CN204923571U - Thermoelectric cold trigeminy supplies system based on heat pump technique and compressed air electric power storage technique - Google Patents
Thermoelectric cold trigeminy supplies system based on heat pump technique and compressed air electric power storage technique Download PDFInfo
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
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- Y02A30/00—Adapting or protecting infrastructure or their operation
- Y02A30/27—Relating to heating, ventilation or air conditioning [HVAC] technologies
- Y02A30/274—Relating to heating, ventilation or air conditioning [HVAC] technologies using waste energy, e.g. from internal combustion engine
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
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- Y02P80/00—Climate change mitigation technologies for sector-wide applications
- Y02P80/10—Efficient use of energy, e.g. using compressed air or pressurized fluid as energy carrier
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Abstract
The utility model discloses a thermoelectric cold trigeminy supplies system based on heat pump technique and compressed air electric power storage technique. Belong to the energy utilization field, this system includes by storing up electronic system, waste heat recovery subsystem, used heat storage subsystem, used heat feedback subsystem and used heat application subsystem including compressed air, wherein, the cooler of waste heat recovery subsystem is connected between compressed air storage electronic system's compressor and high pressure gasholder, the pre -heater of used heat feedback subsystem is connected between compressed air storage electronic system's high pressure gasholder and expander, the water storage tank connection that the subsystem was stored to used heat is between waste heat recovery subsystem and used heat feedback subsystem, and used heat feedback subsystem still links to each other with used heat application subsystem. This system has improved energy use efficiency, by a wide margin increase the heat supply area to can provide free cold water when the needs cooling, consequently the effectual running cost that has reduced has wide application prospect.
Description
Technical field
The utility model belongs to field of energy utilization, relates to a kind of thermoelectric cold triple supply system based on compressed air accumulate and waste heat utilization technology and method, is particularly useful for thermal source area more in short supply or electrical network peak-valley difference larger area.
Background technology
In China's electrical network, the unit of suitable vast scale is cogeneration units, in order to ensure heat demand, these units adopt the mode of " electricity determining by heat " to run, the regulating power of electrical network is caused to reduce, cause surplus and the waste of a large amount of generating capacity in the electricity needs low ebb phase, have to again in the brownout of peak of power consumption period in electricity needs peak period.Simultaneously due to wind-powered electricity generation; the output power of power supply of solar energy power generating has randomness; fluctuation range is large; change is frequent; cause producing great impact to electrical network during its input electrical network; in order to protect the safe and reliable of bulk power grid, a lot of local online to wind-power electricity generation and solar energy power generating limits, the serious application hindering new forms of energy.Compressed air power storage system receives providing auxiliary power ability because it has in the electric load demand low ebb phase, peak period is to the ability of electrical network feed, and unstable to wind-powered electricity generation and photovoltaic generation etc. supply of electric power is assembled storage on a large scale for a long time, then it is inputted the ability of electrical network with the power of specifying, solve the difficult problem that wind-powered electricity generation etc. impacts electrical network, be therefore with a wide range of applications.
The operation principle of compressed air power storage system is as follows: when energy storage, by compressor by the state of air from the state boil down to HTHP of normal temperature and pressure, is stored in air accumulator, consumes electric power in this process.When exoergic, high compression air flows out from air accumulator, and promote decompressor acting, become the air of normal pressure, compressed-air actuated pressure energy is converted into output mechanical energy and exports by decompressor, and changes mechanical energy is that electric energy inputs to electrical network by driving electric machine.
