CN104937339B - Condenser and the steam turbine plant for possessing condenser - Google Patents
Condenser and the steam turbine plant for possessing condenser Download PDFInfo
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- CN104937339B CN104937339B CN201480005674.9A CN201480005674A CN104937339B CN 104937339 B CN104937339 B CN 104937339B CN 201480005674 A CN201480005674 A CN 201480005674A CN 104937339 B CN104937339 B CN 104937339B
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- Prior art keywords
- steam
- pass
- heat transfer
- steamturbine
- transfer tube
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Classifications
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F01—MACHINES OR ENGINES IN GENERAL; ENGINE PLANTS IN GENERAL; STEAM ENGINES
- F01K—STEAM ENGINE PLANTS; STEAM ACCUMULATORS; ENGINE PLANTS NOT OTHERWISE PROVIDED FOR; ENGINES USING SPECIAL WORKING FLUIDS OR CYCLES
- F01K7/00—Steam engine plants characterised by the use of specific types of engine; Plants or engines characterised by their use of special steam systems, cycles or processes; Control means specially adapted for such systems, cycles or processes; Use of withdrawn or exhaust steam for feed-water heating
- F01K7/16—Steam engine plants characterised by the use of specific types of engine; Plants or engines characterised by their use of special steam systems, cycles or processes; Control means specially adapted for such systems, cycles or processes; Use of withdrawn or exhaust steam for feed-water heating the engines being only of turbine type
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F01—MACHINES OR ENGINES IN GENERAL; ENGINE PLANTS IN GENERAL; STEAM ENGINES
- F01K—STEAM ENGINE PLANTS; STEAM ACCUMULATORS; ENGINE PLANTS NOT OTHERWISE PROVIDED FOR; ENGINES USING SPECIAL WORKING FLUIDS OR CYCLES
- F01K11/00—Plants characterised by the engines being structurally combined with boilers or condensers
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F01—MACHINES OR ENGINES IN GENERAL; ENGINE PLANTS IN GENERAL; STEAM ENGINES
- F01K—STEAM ENGINE PLANTS; STEAM ACCUMULATORS; ENGINE PLANTS NOT OTHERWISE PROVIDED FOR; ENGINES USING SPECIAL WORKING FLUIDS OR CYCLES
- F01K23/00—Plants characterised by more than one engine delivering power external to the plant, the engines being driven by different fluids
- F01K23/02—Plants characterised by more than one engine delivering power external to the plant, the engines being driven by different fluids the engine cycles being thermally coupled
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F01—MACHINES OR ENGINES IN GENERAL; ENGINE PLANTS IN GENERAL; STEAM ENGINES
- F01K—STEAM ENGINE PLANTS; STEAM ACCUMULATORS; ENGINE PLANTS NOT OTHERWISE PROVIDED FOR; ENGINES USING SPECIAL WORKING FLUIDS OR CYCLES
- F01K9/00—Plants characterised by condensers arranged or modified to co-operate with the engines
- F01K9/003—Plants characterised by condensers arranged or modified to co-operate with the engines condenser cooling circuits
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F28—HEAT EXCHANGE IN GENERAL
- F28B—STEAM OR VAPOUR CONDENSERS
- F28B1/00—Condensers in which the steam or vapour is separate from the cooling medium by walls, e.g. surface condenser
- F28B1/02—Condensers in which the steam or vapour is separate from the cooling medium by walls, e.g. surface condenser using water or other liquid as the cooling medium
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F28—HEAT EXCHANGE IN GENERAL
- F28D—HEAT-EXCHANGE APPARATUS, NOT PROVIDED FOR IN ANOTHER SUBCLASS, IN WHICH THE HEAT-EXCHANGE MEDIA DO NOT COME INTO DIRECT CONTACT
- F28D21/00—Heat-exchange apparatus not covered by any of the groups F28D1/00 - F28D20/00
- F28D21/0001—Recuperative heat exchangers
- F28D21/0003—Recuperative heat exchangers the heat being recuperated from exhaust gases
- F28D21/001—Recuperative heat exchangers the heat being recuperated from exhaust gases for thermal power plants or industrial processes
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- F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
- F28—HEAT EXCHANGE IN GENERAL
- F28F—DETAILS OF HEAT-EXCHANGE AND HEAT-TRANSFER APPARATUS, OF GENERAL APPLICATION
- F28F27/00—Control arrangements or safety devices specially adapted for heat-exchange or heat-transfer apparatus
- F28F27/02—Control arrangements or safety devices specially adapted for heat-exchange or heat-transfer apparatus for controlling the distribution of heat-exchange media between different channels
Abstract
The present invention provides a kind of condenser and possesses the steam turbine plant of condenser.The condenser (30) of the present invention possesses：Heat transfer tube group (32)；Main body (35), coats heat transfer tube group；Middle body (41), forms steam primary flow path (42), and the steam primary flow path (42) is used to guide the discharge steam (ES) from steamturbine (3) to the heat transfer tube group in main body；And pass-out steam acceptance division (51), receive the steam i.e. pass-out steam (BS) for bypassing steamturbine, and the heat transfer tube group directed it in main body.Pass-out steam acceptance division (51) is configured at the outside of steam primary flow path (42), opening relative to the main body (35) of pass-out steam acceptance division (51) is formed at following location, i.e. from the region (34) different from inflow region (33), pass-out steam (BS) mainly flows into the position in heat transfer tube group (32), and the inflow region (33) is passing through the region in mainly flowing into heat transfer tube group after steam primary flow path for discharge steam (ES).
Description
Technical field
The present invention relates to a kind of condensation for making to revert to water after discharging steam condensation from the steam that steamturbine is discharged
Device and the steam turbine plant for possessing condenser.The application advocates special in the Japan of Japanese publication based on March 27th, 2013
The priority of profit application 2013-065403, and its content is applied at this.
Background technology
There is the steam turbine plant for possessing pass-out steam pipeline in steam turbine plant, the pass-out steam pipeline will bypass steaming
The steam of steam turbine is guided to condenser.Steam i.e. pass-out steam to condenser is guided in steam whirlpool from pass-out steam pipeline
Do not worked in wheel, therefore be high temperature and high pressure compared to the discharge steam worked in steamturbine.
As steam turbine plant such as above, for example, there is described steam turbine plant in following patent document 1.
