子分类：
| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 41 | Fireless locomotive with high accumulator pressure | US34428640 | 1940-07-06 | US2367114A | 1945-01-09 | PAUL GILLI |
| 42 | Steam accumulator | US65413833 | 1933-01-30 | US2012315A | 1935-08-27 | MCINTIRE CHARLES V |
| 43 | Steam accumulator | US2852625 | 1925-05-06 | US1669215A | 1928-05-08 | SMOOT CHARLES H |
| 44 | Steam plant | US61153523 | 1923-01-08 | US1601882A | 1926-10-05 | JOHANNES RUTHS |
| 45 | Steam-power plant for submarine boats | US74037924 | 1924-09-27 | US1544677A | 1925-07-07 | JULIUS MUGLER; HERMANN WOLKE |
| 46 | Sulfite-boiler plant. | US15074617 | 1917-02-24 | US1292080A | 1919-01-21 | RUTHS JOHANNES KARL |
| 47 | Steam-accumulator. | US5908115 | 1915-11-01 | US1174602A | 1916-03-07 | NAYLOR CHARLES HENRY |
| 48 | Steam-regenerative accumulator. | US1911651545 | 1911-09-27 | US1140435A | 1915-05-25 | BATTU LEONCE P L |
| 49 | Steam-regenerator installation. | US1912726612 | 1912-10-19 | US1097837A | 1914-05-26 | BATTU LEONCE L |
| 50 | Steam-generator. | US1902119596 | 1902-08-14 | US723337A | 1903-03-24 | THOMINE EDMOND |
| 51 | Systems and methods for selectively producing steam from solar collectors and heaters | US14148647 | 2014-01-06 | US09874359B2 | 2018-01-23 | John Setel O'Donnell; Peter Emery von Behrens; Andras Nady |
| Systems and methods for selectively producing steam from solar collectors and heaters are disclosed. A method in accordance with a particular embodiment includes directing a flow of water to a solar collector, directing the flow of water to a gas-fired heater, and, as a result of heating the flow of water at the solar collector and the gas-fired heater, forming steam from the flow of water. The method further includes changing a sequence by which at least a portion of the flow passes through the solar collector and the gas-fired heater. | ||||||
| 52 | Immediate response steam generating system and method | US12600308 | 2007-05-17 | US09657598B2 | 2017-05-23 | Benoit Janvier |
| The method of generating immediate and thereafter continuous steam is used in a steam generating system comprising a steam accumulator, a steam outlet connected to the steam accumulator, an outlet valve at the steam outlet, and a quick response steam generator unit connected to the steam accumulator. The method comprises the steps of providing latent steam in the steam accumulator, opening the outlet valve to allow latent steam in the steam accumulator to exit through the steam outlet, feeding water to the steam generator unit, heating the water fed to the steam generator unit while the latent steam exits through the steam outlet and, before the latent steam has entirely exited the steam accumulator, generating steam with the steam generator unit to feed the steam accumulator and controlling the steam flow rate through the steam outlet to maintain it at a value which is essentially not greater than the steam flow rate from the steam generator unit to the steam accumulator. The steam generating system is capable of generating immediate and thereafter continuous steam from an initial steam generator unit cold condition due to the steam accumulator providing steam at the steam outlet while the steam generator unit heats the water fed therein. | ||||||
| 53 | Power generating system | US13944180 | 2013-07-17 | US09382815B2 | 2016-07-05 | Mohammad Ashari Hadianto; Mikhail Rodionov; Nobuo Okita; Akihiro Taniguchi; Katsuya Yamashita; Osamu Furuya; Kazuo Takahata; Mikio Takayanagi |
| A power generating system includes a flow dividing structure, a first detector, a flow dividing adjusting valve, a heat accumulator, a heat exchanger and a turbine. The flow dividing structure divides a first heat medium into a first flow path and a second flow path. The first detector detects a flow rate of the first heat medium. The flow dividing adjusting valve opens the second flow path when the flow rate of the first heat medium exceeds a predetermined value. The heat accumulator accumulates the first heat medium via the second flow path and delivers the first heat medium at a temporally leveled flow rate. The heat exchanger transfers heat from the first heat medium to a second heat medium having a lower boiling point than the first heat medium. The turbine rotationally moves by the second heat medium with heat having been transferred by the heat exchanging unit. | ||||||
