CN203550280U - Direct-expansion solar heat pump air-conditioning system - Google Patents
Direct-expansion solar heat pump air-conditioning system Download PDFInfo
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技术领域 technical field
本实用新型涉及一种太阳能光热系统,特别是涉及到一种将相变蓄热装置应用于空调和直膨式太阳能热泵中的直膨式太阳能热泵空调系统,属能源供热和空调技术领域。 The utility model relates to a solar photothermal system, in particular to a direct-expansion solar heat pump air-conditioning system in which a phase-change heat storage device is applied to an air conditioner and a direct-expansion solar heat pump, and belongs to the technical field of energy heating and air conditioning . the
技术背景technical background
能源和环境问题己经成为当今社会最受关注的焦点问题之一。近年来,随着我国建筑业的迅猛发展,建筑的采暖和空调耗能不断扩大。在发达国家,建筑能耗占总能耗的25%~40%,在我国约占社会能源总消耗的近1/3。在建筑能耗中,主要部分是空调能耗和热水能耗,分别约占总量的24%和17%。空调器、热水器的能源利用效率,直接影响到我国能源的总体利用情况。尤其是再淮河以南地区,冬天取暖主要靠空调,大大增加了电力负荷,造成电力紧张。因此,提高能源的利用率、鼓励优先利用太阳能等新能源、提倡建筑节能尤为必要。 Energy and environmental issues have become one of the most focused issues in today's society. In recent years, with the rapid development of my country's construction industry, the energy consumption of heating and air conditioning in buildings has continued to expand. In developed countries, building energy consumption accounts for 25% to 40% of total energy consumption, and in my country it accounts for nearly 1/3 of total social energy consumption. In building energy consumption, the main parts are air conditioning energy consumption and hot water energy consumption, accounting for about 24% and 17% of the total respectively. The energy utilization efficiency of air conditioners and water heaters directly affects the overall utilization of energy in our country. Especially in the area south of the Huaihe River, heating in winter mainly depends on air conditioning, which greatly increases the power load and causes power shortage. Therefore, it is particularly necessary to improve the utilization rate of energy, encourage the priority use of solar energy and other new energy sources, and promote building energy conservation. the
热泵系统具有结构紧凑、热利用率高、适应经济性强、节能环保等优点,得以加以推广。但热泵机组特别是空气源风冷机组,其受气候温差等影响特别大,热力性能大为下降,在温度较低时,蒸发器表面容易结霜,影响其传热性能。随着环境温度的降低,其系统COP大为下降,蒸发器还可因为吸热量不足,气液混合冲击压缩机,减小了压缩机的使用寿命。 The heat pump system has the advantages of compact structure, high heat utilization rate, strong adaptability to economy, energy saving and environmental protection, etc., and can be popularized. However, heat pump units, especially air-source air-cooled units, are particularly affected by climate temperature differences, and their thermal performance is greatly reduced. When the temperature is low, the surface of the evaporator is prone to frost, which affects its heat transfer performance. As the ambient temperature decreases, the COP of the system drops significantly, and the evaporator can also impact the compressor due to insufficient heat absorption and gas-liquid mixing, which reduces the service life of the compressor. the
直膨式太阳能热泵由于其环保节能、集热效率高等也备受关注。但直膨式太阳能热泵系统稳定性差,易随季节、气候、昼夜等环境因素影响。专利“直膨式太阳能热泵空调及热水系统”(公开号CN1515850)将太阳能热泵与冰蓄冷空调结合起来,使得集热器的工作温度与制冷剂的蒸发温度保持一致(接近环境温度),大大提高了集热器效率和热泵性能系数。冬季工质从平板太阳能集热器中吸收热量,经过循环制备生活热水和热空气。夏季,晚上制冷循环完成制冰并存储在蓄冰槽供白天使用。此发明虽然利用了太阳能热泵,提高了热力性能(集热器效率一般可达60%-80%,热泵COP一般可超过3),但没有考虑环境变换对系统性能的影响,系统未见压缩机保护装置。专利“直膨式太阳能热泵热水器”(公开号:CN1337556)采用无盖板的太阳能集热蒸发器,利用水冷冷凝器制取生活热水。此专利将太阳能集热器室外冷凝、蒸发器设计为一体,结构简单紧凑,并能够充分利用露水的相变潜热,但没有实现夏季制冷功能,未能就结露对室外影响热力性能以及冬季夜晚霜冻情况给予说明改进,而且在蓄热水箱温度达到设定值后没有安装蓄热装置,使富余太阳能未能充分利用。 