CN201866989U - Household energy recovery tri-generation unit - Google Patents
Household energy recovery tri-generation unit Download PDFInfo
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- CN201866989U CN201866989U CN 201020213339 CN201020213339U CN201866989U CN 201866989 U CN201866989 U CN 201866989U CN 201020213339 CN201020213339 CN 201020213339 CN 201020213339 U CN201020213339 U CN 201020213339U CN 201866989 U CN201866989 U CN 201866989U
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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
- Y02B—CLIMATE CHANGE MITIGATION TECHNOLOGIES RELATED TO BUILDINGS, e.g. HOUSING, HOUSE APPLIANCES OR RELATED END-USER APPLICATIONS
- Y02B30/00—Energy efficient heating, ventilation or air conditioning [HVAC]
- Y02B30/12—Hot water central heating systems using heat pumps
Abstract
The utility model relates to a household energy recovery tri-generation unit which comprises a first refrigerating system and a second refrigerating system, wherein the first refrigerating system comprises a first compressor, a first four-way valve, a first environment-side heat exchanger, a first restrictor, a first air-conditioner-side heat exchanger and a first gas-liquid separator; and the second refrigerating system comprises a second compressor, a second four-way valve, a third four-way valve, a domestic water heat exchanger, a second environment-side heat exchanger, a second air-conditioner-side heat exchanger, a liquid accumulator, a second restrictor and a second gas-liquid separator. The household energy recovery tri-generation unit realizes high-efficiency running under five running modes of refrigerating, heating, water heating, water refrigerating and heating and heating water heating through systematical combination of two systems. The novel household energy recovery tri-generation unit is energy-saving in the true sense.
Description
Technical field
The utility model relates to a kind of family formula energy and reclaims three alliance units, belongs to residential central air-and Teat pump boiler technical field.
Background technology
Residential central air-utilizes heat pump principle to produce air conditioning water or hot water, delivers to each end by water pump again.Realize the constant of indoor temperature.
The heat-pump hot-water unit has utilized the principle of air-conditioning heat pump operation, the sanitary water of producing.
Because residential central air-when producing air conditioning water summer, gives off a large amount of heats; And the cold that the heat-pump hot-water unit gives off when heating water.If can be the problem of industry Recent study with the two efficient combination, and existing portion of hot reclaim and full recuperation of heat two big series products occur.
Portion of hot reclaims unit such as accompanying drawing 1, and portion of hot recovery when this unit can be realized freezing heats the time-division to walk a part of heating capacity, can not realize singly heating water.When need not hot water, because the additional heat exchanger of having connected on the condenser has increased the condenser resistance, when only making operation of air conditioner, can be lower than general air-conditioning efficiency.Though so accomplished recuperation of heat, not necessarily can improve as its comprehensive efficiency of family formula machine, and the user also need join other water heaters and is used for heating water season without air-conditioning.
Common full recuperation of heat unit such as accompanying drawing 2 can be realized full recuperation of heat during this unit refrigeration, heat the time-division to walk a part of heating capacity, can realize singly heating water.When need not hot water, because the additional heat exchanger of having connected on the condenser has increased the condenser resistance, when only making operation of air conditioner, can be lower than general air-conditioning efficiency; Also can be lower when in like manner singly heating water than general water heater efficiency.Though, can be used for the hot water demand and refrigerating capacity is suitable, and to heating less demanding occasion so accomplished full recuperation of heat.Formula three alliance units in family are because much larger than the hot water load, so no matter be refrigerated medium hot water or when singly heating water when this system is used for family formula system, there is the low load with strong power phenomenon in its air conditioner load, and comprehensive efficiency not necessarily can improve.
How to provide a kind of family formula three alliance units, both can be used as air-conditioning, can provide domestic water the whole year simultaneously, full operating mode high energy efficiency reliability service is guaranteed in little effect heating when heating water again.It is the problem that presses for solution in the industry.
Summary of the invention
The purpose of this utility model is to overcome the deficiencies in the prior art, provides a kind of and can satisfy that the family formula is confidential to be asked and reclaim three alliance units at the family formula energy that freezes, heats, heats water, refrigerated medium hot water and heat the operation of high energy efficiency under five kinds of operational modes of water.