The steamturbine of the steam turbine plant is the axle stream discharge type steam whirlpool of the direction of principal axis discharge steam extended along turbine rotor
Wheel.Relative to the steamturbine in the position of direction of principal axis, i.e., it is configured with condenser in the discharge direction of steam.On the condenser
It is connected with the pass-out steam pipeline that pass-out steam passed through for bypassing steamturbine.
Also, as the condenser of axle stream discharge type steamturbine, for example, have described cold in following patent document 2
Condenser.The condenser has：Heat transfer tube group, is made up of multiple heat-transfer pipes internally by seawater etc.；Main body, coats the biography
Heat pipe heat；And middle body, link steamturbine and main body, and the steam from steamturbine is guided to main body
Heat transfer tube group.Main body is configured at the position of direction of principal axis relative to steamturbine, and middle body is connected to the sidepiece of main body.
Also, possess two groups of steamturbines in the steam turbine plant described in patent document 3.Two groups of steamturbines are
The lower discharge type steamturbine of steam is discharged downward.Condenser is each configured with the lower position of each steamturbine.Two groups
The body of condenser is connected to each other by connecting body at an upper portion thereof.Steam receiving magazine is configured with below connection body.
The pass-out steam pipeline that steam passed through for bypassing steamturbine is connected with the steam receiving magazine.From pass-out steam pipeline stream
Enter to the steam in steam receiving magazine and be flowed into via connection body in the body of two groups of condensers.
Conventional art document
Patent document
Patent document 1：Japanese Patent Publication 2003-148111 publications
Patent document 2：Japanese Patent Publication 9-273875 publications
Patent document 3：Japanese Patent Publication 7-167571 publications
The content of the invention
The invention technical task to be solved
In the steam turbine plant described in above-mentioned patent document 1, due to needing to make than discharge steam high temperature and high pressure
Pass-out steam energy dissipation to a certain degree, therefore the end of pass-out steam pipeline is connected in the middle body of condenser.
In this configuration, in order that the pass-out steam of a certain degree of energy dissipation is flowed into main body, the length of middle body,
The installation space of steam turbine plant can not be effectively utilized.Also, in this configuration, it is flowed into the high temperature in middle body
And the pass-out steam of high pressure is to steamturbine side adverse current, therefore, it is possible to be damaged turbine rotor and its bearing and axle envelope etc..Separately
Outside, the discharge steam from steamturbine, the pass-out steam from pass-out steam pipeline are flowed into after middle body
In heat transfer tube group in main body, therefore it is opposite in heat transfer tube group the region of middle body and is possible to more obvious than other positions
It is impaired.
Also, in the steam turbine plant of above-mentioned patent document 3, as described above, by the body of two groups of condensers
Steam receiving magazine is configured with below the connection body that top is connected to each other, pass-out steam is flowed into the steam receiving magazine.Cause
This, in the steam turbine plant of above-mentioned patent document 3, in the body of condenser, without lengthening from steamturbine
Discharge steam is guided to the length of the middle body in the main body of cladding heat transfer tube group, moreover, the bypass of high temperature and high pressure is steamed
Vapour is also small to the possibility of steamturbine side adverse current.In the steam turbine plant, it is also contemplated that being connected to for connection body
The middle body of each condenser.Therefore, the discharge steam from steamturbine and the pass-out steam from pass-out steam pipeline,
After middle body, it is flowed into the heat transfer tube group in main body, can estimates and middle body is opposite in heat transfer tube group
The part of body is substantially damaged than other positions.
That is, in the steam turbine plant described in patent document 1 and in the steam turbine plant described in patent document 3
In, the problem of there is the heat transfer tube group Local Damaged of condenser.
Then, it is an object of the invention to provide a kind of condenser that can suppress heat transfer tube group local damage and possess cold
The steam turbine plant of condenser.
Means for solving technical task
Condenser for a kind of mode involved by the invention that solves the above problems, it is characterised in that possess：Heat-transfer pipe
Group, by the medium of the discharge steam progress heat exchange with being discharged from steamturbine by inside, and reverts to the discharge steam
Multiple heat-transfer pipes of water are constituted；Main body, coats the heat transfer tube group；Middle body, positioned at the steamturbine and the master
Link both between body, and form steam primary flow path, the steam primary flow path is used for the discharge from the steamturbine
Steam is guided to the heat transfer tube group in the main body；Pass-out steam acceptance division, receives the side for bypassing the steamturbine
Logical steam, and through being formed from the opening of the main body, the pass-out steam is guided to the heat transfer in the main body
Pipe group,
The pass-out steam acceptance division is configured at outside the steam primary flow path, and the opening of the main body is formed at such as bottom
Put, i.e., from the region different from inflow region, the pass-out steam mainly flows into the position in the heat transfer tube group, the stream
Enter region for the discharge steam passing through after the steam primary flow path, mainly flow into the region in the heat transfer tube group.
In addition, " mainly flowing into " is to represent that the steam is flowed into most from the region in heat transfer tube group into heat transfer tube group above
It is many.
In the condenser, the region different from the inflow region mainly flowed into from discharge steam into heat transfer tube group is other
Logical steam is mainly flowed into heat transfer tube group.So as to which in the condenser, the region point in heat transfer tube group is flowed into due to steam
Dissipate, therefore, it is possible to suppress the local damage of heat transfer tube group.
Also, in the condenser, pass-out steam acceptance division is provided with outside steam primary flow path, therefore, with bypass is steamed
Vapour guides the situation to the middle body of condenser to compare, and can shorten the length of middle body, and can effectively utilize steaming
The installation space of steam turbine equipment.Also, in the condenser, pass-out steam will not be fed directly in steam primary flow path, because
This pass-out steam is minimum to the possibility of steamturbine side adverse current, can suppress the turbine rotor and its bearing and axle of steamturbine
The damage of envelope etc..In addition, in the condenser, sprayed due to not configuring into middle body pass-out steam steam jet ejector or
Water ejector, therefore, it is possible to reduce the resistance of the discharge steam passed through in middle body.
Here, can also possess flowing suppression component in the condenser, the flowing suppression component suppresses by described
Pass-out steam acceptance division and the pass-out steam that receives flow towards the heat transfer tube group.
In the condenser, due to the flowing of the pass-out steam towards heat transfer tube group can be suppressed, therefore, it is possible to further
Suppress the damage of heat transfer tube group.
Also, in condenser described in any of the above, can also possess to injection water in the pass-out steam acceptance division
Water ejection section.
