CN204128099U - Multi-mode operation sweat cooling is for water-cooling device - Google Patents

Multi-mode operation sweat cooling is for water-cooling device Download PDF

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Publication number
CN204128099U
CN204128099U CN201420267671.XU CN201420267671U CN204128099U CN 204128099 U CN204128099 U CN 204128099U CN 201420267671 U CN201420267671 U CN 201420267671U CN 204128099 U CN204128099 U CN 204128099U
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air
refrigerating plant
intake port
cooling
water
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于向阳
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XINJIANG GREEN REFRESHING ANGEL AIR ENVIRONMENT CO Ltd
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XINJIANG GREEN REFRESHING ANGEL AIR ENVIRONMENT CO Ltd
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Abstract

The utility model relates to HVAC and field of energy-saving technology, that a kind of multi-mode operation sweat cooling is for water-cooling device, it comprises evaporation-refrigeration device, described evaporation-refrigeration device comprises sweat cooling filler, spray equipment, cyclic water tank, water circulating pump, exhausting duct, refrigerating plant bottom air inlet, it is characterized in that there is air compartment outside the evaporation-refrigeration device that refrigerating plant bottom air inlet is corresponding, the first air intake port is had in the bottom of air compartment, evaporation-refrigeration device is provided with the refrigerating plant top air inlet being communicated with air compartment and exhausting duct, first air intake port is communicated with refrigerating plant bottom air inlet by air compartment.The utility model reasonable and compact in structure, easy to use, it is by switching the flow direction of air, according to different climate conditions and weather condition, can use as handpiece Water Chilling Units or cooling tower in the different time periods, have practical, the scope of application wide, energy-conserving and environment-protective, efficiently feature.

Description

Multi-mode operation sweat cooling is for water-cooling device
Technical field
The utility model relates to HVAC and field of energy-saving technology, is that a kind of multi-mode operation sweat cooling is for water-cooling device.
Background technology
At present the technology that dry air can prepare cold water for drive source is applied in summer air-conditioning chilled water system comparatively maturely, but this technology present stage is mainly used in summer, and majority is applied in the central air conditioner system of civil buildings; But the temperature of outdoor is lower due to winter, especially in severe cold area, the antifreeze of unit becomes main problem, this technology is used in the air-conditioning system all needed throughout the year by cooling water temperature, is generally difficult to reach instructions for use; Dry air is utilized to prepare cold water in addition, the height of leaving water temperature is determined by the weather in the external world, because mesoclimate situation is different at all seasons, weather condition is different, if the operational mode of sweat cooling handpiece Water Chilling Units is single, the waste of the energy may will be caused.
Utility model content
The utility model provides a kind of multi-mode operation sweat cooling for water-cooling device, overcome the deficiency of above-mentioned prior art, it effectively can solve existing sweat cooling handpiece Water Chilling Units cannot solve the problem that unit preventing freeze in winter problem, operational mode are comparatively single, easily cause energy waste.
One of the technical solution of the utility model is realized by following measures: a kind of multi-mode operation sweat cooling is for water-cooling device, it comprises evaporation-refrigeration device, described evaporation-refrigeration device comprises sweat cooling filler, spray equipment, cyclic water tank, water circulating pump, exhausting duct, refrigerating plant bottom air inlet, it is characterized in that there is air compartment outside the evaporation-refrigeration device that refrigerating plant bottom air inlet is corresponding, the first air intake port is had in the bottom of air compartment, evaporation-refrigeration device is provided with the refrigerating plant top air inlet being communicated with air compartment and exhausting duct, first air intake port is communicated with refrigerating plant bottom air inlet by air compartment, first air intake port is communicated with refrigerating plant top air inlet by air compartment, refrigerating plant bottom air inlet is provided with bottom quantity switch of air device, and refrigerating plant top air inlet is provided with top quantity switch of air device, water circulating pump delivery port is provided with the pumping line that can be connected with user's heat-exchange end, system return surface-type heat-exchanger rig is installed in air compartment, system return surface-type heat-exchanger rig is provided with user's heat-exchange end return pipe that can be connected with user's heat-exchange end, system return surface-type heat-exchanger rig is provided with the system return spray header that can be connected with spray equipment.
Two of the technical solution of the utility model is realized by following measures: a kind of multi-mode operation sweat cooling is for water-cooling device, it comprises evaporation-refrigeration device, described evaporation-refrigeration device comprises sweat cooling filler, spray equipment, cyclic water tank, water circulating pump, exhausting duct, refrigerating plant bottom air inlet, air compartment is had outside the evaporation-refrigeration device that its refrigerating plant bottom air inlet is corresponding, the first air intake port is had in the bottom of air compartment, evaporation-refrigeration device is provided with the refrigerating plant top air inlet being communicated with air compartment and exhausting duct, first air intake port is communicated with refrigerating plant bottom air inlet by air compartment, first air intake port is communicated with refrigerating plant top air inlet by air compartment, refrigerating plant bottom air inlet is provided with bottom quantity switch of air device, and refrigerating plant top air inlet is provided with top quantity switch of air device, water circulating pump delivery port is provided with the pumping line that can be connected with user's heat-exchange end, self-loopa surface-type heat-exchanger rig is installed in air compartment, self-loopa surface-type heat-exchanger rig is provided with the water pump return pipe that can be connected with water circulating pump delivery port, self-loopa surface-type heat-exchanger rig is provided with the self-loopa backwater spray header that can be connected with spray equipment, spray equipment has user's heat-exchange end return pipe that can be connected with user's heat-exchange end.
