[go: up one dir, main page]

CN201014845Y - Ground source heat pump water heater - Google Patents

Ground source heat pump water heater Download PDF

Info

Publication number
CN201014845Y
CN201014845Y CNU2007200364183U CN200720036418U CN201014845Y CN 201014845 Y CN201014845 Y CN 201014845Y CN U2007200364183 U CNU2007200364183 U CN U2007200364183U CN 200720036418 U CN200720036418 U CN 200720036418U CN 201014845 Y CN201014845 Y CN 201014845Y
Authority
CN
China
Prior art keywords
water
valve
heat exchanger
heat pump
pump
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Expired - Lifetime
Application number
CNU2007200364183U
Other languages
Chinese (zh)
Inventor
李舒宏
张小松
杜凯
蔡亮
单奎
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Southeast University
Original Assignee
Southeast University
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Southeast University filed Critical Southeast University
Priority to CNU2007200364183U priority Critical patent/CN201014845Y/en
Application granted granted Critical
Publication of CN201014845Y publication Critical patent/CN201014845Y/en
Anticipated expiration legal-status Critical
Expired - Lifetime legal-status Critical Current

Links

Images

Landscapes

  • Heat-Pump Type And Storage Water Heaters (AREA)
  • Other Air-Conditioning Systems (AREA)

Abstract

地源热泵的热水装置中,压缩机(1)的排气管与水冷套管冷凝器(2)、节流毛细管(3)、蒸发器(4)、压缩机(1)的吸气管连接成一个闭合的环形回路;热水水箱(6)通过水泵(5)与套管冷凝器(2)水侧相连通构成循环回路;地下盘管换热器(8)通过地下盘管水泵(7)与蒸发器(4)的水侧一端相连,蒸发器(4)水侧的另外一端连接第一阀门(9),第一阀门(9)出口通过三通分别连接第二阀门(10)和第三阀门(11),第三阀门(11)的出口与地下盘管换热器(8)的另外一端相连,第二阀门(10)通过三通连接第四阀门(12)和地源热泵空调系统的第二制冷剂水换热器(17),第四阀门(12)的另外一端与地下盘管水泵(7)的出水口连接。

In the hot water device of the ground source heat pump, the exhaust pipe of the compressor (1) and the water-cooled sleeve condenser (2), the throttling capillary (3), the evaporator (4), and the suction pipe of the compressor (1) connected to form a closed circular loop; the hot water tank (6) communicates with the water side of the casing condenser (2) through the water pump (5) to form a circulation loop; the underground coil heat exchanger (8) passes through the underground coil water pump ( 7) Connect to one end of the water side of the evaporator (4), the other end of the water side of the evaporator (4) is connected to the first valve (9), and the outlet of the first valve (9) is respectively connected to the second valve (10) through a three-way And the third valve (11), the outlet of the third valve (11) is connected to the other end of the underground coil heat exchanger (8), and the second valve (10) is connected to the fourth valve (12) and the ground source through a three-way In the second refrigerant water heat exchanger (17) of the heat pump air-conditioning system, the other end of the fourth valve (12) is connected to the water outlet of the underground coil water pump (7).

Description

地源热泵的热水装置 Ground source heat pump water heater

技术领域technical field

本实用新型是一种将地源热泵的原理用于生活热水的提供,属于地源热泵,热水器的技术领域。The utility model applies the principle of a ground source heat pump to provide domestic hot water, and belongs to the technical field of ground source heat pumps and water heaters.

背景技术Background technique

目前,很多的试验研究和理论模拟计算表明地源热泵空调装置在实际的使用中,特别在长江以南地区都出现夏季向地下排热和冬季从地下取热不平衡的情况,从而导致地下土壤温度升高而使地源热泵装置在使用几年后能效比下降甚至不能正常工作,因此在地源热泵系统中使用辅助的排热措施如加装冷却塔等其他向环境排热的办法被推荐使用。At present, many experimental studies and theoretical simulation calculations have shown that in actual use of ground source heat pump air-conditioning devices, especially in the south of the Yangtze River, there is an imbalance between heat discharge to the ground in summer and heat extraction from the ground in winter, which leads to underground soil pollution. As the temperature rises, the energy efficiency ratio of the ground source heat pump device will decrease or even fail to work normally after several years of use. Therefore, it is recommended to use auxiliary heat removal measures in the ground source heat pump system, such as installing cooling towers and other methods of heat removal to the environment. use.

