CN206330242U - The data center's dew point indirect evaporative Cooling Air-conditioning System driven based on photovoltaic - Google Patents
The data center's dew point indirect evaporative Cooling Air-conditioning System driven based on photovoltaic Download PDFInfo
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- CN206330242U CN206330242U CN201621371123.7U CN201621371123U CN206330242U CN 206330242 U CN206330242 U CN 206330242U CN 201621371123 U CN201621371123 U CN 201621371123U CN 206330242 U CN206330242 U CN 206330242U
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Abstract
The disclosed data center's dew point indirect evaporative Cooling Air-conditioning System driven based on photovoltaic of the utility model, including the data center's fresh air inlet and solar photovoltaic generation system outside the combined type dew point indirect evaporative cooling body in data center and data center on top, combined type dew point indirect evaporative cooling body is connected by closing fresh flue with data center fresh air inlet, and combined type dew point indirect evaporative cooling body is connected with solar photovoltaic generation system；Exhaust passage is formed in furred ceiling layer；Server cabinet group is uniformly distributed in the both sides of combined type dew point indirect evaporative cooling body；Two server cabinets in each server cabinet group are air side relatively, and the closing passage of heat is formed between the air side of two server cabinets, and the closing passage of heat is connected with exhaust passage.It is high and the problem of easily cause data center's interior air-flow tissue disorder that data center of the present utility model solves energy consumption for cooling that available data center air-conditioning is present with dew point indirect evaporative Cooling Air-conditioning System.
Description
Technical field
The utility model belongs to air-conditioning system technical field, and in particular to a kind of data center's dew driven based on photovoltaic
Point indirect evaporating-cooling air-conditioning system.
Background technology
Traditional data center mostly by the way of being blown under raised floor, is fully relied on precision air conditioner and arrogated with air-conditioning
Whole loads in data center, energy consumption is huge.Evaporation cooling technique is a skill using water evaporation absorption refrigeration
Art, eliminates compression refrigerating system, its plant capacity is small compared with tradition machinery is freezed, and cooling energy consumption is substantially reduced.In recent years,
Dew point indirect evaporative cooling technology at home and abroad has good application and research, and especially combined type dew point indirect evaporative is cold
But outdoor air, can be cooled to sub- wet-bulb temperature by air-conditioning, and the work of data center's cooling, humidification and wet purification can be met simultaneously
With.
The solar energy resources of nature is nexhaustible, belongs to free of contamination regenerative resource, is driven using photovoltaic power generation technology
Dynamic lower-powered combined type dew point indirect evaporative cooling air-conditioning, both can guarantee that the normal operation of air-conditioning equipment, again can be significantly
Reduce power consumption.
Traditional data center easily causes data center's interior air-flow tissue disorder and cold and hot blending with air-conditioning in use
Phenomenon is serious, causes cooling effect not good, and is to avoid this case, is to plan that cold and hot passage just seems particularly in data center
It is important.The characteristics of being humidified again with Wind Volume, small enthalpy difference and cooling in view of evaporation cooling, using data center's inner sealing heat
Passage simultaneously discharges its thermal current outdoor mode, can not only come hot and cold air is completely isolated, moreover it is possible to avoid wet in computer room
Degree accumulation.
Utility model content
The purpose of this utility model is to provide a kind of data center driven based on photovoltaic to be cooled down with dew point indirect evaporative
Air-conditioning system, solves energy consumption for cooling that available data center air-conditioning exists in use high and easily cause in data center
The problem of air current composition is chaotic.
The technical scheme that the utility model is used is that the data center driven based on photovoltaic is cooled down with dew point indirect evaporative
Air-conditioning system, includes the combined type dew point indirect evaporative cooling body being arranged in data center and is arranged at outside data center
Data center's fresh air inlet and solar photovoltaic generation system on top, and combined type dew point indirect evaporative cooling body passes through envelope
Close fresh flue to be connected with data center fresh air inlet, combined type dew point indirect evaporative cooling body and solar photovoltaic generation system
Connection；Form what is set on exhaust passage, and the two ends of exhaust passage and data center's two opposite sides wall in the furred ceiling layer of data center
Data center's exhaust outlet connection；All server cabinets form a server cabinet group with combination of two in data center,
All server cabinet groups are uniformly distributed in the both sides of combined type dew point indirect evaporative cooling body；In each server machine
In cabinet group, two server cabinets are air side relatively, closing heat are formed between the air side of two server cabinets logical
Road, and closing the passage of heat connected with exhaust passage, the inlet side of each server cabinet is respectively formed cold air duct；
Air intake control valve is provided with data center's fresh air inlet；Air draft control is provided with data center's exhaust outlet
Valve.