Here be to one of above-mentioned utility model technical scheme or/and two further optimization and/or improvements:
System return surface-type heat-exchanger rig is installed in above-mentioned air compartment, and the waterway channel of system return surface-type heat-exchanger rig and user's heat-exchange end return pipe are serially connected.
Have housing outside the evaporation-refrigeration device that above-mentioned refrigerating plant bottom air inlet is corresponding, the outer wall of housing and evaporation-refrigeration device forms air compartment; First air intake port is located at the bottom of housing; Self-loopa surface-type heat-exchanger rig is or/and system return surface-type heat-exchanger rig is arranged on the first air intake port.
Have housing outside the evaporation-refrigeration device that above-mentioned refrigerating plant bottom air inlet is corresponding, the outer wall of housing and evaporation-refrigeration device forms air compartment; First air intake port is located at the bottom of housing; Self-loopa surface-type heat-exchanger rig is or/and system return surface-type heat-exchanger rig keeps flat or tiltedly puts or stand up in air compartment.
Housing above above-mentioned first air intake port is provided with the second air intake port, and the second air intake port is communicated with refrigerating plant bottom air inlet and refrigerating plant top air inlet by air compartment; First air intake port is provided with the first quantity switch of air device, and the second air intake port is provided with the second quantity switch of air device.
Above-mentioned evaporation-refrigeration device is provided with the refrigerating plant air draft port communicated with exhausting duct, is provided with exhaust blower in refrigerating plant air draft port; Spray equipment is located at above sweat cooling filler, and cyclic water tank is located at below sweat cooling filler, and the delivery port of cyclic water tank is communicated with water circulating pump import by radiator drain.
The utility model reasonable and compact in structure, easy to use, it is by switching the flow direction of air, according to different climate conditions and weather condition, can use as handpiece Water Chilling Units or cooling tower in the different time periods, have practical, the scope of application wide, energy-conserving and environment-protective, efficiently feature.
Accompanying drawing explanation
Accompanying drawing 1 is the main TV structure schematic diagram of the utility model embodiment 1.
Accompanying drawing 2 is the main TV structure schematic diagram of the utility model embodiment 2.
Accompanying drawing 3 is the main TV structure schematic diagram of the utility model embodiment 3.
Accompanying drawing 4 is the main TV structure schematic diagram of the utility model embodiment 12.
Accompanying drawing 5 is the main TV structure schematic diagram of the utility model embodiment 13.
Coding in accompanying drawing is respectively: 1 is housing, 2 is evaporation-refrigeration device, 3 is self-loopa surface-type heat-exchanger rig, 4 is the first air intake port, 5 is refrigerating plant air draft port, 6 is refrigerating plant bottom air inlet, 7 is air compartment, 8 is exhausting duct, 9 is refrigerating plant top air inlet, 10 is exhaust blower, 11 is bottom quantity switch of air device, 12 is top quantity switch of air device, 13 is sweat cooling filler, 14 is spray equipment, 15 is cyclic water tank, 16 is user's heat-exchange end feed pipe, 17 is user's heat-exchange end return pipe, 18 is water circulating pump, 19 is system return spray header, 20 is user's heat-exchange end, 21 is the second air intake port, 22 is the second quantity switch of air device, 23 is the first quantity switch of air device, 24 is system return surface-type heat-exchanger rig, 25 is water pump return pipe, 26 is self-loopa backwater spray header.
Detailed description of the invention
The utility model by the restriction of following embodiment, can not determine concrete embodiment according to the technical solution of the utility model and actual conditions.
Below in conjunction with embodiment and accompanying drawing, one of technical solutions of the utility model are further described:
Embodiment 1: as shown in Figure 1, this multi-mode operation sweat cooling comprises evaporation-refrigeration device 2 for water-cooling device, described evaporation-refrigeration device 2 comprises sweat cooling filler 13, spray equipment 14, cyclic water tank 15, water circulating pump 18, exhausting duct 8, refrigerating plant bottom air inlet 6, air compartment 7 is had outside the evaporation-refrigeration device 2 that its refrigerating plant bottom air inlet 6 is corresponding, the first air intake port 4 is had in the bottom of air compartment 7, evaporation-refrigeration device 2 is provided with the refrigerating plant top air inlet 9 being communicated with air compartment 7 and exhausting duct 8, first air intake port 4 is communicated with refrigerating plant bottom air inlet 6 by air compartment 7, first air intake port 4 is communicated with refrigerating plant top air inlet 9 by air compartment 7, refrigerating plant bottom air inlet 6 is provided with bottom quantity switch of air device 11, and refrigerating plant top air inlet 9 is provided with top quantity switch of air device 12, water circulating pump 18 delivery port is provided with the pumping line that can be connected with user's heat-exchange end 20, system return surface-type heat-exchanger rig 24 is installed in air compartment 7, system return surface-type heat-exchanger rig 24 is provided with user's heat-exchange end return pipe 17 that can be connected with user's heat-exchange end 20, system return surface-type heat-exchanger rig 24 is provided with the system return spray header 19 that can be connected with spray equipment 14.