同时我国的普遍使用的热水器有燃气热水器,电热水器,太阳能热水器三大类,同时空气源热泵热水器也在逐渐的被消费者接收。空气源热泵热水器的能源利用率优于电热水器,燃气热水器,与太阳能热水器可能接近,但是空气源热泵热水器克服了太阳能热水器在阴雨天不能使用后果,但是空气源热泵的能效比很大受到大气环境温度的制约,冬季时能效比很低,而起冬季室外空气换热器器出现结霜,需要除霜,这也使得空气源热泵热水器的能效比下降,同时系统复杂程度提高,可靠性小降。At the same time, there are three types of water heaters commonly used in my country: gas water heaters, electric water heaters, and solar water heaters. At the same time, air source heat pump water heaters are gradually being accepted by consumers. The energy utilization rate of air source heat pump water heater is better than that of electric water heater and gas water heater, which may be close to solar water heater, but air source heat pump water heater overcomes the consequence that solar water heater cannot be used in rainy days, but the energy efficiency ratio of air source heat pump is greatly affected by the atmospheric environment Due to temperature constraints, the energy efficiency ratio is very low in winter, and in winter, the outdoor air heat exchanger frosts and needs to be defrosted, which also reduces the energy efficiency ratio of the air source heat pump water heater, and at the same time increases the complexity of the system and reduces reliability. .

本实用新型提出一种地源热泵热水系统,利用地源热泵的原理生产生活热水,系统的能源利用率高于传统的燃气,电热水器,同时也优于太阳能热水器和空气源热泵热水器,可以全年不间断提供热水,不存在冬季环境变化后结霜和除霜的问题。同时由于地源热泵热水器的热源为地下土壤,因此将地源热泵热水器与地源热泵空调系统地下盘管一体施工后,可以缓解地源热泵空调装置在实际的使用中,特别在长江以南地区中都出现夏季向地下排热和冬季从地下取热不平衡的情况导致地下温度升高而使地源热泵装置在使用几年后能效比下降甚至不能正常工作的缺陷,而且地源热泵热水系统与地源热泵空调系统的地下盘管合为一体后,在夏季时可以降低地源热泵空调机组的冷凝温度,提高机组的运行能效比。The utility model proposes a ground source heat pump hot water system, which uses the principle of the ground source heat pump to produce domestic hot water. The energy utilization rate of the system is higher than that of traditional gas and electric water heaters, and is also better than solar water heaters and air source heat pump water heaters. Hot water can be provided uninterrupted throughout the year, and there is no problem of frosting and defrosting after environmental changes in winter. At the same time, since the heat source of the ground source heat pump water heater is the underground soil, the integrated construction of the ground source heat pump water heater and the underground coil of the ground source heat pump air conditioning system can alleviate the actual use of the ground source heat pump air conditioner, especially in the south of the Yangtze River. In China, there is a defect that the heat discharge to the ground in summer and the heat from the ground in winter are unbalanced, which leads to the increase of underground temperature, which makes the energy efficiency ratio of the ground source heat pump device decrease or even fail to work normally after several years of use, and the hot water of the ground source heat pump After the system is integrated with the underground coil of the ground source heat pump air conditioning system, the condensation temperature of the ground source heat pump air conditioning unit can be reduced in summer, and the operating energy efficiency ratio of the unit can be improved.

发明内容Contents of the invention

技术问题:本实用新型的目的是提供一种可以独立安装也可以与地源热泵空调同时安装的地源热泵的热水装置,可以全年不间断的提供生活热水,能效比高于其他生产生活热水的方式如燃气热水,电热水器,空气源热泵热水器,同时地源热泵热水器与地源热泵空调系统联合使用后可以缓解地源热泵空调系统夏季向土壤排热远高于冬季吸热的情况,延长地源热泵空调系统使用时间,提高整个系统的能源使用率。Technical problem: The purpose of this utility model is to provide a ground source heat pump hot water device that can be installed independently or simultaneously with the ground source heat pump air conditioner, which can provide domestic hot water uninterrupted throughout the year, and the energy efficiency ratio is higher than other production Domestic hot water methods such as gas hot water, electric water heaters, and air source heat pump water heaters. At the same time, the combination of ground source heat pump water heaters and ground source heat pump air conditioning systems can alleviate the heat dissipation of ground source heat pump air conditioning systems to the soil in summer, which is much higher than the heat absorption in winter. In such a situation, the use time of the ground source heat pump air-conditioning system is extended, and the energy utilization rate of the entire system is improved.