In the condenser, due to pass-out steam can be cooled down in pass-out steam acceptance division, therefore, it is possible to suppress heat transfer
The damage of pipe group.
Also, in condenser described in any of the above, the steamturbine is is extended to the rotor of the steamturbine
Direction of principal axis, or discharge to the side of the steamturbine horizontal exhaust type steamturbine of steam, the middle body links
In the sidepiece of the main body, the pass-out steam acceptance division can also be arranged at the top of the main body, and the main body
The sidepiece of body and have using the heat transfer tube group as reference connection the middle body part opposite side part in its
In a side.
Also, in condenser described in any of the above, except the condensation for the horizontal exhaust type steamturbine
In condenser outside device, the steamturbine is the lower discharge type steam whirlpool that steam is discharged towards the lower section of the steamturbine
Wheel, the middle body is linked to the top of the main body, and the pass-out steam acceptance division can also be arranged at the main body
The sidepiece of body and the position for being opposite to the heat transfer tube group in the horizontal direction.
Steam turbine plant for a kind of mode involved by the invention that solves the above problems, it is characterised in that possess：
Condenser described in any of the above；The steamturbine；Steam feeder, steam is supplied to the steamturbine；Pass-out steam
Pipeline, using the steam from the steam feeder as the pass-out steam, makes the steam bypass the steam whirlpool
After wheel, guiding to the pass-out steam acceptance division.
Also, for the steam turbine plant of the another way involved by the invention that solves the above problems, it is characterised in that
Possess：The condenser, possesses the water ejection section；The steamturbine；Steam feeder, supplies to the steamturbine and steams
Vapour；Feed pump, in the condenser, makes the water obtained by the condensation of the discharge steam return to the steam and supplies
Device；Pass-out steam pipeline, using the steam from the steam feeder as the pass-out steam, bypasses the steam
After the steamturbine, guiding to the pass-out steam acceptance division；Water pipe, will be pressurized by the feed pump
Water is guided to the water ejection section.
Also possesses condenser described in any of the above in above steam turbine plant, therefore, it is possible to suppress heat transfer tube group
Local damage.
Invention effect
According to a kind of mode of the present invention, by the region that steam is flowed into heat transfer tube group is disperseed, therefore, it is possible to
Suppress the local damage of heat transfer tube group.
Brief description of the drawings
Fig. 1 is the system diagram of the steam turbine plant in first embodiment involved in the present invention.
Fig. 2 is the system diagram of the steam turbine plant in second embodiment involved in the present invention.
Fig. 3 is the system diagram of the steam turbine plant in the 3rd embodiment involved in the present invention.
Fig. 4 is the schematic sectional view of the condenser in the first variation involved in the present invention.
Fig. 5 is the schematic sectional view of the condenser in the second variation involved in the present invention.
Fig. 6 is the schematic sectional view of the condenser in the 3rd variation involved in the present invention.
Embodiment
Hereinafter, the various embodiments and various modifications example of steam turbine plant involved in the present invention are entered using accompanying drawing
Row explanation.
" first embodiment "
The first embodiment of steam turbine plant involved in the present invention is illustrated with reference to Fig. 1.
The steam turbine plant of present embodiment possesses：The steam generators such as boiler (steam feeder) 1；High steam whirlpool
Wheel 2 and low-pressure steam turbine 3, are driven by the steam produced in steam generator 1；Generator 5, passes through each steamturbine
2nd, 3 driving generates electricity；Reheater (steam feeder) 6, is reheated to the steam discharged from high-pressure steam turbine 2；It is cold
Condenser 30, makes to revert to water after discharging steam ES condensations from the steam that low-pressure steam turbine 3 is discharged；And feed pump 7, make cold
Water in condenser 30 returns to steam generator 1.
The steam turbine plant is also equipped with：High pressure vapor line 11, the steam produced in steam generator 1 i.e. high pressure is steamed
Vapour HS is guided to high-pressure steam turbine 2；Be vented high pressure vapor line 15, by the steam discharged from high-pressure steam turbine 2 guide to
Reheater 6；Reheated steam pipeline 13, will by reheater 6 heated steam to be reheated steam RS guide to low-pressure steam
Turbine 3；Bypass high pressure steam pipework 12, is guided to condenser 30 from the branch of high pressure vapor line 11, and by high steam HS；It is other
Logical reheated steam pipeline 14, is guided to condenser 30 from the branch of reheated steam pipeline 13, and by reheated steam RS；Condenser pipe
16, the water in condenser 30 is guided to feed pump 7；Supply line 17, future, the water of self-supporting water pump 7 was guided to steam generator
1；And water pipe 18, from the branch of supply line 17, and lead water to condenser 30.
The flow that the high steam HS to being flowed into high-pressure steam turbine 2 is provided with high pressure vapor line 11 is adjusted
The high pressure steam control valve 21 of section.The reheated steam to being flowed into low-pressure steam turbine 3 is provided with reheated steam pipeline 13
The reheated steam regulating valve 23 that RS flow is adjusted.Open and close valve 22 is provided with bypass high pressure steam pipework 12.Also,
Open and close valve 24 is also equipped with bypass reheated steam pipeline 14.In supply line 17, in the position than the branch of water pipe 18
Closer to the side of steam generator 1, the feed-regulating valve that the flow of the water to being flowed into steam generator 1 is adjusted is provided with
27.The spray water control valve 28 that the flow towards the water of injection in condenser 30 is adjusted is provided with water pipe 18.
High-pressure steam turbine 2 and low-pressure steam turbine 3 are provided with the turbine rotor rotated centered on axis and with can
The mode of rotation coats the housing of turbine rotor.The turbine rotor of high-pressure steam turbine 2 and the turbine rotor of low-pressure steam turbine 3
Pivoted about with same axis, and it is connected to each other.Also, hair is linked with the turbine rotor of high-pressure steam turbine 2
The generator amature of motor 5.
Low-pressure steam turbine 3 is the axle stream discharge type steamturbine of the direction of principal axis discharge steam extended to turbine rotor.
In axial direction and exhaust outlet 4 is used as so as to, the housing of low-pressure steam turbine 3 with the rear side of the opposite side of high-pressure steam turbine 2
And be open.