According to the technical scheme that the utility model provides, described family formula energy reclaims three alliance units, comprises first refrigeration system, second refrigeration system.First refrigeration system comprises first compressor, first cross valve, first environment side heat exchanger, first throttle device, the first air-conditioning side heat exchanger, first vapour liquid separator; Second refrigeration system comprises second compressor, second cross valve, the 3rd cross valve, domestic water heat exchanger, second environment side heat exchanger, the second air-conditioning side heat exchanger, reservoir, second flow controller and second vapour liquid separator.
The exhaust port of first compressor connects the D port of first cross valve by pipeline, the C port of first cross valve connects the gas port end of first environment side heat exchanger by pipeline, the liquid mouth end of first environment side heat exchanger connects the entrance point of first throttle device by pipeline, the port of export of first throttle device connects the liquid mouth end of the first air-conditioning side heat exchanger by pipeline, the port of export of the first air-conditioning side heat exchanger connects the E port of first cross valve by pipeline, the S port of first cross valve connects the entrance point of first vapour liquid separator by pipeline, and the port of export of first vapour liquid separator connects the air inlet of first compressor by pipeline;
The exhaust port of second compressor connects the D port of second cross valve by pipeline, the C port of second cross valve connects the D port of the 3rd cross valve by pipeline, the E port of second cross valve connects the gas port end of the second air-conditioning side heat exchanger by pipeline, the S port of second cross valve by pipeline and the 3rd cross valve the S port and connect the entrance point that the back is connected second vapour liquid separator, the port of export of second gas-liquid separator connects the air entry end of second compressor by pipeline, the C port of the 3rd cross valve is by the gas port end of pipeline connection second environment side heat exchanger, and the E port of the 3rd cross valve connects the gas port end of domestic water heat exchanger by pipeline;
The liquid mouth end of the second air-conditioning side heat exchanger divides two-way by pipeline: the pipeline of leading up to connects the import of the 4th check valve, and another road connects the outlet of the 5th check valve by pipeline; The liquid mouth end of second environment side heat exchanger divides two-way by pipeline: the pipeline of leading up to connects the entrance point of second check valve, and another road connects the port of export of the 3rd check valve by pipeline; The liquid mouth end of domestic water heat exchanger connects the import of first check valve by pipeline;
The port of export of first check valve, second check valve, the 4th check valve is by pipeline and connect the entrance point that the back connects reservoir, the port of export of reservoir connects the entrance point of flow controller by pipeline, the port of export of flow controller divides two-way by pipeline: the pipeline of leading up to connects the entrance point of first magnetic valve, and the port of export of first magnetic valve connects the entrance point of the 3rd check valve by pipeline; Another road connects the entrance point of second magnetic valve by pipeline, and the port of export of second magnetic valve connects the entrance point of the 5th check valve by pipeline.
Described first throttle device is the bidirectional throttle system that two-way heating power expansion valve, electric expansion valve or unidirectional heating power expansion valve and check valve assembly are formed.
Described second flow controller is heating power expansion valve, heating power expansion valve or electric expansion valve.
Described first environment side heat exchanger, second environment side heat exchanger are air-fluorine heat exchanger or water-fluorine heat exchanger.
The described first air-conditioning side heat exchanger, the second air-conditioning side heat exchanger are plate type heat exchanger or double-tube heat exchanger.
Described domestic water heat exchanger is plate type heat exchanger or double-tube heat exchanger.
The utility model the utility model is by the organic assembling of two difference in functionality systems, realize that family formula three alliance units are freezing, heating, heat water, refrigerated medium hot water, heating high energy efficiency operation under water five all operational modes, reclaim three alliance units for people provide a kind of novel real energy-conservation family formula energy.
Description of drawings
Fig. 1 is the structural representation that the portion of hot of prior art introduction reclaims unit.
Fig. 2 is the structural representation of the common full recuperation of heat unit of prior art introduction.
Fig. 3 is a structural representation of the present utility model.
The specific embodiment
The utility model is described in further detail below in conjunction with concrete drawings and Examples.
As shown in the figure: described family formula energy reclaims three alliance units, form by first refrigeration system, second refrigeration system, by the organic assembling of two difference in functionality systems, realize that the energy of family formula three alliance units reclaims, freezing, heating, heat water, refrigerated medium hot water, heating high energy efficiency operation under water five all operational modes.
