fluid port of the first interface and at least one fluid port of the second interface; and at least one electrical pump configured to be powered and/or driven by the battery of the vehicle and to cause fluid flow.

62. 发明申请

US20200102858A1 SYSTEM AND METHOD FOR LIQUID AIR ENERGY STORAGE 审中-公开
公开(公告)号：US20200102858A1
公开(公告)日：2020-04-02
申请号：US16691893
申请日：2019-11-22
申请人： John D. Upperman , Ralph Greenberg
发明人： John D. Upperman , Ralph Greenberg
IPC分类号： F01K25/10 , F28D20/02 , F17C9/00
摘要： A liquid air energy storage system, the system comprising: a liquid air storage means; an input of a first pump in fluid communication with the liquid air storage means; a first heat exchanger in fluid communication with an output of the first pump; a second heat exchanger in fluid communication first heat exchanger and configured to receive the fluid stream from the first pump and the first heat exchanger; a first expander turbine generator in fluid communication with the second heat exchanger; the first heat exchanger in fluid communication with the first expander turbine generator; a third heat exchanger in fluid communication with the first heat exchanger and configured to receive the fluid stream from the first expander turbine generator and the first heat exchanger; a second expander turbine generator in fluid communication with the third heat exchanger; the first heat exchanger in fluid communication with the second expander turbine generator; the fluid stream from second expander turbine generator and first heat exchanger in fluid communication with ambient atmosphere; a mixed refrigerant stream in fluid communication with a third expander turbine generator; a fourth heat exchanger in fluid communication with the third expander turbine generator; a fourth expander turbine generator in fluid communication with the fourth heat exchanger; a fifth heat exchanger in fluid communication with the fourth expander turbine generator; the first heat exchanger in fluid communication with the fifth heat exchanger; an input of a second pump in fluid communication with the first heat exchanger, and configured to receive the mixed refrigerant stream from the fifth heat exchanger and the and the first heat exchanger; the first heat exchanger in fluid communication with the output of the second pump; a sixth heat exchanger in fluid communication with the first heat exchanger, and configured to receive the mixed refrigerant stream from the output of the second pump and the first heat exchanger; and the third expander turbine generator in fluid communication with the sixth heat exchanger. A liquid air energy storage system, the system comprising: a liquid air storage means; an input of a first pump in fluid communication with the liquid air storage means; a first heat exchanger in fluid communication with an output of the first pump; a second heat exchanger in fluid communication first heat exchanger and configured to receive the fluid stream from the first pump and the first heat exchanger; a first expander turbine generator in fluid communication with the second heat exchanger; the first heat exchanger in fluid communication with the first expander turbine generator; a third heat exchanger in fluid communication with the first heat exchanger and configured to receive the fluid stream from the first expander turbine generator and the first heat exchanger; a second expander turbine generator in fluid communication with the third heat exchanger; the first heat exchanger in fluid communication with the second expander turbine generator; the fluid stream from second expander turbine generator and first heat exchanger in fluid communication with ambient atmosphere; a mixed refrigerant stream in fluid communication with a third expander turbine generator; a fourth heat exchanger in fluid communication with the third expander turbine generator; a fourth expander turbine generator in fluid communication with the fourth heat exchanger; a fifth heat exchanger in fluid communication with the fourth expander turbine generator; the first heat exchanger in fluid communication with the fifth heat exchanger; a seventh heat exchanger in fluid communication with the first heat exchanger, and configured to receive the mixed refrigerant stream from the fifth heat exchanger and the and the first heat exchanger; an input of a second pump in fluid communication with the seventh heat exchanger; the first heat exchanger in fluid communication with the output of the second pump; a phase separator in fluid communication with the first heat exchanger, and configured to receive the mixed refrigerant stream from the output of the second pump and the first heat exchanger; a liquid mixed refrigerant