The characteristics of the utility model, also resides in：
Combined type dew point indirect evaporative cooling body, includes two combined type dew point indirect evaporative cooling air-conditionings, and often
The structure of individual combined type dew point indirect evaporative cooling air-conditioning is：Include and divide on air-conditioner housing, the relative two side of air-conditioner housing
It is not provided with air-conditioning air inlet, air conditioner air outlet, air-conditioner housing and is provided with heat exchange core body, heat exchange core body is sequentially arranged above
Having, overfire air fan, primary air fan has been arranged side by side above water-locator and dash filler, dash filler, and primary air fan is close to air-conditioning
Air-conditioning secondary exhausting mouthful is provided with above air outlet, overfire air fan on corresponding air-conditioner housing roof, air-conditioning secondary exhausting mouthful is even
Connect Secondary Air and recycle unit；Catch basin is provided with below heat exchange core body, catch basin is connected by water pipe with water-locator,
And water circulating pump is provided with water pipe；The air-conditioning air inlet of two combined type dew point indirect evaporative cooling air-conditionings is in relative sets
Put, and two air-conditioning air inlets are connected with closing fresh flue；Two combined type dew point indirect evaporatives cool down air-conditioning by leading
Line is connected with solar photovoltaic generation system；Closing fresh flue is surrounded by transparent curtain.
Screen pack and air-valve are provided with air-conditioning air inlet.
Water-locator is made up of water distributor and multiple nozzles sprayed on water distributor and towards heat exchange core body that are uniformly arranged on, cloth
Water pipe is connected with water pipe.
Water circulating pump is immersible pump.
The surface of heat exchange core body is diagonally provided with a cribbing discharge orifice by air intake direction from bottom to top.
Secondary Air recycles unit, includes secondary exhausting pipe, air intake and the air-conditioning secondary exhausting of secondary exhausting pipe
Mouth connection, the outlet air end of secondary exhausting pipe is stretched out through exhaust passage and by the top of data center, and outlet air end is connected with air-flow
It is evenly arranged with jet pipe, gas flow jet pipe multiple towards penetrating that solar energy photovoltaic panel in solar photovoltaic generation system is blown
Return air inlet is provided with discharge orifice, one section of tube wall that secondary exhausting pipe is located in exhaust passage, return air is provided with return air inlet
Valve, secondary exhausting pipe, closing fresh flue and exhaust passage connection can be made by opening air returning valve.
Solar photovoltaic generation system, includes solar energy photovoltaic panel, and solar energy photovoltaic panel by wire successively with control
Device processed, inverter connection；Controller is connected by wire with electricity accumulating unit；Inverter passes through between wire and two combined type dew points
Connect Evaporative Cooling Air Conditioning connection.
Electricity accumulating unit is sequentially connected by wire by multiple batteries and constituted.
Solar energy photovoltaic panel is supported at the top of data center by riding.
The beneficial effects of the utility model are：
(1) data center of the present utility model dew point indirect evaporative Cooling Air-conditioning System, work(is driven using photovoltaic generation
The less combined type dew point indirect evaporative cooling air-conditioning of rate, both can guarantee that combined type dew point indirect evaporative cooled down the normal fortune of air-conditioning
OK, solar power generation is made full use of to reduce power consumption again.
(2) data center of the present utility model dew point indirect evaporative Cooling Air-conditioning System, indirect using combined type dew point
Evaporative Cooling Air Conditioning can realize cooling, humidification, the effect of purification simultaneously, and water consumption is smaller in use.