技术方案:本实用新型地源热泵的热水装置,由压缩机,套管冷凝器,节流毛细管,蒸发器,冷凝器,水箱,地下埋管,水泵,阀门等组成。Technical solution: The hot water device of the ground source heat pump of the utility model is composed of a compressor, a casing condenser, a throttling capillary, an evaporator, a condenser, a water tank, an underground pipe, a water pump, and a valve.

该装置包括压缩机,套管冷凝器,节流毛细管,蒸发器,热水箱,地下盘管换热器,水箱水泵、地下盘管水泵,第一阀门、第二阀门、第三阀门、第四阀门;其中压缩机的排气管与水冷套管冷凝器、节流毛细管、蒸发器、压缩机的的吸气管连接成一个闭合的环形回路;热水水箱通过水泵与套管冷凝器水侧相连通构成循环回路;地下盘管换热器通过地下盘管水泵与蒸发器的水侧一端相连,蒸发器4水侧的另外一端连接第一阀门,第一阀门出口通过三通分别连接第二阀门和第三阀门,第三阀门的出口与地下盘管换热器的另外一端相连,第二阀门通过三通连接第四阀门和地源热泵空调系统的第二制冷剂水换热器,第四阀门的另外一端与地下盘管水泵的出水口连接。The device includes a compressor, a casing condenser, a throttling capillary, an evaporator, a hot water tank, an underground coil heat exchanger, a water tank pump, an underground coil pump, the first valve, the second valve, the third valve, the first Four valves; the exhaust pipe of the compressor is connected to the water-cooled sleeve condenser, the throttle capillary, the evaporator, and the suction pipe of the compressor to form a closed loop circuit; the hot water tank is connected to the sleeve condenser water through the water pump Side-to-side communication constitutes a circulation loop; the underground coil heat exchanger is connected to one end of the water side of the evaporator through the underground coil water pump, the other end of the water side of the evaporator 4 is connected to the first valve, and the outlet of the first valve is respectively connected to the second valve through a tee. The second valve and the third valve, the outlet of the third valve is connected to the other end of the underground coil heat exchanger, the second valve is connected to the fourth valve and the second refrigerant water heat exchanger of the ground source heat pump air conditioning system through a tee, The other end of the fourth valve is connected with the water outlet of the underground coil water pump.

在该装置上还可并联一个地源热泵空调系统,即与地源热泵空调系统联合使用组成一个复合的地源热泵的热水装置,地源热泵空调系统中的第二压缩机接四通阀的两端,四通阀的另两端与第二制冷剂水换热器、节流装置、第一制冷剂水换热器连接成一个闭合回路,第一制冷剂水换热器、空调循环水泵、风机盘管连接成一个闭合回路,第二制冷剂水换热器的出口端与地下盘管换热器连接,第二制冷剂水换热器的入口端与第二阀门连接。A ground source heat pump air-conditioning system can also be connected in parallel on the device, that is, it can be used in conjunction with the ground source heat pump air-conditioning system to form a composite ground-source heat pump water heater. The second compressor in the ground-source heat pump air-conditioning system is connected to the four-way valve The two ends of the four-way valve are connected with the second refrigerant water heat exchanger, throttling device, and the first refrigerant water heat exchanger to form a closed loop. The first refrigerant water heat exchanger and the air conditioning cycle The water pump and the fan coil are connected to form a closed circuit, the outlet end of the second refrigerant water heat exchanger is connected to the underground coil heat exchanger, and the inlet end of the second refrigerant water heat exchanger is connected to the second valve.