stream exiting the phase separator and in fluid communication with the first heat exchanger; the liquid mixed refrigerant vaporizing due to the first heat exchanger and becoming a second vapor mixed refrigerant stream; a sixth heat exchanger in fluid communication second vapor mixed refrigerant stream; the third expander turbine generator in fluid communication with the sixth heat exchanger; and a first vapor mixed refrigerant stream exiting the phase separator and in fluid communication with the sixth heat exchanger. A method for liquid air energy storage, the method comprising: pumping a liquid air stream in a first pump; exchanging heat with the liquid air stream in a first heat exchanger so the liquid air becomes vapor air stream; removing energy from the vapor air stream in a second heat exchanger; driving a first expander turbine generator with the vapor air stream and generating a first amount of electricity; cooling the vapor air stream from the first expander turbine generator in the first heat exchanger; removing energy from the vapor air stream from the first heat exchanger and from the first expander turbine generator in a third heat exchanger; driving a second expander turbine generator with the vapor air stream and generating a second amount of electricity; exchanging heat with the vapor air stream from the second expander turbine generator in the first heat exchanger and then releasing the vapor air stream to the ambient atmosphere; driving a third expander turbine generator with a mixed refrigerant vapor stream and generating a third amount of electricity; removing energy from the mixed refrigerant vapor stream in a fourth heat exchanger; driving a fourth expander turbine generator with the mixed refrigerant vapor stream from the fourth heat exchanger and generating a fourth amount of electricity; removing energy from the mixed refrigerant vapor stream in a fifth heat exchanger; exchanging energy with the mixed refrigerant vapor stream in the first heat exchanger; pumping the mixed refrigerant vapor stream in a second pump; exchanging energy with the mixed refrigerant vapor stream from the second pump in the first heat exchanger; and exchanging energy with the mixed refrigerant vapor stream from the first heat exchanger and second pump in a sixth heat exchanger. A liquid air energy storage system, the system comprising: pumping a liquid air stream in a first pump; exchanging heat with the liquid air stream in a first heat exchanger so the liquid air becomes vapor air stream; removing energy from the vapor air stream in a second heat exchanger; driving a first expander turbine generator with the vapor air stream and generating a first amount of electricity; cooling the vapor air stream from the first expander turbine generator in the first heat exchanger; removing energy from the vapor air stream from the first heat exchanger and from the first expander turbine generator in a third heat exchanger; driving a second expander turbine generator with the vapor air stream and generating a second amount of electricity; exchanging heat with the vapor air stream from the second expander turbine generator in the first heat exchanger and then releasing the vapor air stream to the ambient atmosphere; driving a third expander turbine generator with a mixed refrigerant vapor stream and generating a third amount of electricity; removing energy from the mixed refrigerant vapor stream in a fourth heat exchanger; driving a fourth expander turbine generator with the mixed refrigerant vapor stream from the fourth heat exchanger and generating a fourth amount of electricity; removing energy from the mixed refrigerant vapor stream in a fifth heat exchanger; exchanging energy with the mixed refrigerant vapor stream in the first heat exchanger; exchanging energy with the mixed refrigerant vapor stream in a seventh heat exchanger; pumping the mixed refrigerant vapor stream in a second pump; exchanging energy with the mixed refrigerant vapor stream from the second pump in the first heat exchanger and creating a mixed refrigerant liquid vapor stream; separating a mixed refrigerant vapor stream and mixed refrigerant liquid stream from the mixed refrigerant liquid vapor stream in a phase separator; exchanging energy with the mixed refrigerant liquid stream from the phase separator in the first heat exchanger, changing the mixed refrigerant liquid stream to a mixed refrigerant vapor stream; exchanging energy with the mixed refrigerant vapor stream from the first heat exchanger and phase separator in a sixth heat exchanger; and exchanging energy with the mixed refrigerant vapor stream directly from the phase separator in the sixth heat exchanger.