The utility model is by changing the flow process of air, different operational modes can be realized, need in the system of air conditioner cold water in summer, the utility model can utilize dry air can prepare high temperature cold water supply air-conditioning system, drive source of the present utility model is dry air in the process, main power consumption is exhaust blower 10 and water circulating pump 18, therefore more saves electric energy relative to the traditional air-conditioning taking electricity as drive source, when the temperature of cold water prepared by the utility model can not meet air-conditioning system, the utility model can use as cooling tower, using handpiece Water Chilling Units traditional for the Cold water supply of preparation as cooling water, therefore when matching with traditional handpiece Water Chilling Units, cooling tower can be set no longer separately, the initial cost of project can be reduced, and the leaving water temperature that leaving water temperature of the present utility model compares cooling tower is low, the Energy Efficiency Ratio of traditional handpiece Water Chilling Units can be improved, and when traditional handpiece Water Chilling Units and the utility model with the use of time, traditional handpiece Water Chilling Units can often be opened, traditional handpiece Water Chilling Units is opened again when the water temperature of cold water prepared by the utility model can not meet, and then whole air-conditioner water system is more energy-conservation relative to only using traditional handpiece Water Chilling Units, in the occasion that some caloric values are large, need annual cooling, the utility model is by changing the flow direction of wind, by the cold air of outdoor, the water that temperature raises is lowered the temperature, again in this process, make use of the free cold in the Nature, and the utility model can realize the antifreeze of winter, consider the weather of the extreme low temperature of outdoor, severe cold area fully.There are two kinds of operational modes:
Operational mode one: air after system return surface-type heat-exchanger rig 24 entered by evaporation-refrigeration device bottom air inlet 6 in sweat cooling filler 13 with water generation caloic exchange system for cold water, outdoor is discharged to by exhaust blower 10 by the air of sweat cooling filler 13, this kind of operational mode be mainly used in when winter outdoor air temperature higher time, outdoor cold air is by the high-temperature water in system return surface-type heat-exchanger rig 24 cooling system backwater surface-type heat-exchanger rig 24, when the temperature of cooling water can not reach the instructions for use of user, water needs reducing temperature twice, in evaporation-refrigeration device 2, water contacts with air and realizes reducing temperature twice, leaving water temperature is made to reach the instructions for use of user.
Operational mode two: outdoor air, through system return surface-type heat-exchanger rig 24, enters air compartment 7, is directly discharged to outdoor by air compartment through exhaust blower 10, when this operational mode is mainly low for the temperature of the air of the outdoor when winter, outdoor air routing system backwater surface-type heat-exchanger rig 24, after the water cooling in system return surface-type heat-exchanger rig 24, after cooling, the temperature of water can reach the requirement of user, reducing temperature twice is not being needed by the water of system return surface-type heat-exchanger rig 24, this operational mode outdoor air is without evaporation-refrigeration device 2, also can preventing outdoor cold air from entering, that water temperature falls by evaporation-refrigeration device 2 inherence is too low even icing, therefore the effect of unit preventing freeze in winter can also be played.
Consider the impact of the strong cold wind in the outdoor in winter on system return surface-type heat-exchanger rig 24; system return surface-type heat-exchanger rig 24 is arranged in air compartment 7; strong cold wind can be avoided directly to blow to, and system return surface-type heat-exchanger rig 24 that system return surface-type heat-exchanger rig 24 causes energy unbalance to cause is lowered the temperature too fast; protected by housing 1 pair of system return surface-type heat-exchanger rig 24; system return surface-type heat-exchanger rig 24 can be avoided to lower the temperature too fast, prevent outdoor cold wind by the bursting by freezing of system return surface-type heat-exchanger rig 24.
The utility model is by switching the flow direction of air, utilize natural cooling source to prepare cold water at different usage time intervals, can use as handpiece Water Chilling Units or cooling tower at different time period the utility model, therefore practicality is stronger, the scope of application is wider, and more energy-conservation.
According to actual needs, above-mentioned multi-mode operation sweat cooling can be made further optimization and/or improvements for water-cooling device:
According to actual needs, have housing 1 outside the evaporation-refrigeration device 2 that refrigerating plant bottom air inlet 6 is corresponding, housing 1 forms air compartment 7 with the outer wall of evaporation-refrigeration device 2; First air intake port 4 is located at the bottom of housing 1; System return surface-type heat-exchanger rig 24 is arranged on the first air intake port 4 place.
