CN111457509A - Energy-saving air conditioner - Google Patents

Energy-saving air conditioner Download PDF

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Publication number
CN111457509A
CN111457509A CN202010237038.6A CN202010237038A CN111457509A CN 111457509 A CN111457509 A CN 111457509A CN 202010237038 A CN202010237038 A CN 202010237038A CN 111457509 A CN111457509 A CN 111457509A
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water
cooling
cold water
pipe
heat exchanger
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CN111457509B (en
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方秀秀
郑学林
马燕平
唐仕杰
周华美
冯俨
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Shanghai Maritime University
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Shanghai Maritime University
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    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F5/00—Air-conditioning systems or apparatus not covered by F24F1/00 or F24F3/00, e.g. using solar heat or combined with household units such as an oven or water heater
    • F24F5/0007—Air-conditioning systems or apparatus not covered by F24F1/00 or F24F3/00, e.g. using solar heat or combined with household units such as an oven or water heater cooling apparatus specially adapted for use in air-conditioning
    • F24F5/001—Compression cycle type
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F13/00—Details common to, or for air-conditioning, air-humidification, ventilation or use of air currents for screening
    • F24F13/30—Arrangement or mounting of heat-exchangers
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F5/00—Air-conditioning systems or apparatus not covered by F24F1/00 or F24F3/00, e.g. using solar heat or combined with household units such as an oven or water heater
    • F24F5/0046—Air-conditioning systems or apparatus not covered by F24F1/00 or F24F3/00, e.g. using solar heat or combined with household units such as an oven or water heater using natural energy, e.g. solar energy, energy from the ground
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F24—HEATING; RANGES; VENTILATING
    • F24F—AIR-CONDITIONING; AIR-HUMIDIFICATION; VENTILATION; USE OF AIR CURRENTS FOR SCREENING
    • F24F7/00—Ventilation
    • F24F7/007—Ventilation with forced flow
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F28—HEAT EXCHANGE IN GENERAL
    • F28C—HEAT-EXCHANGE APPARATUS, NOT PROVIDED FOR IN ANOTHER SUBCLASS, IN WHICH THE HEAT-EXCHANGE MEDIA COME INTO DIRECT CONTACT WITHOUT CHEMICAL INTERACTION
    • F28C1/00—Direct-contact trickle coolers, e.g. cooling towers
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F28—HEAT EXCHANGE IN GENERAL
    • F28D—HEAT-EXCHANGE APPARATUS, NOT PROVIDED FOR IN ANOTHER SUBCLASS, IN WHICH THE HEAT-EXCHANGE MEDIA DO NOT COME INTO DIRECT CONTACT
    • F28D15/00—Heat-exchange apparatus with the intermediate heat-transfer medium in closed tubes passing into or through the conduit walls ; Heat-exchange apparatus employing intermediate heat-transfer medium or bodies
    • F28D15/02—Heat-exchange apparatus with the intermediate heat-transfer medium in closed tubes passing into or through the conduit walls ; Heat-exchange apparatus employing intermediate heat-transfer medium or bodies in which the medium condenses and evaporates, e.g. heat pipes
    • F28D15/0233—Heat-exchange apparatus with the intermediate heat-transfer medium in closed tubes passing into or through the conduit walls ; Heat-exchange apparatus employing intermediate heat-transfer medium or bodies in which the medium condenses and evaporates, e.g. heat pipes the conduits having a particular shape, e.g. non-circular cross-section, annular
    • F—MECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F28—HEAT EXCHANGE IN GENERAL
    • F28C—HEAT-EXCHANGE APPARATUS, NOT PROVIDED FOR IN ANOTHER SUBCLASS, IN WHICH THE HEAT-EXCHANGE MEDIA COME INTO DIRECT CONTACT WITHOUT CHEMICAL INTERACTION
    • F28C1/00—Direct-contact trickle coolers, e.g. cooling towers
    • F28C2001/006—Systems comprising cooling towers, e.g. for recooling a cooling medium

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  • Engineering & Computer Science (AREA)
  • Mechanical Engineering (AREA)
  • General Engineering & Computer Science (AREA)
  • Chemical & Material Sciences (AREA)
  • Combustion & Propulsion (AREA)
  • Life Sciences & Earth Sciences (AREA)
  • Sustainable Development (AREA)
  • Physics & Mathematics (AREA)
  • Thermal Sciences (AREA)
  • Sustainable Energy (AREA)
  • Other Air-Conditioning Systems (AREA)
  • Air Conditioning Control Device (AREA)

Abstract

本发明公开了一种节能型空调，涉及空调制冷技术领域，包括制冷***、通风***及控制***，制冷***包括风冷循环***及水冷循环***，风冷循环***包括变频压缩机、冷凝器、第一冷水板换热器；水冷循环***包括冷却塔，冷却塔侧壁上设置有湿球温度计、冷却管，冷却塔底部设置有循环水箱，冷却塔中设置有喷淋头，喷淋头通过管道与循环水箱连通设置，冷却塔一侧还设置有抽水装置；通风***包括空调内机及第二冷水板换热器。本发明提供了制冷模式多样化、制冷消耗能源低、压缩机使用次数少、空调寿命长的一种节能型空调。

Figure 202010237038

The invention discloses an energy-saving air conditioner, which relates to the technical field of air conditioning and refrigeration. It includes a refrigeration system, a ventilation system and a control system. The refrigeration system includes an air-cooled circulation system and a water-cooled circulation system. The first cold water plate heat exchanger; the water cooling circulation system includes a cooling tower, a wet bulb thermometer and a cooling pipe are arranged on the side wall of the cooling tower, a circulating water tank is arranged at the bottom of the cooling tower, and a spray head is arranged in the cooling tower, and the spray head passes through The pipeline is arranged in communication with the circulating water tank, and a water pumping device is also arranged on one side of the cooling tower; the ventilation system includes an air conditioner inner unit and a second cold water plate heat exchanger. The invention provides an energy-saving air conditioner with diversified refrigeration modes, low energy consumption for refrigeration, few compressor usage times, and long service life of the air conditioner.

Figure 202010237038

Description

一种节能型空调An energy-saving air conditioner

技术领域technical field

本发明涉及空调制冷技术领域，具体的说，它涉及一种节能型空调。The invention relates to the technical field of air conditioning and refrigeration, in particular to an energy-saving air conditioner.

背景技术Background technique

在全球性能源危机和环境问题日益严重的外部环境下，在我国电力供应紧张的内部环境下，节能对于我国经济发展和现代化建设具有重大的意义，设计节能型的空调产品，可积极响应国家的节能政策。In the external environment of the global energy crisis and the increasingly serious environmental problems, and in the internal environment of my country's tight power supply, energy saving is of great significance to my country's economic development and modernization. The design of energy-saving air-conditioning products can actively respond to national requirements. energy saving policy.

目前大中型地铁设备间数量越来越多，负载也越来越大的应用场景(如大型机房等)，降低设备间空调***的制冷功耗，实现pPUE值的下降。现在应用于全年制冷的散热设备间空调大多都是风冷空调；都为单一的蒸汽压缩式制冷机组，热量的转移完全靠单一的压缩制冷循环，在许多高纬度的地区往往很多时候室外的温度低于室内温度，热量随温度梯度自发地向室外扩散转移，利用空调变频压缩机制冷循环进行热量的转移是对能源的极大浪费。此外，频繁的启停变频压缩机，会加剧压缩设备的损耗，缩短其使用寿命，最终将导致整个空调***的提前损坏，因此存在待改进之处。At present, the number of large and medium-sized subway equipment rooms is increasing, and the load is also increasing in application scenarios (such as large computer rooms, etc.), reducing the cooling power consumption of the air-conditioning system in the equipment room and reducing the pPUE value. At present, most of the air conditioners used in cooling equipment rooms for year-round cooling are air-cooled air conditioners; they are all single vapor compression refrigeration units, and the heat transfer depends entirely on a single compression refrigeration cycle. When the temperature is lower than the indoor temperature, the heat spontaneously diffuses and transfers to the outdoor along with the temperature gradient. Using the refrigeration cycle of the inverter compressor of the air conditioner to transfer the heat is a great waste of energy. In addition, frequent starting and stopping of inverter compressors will increase the loss of compression equipment, shorten its service life, and eventually lead to premature damage of the entire air conditioning system, so there is room for improvement.

发明内容SUMMARY OF THE INVENTION

针对上述技术问题，本发明的目的是提供一种节能型空调，解决单一蒸汽压缩机制冷机组工作模式，有效节约空调机组制冷所损耗的能源，同时减少变频压缩机的使用次数，延长整个空调机组的使用寿命。In view of the above technical problems, the purpose of the present invention is to provide an energy-saving air conditioner, which solves the working mode of a single vapor compressor refrigeration unit, effectively saves the energy consumed by the refrigeration of the air conditioner unit, reduces the frequency of use of the inverter compressor, and prolongs the entire air conditioner unit. service life.