The direct expansion solar heat pump has also attracted much attention due to its environmental protection, energy saving and high heat collection efficiency. However, the direct expansion solar heat pump system has poor stability and is easily affected by environmental factors such as seasons, climate, and day and night. The patent "direct expansion solar heat pump air conditioner and hot water system" (publication number CN1515850) combines solar heat pump and ice storage air conditioner, so that the working temperature of the collector is consistent with the evaporation temperature of the refrigerant (close to the ambient temperature), greatly Improved collector efficiency and heat pump coefficient of performance. In winter, the working medium absorbs heat from the flat solar collector and circulates it to prepare domestic hot water and hot air. In summer, the refrigeration cycle completes the ice production at night and stores it in the ice storage tank for use during the day. Although this invention uses solar heat pumps to improve thermal performance (collector efficiency can generally reach 60%-80%, and heat pump COP can generally exceed 3), it does not consider the impact of environmental changes on system performance, and there is no compressor in the system protective device. The patent "Direct Expansion Solar Heat Pump Water Heater" (publication number: CN1337556) uses a solar collector evaporator without a cover plate, and uses a water-cooled condenser to produce domestic hot water. This patent integrates the outdoor condensation and evaporator design of the solar collector, the structure is simple and compact, and can make full use of the latent heat of phase change of dew, but it does not realize the cooling function in summer, and fails to affect the thermal performance of condensation on the outdoor and winter night Frost conditions were improved, and the heat storage device was not installed after the temperature of the heat storage tank reached the set value, so that the surplus solar energy could not be fully utilized. the
发明内容Contents of the invention
本实用新型针对上述现有空调及直膨式太阳能热泵的不足,提供一种将蓄热装置与压缩机保护装置合二为一的直膨式太阳能热泵空调系统。该系统不但可以将多余太阳能存储起来,供晚上或阴雨天使用,而且可以克服环境影响,使压缩机入口温度维持在一定值,提高了热力性能,延长压缩机的使用寿命,结构简单、节能环保。 The utility model aims at the shortcomings of the above-mentioned existing air conditioners and direct expansion solar heat pumps, and provides a direct expansion solar heat pump air conditioning system in which a heat storage device and a compressor protection device are combined into one. The system can not only store excess solar energy for use at night or in rainy days, but also overcome environmental influences, maintain the compressor inlet temperature at a certain value, improve thermal performance, and prolong the service life of the compressor. The structure is simple, energy-saving and environmentally friendly . the
为了实现上述目的,本实用新型解决其技术问题所采用的技术方案是: In order to achieve the above object, the technical solution adopted by the utility model to solve the technical problems is:
一种直膨式太阳能热泵空调系统,主要由1套直膨式太阳能热泵系统、1套空气源热泵系统、1个蓄热装置组成,具体包括1台室外冷凝器、1个储液罐、1个过滤器、1个毛细管节流器、1台室内空冷换热器、1台水冷换热器、6个阀门、1台压缩机、1个四通变向阀、1 台太阳能集热器、1个相变蓄热装置。太阳能集热器出口经过太阳能集热器出口阀门与相变蓄热装置入口连接,相变蓄热装置出口与压缩机入口相连接,压缩机出口与四通变向阀的端口a连接,四通变向阀的端口b分别经过水冷换热器入口阀门、空冷换热器入口阀门与水冷换热器、室内的空冷换热器相连接,之后经过管路汇合后依次与毛细管节流器、过滤器、储液罐相连接,储液罐出口分别与室外冷凝器、太阳能集热器入口阀门连接,太阳能集热器入口阀门与太阳能集热器相连接;室外冷凝器经室外冷凝器入口阀门与四通变向阀的c端口连接,压缩机入口与四通变向阀的d端口连接。 