63. 发明授权

US10577983B2 Power generation system and method 有权
公开(公告)号：US10577983B2
公开(公告)日：2020-03-03
申请号：US15759826
申请日：2016-09-15
申请人： NANYANG TECHNOLOGICAL UNIVERSITY
发明人： Fei Duan , Swapnil Dubey , Fook Hoong Choo , Lu Qiu , Kai Wang
IPC分类号： F01K23/10 , F02G1/055 , F02C6/18 , F02C3/22 , F01K23/06 , F17C7/04 , F28D20/02
摘要： A power generation system comprising: a liquefied natural gas (LNG) regasification unit configured to perform a regasification process to regasify LNG supplied from an LNG source to produce natural gas, the regasification process producing cold energy; a gas turbine configured to combust the natural gas to output power, the combusting producing an exhaust gas; a thermal storage unit configured to store heat obtained from the exhaust gas; and a Stirling engine configured to output power, the Stirling engine having a hot end heated by the heat stored in the thermal storage unit and a cold end cooled by the cold energy from the regasification process.

64. 发明申请

US20200033069A1 HEAT STORAGE SYSTEM AND INSTALLATION METHOD OF LATENT HEAT STORAGE MATERIAL THEREOF 审中-公开
公开(公告)号：US20200033069A1
公开(公告)日：2020-01-30
申请号：US16590355
申请日：2019-10-01
申请人： YAZAKI ENERGY SYSTEM CORPORATION
发明人： Takuju Nakamura , Kai Gunji
IPC分类号： F28D20/02
摘要： There is provided a heat storage system including: an indoor space; a heat storage space which is adjacent to the indoor space and in which a latent heat storage material having a melting point or a freezing point in a range of 5° C. or higher and 30° C. or lower is installed; and a natural ventilator controlling introduction and blocking of outside air to the heat storage space, in which a heat resistance between the heat storage space and the outside air is set to be greater than a heat resistance between the heat storage space and the indoor space.

65. 发明授权

US10543714B2 Microclimate controlled pad for effective paint stripping 有权
公开(公告)号：US10543714B2
公开(公告)日：2020-01-28
申请号：US15504212
申请日：2015-09-23
申请人： SIKORSKY AIRCRAFT CORPORATION
发明人： Xiaomei Yu , Julie Anne Mauro , Lesly Ntanyi
IPC分类号： B44D3/16 , C09D9/04 , F28D20/02 , F24V30/00
摘要： An assembly for removing a desired portion of one or more layers of paint or another coating from a designated area is provided including a pad soaked with a chemical paint remover and an adhesive layer arranged about the pad configured to couple the assembly to the designated area. A removable first protective layer is positioned upwardly adjacent and is coupled to the adhesive layer. A flexible support layer is positioned adjacent the adhesive layer and the pad, opposite the removable first protective layer. A heat pad is arranged downwardly adjacent the flexible support layer. The heat pad is configured to control a microclimate adjacent the assembly when activated. A removable second protective layer is coupled to a surface of the heat pad. Removal of the second protective layer activates the heat pad.

66. 发明申请

US20200018193A1 REFRIGERATION APPARATUS AND METHOD 审中-公开
公开(公告)号：US20200018193A1
公开(公告)日：2020-01-16
申请号：US16509491
申请日：2019-07-11
申请人： Paul Neiser
发明人： Paul Neiser
IPC分类号： F01K25/10 , F28D20/02
摘要： Provided is an apparatus and method for transferring or exchanging thermal energy between two thermal reservoirs, for converting energy from thermal energy into another form of energy, or for converting energy from another form of energy into thermal energy. A body force per unit mass generating apparatus can be employed to modify a specific heat capacity of a working material. A work exchange apparatus, such as a compressor expander, can be employed to do work on the working material, or allow the working material to do work on the work exchange apparatus.