Be converted to mechanical energy storage because compressed air electricity storage technology comprises electric energy, then be multiple conversion process of energy such as electric energy by changes mechanical energy, a large amount of heat energy can be produced.The compression process that usual air is compressed into high-pressure gas state (5-20MPa) from atmospheric environment can adopt the mode of multi-stage compression, in air compressing process, a large amount of used heat can be produced, compressor exhaust temperature can be higher, needs to arrange interstage cooler to reduce the gas temperature entering next stage compressor at some inter-stages of compression to improve compression efficiency.And in order to improve expansion efficiency in air expansion process, need to carry out preheating to air, therefore compressed air power storage system can reclaim compression produce used heat store, for expansion time preheating.But due to the irreversibility of process and loss, still then produce a large amount of used heat and exist.The energy conversion efficiency (electricity of output is divided by the electricity inputted) of compressed air power storage system is generally between 35%-65% in the world at present, all the other electric energy are converted to the waste thermal energy of different grade, also do not have good utilization ways at present for this part waste thermal energy.
Simultaneously comprise cogeneration heat in the more efficient mode of the northern area of China central heating, water () mode such as source heat pump heat supply.Along with the development in city and banning of coal-burning boiler, thermoelectricity co-generating heat supplying heat breach is increasing.Water () source heat pump heat supply is the important supplement of cogeneration of heat and power, but () source heat pump heat supply is higher for Geological Condition Requirement, the place application that can only be applicable in condition.The larger area of some electrical power peak-valley difference is adopting the mode of low ebb phase electric boiler heat supply, and high-grade electric energy is directly converted to low-grade heat energy by this mode, and energy utilization efficiency is lower, and heat cost is higher.
Therefore recycle a large amount of used heat produced in compressed air accumulate process and carry out heat supply or cooling, not only increase energy conversion efficiency, and heat cost is lower, specific demand is not had to environment, be with a wide range of applications.
A large amount of used heat is produced in compressed air process, these temperature of waste heat are higher, such as, the water temperature of typical inter-stage preheater outlet is generally 115 DEG C, and water temperature needed for heat supply is generally 60 DEG C, directly the water that inter-stage preheater exports is used for the temperature drop 115 DEG C to 65 DEG C (heat transfer temperature differences of 5 DEG C) for heat energy utilization, totally 50 DEG C of temperature drops, the cooling water of 65 DEG C also needs could be used for compressed-air actuated cascade EDFA by the further radiating and cooling to 30 of the modes such as cooling tower DEG C (limiting by an environment temperature/humidity) left and right, and the coolant water temperature of about 30 DEG C is still higher.Therefore these used heat heat supplies are directly adopted can to cause a large amount of energy wastes.
Utility model content
The utility model, for the problems referred to above, proposes a kind of thermoelectric cold triple supply system based on heat pump techniques and compressed air electric power storage technology.Native system can not only improve efficiency of energy utilization, significantly reduces operating cost, also makes compressed air accumulate conversion efficiency improve.
A kind of thermoelectric cold triple supply system based on heat pump techniques and compressed air electric power storage technology that the utility model proposes, it is characterized in that, this system comprises by the compressed air accumulate subsystem comprising multiple compressor, high pressure tank, multiple decompressor form, the Waste Heat Recovery subsystem be made up of cooler, the used heat storage subsystem be made up of multiple water tank, the used heat feedback subsystem that preheater is formed, by comprising absorption heat pump, heat exchanger, the used heat application subsystem of cooling device composition; Wherein, between the cooler of the Waste Heat Recovery subsystem compressor that is connected to compressed air accumulate subsystem and high pressure tank; Between the high pressure tank that the preheater of used heat feedback subsystem is connected to compressed air accumulate subsystem and decompressor; The water tank of used heat storage subsystem is connected between Waste Heat Recovery subsystem and used heat feedback subsystem, and used heat feedback subsystem is also connected with used heat application subsystem.
Feature of the present utility model and beneficial effect:
Adopt the used heat produced in heat pump techniques deep exploitation compressed air accumulate process, efficiency of energy utilization can not only be improved, significantly reduce operating cost, increase heat supply/cooling area, but also the water temperature that reduce further for cooled compressed air, compressed air accumulate conversion efficiency is improved.
Adopt the technical solution of the utility model, utilizable heat is between 115 DEG C to 25 DEG C, and the temperature drop of totally 90 DEG C, significantly improves heat capacity, and makes coolant water temperature be reduced to 25 DEG C, improves the cooling effectiveness of air compressing process.