A direct expansion solar heat pump air conditioning system, mainly composed of a direct expansion solar heat pump system, an air source heat pump system, and a heat storage device, specifically including an outdoor condenser, a liquid storage tank, and a 1 filter, 1 capillary restrictor, 1 indoor air-cooled heat exchanger, 1 water-cooled heat exchanger, 6 valves, 1 compressor, 1 four-way reversing valve, 1 solar collector, 1 phase change heat storage device. The outlet of the solar collector is connected to the inlet of the phase change heat storage device through the outlet valve of the solar collector, the outlet of the phase change heat storage device is connected to the inlet of the compressor, the outlet of the compressor is connected to port a of the four-way reversing valve, and the four-way The port b of the reversing valve is respectively connected to the water-cooled heat exchanger and the indoor air-cooled heat exchanger through the inlet valve of the water-cooled heat exchanger and the inlet valve of the air-cooled heat exchanger, and then connected to the capillary restrictor and filter in turn after passing through the pipeline. The outlet of the liquid storage tank is connected to the outdoor condenser and the inlet valve of the solar collector, and the inlet valve of the solar collector is connected to the solar collector; the outdoor condenser is connected to the outdoor condenser through the inlet valve of the outdoor condenser. The c port of the four-way reversing valve is connected, and the compressor inlet is connected with the d port of the four-way reversing valve. the
相变蓄热装置由带有保温层的壳体、紫铜管、相变蓄热材料、配型接头组成;带有保温层的壳体是包有聚氨酯发泡保温层的不锈钢筒体,两头为配型接头;圆柱体内插有若干紫铜管,紫铜管与不锈钢外壳钎焊密封,与两头配型接头直通,铜管之间装有相变蓄热材料。 The phase change heat storage device is composed of a shell with an insulation layer, a copper tube, a phase change heat storage material, and a matching joint; the shell with an insulation layer is a stainless steel cylinder covered with a polyurethane foam insulation layer. It is a matching joint; a number of copper tubes are inserted in the cylinder, and the copper tube is brazed and sealed with the stainless steel shell, and is directly connected with the matching joints at both ends. Phase-change heat storage materials are installed between the copper tubes. the
相变蓄热装置内管道可以是紫铜管,也可以是翅片管或螺纹管等;相变蓄热材料为纯石蜡,还可以是添加纳米金属或膨胀石墨的石蜡或其它相关材料。 The pipes in the phase change thermal storage device can be copper tubes, finned tubes or threaded tubes, etc.; the phase change thermal storage materials can be pure paraffin, or paraffin wax added with nanometer metal or expanded graphite, or other related materials. the
直膨式太阳能热泵系统与典型的蒸汽压缩式制冷循环原理相同,都由冷凝器、蒸发器、压缩机、储液灌、过滤器、毛细管节流器组成,由管道连接成一个密封的系统。从蒸发器完成热交换汽化产生的低压蒸汽被压缩机吸入压缩成高温高压气体,进入冷凝器冷却成液体,经过滤器、毛细管节流器后进入蒸发器,在蒸发器蒸发吸热完成制冷循环。 The principle of the direct expansion solar heat pump system is the same as that of a typical vapor compression refrigeration cycle. It is composed of a condenser, an evaporator, a compressor, a liquid storage tank, a filter, and a capillary restrictor, and is connected by pipes to form a sealed system. The low-pressure steam produced by heat exchange and vaporization from the evaporator is sucked into the compressor and compressed into high-temperature and high-pressure gas, then enters the condenser to be cooled into liquid, then enters the evaporator after passing through the filter and capillary restrictor, and evaporates and absorbs heat in the evaporator to complete the refrigeration cycle. the
与传统的间接膨胀式热泵、空气源热泵相比,其不同点在于直膨式太阳能热泵的太阳能集热器作为系统的蒸发器,工质在集热器中吸收太阳能辐射的热能,减小了集热回路过程,使得结构简单,便于安装。 Compared with the traditional indirect expansion heat pump and air source heat pump, the difference is that the solar collector of the direct expansion solar heat pump is used as the evaporator of the system, and the working fluid absorbs the heat energy of solar radiation in the collector, reducing the The heat collecting loop process makes the structure simple and easy to install. the
