| 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 | MULTIPLE ORGANIC RANKINE CYCLE SYSTEMS AND METHODS | US14816045 | 2015-08-02 | US20150337692A1 | 2015-11-26 | HANK LEIBOWITZ; HANS WAIN; DAVID WILLIAMS |
| Systems and methods are provided for the recovery mechanical power from heat energy sources using a common working fluid comprising, in some embodiments, an organic refrigerant flowing through multiple heat exchangers and expanders. The distribution of heat energy from the source may be portioned, distributed, and communicated to each of the heat exchangers so as to permit utilization of up to all available heat energy. In some embodiments, the system utilizes up to and including all of the available heat energy from the source. The expanders may be operatively coupled to one or more generators that convert the mechanical energy of the expansion process into electrical energy, or the mechanical energy may be communicated to other devices to perform work. | ||||||
| 42 | Systems and methods for integrating alarm processing and presentation of alarms for a power generation system | US13708405 | 2012-12-07 | US09019095B2 | 2015-04-28 | Justin Alexander Sykes; Scott Wood; Jia Q. Ma; Dibakar Chandra; William Darryl Herbert; Craig Foster |
| Systems and methods for integrating alarm processing and presentation of alarms for a power generation system are described. A template or graphical user interface (GUI) for displaying information associated with alarms may be generated for various types of alarms. Information associated with an alarm may be identified based on certain criteria and stored in a template associated with the alarm for presentation to a user. One or more status messages may be output to a display such a that a user or other person responsible for responding to an alarm may receive a current status associated with an alarm, including that an alarm has been processed and is ready to be acted upon. An alarm may be analyzed, categorized, and escalated based on historical information associated with the alarm, as well as determinations made by a user based on information stored in a template associated with alarm. | ||||||
| 43 | CASCADED POWER PLANT USING LOW AND MEDIUM TEMPERATURE SOURCE FLUID | US14549318 | 2014-11-20 | US20150075164A1 | 2015-03-19 | Dany BATSCHA; Rachel Huberman |
| The present invention provides a method for operating a plurality of independent, closed cycle power plant modules each having a vaporizer comprising the steps of: serially supplying a medium or low temperature source fluid to each corresponding vaporizer of one or more first plant modules, respectively, to a secondary preheater of a first module, and to a vaporizer of a terminal module, whereby to produce heat depleted source fluid; providing a primary preheater for each vaporizer; and supplying said heat depleted source fluid to all of said primary preheaters in parallel. | ||||||
| 44 | SCALE INHIBITION METHOD AND GEOTHERMAL POWER GENERATING DEVICE | US14009296 | 2012-03-05 | US20140083949A1 | 2014-03-27 | Kuniyuki Takahashi; Yoshitaka Kawahara |
| A method for inhibiting scale including inorganic cations, and an economically operable geothermal power generating device which can inhibit deposition of scale. The geothermal power generating device includes: an inorganic cation concentration measuring device for measuring the concentration of bivalent or more inorganic cations in geothermal water collected from a production well; a flowmeter for measuring the flow rate of the geothermal water collected from the production well; a heat removal unit for lowering the temperature of the geothermal water; a thermometer for measuring the temperature of the geothermal water after removing heat; a pH measuring device for measuring the pH of the geothermal water after removing heat; a calculation processing unit for calculating the additive amount of a scale inhibitor; and a control unit for adding the scale inhibitor to the geothermal water by the amount calculated by the calculation processing unit. | ||||||
| 45 | MULTIPLE ORGANIC RANKINE CYCLE SYSTEM AND METHOD | US13949843 | 2013-07-24 | US20140033711A1 | 2014-02-06 | Hank Leibowitz; Hans Wain; David Williams |
| Systems and methods are provided for the use of systems that recover mechanical power from waste heat energy using multiple working expanders with a common working fluid. The system accepts waste heat energy at different temperatures and utilizes a single closed-loop circuit of organic refrigerant flowing through all expanders in the system where the distribution of heat energy to each of the expanders allocated to permit utilization of up to all available heat energy. In some embodiments, the system maximizes the output of the waste heat energy recovery process. The expanders can be operatively coupled to one or more generators that convert the mechanical energy of the expansion process into electrical energy. | ||||||
| 46 | MULTIPLE ORGANIC RANKINE CYCLE SYSTEM AND METHOD | US13836442 | 2013-03-15 | US20140026574A1 | 2014-01-30 | Hank Leibowitz; Hans Wain; David Williams |
| Apparatus, systems and methods are provided for the use of multiple organic Rankine cycle (ORC) systems that generate mechanical and/or electric power from multiple co-located waste heat flows using a specially configured system of multiple expanders operating at multiple temperatures and/or multiple pressures (“MP”) utilizing a common working fluid. The multiple ORC cycle system accepts waste heat energy at different temperatures and utilizes a single closed-loop cycle of organic refrigerant flowing through all expanders in the system, where the distribution of heat energy to each of the expanders allocated to permit utilization of up to all available heat energy, In some embodiments, the multiple ORC system maximizes the output of the waste energy recovery process. The expanders can be operatively coupled to one or more generators that convert the mechanical energy of the expansion process into electrical energy. | ||||||