该系统利用地源热泵的原理生产生活热水,系统的能源利用率高于传统的燃气,电热水器,同时也优于太阳能热水器和空气源热泵热水器,可以全年不间断提供热水,不存在冬季环境变化后结霜和除霜的问题。同时由于地源热泵热水器的热源为土壤,因此将地源热泵热水器与地源热泵空调系统地下盘管一体施工后,可以缓解地源热泵空调装置在实际的使用特别在长江以南地区中都出现夏季向地下排热和冬季从地下取热不平衡的情况导致地下温度升高而使地源热泵装置在使用几年后能效比下降甚至不能正常工作的缺陷,在夏季时可以降低地源热泵空调机组的冷凝温度,提高机组的运行能效比。The system uses the principle of ground source heat pump to produce domestic hot water. The energy utilization rate of the system is higher than that of traditional gas and electric water heaters, and it is also better than solar water heaters and air source heat pump water heaters. It can provide hot water continuously throughout the year. Problems with frosting and defrosting after environmental changes in winter. At the same time, since the heat source of the ground source heat pump water heater is the soil, after the integrated construction of the ground source heat pump water heater and the ground coil of the ground source heat pump air conditioning system, it can alleviate the actual use of the ground source heat pump air conditioner, especially in the areas south of the Yangtze River. The unbalanced heat discharge to the ground in summer and heat extraction from the ground in winter leads to the rise of underground temperature, which causes the energy efficiency ratio of the ground source heat pump device to decrease or even fail to work normally after several years of use. The condensing temperature of the unit improves the operating energy efficiency ratio of the unit.

有益效果:本实用新型的有益效果是:1.全年不间断的提供生活热水,能源利用率远高于普通的电,燃气热水器,克服于太阳能热水器阴雨天水温不高不能正常使用需要辅助电加热的缺点,空气源热泵热水器相比,其能效率比稍优于空气源热泵热水器,而且运行工况更加稳定,没有冬季结霜除霜问题;2.地源热泵热水器与地源热泵空调系统联合使用,可以有效缓解普通地源热泵空调系统在南方地区夏季向土壤排热多余冬季从土壤吸热的而导致能效比降低甚至无法运行的问题,夏季由于降低地源热泵空调系统的冷却水水温,还可以提高地源热泵空调系统的能效比Beneficial effects: The beneficial effects of this utility model are: 1. Provide domestic hot water uninterrupted throughout the year, and the energy utilization rate is much higher than that of ordinary electric and gas water heaters. Disadvantages of electric heating. Compared with air source heat pump water heaters, its energy efficiency ratio is slightly better than that of air source heat pump water heaters, and the operating conditions are more stable, and there is no problem of frosting and defrosting in winter; 2. Ground source heat pump water heaters and ground source heat pump air conditioners The joint use of the system can effectively alleviate the problem that the ordinary ground source heat pump air conditioning system in the southern region discharges heat to the soil in summer and absorbs heat from the soil in winter, resulting in a decrease in energy efficiency ratio or even inoperability. Water temperature can also improve the energy efficiency ratio of the ground source heat pump air conditioning system

附图说明Description of drawings

图1是本实用新型的结构示意图。Fig. 1 is a structural representation of the utility model.

其中有:压缩机1,套管冷凝器2,节流毛细管3,蒸发器4,热水箱6,地下盘管换热器8,水箱水泵5、地下盘管水泵7,第一阀门9、第二阀门10、第三阀门11、第四阀门12;Among them are: compressor 1, casing condenser 2, throttling capillary 3, evaporator 4, hot water tank 6, underground coil heat exchanger 8, water tank pump 5, underground coil pump 7, first valve 9, The second valve 10, the third valve 11, the fourth valve 12;

第二压缩机13、四通阀14、第一制冷剂水换热器15、节流装置16、第二制冷剂水换热器17、空调循环水泵18、风机盘管19。The second compressor 13 , the four-way valve 14 , the first refrigerant water heat exchanger 15 , the throttling device 16 , the second refrigerant water heat exchanger 17 , the air conditioning circulating water pump 18 , and the fan coil 19 .