为实现上述目的，本发明提供了如下技术方案：For achieving the above object, the present invention provides the following technical solutions:

一种节能型空调，包括制冷***、通风***及控制***，所述制冷***包括风冷循环***及水冷循环***，所述风冷循环***包括变频压缩机、冷凝器、第一冷水板换热器，所述变频压缩机、冷凝器及第一冷水板换热器均通过管道依次连通，即所述变频压缩机将制冷剂输送至所述冷凝器制冷，再将制冷后的制冷剂输送至所述第一冷水板换热器中实现制冷剂换热，最后制冷剂从所述第一冷水板换热器输送至所述变频压缩机中完成一次风冷循环；所述水冷循环***包括冷却塔，所述冷却塔侧壁上设置有固定设置有用于检测冷却塔空间温度的湿球温度计，所述冷却塔底部设置有循环水箱，所述冷却塔侧壁上穿设设置有冷却管，所述冷却管设置在所述循环水箱上方，所述冷却塔中设置有喷淋头，所述喷淋头设置在冷却管正上方，所述喷淋头通过管道与所述循环水箱连通设置，所述冷却塔一侧还设置有用于抽取所述循环水箱中的水进入喷淋头的抽水装置；所述通风***包括空调内机及第二冷水板换热器，所述空调内机设置有若干个，所述空调内机包括U型热管蒸发器及送风扇，所述送风扇正对所述U型热管蒸发器设置，所述U型热管蒸发器通过管道与所述第二冷水板换热器连通形成制冷回路，所述第二冷水板换热器通过管道与所述冷却管连通形成第一换热回路管道，所述第一冷水板通过交换管与所述冷却管连通实现第一冷水板换热器与第二冷水板换热器之间的第二换热回路管道；所述控制***包括空调控制模块，所述变频压缩机、湿球温度计及抽水装置均与所述空调控制模块电性连接。An energy-saving air conditioner includes a refrigeration system, a ventilation system and a control system, the refrigeration system includes an air-cooled circulation system and a water-cooled circulation system, and the air-cooled circulation system includes a variable frequency compressor, a condenser, and a first cold water plate for heat exchange The inverter compressor, the condenser and the first cold water plate heat exchanger are all connected in sequence through pipelines, that is, the inverter compressor transports the refrigerant to the condenser for cooling, and then transports the cooled refrigerant to the The refrigerant heat exchange is realized in the first cold water plate heat exchanger, and finally the refrigerant is transported from the first cold water plate heat exchanger to the variable frequency compressor to complete an air-cooling cycle; the water-cooling cycle system includes cooling A wet-bulb thermometer for detecting the space temperature of the cooling tower is fixed on the side wall of the cooling tower, a circulating water tank is arranged at the bottom of the cooling tower, and a cooling pipe is arranged on the side wall of the cooling tower, so The cooling pipe is arranged above the circulating water tank, the cooling tower is provided with a spray head, the spray head is arranged directly above the cooling pipe, and the spray head is communicated with the circulating water tank through a pipeline, so One side of the cooling tower is also provided with a water pumping device for extracting the water in the circulating water tank into the sprinkler head; the ventilation system includes an internal air conditioner and a second cold water plate heat exchanger, and the internal air conditioner is provided with several Each of the air conditioners includes a U-shaped heat pipe evaporator and a blower fan, the blower fan is arranged facing the U-shaped heat pipe evaporator, and the U-shaped heat pipe evaporator exchanges heat with the second cold water plate through pipes The second cold water plate heat exchanger communicates with the cooling pipe to form a first heat exchange circuit pipe, and the first cold water plate communicates with the cooling pipe through the exchange pipe to realize the first cold water The second heat exchange circuit pipeline between the plate heat exchanger and the second cold water plate heat exchanger; the control system includes an air conditioning control module, the variable frequency compressor, the wet bulb thermometer and the water pumping device are all connected with the air conditioning control module Electrical connection.

本发明进一步设置为：所述冷却管包括冷却出水管及冷却进水管，所述第一冷水板换热器靠近第二冷水板换热器一端设置有出水管及进水管，所述出水管与所述冷却出水管连接处为出水交点，所述进水管与所述冷却进水管连接处为进水交点，所述冷却出水管上设置有冷水出口水温传感器，所述冷水出口水温传感器设置在所述出水交点及所述冷却塔之间的冷却出水管上，所述冷却进水管上设置有冷水进口水温传感器，所述冷水进口水温传感器设置在所述进水交点及所述冷却塔之间的冷却进水管上，所述冷水出口水温传感器、所述冷水进口水温传感器均与所述空调控制模块电性连接。The present invention is further provided as follows: the cooling pipe includes a cooling water outlet pipe and a cooling water inlet pipe, and one end of the first cold water plate heat exchanger close to the second cold water plate heat exchanger is provided with a water outlet pipe and a water inlet pipe, and the water outlet pipe is connected with the water inlet pipe. The connection point of the cooling water outlet pipe is the water outlet intersection point, the connection point of the water inlet pipe and the cooling water inlet pipe is the water inlet intersection point, the cooling water outlet pipe is provided with a cold water outlet water temperature sensor, and the cold water outlet water temperature sensor is arranged at the On the cooling water outlet pipe between the water outlet intersection point and the cooling tower, the cooling water inlet pipe is provided with a cold water inlet water temperature sensor, and the cold water inlet water temperature sensor is arranged between the water inlet intersection point and the cooling tower. On the cooling water inlet pipe, the cold water outlet water temperature sensor and the cold water inlet water temperature sensor are both electrically connected to the air conditioning control module.

本发明进一步设置为：所述冷却出水管及所述冷却进水管上均设置有冷水电磁阀，各所述冷水电磁阀分别设置在出水交点与冷却塔之间及进水交点与冷却塔之间，所述出水管上设置有冷水出水电磁阀，所述冷水出水电磁阀设置在出水交点及第一冷水板换热器之间，所述进水管上设置有冷水进水电磁阀，所述冷水进水电磁阀设置在进水交点及第一冷水板换热器之间，所述冷水电磁阀、所述冷水出水电磁阀、所述冷水进水电磁阀均与所述空调控制模块电性连接。The present invention is further provided that: the cooling water outlet pipe and the cooling water inlet pipe are both provided with cold water solenoid valves, and each cold water solenoid valve is respectively arranged between the water outlet intersection point and the cooling tower and between the water inlet intersection point and the cooling tower , the water outlet pipe is provided with a cold water outlet solenoid valve, the cold water outlet solenoid valve is arranged between the water outlet intersection and the first cold water plate heat exchanger, the cold water inlet solenoid valve is arranged on the water inlet pipe, and the cold water inlet solenoid valve is arranged on the water inlet pipe. The water inlet solenoid valve is arranged between the water inlet intersection and the first cold water plate heat exchanger, and the cold water solenoid valve, the cold water outlet solenoid valve, and the cold water inlet solenoid valve are all electrically connected to the air conditioning control module .

本发明进一步设置为：所述第二冷水板换热器的安装位置在竖直方向上高于所述U型热管蒸发器的安装位置至少1m，所述U型热管蒸发器与第二冷水板换热器之间的管道上设置有末端电子膨胀阀，所述末端电子膨胀阀与所述空调控制模块电性连接。The present invention is further provided that: the installation position of the second cold water plate heat exchanger is at least 1m higher than the installation position of the U-shaped heat pipe evaporator in the vertical direction, and the U-shaped heat pipe evaporator is connected to the second cold water plate. A terminal electronic expansion valve is arranged on the pipeline between the heat exchangers, and the terminal electronic expansion valve is electrically connected with the air conditioning control module.

本发明进一步设置为：所述U型热管蒸发器包括U型热管，所述U型热管设置有若干组，各所述U型热管均并列且错开设置，所述U型热管两端管口分别与第二冷水板换热器的进水口及出水口连通设置，且所述U型热管出口端设置有第一单向阀，所述U型热管进口端设置有电磁阀，所述电磁阀与所述空调控制模块电性连接。The present invention further provides that: the U-shaped heat pipe evaporator includes U-shaped heat pipes, the U-shaped heat pipes are provided with several groups, the U-shaped heat pipes are arranged in parallel and staggered, and the two ends of the U-shaped heat pipes are respectively It is arranged in communication with the water inlet and outlet of the second cold water plate heat exchanger, and the outlet end of the U-shaped heat pipe is provided with a first one-way valve, and the inlet end of the U-shaped heat pipe is provided with a solenoid valve, which is connected with the solenoid valve. The air conditioning control module is electrically connected.

本发明进一步设置为：所述冷却塔顶部开设有出风口，所述冷却塔侧壁上开设有进风口，所述进风口与所述出风口之间形成风冷区域，所述出风口设置有排风扇，所述排风扇正对出风口设置用于加速冷却塔中空气流通，且所述出风口开设在冷却管下方，即所述冷却管设置在风冷区域中，所述排风扇与所述空调控制模块电性连接。The present invention is further provided as follows: the top of the cooling tower is provided with an air outlet, the side wall of the cooling tower is provided with an air inlet, an air cooling area is formed between the air inlet and the air outlet, and the air outlet is provided with Exhaust fan, the exhaust fan is arranged facing the air outlet to accelerate the air circulation in the cooling tower, and the air outlet is opened below the cooling pipe, that is, the cooling pipe is arranged in the air-cooled area, the exhaust fan and the air conditioner control The module is electrically connected.

本发明进一步设置为：所述抽水装置为变频水泵，所述变频水泵设置在所述循环水箱及所述喷淋头之间的管道中，所述变频水泵输水侧及进水侧的管道上均设置有第一冷却水球阀，且所述变频水泵与第一冷却水球阀之间设置有冷水泵防震锁头。The present invention is further provided as follows: the water pumping device is a variable frequency water pump, and the variable frequency water pump is arranged in the pipeline between the circulating water tank and the sprinkler head, and on the pipelines on the water delivery side and the water inlet side of the variable frequency water pump Both are provided with a first cooling water ball valve, and a cold water pump shockproof lock is arranged between the variable frequency water pump and the first cooling water ball valve.

本发明进一步设置为：所述喷淋头与循环水箱之间的管道上串联设置有软水处理装置。The present invention is further provided as follows: a soft water treatment device is arranged in series on the pipeline between the sprinkler head and the circulating water tank.