First refrigeration system comprises first compressor 1, first cross valve 2, first environment side heat exchanger 3, first throttle device 4, the first air-conditioning side heat exchanger 5, first vapour liquid separator 6; Second refrigeration system comprises second compressor 7, second cross valve 8, the 3rd cross valve 9, domestic water heat exchanger 10, second environment side heat exchanger 11, the second air-conditioning side heat exchanger 12, reservoir 18, second flow controller 19 and second vapour liquid separator 22.The exhaust port of first compressor 1 connects the D port of first cross valve 2 by pipeline, the C port of first cross valve 2 connects the gas port end of first environment side heat exchanger 3 by pipeline, the liquid mouth end of first environment side heat exchanger 3 connects the entrance point of first throttle device 4 by pipeline, the port of export of first throttle device 4 connects the liquid mouth end of the first air-conditioning side heat exchanger 5 by pipeline, the port of export of the first air-conditioning side heat exchanger 5 connects the E port of first cross valve 2 by pipeline, the S port of first cross valve 2 connects the entrance point of first vapour liquid separator 6 by pipeline, and the port of export of first vapour liquid separator 6 connects the air inlet of first compressor by pipeline;
The exhaust port of second compressor 7 connects the D port of second cross valve 8 by pipeline, the C port of second cross valve 8 connects the D port of the 3rd cross valve 9 by pipeline, the E port of second cross valve 8 connects the gas port end of the second air-conditioning side heat exchanger 12 by pipeline, the S port of second cross valve 8 by pipeline and the 3rd cross valve 9 the S port and connect the entrance point that the back is connected second vapour liquid separator 22, the port of export of second gas-liquid separator 22 connects the air entry end of second compressor 7 by pipeline, the C port of the 3rd cross valve 9 is by the gas port end of pipeline connection second environment side heat exchanger 11, and the E port of the 3rd cross valve 9 connects the gas port end of domestic water heat exchanger 10 by pipeline;
The liquid mouth end of the second air-conditioning side heat exchanger 12 divides two-way by pipeline: the pipeline of leading up to connects the import of the 4th check valve 16, and another road connects the outlet of the 5th check valve 17 by pipeline; The liquid mouth end of second environment side heat exchanger divides two-way by pipeline: the pipeline of leading up to connects the entrance point of second check valve 14, and another road connects the port of export of the 3rd check valve 15 by pipeline; The liquid mouth end of domestic water heat exchanger connects the import of first check valve 13 by pipeline;
The port of export of first check valve 13, second check valve 14, the 4th check valve 16 is by pipeline and connect the entrance point that the back connects reservoir 18, the port of export of reservoir 18 connects the entrance point of second flow controller 19 by pipeline, the port of export of second flow controller 19 divides two-way by pipeline: the pipeline of leading up to connects the entrance point of first magnetic valve 20, and the port of export of first magnetic valve 20 connects the entrance point of the 3rd check valve 15 by pipeline; Another road connects the entrance point of second magnetic valve 21 by pipeline, and the port of export of second magnetic valve 21 connects the entrance point of the 5th check valve 17 by pipeline.
Described first throttle device 4 is the bidirectional throttle system that two-way heating power expansion valve, electric expansion valve or unidirectional heating power expansion valve and check valve assembly are formed.
Described second flow controller 19 is heating power expansion valve, heating power expansion valve or electric expansion valve.
Described first environment side heat exchanger 3, second environment side heat exchanger 11 are air-fluorine heat exchanger or water-fluorine heat exchanger.
The described first air-conditioning side heat exchanger 5, the second air-conditioning side heat exchanger 12 are plate type heat exchanger or double-tube heat exchanger.
Described domestic water heat exchanger 10 is plate type heat exchanger or double-tube heat exchanger.
The utility model the utility model is by the organic assembling of two difference in functionality systems, realize that family formula three alliance units are freezing, heating, heat water, refrigerated medium hot water, heating high energy efficiency operation under water five all operational modes, reclaim three alliance units for people provide a kind of novel real energy-conservation family formula energy.
The course of work of the present utility model is as follows:
During refrigeration, two systems freeze simultaneously:
First refrigeration system refrigeration: the gas that first compressor 1 is discharged through the C port of the D port of first cross valve 2, first cross valve 2, enter 3 condensations of first environment side heat exchanger after 4 throttlings of first throttle device enter 5 evaporations of the first air-conditioning side heat exchanger after the S port of the E port of first cross valve 2, first cross valve 2, enter first vapour liquid separator 6 and get back to first compressor, 1 air entry, so circulation.