According to actual needs, have housing 1 outside the evaporation-refrigeration device 2 that refrigerating plant bottom air inlet 6 is corresponding, housing 1 forms air compartment 7 with the outer wall of evaporation-refrigeration device 2; First air intake port 4 is located at the bottom of housing 1; System return surface-type heat-exchanger rig 24 keeps flat or tiltedly puts or stands up in air compartment 7.
According to actual needs, the housing 1 above the first air intake port 4 is provided with the second air intake port 21, second air intake port 21 and is communicated with refrigerating plant bottom air inlet 6 and refrigerating plant top air inlet 9 by air compartment 7; First air intake port 4 is provided with the first quantity switch of air device 23, second air intake port 21 and is provided with the second quantity switch of air device 22.
According to actual needs, evaporation-refrigeration device 2 is provided with the refrigerating plant air draft port 5 communicated with exhausting duct 8, and at refrigerating plant air draft port 5, place is provided with exhaust blower 10; Spray equipment 14 is located at above sweat cooling filler 13, cyclic water tank 15 is located at below sweat cooling filler 13, the delivery port of cyclic water tank 15 is connected with user's heat-exchange end feed pipe 16, the water inlet of system return surface-type heat-exchanger rig 24 is connected with user's heat-exchange end return pipe 17, user's heat-exchange end feed pipe 16 or user's heat-exchange end return pipe 17 are provided with water circulating pump 18, and the delivery port of system return surface-type heat-exchanger rig 24 is communicated by the water inlet of system return spray header 19 with spray equipment 14.
In embodiment 1, as shown in Figure 1, have housing 1 outside the evaporation-refrigeration device 2 that refrigerating plant bottom air inlet 6 is corresponding, housing 1 forms air compartment 7 with the outer wall of evaporation-refrigeration device 2; First air intake port 4 is located at the bottom of housing 1; System return surface-type heat-exchanger rig 24 is arranged on the first air intake port 4 place; Evaporation-refrigeration device 2 is provided with the refrigerating plant air draft port 5 communicated with exhausting duct 8, and at refrigerating plant air draft port 5, place is provided with exhaust blower 10; Spray equipment 14 is located at above sweat cooling filler 13, cyclic water tank 15 is located at below sweat cooling filler 13, the delivery port of cyclic water tank 15 is connected with user's heat-exchange end feed pipe 16, the water inlet of system return surface-type heat-exchanger rig 24 is connected with user's heat-exchange end return pipe 17, user's heat-exchange end feed pipe 16 or user's heat-exchange end return pipe 17 are provided with water circulating pump 18, and the delivery port of system return surface-type heat-exchanger rig 24 is communicated by the water inlet of system return spray header 19 with spray equipment 14.In addition, according to actual needs, system return surface-type heat-exchanger rig 24 can also tiltedly be put or lie in air compartment 7.
Embodiment 2: as shown in Figure 2, embodiment 2 is with the difference of embodiment 1, housing 1 above first air intake port 4 of embodiment 2 is provided with the second air intake port 21, second air intake port 21 lower end is close to mutually with the first air intake port 4 upper end, and the second air intake port 21 is communicated with refrigerating plant bottom air inlet 6 and refrigerating plant top air inlet 9 by air compartment 7; First air intake port 4 is provided with the first quantity switch of air device 23, second air intake port 21 and is provided with the second quantity switch of air device 22.
Embodiment 3: as shown in Figure 3, embodiment 3 is with the difference of embodiment 1, housing 1 above first air intake port 4 of embodiment 3 is provided with the second air intake port 21, there is a segment distance between second air intake port 21 lower end and the first air intake port 4 upper end, the second air intake port 21 is communicated with refrigerating plant bottom air inlet 6 and refrigerating plant top air inlet 9 by air compartment 7; First air intake port 4 is provided with the first quantity switch of air device 23, second air intake port 21 and is provided with the second quantity switch of air device 22; System return surface-type heat-exchanger rig 24 is tiltedly placed in air compartment 7, and between the first air intake port 4 and the second air intake port 21.In embodiment 3, system return surface-type heat-exchanger rig 24 is tilted to install and arranges, not only can reduce floor space of the present utility model, and the wind speed of the outdoor wind entering system return surface-type heat-exchanger rig 24 can be reduced, cause energy unbalance to cause system return surface-type heat-exchanger rig 24 by bursting by freezing because wind speed is too high when preventing from using in the winter time.
In addition, according to actual needs, bottom quantity switch of air device 11, top quantity switch of air device 12, first quantity switch of air device 23 and the second quantity switch of air device 22 can be valve or draw back plate.
According to actual needs, user's heat-exchange end 20 is communicated with between user's heat-exchange end feed pipe 16 and user's heat-exchange end return pipe 17.