67. 发明申请

US20200011569A1 HEAT PUMP APPARATUS 审中-公开
公开(公告)号：US20200011569A1
公开(公告)日：2020-01-09
申请号：US16486874
申请日：2017-11-22
申请人： Mitsubishi Electric Corporation
发明人： Yasumitsu NOMURA , Shigetoshi IPPOSHI
IPC分类号： F24H4/02 , F24H9/20 , F25B6/04 , F25B30/02 , F25B41/04 , F28D20/02 , F24H7/02
摘要： A heat pump apparatus includes a use-side heat exchanger that cause heat exchange to be performed between a heat medium flowing from a heat-storage heat exchanger and a heat usage medium, and a flow-passage switching device that switches a flow passage for the heat medium to a first flow passage that circulates through a heat-reception-side heat exchanger and the heat-storage heat exchanger without extends through the use-side heat exchanger or a second flow passage that circulates through the heat-reception-side heat exchanger and the heat-storage heat exchanger via the use-side heat exchanger. Even when the temperature of the heat storage medium rises, heat received from a heat source can be stored in the heat storage medium by a heat pump, while a decrease of the efficiency of the heat pump can be reduced.

68. 发明授权

US10527362B2 Integrated multi-chamber heat exchanger 有权
公开(公告)号：US10527362B2
公开(公告)日：2020-01-07
申请号：US14860527
申请日：2015-09-21
申请人： Lockheed Martin Corporation
发明人： David L. Vos , Ryan M. Alderfer , Matthew Daniel Miller
IPC分类号： F28F7/02 , F28D20/02 , F28F1/02 , H01L23/473 , B23P15/26 , F28F21/08 , H01L23/367
摘要： A one-piece heat exchanger manufactured using an additive manufacturing process is described. The heat exchanger includes a plurality of channels formed therein. At least some of the plurality of channels may be configured to provide structural support to the heat exchanger to reduce its weight. Different coolant media may be used in a first set and a second set of the plurality of channels to provide different types of cooling in an integrated one-piece heat exchanger structure.

69. 发明授权

US10473366B2 Heat transfer system with phase change composition 有权
公开(公告)号：US10473366B2
公开(公告)日：2019-11-12
申请号：US15512378
申请日：2015-08-19
申请人： Carrier Corporation
发明人： Zidu Ma , Ivan Rydkin , Warren Clough , Mary Teresa Lombardo
IPC分类号： F25B25/00 , F28D20/02
摘要： A heat transfer system is disclosed that includes a heat exchanger comprising an inlet, an outlet, and a flow path through the heat exchanger between the inlet and the outlet. The system also includes a fluid circulation loop external to the heat exchanger connecting the outlet to the inlet. A phase change composition is disposed in the system flowing through the fluid circulation loop and the flow path through the heat exchanger. This the phase change composition includes a first PCM that is a plant or animal or paraffinic oil having a first melting point and a second PCM that is a plant or animal or paraffinic oil having a second melting point lower than the first melting point.

70. 发明申请

US20190310027A1 HIGH DENSITY THERMAL STORAGE ARRANGEMENT 审中-公开
公开(公告)号：US20190310027A1
公开(公告)日：2019-10-10
申请号：US16442695
申请日：2019-06-17
申请人： Kelvin Thermal Energy Inc.
发明人： Anton PIETSCH , George W. LYNCH , Stephen B. SUTHERLAND
IPC分类号： F28D20/02 , B60L7/06 , B60L7/14 , B60L7/22 , B60T1/10 , B60L1/02 , B61H9/06 , F28D20/00 , H02M7/217 , H02S10/20 , B60T13/58
摘要： An energy transportation and grid support system utilizes at least one transportable containment module capable of storing thermal or chemical energy typically produced from renewable or geothermal sources and providing connectivity with energy conversion equipment typically located in a land or sea-based operating facility. The system includes circuitry to hookup to an adjacent electricity grid for the provision of grid support and/or piping to move thermal energy typically used to drive steam turbines generating electricity. The operating facility also includes a communication arrangement to link with and exchange operations control data with a grid or heating operator and the energy transportation operator. The invention is directed to both apparatus and method for the energy transportation and grid support system.

你已经成功收藏专利！

检索式保存成功!

IPRDB

热门服务

关于我们

友情链接

联系方式