Second refrigeration system refrigeration: the gas that second compressor 7 is discharged enters after 11 condensations of second environment side heat exchanger by second check valve 14, reservoir 18 through the C port of the D port of the C port of the D port of second cross valve 8, second cross valve 8, the 3rd cross valve 9, the 3rd cross valve 9 and enters 12 evaporations of the second air-conditioning side heat exchanger by second magnetic valve 21, the 5th check valve 17 after the S port of the E port of second cross valve 8, second cross valve 8, second vapour liquid separator 22 are got back to the air inlet of second compressor 7, so circulation after 19 throttlings of second flow controller.Domestic water heat exchanger 10 also enters the air inlet that second vapour liquid separator 22 is got back to second compressor 7 by the E port of the 3rd cross valve 9, the S port of the 3rd cross valve 9 if any cold-producing medium simultaneously.Guarantee the stable of system refrigerant amount.
When heating, two systems heat simultaneously:
First refrigeration system heats: the gas that first compressor 1 is discharged through the E port of the D port of first cross valve 2, first cross valve 2, enter first air-conditioning side heat exchanger 5 condensations after 4 throttlings of first throttle device, enter first environment side heat exchanger 3 evaporation after the S port of the C port of first cross valve 2, first cross valve 2, enter the air inlet of getting back to first compressor 1 through first vapour liquid separator 6, so circulation.
Second refrigeration system heats: the gas that second compressor 7 is discharged enters after 12 condensations of the second air-conditioning side heat exchanger by the 4th check valve 16, reservoir 18 through the E port of the D port of second cross valve 8, second cross valve 8 and enters 11 evaporations of second environment side heat exchanger by first magnetic valve 20, the 3rd check valve 15 after the S port of the C port of the 3rd cross valve 9, the 3rd cross valve 9, second vapour liquid separator 22 are got back to first compressor, 1 air inlet, so circulation after 19 throttlings of second flow controller.Simultaneously domestic water heat exchanger 10 if any cold-producing medium also the S port of the C port of the D port of the E port by the 3rd cross valve 9, the 3rd cross valve 9, second cross valve 8, second cross valve 8 enter second vapour liquid separator 22 and get back to first compressor, 1 air inlet.Guarantee the stable of system refrigerant amount.
When heating water, first refrigeration system is not worked, and second refrigeration system heats water.
Second refrigeration system heats water: the gas that second compressor 7 is discharged enters after 10 condensations of domestic water heat exchanger by first check valve 13, reservoir 18 through the E port of the D port of the C port of the D port of second cross valve 8, second cross valve 8, the 3rd cross valve 9, the 3rd cross valve 9 and enters 11 evaporations of second environment side heat exchanger by first magnetic valve 20, the 3rd check valve 15 after the S port of the C port of the 3rd cross valve 9, the 3rd cross valve 9, second vapour liquid separator 22 are got back to second compressor, 7 air inlets, so circulation after 19 throttlings of second flow controller.Simultaneously the second air-conditioning side heat exchanger 12 if any cold-producing medium also the S port of the E port by second cross valve 8, second cross valve 8, enter second vapour liquid separator 22 and get back to first compressor, 1 air inlet.Guarantee the stable of system refrigerant amount.
During refrigerated medium hot water, first refrigeration system refrigeration, the second refrigeration system refrigerated medium hot water.
First refrigeration system refrigeration: the gas that first compressor 1 is discharged through the C port of the D port of first cross valve 2, first cross valve 2, enter 3 condensations of first environment side heat exchanger after 4 throttlings of first throttle device enter 5 evaporations of the first air-conditioning side heat exchanger after the S port of the E port of first cross valve 2, first cross valve 2, enter first vapour liquid separator 6 and get back to first compressor, 1 air entry, so circulation.
The second refrigeration system refrigerated medium hot water: the gas that second compressor 7 is discharged enters after 10 condensations of domestic water heat exchanger by first check valve 13, reservoir 18 through the E port of the D port of the C port of the D port of second cross valve 8, second cross valve 8, the 3rd cross valve 9, the 3rd cross valve 9 and enters 12 evaporations of the second air-conditioning side heat exchanger by second magnetic valve 21, the 5th check valve 17 after the S port of the E port of second cross valve 8, second cross valve 8, second vapour liquid separator 22 are got back to second compressor, 7 air inlets, so circulation after 19 throttlings of second flow controller.Simultaneously second environment side heat exchanger 11 if any cold-producing medium also the S port of the C port by the 3rd cross valve 9, the 3rd cross valve 9, enter second vapour liquid separator 22 and get back to first compressor, 1 air inlet.Guarantee the stable of system refrigerant amount.
When heating water, first refrigeration system heats, and second refrigeration system heats water.