Accompanying drawing explanation
Fig. 1 is system architecture schematic diagram of the present utility model;
Fig. 2 is system embodiment general structure of the present utility model and typical workflow schematic diagram;
Fig. 3 is the various combination form of interstage cooler in the present embodiment, and wherein, (a) is interstage cooler parallel form, and (b) is interstage cooler cascade;
Fig. 4 is the various combination form of inter-stage used heat device in the present embodiment, and wherein, (a) is inter-stage preheater parallel form, and (b) is inter-stage preheater cascade;
Fig. 5 directly adopts used heat to carry out the form of heat supply in the present embodiment.
In figure, the label of each equipment is as follows:
1-compressor 2-interstage cooler 3-compressor 4-interstage cooler
5-compressor 6-interstage cooler 7-air accumulator 8-inter-stage preheater
9-decompressor 10-inter-stage preheater 11-decompressor 12-inter-stage preheater
The generator of 13-decompressor 14-high-temperature heat accumulation tank 15-low-temperature heat accumulating tank 16-absorption heat pump
The condenser 19-heat exchanger 20-cooler of the evaporimeter 18-absorption heat pump of 17-absorption heat pump
21,22,23,24,25,26,27,28,29,32,33-valve 30-hot-water driven absorption heat pump, 34-heat exchanger
Detailed description of the invention
Based on heat pump techniques and compressed air electric power storage technology thermoelectric cold triple supply system by reference to the accompanying drawings and embodiment further illustrate as follows:
The thermoelectric cold triple supply system based on heat pump techniques and compressed air electric power storage technology that the utility model proposes, as shown in Figure 1, this system comprises by the compressed air accumulate subsystem I comprising multiple compressor, high pressure tank, multiple decompressor form, the Waste Heat Recovery subsystem II be made up of cooler, the used heat storage subsystem III be made up of multiple water tank, the used heat feedback subsystem IV that preheater is formed, by comprising absorption heat pump, heat exchanger, used heat application subsystem V 5 subsystems of cooling device composition; Wherein, between the cooler of Waste Heat Recovery subsystem II compressor that is connected to compressed air accumulate subsystem I and high pressure tank; Between the high pressure tank that the preheater of used heat feedback subsystem IV is connected to compressed air accumulate subsystem I and decompressor; The water tank of used heat storage subsystem III is connected between Waste Heat Recovery subsystem and used heat feedback subsystem IV, and used heat feedback subsystem IV is also connected with used heat application subsystem V.
Operation principle of the present utility model: when the electricity needs low ebb phase, air compresses by the compressor from the driven by power compressed air power storage system I of electrical network, the used heat produced in compression process is reclaimed II by Waste Heat Recovery subsystem, and enters in used heat storage subsystem III and store.When electricity needs peak period, by used heat feedback subsystem IV, preheating is carried out to the air expanded, improve power conversion efficiency; Unnecessary used heat enters in used heat application subsystem V for the heat supply of building or cooling.Owing to have employed heat pump techniques in used heat application subsystem, therefore relative to the mode directly utilizing used heat heat supply, improve the utilization ratio of energy in this way, significantly add area of heat-supply service, and free cold water can be provided when needing cooling, effectively reduce operating cost, therefore have broad application prospects.