空气源热泵系统为常见家庭空调,室内外均采用空冷换热器,其工作原理为蒸汽压缩式制冷循环原理。 The air source heat pump system is a common household air conditioner, using air-cooled heat exchangers both indoors and outdoors, and its working principle is the vapor compression refrigeration cycle principle. the
带有相变蓄热装置的太阳能热泵空调系统与室外冷凝器并联,冬季可提供生活热水、热气,夏季可实现正常空调制冷。 The solar heat pump air conditioning system with phase change heat storage device is connected in parallel with the outdoor condenser, which can provide domestic hot water and hot air in winter, and realize normal air conditioning and cooling in summer. the
本实用新型的有益效果是,将蓄热装置与压缩机保护装置合二为一,不但可以将多余太阳能存储起来,供晚上或阴雨天使用,而且可以克服环境影响使压缩机入口温度维持在一定值,提高了热力性能,延长压缩机的使用寿命,结构简单、节能环保。 The beneficial effect of the utility model is that the thermal storage device and the compressor protection device are combined into one, not only can the excess solar energy be stored for use at night or in rainy days, but also can overcome the influence of the environment to maintain the inlet temperature of the compressor at a certain level. Value, improve the thermal performance, prolong the service life of the compressor, simple structure, energy saving and environmental protection. the
附图说明 Description of drawings
图1为直膨式太阳能热泵空调系统原理示意图。 Figure 1 is a schematic diagram of the principle of a direct expansion solar heat pump air conditioning system. the
图2为相变蓄热装置剖面图。 Figure 2 is a cross-sectional view of a phase change heat storage device. the
图中:1.太阳能集热器,2.太阳能集热器出口阀门,3.太阳能集热器入口阀门,4.室外冷凝器入口阀门,5.相变蓄热装置,6.压缩机,7.空冷换热器入口阀门,8.空冷换热器,9.室外冷凝器,10.水冷换热器入口阀门,11.水冷换热器,12.毛细管节流器,13.过滤器,14.储液罐,15.四通变向阀,16.带有保温层的壳体,17.紫铜管,18.相变蓄热材料,19.配型接头。 In the figure: 1. Solar collector, 2. Solar collector outlet valve, 3. Solar collector inlet valve, 4. Outdoor condenser inlet valve, 5. Phase change heat storage device, 6. Compressor, 7 .Inlet valve of air-cooled heat exchanger, 8. Air-cooled heat exchanger, 9. Outdoor condenser, 10. Inlet valve of water-cooled heat exchanger, 11. Water-cooled heat exchanger, 12. Capillary restrictor, 13. Filter, 14 .Liquid storage tank, 15. Four-way reversing valve, 16. Shell with insulation layer, 17. Copper tube, 18. Phase change heat storage material, 19. Matching joint. the
具体实施方式 Detailed ways
下面结合附图和实例对本实用新型进一步说明。 Below in conjunction with accompanying drawing and example the utility model is further described. the
参照附图1和附图2,一种直膨式太阳能热泵空调系统包括1台室外冷凝器、1个储液罐、1个过滤器、1个毛细管节流器、1台室内空冷换热器、1台水冷换热器、6个阀门、1台压缩 机、1个四通变向阀、1台太阳能集热器、1个相变蓄热装置。 Referring to accompanying drawings 1 and 2, a direct expansion solar heat pump air conditioning system includes an outdoor condenser, a liquid storage tank, a filter, a capillary restrictor, and an indoor air-cooled heat exchanger , 1 water-cooled heat exchanger, 6 valves, 1 compressor, 1 four-way reversing valve, 1 solar collector, and 1 phase change heat storage device. the