Condenser 30 is condenser corresponding with axle stream discharge type steamturbine, and it is configured at after low-pressure steam turbine 3
Side.The condenser 30 has：Heat transfer tube group 32, is made up of multiple heat-transfer pipes 31；Main body 35, coats heat transfer tube group 32；It is middle
Body 41, links both between low-pressure steam turbine 3 and main body 35；Pass-out steam acceptance division 51, is received from side
The steam of logical high pressure vapor line 12 is bypass high pressure steam BHS and the steam i.e. side from bypass reheated steam pipeline 14
Logical reheated steam BRS；And water ejector (water ejection section) 56, the water from water pipe 18 is sprayed in condenser 30.Separately
Outside, below, one of which in bypass high pressure steam BHS and bypass reheated steam BRS or both is referred to as bypassed sometimes
Steam BS.
Rear interval configuration of the main body 35 in low-pressure steam turbine 3.Middle body 41 is from low-pressure steam turbine 3
Exhaust outlet 4 rearward extends, and links the exhaust outlet 4 and main body 35 of low-pressure steam turbine 3.In being connected with main body 35
Between body 41 part be main body 35 sidepiece, and for the side of low-pressure steam turbine 3.The company with middle body 41 of main body 35
Connect outs open.The steam discharged from low-pressure steam turbine 3 be discharge steam ES via middle body 41 from the opening (it is following,
It is used as discharge steam inlet 36) flow into main body 35.So as to which middle body 41 is formed from low-pressure steam turbine 3
Discharge steam ES guides a part for the steam primary flow path 42 to the heat transfer tube group 32 in main body 35.In addition, steam primary flow path
42 by the inner space of middle body 41 and in main body 35 from the discharge steam inlet 36 of main body 35 to heat transfer tube group 32
Between space constitute.In the multiple heat-transfer pipes 31 for constituting heat transfer tube group 32, the cooling medium such as having seawater flows.It is each to pass
Heat pipe 31 makes the cooling medium internally flowed and outside discharge steam ES carry out heat exchange, and discharge steam ES is condensed it
After revert to water.The lower inside of main body 35 constitutes the hot well stored by the water discharged steam ES condensation and obtained
38.Condenser pipe 16 is connected with the bottom of the main body 35.
Pass-out steam acceptance division 51 has：Pass-out steam receiving magazine 52, is internally formed the space for receiving pass-out steam BS；
High-pressure steam ejector 53, is connected to bypass high pressure steam pipework 12, and the injection bypass high pressure in pass-out steam receiving magazine 52
Steam BHS；And reheated steam injector 54, bypass reheated steam pipeline 14 is connected to, and sprayed in pass-out steam receiving magazine 52
Penetrate bypass reheated steam BRS.
Pass-out steam receiving magazine 52 is connected and fixed on the top of main body 35.Pass-out steam receiving magazine 52 and main body 35
Coupling part opening, the bypass in pass-out steam receiving magazine 52 is ejected into from the opening (following, to be used as pass-out steam entrance 37)
Steam BS is flowed into main body 35.High-pressure steam ejector 53 and reheated steam injector 54 are to form multiple pass through in pipe arrangement
Wear the antipriming pipe of sky.Also, in the pass-out steam receiving magazine 52 and high-pressure steam ejector 53 and reheated steam injector 54
Lower position, in other words, water ejector 56 is configured with the position of the side of heat transfer tube group 32.The water ejector 56 is set on pipe arrangement
There is the nozzle of multiple injection waters.Multiple nozzles are arranged at the top of pipe arrangement and upward, i.e., towards high-pressure steam ejector 53
And the side spray jetting of reheated steam injector 54.
Then, the action to steam turbine plant described above is illustrated.
The steam produced in steam generator 1 is flowed into high pressure via high pressure vapor line 11 as high steam HS
In the housing of steamturbine 2, and drive the high-pressure steam turbine 2.Now, 21 pairs of high pressure steam control valve is flowed into high steam
The flow of high steam HS in the housing of turbine 2 is adjusted.It is arranged at the open and close valve 22 of bypass high pressure steam pipework 12
In full-shut position.From high-pressure steam turbine 2 discharge high steam HS via exhaust high pressure vapor line 15 be flowed into reheater 6
And be reheated.By reheater 6, heated steam is flowed into low via reheated steam pipeline 13 as reheated steam RS
In the housing for pressing steamturbine 3, and drive the low-pressure steam turbine 3.Now, 23 pairs of reheated steam regulating valve is flowed into low pressure steaming
The flow of reheated steam RS in the housing of steam turbine 3 is adjusted.Also, it is arranged at the opening and closing of bypass reheated steam pipeline 14
Valve 24 is in full-shut position.
If driving high-pressure steam turbine 2 and low-pressure steam turbine 3, generator 5 is generated electricity.
Drive the reheated steam RS of low-pressure steam turbine 3 from the exhaust outlet 4 of low-pressure steam turbine 3 as discharge steam ES
Discharge, after the middle body 41 by condenser 30, is flowed into the heat transfer tube group 32 in main body 35.Discharge steam
ES is flowed into heat transfer tube group 32 after from the exhaust outlet 4 of low-pressure steam turbine 3 by the steam primary flow path 42 in condenser 30
In.Now, lateral region 33 opposed with the discharge steam inlet 36 of main body 35 from heat transfer tube group 32 discharge steam ES
Mainly flow into heat transfer tube group 32.In addition, " mainly flowing into " here be represent from heat transfer tube group 32 with main body 35
The opposed lateral region 33 in discharge steam inlet 36, most discharge steam ES are flowed into heat transfer tube group 32.
The discharge steam ES around heat transfer tube group 32 is flowed into heat transfer tube group 32 or reaches, with constituting heat-transfer pipe
The cooling medium of flowing condensed and as water after heat exchange in the heat-transfer pipe 31 of group 32.The water is stored under main body 35
In the hot well 38 of side.The water stored in hot well 38 returns to steam hair via condenser pipe 16, feed pump 7, supply line 17
Raw device 1.Now, the flow for the water that 27 pairs of feed-regulating valve is flowed into steam generator 1 is adjusted.Also, spray water control valve
28 are in full-shut position.