本发明进一步设置为：所述第二冷水板换热器的换热管路中设置有用于加速水循环的冷水泵，所述冷水泵输水侧及进水侧管道上均设置有第二冷却水球阀，且所述冷水泵与第二冷却水球阀之间设置有冷水泵防震锁头。The present invention is further provided as follows: a cold water pump for accelerating water circulation is arranged in the heat exchange pipeline of the second cold water plate heat exchanger, and a second cooling water is arranged on both the water delivery side and the water inlet side of the cold water pump. A ball valve, and an anti-vibration lock of the cold water pump is arranged between the cold water pump and the second cooling water ball valve.

本发明进一步设置为：所述变频压缩机与所述冷凝器之间串联设置有油分离器，所述变频压缩机与所述第一冷水板换热器之间串联设置有气液分离器。The present invention further provides that: an oil separator is arranged in series between the variable frequency compressor and the condenser, and a gas-liquid separator is arranged in series between the variable frequency compressor and the first cold water plate heat exchanger.

综上所述，本发明具有以下有益效果：To sum up, the present invention has the following beneficial effects:

1、空调可通过变频压缩机架将制冷剂输送至冷凝器中进行降温，然后将降温后的制冷剂输送至第一冷水板换热器，通过第一换热回路实现第一冷水板换热器与第二冷水板换热器之间热量交换，最后空调内机与第二冷水板换热器进行热量交换，并通过空调内机进行降温作业；此外该空调还可以通过冷却塔中的喷淋头对冷却塔中的冷却管进行降温，从而降低冷却管中制冷剂的温度，再通过第二换热回路实现冷却管与第二冷水板换热器之间的热量交换，最后空调内机与第二冷水板换热器进行热量交换，并通过空调内机进行降温作业；在实际使用中，使用者可根据实际情况气温情况，采用空调风冷作业或者空调水冷作业，综上，根据不同情况采取不同工作模式，可有效降低变频压缩机的使用次数，减少其损耗，从而有助于延长整个空调的使用寿命，此外通过水冷进行空调制冷，有效减少电能损耗，环保节能，同时可有效降低空调使用成本；1. The air conditioner can transport the refrigerant to the condenser through the inverter compressor frame for cooling, and then transport the cooled refrigerant to the first cold water plate heat exchanger, and realize the first cold water plate heat exchange through the first heat exchange circuit. The heat exchange between the air conditioner and the second cold water plate heat exchanger, and finally the air conditioner internal unit and the second cold water plate heat exchanger conduct heat exchange, and the cooling operation is performed by the air conditioner internal unit; The shower head cools the cooling pipe in the cooling tower, thereby reducing the temperature of the refrigerant in the cooling pipe, and then realizes the heat exchange between the cooling pipe and the second cold water plate heat exchanger through the second heat exchange circuit. It exchanges heat with the second cold water plate heat exchanger, and conducts cooling operation through the internal unit of the air conditioner; in actual use, the user can use the air-conditioning air-cooling operation or the air-conditioning water-cooling operation according to the actual temperature situation. Different working modes can effectively reduce the frequency of use of the inverter compressor and reduce its loss, thereby helping to prolong the service life of the entire air conditioner. In addition, water cooling is used to cool the air conditioner, which can effectively reduce power consumption, environmental protection and energy saving. At the same time, it can effectively reduce The cost of using air conditioners;

2、通过设置的冷水电磁阀、冷水出水电磁阀、冷水进水电磁阀，在进行风冷循环时，将冷水出水电磁阀、冷水进水电磁阀关闭，避免第一回路中的制冷剂流入冷却管中造成冷量损失，在进行水冷循环时，关闭冷水电磁阀，避免第二回路中的制冷剂流入第一冷水板换热器中造成冷量损失，从而大大减少空调在不同模式下的冷量损失，有效减少能源损耗，降低空调使用成本；2. Through the set cold water solenoid valve, cold water outlet solenoid valve, and cold water inlet solenoid valve, during the air cooling cycle, the cold water outlet solenoid valve and the cold water inlet solenoid valve are closed to prevent the refrigerant in the first circuit from flowing into the cooling system. When the water cooling cycle is performed, the cold water solenoid valve is closed to prevent the refrigerant in the second circuit from flowing into the first cold water plate heat exchanger to cause cooling loss, thereby greatly reducing the cooling capacity of the air conditioner in different modes. energy loss, effectively reduce energy loss, and reduce the cost of air-conditioning use;

3、将第二冷水板换热器的安装位置在竖直方向上高于U型热管蒸发器的安装位置至少1m设置，使第二冷水板换热器与U型热管蒸发器之间的制冷剂通过其自身重力下沉至U型热管蒸发器中，U型热管中的制冷剂吸热变成气体，气体产生密度差回流至第二冷水板换热器中与冷水交换热器中重新吸热变成液态制冷剂，完成空调内机与第二冷水换热板之间的制冷循环，这种方式不依靠制冷剂泵进行制冷剂循环，进一步减少能源损耗，降低空调使用成本；3. Set the installation position of the second cold water plate heat exchanger at least 1m higher than the installation position of the U-shaped heat pipe evaporator in the vertical direction, so that the cooling between the second cold water plate heat exchanger and the U-shaped heat pipe evaporator can be cooled. The refrigerant sinks into the U-shaped heat pipe evaporator through its own gravity, the refrigerant in the U-shaped heat pipe absorbs heat and turns into a gas, and the gas generates a density difference and flows back to the second cold water plate heat exchanger and the cold water heat exchanger for re-absorption. The heat is turned into a liquid refrigerant to complete the refrigeration cycle between the internal air conditioner and the second cold water heat exchange plate. This method does not rely on the refrigerant pump for refrigerant circulation, further reducing energy loss and reducing the cost of air conditioning;

4、U型蒸发器中的U型热管并列且错开设置，增大U型热管的换热面积，同时室内回风可充分与U型热管外壁相接触，增大室内机的制冷量，此外这种错开排布方式设置，各U型热管相互不干涉便于检修，当单个U型热管出现漏点情况发生时，可直接对相应的U型热管进行补漏维修；4. The U-shaped heat pipes in the U-shaped evaporator are arranged side by side and staggered to increase the heat exchange area of the U-shaped heat pipe. At the same time, the indoor return air can fully contact the outer wall of the U-shaped heat pipe to increase the cooling capacity of the indoor unit. It is set in a staggered arrangement, and the U-shaped heat pipes do not interfere with each other for easy maintenance. When a single U-shaped heat pipe has a leak, the corresponding U-shaped heat pipe can be directly repaired for leaks;

5、U型热管两端管口分别与第二冷水板换热器的进水口及出水口连通设置，且U型热管出口端设置有第一单向阀，U型热管进口端设置有电磁阀，当负载设备需要的冷量较低时，通过调节电磁阀的开度来控制U型热管的实际运行的外壁面积，减少提供给负载的冷量，使第二冷水板换热器散失热量降级，从而降低第二冷水板换热器的流量，有助于减少冷却塔或变频压缩机的运行能耗，从而大大降低整个空调***运行的能耗，节约能源；5. The two ends of the U-shaped heat pipe are connected to the water inlet and the water outlet of the second cold water plate heat exchanger respectively, and the outlet end of the U-shaped heat pipe is provided with a first one-way valve, and the inlet end of the U-shaped heat pipe is provided with a solenoid valve. , when the cooling capacity required by the load equipment is low, the actual operation outer wall area of the U-shaped heat pipe is controlled by adjusting the opening of the solenoid valve, reducing the cooling capacity provided to the load and degrading the heat loss of the second cold water plate heat exchanger , thereby reducing the flow of the second cold water plate heat exchanger, helping to reduce the operating energy consumption of the cooling tower or inverter compressor, thereby greatly reducing the operating energy consumption of the entire air conditioning system and saving energy;

6、利用冷却塔上开设的出风口、进风口及排风扇，当室外温度过低，循环水箱中的水冻结，工作人员可之间通过打开排风扇使冷却塔进风口与出风口之间形成风冷区域对冷却管进行降温处理，实现冷却管中制冷剂的冷却，实现空调能耗的减少，节约能源。6. Using the air outlet, air inlet and exhaust fan opened on the cooling tower, when the outdoor temperature is too low, the water in the circulating water tank freezes, and the staff can open the exhaust fan to form air cooling between the air inlet and the air outlet of the cooling tower. The cooling pipe is cooled in the area to realize the cooling of the refrigerant in the cooling pipe, reduce the energy consumption of the air conditioner, and save energy.

附图说明Description of drawings

图1是本发明一种节能型空调的***机构示意图；1 is a schematic diagram of a system mechanism of an energy-saving air conditioner of the present invention;

图2是本发明一种节能型空调的水冷循环***结构示意图；2 is a schematic structural diagram of a water-cooled circulation system of an energy-saving air conditioner of the present invention;

图3是本发明一种节能型空调的换热管道示意图；3 is a schematic diagram of a heat exchange pipeline of an energy-saving air conditioner of the present invention;

图4是本发明一种节能型空调的U型热管蒸发器排列截面图示意图；4 is a schematic diagram of a cross-sectional view of the arrangement of the U-shaped heat pipe evaporators of an energy-saving air conditioner of the present invention;

图5是本发明一种节能型空调的U型热管错开排布断面图示意图。FIG. 5 is a schematic cross-sectional view of a U-shaped heat pipe staggered arrangement of an energy-saving air conditioner according to the present invention.