| 54 | POWER GENERATING SYSTEM | US13944180 | 2013-07-17 | US20140020387A1 | 2014-01-23 | Mohammad Ashari HADIANTO; Mikhail RODIONOV; Nobuo OKITA; Akihiro TANIGUCHI; Katsuya YAMASHITA; Osamu FURUYA; Kazuo TAKAHATA; Mikio TAKAYAMAGI |
| In one embodiment, a power generating system includes; a flow dividing unit configured to divide a first heat medium supplied thereto to a first flow path and a second flow path; and a heat accumulating unit configured to accumulate the first heat medium sent thereto via the second flow path and deliver the first heat medium at a temporally leveled flow rate. The system further includes: a heat exchanging unit configured to transfer heat from the first heat medium sent thereto via the first flow path and the first heat medium delivered thereto from the heat accumulating unit, to a second heat medium that is lower in boiling point than the first heat medium; and a turbine configured to rotationally move with the second heat medium to which heat has been transferred by the heat exchanging unit. | ||||||
| 55 | DEVICE FOR CONVERTING HEAT ENERGY INTO MECHANICAL ENERGY | US13997830 | 2011-12-30 | US20130276447A1 | 2013-10-24 | Jean-Edmond Chaix |
| A converter of kinetic energy from a jet formed by a heat transfer fluid and a gas at high temperature, includes: at least one injector of the jet from at least one source of heat transfer fluid and of high-temperature gas, an impulse wheel mounted rotating secured to a shaft extending along an axis substantially perpendicularly to the injector and including a plurality of asymmetric blades, a tank surrounding said impulse wheel and at least one deflector extending underneath the blades. | ||||||
| 56 | CRANKCASE VENTILATION FILTER ARRANGMENTS; COMPONENTS; AND, METHODS | US13849852 | 2013-03-25 | US20130232929A1 | 2013-09-12 | Lundgren Thomas; Adamek Daniel; Mosset Wade |
| A crankcase ventilation filter assembly and components therefor, are described. In an example arrangement, the crankcase ventilation filter assembly is configured to be serviced from either the top or the bottom. A rotational indexing arrangement is to ensure appropriate orientation of an internally received filter cartridge, and other components of the arrangement are provided. Methods of assembly, servicing and use are described. | ||||||
| 57 | ENGINE INLET VARYING IMPEDANCE ACOUSTIC LINER SECTION | US13655911 | 2012-10-19 | US20130126265A1 | 2013-05-23 | Joe Everet Sternberger; Judith Marie Gallman |
| An inlet for an aircraft engine nacelle having an acoustic barrel panel, a septum buried or sandwiched within the acoustic barrel panel, and a perforated face sheet. The inlet may be located forward of an engine and/or an engine fan housed within the aircraft engine nacelle. Both the septum and the perforated face sheet may have perforations or holes therein of varying sizes and varying distances apart from each other. The smaller the area of the perforations or holes and the further apart they are from each other, the higher the impedance of a given area of the septum or the perforated face sheet. The impedance of the septum and/or the perforated face sheet may progressively increase in a direction away from the engine fan. | ||||||
| 58 | Crankcase ventilation filter arrangments; components; and, methods | US12157650 | 2008-06-12 | US20090071111A1 | 2009-03-19 | Thomas Lundgren; Daniel Adamek; Wade Mosset |
| A crankcase ventilation filter assembly and components therefor, are described. In an example arrangement, the crankcase ventilation filter assembly is configured to be serviced from either the top or the bottom. A rotational indexing arrangement is to ensure appropriate orientation of an internally received filter cartridge, and other components of the arrangement are provided. Methods of assembly, servicing and use are described. | ||||||
| 59 | Alternate atomizing medium for burning efficiency of emulsion fuels, heavy oils and bitumens | US11436555 | 2006-05-19 | US20070281251A1 | 2007-12-06 | John K. Wearing |
| A method for augmenting the heat enthalpy of an emulsified alternate fuel. An atomizing medium containing produced solution gas is used to atomize the emulsified fuel and add to the heat content of the emulsified fuel enhancing combustion. Alternate embodiments include the use of other gaseous hydrocarbon material as the atomizing medium either utilized alone or mixed with air or steam. | ||||||
| 60 | Method for pressure relief in gas containers and means for carrying out the method | US19610562 | 1962-05-21 | US3166479A | 1965-01-19 | BJORN WIDELL |
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