In such as above stable operation, for example, in the finger stopped by the power supply from the power system for being connected to generator 5
Show, make when high-pressure steam turbine 2 and the stopping of low-pressure steam turbine 3, high pressure steam control valve 21 and reheated steam are adjusted
Save valve 23 turns into full-shut position from opening.Also, bypass high pressure steam pipework 12 and bypass reheated steam pipe will be provided with
The open and close valve 22,24 on road 14 turns into full-gear from full-shut position.As a result, the high steam HS from steam generator 1 makees
Sprayed for bypass high pressure steam BHS via high pressure vapor line 11, bypass high pressure steam pipework 12 and high-pressure steam ejector 53
Into pass-out steam receiving magazine 52.Also, the reheated steam RS from reheater 6 is as bypass reheated steam BRS via reheating
Steam pipework 13, bypass reheated steam pipeline 14 and reheated steam injector 54 are ejected into pass-out steam receiving magazine 52.Due to
The bypass high pressure steam BHS being ejected into pass-out steam receiving magazine 52 does not work in high-pressure steam turbine 2, therefore compared in height
The high steam HS worked in pressure steamturbine 2 is high temperature and high pressure.Also, due to being ejected into pass-out steam receiving magazine 52
Bypass reheated steam BRS does not work in low-pressure steam turbine 3, therefore compared to the reheated steam worked in low-pressure steam turbine 3
RS (discharge steam ES) is high temperature and high pressure.So as to flow into compare in pass-out steam receiving magazine 52 and be flowed via middle body 41
The discharge steam ES entered into main body 35 is high temperature and the pass-out steam BS of high pressure.
In the above case, and then spray water control valve 28 is opened, a part for the water from feed pump 7 is via water pipe
18 and water ejector 56 be ejected into pass-out steam receiving magazine 52.It is ejected into water and high temperature and height in pass-out steam receiving magazine 52
The pass-out steam BS of pressure carries out heat exchange, so as to reduce pass-out steam BS temperature.Also, it is ejected into the pass-out steam receiving magazine
Water in 52 plays a role as the heavy curtain (curtain) for pass-out steam BS, suppresses pass-out steam BS and is flowed into master
In body 35.In addition, the overwhelming majority turns into steam to water in this process.
Pass-out steam BS and it is flowed into heat-transfer pipe as the water of steam by carrying out heat exchange with pass-out steam BS
In group 32.Now, top opposed with the pass-out steam entrance 37 of main body 35 from heat transfer tube group 32 pass-out steam BS etc.
Region 34 is mainly flowed into heat transfer tube group 32.It is flowed into heat transfer tube group 32 or reaches the bypass around heat transfer tube group 32
Condense and turn into after steam BS etc., with the cooling medium progress heat exchange of the flowing in the heat-transfer pipe 31 for constituting heat transfer tube group 32
Water.The water is stored in the hot well 38 of the lower section of main body 35.A part for water in hot well 38 is stored via condenser pipe
16th, feed pump 7, supply line 17 and return to steam generator 1.Also, remaining water sprays via water pipe 18 and water
Device 56 and be ejected into pass-out steam receiving magazine 52.
As described above, in the present embodiment, discharge steam ES passes through after steam primary flow path 42, from heat transfer tube group 32
Sidepiece and with the opposed region 33 in discharge steam inlet 36 of main body 35, mainly flow into heat transfer tube group 32, with this phase
Right, pass-out steam BS is mainly flowed into heat transfer tube group 32 from the upper area 34 of heat transfer tube group 32.I.e. in the present embodiment,
Region 33 and pass-out steam BS in the heat transfer tube group 32 that discharge steam ES is flowed into heat transfer tube group 32 are flowed into heat transfer tube group
Region 34 in heat transfer tube group 32 in 32 is different.Therefore, in the present embodiment, the local damage of heat transfer tube group 32 can be suppressed
Wound.
However, in the case that pass-out steam BS is guided into the middle body 41 to condenser 30, make high temperature and high pressure
, it is necessary to make pass-out steam BS be flowed into main body 35, according to the necessity after the pass-out steam BS a certain degree of energy dissipation
Property, the length of middle body 41.Also, the high temperature and the bypass of high pressure in this case, being flowed into middle body 41
Steam BS is to steamturbine side adverse current, it is thus possible to can be damaged turbine rotor and its bearing and axle envelope of steamturbine etc..Separately
Outside, in this case, pass-out steam BS steam jet ejector or the relation of water ejector are sprayed into middle body 41 in configuration
On, the discharge steam ES passed through in middle body 41 resistance becomes big.
However, in the present embodiment, due to being provided with pass-out steam acceptance division 51 outside steam primary flow path 42, therefore with
Guide the situation to the middle body 41 of condenser 30 to compare pass-out steam BS, the length of middle body 41 can be shortened, and
The installation space of steam turbine plant can be effectively utilized.Also, in the present embodiment, because pass-out steam BS will not be straight
Connect in the steam primary flow path 42 being flowed into middle body 41, therefore pass-out steam BS is to the possibility pole of steamturbine side adverse current
It is low, and the impaired of the turbine rotor and its bearing and axle envelope of steamturbine etc. can be suppressed.In addition, in the present embodiment, not
The steam jet ejector or water ejector that pass-out steam BS is sprayed into middle body 41 are configured, therefore, it is possible to reduce in middle body
The discharge steam ES passed through in 41 resistance.
" second embodiment "
The second embodiment of steam turbine plant involved in the present invention is illustrated with reference to Fig. 2.
The steam turbine plant of present embodiment and the steam turbine plant of first embodiment are essentially identical.But,
In present embodiment, condenser 30a pass-out steam acceptance division 51a is arranged at main body 35a sidepiece, and this point is real with first
Apply mode different.
Identically with the pass-out steam acceptance division 51 of first embodiment, the pass-out steam acceptance division 51a of present embodiment
Also there is pass-out steam receiving magazine 52, high-pressure steam ejector 53 and reheated steam injector 54.Pass-out steam receiving magazine 52 connects
Connect the sidepiece for being fixed on main body 35a and the portion of the opposite side of the part of middle body 41 is connected with the basis of heat transfer tube group 32
Point.The coupling part opening of pass-out steam receiving magazine 52 and main body 35a, the opening is constituted from pass-out steam receiving magazine 52
Pass-out steam BS is flowed into the pass-out steam entrance 37a in main body 35a.