附图标记：10、制冷***；20、通风***；21、空调内机；211、U型热管蒸发器；212、送风扇；213、U型热管；214、第一单向阀；215、电磁阀；22、第二冷水板换热器；221、第三出口；222、第三进口；223、第四出口；224、第四进口；23、末端电子膨胀阀；30、风冷循环***；31、变频压缩机；32、冷凝器；321、风机；33、第一冷水板换热器；331、出水管；332、进水管；333、第一出口；334、第一进口；335、第二进口；336、第二出口；34、油分离器；35、气液分离器；36、压缩电磁阀；37、低压传感器；38、高压传感器；39、第二单向阀；391、过滤器；392、电子膨胀阀；40、水冷循环***；41、冷却塔；411、出风口；412、进风口；413、排风扇；42、湿球温度计；43、循环水箱；44、冷却管；441、冷却出水管；442、冷却进水管；45、喷淋头；451、水压传感器；46、变频水泵；47、第一冷却水球阀；471、变频水泵防震锁头；48、软水处理装置；481、Y型过滤器；49、冷水泵；491、第二冷却水球阀；492、冷水泵防震锁头；50、出水交点；60、进水交点；70、冷水出口水温传感器；71、冷水进口水温传感器；80、冷水电磁阀；81、冷水出水电磁阀；82、冷水进水电磁阀；90、冷水二通阀和执行器。Reference numerals: 10, refrigeration system; 20, ventilation system; 21, air conditioner; 211, U-shaped heat pipe evaporator; 212, blower fan; 213, U-shaped heat pipe; 214, first check valve; 215, electromagnetic valve; 22, the second cold water plate heat exchanger; 221, the third outlet; 222, the third inlet; 223, the fourth outlet; 224, the fourth inlet; 23, the terminal electronic expansion valve; 30, the air-cooled circulation system; 31, inverter compressor; 32, condenser; 321, fan; 33, first cold water plate heat exchanger; 331, water outlet pipe; 332, water inlet pipe; 333, first outlet; 334, first inlet; 335, first Second inlet; 336, second outlet; 34, oil separator; 35, gas-liquid separator; 36, compression solenoid valve; 37, low pressure sensor; 38, high pressure sensor; 39, second check valve; 391, filter ; 392, electronic expansion valve; 40, water cooling circulation system; 41, cooling tower; 411, air outlet; 412, air inlet; 413, exhaust fan; 42, wet bulb thermometer; 43, circulating water tank; 44, cooling pipe; 441, Cooling outlet pipe; 442, cooling water inlet pipe; 45, sprinkler head; 451, water pressure sensor; 46, variable frequency water pump; 47, first cooling water ball valve; 471, variable frequency water pump shockproof lock; 48, soft water treatment device; 481 , Y-type filter; 49, cold water pump; 491, second cooling water ball valve; 492, cold water pump shockproof lock; 50, water outlet intersection; 60, water inlet intersection; 70, cold water outlet water temperature sensor; 71, cold water inlet water temperature Sensor; 80, cold water solenoid valve; 81, cold water outlet solenoid valve; 82, cold water inlet solenoid valve; 90, cold water two-way valve and actuator.

具体实施方式Detailed ways

本发明提供一种节能型空调，为使本发明的目的、技术方案及效果更加清楚、明确，以下参照附图并举实例对本发明进一步详细说明。应当理解，此处所描述的具体实施例仅用以解释本发明，并不用于限定本发明。The present invention provides an energy-saving air conditioner. In order to make the purpose, technical solutions and effects of the present invention clearer and clearer, the present invention is further described in detail below with reference to the accompanying drawings and examples. It should be understood that the specific embodiments described herein are only used to explain the present invention, but not to limit the present invention.

需要说明的是，本发明的说明书和权利要求书及上述附图中的术语“第一”、“第二”等是用于区别类似的对象，而不必用于描述特定的顺序或先后次序，应该理解这样使用的数据在适当情况下可以互换。此外，术语“包括”和“具有”以及它们的任何变形，意图在于覆盖不排他的包含，例如，包含了一系列单元的***、产品或设备不必限于清楚地列出的那些单元，而是可包括没有清楚地列出的或对于这些产品或设备固有的其它单元。It should be noted that the terms "first", "second", etc. in the description and claims of the present invention and the above drawings are used to distinguish similar objects, and are not necessarily used to describe a specific sequence or sequence. It should be understood that data so used may be interchanged under appropriate circumstances. Furthermore, the terms "comprising" and "having", and any variations thereof, are intended to cover non-exclusive inclusion, for example, a system, product or device comprising a series of elements is not necessarily limited to those elements expressly listed, but may Include other elements not expressly listed or inherent to these products or devices.

参见附图1，一种节能型空调，包括制冷***10、通风***20及控制***。制冷***10包括风冷循环***30、水冷循环***40；通风***20包括空调内机21及第二换热板；控制***包括空调控制模块(图中未标注)，空调控制模块包括可编程调节器及温度变送器等，该空调控制模块为现有技术。Referring to FIG. 1, an energy-saving air conditioner includes a refrigeration system 10, a ventilation system 20 and a control system. The refrigeration system 10 includes an air-cooled circulation system 30 and a water-cooled circulation system 40; the ventilation system 20 includes an air-conditioning internal unit 21 and a second heat exchange plate; the control system includes an air-conditioning control module (not marked in the figure), and the air-conditioning control module includes programmable adjustment The air-conditioning control module is the prior art.

风冷循环***30包括变频压缩机31、油分离器34、冷凝器32、第一冷水板换热器33、气液分离器35。变频压缩机31与空调控制模块电性连接。变频压缩机31通过管道与冷凝器32连通设置，使用时变频压缩机31将冷却剂通过管道输送至冷凝器32中。冷凝器32外设置有风机321，风机321正对冷凝器32中的管路设置，风机321工作通过吹送冷风将冷凝器32中的温度降低。变频压缩机31与冷凝器32之间串联设置有油分离器34，变频压缩机31启动后，制冷剂经过压缩机压缩变成高温高压气体，经过油分离器34，分离出制冷剂气体携带出的润滑油，再进入冷凝器32，保证整个装置安全高效的运行。The air-cooled circulation system 30 includes an inverter compressor 31 , an oil separator 34 , a condenser 32 , a first cold water plate heat exchanger 33 , and a gas-liquid separator 35 . The inverter compressor 31 is electrically connected to the air conditioning control module. The variable frequency compressor 31 is arranged in communication with the condenser 32 through a pipeline, and the variable frequency compressor 31 transports the coolant to the condenser 32 through the pipeline when in use. A fan 321 is provided outside the condenser 32 , and the fan 321 is disposed facing the pipeline in the condenser 32 . The fan 321 works to reduce the temperature in the condenser 32 by blowing cold air. An oil separator 34 is arranged in series between the variable frequency compressor 31 and the condenser 32. After the variable frequency compressor 31 is started, the refrigerant is compressed by the compressor and becomes a high temperature and high pressure gas. After passing through the oil separator 34, the separated refrigerant gas is carried out. The lubricating oil enters the condenser 32 to ensure the safe and efficient operation of the whole device.

结合附图3，冷凝器32远离变频压缩机31一侧通过管道与第一冷水板换热器33连通。第一冷水板换热器33包括第一进口334、第一出口333及第二进口335第二出口336，第一进口334与第一出口333连通，第二进口335与第二出口336连通。冷凝器32上的管道与第一冷水板换热器33的第一进口334连通，第一冷水板换热器33的第一出口333通过管道与变频压缩机31连通设置。第一出口333与变频压缩机31之间串联设置有气液分离器35，气液分离器35与第一冷水板换热器33之间的管道上设置有压缩电磁阀36，且压缩电磁阀36与空调控制模块电性连接，通过压缩电磁阀36控制管道中制冷剂的流量。With reference to FIG. 3 , the side of the condenser 32 away from the variable frequency compressor 31 is communicated with the first cold water plate heat exchanger 33 through a pipeline. The first cold water plate heat exchanger 33 includes a first inlet 334 , a first outlet 333 and a second inlet 335 and a second outlet 336 . The first inlet 334 communicates with the first outlet 333 , and the second inlet 335 communicates with the second outlet 336 . The pipeline on the condenser 32 communicates with the first inlet 334 of the first cold water plate heat exchanger 33 , and the first outlet 333 of the first cold water plate heat exchanger 33 communicates with the variable frequency compressor 31 through the pipeline. A gas-liquid separator 35 is arranged in series between the first outlet 333 and the variable frequency compressor 31, and a compression solenoid valve 36 is arranged on the pipeline between the gas-liquid separator 35 and the first cold water plate heat exchanger 33, and the compression solenoid valve 36 is electrically connected with the air conditioning control module, and the flow of the refrigerant in the pipeline is controlled through the compression solenoid valve 36 .

变频压缩机31与气液分离器35之间的管道上固定设置有低压传感器37，低压传感器37与空调控制模块电性连接。通过低压传感器37实时监控管道中制冷剂的压力，保证设备稳定运转。变频压缩机31与油分离器34之间的管道上设置有高压传感器38，高压传感器38与空调控制模块电性连接。通过设置的低压传感器37及高压传感器38，保证制冷剂在变频压缩机31进口的压力。A low pressure sensor 37 is fixed on the pipeline between the inverter compressor 31 and the gas-liquid separator 35 , and the low pressure sensor 37 is electrically connected to the air conditioning control module. The pressure of the refrigerant in the pipeline is monitored in real time by the low pressure sensor 37 to ensure the stable operation of the equipment. A high pressure sensor 38 is provided on the pipeline between the inverter compressor 31 and the oil separator 34, and the high pressure sensor 38 is electrically connected to the air conditioning control module. The low pressure sensor 37 and the high pressure sensor 38 are provided to ensure the pressure of the refrigerant at the inlet of the inverter compressor 31 .