具体实施方式Detailed ways

本实用新型地源热泵热水系统,由压缩机1,套管冷凝器2,节流毛细管3,蒸发器4,热水箱6,地下盘管换热器8,水箱水泵5、地下盘管水泵7,第一阀门9、第二阀门10、第三阀门11、第四阀门12等组成。其中压缩机1的排气管与水冷套管冷凝器2、节流毛细管3、蒸发器4、压缩机的1的吸气管连接成一个闭合的环形回路;热水水箱6通过水泵5与套管冷凝器2水侧相连通构成循环回路;地下盘管换热器8通过地下盘管水泵7与蒸发器4的水侧一端相连,蒸发器4水侧的另外一端连接第一阀门9,第一阀门9出口通过三通分别连接第二阀门10和第三阀门11,第三阀门11的出口与地下盘管换热器8的另外一端相连,第二阀门10通过三通连接第四阀门12和地源热泵空调系统的第二制冷剂水换热器17,第四阀门12的另外一端与地下盘管水泵的出水口连接。The ground source heat pump hot water system of the utility model consists of a compressor 1, a sleeve condenser 2, a throttling capillary 3, an evaporator 4, a hot water tank 6, an underground coil heat exchanger 8, a water tank pump 5, and an underground coil Water pump 7, the first valve 9, the second valve 10, the third valve 11, the fourth valve 12 and so on. Wherein the exhaust pipe of the compressor 1 is connected with the water-cooled sleeve condenser 2, the throttling capillary tube 3, the evaporator 4, and the suction pipe of the compressor 1 to form a closed loop circuit; The water side of the tube condenser 2 is connected to form a circulation loop; the underground coil heat exchanger 8 is connected to one end of the water side of the evaporator 4 through the underground coil water pump 7, and the other end of the water side of the evaporator 4 is connected to the first valve 9, the second The outlet of one valve 9 is respectively connected to the second valve 10 and the third valve 11 through a three-way, the outlet of the third valve 11 is connected to the other end of the underground coil heat exchanger 8, and the second valve 10 is connected to the fourth valve 12 through a three-way It is connected with the second refrigerant water heat exchanger 17 of the ground source heat pump air conditioning system, and the other end of the fourth valve 12 is connected with the water outlet of the underground coil water pump.

在该装置上还可并联一个地源热泵空调系统,即与地源热泵空调系统联合使用组成一个复合的地源热泵的热水装置,地源热泵空调系统中的第二压缩机13接四通阀14的两端,四通阀14的另两端与第二制冷剂水换热器17、节流装置16、第一制冷剂水换热器15连接成一个闭合回路,第一制冷剂水换热器15、空调循环水泵18、风机盘管19连接成一个闭合回路,第二制冷剂水换热器17的出口端与地下盘管换热器8连接,第二制冷剂水换热器17的入口端与第二阀门10连接。A ground-source heat pump air-conditioning system can also be connected in parallel on the device, that is, it can be used in conjunction with the ground-source heat pump air-conditioning system to form a composite ground-source heat pump water heater. The second compressor 13 in the ground-source heat pump air-conditioning system is connected to the four-way The two ends of the valve 14 and the other two ends of the four-way valve 14 are connected with the second refrigerant water heat exchanger 17, the throttling device 16, and the first refrigerant water heat exchanger 15 to form a closed circuit, and the first refrigerant water The heat exchanger 15, the air conditioning circulating water pump 18, and the fan coil 19 are connected to form a closed loop, the outlet end of the second refrigerant water heat exchanger 17 is connected to the underground coil heat exchanger 8, and the second refrigerant water heat exchanger The inlet end of 17 is connected with the second valve 10 .

该装置运行时,制冷剂经过压缩机1排气管,进入套管冷凝器2中放出热量给水,然后进入毛细管3中节流,节流后的制冷剂进入蒸发器4中吸收地下盘管中水的热量而汽化,制冷剂蒸汽进入压缩机中压缩完成一个循环,在冷凝器中吸收热量后升温的热水进入水箱,水箱中的水通过水泵泵入套管冷凝器中吸热。地下盘管中水在蒸发器中发出热量后进入地下盘管中从土壤中吸热升温,然后通过水泵进入蒸发其中继续放出热量。本系统用热泵功能,从土壤中吸取热量,获得温度为50℃左右的生活热水。When the device is running, the refrigerant passes through the exhaust pipe of the compressor 1, enters the sleeve condenser 2 to release heat to feed water, and then enters the capillary tube 3 for throttling, and the throttled refrigerant enters the evaporator 4 for absorption in the underground coil The heat of water vaporizes, and the refrigerant vapor enters the compressor to be compressed to complete a cycle. After absorbing heat in the condenser, the heated hot water enters the water tank, and the water in the water tank is pumped into the sleeve condenser to absorb heat through the water pump. After the water in the underground coil emits heat in the evaporator, it enters the underground coil to absorb heat from the soil and heat up, and then enters the evaporation through the water pump to continue releasing heat. This system uses the heat pump function to absorb heat from the soil to obtain domestic hot water with a temperature of about 50°C.