As described above, in the present embodiment, discharge steam ES is after in middle body 41, from heat transfer tube group 32
Sidepiece and with the main body 35a opposed region 33 in discharge steam inlet 36, mainly flow into heat transfer tube group 32, with this phase
It is right, pass-out steam BS from the basis of heat transfer tube group 32 with discharge steam inlet 36 opposite side 37a pairs of pass-out steam entrance
The region 34a put, is mainly flowed into heat transfer tube group 32.I.e., in the present embodiment, identically with first embodiment, arrange
The region 33 and pass-out steam BS gone out in the heat transfer tube group 32 that steam ES is flowed into heat transfer tube group 32 is flowed into heat transfer tube group 32
In heat transfer tube group 32 in region 34a it is different.Also, identically with first embodiment, also steaming in the present embodiment
Pass-out steam acceptance division 51a is provided with outside vapour primary flow path 42.So as to also result in the present embodiment and the first embodiment party
The essentially identical effect of formula.
But, in the present embodiment, due to being provided with pass-out steam acceptance division 51a in main body 35a sidepiece, because
This, in the present embodiment, the usability of the plane installation space of steam turbine plant is poorer than first embodiment.The opposing party
Face, in the present embodiment, on the basis of heat transfer tube group 32, bypass is provided with the opposite side for being connected with the middle side of body 41
Steam acceptance division 51a, therefore, compared with first embodiment, can further reduce pass-out steam BS inverse to steamturbine side
The possibility of stream.
In addition, in first embodiment and second embodiment, the Jun Wei Shaft of low-pressure steam turbine 3 stream discharge type steam whirlpool
Wheel, and condenser 30,30a are type corresponding with this, still, even if low-pressure steam turbine is side-exhaustion type steamturbine,
And condenser is type corresponding with this, also each embodiment can be applicable the present invention identically with more than.In addition, in steam whirlpool
In the case of taking turns as side-exhaustion type steamturbine, condenser arrangement is in the side of steamturbine.
" the 3rd embodiment "
The 3rd embodiment of steam turbine plant involved in the present invention is illustrated with reference to Fig. 3.
The constitutive requirements of the steam turbine plant of present embodiment are also set with the steamturbine of first and second embodiment
Standby constitutive requirements are identical.But, it is used as the low-pressure steam turbine 3b of the constitutive requirements of the steam turbine plant of present embodiment
And condenser 30b, with the low-pressure steam turbine 3 and condenser 30,30a of the steam turbine plant of first and second embodiment not
Together.
The low-pressure steam turbine 3b of present embodiment is the lower discharge type steamturbine for discharging steam downward.Therefore,
The downside of the low-pressure steam turbine 3b of present embodiment housing is open as exhaust outlet 4b.
Condenser 30b is, corresponding to lower discharge type steamturbine, and to be configured at low-pressure steam turbine 3b downside.With first
And the condenser 30 of second embodiment, 30a are in the same manner, condenser 30b also has：Heat transfer tube group 32, cladding heat transfer tube group
32 main body 35b, the middle body 41b of both links, bypass steaming between low-pressure steam turbine 3b and main body 35b
Vapour acceptance division 51b and water ejector 56 (water ejection section).
Lower section interval configurations of the main body 35b in low-pressure steam turbine 3b.Middle body 41b is from low-pressure steam turbine
3b exhaust outlet 4b extends downward, and links low-pressure steam turbine 3b exhaust outlet 4b and main body 35b.In main body 35b
In be connected with middle body 41b part be main body 35b top.The main body 35b coupling part with middle body 41b
Opening, the opening constitutes the discharge steam inlet 36b that discharge steam ES is flowed into main body 35b.So as in present embodiment
In, middle body 41b, which is also formed, guides the discharge steam ES from low-pressure steam turbine 3b to the heat-transfer pipe in main body 35b
The steam primary flow path 42b of group 32 part.Also, in the present embodiment, main body 35b lower inside, which is also constituted, stores
By the hot well 38 for the water discharged steam ES condensation and obtained.
Identically with embodiment of above, pass-out steam acceptance division 51b has：Pass-out steam receiving magazine 52, injection bypass
High steam BHS high-pressure steam ejector 53, injection bypass reheated steam BRS reheated steam injector 54.
Pass-out steam receiving magazine 52 is connected and fixed on main body 35b sidepiece.Pass-out steam receiving magazine 52 and main body 35b
Coupling part opening, the opening constitutes pass-out steam BS and is flowed into pass-out steam entrance 37b in main body 35b.With first
And second embodiment is in the same manner, high-pressure steam ejector 53 and reheated steam injector 54 are configured in pass-out steam receiving magazine
In 52.Also, identically with first and second embodiment, water ejector 56 is also disposed in pass-out steam receiving magazine 52 and ratio
The position of high-pressure steam ejector 53 and reheated steam injector 54 closer to the side of heat transfer tube group 32.Multiple sprays of water ejector 56
Mouth is towards high-pressure steam ejector 53 and the side spray jetting of reheated steam injector 54.
As described above, in the present embodiment, discharge steam ES is after middle body 41b is passed through, from heat transfer tube group 32
In upper area 33b mainly flow into heat transfer tube group 32, on the other hand, pass-out steam BS is from the sidepiece in heat transfer tube group 32
Region 34b is mainly flowed into heat transfer tube group 32.I.e., identically with first and second embodiment, in the present embodiment, arrange
The region 33b and pass-out steam BS gone out in the heat transfer tube group 32 that steam ES is flowed into heat transfer tube group 32 is flowed into heat transfer tube group 32
In heat transfer tube group 32 in region 34b it is different.Also, identically with first and second embodiment, in the present embodiment,
Pass-out steam acceptance division 51b is also equipped with outside steam primary flow path 42b.So as in the present embodiment, also result in and the
One and the essentially identical effect of second embodiment.I.e., in the present embodiment, the local damage of heat transfer tube group 32 can also be suppressed
Wound.Also, in the present embodiment, compared with pass-out steam BS to be guided to the situation to condenser 30b middle body 41b,
Middle body 41b length can be shortened.In addition, in the present embodiment, can also make pass-out steam BS to low-pressure steam whirlpool
The possibility for taking turns 3b sides adverse current is extremely low, and can reduce the discharge steam ES passed through in middle body 41b resistance.
More than, such as present embodiment, though low-pressure steam turbine 3b is lower discharge type steamturbine, and condenser 30b
For type corresponding with this, the present invention can be also applicable.That is, as described above, no matter steamturbine Wei Shaft flow discharge type or side
The horizontal exhaust type steamturbine of discharge type, or steamturbine are lower discharge type steamturbine, according to the exhaust of steamturbine
Type can be applicable the present invention.