冷凝器32与第一冷水板换热器33之间的管道上串联设置有第二单向阀39，第二单向阀39的流通方向为冷凝器32流向第一冷水板换热器33，避免管道中的制冷剂逆流进冷凝器32中。第二单向阀39与第一冷水板换热器33之间的管道中固定有过滤器391，用于过滤制冷剂中的杂质，降低杂质对整个设备的影响，有助于提高设备的使用寿命。过滤器391靠近第一冷水板换热器33一侧的管道上连通设置有电子膨胀阀392，电子膨胀阀392与空调控制模块电性连接。A second check valve 39 is arranged in series on the pipeline between the condenser 32 and the first cold water plate heat exchanger 33, and the flow direction of the second check valve 39 is that the condenser 32 flows to the first cold water plate heat exchanger 33, Backflow of refrigerant in the lines into the condenser 32 is avoided. A filter 391 is fixed in the pipeline between the second one-way valve 39 and the first cold water plate heat exchanger 33 for filtering impurities in the refrigerant, reducing the impact of impurities on the entire equipment, and helping to improve the use of the equipment life. An electronic expansion valve 392 is communicated with the pipe on the side of the filter 391 close to the first cold water plate heat exchanger 33 , and the electronic expansion valve 392 is electrically connected to the air conditioning control module.

结合附图2-3，通风***20包括空调内机21及第二冷水板换热器22。第二冷水板换热器22的安装位置在竖直方向上高于U型热管蒸发器211的安装位置至少1m，U型热管蒸发器211与第二冷水板换热器22之间的管道上设置有末端电子膨胀阀23，末端电子膨胀阀23与空调控制模块电性连接。将第二冷水板换热器22的安装位置在竖直方向上高于U型热管蒸发器211的安装位置至少1m设置，使第二冷水板换热器22与U型热管蒸发器211之间的制冷剂通过其自身重力下沉至U型热管蒸发器211中，U型热管213中的制冷剂吸热变成气体，气体产生密度差回流至第二冷水板换热器22中与冷水交换热器中重新吸热变成液态制冷剂，完成空调内机21与第二冷水换热板之间的制冷循环，这种方式不依靠制冷剂泵进行制冷剂循环，进一步减少能源损耗，降低空调使用成本。Referring to FIGS. 2-3 , the ventilation system 20 includes an air conditioner internal unit 21 and a second cold water plate heat exchanger 22 . The installation position of the second cold water plate heat exchanger 22 is at least 1 m higher than the installation position of the U-shaped heat pipe evaporator 211 in the vertical direction. A terminal electronic expansion valve 23 is provided, and the terminal electronic expansion valve 23 is electrically connected with the air conditioning control module. The installation position of the second cold water plate heat exchanger 22 is set at least 1m higher than the installation position of the U-shaped heat pipe evaporator 211 in the vertical direction, so that the gap between the second cold water plate heat exchanger 22 and the U-shaped heat pipe evaporator 211 The refrigerant sinks into the U-shaped heat pipe evaporator 211 by its own gravity, the refrigerant in the U-shaped heat pipe 213 absorbs heat and turns into a gas, and the gas produces a density difference and returns to the second cold water plate heat exchanger 22 to exchange with cold water The heat is absorbed again in the heater and becomes liquid refrigerant, which completes the refrigeration cycle between the internal unit 21 of the air conditioner and the second cold water heat exchange plate. This method does not rely on the refrigerant pump to circulate the refrigerant, further reducing energy loss and reducing air conditioning. The cost.

第二冷水板换热器22包括第三进口222、第三出口221及第四进口224第四出口223，第三进口222与第三出口221连通，第四进口224与第四出口223连通。第四进口224通过管道与第二进口335连通设置，第四出口223通过管道与第三出口221连通设置形成第一冷水板换热器33第二冷水板换热器22的第二换热回路。The second cold water plate heat exchanger 22 includes a third inlet 222 , a third outlet 221 and a fourth inlet 224 and a fourth outlet 223 . The third inlet 222 communicates with the third outlet 221 , and the fourth inlet 224 communicates with the fourth outlet 223 . The fourth inlet 224 is arranged in communication with the second inlet 335 through a pipeline, and the fourth outlet 223 is arranged in communication with the third outlet 221 through a pipeline to form a second heat exchange circuit of the first cold water plate heat exchanger 33 and the second cold water plate heat exchanger 22 .

结合附图4-5，空调内机21设置有若干个，空调内机21包括U型热管蒸发器211及送风扇212，送风扇212正对U型热管蒸发器211设置。U型热管蒸发器211包括U型热管213，U型热管213设置有若干组，各U型热管213并列且错开设置，各U型热管213两端管口均竖直向上设置，且各U型热管213两端管口分别与第二冷水板换热器22的第三进口222及第三出口221连通设置形成送冷回路。U型热管213的出口端设置有第一单向阀214，U型热管213进口端设置有电磁阀215，电磁阀215与空调控制模块电性连接。U型蒸发器中的U型热管213并列且错开设置，增大U型热管213的换热面积，同时室内回风可充分与U型热管213外壁相接触，增大室内机的制冷量。此外这种错开排布方式设置，各U型热管213相互不干涉便于检修，当单个U型热管213出现漏点情况发生时，可直接对相应的U型热管213进行补漏维修。U型热管213两端管口分别与第二冷水板换热器22的进水口及出水口连通设置，且U型热管213出口端设置有第一单向阀214，U型热管213进口端设置有电磁阀215。当负载设备需要的冷量较低时，通过调节电磁阀215的开度来控制U型热管213的实际运行的外壁面积，减少提供给负载的冷量，使第二冷水板换热器22散失热量降级，从而降低第二冷水板换热器22的流量，有助于减少冷却塔41或变频压缩机31的运行能耗，从而大大降低整个空调***运行的能耗，节约能源。4-5 , there are several air conditioners 21 . The air conditioner 21 includes a U-shaped heat pipe evaporator 211 and a blower fan 212 . The U-shaped heat pipe evaporator 211 includes U-shaped heat pipes 213. The U-shaped heat pipes 213 are provided with several groups. The U-shaped heat pipes 213 are arranged in parallel and staggered. The nozzles at both ends of the heat pipe 213 are respectively communicated with the third inlet 222 and the third outlet 221 of the second cold water plate heat exchanger 22 to form a cooling circuit. The outlet end of the U-shaped heat pipe 213 is provided with a first one-way valve 214, and the inlet end of the U-shaped heat pipe 213 is provided with a solenoid valve 215, which is electrically connected to the air conditioning control module. The U-shaped heat pipes 213 in the U-shaped evaporator are arranged side by side and staggered to increase the heat exchange area of the U-shaped heat pipes 213. At the same time, the indoor return air can fully contact the outer wall of the U-shaped heat pipes 213 to increase the cooling capacity of the indoor unit. In addition, in this staggered arrangement, the U-shaped heat pipes 213 do not interfere with each other for easy maintenance. When a single U-shaped heat pipe 213 has a leak, the corresponding U-shaped heat pipe 213 can be directly repaired for leaks. The two ends of the U-shaped heat pipe 213 are connected to the water inlet and outlet of the second cold water plate heat exchanger 22 respectively, and the outlet end of the U-shaped heat pipe 213 is provided with a first one-way valve 214, and the inlet end of the U-shaped heat pipe 213 is provided with There is a solenoid valve 215 . When the cooling capacity required by the load equipment is low, the actual operation outer wall area of the U-shaped heat pipe 213 is controlled by adjusting the opening of the solenoid valve 215, thereby reducing the cooling capacity provided to the load and making the second cold water plate heat exchanger 22 dissipate. The heat is degraded, thereby reducing the flow rate of the second cold water plate heat exchanger 22, which helps to reduce the operating energy consumption of the cooling tower 41 or the inverter compressor 31, thereby greatly reducing the operating energy consumption of the entire air conditioning system and saving energy.

水冷***包括冷却塔41，冷却塔41底部设置有循环水箱43。冷却塔41侧壁上穿设设置有冷却管44，冷却管44设置在循环水箱43上方。冷却塔41中设置有喷淋头45，喷淋头45设置在冷却管44的正上方，且喷淋头45通过管道与循环水箱43连通设置。冷却塔41顶部开设有出风口411，冷却塔41侧壁上开设有进风口412。出风口411通过螺栓固定设置有排风扇413，排风扇413正对出风口411设置，用于加速冷却塔41中的空气流通，且排风扇413与空调控制模块电性连接。进风口412与出风口411之间形成风冷区域，冷却管44设置在风冷区域中，即出风口411开设在冷却管44下方。冷却塔41侧壁上固定设置有湿球温度计42，湿球温度计42设置在进风口412处，且湿球温度计42与空调控制模块电性连接。The water cooling system includes a cooling tower 41 , and a circulating water tank 43 is arranged at the bottom of the cooling tower 41 . A cooling pipe 44 is arranged on the side wall of the cooling tower 41 , and the cooling pipe 44 is arranged above the circulating water tank 43 . The cooling tower 41 is provided with a shower head 45, the shower head 45 is arranged directly above the cooling pipe 44, and the shower head 45 is arranged in communication with the circulating water tank 43 through a pipeline. The top of the cooling tower 41 is provided with an air outlet 411 , and the side wall of the cooling tower 41 is provided with an air inlet 412 . The air outlet 411 is fixed with an exhaust fan 413 by bolts, and the exhaust fan 413 is disposed facing the air outlet 411 for accelerating the air circulation in the cooling tower 41 , and the exhaust fan 413 is electrically connected to the air conditioning control module. An air cooling area is formed between the air inlet 412 and the air outlet 411 , and the cooling pipe 44 is arranged in the air cooling area, that is, the air outlet 411 is opened below the cooling pipe 44 . A wet bulb thermometer 42 is fixed on the side wall of the cooling tower 41 , the wet bulb thermometer 42 is arranged at the air inlet 412 , and the wet bulb thermometer 42 is electrically connected to the air conditioning control module.