(3) data center of the present utility model dew point indirect evaporative Cooling Air-conditioning System, using straight in air current composition
Air draft and the closing united form of the passage of heat are flowed, the phenomenon of hot and cold air blending is not only avoid, and direct current air draft will can take
The heat of business device rack discharge is drained rapidly, rather than is absorbed, and energy consumption can not only so substantially reduced, moreover it is possible to avoided multiple
Box-like dew point indirect evaporative cooling air-conditioning can cause the ever-increasing phenomenon of data center's interior humidity.
(4) data center of the present utility model dew point indirect evaporative Cooling Air-conditioning System, profit is reclaimed using secondary exhausting
The Secondary Air for guiding combined type dew point indirect evaporative cooling air-conditioning to discharge with unit blows to solar energy photovoltaic panel, can be to solar energy
Volt plate is cooled and dust removal process, is turned waste into wealth and is realized the cascade utilization of energy, can so improve the light of solar energy photovoltaic panel
Electric transformation efficiency and the service life for extending solar energy photovoltaic panel.
(5) data center of the present utility model is empty with dew point indirect evaporative Cooling Air-conditioning System and traditional water-cooled frozen water type
Adjusting system is compared：The equipment such as cooling tower, refrigeration host computer and plate type heat exchanger are eliminated, the pipe network system of complexity is also eliminated accordingly
System, whole air-conditioning system operation maintenance is simple.
(6) data center of the present utility model dew point indirect evaporative Cooling Air-conditioning System, its internal combined type dew point
Indirect evaporating-cooling air-conditioning is placed in closing fresh flue using face-to-face (i.e. air intake surface is relative), effectively solves Leads to new breeze
The problem of；Combined type dew point indirect evaporative cools down air-conditioning side to the parallel air-supply of all server cabinets, and server cabinet is more
Close to low-temperature receiver and cool down it is more uniform.
Brief description of the drawings
Fig. 1 is structural representation of the data center of the present utility model with dew point indirect evaporative Cooling Air-conditioning System；
Fig. 2 is that data center of the present utility model is steamed indirectly with combined type dew point in dew point indirect evaporative Cooling Air-conditioning System
Feel cold the structural representation of but air-conditioning；
Fig. 3 is solar energy power generating system in dew point indirect evaporative Cooling Air-conditioning System of data center of the present utility model
System and miscellaneous part annexation schematic diagram.
In figure, 1. solar energy photovoltaic panels, 2. exhaust passages, 3. data center's exhaust outlets, 4. server cabinets, 5. closing heat are logical
Road, 6. combined type dew point indirect evaporatives cooling air-conditioning, 7. air-conditioning air inlets, 8. air conditioner air outlets, 9. closing fresh flues, 10. 2
Secondary exhaust duct, 11. air returning valves, 12. data center's fresh air inlets, 13. supports, 14. air-conditioning secondary exhaustings mouthful, 15. primary air fans,
16. dash filler, 17. throttle orifices, 18. heat exchange core bodies, 19. water circulating pumps, 20. catch basins, 21. screen packs, 22. nozzles, 23.
Overfire air fan, 24. jet orifices, 25. controllers, 26. batteries, 27. inverters.
Embodiment
The utility model is described in detail with reference to the accompanying drawings and detailed description.
The utility model based on the data center that photovoltaic drives dew point indirect evaporative Cooling Air-conditioning System, as shown in figure 1,
Include the combined type dew point indirect evaporative cooling body being arranged in data center and be arranged at the number pushed up outside data center
According to center fresh air inlet 12 and solar photovoltaic generation system, and combined type dew point indirect evaporative cooling body is by closing fresh air
Road 9 is connected with data center fresh air inlet 12, and combined type dew point indirect evaporative cooling body connects with solar photovoltaic generation system
Connect；Form what is set on exhaust passage 2, and the two ends of exhaust passage 2 and data center's two opposite sides wall in the furred ceiling layer of data center
Data center's exhaust outlet 3 is connected；All server cabinets 4 are with combination of two one server cabinet of formation in data center
Group, all server cabinet groups are uniformly distributed in the both sides of combined type dew point indirect evaporative cooling body；In each service
In device stack of cabinets, two server cabinets 4 are air side relatively, and envelope is formed between the air side of two server cabinets 4
The passage of heat 5 is closed, and the closing passage of heat 5 is connected with exhaust passage 2, the inlet side of each server cabinet 4 is respectively formed cold air duct.