" the first variation of condenser "
The first variation of the condenser 30 in first embodiment is illustrated with reference to Fig. 4.
In condenser 30 in first embodiment, in pass-out steam receiving magazine 52, and than high-pressure steam ejector 53
And reheated steam injector 54 is configured with water ejector 56 closer to the position of the side of heat transfer tube group 32.In the condenser of this variation
In 30c, in pass-out steam acceptance division 51c pass-out steam receiving magazine 52, and than high-pressure steam ejector 53 and reheated steam
Injector 54 is configured with water ejector 56 further from the position of the side of heat transfer tube group 32.In other words, in this variation, than
Water ejector 56 is configured with high-pressure steam ejector 53 and reheated steam injector 54 closer to the position of the side of heat transfer tube group 32.
Identically, the nozzle of water ejector 56 is to high-pressure steam ejector 53 and the side of reheated steam injector 54 for each embodiment with more than
Injection water.So as in this variation, can also utilize the water cooling sprayed from water ejector 56 from high-pressure steam ejector 53
And reheated steam injector 54 is ejected into the pass-out steam BS in pass-out steam receiving magazine 52.
In addition, variation of this variation for the condenser 30 in first embodiment, still, second and third embodiment party
Condenser 30a, 30b of formula also can be deformed equally.
" the second variation of condenser "
It is that the second variation is illustrated to another variation of the condenser 30c in the first variation with reference to Fig. 5.
The condenser 30d of this variation is the additional condensation for flowing suppression component on the condenser 30c of the first variation
Device, the flowing suppression component suppresses the pass-out steam BS courts received by condenser 30c pass-out steam acceptance division 51c
Flowed to heat transfer tube group 32.The flowing suppression component is the high-pressure steam ejector 53 in pass-out steam receiving magazine 52, reheating
The aggregate of steam jet ejector 54 and water ejector 56 is configuration between the heat transfer tube group 32 in injector group 55 and main body 35
Shock plate 58.The shock plate 58 along with the connecing towards heat transfer tube group 32 from injector group 55 or pass-out steam acceptance division 51c
Receipts portion-pipe prescription is to vertical Directional Extension.
Such as this variation, by the way that shock plate 58 is configured between injector group 55 and heat transfer tube group 32, from injector
55 sides of group are flowed into the flow velocity reduction of the steam in heat transfer tube group 32, can further suppress the damage of heat transfer tube group 32.
" the 3rd variation of condenser "
It is that the 3rd variation is illustrated to another variation of the condenser 30c in the first variation with reference to Fig. 6.
Identically with the second variation, the condenser 30e of this variation is also to be chased after on the condenser 30c of the first variation
Plus the condenser of flowing suppression component, the pass-out steam acceptance division 51c that the flowing suppression component suppression passes through condenser 30c
Flowed the pass-out steam BS that receives towards heat transfer tube group 32.The flowing suppression component of this variation is in injector group 55 and master
The multiple impact bars 59 configured between heat transfer tube group 32 in body 35.Multiple impact bars 59 each along with from injector group 55 or
Pass-out steam acceptance division 51c extends towards acceptance division-pipe prescription of heat transfer tube group 32 to vertical direction, and with acceptance division-
Pipe prescription to and the vertical direction in the direction that is extended of each impact bar 59 on be spaced apart interval configuration.
In this variation, also multiple impact bars 59 are configured between injector group 55 and heat transfer tube group 32, thus from
Injector group 55 is flowed into the flow velocity reduction of the steam in heat transfer tube group 32, can further suppress the damage of heat transfer tube group 32.
In addition, in the second variation and the 3rd variation, flowing suppression component is configured in main body 35, but stream
As long as dynamic suppression component is configured between injector group 55 and heat transfer tube group 32, then pass-out steam receiving magazine 52 can also be configured at
It is interior.
Also, the second variation and the variations of び the 3rd are the variation of the condenser 30 in the first variation, still,
First so the 3rd the condenser of embodiment also can equally be deformed.
However, in condenser 30c in the first variation, high-pressure steam ejector 53 and reheated steam injector 54 compare
Water ejector 56 more leans on the position of the side of heat transfer tube group 32, it is impossible to which expectation is suppressed bypass using the water sprayed from water ejector 56 and steamed
The curtain effect that vapour BS flows towards heat transfer tube group 32.Therefore, compared with the condenser in embodiment of first or even the 3rd,
To first so that the 3rd embodiment the first variation in condenser set flowing suppression component can be more effective.
" other variations "
More than each embodiment and each variation, by the present invention be applied to possess high-pressure steam turbine, low-pressure steam turbine,
And in the steam turbine plant for the condenser that the discharge steam from low-pressure steam turbine is reverted into water.However, it is also possible to will
The present invention is applied to possess high-pressure steam turbine, middle pressure steam turbine, low-pressure steam turbine and will come from these steamturbines
Any steamturbine the discharge steam ES condensers that revert to water steam turbine plant in.Alternatively, it is also possible to which this is sent out
A kind of steam of the bright condenser for being applied to possess steamturbine and the discharge steam from the steamturbine is reverted to water
In turbine device.As long as that is, possess the steam turbine plant of steamturbine and condenser corresponding with this, then can be any
Steam turbine plant in adaptation the present invention.
Industrial applicability
According to a kind of mode of the present invention, the local damage of heat transfer tube group can be suppressed.
Symbol description
1- steam generators (steam feeder), 2- high-pressure steam turbines, 3,3b- low-pressure steam turbines (or abbreviation steam
Turbine), 5- generators, 6- reheaters (steam feeder), 7- feed pumps, 11- high pressure vapor lines, 12- bypass high pressure steam
Pipeline, 13- reheated steam pipelines, 14- bypass reheated steam pipelines, 15- exhaust high pressure vapor lines, 16- condenser pipes, 17-
Supply line, 18- water pipes, 30,30a, 30b, 30c, 30d, 30e- condenser, 31- heat-transfer pipes, 32- heat transfer tube groups, 33,
33b, 34,34a, 34b- region, 35, the main body of 35a, 35b-, 36,36b- discharges steam inlet (opening), 37, by 37a, 37b-
Logical steam inlet (opening), 41- centres body, 42- steam primary flow paths, 51,51a, 51b, 51c- pass-out steam acceptance division, 52-
Pass-out steam receiving magazine, 53- high-pressure steam ejectors, 54- reheated steam injectors, 55- injector groups, 56- water ejector (water
Ejection section), 58- shock plates, 59- impact bars.