靠近喷淋头45一侧的管道上设置有水压传感器451，水压传感器451与空调控制模块电性连接。使用过程一般喷淋水压设置为3bar，通过调节喷淋量提高喷淋效果。A water pressure sensor 451 is disposed on the pipe on the side close to the shower head 45, and the water pressure sensor 451 is electrically connected to the air conditioning control module. In the process of use, the general spray water pressure is set to 3bar, and the spray effect can be improved by adjusting the spray volume.

循环水箱43与喷淋头45之间的管道上串联设置有变频水泵46，变频水泵46将循环水箱43中的冷却水抽至喷淋头45，通过喷淋头45喷洒实现对冷却水管的降温。变频水泵46输水侧及进水侧管道上均设置有第一冷却水球阀47，工作人员对变频水泵46检修时，先关闭第一冷却水球阀47，大大提高检修变频水泵46的便捷性。变频水泵46与第一冷却水球阀47之间设置有变频水泵防震锁头471，通过设置的变频水泵防震锁头471，降低变频水泵46工作产生的震动对管道的影响，从而有利于提高设备的整体使用寿命。喷淋头45与循环水箱43之间的管道上还串联设置有软水处理装置48，软水处理装置48设置在靠近循环水箱43一侧，通过设置的软水处理装置48有效避免冷却水喷淋至冷却管44上出现结垢现象，有助于提高冷却管44的冷却效果。软水处理装置48靠近第一冷却水球阀47一侧设置有Y型过滤器481，进步减少冷却水中的杂质，提高冷却管44的冷却效果。A variable frequency water pump 46 is arranged in series on the pipeline between the circulating water tank 43 and the sprinkler head 45. The variable frequency water pump 46 pumps the cooling water in the circulating water tank 43 to the sprinkler head 45, and the cooling water pipe is cooled by spraying by the sprinkler head 45. . The first cooling water ball valve 47 is arranged on the water delivery side and the water inlet side of the variable frequency water pump 46. When the staff repairs the variable frequency water pump 46, the first cooling water ball valve 47 is closed first, which greatly improves the convenience of the maintenance of the variable frequency water pump 46. Between the variable frequency water pump 46 and the first cooling water ball valve 47, a variable frequency water pump anti-vibration lock 471 is arranged, and the variable frequency water pump anti-vibration lock 471 is provided to reduce the impact of the vibration generated by the variable frequency water pump 46 on the pipeline, thereby helping to improve the equipment performance. overall service life. A soft water treatment device 48 is also arranged in series on the pipeline between the shower head 45 and the circulating water tank 43. The soft water treatment device 48 is arranged on the side close to the circulating water tank 43. The soft water treatment device 48 can effectively prevent the cooling water from being sprayed to the cooling water. The scaling phenomenon occurs on the pipe 44 , which helps to improve the cooling effect of the cooling pipe 44 . A Y-shaped filter 481 is provided on the side of the soft water treatment device 48 close to the first cooling water ball valve 47 , which further reduces impurities in the cooling water and improves the cooling effect of the cooling pipe 44 .

冷却管44包括冷却出水管441及冷却进水管442，冷却出水管441与第二冷水板的第四出口223连通，冷却进水管442与第二冷水板的第四进口224连通形成第二冷水板换热器22与冷却管44之间的第一换热回路。第一冷水板换热器33靠近第二冷水板换热器22一端设置有出水管331及进水管332，即出水管331与第一冷水板换热器33的第二出口336连通，进水管332与第一冷水板换热器33的第二进口335连通。出水管331与冷却出水管441连接处为出水交点50，进水口管与冷却进水管442连接处为进水交点60。冷却出水管441上设置有冷水出口水温传感器70，冷水出口水温传感器70设置在出水交点50及冷却塔41之间的冷却出水管441上。冷却进水管442上设置有冷水进口水温传感器71，冷水进口水温传感器71设置在进水交点60及冷却塔41之间的冷却进水管442上，冷水出口水温传感器70、冷水进口水温传感器71均与空调控制模块电性连接。The cooling pipe 44 includes a cooling water outlet pipe 441 and a cooling water inlet pipe 442. The cooling water outlet pipe 441 communicates with the fourth outlet 223 of the second cold water plate, and the cooling water inlet pipe 442 communicates with the fourth inlet 224 of the second cold water plate to form a second cold water plate. The first heat exchange circuit between the heat exchanger 22 and the cooling pipe 44 . One end of the first cold water plate heat exchanger 33 close to the second cold water plate heat exchanger 22 is provided with a water outlet pipe 331 and a water inlet pipe 332, that is, the water outlet pipe 331 is communicated with the second outlet 336 of the first cold water plate heat exchanger 33, and the water inlet pipe 332 communicates with the second inlet 335 of the first cold water plate heat exchanger 33 . The connection between the water outlet pipe 331 and the cooling water outlet pipe 441 is the water outlet intersection point 50 , and the connection between the water inlet pipe and the cooling water inlet pipe 442 is the water inlet intersection point 60 . The cooling water outlet pipe 441 is provided with a cold water outlet water temperature sensor 70 , and the cold water outlet water temperature sensor 70 is arranged on the cooling water outlet pipe 441 between the water outlet intersection 50 and the cooling tower 41 . The cooling water inlet pipe 442 is provided with a cold water inlet water temperature sensor 71. The cold water inlet water temperature sensor 71 is arranged on the cooling water inlet pipe 442 between the water inlet intersection 60 and the cooling tower 41. The cold water outlet water temperature sensor 70 and the cold water inlet water temperature sensor 71 are both connected to The air conditioning control module is electrically connected.

冷却进水管442上设置有冷水二通阀和执行器90，冷水二通阀和执行器90设置在进水交点60及第二冷水板换热器22之间，且冷水二通阀和执行器90与空调控制模块电性连接。The cooling water inlet pipe 442 is provided with a cold water two-way valve and an actuator 90, the cold water two-way valve and the actuator 90 are arranged between the water inlet cross point 60 and the second cold water plate heat exchanger 22, and the cold water two-way valve and the actuator 90 is electrically connected with the air conditioning control module.

冷却出水管441及冷却进水管442上均设置有冷水电磁阀80，各冷水电磁阀80分别设置在出水交点50与冷却塔41之间及进水交点60与冷却塔41之间，出水管331上设置有冷水出水电磁阀81，冷水出水电磁阀81设置在出水交点50及第一冷水板换热器33之间，进水管332上设置有冷水进水电磁阀82，冷水进水电磁阀82设置在进水交点60及第一冷水板换热器33之间，冷水电磁阀80、冷水出水电磁阀81、冷水进水电磁阀82均与空调控制模块电性连接。The cooling water outlet pipe 441 and the cooling water inlet pipe 442 are provided with cold water solenoid valves 80, and each cold water solenoid valve 80 is respectively arranged between the water outlet intersection point 50 and the cooling tower 41 and between the water inlet intersection point 60 and the cooling tower 41. The water outlet pipe 331 A cold water outlet solenoid valve 81 is arranged on the upper part, and the cold water outlet solenoid valve 81 is arranged between the water outlet intersection 50 and the first cold water plate heat exchanger 33. The water inlet pipe 332 is provided with a cold water inlet solenoid valve 82, and the cold water inlet solenoid valve 82 Disposed between the water inlet intersection 60 and the first cold water plate heat exchanger 33, the cold water solenoid valve 80, the cold water outlet solenoid valve 81, and the cold water inlet solenoid valve 82 are all electrically connected to the air conditioning control module.

通过设置的冷水电磁阀80、冷水出水电磁阀81、冷水进水电磁阀82，在进行风冷循环时，将冷水出水电磁阀81、冷水进水电磁阀82关闭，避免第一回路中的制冷剂流入冷却管44中造成冷量损失，在进行水冷循环时，关闭冷水电磁阀80，避免第二回路中的制冷剂流入第一冷水板换热器33中造成冷量损失，从而大大减少空调在不同模式下的冷量损失，有效减少能源损耗，降低空调使用成本。By setting the cold water solenoid valve 80, the cold water outlet solenoid valve 81, and the cold water inlet solenoid valve 82, during the air cooling cycle, the cold water outlet solenoid valve 81 and the cold water inlet solenoid valve 82 are closed to avoid refrigeration in the first circuit. The refrigerant flows into the cooling pipe 44 to cause cooling loss. During the water cooling cycle, the cold water solenoid valve 80 is closed to prevent the refrigerant in the second circuit from flowing into the first cold water plate heat exchanger 33 to cause cooling loss, thereby greatly reducing air conditioning. The cooling loss in different modes can effectively reduce energy loss and reduce the cost of air conditioning.

第二冷水板换热器22的换热管路中设置有用于加速水循环的冷水泵49。本实施例中，冷水泵49设置在冷却水进水管442上，且冷水泵49设置在进水交点60与第二冷水板之间。冷水泵49输水侧及进水侧管道上均设置有第二冷却水球阀491，且冷水泵49与第二冷却水球阀491之间设置有冷水泵防震锁头492。A cold water pump 49 for accelerating water circulation is provided in the heat exchange pipeline of the second cold water plate heat exchanger 22 . In this embodiment, the cold water pump 49 is arranged on the cooling water inlet pipe 442, and the cold water pump 49 is arranged between the water inlet intersection 60 and the second cold water plate. A second cooling water ball valve 491 is provided on both the water delivery side and the water inlet side of the cold water pump 49 , and a cold water pump anti-vibration lock 492 is provided between the cold water pump 49 and the second cooling water ball valve 491 .