地源热泵热水装置可以克服空气源热泵热水器冬季结霜除霜问题。同时由于地源热泵热水器从土壤中吸取热量,而夏季时做供热水模式运行时向土壤排热减少,因此可以缓解普通地源热泵在南方地区使用时向土壤排热远高于冬季从土壤中取热而引起土壤温度升高导致普通地源热泵空调系统使用几年后能效比较低甚至不能运行的问题。The ground source heat pump water heater can overcome the frosting and defrosting problem of the air source heat pump water heater in winter. At the same time, because the ground source heat pump water heater absorbs heat from the soil, and in summer when it is in hot water supply mode, the heat discharge to the soil is reduced, so it can alleviate the heat discharge of ordinary ground source heat pumps to the soil when it is used in the southern region, which is much higher than that from the soil in winter. The increase in soil temperature caused by heat extraction in the middle leads to the problem that the energy efficiency of the ordinary ground source heat pump air conditioning system is relatively low or even unable to operate after several years of use.

本地源热泵热水系统中设置了第一阀门9、第二阀门10、第三阀门11、第四阀门12。在夏季时第一阀门9、第二阀门10开,第三阀门11、第四阀门12关闭,此时地下盘管中的水先进入地源热泵热水器蒸发器中放热降温,然后进入地源热泵空调的室外第二制冷剂水换热器(冷凝器),由于地下盘管中水温度在地源热泵热水器的蒸发器中降低,因此地源热泵空调冷凝器的冷凝温度将有所下降,由此提高地源热泵空调的能效比。春秋季节和冬季时,第二阀门10关闭,第三阀门11、第四阀门12、第一阀门9开,地源热泵热水器的蒸发器和地源热泵空调系统的室外制冷剂水换热器并联运行。A first valve 9 , a second valve 10 , a third valve 11 and a fourth valve 12 are set in the local source heat pump hot water system. In summer, the first valve 9 and the second valve 10 are opened, and the third valve 11 and the fourth valve 12 are closed. At this time, the water in the underground coil first enters the evaporator of the ground source heat pump water heater to release heat and cool down, and then enters the ground source heat pump. For the outdoor second refrigerant water heat exchanger (condenser) of the air conditioner, since the temperature of the water in the underground coil decreases in the evaporator of the ground source heat pump water heater, the condensation temperature of the condenser of the ground source heat pump air conditioner will decrease. This improves the energy efficiency ratio of the ground source heat pump air conditioner. In spring, autumn and winter, the second valve 10 is closed, the third valve 11, the fourth valve 12, and the first valve 9 are opened, and the evaporator of the ground source heat pump water heater and the outdoor refrigerant water heat exchanger of the ground source heat pump air conditioning system are connected in parallel run.

Claims (2)

1. the hot water apparatus of an earth source heat pump, it is characterized in that this device comprises compressor (1), double-pipe condenser (2), throttle capillary tube (3), evaporimeter (4), boiler (6), underground coil heat exchanger (8), water tank water pump (5), lower coil pipe water pump (7), first valve (9), second valve (10), the 3rd valve (11), the 4th valve (12); Wherein the air intake duct of (1) of the blast pipe of compressor (1) and water cold sleeve condenser (2), throttle capillary tube (3), evaporimeter (4), compressor connects into the loop checking installation of a closure; Hot water (6) is by water pump (5) the formation closed circuit that is connected with double-pipe condenser (2) water side; Underground coil heat exchanger (8) links to each other with water side one end of evaporimeter (4) by ground lower coil pipe water pump (7), an other end of evaporimeter 4 water sides connects first valve (9), first valve (9) outlet connects second valve (10) and the 3rd valve (11) respectively by threeway, the outlet of the 3rd valve (11) links to each other with an other end of underground coil heat exchanger (8), second valve (10) connects the second cold-producing medium water-to-water heat exchanger (17) of the 4th valve (12) and geothermal heat pump air-conditioning system by threeway, and an other end of the 4th valve (12) is connected with the delivery port of ground lower coil pipe water pump (7).
2. the hot water apparatus of earth source heat pump according to claim 1, it is characterized in that on this device also can geothermal heat pump air-conditioning system in parallel, promptly unite and use the hot water apparatus of forming a compound earth source heat pump with geothermal heat pump air-conditioning system, second compressor (13) in the geothermal heat pump air-conditioning system connects the two ends of cross valve (14), the two ends and the second cold-producing medium water-to-water heat exchanger (17) in addition of cross valve (14), throttling arrangement (16), the first cold-producing medium water-to-water heat exchanger (15) connects into a closed-loop path, the first cold-producing medium water-to-water heat exchanger (15), air-conditioner circulating water pump (18), fan coil (19) connects into a closed-loop path, the port of export of the second cold-producing medium water-to-water heat exchanger (17) is connected with underground coil heat exchanger (8), and the arrival end of the second cold-producing medium water-to-water heat exchanger (17) is connected with second valve (10).
CNU2007200364183U 2007-03-23 2007-03-23 Ground source heat pump water heater Expired - Lifetime CN201014845Y (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CNU2007200364183U CN201014845Y (en) 2007-03-23 2007-03-23 Ground source heat pump water heater