Thermoelectric cold triple supply system embodiment based on heat pump techniques and compressed air electric power storage technology of the present utility model, as shown in Figure 2, wherein compressed air power storage system I comprises three compressors, 1,3,5, high pressure tank, 7, three decompressors 9,11,13; Waste Heat Recovery subsystem II comprises three compression interstage coolers 2,4,6 and connecting pipe; Used heat storage subsystem III comprises a high temperature water tank 14, Low Temperature Storage water pot 15 and a connecting pipe; Used heat feedback subsystem IV comprises three inter-stage preheaters 8,10,12 and connecting pipe; Used heat application subsystem V comprises an absorption heat pump 30, two heat exchangers 19,34, a cooler 20, and multiple valve 21-35 and connecting water pipe road; Annexation is:
The connection of air duct: the blast pipe of compressor 1 is connected with the air intlet of interstage cooler 2, the air outlet slit of interstage cooler 2 is connected with the air intake duct of compressor 3, the blast pipe of compressor 3 is connected with the air intlet of interstage cooler 4, the air outlet slit of interstage cooler 4 is connected with the air intake duct of compressor 5, the blast pipe of compressor 5 is connected with the air intlet of interstage cooler 6, and the air outlet slit of interstage cooler 6 is connected with the import of air accumulator 7; The outlet of air accumulator 7 is connected with the air intlet of inter-stage heater 8, the air outlet slit of inter-stage heater 8 is connected with the air inlet pipe of decompressor 9, the escape pipe of decompressor 9 is connected with the air intlet of inter-stage heater 10, the air outlet slit of inter-stage heater 10 is connected with the air inlet pipe of decompressor 11, the escape pipe of decompressor 11 is connected with the air intlet of inter-stage heater 12, the air outlet slit of inter-stage heater 12 is connected with the air inlet pipe of decompressor 13, and the escape pipe of decompressor 13 is connected with the air intlet of heat exchanger 34;
Remaining hot water pipeline: the water route import of 15 Low Temperature Storage pipe outlet pipes and interstage cooler 2,4,6 is connected, interstage cooler 2,4, the water route of 6 is connected with the import of high-temperature heat accumulation tank 14 after exporting and converging; The outlet of high-temperature heat accumulation tank 14 and the water route import of inter-stage heater 8,10,12 are connected, inter-stage heater 8,10, and the water route of 12 is connected with the generator 16 of heat pump 30 after exporting and converging.The outlet of generator 16 is respectively by valve 21, and 22 are connected with the import of cooler 20 with the high temperature side import of heat exchanger 19; The high temperature side outlet of heat exchanger 19 is connected with the import of the evaporimeter 17 of heat pump 30 and is connected with the import of low-temperature heat accumulating tank 15; The outlet of cooler 20 is connected with the import of low-temperature heat accumulating tank 15; User side water inlet pipe, outlet pipe are connected respectively by the condenser 18 of valve and absorption heat pump, heat exchanger 19, cooler 20.
The workflow that the present embodiment realizes is as follows: as shown in Figure 2:
When Caes runs (being generally the electricity needs low ebb phase), air is introduced into after compressor 1 compressed, enter interstage cooler 2 again, after being lowered the temperature by the water cooling from Low Temperature Storage water pot 15, enter after compressor 3 compressed again, enter interstage cooler 4 again, after being lowered the temperature by the water cooling from Low Temperature Storage water pot 15, after compressor 5 is compressed, enter interstage cooler 6 again, after being lowered the temperature by the water cooling from Low Temperature Storage water pot 15, enter in air accumulator 7 and store, enter after being heated from the water at low temperature of Low Temperature Storage water pot 15 in high temperature water tank 14 and store.
When compressed air exoergic runs (being generally electricity needs peak period), after air is introduced into inter-stage preheater 8 heating, enter decompressor 9 expansion work again, external output power, then after entering inter-stage preheater 10 heating, then enter decompressor 11 expansion work, after entering inter-stage preheater 12 heating again, enter decompressor 13 expansion work again, then become atmospheric air and be discharged in air, the high-temperature-hot-water needed in warm comes from high temperature water tank 14.
(1) when there being heat demand, enter the generator 16 of absorption heat pump 30 from inter-stage preheater 12 water out, use as drive source, water after cooling is by valve 22 (now valve 21 is closed), enter heat exchanger 19 and carry out heat exchange from the backwater in heating network, temperature enters the evaporimeter 17 of absorption heat pump after reducing, further after cooling, then enter Low Temperature Storage water pot 15.Backwater from heating network is divided into two-way, and a road enters absorption heat pump condenser/generator 18 through valve 26, and another road enters heat exchanger 19 through valve 28, after the mixing of this two path water, is delivering to thermal load demands place.