空调在不同温度环境中，有不同的工作方式：Air conditioners work in different ways in different temperature environments:

工况一，当湿球温度T高于15摄氏度时，本空调变频压缩机31启动，制冷剂经过变频压缩机31压缩变成高温高压气体；经过油分离器34，分离出制冷剂气体携带出的润滑油，再进入冷凝器32，在风机321(即室外机)的作用下散热后；通过第二单向阀39，进入过滤器391过滤后，经过电子膨胀阀392进行制冷剂降温降压，再进入第一冷水板换热器33与冷水换热，接着进入气液分离器35，最后进入压缩机完成一个制冷循环。Working condition 1, when the wet bulb temperature T is higher than 15 degrees Celsius, the inverter compressor 31 of the air conditioner is started, and the refrigerant is compressed by the inverter compressor 31 into high temperature and high pressure gas; through the oil separator 34, the separated refrigerant gas is carried out. The lubricating oil enters the condenser 32 and dissipates heat under the action of the fan 321 (that is, the outdoor unit); passes through the second one-way valve 39, enters the filter 391 for filtration, and passes through the electronic expansion valve 392 to cool down and reduce the pressure of the refrigerant. , then enter the first cold water plate heat exchanger 33 to exchange heat with cold water, then enter the gas-liquid separator 35, and finally enter the compressor to complete a refrigeration cycle.

工况二，当湿球温度T在10～15摄氏度时，开启变频水泵46和排风扇413，变频水泵46将循环水箱43中的水抽至喷淋头45中，通过喷淋头45将水雾化，实现雾化喷淋，对冷却管44进行降温处理。此时变频水泵46保持最大转速，同时调节排风扇413的转速使冷水在第二冷水板换热器22中达到进口温度15摄氏度。Working condition 2, when the wet bulb temperature T is 10-15 degrees Celsius, the variable frequency water pump 46 and the exhaust fan 413 are turned on, and the variable frequency water pump 46 pumps the water in the circulating water tank 43 to the sprinkler head 45, and the water mist is sprayed through the sprinkler head 45. to realize atomization and spraying, and perform cooling treatment on the cooling pipe 44 . At this time, the variable frequency water pump 46 maintains the maximum speed, and at the same time adjusts the speed of the exhaust fan 413 so that the cold water reaches the inlet temperature of 15 degrees Celsius in the second cold water plate heat exchanger 22 .

工况三，当湿球温度T在-5～10摄氏度时，开启变频水泵46和排风扇413，排风扇413保持最小转速，同时调节变频水泵46的转速使冷水在第二冷水板换热器22中达到进口温度15摄氏度。Working condition 3, when the wet bulb temperature T is -5 to 10 degrees Celsius, the variable frequency water pump 46 and the exhaust fan 413 are turned on, the exhaust fan 413 maintains the minimum speed, and the speed of the variable frequency water pump 46 is adjusted to make the cold water in the second cold water plate heat exchanger 22. An inlet temperature of 15°C is reached.

工况四，当湿球温度T低于-3摄氏度时，关闭变频水泵46及排风扇413，使冷却水管自热冷却。In working condition 4, when the wet bulb temperature T is lower than -3 degrees Celsius, the variable frequency water pump 46 and the exhaust fan 413 are turned off, so that the cooling water pipe is cooled by self-heating.

本发明所体现出的优势是可以根据室外湿球温度来选择***的运行模式，提高制冷***10的制冷效率和制冷***10的可靠性；同时本***在全年运行中，在温度低于一定温度时充分利用室外冷源，节约能源，降低功耗，给室内负载设备降温。The advantage of the present invention is that the operation mode of the system can be selected according to the outdoor wet bulb temperature, so as to improve the refrigeration efficiency of the refrigeration system 10 and the reliability of the refrigeration system 10; Make full use of the outdoor cold source when the temperature is high, save energy, reduce power consumption, and cool the indoor load equipment.

本具体实施例仅仅是对本发明的解释，其并不是对本发明的限制，本领域技术人员在阅读完本说明书后可以根据需要对本实施例做出没有创造性贡献的修改，但只要在本发明的权利要求范围内都受到专利法的保护。This specific embodiment is only an explanation of the present invention, and it does not limit the present invention. Those skilled in the art can make modifications without creative contribution to the present embodiment as required after reading this specification, but as long as the rights of the present invention are used All claims are protected by patent law.

Claims (10)