Air intake control valve is provided with data center's fresh air inlet 12.
Air draft control valve is provided with data center's exhaust outlet 3, data center's exhaust outlet 3 is used to exclude in data center
Thermal current.
Combined type dew point indirect evaporative cooling body is located at the center in data center.
Combined type dew point indirect evaporative cooling body, as shown in Figures 1 and 2, includes two combined type dew points and steams indirectly
Feel cold but air-conditioning 6, and the structure of each combined type dew point indirect evaporative cooling air-conditioning is：Include air-conditioner housing, air-conditioner housing
It is respectively arranged with relative two side in air-conditioning air inlet 7, air conditioner air outlet 8, air-conditioner housing and is provided with heat exchange core body 18, is changed
Hot core body 18 has been sequentially arranged above water-locator and dash filler 16, and overfire air fan has been arranged side by side in the top of dash filler 16
23rd, primary air fan 15, primary air fan 15 is set on air conditioner air outlet 8, the corresponding air-conditioner housing roof in the top of overfire air fan 23
Air-conditioning secondary exhausting mouthful 14 is equipped with, air-conditioning 14 connecting secondary wind of secondary exhausting mouthful recycle unit；The lower section of heat exchange core body 18
Catch basin 20 is provided with, catch basin 20 is connected by water pipe with water-locator, and water circulating pump 19 is provided with water pipe；Two
The air-conditioning air inlet 7 of combined type dew point indirect evaporative cooling air-conditioning 6 in being oppositely arranged, and two air-conditioning air inlets 7 with closing
Fresh flue 9 is connected；Two combined type dew point indirect evaporative cooling air-conditionings 6 are connected by wire and solar photovoltaic generation system
Connect.Closing fresh flue 9 is surrounded by transparent curtain.
Screen pack 21 and air-valve are provided with air-conditioning air inlet 7.
Water-locator is by water distributor and multiple structures of nozzle 22 for being uniformly arranged on water distributor and being sprayed towards heat exchange core body 18
Into water distributor is connected with water pipe.
The surface of heat exchange core body 18 is diagonally provided with a cribbing discharge orifice 17 by air intake direction from bottom to top, passes through throttling
Hole 17 changes the flow path of the internal gas flow of heat exchange core body 18.
Water circulating pump 19 is immersible pump.
Secondary Air recycles unit, as shown in Figures 1 and 3, include secondary exhausting pipe 10, and secondary exhausting pipe 10 enters
Wind end is connected with air-conditioning secondary exhausting mouthful 14, and the outlet air end of secondary exhausting pipe 10 is through exhaust passage 2 and by the top of data center
Stretch out, and outlet air end be connected with gas flow jet pipe, gas flow jet pipe be evenly arranged with it is multiple towards solar energy power generating system
It is provided with back on the jet orifice 24 that solar energy photovoltaic panel 1 is blown in system, one section of tube wall that secondary exhausting pipe 10 is located in exhaust passage 2
Wind entrance, is provided with air returning valve 11 in return air inlet, open air returning valve 11 can make secondary exhausting pipe 10, closing fresh flue 9 with
And exhaust passage 2 is connected.
Solar photovoltaic generation system, as shown in figure 3, include solar energy photovoltaic panel 1, and solar energy photovoltaic panel 1 passes through
Wire is connected with controller 25, inverter 27 successively；Controller 25 is connected by wire with electricity accumulating unit；Inverter 27 is by leading
Line is connected with two combined type dew point indirect evaporative cooling air-conditionings 6.Electricity accumulating unit is connected successively by multiple batteries 26 by wire
Connect composition.Solar energy photovoltaic panel 1 is supported at the top of data center by the way that support 13 is inclined.