(2) when there being cooling needs, from inter-stage preheater 8,10,12 water out enter in the generator 16 of absorption heat pump 30, use as drive source, water after cooling enters cooler 20 by valve 21 (now valve 22 is closed), enters Low Temperature Storage water pot 15 after cooling through valve 29.Chilled water backwater from user enters absorption heat pump evaporimeter 17 through valve 28 (valve 26 is closed), delivers to cooling workload demand place after cooling.
(3) when not having heat demand also there is no cooling needs, from inter-stage preheater 8,10,12 water out enter in the generator 16 of absorption heat pump 30, use as drive source, and the water after cooling is by valve 22 (now valve 21 is closed), enter heat exchanger 19 and carry out heat exchange with the water from cooler 20, temperature enters the evaporimeter 17 of absorption heat pump 30 after reducing, further after cooling, then enter Low Temperature Storage water pot 15; Backwater from cooler 20 is divided into two-way, and a road enters absorption heat pump condenser/generator 18 through valve 26, and another road enters heat exchanger 19 through valve 28, after the mixing of this two path water, is delivering to cooler 20 place.
During above operating condition, each valve state as listed in table 1.
Table 1 valve state table
The function declaration that the present embodiment realizes is as follows:
When the electricity needs low ebb phase, this system carries out compressed-air energy storage, compressor 1 exhaust outlet outlet temperature is 160 DEG C, is cooled to 35 DEG C after entering interstage cooler 2, then after entering compressor 3, exhaust outlet outlet temperature is 147 DEG C, be cooled to 35 DEG C after entering interstage cooler 4, then after entering compressor 5, exhaust outlet outlet temperature is 150 DEG C, be cooled to 35 DEG C after entering interstage cooler 4, enter in air accumulator 14.Enter after being heated to 135 DEG C from the water of low temperature water tank 15 in high temperature water tank 14 and store.
When electricity needs peak period, this system carries out air expansion power generation, pressure-air from air accumulator 14 is introduced into inter-stage preheater 8 and is heated to 100 DEG C, enter after decompressor 9 expands and be reduced to 35 DEG C, enter inter-stage preheater 10 again and be heated to 100 DEG C, enter after decompressor 11 expands and be reduced to 35 DEG C, enter inter-stage preheater 12 and be heated to 100 DEG C, enter after decompressor 13 expands and be reduced to 20 DEG C.Water from high temperature water tank 14 is cooled to 115 DEG C after heat release in inter-stage heater.
When there being heat demand, enter the generator 16 of absorption heat pump 13 from inter-stage preheater 12 water out, use as drive source, be cooled to the water of 90 DEG C by valve 22 (now valve 21 is closed), enter heat exchanger 19 and carry out heat exchange from the backwater in heating network, temperature enters absorption heat pump evaporimeter 17 after being reduced to 35 DEG C, be cooled to 25 DEG C further, enter Low Temperature Storage water pot 15. again and be divided into two-way from the backwater of heating network, one tunnel enters absorption heat pump condenser/generator 18 through valve 26, another road enters heat exchanger 19 through valve 28, after the mixing of this two path water, delivering to thermal load demands place.
When there being cooling needs, enter the generator 16 of absorption heat pump 13 from inter-stage preheater 12 water out, use as drive source, be cooled to the water after 90 DEG C and enter cooler 20 by valve 21 (now valve 22 is closed), be cooled to 25 DEG C and enter Low Temperature Storage water pot 15 through valve 29.From the chilled water backwater of user, temperature is 15 DEG C and enters absorption heat pump evaporimeter 17 through valve 28 (valve 26 is closed), delivers to cooling workload demand place after being cooled to 10 DEG C.
In the present embodiment the concrete enforcement of each equipment and function declaration as follows:
Interstage cooler 2,4,6, can cool the air after compression, to improve compression efficiency during lower second compression, and recovery waste heat amount simultaneously; Interstage cooler 2,4,6 can adopt dividing wall type heat exchanger also can adopt direct spray-type heat exchanger.
