| 序号 | 专利名 | 申请号 | 申请日 | 公开（公告）号 | 公开（公告）日 | 发明人 |
|---|---|---|---|---|---|---|
| 241 | RC-BASED VAPOR TRAPS CASCADE | US14096579 | 2013-12-04 | US20150152748A1 | 2015-06-04 | Mark Labinov |
| A method for tuning a system of cascade oscillating vapor traps to utilize the high-pressure condensate and produce intermittent power output on the basis of the physicochemical line of Retrograde Condensation in the two-phase zone. The method is based on usage of the “natural” frequencies, defined by the fluid on every point on said line and is radically different from the way steam traps are tuned presently. | ||||||
| 242 | METHOD FOR OPERATING A COMBINED-CYCLE POWER PLANT WITH COGENERATION, AND A COMBINED-CYCLE POWER PLANT FOR CARRYING OUT THE METHOD | US14559338 | 2014-12-03 | US20150082803A1 | 2015-03-26 | Francois DROUX; Dario Ugo BRESCHI; Karl REYSER; Stefan ROFKA; Johannes WICK |
| The invention relates to a method for operation of a combined-cycle power plant with cogeneration, in which method combustion air is inducted in at least one gas turbine, and in which method the exhaust gas emerging from the at least one turbine is passed through a heat recovery steam generator (HRSG) in order to generate steam. The electricity production can be decoupled from the steam production in order to restrict the electricity production while the heat provided by steam extraction remains at a constant level. A portion of the inducted combustion air can be passed through at least one turbine to the HRSG without being involved in the combustion of the fuel in the gas turbine. This portion of the combustion air can be used to operate at least one supplementary firing in the heat recovery steam generator. | ||||||
| 243 | SYSTEMS AND METHODS FOR REDUCING PARASITIC LOSSES IN CLOSED LOOP SYSTEMS | US14310856 | 2014-06-20 | US20140373545A1 | 2014-12-25 | Sankar K. Mohan |
| Embodiments of a system that configured as a closed loop system, with a pump, an evaporator, a power generator, and a condenser, the combination of which circulate a working fluid to generate electrical power. The embodiments can harvest residual energy in the working fluid to improve efficiency and to reduce power loss that can derive from the pump as well as other auxiliary loads (e.g., fans). In one embodiment, the system incorporates members that operate in response to the working fluid, often in the higher pressure vapor form that occurs after evaporation and/or power generation stages. These members can include mechanical elements, for example, that have motive action (e.g., reciprocate, rotate, etc.) that is useful to satisfy operating and power requirements of auxiliary loads. For the pressurization stage, these mechanical elements may embody a piston-and-cylinder arrangement (or other rotary or linear positive displacement arrangement) that generates motion that can drive the pump. | ||||||
| 244 | CHAIN DRAG SYSTEM FOR TREATMENT OF CARBANEOUS WASTE FEEDSTOCK AND METHOD FOR THE USE THEREOF | US14457541 | 2014-08-12 | US20140348710A1 | 2014-11-27 | Landon C.G. Miller; Scott Behrens; Brian Rayles |
| A drag chain carbonizer is provided with a system and methods for anaerobic thermal transformation processing to convert waste into various solid carbonized products and varied further co-products. The drag-chain carbonizer includes an adjustable bed depth mechanism, a heating mechanism, a pressure management mechanism, and a chain tensioning mechanism containing at least one position sensor for communication of an actuator position to at least one programmable logic controller (PLC). Carbonaceous waste is transformed into useful co-products that can be re-introduced into the stream of commerce at various economically advantageous points. Depending upon the input materials and the parameters selected to process the waste, including real time economic and other market parameters, the system adjusts co-products output to reflect changing market conditions. | ||||||
| 245 | OILFIELD APPLICATION OF SOLAR ENERGY COLLECTION | US14194919 | 2014-03-03 | US20140345599A1 | 2014-11-27 | John Setel O'Donnell; Peter Emery von Behrens; Stuart M. Heisler; David Bruce Jackson |
| Solar energy is collected and used for various industrial processes, such as oilfield applications, e.g. generating steam that is injected downhole, enabling enhanced oil recovery. Solar energy is indirectly collected using a heat transfer fluid in a solar collector, delivering heat to a heat exchanger that in turn delivers heat into oilfield feedwater, producing hotter water or steam. Solar energy is directly collected by directly generating steam with solar collectors, and then injecting the steam downhole. Solar energy is collected to preheat water that is then fed into fuel-fired steam generators that in turn produce steam for downhole injection. Solar energy is collected to produce electricity via a Rankine cycle turbine generator, and rejected heat warms feedwater for fuel-fired steam generators. Solar energy is collected (directly or indirectly) to deliver heat to a heater-treater, with optional fuel-fired additional heat generation. | ||||||