太阳能集热器(1)出口经过太阳能集热器出口阀门(2)与相变蓄热装置(5)入口连接,相变蓄热装置(5)出口与压缩机(6)入口相连接,压缩机(6)出口与四通变向阀(15)的端口a连接,四通变向阀(15)的端口b分别经过水冷换热器入口阀门(10)、空冷换热器入口阀门(7)与水冷换热器(11)、室内的空冷换热器(8)相连接,之后经过管路汇合后依次与毛细管节流器(12)、过滤器(13)、储液罐(14)相连接,储液罐(14)出口分别与室外冷凝器(9)、太阳能集热器入口阀门(3)连接,太阳能集热器入口阀门(3)与太阳能集热器(1)相连接;室外冷凝器(9)经室外冷凝器入口阀门(4)与四通变向阀(15)的c端口连接,压缩机(6)入口与四通变向阀(15)的d端口连接。 The outlet of the solar collector (1) is connected to the inlet of the phase change heat storage device (5) through the outlet valve of the solar collector (2), and the outlet of the phase change heat storage device (5) is connected to the inlet of the compressor (6). The outlet of the machine (6) is connected to the port a of the four-way reversing valve (15), and the port b of the four-way reversing valve (15) respectively passes through the inlet valve of the water-cooled heat exchanger (10) and the inlet valve of the air-cooled heat exchanger (7 ) is connected with the water-cooled heat exchanger (11) and the indoor air-cooled heat exchanger (8), and then connected with the capillary restrictor (12), filter (13), and liquid storage tank (14) The outlet of the liquid storage tank (14) is connected with the outdoor condenser (9) and the solar collector inlet valve (3) respectively, and the solar collector inlet valve (3) is connected with the solar collector (1); The outdoor condenser (9) is connected to the c port of the four-way reversing valve (15) through the outdoor condenser inlet valve (4), and the inlet of the compressor (6) is connected to the d port of the four-way reversing valve (15). the
参照附图2,相变蓄热装置外壳是包有聚氨酯发泡保温层的不锈钢筒体,两头为配型接头(19),在配型接头(19)上有一联通管道与系统连接;圆柱体内插有若干紫铜管(17),紫铜管(17)与带有保温层的壳体(16)钎焊密封,与两头配型接头(19)直通,铜管之间装有相变蓄热材料(18)。 Referring to Figure 2, the shell of the phase change heat storage device is a stainless steel cylinder covered with a polyurethane foam insulation layer, with matching joints (19) at both ends, and a connecting pipe connected to the system on the matching joint (19); A number of copper tubes (17) are inserted, and the copper tubes (17) are brazed and sealed with the shell (16) with an insulating layer, and are directly connected with the matching joints (19) at both ends. Thermal Materials (18). the
本实用新型工作原理和工作过程为: The working principle and working process of the utility model are:
冬季白天,开启太阳能集热器出口阀门(2)、太阳能集热器入口阀门(3),关闭室外冷凝器入口阀门(4),调节四通变向阀(15)使ab端口接通,cd端口接通。制冷剂在太阳能集热器(1)中吸收热量蒸发,高温的制冷剂进入相变蓄热装置(5),在相变蓄热装置(5)内换热,通过相变蓄热装置(5)将温度较高的制冷剂冷却,吸收并存储多余热量保持制冷剂温度恒定,避免对压缩机(6)造成不利影响。制冷剂由压缩机(6)入口吸入,压缩成高温高压气体,开启空冷换热器入口阀门(7),高温高压气体经四通变向阀(15)进入室内空冷换热器(8),与室内气体换热提供热气,或开启水冷换热器入口阀门(10)经水冷换热器(11)制取生活用热水。经过室内空冷换热器(8)或水冷换热器(11)冷凝后的液体经过毛细管节流器(12)节流成为低温低压的湿蒸汽,然后经过滤器(13)过滤后的制冷剂存储在储液罐(14)里,最后湿蒸汽流入室外太阳能集热器(1)(蒸发器),蒸发吸热完成循环。 During the winter day, open the solar collector outlet valve (2) and the solar collector inlet valve (3), close the outdoor condenser inlet valve (4), adjust the four-way reversing valve (15) to connect the ab port, cd The port is connected. The refrigerant absorbs heat and evaporates in the solar heat collector (1), and the high-temperature refrigerant enters the phase change heat storage device (5), exchanges heat in the phase change heat storage device (5), and passes through the phase change heat storage device (5). ) to cool the refrigerant with a higher temperature, absorb and store excess heat to keep the temperature of the refrigerant constant, and avoid adverse effects on the compressor (6). The refrigerant is inhaled by the inlet of the compressor (6), compressed into high-temperature and high-pressure gas, and the inlet valve (7) of the air-cooled heat exchanger is opened, and the high-temperature and high-pressure gas enters the indoor air-cooled heat exchanger (8) through the four-way reversing valve (15). Exchange heat with indoor air to provide hot air, or open the water-cooled heat exchanger inlet valve (10) to produce domestic hot water through the water-cooled heat exchanger (11). The liquid condensed by the indoor air-cooled heat exchanger (8) or water-cooled heat exchanger (11) is throttled by the capillary restrictor (12) to become low-temperature and low-pressure wet steam, and then the refrigerant filtered by the filter (13) is stored In the liquid storage tank (14), the wet steam flows into the outdoor solar collector (1) (evaporator) at last, and evaporates and absorbs heat to complete the cycle. the
