序号 专利名 申请号 申请日 公开(公告)号 公开(公告)日 发明人
1 发电设施中的预热 CN201580074344.X 2015-12-09 CN107208880A 2017-09-26 迈克尔·黑格尔
发明涉及一种用于预热具有蒸汽循环回路(2)的发电设施(1)中的原水的方法,所述发电设施(1)包括:蒸汽发生器(3)、蒸汽轮机(4)以及蒸汽管路(5),由所述蒸汽管路中的至少一些蒸汽管路将蒸汽发生器(3)与蒸汽轮机(4)连接,其中通过来自水‑蒸汽循环回路(2)中的废水加热用于产生去离子水的原水,并且将废水混入原水,以加热原水。本发明还涉及一种发电设施(1)。
2 喷射器驱动的蒸汽发生器启动系统 CN201080016453.3 2010-03-30 CN102686944A 2012-09-19 P·K·S·拉武拉帕蒂; G·A·加内什; R·J·莫里亚蒂; B·W·姆鲁克; J·M·巴纳斯
提供了一种发生系统,其包括蒸汽发生器、联接到发生器上的分离器、提供给的供应、联接到给水上且接收给水的启动系统,以及联接到启动系统上的再循环系统。蒸汽发生器在多个运行模式中运行。在一个模式中,蒸汽发生器产生蒸汽和流体的流。分离器将该流分离成蒸汽的成分和流体的成分。在至少一个模式期间,再循环系统接收来自启动系统的给水,并且将需用流提供给蒸汽发生器。再循环系统包括喷射器。喷射器将来自分离器的流体的一部分引导到再循环系统中,混合被引导的流体与给水,以提供再循环流,并且再循环系统将包括再循环流的需用流提供给蒸汽发生器。
3 JPS61500630A - JP50048685 1984-11-26 JPS61500630A 1986-04-03
4 発電所設備における未処理の予熱 JP2017534669 2015-12-09 JP2018508732A 2018-03-29 ミヒャエル・ヘーゲル
本発明は、‐蒸気回路(2)を有する発電所設備(1)において、未処理水を予熱するための方法に関するものであり、発電所設備(1)は、蒸気発生器(3)と、蒸気タービン(4)と、蒸気発生器(3)を蒸気タービン(4)に接続する少なくともいくつかの蒸気導管(5)と、を含んでおり、未処理水は、脱イオン水の生成のために、水‐蒸気回路(2)からの廃水によって加熱され、廃水は、未処理水を加熱するために、未処理水に混合される。本発明はさらに、発電所設備(1)に関する。
5 ROHWASSERVORWÄRMUNG IN KRAFTWERKSANLAGEN EP15816388.1 2015-12-09 EP3204622B1 2018-08-01 HAEGEL, Michael
6 ROHWASSERVORWÄRMUNG IN KRAFTWERKSANLAGEN EP15816388.1 2015-12-09 EP3204622A1 2017-08-16 HAEGEL, Michael
The invention relates to a method for pre-heating untreated water in a power plant (1) having a water/steam circuit (2), the power plant (1) comprising a steam producer (3), a steam turbine (4), and steam lines (5), of which at least some connect the steam producer (3) to the steam turbine (4), wherein untreated water for producing deionized water is heated by means of wastewater from the water/steam circuit (2) and the wastewater is added to the untreated water in order to heat the untreated water. The invention further relates to a power plant (1).
7 AN EJECTOR DRIVEN STEAM GENERATOR START UP SYSTEM EP10723843.8 2010-03-30 EP2414729A2 2012-02-08 BANAS, John M.; GANESH, Ganesh A.; MORIARTY, Robert J.; MRUK, Bryan W.; RAVULAPARTHY, Pavan Kumar S.
A generating system is presented that includes a steam generator, a separator coupled to the generator, a supply providing feed water, a start-up system coupled to and receiving the feed water, and a recirculation system coupled to the start-up system. The steam generator operates in a plurality of operating modes. In one mode the steam generator generates a flow of steam and fluid. The separator separates the flow into components of steam and fluid. The recirculation system receives the feed water from the start-up system and provides a required flow to the steam generator during at least one mode. The recirculation system includes an ejector. The ejector induces a portion of the fluid from the separator into the recirculation system, mixes the induced fluid with the feed water to provide a recirculation flow, and the recirculation system provides the required flow to the steam generator including the recirculation flow.
8 Forced circulation steam generator US877034 1978-02-10 US4183331A 1980-01-15 Francis R. Hull
Forced circulation steam generators of any design may increase effective heat absorption and steaming capacity by maintaining bulk boiler water temperature at or near the saturation temperature for the operating pressure, while the main boiler heat transfer process is substantially reserved for the evaporative function. The acceleration of gas-to-liquid energy transfer across boiler heating surfaces occurs when bulk boiler water temperature is maintained at or near saturation, and significant degrees of nucleate boiling and nucleate film boiling heat transfer exist while stable steam film boiling is limited.In one form of the invention, recirculating boiler water is discharged from a circulating pump through an exterior ejector-type contact heat exchanger to mix with recirculated heating steam before being returned to the boiler. In this adaptation bulk boiler water temperature may be closely controlled by regulating the quantity of heating steam admitted into the ejector heat exchanger.In another form of the invention, recirculated boiler water is discharged from a circulating pump through an ejector-type contact heat exchanger which is mounted internally within the boiler steam spaces, where it mixes with heating steam before being returned to the bulk boiler water body at or near the saturation temperature. In this variation the ejector heat exchanger discharge is automatically kept at or near the saturation temperature, and no valve regulating means is required to control the quantity of heating steam.