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CNU2007200364183U CN201014845Y (en) 2007-03-23 2007-03-23 Ground source heat pump water heater

Publications (1)

Publication Number Publication Date
CN201014845Y true CN201014845Y (en) 2008-01-30

Family

ID=39026644

Family Applications (1)

Application Number Title Priority Date Filing Date
CNU2007200364183U Expired - Lifetime CN201014845Y (en) 2007-03-23 2007-03-23 Ground source heat pump water heater

Country Status (1)

Country Link
CN (1) CN201014845Y (en)

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN100424447C (en) * 2007-03-23 2008-10-08 东南大学 Ground source heat pump water heater
CN103604182A (en) * 2013-11-28 2014-02-26 青岛理工大学 Capillary heat pump air conditioning system applied to shoal
CN103604183A (en) * 2013-11-28 2014-02-26 青岛理工大学 Heat pump air conditioning system adopting capillary tube front end for heat exchange
CN103615779A (en) * 2013-11-28 2014-03-05 青岛理工大学 Capillary network heat pump air conditioning system applied to industrial waste water heat recovery

Cited By (4)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN100424447C (en) * 2007-03-23 2008-10-08 东南大学 Ground source heat pump water heater
CN103604182A (en) * 2013-11-28 2014-02-26 青岛理工大学 Capillary heat pump air conditioning system applied to shoal
CN103604183A (en) * 2013-11-28 2014-02-26 青岛理工大学 Heat pump air conditioning system adopting capillary tube front end for heat exchange
CN103615779A (en) * 2013-11-28 2014-03-05 青岛理工大学 Capillary network heat pump air conditioning system applied to industrial waste water heat recovery

Similar Documents

Publication Publication Date Title
CN100424447C (en) Ground source heat pump water heater
CN100443826C (en) Multifunctional Ground Source Heat Pump Radiant Air Conditioning and Hot Water System
CN202041020U (en) Household air source heat pump-floor radiation multifunctional system
CN201837000U (en) Soil source composite heating and cooling air conditioner system
CN106016771A (en) Solar air source heat pump triple co-generation system and control method thereof
CN102155820A (en) Multipurpose air-conditioner hot water system
CN204063300U (en) A kind of soil composite type variable refrigerant flow aircondition
CN201285124Y (en) Vaporization cooling and evaporation condensing combined air-conditioning unit
CN101358761B (en) Heat recovery type ground source heat pump air conditioning system for archives warehouse
CN105402966B (en) A kind of solar air source heat pumps
CN108679868A (en) A kind of self-operated type Multifunctional heat pump system and its control method
CN105466075B (en) Freeze in heat pump and hot water heating combined system and domestic hot-water's flow processed
CN111156726B (en) An air source heat pump system based on soil cross-season thermal defrosting and intermittent utilization of solar energy and its use method
CN204063403U (en) A kind of heat pump water heater system
CN201014845Y (en) Ground source heat pump water heater
CN206094374U (en) Components of a whole that can function independently low temperature frequency conversion trigeminy supplies heat pump system
CN202470558U (en) Front external auxiliary heating anti-frosting device
CN103499163A (en) Direct expansion type solar heat pump air conditioning system
CN103557633B (en) A kind of air source low-temperature trilogy supply heat-pump hot-water unit and implementation method thereof
CN104406247A (en) Multipurpose air conditioner heat-pump water heater system
CN201014834Y (en) Ground source heat pump radiant air conditioner and hot water device
CN104180453A (en) Heat pump water heater system of air conditioner
CN211575592U (en) Air source heat pump system based on soil seasonal heat storage defrosting and solar intermittent utilization
CN101498520B (en) Earth source heat pump air conditioner with water heating function
CN202853106U (en) Air energy water heater

Legal Events

Date Code Title Description
C14 Grant of patent or utility model
GR01 Patent grant
AV01 Patent right actively abandoned

Effective date of abandoning: 20070323

C25 Abandonment of patent right or utility model to avoid double patenting