The data center that the utility model is driven based on the photovoltaic specific works of dew point indirect evaporative Cooling Air-conditioning System
Process is as follows：
(1) combined type dew point indirect evaporative cooling air-conditioning 6 is to the process of air-treatment：
Outdoor fresh air flow to the cooling of combined type dew point indirect evaporative by data center's fresh air inlet 12 through closing fresh flue 9
At the air-conditioning air inlet 7 of air-conditioning, then entered inside air-conditioner housing by air-conditioning air inlet 7, by the screen pack 21 in air-conditioner housing first
Outdoor fresh air is tentatively filtered, clean air is formed；
Clean air is entered in the dry passage of heat exchange core body 18, and in the presence of overfire air fan 23：It is a part of empty
Gas is flowed into by throttle orifice 17 in the wet channel of opposite side, as auxiliary air (control air), in set heat exchange core body 18
Top sets water-locator, and the water-locator can be to secondary runner Sprayer Circulation water, and in wet channel wall formation uniform water film, makes
Can occur hot and humid area with moisture film into the auxiliary air in wet channel, then through dash filler 16 remove in air unnecessary water it
Sent into afterwards by air-conditioning secondary exhausting mouthful 14 in secondary exhausting pipe 10；Another part does not pass through the air of throttle orifice 17 then as once
In the dry passage side of set heat exchange core body 18 Exchange of apparent heat occurs for air (output air), waits after wet cooling along dry passage forward
Flowing, due to end seal, output air is entered after opposite side wet channel, with the moisture film hot and humid area of wall by throttle orifice 17
Constant enthalpy cooling is completed, then the air for meeting air-supply condition is formed after removing unnecessary water by dash filler 16, meets air-supply bar
The air of part is then sent out in the presence of primary air fan 15 through air conditioner air outlet 8.
(2) air current composition detailed process is as follows：
(a) in summer and transition season：
Outdoor fresh air is introduced into closing fresh flue 9 by data center's fresh air inlet 12, indirect subsequently into combined type dew point
Handled in two combined type dew point indirect evaporatives cooling air-conditioning 6 in evaporation cooling body, through between two combined type dew points
Connect the air for meeting air-supply condition obtained after Evaporative Cooling Air Conditioning 6 is handled and be uniformly transported to each server cabinet 4
In cold passage, absorb air themperature after the heat of server cabinet 4 and raise to form hot-air and enter in the closing passage of heat 5, most
The hot-air that Servers-all rack 4 is discharged in data center afterwards all converges at the exhaust passage 2 formed in data center's furred ceiling layer
In, finally discharged through two data central row air ports 3；
And by two rows of combined type dew-point indirect evaporating-cooling air-conditioning 6 in combined type dew point indirect evaporative cooling body
After heat exchange, the sun is delivered to by secondary exhausting pipe 10 with primary air (output air) for the auxiliary air (control air) gone out
Can be at photovoltaic panel 1, the jet units through being connected on secondary exhausting pipe 10 are uniformly ejected on solar energy photovoltaic panel 1, in order to for
Solar energy photovoltaic panel 1 cools, dedusting, so as to realize cascaded utilization of energy.
(b) when running in the winter time, to prevent that outdoor fresh air is introduced directly into generation dew condensation phenomenon, secondary exhausting pipe 10 is opened
It is indirect that hot-air in the air returning valve 11 of upper setting, a part of data center of bypass is re-fed into combined type dew point after being mixed with fresh air
Cooling body processing is evaporated, summer and transition season air current composition process is continued to complete, so as to realize to owning in data center
The radiating treatment of server cabinet 4.
The utility model based on the data center that photovoltaic drives dew point indirect evaporative Cooling Air-conditioning System, by solar energy and
Dry air can be combined, and air-conditioning is cooled down using the small combined type dew point indirect evaporative of solar photovoltaic generation system generating driving power consumption
6 be data center's cooling, with it is safe and reliable the characteristics of；Meanwhile, combined type dew point indirect evaporative cools down the secondary exhausting of air-conditioning 6
Less than outside air temperature, it just can be its table to recycle unit to guide secondary exhausting into solar energy photovoltaic panel 1 by Secondary Air
Face is cooled and dedusting, has not only been improved the electricity conversion of solar energy photovoltaic panel 1 but also has been extended service life；In addition, will be multiple
Box-like dew point indirect evaporative cooling air-conditioning 6 combines the mode of the closing passage of heat 5 as main cooling equipment, is arranged using direct current
The airflow pattern of wind, is the cold passage feeding cold air of the inlet side of server cabinet 4, the heat in server cabinet 4 " is moved
Walk ", rather than by its " absorption ", with air current composition it is reasonable the characteristics of.The data center that the utility model is driven based on photovoltaic
Have system form simple with dew point indirect evaporative Cooling Air-conditioning System and the characteristics of low operation energy consumption.