1.一种节能型空调，包括制冷***(10)、通风***(20)及控制***，其特征在于，所述制冷***(10)包括风冷循环***(30)及水冷循环***(40)，所述风冷循环***(30)包括变频压缩机(31)、冷凝器(32)、第一冷水板换热器(33)，所述变频压缩机(31)、冷凝器(32)及第一冷水板换热器(33)均通过管道依次连通，即所述变频压缩机(31)将制冷剂输送至所述冷凝器(32)制冷，再将制冷后的制冷剂输送至所述第一冷水板换热器(33)中实现制冷剂换热，最后制冷剂从所述第一冷水板换热器(33)输送至所述变频压缩机(31)中完成一次风冷循环；1. An energy-saving air conditioner comprising a refrigeration system (10), a ventilation system (20) and a control system, wherein the refrigeration system (10) comprises an air-cooled circulation system (30) and a water-cooled circulation system (40) , the air-cooled circulation system (30) comprises a variable frequency compressor (31), a condenser (32), a first cold water plate heat exchanger (33), the variable frequency compressor (31), the condenser (32) and the The first cold water plate heat exchangers (33) are connected in sequence through pipes, that is, the variable frequency compressor (31) transports the refrigerant to the condenser (32) for cooling, and then transports the refrigerated refrigerant to the Refrigerant heat exchange is realized in the first cold water plate heat exchanger (33), and finally the refrigerant is transported from the first cold water plate heat exchanger (33) to the variable frequency compressor (31) to complete an air cooling cycle; 所述水冷循环***(40)包括冷却塔(41)，所述冷却塔(41)侧壁上设置有固定设置有用于检测冷却塔(41)空间温度的湿球温度计(42)，所述冷却塔(41)底部设置有循环水箱(43)，所述冷却塔(41)侧壁上穿设设置有冷却管(44)，所述冷却管(44)设置在所述循环水箱(43)上方，所述冷却塔(41)中设置有喷淋头(45)，所述喷淋头(45)设置在冷却管(44)正上方，所述喷淋头(45)通过管道与所述循环水箱(43)连通设置，所述冷却塔(41)一侧还设置有用于抽取所述循环水箱(43)中的水进入喷淋头(45)的抽水装置；The water cooling circulation system (40) includes a cooling tower (41), and a wet bulb thermometer (42) for detecting the space temperature of the cooling tower (41) is fixedly arranged on the side wall of the cooling tower (41). A circulating water tank (43) is arranged at the bottom of the tower (41), and a cooling pipe (44) is arranged on the side wall of the cooling tower (41), and the cooling pipe (44) is arranged above the circulating water tank (43) , the cooling tower (41) is provided with a spray head (45), the spray head (45) is arranged directly above the cooling pipe (44), and the spray head (45) communicates with the circulation through the pipe The water tank (43) is communicated and arranged, and a water pumping device for extracting the water in the circulating water tank (43) into the shower head (45) is also provided on one side of the cooling tower (41); 所述通风***(20)包括空调内机(21)及第二冷水板换热器(22)，所述空调内机(21)设置有若干个，所述空调内机(21)包括U型热管(213)蒸发器(211)及送风扇(212)，所述送风扇(212)正对所述U型热管(213)蒸发器(211)设置，所述U型热管(213)蒸发器(211)通过管道与所述第二冷水板换热器(22)连通形成制冷回路，所述第二冷水板换热器(22)通过管道与所述冷却管(44)连通形成第一换热回路管道，所述第一冷水板换热器(33)通过交换管与所述冷却管(44)连通实现第一冷水板换热器(33)与第二冷水板换热器(22)之间的第二换热回路管道；The ventilation system (20) includes an air conditioner internal unit (21) and a second cold water plate heat exchanger (22), a plurality of the air conditioner internal units (21) are provided, and the air conditioner internal unit (21) includes a U-shaped unit. A heat pipe (213) evaporator (211) and a blower fan (212), the blower fan (212) is disposed facing the U-shaped heat pipe (213) evaporator (211), and the U-shaped heat pipe (213) evaporator (211) communicate with the second cold water plate heat exchanger (22) through a pipeline to form a refrigeration circuit, and the second cold water plate heat exchanger (22) communicate with the cooling pipe (44) through a pipeline to form a first exchange The heat circuit pipeline, the first cold water plate heat exchanger (33) communicates with the cooling pipe (44) through the exchange pipe to realize the first cold water plate heat exchanger (33) and the second cold water plate heat exchanger (22) between the second heat exchange circuit pipes; 所述控制***包括空调控制模块，所述变频压缩机(31)、湿球温度计(42)及抽水装置均与所述空调控制模块电性连接。The control system includes an air conditioning control module, and the variable frequency compressor (31), the wet bulb thermometer (42) and the water pumping device are all electrically connected to the air conditioning control module. 2.根据权利要求1所述的一种节能型空调，其特征在于，所述冷却管(44)包括冷却出水管(441)及冷却进水管(442)，所述第一冷水板换热器(33)靠近第二冷水板换热器(22)一端设置有出水管(331)及进水管(332)，所述出水管(331)与所述冷却出水管(441)连接处为出水交点(50)，所述进水管(332)与所述冷却进水管(442)连接处为进水交点(60)，所述冷却出水管(441)上设置有冷水出口水温传感器(70)，所述冷水出口水温传感器(70)设置在所述出水交点(50)及所述冷却塔(41)之间的冷却出水管(441)上，所述冷却进水管(442)上设置有冷水进口水温传感器(71)，所述冷水进口水温传感器(71)设置在所述进水交点(60)及所述冷却塔(41)之间的冷却进水管(442)上，所述冷水出口水温传感器(70)、所述冷水进口水温传感器(71)均与所述空调控制模块电性连接。2. The energy-saving air conditioner according to claim 1, wherein the cooling pipe (44) comprises a cooling water outlet pipe (441) and a cooling water inlet pipe (442), and the first cold water plate heat exchanger (33) A water outlet pipe (331) and a water inlet pipe (332) are arranged near one end of the second cold water plate heat exchanger (22), and the connection between the water outlet pipe (331) and the cooling water outlet pipe (441) is the water outlet intersection point (50), the connection between the water inlet pipe (332) and the cooling water inlet pipe (442) is the water inlet intersection (60), and the cooling water outlet pipe (441) is provided with a cold water outlet water temperature sensor (70), so The cold water outlet water temperature sensor (70) is arranged on the cooling water outlet pipe (441) between the water outlet intersection (50) and the cooling tower (41), and the cooling water inlet pipe (442) is provided with a cold water inlet water temperature A sensor (71), the cold water inlet water temperature sensor (71) is arranged on the cooling water inlet pipe (442) between the water inlet intersection (60) and the cooling tower (41), the cold water outlet water temperature sensor ( 70) The cold water inlet water temperature sensors (71) are all electrically connected to the air conditioning control module. 3.根据权利要求2所述的一种节能型空调，其特征在于，所述冷却出水管(441)及所述冷却进水管(442)上均设置有冷水电磁阀(80)，各所述冷水电磁阀(80)分别设置在出水交点(50)与冷却塔(41)之间及进水交点(60)与冷却塔(41)之间，所述出水管(331)上设置有冷水出水电磁阀(81)，所述冷水出水电磁阀(81)设置在出水交点(50)及第一冷水板换热器(33)之间，所述进水管(332)上设置有冷水进水电磁阀(82)，所述冷水进水电磁阀(82)设置在进水交点(60)及第一冷水板换热器(33)之间，所述冷水电磁阀(80)、所述冷水出水电磁阀(81)、所述冷水进水电磁阀(82)均与所述空调控制模块电性连接。3 . The energy-saving air conditioner according to claim 2 , wherein the cooling water outlet pipe ( 441 ) and the cooling water inlet pipe ( 442 ) are both provided with cold water solenoid valves ( 80 ). The cold water solenoid valve (80) is respectively arranged between the water outlet intersection (50) and the cooling tower (41) and between the inlet water intersection (60) and the cooling tower (41), and the water outlet pipe (331) is provided with a cold water outlet A solenoid valve (81), the cold water outlet solenoid valve (81) is arranged between the water outlet intersection (50) and the first cold water plate heat exchanger (33), and a cold water inlet solenoid is arranged on the water inlet pipe (332) valve (82), the cold water inlet solenoid valve (82) is arranged between the water inlet intersection (60) and the first cold water plate heat exchanger (33), the cold water solenoid valve (80), the cold water outlet The solenoid valve (81) and the cold water inlet solenoid valve (82) are both electrically connected to the air conditioning control module. 4.根据权利要求1所述的一种节能型空调，其特征在于，所述第二冷水板换热器(22)的安装位置在竖直方向上高于所述U型热管(213)蒸发器(211)的安装位置至少1m，所述U型热管(213)蒸发器(211)与第二冷水板换热器(22)之间的管道上设置有末端电子膨胀阀(23)，所述末端电子膨胀阀(23)与所述空调控制模块电性连接。4. An energy-saving air conditioner according to claim 1, characterized in that, the installation position of the second cold water plate heat exchanger (22) is higher than the U-shaped heat pipe (213) evaporation in the vertical direction The installation position of the evaporator (211) is at least 1m, and the pipe between the evaporator (211) of the U-shaped heat pipe (213) and the second cold water plate heat exchanger (22) is provided with a terminal electronic expansion valve (23), so The terminal electronic expansion valve (23) is electrically connected with the air conditioning control module. 5.根据权利要求4所述的一种节能型空调，其特征在于，所述U型热管(213)蒸发器(211)包括U型热管(213)，所述U型热管(213)设置有若干组，各所述U型热管(213)均并列且错开设置，所述U型热管(213)两端管口分别与第二冷水板换热器(22)的进水口及出水口连通设置，且所述U型热管(213)出口端设置有第一单向阀(214)，所述U型热管(213)进口端设置有电磁阀(215)，所述电磁阀(215)与所述空调控制模块电性连接。The energy-saving air conditioner according to claim 4, wherein the U-shaped heat pipe (213) and the evaporator (211) comprise a U-shaped heat pipe (213), and the U-shaped heat pipe (213) is provided with Several groups, each of the U-shaped heat pipes (213) are arranged side by side and staggered, and the nozzles at both ends of the U-shaped heat pipes (213) are respectively communicated with the water inlet and outlet of the second cold water plate heat exchanger (22). , and the outlet end of the U-shaped heat pipe (213) is provided with a first one-way valve (214), and the inlet end of the U-shaped heat pipe (213) is provided with a solenoid valve (215), the solenoid valve (215) and the The air-conditioning control module is electrically connected. 6.根据权利要求1所述的一种节能型空调，其特征在于，所述冷却塔(41)顶部开设有出风口(411)，所述冷却塔(41)侧壁上开设有进风口(412)，所述进风口(412)与所述出风口(411)之间形成风冷区域，所述出风口(411)设置有排风扇(413)，所述排风扇(413)正对出风口(411)设置用于加速冷却塔(41)中空气流通，且所述出风口(411)开设在冷却管(44)下方，即所述冷却管(44)设置在风冷区域中，所述排风扇(413)与所述空调控制模块电性连接。6. An energy-saving air conditioner according to claim 1, wherein an air outlet (411) is provided on the top of the cooling tower (41), and an air inlet (411) is provided on the side wall of the cooling tower (41). 412), an air cooling area is formed between the air inlet (412) and the air outlet (411), the air outlet (411) is provided with an exhaust fan (413), and the exhaust fan (413) is facing the air outlet (412). 411) is arranged to accelerate the air circulation in the cooling tower (41), and the air outlet (411) is opened below the cooling pipe (44), that is, the cooling pipe (44) is arranged in the air-cooled area, and the exhaust fan (413) Electrically connected to the air conditioning control module. 7.根据权利要求1所述的一种节能型空调，其特征在于，所述抽水装置为变频水泵(46)，所述变频水泵(46)设置在所述循环水箱(43)及所述喷淋头(45)之间的管道中，所述变频水泵(46)输水侧及进水侧的管道上均设置有第一冷却水球阀(47)，且所述变频水泵(46)与第一冷却水球阀(47)之间设置有冷水泵(49)防震锁头。7. An energy-saving air conditioner according to claim 1, characterized in that the water pumping device is a variable frequency water pump (46), and the variable frequency water pump (46) is arranged in the circulating water tank (43) and the sprayer In the pipeline between the shower heads (45), a first cooling water ball valve (47) is provided on the pipelines on the water delivery side and the water inlet side of the variable frequency water pump (46), and the variable frequency water pump (46) is connected to the first cooling water ball valve (47). Between a cooling water ball valve (47), an anti-vibration lock head of a cooling water pump (49) is arranged. 8.根据权利要求1所述的一种节能型空调，其特征在于，所述喷淋头(45)与循环水箱(43)之间的管道上串联设置有软水处理装置(48)。8 . The energy-saving air conditioner according to claim 1 , wherein a soft water treatment device ( 48 ) is arranged in series on the pipeline between the sprinkler head ( 45 ) and the circulating water tank ( 43 ). 9 . 9.根据权利要求1所述的一种节能型空调，其特征在于，所述第二冷水板换热器(22)的换热管路中设置有用于加速水循环的冷水泵(49)，所述冷水泵(49)输水侧及进水侧管道上均设置有第二冷却水球阀(491)，且所述冷水泵(49)与第二冷却水球阀(491)之间设置有冷水泵(49)防震锁头。9 . The energy-saving air conditioner according to claim 1 , wherein a cold water pump ( 49 ) for accelerating water circulation is arranged in the heat exchange pipeline of the second cold water plate heat exchanger ( 22 ). 10 . A second cooling water ball valve (491) is arranged on both the water delivery side and the water inlet side of the cold water pump (49), and a cold water pump is arranged between the cold water pump (49) and the second cooling water ball valve (491). (49) Anti-vibration lock head. 10.根据权利要求1所述的一种节能型空调，其特征在于，所述变频压缩机(31)与所述冷凝器(32)之间串联设置有油分离器(34)，所述变频压缩机(31)与所述第一冷水板换热器(33)之间串联设置有气液分离器(35)。10. The energy-saving air conditioner according to claim 1, characterized in that an oil separator (34) is arranged in series between the inverter compressor (31) and the condenser (32), and the inverter compressor (31) is provided with an oil separator (34) in series. A gas-liquid separator (35) is arranged in series between the compressor (31) and the first cold water plate heat exchanger (33).
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