First refrigeration system heats: the gas that first compressor 1 is discharged through the E port of the D port of first cross valve 2, first cross valve 2, enter first air-conditioning side heat exchanger 5 condensations after 4 throttlings of first throttle device, enter first environment side heat exchanger 3 evaporation after the S port of the C port of first cross valve 2, first cross valve 2, enter the air inlet of getting back to first compressor 1 through first vapour liquid separator 6, so circulation.
Second refrigeration system heats water: the gas that second compressor 7 is discharged enters after 10 condensations of domestic water heat exchanger by first check valve 13, reservoir 18 through the E port of the D port of the C port of the D port of second cross valve 8, second cross valve 8, the 3rd cross valve 9, the 3rd cross valve 9 and enters 11 evaporations of second environment side heat exchanger by first magnetic valve 20, the 3rd check valve 15 after the S port of the C port of the 3rd cross valve 9, the 3rd cross valve 9, second vapour liquid separator 22 are got back to second compressor, 7 air inlets, so circulation after 19 throttlings of second flow controller.Simultaneously the second air-conditioning side heat exchanger 12 if any cold-producing medium also the S port of the E port by second cross valve 8, second cross valve 8, enter second vapour liquid separator 22 and get back to first compressor, 1 air inlet.Guarantee the stable of system refrigerant amount.
Claims (6)
1. a family formula energy reclaims three alliance units, comprise first refrigeration system and second refrigeration system, it is characterized in that: first refrigeration system comprises first compressor (1), first cross valve (2), first environment side heat exchanger (3), first throttle device (4), the first air-conditioning side heat exchanger (5), first vapour liquid separator (6); Second refrigeration system comprises second compressor (7), second cross valve (8), the 3rd cross valve (9), domestic water heat exchanger (10), second environment side heat exchanger (11), the second air-conditioning side heat exchanger (12), reservoir (18), second flow controller (19) and second vapour liquid separator (22);
The exhaust port of first compressor (1) connects the D port of first cross valve (2) by pipeline, the C port of first cross valve (2) connects the gas port end of first environment side heat exchanger (3) by pipeline, the liquid mouth end of first environment side heat exchanger (3) connects the entrance point of first throttle device (4) by pipeline, the port of export of first throttle device (4) connects the liquid mouth end of the first air-conditioning side heat exchanger (5) by pipeline, the port of export of the first air-conditioning side heat exchanger (5) connects the E port of first cross valve (2) by pipeline, the S port of first cross valve (2) connects the entrance point of first vapour liquid separator (6) by pipeline, and the port of export of first vapour liquid separator (6) connects the air inlet of first compressor (1) by pipeline;
The exhaust port of second compressor (7) connects the D port of second cross valve (8) by pipeline, the C port of second cross valve (8) connects the D port of the 3rd cross valve (9) by pipeline, the E port of second cross valve (8) connects the gas port end of the second air-conditioning side heat exchanger (12) by pipeline, the S port of second cross valve (8) by pipeline and the 3rd cross valve (9) the S port and connect the entrance point that the back is connected second vapour liquid separator (22), the port of export of second gas-liquid separator (22) connects the air entry end of second compressor (7) by pipeline, the C port of the 3rd cross valve (9) is by the gas port end of pipeline connection second environment side heat exchanger (11), and the E port of the 3rd cross valve (9) connects the gas port end of domestic water heat exchanger (10) by pipeline; The liquid mouth end of the second air-conditioning side heat exchanger (12) divides two-way by pipeline: the pipeline of leading up to connects the import of the 4th check valve (16), and another road connects the outlet of the 5th check valve (17) by pipeline; The liquid mouth end of second environment side heat exchanger divides two-way by pipeline: the pipeline of leading up to connects the entrance point of second check valve (14), and another road connects the port of export of the 3rd check valve (15) by pipeline; The liquid mouth end of domestic water heat exchanger connects the import of first check valve (13) by pipeline; The port of export of first check valve (13), second check valve (14), the 4th check valve (16) is by pipeline and connect the entrance point that the back connects reservoir (18), the port of export of reservoir (18) connects the entrance point of second flow controller (19) by pipeline, the port of export of second flow controller (19) divides two-way by pipeline: the pipeline of leading up to connects the entrance point of first magnetic valve (20), and the port of export of first magnetic valve (20) connects the entrance point of the 3rd check valve (15) by pipeline; Another road connects the entrance point of second magnetic valve (21) by pipeline, and the port of export of second magnetic valve (21) connects the entrance point of the 5th check valve (17) by pipeline.