As shown in Figure 1, above-described embodiment multi-mode operation sweat cooling for the using method of water-cooling device is: open bottom quantity switch of air device 11 and close top quantity switch of air device 12, outdoor wind enters air compartment 7 from the first air intake port 4 by system return surface-type heat-exchanger rig 24, outdoor wind is cooled by system return surface-type heat-exchanger rig 24, cooled outdoor wind enters sweat cooling filler 13 by bottom quantity switch of air device 11 and refrigerating plant bottom air inlet 6 afterwards, the shower water generation caloic sprayed with spray equipment 14 in sweat cooling filler 13 exchanges, the cold water of preparation falls into cyclic water tank 15, outdoor is drained into through exhausting duct 8 by the air of sweat cooling filler 13.
As shown in Figure 1, above-described embodiment multi-mode operation sweat cooling for the using method of water-cooling device is: open top quantity switch of air device 12 and close bottom quantity switch of air device 11, outdoor wind enters air compartment 7 from the first air intake port 4 by system return surface-type heat-exchanger rig 24, outdoor wind is by the water cooling in system return surface-type heat-exchanger rig 24, outdoor wind enters exhausting duct 8 by top quantity switch of air device 12 and refrigerating plant top air inlet 9 afterwards, drains into outdoor through exhausting duct 8.
As shown in Figure 2, above-described embodiment multi-mode operation sweat cooling for the using method of water-cooling device is: open bottom quantity switch of air device 11 and close top quantity switch of air device 12, by opening the first quantity switch of air device 23, outdoor wind is made to enter air compartment 7 and by system return surface-type heat-exchanger rig 24, outdoor wind is cooled by system return surface-type heat-exchanger rig 24, cooled outdoor wind enters sweat cooling filler 13 by bottom quantity switch of air device 11 and refrigerating plant bottom air inlet 6 afterwards, the shower water generation caloic sprayed with spray equipment 14 in sweat cooling filler 13 exchanges, the cold water of preparation falls into cyclic water tank 15, outdoor is drained into through exhausting duct 8 by the air of sweat cooling filler 13.
As shown in Figure 3, above-described embodiment multi-mode operation sweat cooling for the using method of water-cooling device is: open bottom quantity switch of air device 11 and close top quantity switch of air device 12, by opening the second quantity switch of air device 22, outdoor wind is cooled by system return surface-type heat-exchanger rig 24, cooled outdoor wind enters sweat cooling filler 13 by bottom quantity switch of air device 11 and refrigerating plant bottom air inlet 6 afterwards, the shower water generation caloic sprayed with spray equipment 14 in sweat cooling filler 13 exchanges, the cold water of preparation falls into cyclic water tank 15, outdoor is drained into through exhausting duct 8 by the air of sweat cooling filler 13.
As shown in Figure 2, above-described embodiment multi-mode operation sweat cooling for the using method of water-cooling device is: open top quantity switch of air device 12 and close bottom quantity switch of air device 11, by opening the first quantity switch of air device 23, outdoor wind is made to enter air compartment 7 and by system return surface-type heat-exchanger rig 24, outdoor wind is by the water cooling in system return surface-type heat-exchanger rig 24, outdoor wind enters exhausting duct 8 by top quantity switch of air device 12 and refrigerating plant top air inlet 9 afterwards, drains into outdoor through exhausting duct 8.
As shown in Figure 3, above-described embodiment multi-mode operation sweat cooling for the using method of water-cooling device is: open top quantity switch of air device 12 and close bottom quantity switch of air device 11, by opening the first quantity switch of air device 23, outdoor wind is made to enter air compartment 7 and by system return surface-type heat-exchanger rig 24, outdoor wind is by the water cooling in system return surface-type heat-exchanger rig 24, outdoor wind enters exhausting duct 8 by top quantity switch of air device 12 and refrigerating plant top air inlet 9 afterwards, drains into outdoor through exhausting duct 8.
As shown in Figure 2, above-described embodiment multi-mode operation sweat cooling for the using method of water-cooling device is: open bottom quantity switch of air device 11 and close top quantity switch of air device 12, by opening the second quantity switch of air device 22, outdoor wind is made to enter air compartment 7 and not by system return surface-type heat-exchanger rig 24, outdoor wind enters sweat cooling filler 13 by bottom quantity switch of air device 11 and refrigerating plant bottom air inlet 6 afterwards, the shower water generation caloic sprayed with spray equipment 14 in sweat cooling filler 13 exchanges, the cold water of preparation falls into cyclic water tank 15, outdoor is drained into through exhausting duct 8 by the air of sweat cooling filler 13.
As shown in Figure 3, above-described embodiment multi-mode operation sweat cooling for the using method of water-cooling device is: open bottom quantity switch of air device 11 and close top quantity switch of air device 12, by opening the first quantity switch of air device 23, outdoor wind is made to enter air compartment 7 and not by system return surface-type heat-exchanger rig 24, outdoor wind enters sweat cooling filler 13 by bottom quantity switch of air device 11 and refrigerating plant bottom air inlet 6 afterwards, the shower water generation caloic sprayed with spray equipment 14 in sweat cooling filler 13 exchanges, the cold water of preparation falls into cyclic water tank 15, outdoor is drained into through exhausting duct 8 by the air of sweat cooling filler 13.