| 246 | Advanced super-critical CO2 expander-generator | US13647972 | 2012-10-09 | US08893499B2 | 2014-11-25 | William C. Maier |
| An expander-generator is disclosed having an expansion device and a generator disposed within a hermetically-sealed housing. The expansion device may be overhung and supported on or otherwise rotate a hollow expansion rotor having a thrust balance seal being arranged at least partially within a chamber defined in the expansion rotor. Partially-expanded working fluid is extracted from an intermediate expansion stage and a first portion of the extracted working fluid is used cool the generator and accompanying radial bearings. A second portion of the extracted working fluid may be introduced into the chamber defined within the expander rotor via a conduit defined in the thrust balance seal chamber. The second portion of extracted working fluid minimizes unequal axial thrust loads on the expander rotor due to the overhung arrangement. | ||||||
| 247 | Integrative System of Concentrating Solar Power Plant and Desalineation Plant | US14080129 | 2013-11-14 | US20140290247A1 | 2014-10-02 | Nobuyoshi MISHIMA; Toshihiko SAKAKURA; Mitsuru SUDO; Naoyuki NAGAFUCHI |
| An integrative system of a concentrating solar power plant and desalination plant comprises a solar heat collector which generates superheated steam using solar heat, condensation type steam turbine power generation equipment which uses steam as a heat cycle medium, and multistage flash or multiple-effect desalination equipment. Superheated steam is generated by the solar heat collector and supplied to the power generation equipment to generate power and steam is extracted from a steam turbine middle stage of the power generation equipment and supplied to the desalination equipment. A steam supply line which bypasses the steam turbine and adjusts the pressure and temperature of steam from the solar heat collector and supplies the steam to the desalination equipment is provided. | ||||||
| 248 | Chain drag system for treatment of carbaneous waste feedstock and method for the use thereof | US13927904 | 2013-06-26 | US08801904B2 | 2014-08-12 | Landon C.G. Miller; Scott Behrens; Brian Rayles |
| A drag chain carbonizer is provided with a system and methods for anaerobic thermal transformation processing to convert waste into various solid carbonized products and varied further co-products. The drag-chain carbonizer includes an adjustable bed depth mechanism, a heating mechanism, a pressure management mechanism, and a chain tensioning mechanism containing at least one position sensor for communication of an actuator position to at least one programmable logic controller (PLC). Carbonaceous waste is transformed into useful co-products that can be re-introduced into the stream of commerce at various economically advantageous points. Depending upon the input materials and the parameters selected to process the waste, including real time economic and other market parameters, the system adjusts co-products output to reflect changing market conditions. | ||||||
| 249 | OIL SAND PRODUCTION WITHOUT CO2 EMISSION | US14197114 | 2014-03-04 | US20140182835A1 | 2014-07-03 | Knut Børseth; Tor CHRISTENSEN; Henrik FLEISCHER |
| A plant for generation of steam for oil sand recovery from carbonaceous fuel with capture of CO2 from the exhaust gas, comprising heat coils (105, 105′, 105″) arranged in a combustion chamber (101) to cool the combustion gases in the combustion chamber to produce steam and superheated steam in the heat coils, steam withdrawal lines (133, 136, 145) for withdrawing steam from the heat coils, an exhaust gas line (106) for withdrawal of exhaust gas from the combustion chamber (101), where the combustion chamber operates at a pressure of 5 to 15 bara, and one or more heat exchanger(s) (107, 108) are provided for cooling of the combustion gas in line (106), a contact device (113) where the cooled combustion gas is brought in countercurrent flow with a lean CO2 absorbent to give a rich absorbent and a CO2 depleted flue gas, withdrawal lines (114, 115) for withdrawal of rich absorbent and CO2 depleted flue gas, respectively, from the contact device, the line (115) for withdrawal of CO2 depleted flue gas being connected to the heat exchangers (107, 108) for heating of the CO2 depleted flue gas, and where the rich absorbent is regenerated an absorbent regenerator (116), the regenerated lean absorbent is recycled to the absorber (113), and a gas withdrawal line (121) connected to the absorber for withdrawal of CO2 and steam from the regenerator (116), is described | ||||||