冬季晚上,开启太阳能集热器出口阀门(2)、太阳能集热器入口阀门(3),关闭室外冷凝器入口阀门(4),调节四通变向阀(15)使ab端口接通,cd端口接通。制冷剂湿蒸汽主要从相变蓄热装置(5)内吸热,将白天储存的富余热量加以利用,制冷剂之后依次经过压缩机(6)、四通变向阀(15)、室内换热器(8)或水冷换热器(11)、毛细管节流器(12)、过滤器(13)、储液罐(14),最后回到相变蓄热装置(5)。 At night in winter, open the solar collector outlet valve (2) and the solar collector inlet valve (3), close the outdoor condenser inlet valve (4), adjust the four-way reversing valve (15) to connect the ab port, cd The port is connected. The wet steam of the refrigerant mainly absorbs heat from the phase change heat storage device (5), and utilizes the surplus heat stored during the day. The refrigerant then passes through the compressor (6), the four-way reversing valve (15), and the indoor heat exchange device (8) or water-cooled heat exchanger (11), capillary restrictor (12), filter (13), liquid storage tank (14), and finally return to the phase change heat storage device (5). the
夏季制冷:开启室外冷凝器入口阀门(4),关闭太阳能集热器出口阀门(2)、太阳能集热器入口阀门(3),调节四通变向阀(15)使db端口接通,ca端口接通,工作介质进入制冷循环。从室内空冷换热器(8)完成热交换汽化产生的低压蒸汽经过空冷换热器入口阀门(7)、四通变向阀(15)后被压缩机(6)吸入压缩成高温高压气体,进入室外换热器(9)冷却成液体,经储液罐(14)、过滤器(13)、毛细管节流器(12)最后进入室内空冷换热器(8)吸热,使室内环境温度降低,完成制冷循环。 Summer cooling: open the outdoor condenser inlet valve (4), close the solar collector outlet valve (2), solar collector inlet valve (3), adjust the four-way reversing valve (15) to connect the db port, ca The port is connected, and the working medium enters the refrigeration cycle. The low-pressure steam generated from the heat exchange and vaporization of the indoor air-cooled heat exchanger (8) passes through the inlet valve (7) and the four-way reversing valve (15) of the air-cooled heat exchanger, and then is sucked by the compressor (6) and compressed into high-temperature and high-pressure gas. It enters the outdoor heat exchanger (9) and cools into liquid, passes through the liquid storage tank (14), filter (13), capillary restrictor (12) and finally enters the indoor air-cooled heat exchanger (8) to absorb heat, so that the indoor ambient temperature Lower to complete the refrigeration cycle. the
夏季制取生活用热水模式与冬季制取热水模式相同。 The mode of producing domestic hot water in summer is the same as that in winter. the
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Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN103499163A (en) * | 2013-09-24 | 2014-01-08 | 青岛科技大学 | Direct expansion type solar heat pump air conditioning system |
| CN106016771A (en) * | 2016-07-18 | 2016-10-12 | 常州海卡太阳能热泵有限公司 | Solar air source heat pump triple co-generation system and control method thereof |
| CN109041534A (en) * | 2018-08-28 | 2018-12-18 | 中国电子科技集团公司第十六研究所 | A kind of temp auto-controlled constant temperature fluid reservoir |
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Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN103499163A (en) * | 2013-09-24 | 2014-01-08 | 青岛科技大学 | Direct expansion type solar heat pump air conditioning system |
| CN106016771A (en) * | 2016-07-18 | 2016-10-12 | 常州海卡太阳能热泵有限公司 | Solar air source heat pump triple co-generation system and control method thereof |
| CN109041534A (en) * | 2018-08-28 | 2018-12-18 | 中国电子科技集团公司第十六研究所 | A kind of temp auto-controlled constant temperature fluid reservoir |
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