| 47 | SYSTEM AND METHOD FOR DETECTING ELECTRIC POWER PLANT EQUIPMENT OVERHEATING WITH REAL-TIME PLURAL PARALLEL DETECTION AND ANALYSIS PARAMETERS | US13463865 | 2012-05-04 | US20130297249A1 | 2013-11-07 | Edward D. Thompson |
| An overheating detection processing system monitors in real time and stores data samples from the different types of power plant overheating detectors. The system determines a likelihood of whether a stored detector output sample reading, alone or in combination with other readings, is indicative of monitored power plant equipment overheating. The system references previously stored information in an information storage device that associates respective types of detector sample reading levels with equipment overheating. The system also compares a combination of stored sample readings and establishes overheating determination confidence levels. The confidence levels information is combined to derive an overall confidence level of whether the power plant equipment is overheated. An overheating alarm response is initiated if an overheating condition is determined at any confidence level. Additional responses are made based on a combination of calculated confidence levels. | ||||||
| 48 | PISTON ENGINE DRIVABLE USING A STEAM POWER PROCESS | US13812699 | 2011-07-06 | US20130118174A1 | 2013-05-16 | Nadja Eisenmenger; Hans-Christoph Magel; Andreas Wengert |
| A piston engine (1) that can be driven using a steam power process and is used in particular for utilizing the waste heat from an internal combustion engine comprises a cylinder bore (5), a cylinder piston (6) which is arranged in the cylinder bore (5) and delimits an operating space (8) in the cylinder bore (5), a rod (21) which is connected to the cylinder piston (6), and a bearing point (37) on which the rod (21) and the cylinder piston (6) connected to the rod (21) are mounted. A peripheral gap (28) is predefined between the cylinder piston (6) and the cylinder bore (5), thus preventing frictional wear between the cylinder piston (6) and the cylinder bore (5), which is particularly advantageous when a water-based working fluid is conducted through the operating space (8) since steam has no lubricity. | ||||||
| 49 | COOKING DEVICE | US13642795 | 2011-04-27 | US20130042768A1 | 2013-02-21 | Masahiro Nishijima; Takashi Utsumi; Takahiro Fukunaga |
| A steam generating container A heated by a heat source includes: a water evaporation chamber into which water is supplied by a water supply device; a leading opening to lead steam from the water evaporation chamber, and ejection openings ejecting steam led through the leading opening into a heating chamber containing food. A buffer chamber connecting through the leading opening and with the ejection openings is provided between the water evaporation chamber and the heating chamber. Even when bumping water enters the buffer chamber through the leading opening, the bumping water having entered flows inside the buffer chamber. Thus, the bumping water is hardly ejected into the heating chamber through the ejection openings. | ||||||
| 50 | Energy storage system and method for storing and supplying energy | US12489681 | 2009-06-23 | US08196405B2 | 2012-06-12 | Erik Wolf |
| An energy storage system is provided which includes an electrolyser a hydrogen gas storage and a power plant. The electrolyser is connected to the hydrogen gas storage and the hydrogen gas storage is connected to the power plant. Furthermore, a method for storing and supplying energy is provided which includes delivering electrical energy to an electrolyser; decomposing water into oxygen and hydrogen gas by means of the electrolyser; storing the hydrogen gas; supplying the stored hydrogen gas to a power plant; and producing electrical energy via of the power plant. | ||||||
| 51 | ENERGY STORAGE SYSTEM AND METHOD FOR STORING AND SUPPLYING ENERGY | US12489681 | 2009-06-23 | US20090322090A1 | 2009-12-31 | Erik Wolf |
| An energy storage system is provided which includes an electrolyser a hydrogen gas storage and a power plant. The electrolyser is connected to the hydrogen gas storage and the hydrogen gas storage is connected to the power plant. Furthermore, a method for storing and supplying energy is provided which includes delivering electrical energy to an electrolyser; decomposing water into oxygen and hydrogen gas by means of the electrolyser; storing the hydrogen gas; supplying the stored hydrogen gas to a power plant; and producing electrical energy via of the power plant. | ||||||
| 52 | Combined internal combustion and steam engines | US7481460 | 1960-12-09 | US3074228A | 1963-01-22 | ROYAL LEE |
| 53 | Internal-combustion engine. | US1063638D | US1063638A | 1913-06-03 | BATCHELDER ASA F | |
| 54 | Combination hot-air and gas engine. | US1901086433 | 1901-12-18 | US714353A | 1902-11-25 | ANDERSON CHARLES A; ERICKSON ERICK A; WICKSTROM JOHN |
| 55 | James haegbeaves | US436781D | US436781A | 1890-09-23 | ||
| 56 | anthony | US337226D | US337226A | 1886-03-02 | ||
| 57 | INDEPENDENT ABSORPTION CHILLING SYSTEM | EP16183288.6 | 2016-08-09 | EP3282210A1 | 2018-02-14 | Mattsson, Jorma Kalevi |
The present invention provides an absorption chilling system for a marine vessel which system can be operated independently from electrical systems of the marine vessel. The chilling system uses only heat (10, 11, 13) as an input to the chilling system. The input of heat is converted partially into electrical energy in a low pressure turbine (103) and the remaining heat is used in an absorption type chiller unit (101) for providing cooling for an air cooling unit (102). The electricity generated with the low pressure turbine (103) is used for operating pumps (8, 34, 35), fans (105) and other devices (101, 102, 9) and preferably also for monitoring and controlling said operation with a control unit (104).