Embodiment 12: as shown in Figure 4, this multi-mode operation sweat cooling comprises evaporation-refrigeration device 2 for water-cooling device, described evaporation-refrigeration device 2 comprises sweat cooling filler 13, spray equipment 14, cyclic water tank 15, water circulating pump 18, exhausting duct 8, refrigerating plant bottom air inlet 6, air compartment 7 is had outside the evaporation-refrigeration device 2 that its refrigerating plant bottom air inlet 6 is corresponding, the first air intake port 4 is had in the bottom of air compartment 7, evaporation-refrigeration device 2 is provided with the refrigerating plant top air inlet 9 being communicated with air compartment 7 and exhausting duct 8, first air intake port 4 is communicated with refrigerating plant bottom air inlet 6 by air compartment 7, first air intake port 4 is communicated with refrigerating plant top air inlet 9 by air compartment 7, refrigerating plant bottom air inlet 6 is provided with bottom quantity switch of air device 11, and refrigerating plant top air inlet 9 is provided with top quantity switch of air device 12, water circulating pump 18 delivery port is provided with the pumping line that can be connected with user's heat-exchange end 20, self-loopa surface-type heat-exchanger rig 3 is installed in air compartment 7, self-loopa surface-type heat-exchanger rig 3 is provided with the water pump return pipe 25 that can be connected with water circulating pump delivery port, self-loopa surface-type heat-exchanger rig 3 is provided with the self-loopa backwater spray header 26 that can be connected with spray equipment 14, spray equipment 14 has user's heat-exchange end return pipe 17 that can be connected with user's heat-exchange end 20.
Embodiment 12 is with the difference of embodiment 1: the self-loopa surface-type heat-exchanger rig 3 of embodiment 12 is provided with the water pump return pipe 25 that can be connected with water circulating pump 18 delivery port, self-loopa surface-type heat-exchanger rig 3 is provided with the self-loopa backwater spray header 26 that can be connected with spray equipment 14, spray equipment 14 has user's heat-exchange end return pipe 17 that can be connected with user's heat-exchange end 20.During work: the moisture in the cyclic water tank 15 of unit is two parts, part supply user heat-exchange end 20, another part supply self-loopa surface-type heat-exchanger rig 3, the backwater of user's heat-exchange end 20 communicates with the water inlet of the water outlet of self-loopa surface-type heat-exchanger rig 3 and the spray equipment 14 of unit.With being distinguished as of Fig. 1: the recirculated water in the self-loopa surface-type heat-exchanger rig 3 of embodiment 12 is unit self-circulating water, water temperature is lower than the recirculated water in system return surface-type heat-exchanger rig 24 in Fig. 1, and the water temperature of the cold water therefore produced is generally lower than the leaving water temperature of unit in Fig. 1.
Embodiment 13: as shown in figs. 4 and 5, be with the difference of embodiment 12: system return surface-type heat-exchanger rig 24 is installed in the air compartment 7 of embodiment 13, and the waterway channel of system return surface-type heat-exchanger rig 24 and user's heat-exchange end return pipe 17 are serially connected.During work: first pass through system return surface-type heat exchanger 24 by the backwater of user's heat-exchange end 20, system return surface-type heat exchanger 24 communicates with the water inlet of the water outlet of self-loopa surface-type heat exchanger 3 with the spray equipment 14 of unit, outdoor air is entered through refrigerating plant bottom air inlet and enters in sweat cooling filler 13 and carry out calorific value with shower water and exchange and produce cold water after first being cooled by self-loopa surface-type heat exchanger 3 again by system return surface-type heat exchanger 24, embodiment 13 is distinguished as with embodiment 12, the air of the outdoor of embodiment 13 is first by after the cooling of system return surface-type heat exchanger 24, in the cooling by self-loopa surface-type heat exchanger 3, meet the Optimized Matching principle of Energy harvesting, outdoor high temperature air first cools through high-temperature water, in the cooling through water at low temperature, the cold water that unit is produced is first by the heat exchange of user's heat-exchange end 20, in the heat exchange by system return surface-type heat exchanger 24, make use of the cold of the cold water that unit is produced fully, therefore more energy-conservation.
Above technical characteristic constitutes embodiment of the present utility model, and it has stronger adaptability and implementation result, can increase and decrease non-essential technical characteristic according to actual needs, meet the demand of different situations.