Inter-stage preheater 8,10,12, can carry out preheating to the air after expansion, and when expanding next time to improve, pressure energy is converted into the efficiency of mechanical energy, and preheater inter-stage preheater can adopt dividing wall type heat exchanger also can adopt direct spray-type heat exchanger.
Air compressor 1,3,5, compresses air, is the pressure energy of air by electric energy conversion; Interstage cooler 2,4,6, can cool the air after compression, to improve compression efficiency during lower second compression, and recovery waste heat amount simultaneously; Air accumulator 7, stores the pressure-air after compression; Air accumulator 7 is the closed container that can bear pressure, can be steel vessel, also can be underground natural gas storage tank etc.
Decompressor 9,11,13, the air after compression enters expander, promotes decompressor acting, transfers the pressure energy of air to mechanical energy and externally export to generator; Decompressor can be turbo-expander, also can be screw rod or scroll expansion machine;
Absorption heat pump 30 can be the absorption heat pump adopting high temperature heat source to drive, and also can be to adopt electrically driven (operated) compressor-type heat pump.Hot-water driven's absorption heat pump 30, utilizes the high-temperature-hot-water that produces in compressed air process as drive source when heating, and reduces the water temperature entering low-temperature heat accumulating tank 14 further, increases heating load.Reducing when freezing the water temperature entering low-temperature heat accumulating tank 14 further, interstage cooler 2 can be improved, 4, the cooling effectiveness of 6.Wherein 16 is the generator of this equipment, and 17 is the evaporimeter of this equipment, and 18 is the condenser of this equipment;
Heat exchanger 19, coordinates with absorption machine, reduces the hot water temperature from absorption machine generator 16.Heat exchanger 19 can be the enclosed heat exchangers such as plate type heat exchanger, shell and tube exchanger.
Cooler 20 is cooling heat radiator, as cooling tower etc., plays the effect be dispersed into by heat unnecessary for system in environment.
High-temperature heat accumulation tank 15 and low-temperature heat accumulating tank 14 are insulation water tank, waterway switching valve 21,22, and 23,24,25,26,27,28,29,32,33 employing convention water hose valves can be manually-operated gates also can be automatic valve.
Native system also can have the different embodiment connected according to the demand of reality: in remaining hot water pipeline connects, and the interstage cooler 2,4,6 of compression process can be in parallel, series connection or series-multiple connection, as shown in Figure 3.When adopting series connection, the water temperature entered in high temperature water tank is higher, although the efficiency in compression process decreases, improves the temperature of waste heat in expansion process, can improve preheat temperature before expanding, thus improves the efficiency in expansion process.
According to the demand of reality, in remaining hot water pipeline connects, the inter-stage preheater 8,10,12 of compression process can be in parallel, series connection or series-multiple connection, as shown in Figure 4.
According to actual needs, when there is no cooling needs, can without heat pump 30 and cooler 20, adopt high temperature water direct heating, as shown in Figure 5, spent hot water from inter-stage preheater carries out heat exchange by heat exchanger 19 and the backwater from heat user, is put by heat to backwater, enters low-temperature heat accumulating tank 15 after cooling.
Above accompanying drawing is to detailed description of the present utility model.Being provided only of accompanying drawing better understands the utility model, and they not should be appreciated that paired restriction of the present utility model.
Claims (5)
1. the thermoelectric cold triple supply system based on heat pump techniques and compressed air electric power storage technology, it is characterized in that, this system comprises by the compressed air accumulate subsystem comprising multiple compressor, high pressure tank, multiple decompressor form, the Waste Heat Recovery subsystem be made up of cooler, the used heat storage subsystem be made up of multiple water tank, the used heat feedback subsystem that preheater is formed, by comprising absorption heat pump, heat exchanger, the used heat application subsystem of cooling device composition; Wherein, between the cooler of the Waste Heat Recovery subsystem compressor that is connected to compressed air accumulate subsystem and high pressure tank; Between the high pressure tank that the preheater of used heat feedback subsystem is connected to compressed air accumulate subsystem and decompressor; The water tank of used heat storage subsystem is connected between Waste Heat Recovery subsystem and used heat feedback subsystem, and used heat feedback subsystem is also connected with used heat application subsystem.