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| 58 | SYSTEM FOR PRODUCING HEAT SOURCE FOR HEATING OR ELECTRICITY USING MEDIUM/LOW TEMPERATURE WASTE HEAT AND METHOD FOR CONTROLLING SAME | EP14801158 | 2014-05-20 | EP3001112A4 | 2017-03-29 | KANG MIN CHEOL; LEE HYO SEOK; SEONG JONG KOOK |
| A system for producing a heat source for heating or electricity, using medium/low-temperature waste heat includes: an absorption-type heat pump (100) supplied with a driving heat source and heat source water to heat a low-temperature heat medium; a regenerator heat exchange unit (210) for supplying a regenerator (110) with a driving heat source using waste heat; an evaporator heat exchange unit (220) for supplying an evaporator with heat source water; a heat medium circulation line (310) for circulating a heat medium; a generation unit (400) branching off from the heat medium circulation line (310) and producing electricity; a heat production unit (500) branching off from the heat medium circulation line (310) and supplying a heat-demanding place with a heat source for heating; and a switching valve unit (600) for controlling the flow of heat medium supplied the generation unit (400) or the heat production unit (500). | ||||||
| 59 | SYSTEM FOR PRODUCING HEAT SOURCE FOR HEATING OR ELECTRICITY USING MEDIUM/LOW TEMPERATURE WASTE HEAT AND METHOD FOR CONTROLLING SAME | EP14801158.8 | 2014-05-20 | EP3001112A1 | 2016-03-30 | KANG, Min Cheol; LEE, Hyo Seok; SEONG, Jong Kook |
A system for producing a heat source for heating or electricity, using medium/low-temperature waste heat includes: an absorption-type heat pump (100) supplied with a driving heat source and heat source water to heat a low-temperature heat medium; a regenerator heat exchange unit (210) for supplying a regenerator (110) with a driving heat source using waste heat; an evaporator heat exchange unit (220) for supplying an evaporator with heat source water; a heat medium circulation line (310) for circulating a heat medium; a generation unit (400) branching off from the heat medium circulation line (310) and producing electricity; a heat production unit (500) branching off from the heat medium circulation line (310) and supplying a heat-demanding place with a heat source for heating; and a switching valve unit (600) for controlling the flow of heat medium supplied the generation unit (400) or the heat production unit (500). |
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| 60 | HYBRID POWER GENERATION SYSTEM AND METHOD USING SUPERCRITICAL CO2 CYCLE | EP15175871.1 | 2015-07-08 | EP2987970A1 | 2016-02-24 | KANG, Sung Gju; KIM, Young Oon; CHI, Hyung Keun; HWANG, Jeong Ho |
The present invention relate to a hybrid power generation system using a supercritical CO2 cycle, and more particularly, to a hybrid power generation system using a supercritical CO2 cycle, which realizes optimal efficiency by applying a supercritical CO2 cycle to a steam cycle as a bottom cycle. A hybrid power generation system using a supercritical CO2 cycle, comprising a steam power generation unit comprising a plurality of turbines driven with steam heated by a boiler to produce electric power, for producing electric power using a supercritical CO2 fluid, the hybrid power generation system comprising: a supercritical CO2 power generation unit comprising an S-CO2 heater for heating the supercritical CO2 fluid, a turbine driven by the supercritical CO2 fluid, a precooler for lowering a temperature of the supercritical CO2 fluid passing through the turbine, and a main compressor for pressurizing the supercritical CO2 fluid, so as to produce electric power, wherein the steam power generation unit and the supercritical CO2 power generation unit share the boiler.
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