9 Method of maintaining circulation in boilers US58359522 1922-08-22 US1585203A 1926-05-18 SPENCER OTIS
10 Steam-heating boiler. US17305717 1917-06-05 US1236306A 1917-08-07 JACKSON WALTER S
11 Boiler-trap. US1906331770 1906-08-23 US850878A 1907-04-16 DENNIS CAREY
12 Steam-generator or hot-water heater. US1901079545 1901-10-22 US706846A 1902-08-12 PAGE WILLIAM H
13 증기 보일러의 관수 순환촉진장치 KR1020080135310 2008-12-29 KR1020100077387A 2010-07-08 박정연
PURPOSE: A water circulation stimulating device of a steam boiler is provided to obtain dried saturated-steam with less water drop by making the bubble very small. CONSTITUTION: A water circulation stimulating device of a steam boiler comprises a cylindrical pipe(10). A compressed air supply pipe(20) is installed on the lower part of the sidewall of the cylindrical pipe. The cylindrical pipe connects a compressor(21) to the compressed air supply pipe. The cylindrical pipe heats the filled water with an electric heater. The cylindrical pipe supplies and compulsorily circulates the compressed air generated by the compressor to the water. The electric heater is installed on the lower part of the cylindrical pipe.
14 발전소에서의 미처리수의 예열 KR1020177023085 2015-12-09 KR1020170105596A 2017-09-19 헤겔미햐엘
본발명은물/증기회로(2)를갖는발전소(1)에서미처리수를예열하는방법으로서, 발전소(1)는증기생성기(3), 증기터빈(4), 및적어도일부가증기생성기(3)를증기터빈(4)에연결하는증기선로(5)들을포함하는방법에관한것이며, 탈이온수를생성하기위한미처리수는물/증기회로(2)로부터의폐수에의해가열되며폐수는미처리수를가열하기위해미처리수에추가된다. 본발명은또한발전소(1)에관한것이다.
15 High-efficiency water heater dip tube and method for reducing turbulence in water heaters US11811428 2007-06-08 US07861678B2 2011-01-04 W. Thomas McClellan
A high-efficiency water heater dip tube includes a wall having orifices formed therein for conducting an outflow of relatively colder water from the dip tube into relatively hotter water in an interior of a water heater. The orifices have a size, number, shape, pattern and location for at least minimizing turbulence, for reducing admixing near the tube, for diluting, equalizing and blending efflux flow and for reducing outflow force and speed. A method for reducing turbulence in water heaters includes providing a dip tube including a wall having orifices formed therein, conducting an outflow of relatively colder water from the dip tube into relatively hotter water in an interior of the water heater, and selecting a size, number, shape, pattern and location of the orifices for at least minimizing turbulence, reducing admixing near the tube, diluting, equalizing and blending efflux flow and reducing outflow force and speed.
16 EJECTOR DRIVEN STEAM GENERATOR START UP SYSTEM US12748718 2010-03-29 US20100251976A1 2010-10-07 Pavan Kumar S. Ravulaparthy; John M. Banas; Ganesh A. Ganesh; Robert J. Moriarty; Bryan W. Mruk
A generating system is presented that includes a steam generator, a separator coupled to the generator, a supply providing feed water, a start-up system coupled to and receiving the feed water, and a recirculation system coupled to the start-up system. The steam generator operates in a plurality of operating modes. In one mode the steam generator generates a flow of steam and fluid. The separator separates the flow into components of steam and fluid. The recirculation system receives the feed water from the start-up system and provides a required flow to the steam generator during at least one mode. The recirculation system includes an ejector. The ejector induces a portion of the fluid from the separator into the recirculation system, mixes the induced fluid with the feed water to provide a recirculation flow, and the recirculation system provides the required flow to the steam generator including the recirculation flow.
17 Apparatus for recirculating boiler fluid US770286 1985-10-02 US4608945A 1986-09-02 Andrei G. Yastrebov
An apparatus comprises a separator (1) and a jet pump (2) with a feed valve (6) connected in parallel through a bypass pipeline (8). An axially movable hollow cylindrical member (14) having a movable nozzle (17) is installed in a static pressure chamber of the jet pump 2 and a fixed nozzle 19 is installed concentrically with the movable nozzle (17). Overflow openings (18) are provided in the walls of the hollow cylindrical member (14).
18 Steam generating apparatus and methods US397749 1982-07-13 US4573323A 1986-03-04 Edward A. Mock
Steam generating apparatus and methods wherein a liquid is recirculated within a boiler by use of a constant speed dynamic feed water pump acting both to feed the boiler and to effect recirculating therein by a jet pump with its jet nozzle in liquid flow series with the dynamic pump. The jet pump also receives water from a steam drum for recirculation through the boiler. In the event of excess feed water supply to the boiler a step-function level control for the steam drum bypasses liquid to a condenser. A second jet pump acts to utilize excess feed water to supply cool water from the condenser well under pressure to the dynamic pump so that no water is bypassed to the condenser under on-design operating conditions. For waste heat recovery to provide shaft power automatically with simplified controls.
19 Jet pump in natural circulation fossil fuel fired steam generator US890762 1978-03-27 US4151813A 1979-05-01 Walter P. Gorzegno; Juan-Antonio Garcia-Mallol
A jet pump is provided in the downcomer of a natural circulation fossil fuel burning vapor generator to enhance circulation in the vaporizer circuits of the vapor generator. A driving fluid pump is adapted to introduce liquid taken from the drum as driving fluid for the jet pump, and the liquid passing through the downcomer acts as driven fluid for the jet pump.
20 Control means for a vapor generator US3487465D 1968-07-26 US3487465A 1969-12-30 LAZAREWICZ LUCIAN M
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