2. family as claimed in claim 1 formula energy reclaims three alliance units, it is characterized in that: described first throttle device (4) is the bidirectional throttle system that two-way heating power expansion valve, electric expansion valve or unidirectional heating power expansion valve and check valve assembly are formed.
3. family as claimed in claim 1 formula energy reclaims three alliance units, it is characterized in that: described second flow controller (19) is heating power expansion valve, heating power expansion valve or electric expansion valve.
4. family as claimed in claim 1 formula energy reclaims three alliance units, it is characterized in that: described first environment side heat exchanger (3), second environment side heat exchanger (11) are air-fluorine heat exchanger or water-fluorine heat exchanger.
5. family as claimed in claim 1 formula energy reclaims three alliance units, it is characterized in that: the first air-conditioning side heat exchanger (5), the second air-conditioning side heat exchanger (12) are plate type heat exchanger or double-tube heat exchanger.
6. family as claimed in claim 1 formula energy reclaims three alliance units, it is characterized in that: described domestic water heat exchanger (10) is plate type heat exchanger or double-tube heat exchanger.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN 201020213339 CN201866989U (en) | 2010-05-27 | 2010-05-27 | Household energy recovery tri-generation unit |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN 201020213339 CN201866989U (en) | 2010-05-27 | 2010-05-27 | Household energy recovery tri-generation unit |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN201866989U true CN201866989U (en) | 2011-06-15 |
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Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN 201020213339 Expired - Lifetime CN201866989U (en) | 2010-05-27 | 2010-05-27 | Household energy recovery tri-generation unit |
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| CN (1) | CN201866989U (en) |
Cited By (6)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN102563968A (en) * | 2012-01-29 | 2012-07-11 | 刘雄 | Air conditioner refrigerating device |
| CN102563972A (en) * | 2012-01-20 | 2012-07-11 | 淮安恒信水务科技有限公司 | Dual-path input water heating system realizing gradient use of heat pump waste heat |
| CN103307805A (en) * | 2013-06-14 | 2013-09-18 | 上海海立睿能环境技术有限公司 | Trigeneration heat pump system |
| CN103512270A (en) * | 2013-09-24 | 2014-01-15 | 陈万仁 | Radiating refrigeration warm air source heat pump device with four functions |
| CN106802025A (en) * | 2015-11-26 | 2017-06-06 | 陈则韶 | Family's heat pump heating air conditioning hot dehumidifying combined system |
| CN111271893A (en) * | 2020-02-26 | 2020-06-12 | 浙江中广电器股份有限公司 | Air-conditioning heat pump hot water system and control method thereof |
-
2010
- 2010-05-27 CN CN 201020213339 patent/CN201866989U/en not_active Expired - Lifetime
Cited By (9)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN102563972A (en) * | 2012-01-20 | 2012-07-11 | 淮安恒信水务科技有限公司 | Dual-path input water heating system realizing gradient use of heat pump waste heat |
| CN102563972B (en) * | 2012-01-20 | 2013-11-27 | 淮安恒信水务科技有限公司 | Dual-path input water heating system realizing gradient use of heat pump waste heat |
| CN102563968A (en) * | 2012-01-29 | 2012-07-11 | 刘雄 | Air conditioner refrigerating device |
| CN102563968B (en) * | 2012-01-29 | 2014-06-25 | 刘雄 | Air conditioner refrigerating device |
| CN103307805A (en) * | 2013-06-14 | 2013-09-18 | 上海海立睿能环境技术有限公司 | Trigeneration heat pump system |
| CN103512270A (en) * | 2013-09-24 | 2014-01-15 | 陈万仁 | Radiating refrigeration warm air source heat pump device with four functions |
| CN103512270B (en) * | 2013-09-24 | 2016-02-17 | 陈万仁 | There is the radiation refrigeration warm braw source heat pump device of four kinds of functions |
| CN106802025A (en) * | 2015-11-26 | 2017-06-06 | 陈则韶 | Family's heat pump heating air conditioning hot dehumidifying combined system |
| CN111271893A (en) * | 2020-02-26 | 2020-06-12 | 浙江中广电器股份有限公司 | Air-conditioning heat pump hot water system and control method thereof |
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| C14 | Grant of patent or utility model | ||
| GR01 | Patent grant | ||
| CX01 | Expiry of patent term |
Granted publication date: 20110615 |
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| CX01 | Expiry of patent term |