2. the system as claimed in claim 1, is characterized in that, described compressed air power storage system comprises three compressors, a high pressure tank, three decompressors; Described Waste Heat Recovery subsystem comprises three compression interstage coolers and connecting pipe; Described used heat storage subsystem comprises a high temperature water tank, a Low Temperature Storage water pot and connecting pipe; Described used heat feedback subsystem comprises three inter-stage preheaters and connecting pipe; Described used heat application subsystem comprises an absorption heat pump, two heat exchangers, a cooler, and multiple valve and connecting water pipe road; Its annexation comprises:
The connection of air duct: the blast pipe of First compressor (1) is connected with the air intlet of First interstage cooler (2), the air outlet slit of First interstage cooler is connected with the air intake duct of the second compressor (3), the blast pipe of the second compressor is connected with the air intlet of second interstage cooler (4), the air outlet slit of second interstage cooler is connected with the air intake duct of the 3rd compressor (5), the blast pipe of the 3rd compressor is connected with the air intlet of the 3rd interstage cooler (6), 3rd air outlet slit of interstage cooler is connected with the import of air accumulator, the outlet of air accumulator is connected with the air intlet of First inter-stage heater (8), the air outlet slit of First inter-stage heater is connected with the air inlet pipe of First decompressor (9), the escape pipe of First decompressor is connected with the air intlet of second inter-stage heater (10), the air outlet slit of second inter-stage heater is connected with the air inlet pipe of second decompressor (11), the escape pipe of second decompressor is connected with the air intlet of the 3rd inter-stage heater (12), the air outlet slit of the 3rd inter-stage heater is connected with the air inlet pipe of the 3rd decompressor (13), the escape pipe of the 3rd decompressor is connected with the air intlet of First Heat Exchanger (34),
The connection of remaining hot water pipeline: the water route import of Low Temperature Storage pipe outlet Guan Yusan platform interstage cooler is connected, the water route of three interstage coolers is connected with the import of high-temperature heat accumulation tank after exporting and converging; The outlet of high-temperature heat accumulation tank is connected with the water route import of three inter-stage heaters, and the water route of three inter-stage heaters is connected with the generator of heat pump after exporting and converging; The outlet of this generator is connected with the import of cooler respectively by the high temperature side import of valve with second heat exchanger (19); The high temperature side outlet of second heat exchanger is connected with the import of the evaporimeter of heat pump and is connected with the import of low-temperature heat accumulating tank; The outlet of cooler is connected with the import of low-temperature heat accumulating tank; User side water inlet pipe, outlet pipe are connected with the condenser of absorption heat pump, second heat exchanger, cooler respectively by valve.
3. system as claimed in claim 2, is characterized in that, during described remaining hot water pipeline connects, three interstage coolers adopt in parallel, and series connection or series-multiple connection mode connect.
4. system as claimed in claim 2, is characterized in that, during described remaining hot water pipeline connects, three inter-stage preheaters adopt in parallel, and series connection or series-multiple connection mode connect.