| 250 | Oilfield application of solar energy collection | US13576623 | 2011-07-03 | US08701773B2 | 2014-04-22 | John Setel O'Donnell; Peter Emery von Behrens; Stuart M. Heisler; David Bruce Jackson |
| Solar energy is collected and used for various industrial processes, such as oilfield applications, e.g. generating steam that is injected downhole, enabling enhanced oil recovery. Solar energy is indirectly collected using a heat transfer fluid in a solar collector, delivering heat to a heat exchanger that in turn delivers heat into oilfield feedwater, producing hotter water or steam. Solar energy is directly collected by directly generating steam with solar collectors, and then injecting the steam downhole. Solar energy is collected to preheat water that is then fed into fuel-fired steam generators that in turn produce steam for downhole injection. Solar energy is collected to produce electricity via a Rankine cycle turbine generator, and rejected heat warms feedwater for fuel-fired steam generators. Solar energy is collected (directly or indirectly) to deliver heat to a heater-treater, with optional fuel-fired additional heat generation. | ||||||
| 251 | CARBON-DIOXIDE RECOVERY SYSTEM | US13650336 | 2012-10-12 | US20140102096A1 | 2014-04-17 | Takahito Yonekawa; Masayuki Inui; Koji Nakayama; Tatsuya Tsujiuchi; Yoshiki Sorimachi |
| It is an object to supply stable motive power to a compressor even if load variations have occurred in an electric power station. Provided is a CO2 recovery system equipped with a CO2 compressor 12 that compresses recovered CO2 removed by a CO2 recovery unit 11, a steam turbine 13 that supplies motive power to the CO2 compressor 12, and an auxiliary motor 14 that, if there is a shortage of the motive power from the steam turbine 13, supplies the CO2 compressor with motive power in an amount corresponding to the shortage. | ||||||
| 252 | Fossil-fueled power station comprising a carbon dioxide separation device and method for operating a fossil-fueled power station | US13503438 | 2010-10-29 | US08689564B2 | 2014-04-08 | Ulrich Grumann; Jens Keyser; Ulrich Much; Andreas Pickard; Mike Rost |
| A fossil-fueled power station including a steam turbine is provided. A steam generator is mounted downstream of the steam turbine via a steam return line and a carbon dioxide separation device. The carbon dioxide separation device is connected to the steam return line via a process steam line and a backpressure steam turbine is mounted into the process steam line. | ||||||
| 253 | Electric Power Generation | US13534367 | 2012-06-27 | US20140000668A1 | 2014-01-02 | Daniel Lessard |
| Apparatus for electric power generation. A system includes a boiler for heating a fluid, the boiler directing a first portion of the heated fluid to a turbine for the generation of electric power and a second portion of the heated fluid to a thermoelectric (TE) generator, and a condenser connected to the turbine that condenses hot fluid emitted from the turbine and feeds the condensed fluid to the TE generator, the TE generator generating electric power from a difference in temperature of the second portion of the heated fluid and the condensed fluid from the turbine. | ||||||
| 254 | INTEGRATION OF PRESSURE SWING ADSORPTION WITH A POWER PLANT FOR CO2 CAPTURE/UTILIZATION AND N2 PRODUCTION | US13917101 | 2013-06-13 | US20130333391A1 | 2013-12-19 | NARASIMHAN SUNDARAM; RAMESH GUPTA; HANS THOMANN; HUGO S. CARAM; LOREN K. STARCHER; FRANKLIN F. Mittricker; SIMON C. WESTON; SCOTT J. WEIGEL |
| Systems and methods are provided for combined cycle power generation while reducing or mitigating emissions during power generation. Recycled exhaust gas from a power generation combustion reaction can be separated using a swing adsorption process so as to generate a high purity CO2 stream while reducing/minimizing the energy required for the separation and without having to reduce the temperature of the exhaust gas. This can allow for improved energy recovery while also generating high purity streams of carbon dioxide and nitrogen. | ||||||
| 255 | METHOD FOR OPERATING A COMBINED-CYCLE POWER PLANT WITH COGENERATION, AND A COMBINED-CYCLE POWER PLANT FOR CARRYING OUT THE METHOD | US13863557 | 2013-04-16 | US20130227958A1 | 2013-09-05 | Francois Droux; Dario Ugo Breschi; Karl Reyser; Stefan Rofka; Johannes Wick |