Claims (20)

1. a multi-mode operation sweat cooling is for water-cooling device, it comprises evaporation-refrigeration device, described evaporation-refrigeration device comprises sweat cooling filler, spray equipment, cyclic water tank, water circulating pump, exhausting duct, refrigerating plant bottom air inlet, it is characterized in that there is air compartment outside the evaporation-refrigeration device that refrigerating plant bottom air inlet is corresponding, the first air intake port is had in the bottom of air compartment, evaporation-refrigeration device is provided with the refrigerating plant top air inlet being communicated with air compartment and exhausting duct, first air intake port is communicated with refrigerating plant bottom air inlet by air compartment, first air intake port is communicated with refrigerating plant top air inlet by air compartment, refrigerating plant bottom air inlet is provided with bottom quantity switch of air device, and refrigerating plant top air inlet is provided with top quantity switch of air device, water circulating pump delivery port is provided with the pumping line that can be connected with user's heat-exchange end, system return surface-type heat-exchanger rig is installed in air compartment, system return surface-type heat-exchanger rig is provided with user's heat-exchange end return pipe that can be connected with user's heat-exchange end, system return surface-type heat-exchanger rig is provided with the system return spray header that can be connected with spray equipment.
2. multi-mode operation sweat cooling according to claim 1 is for water-cooling device, and it is characterized in that there is housing outside the evaporation-refrigeration device that refrigerating plant bottom air inlet is corresponding, the outer wall of housing and evaporation-refrigeration device forms air compartment; First air intake port is located at the bottom of housing; Self-loopa surface-type heat-exchanger rig is or/and system return surface-type heat-exchanger rig is arranged on the first air intake port.
3. multi-mode operation sweat cooling according to claim 1 and 2 is for water-cooling device, and it is characterized in that there is housing outside the evaporation-refrigeration device that refrigerating plant bottom air inlet is corresponding, the outer wall of housing and evaporation-refrigeration device forms air compartment; First air intake port is located at the bottom of housing; Self-loopa surface-type heat-exchanger rig is or/and system return surface-type heat-exchanger rig keeps flat or tiltedly puts or stand up in air compartment.
4. multi-mode operation sweat cooling according to claim 1 and 2 is for water-cooling device, it is characterized in that the housing above the first air intake port is provided with the second air intake port, the second air intake port is communicated with refrigerating plant bottom air inlet and refrigerating plant top air inlet by air compartment; First air intake port is provided with the first quantity switch of air device, and the second air intake port is provided with the second quantity switch of air device.
5. multi-mode operation sweat cooling according to claim 3 is for water-cooling device, it is characterized in that the housing above the first air intake port is provided with the second air intake port, the second air intake port is communicated with refrigerating plant bottom air inlet and refrigerating plant top air inlet by air compartment; First air intake port is provided with the first quantity switch of air device, and the second air intake port is provided with the second quantity switch of air device.
6. the multi-mode operation sweat cooling according to claim 1 or 2 or 5, for water-cooling device, is characterized in that evaporation-refrigeration device is provided with the refrigerating plant air draft port communicated with exhausting duct, is provided with exhaust blower in refrigerating plant air draft port; Spray equipment is located at above sweat cooling filler, and cyclic water tank is located at below sweat cooling filler, and the delivery port of cyclic water tank is communicated with water circulating pump import by radiator drain.
7. multi-mode operation sweat cooling according to claim 3 is for water-cooling device, it is characterized in that evaporation-refrigeration device is provided with the refrigerating plant air draft port communicated with exhausting duct, is provided with exhaust blower in refrigerating plant air draft port; Spray equipment is located at above sweat cooling filler, and cyclic water tank is located at below sweat cooling filler, and the delivery port of cyclic water tank is communicated with water circulating pump import by radiator drain.
8. multi-mode operation sweat cooling according to claim 4 is for water-cooling device, it is characterized in that evaporation-refrigeration device is provided with the refrigerating plant air draft port communicated with exhausting duct, is provided with exhaust blower in refrigerating plant air draft port; Spray equipment is located at above sweat cooling filler, and cyclic water tank is located at below sweat cooling filler, and the delivery port of cyclic water tank is communicated with water circulating pump import by radiator drain.
9. a multi-mode operation sweat cooling is for water-cooling device, it comprises evaporation-refrigeration device, described evaporation-refrigeration device comprises sweat cooling filler, spray equipment, cyclic water tank, water circulating pump, exhausting duct, refrigerating plant bottom air inlet, it is characterized in that there is air compartment outside the evaporation-refrigeration device that refrigerating plant bottom air inlet is corresponding, the first air intake port is had in the bottom of air compartment, evaporation-refrigeration device is provided with the refrigerating plant top air inlet being communicated with air compartment and exhausting duct, first air intake port is communicated with refrigerating plant bottom air inlet by air compartment, first air intake port is communicated with refrigerating plant top air inlet by air compartment, refrigerating plant bottom air inlet is provided with bottom quantity switch of air device, and refrigerating plant top air inlet is provided with top quantity switch of air device, water circulating pump delivery port is provided with the pumping line that can be connected with user's heat-exchange end, self-loopa surface-type heat-exchanger rig is installed in air compartment, self-loopa surface-type heat-exchanger rig is provided with the water pump return pipe that can be connected with water circulating pump delivery port, self-loopa surface-type heat-exchanger rig is provided with the self-loopa backwater spray header that can be connected with spray equipment, spray equipment has user's heat-exchange end return pipe that can be connected with user's heat-exchange end.