5. the system as claimed in claim 1, is characterized in that, described compressed air power storage system comprises three compressors, a high pressure tank, three decompressors; Described Waste Heat Recovery subsystem comprises three compression interstage coolers and connecting pipe; Described used heat storage subsystem comprises a high temperature water tank, a Low Temperature Storage water pot and connecting pipe; Described used heat feedback subsystem comprises three inter-stage preheaters and connecting pipe; Described used heat application subsystem comprises two heat exchangers and connecting water pipe road; Its annexation comprises:
The connection of air duct: the blast pipe of First compressor (1) is connected with the air intlet of First interstage cooler (2), the air outlet slit of First interstage cooler is connected with the air intake duct of the second compressor (3), the blast pipe of the second compressor is connected with the air intlet of second interstage cooler (4), the air outlet slit of second interstage cooler is connected with the air intake duct of the 3rd compressor (5), the blast pipe of the 3rd compressor is connected with the air intlet of the 3rd interstage cooler (6), 3rd air outlet slit of interstage cooler is connected with the import of air accumulator, the outlet of air accumulator is connected with the air intlet of First inter-stage heater (8), the air outlet slit of First inter-stage heater is connected with the air inlet pipe of First decompressor (9), the escape pipe of First decompressor is connected with the air intlet of second inter-stage heater (10), the air outlet slit of second inter-stage heater is connected with the air inlet pipe of second decompressor (11), the escape pipe of second decompressor is connected with the air intlet of the 3rd inter-stage heater (12), the air outlet slit of the 3rd inter-stage heater is connected with the air inlet pipe of the 3rd decompressor (13), the escape pipe of the 3rd decompressor is connected with the air intlet of First Heat Exchanger (34),
The connection of remaining hot water pipeline: the water route import of Low Temperature Storage pipe outlet Guan Yusan platform interstage cooler is connected, the water route of three interstage coolers is connected with the import of high-temperature heat accumulation tank after exporting and converging; The outlet of high-temperature heat accumulation tank is connected with the water route import of three inter-stage heaters, and the water route of three inter-stage heaters is connected with second heat exchanger after exporting and converging; The high temperature side outlet of second heat exchanger is connected with the import of low-temperature heat accumulating tank; The outlet of cooler is connected with the import of low-temperature heat accumulating tank; User side water inlet pipe, outlet pipe are connected with second heat exchanger.
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Cited By (5)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN105135751A (en) * | 2015-07-17 | 2015-12-09 | 北京中科华誉能源技术发展有限责任公司 | Heating, electricity and cooling combined supply system based on heat pump technology and air compression and electricity storage technology |
| CN106150574A (en) * | 2016-06-17 | 2016-11-23 | 全球能源互联网研究院 | A kind of deep cooling liquid air energy storage systems of air interstage cooling |
| CN108151132A (en) * | 2017-11-27 | 2018-06-12 | 国网北京市电力公司 | Control method, device and system and the air source heat pump of air source heat pump |
| CN111140298A (en) * | 2020-01-07 | 2020-05-12 | 上海锅炉厂有限公司 | Distributed combined heat and power supply compressed air energy storage system |
| CN111306842A (en) * | 2020-03-26 | 2020-06-19 | 中国科学院理化技术研究所 | Variable working condition multi-energy combined supply system and method suitable for different seasons |
-
2015
- 2015-07-17 CN CN201520523633.0U patent/CN204923571U/en not_active Expired - Fee Related
Cited By (7)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN105135751A (en) * | 2015-07-17 | 2015-12-09 | 北京中科华誉能源技术发展有限责任公司 | Heating, electricity and cooling combined supply system based on heat pump technology and air compression and electricity storage technology |
| CN106150574A (en) * | 2016-06-17 | 2016-11-23 | 全球能源互联网研究院 | A kind of deep cooling liquid air energy storage systems of air interstage cooling |
| CN108151132A (en) * | 2017-11-27 | 2018-06-12 | 国网北京市电力公司 | Control method, device and system and the air source heat pump of air source heat pump |
| CN108151132B (en) * | 2017-11-27 | 2022-05-10 | 国网北京市电力公司 | Control method, device and system of air source heat pump and air source heat pump |
| CN111140298A (en) * | 2020-01-07 | 2020-05-12 | 上海锅炉厂有限公司 | Distributed combined heat and power supply compressed air energy storage system |
| CN111140298B (en) * | 2020-01-07 | 2024-01-26 | 上海锅炉厂有限公司 | Distributed cogeneration compressed air energy storage system |
| CN111306842A (en) * | 2020-03-26 | 2020-06-19 | 中国科学院理化技术研究所 | Variable working condition multi-energy combined supply system and method suitable for different seasons |
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