Claims (5)
1. a kind of condenser, it possesses：
Heat transfer tube group, by the medium of the discharge steam progress heat exchange with being discharged from steamturbine by inside, and makes the discharge
Multiple heat-transfer pipes that steam reverts to water are constituted；
Main body, coats the heat transfer tube group；
Middle body, links both, and form steam primary flow path, the steaming between the steamturbine and the main body
Vapour primary flow path is used to guide the discharge steam to the heat transfer tube group in the main body from the steamturbine；And
Pass-out steam acceptance division, receives the pass-out steam for bypassing the steamturbine, and through being formed from opening for the main body
Mouthful, the pass-out steam is guided to the heat transfer tube group in the main body,
The direction of principal axis that the steamturbine is extended for the rotor towards the steamturbine, or towards the side of the steamturbine
The horizontal exhaust type steamturbine of steam is discharged,
The middle body is linked to the sidepiece of the main body,
The pass-out steam acceptance division is configured at outside the steam primary flow path, and the pass-out steam acceptance division is arranged at the main body
The top of body, or the main body sidepiece and be connected with the basis of the heat transfer tube group part of the middle body
Opposite side point,
The opening of the main body is formed at following location, i.e., from the region different from inflow region, the pass-out steam is main
Be flowed into the position in the heat transfer tube group, the inflow region for the discharge steam by the steam primary flow path it
Afterwards, the region in the heat transfer tube group is mainly flowed into.
2. condenser according to claim 1, wherein,
Possesses flowing suppression component, the flowing suppression component suppresses the side received by the pass-out steam acceptance division
Logical steam flows towards the heat transfer tube group.
3. condenser according to claim 1, wherein,
Possesses the water ejection section to injection water in the pass-out steam acceptance division.
4. a kind of steam turbine plant, it possesses：
Condenser according to any one of claim 1 to 3；
The steamturbine；
Steam feeder, steam is supplied to the steamturbine；And
Pass-out steam pipeline, using the steam from the steam feeder as the pass-out steam, make the steam around
Cross after the steamturbine, guiding to the pass-out steam acceptance division.
5. a kind of steam turbine plant, it possesses：
Condenser according to claim 3；
The steamturbine；
Steam feeder, steam is supplied to the steamturbine；
Feed pump, in the condenser, makes the water obtained by the condensation of the discharge steam return to the steam and supplies
To device；
Pass-out steam pipeline, using the steam from the steam feeder as the pass-out steam, make the steam around
Cross after the steamturbine, guiding to the pass-out steam acceptance division；And
Water pipe, by pressurized water is guided to the water ejection section by the feed pump.
Applications Claiming Priority (3)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| JP2013065403A JP6221168B2 (en) | 2013-03-27 | 2013-03-27 | Condenser and steam turbine plant equipped with the same |
| JP2013-065403 | 2013-03-27 | ||
| PCT/JP2014/056718 WO2014156686A1 (en) | 2013-03-27 | 2014-03-13 | Condenser and steam-turbine plant provided therewith |
Publications (2)
| Publication Number | Publication Date |
|---|---|
| CN104937339A CN104937339A (en) | 2015-09-23 |
| CN104937339B true CN104937339B (en) | 2017-07-28 |
Family
ID=51623669
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201480005674.9A Expired - Fee Related CN104937339B (en) | 2013-03-27 | 2014-03-13 | Condenser and the steam turbine plant for possessing condenser |
Country Status (6)
| Country | Link |
|---|---|
| US (1) | US20160017756A1 (en) |
| EP (1) | EP2980474B1 (en) |
| JP (1) | JP6221168B2 (en) |
| KR (1) | KR101714946B1 (en) |
| CN (1) | CN104937339B (en) |
| WO (1) | WO2014156686A1 (en) |
Families Citing this family (9)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| KR101789541B1 (en) * | 2015-01-19 | 2017-10-26 | 두산중공업 주식회사 | Heat exchanger and electric power generator system comprising the same |
| CN108431369B (en) * | 2015-12-24 | 2020-08-14 | 三菱日立电力系统株式会社 | Steam turbine |
| WO2017145404A1 (en) * | 2016-02-25 | 2017-08-31 | 三菱日立パワーシステムズ株式会社 | Condenser and steam turbine plant provided with same |
| JP6797750B2 (en) * | 2017-05-22 | 2020-12-09 | 株式会社東芝 | Horizontal exhaust condenser and steam turbine plant |
| PL3473822T3 (en) * | 2017-10-19 | 2023-09-11 | Doosan Skoda Power S.R.O. | Steam-recycling system for a low pressure steam turbine |
| EP3848562A4 (en) * | 2018-10-10 | 2022-09-28 | Beijing Cynertec Co., Ltd. | Method for improving rankine cycle efficiency |
| CN109306878B (en) * | 2018-10-21 | 2021-03-23 | 河南理工大学 | Power plant system with waste water backheating and backwater functions |
| JP7393227B2 (en) | 2019-11-18 | 2023-12-06 | アズビル株式会社 | electromagnetic flow meter |
| CN114837757B (en) * | 2022-05-27 | 2023-05-05 | 华能国际电力股份有限公司 | High-water-adding bypass frequency modulation system of thermal power plant provided with steam ejector and working method |
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- 2014-03-13 CN CN201480005674.9A patent/CN104937339B/en not_active Expired - Fee Related
- 2014-03-13 KR KR1020157020194A patent/KR101714946B1/en active IP Right Grant
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Also Published As
| Publication number | Publication date |
|---|---|
| WO2014156686A1 (en) | 2014-10-02 |
| JP2014190590A (en) | 2014-10-06 |
| CN104937339A (en) | 2015-09-23 |
| EP2980474A1 (en) | 2016-02-03 |
| KR20150100886A (en) | 2015-09-02 |
| EP2980474B1 (en) | 2020-02-19 |
| KR101714946B1 (en) | 2017-03-09 |
| EP2980474A4 (en) | 2016-11-30 |
| JP6221168B2 (en) | 2017-11-01 |
| US20160017756A1 (en) | 2016-01-21 |
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Address after: Kanagawa Prefecture, Japan Patentee after: Mitsubishi Power Co.,Ltd. Address before: Kanagawa Prefecture, Japan Patentee before: MITSUBISHI HEAVY INDUSTRIES, Ltd. |
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