10. multi-mode operation sweat cooling according to claim 9 is for water-cooling device, it is characterized in that system return surface-type heat-exchanger rig is installed in air compartment, and the waterway channel of system return surface-type heat-exchanger rig and user's heat-exchange end return pipe are serially connected.
11. multi-mode operation sweat coolings according to claim 9 or 10 are for water-cooling device, and it is characterized in that there is housing outside the evaporation-refrigeration device that refrigerating plant bottom air inlet is corresponding, the outer wall of housing and evaporation-refrigeration device forms air compartment; First air intake port is located at the bottom of housing; Self-loopa surface-type heat-exchanger rig is or/and system return surface-type heat-exchanger rig is arranged on the first air intake port.
12. multi-mode operation sweat coolings according to claim 9 or 10 are for water-cooling device, and it is characterized in that there is housing outside the evaporation-refrigeration device that refrigerating plant bottom air inlet is corresponding, the outer wall of housing and evaporation-refrigeration device forms air compartment; First air intake port is located at the bottom of housing; Self-loopa surface-type heat-exchanger rig is or/and system return surface-type heat-exchanger rig keeps flat or tiltedly puts or stand up in air compartment.
13. multi-mode operation sweat coolings according to claim 11 are for water-cooling device, and it is characterized in that there is housing outside the evaporation-refrigeration device that refrigerating plant bottom air inlet is corresponding, the outer wall of housing and evaporation-refrigeration device forms air compartment; First air intake port is located at the bottom of housing; Self-loopa surface-type heat-exchanger rig is or/and system return surface-type heat-exchanger rig keeps flat or tiltedly puts or stand up in air compartment.
14. multi-mode operation sweat coolings according to claim 9 or 10 or 13 are for water-cooling device, it is characterized in that the housing above the first air intake port is provided with the second air intake port, the second air intake port is communicated with refrigerating plant bottom air inlet and refrigerating plant top air inlet by air compartment; First air intake port is provided with the first quantity switch of air device, and the second air intake port is provided with the second quantity switch of air device.
15. multi-mode operation sweat coolings according to claim 11 are for water-cooling device, it is characterized in that the housing above the first air intake port is provided with the second air intake port, the second air intake port is communicated with refrigerating plant bottom air inlet and refrigerating plant top air inlet by air compartment; First air intake port is provided with the first quantity switch of air device, and the second air intake port is provided with the second quantity switch of air device.
16. multi-mode operation sweat coolings according to claim 12 are for water-cooling device, it is characterized in that the housing above the first air intake port is provided with the second air intake port, the second air intake port is communicated with refrigerating plant bottom air inlet and refrigerating plant top air inlet by air compartment; First air intake port is provided with the first quantity switch of air device, and the second air intake port is provided with the second quantity switch of air device.
17. multi-mode operation sweat coolings according to claim 9 or 10 or 13 or 15 or 16, for water-cooling device, is characterized in that evaporation-refrigeration device is provided with the refrigerating plant air draft port communicated with exhausting duct, are provided with exhaust blower in refrigerating plant air draft port; Spray equipment is located at above sweat cooling filler, and cyclic water tank is located at below sweat cooling filler, and the delivery port of cyclic water tank is communicated with water circulating pump import by radiator drain.
18. multi-mode operation sweat coolings according to claim 11, for water-cooling device, is characterized in that evaporation-refrigeration device is provided with the refrigerating plant air draft port communicated with exhausting duct, are provided with exhaust blower in refrigerating plant air draft port; Spray equipment is located at above sweat cooling filler, and cyclic water tank is located at below sweat cooling filler, and the delivery port of cyclic water tank is communicated with water circulating pump import by radiator drain.
19. multi-mode operation sweat coolings according to claim 12, for water-cooling device, is characterized in that evaporation-refrigeration device is provided with the refrigerating plant air draft port communicated with exhausting duct, are provided with exhaust blower in refrigerating plant air draft port; Spray equipment is located at above sweat cooling filler, and cyclic water tank is located at below sweat cooling filler, and the delivery port of cyclic water tank is communicated with water circulating pump import by radiator drain.
20. multi-mode operation sweat coolings according to claim 14, for water-cooling device, is characterized in that evaporation-refrigeration device is provided with the refrigerating plant air draft port communicated with exhausting duct, are provided with exhaust blower in refrigerating plant air draft port; Spray equipment is located at above sweat cooling filler, and cyclic water tank is located at below sweat cooling filler, and the delivery port of cyclic water tank is communicated with water circulating pump import by radiator drain.
CN201420267671.XU 2014-05-25 2014-05-25 Multi-mode operation sweat cooling is for water-cooling device Active CN204128099U (en)

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN104101038B (en) * 2014-05-25 2017-02-08 新疆绿色使者干空气能源有限公司 multi-mode operation evaporation refrigeration cold water supply device and use method thereof

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN104101038B (en) * 2014-05-25 2017-02-08 新疆绿色使者干空气能源有限公司 multi-mode operation evaporation refrigeration cold water supply device and use method thereof

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