| The invention relates to a method for operating a combined-cycle power plant with cogeneration, in which method combustion air is inducted in at least one gas turbine, is compressed and is fed to at least one combustion chamber for combustion of a fuel, and the resultant exhaust gas is expanded in at least one turbine producing work, and in which method the exhaust gas which emerges from the at least one turbine is fed through a heat recovery steam generator in order to generate steam, which heat recovery steam generator is part of a water-steam circuit with at least one steam turbine, a condenser, a feedwater tank and a feedwater pump, wherein heat is produced by extraction of steam from the at least one steam turbine. In a method such as this, simple decoupling of heat and electricity production, which is advantageous for operation, is achieved in that the steam can be selectively extracted from the at least one steam turbine as low-pressure steam or intermediate-pressure steam, and in that the steam extraction is switched from low-pressure steam to intermediate-pressure steam in order to restrict the electricity production. | ||||||
| 256 | Steam Generator for Combined Cycle Gas Turbine Plant | US13700492 | 2011-03-18 | US20130199151A1 | 2013-08-08 | Pramurtta Shourjya Majumdar |
| A steam generator for the generation of steam from recovered heat from the flue gases of the gas cycle of a combined cycle gas turbine power plant comprising at least one high pressure drum; at least one intermediate pressure drum; at least one low pressure drum; steam outlet means to enable extraction of auxiliary process steam from a location downstream of at least one drum. A combined cycle gas turbine power plant including the above. | ||||||
| 257 | ADVANCED SUPER-CRITICAL CO2 EXPANDER-GENERATOR | US13647972 | 2012-10-09 | US20130098037A1 | 2013-04-25 | William C. Maier |
| An expander-generator is disclosed having an expansion device and a generator disposed within a hermetically-sealed housing. The expansion device may be overhung and supported on or otherwise rotate a hollow expansion rotor having a thrust balance seal being arranged at least partially within a chamber defined in the expansion rotor. Partially-expanded working fluid is extracted from an intermediate expansion stage and a first portion of the extracted working fluid is used cool the generator and accompanying radial bearings. A second portion of the extracted working fluid may be introduced into the chamber defined within the expander rotor via a conduit defined in the thrust balance seal chamber. The second portion of extracted working fluid minimizes unequal axial thrust loads on the expander rotor due to the overhung arrangement. | ||||||
| 258 | Method for retrofitting a fossil-fueled power station with a carbon dioxide separation device | US13503664 | 2010-11-02 | US20120304644A1 | 2012-12-06 | Ulrich Grumann; Ulrich Much; Andreas Pickard; Mike Rost |
| A method for retrofitting a fossil-fueled power station is provided. The power station includes a multi-housing stream turbine with a carbon dioxide separation device. As per the method, a suction capability of the steam turbine is adapted for an operation of the carbon dioxide separation device to a process steam to be removed. The carbon dioxide separation device is connected via a process steam line to an intermediate superheating line. Further, an auxiliary condenser is connected to the carbon dioxide separation device. On failure or deliberate switching off of the carbon dioxide separation device surplus process steam is condensed in the auxiliary condenser. | ||||||
| 259 | Fossil-fueled power station comprising a carbon dioxide separation device and method for operating a fossil-fueled power station | US13503453 | 2010-10-29 | US20120261922A1 | 2012-10-18 | Ulrich Grumann; Ulrich Much; Andreas Pickard; Mike Rost |
| A fossil-fueled power station including a steam generator is provided. A steam turbine is mounted downstream of the steam generator via a hot intermediate superheater line and a carbon dioxide separation device. The carbon dioxide separation device is connected to the hot intermediate superheater line via a process steam line and a backpressure steam turbine is mounted into the process steam line. | ||||||
| 260 | Fossil-fueled power station comprising a carbon dioxide separation device and method for operating a fossil-fueled power station | US13503438 | 2010-10-29 | US20120256421A1 | 2012-10-11 | Ulrich Grumann; Jens Keyser; Ulrich Much; Andreas Pickard; Mike Rost |
| A fossil-fueled power station including a steam turbine is provided. A steam generator is mounted downstream of the steam turbine via a steam return line and a carbon dioxide separation device. The carbon dioxide separation device is connected to the steam return line via a process steam line and a backpressure steam turbine is mounted into the process steam line. | ||||||
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