Claims (10)
1. the data center's dew point indirect evaporative Cooling Air-conditioning System driven based on photovoltaic, it is characterised in that include setting
In the combined type dew point indirect evaporative cooling body in data center and the data center's fresh air being arranged at outside data center on top
Entrance (12) and solar photovoltaic generation system, and the combined type dew point indirect evaporative cooling body is by closing fresh flue
(9) it is connected with data center's fresh air inlet (12), the combined type dew point indirect evaporative cooling body and solar energy power generating
System is connected；Exhaust passage (2) are formed in the furred ceiling layer of data center, and two ends and data center's two-phase of the exhaust passage (2)
Data center's exhaust outlet (3) connection to being set on side wall；All server cabinets (4) are with group two-by-two in the data center
Close and form a server cabinet group, all server cabinet groups are uniformly distributed in combined type dew point indirect evaporative cooler
The both sides of structure；In each server cabinet group, two server cabinets (4) are air side relatively, in two services
The closing passage of heat (5) is formed between the air side of device rack (4), and the closing passage of heat (5) connects with exhaust passage (2),
The inlet side of each server cabinet (4) is respectively formed cold air duct；
Air intake control valve is provided with data center's fresh air inlet (12)；
Air draft control valve is provided with data center's exhaust outlet (3).
2. data center according to claim 1 dew point indirect evaporative Cooling Air-conditioning System, it is characterised in that described multiple
Box-like dew point indirect evaporative cooling body, includes two combined type dew point indirect evaporative cooling air-conditionings (6), and each described multiple
The structure of box-like dew point indirect evaporative cooling air-conditioning is：Include and divide on air-conditioner housing, the relative two side of the air-conditioner housing
It is not provided with air-conditioning air inlet (7), air conditioner air outlet (8), the air-conditioner housing and is provided with heat exchange core body (18), the heat exchange
Being sequentially arranged above above water-locator and dash filler (16), the dash filler (16) for core body (18) has been arranged side by side
Overfire air fan (23), primary air fan (15), the primary air fan (15) is close to air conditioner air outlet (8), the overfire air fan (23)
Air-conditioning secondary exhausting mouthful (14), air-conditioning secondary exhausting mouthful (14) connection two are provided with the corresponding air-conditioner housing roof in top
Secondary wind recycles unit；Catch basin (20) is provided with below the heat exchange core body (18), the catch basin (20) is by storing
Water pipe is connected with water-locator, and water circulating pump (19) is provided with the water pipe；
The air-conditioning air inlet (7) of described two combined type dew point indirect evaporative cooling air-conditionings (6) is in be oppositely arranged, and two air-conditionings
Air inlet (7) is connected with closing fresh flue (9)；Described two combined type dew point indirect evaporative cooling air-conditionings (6) are by leading
Line is connected with solar photovoltaic generation system
The closing fresh flue (9) is surrounded by curtain.
3. data center according to claim 2 dew point indirect evaporative Cooling Air-conditioning System, it is characterised in that the sky
Transfer in air port (7) and be provided with screen pack (21) and air-valve.
4. data center according to claim 2 dew point indirect evaporative Cooling Air-conditioning System, it is characterised in that the cloth
Hydrophone is made up of water distributor and multiple nozzles (22) sprayed on water distributor and towards heat exchange core body (18) that are uniformly arranged on, described
Water distributor is connected with water pipe.
5. data center according to claim 2 dew point indirect evaporative Cooling Air-conditioning System, it is characterised in that described to follow
Ring water pump (19) is immersible pump.
6. data center according to claim 2 dew point indirect evaporative Cooling Air-conditioning System, it is characterised in that described to change
The surface of hot core body (18) is diagonally provided with a cribbing discharge orifice (17) by air intake direction from bottom to top.
7. data center according to claim 2 dew point indirect evaporative Cooling Air-conditioning System, it is characterised in that described two
Secondary wind recycles unit, includes secondary exhausting pipe (10), air intake and the secondary row of air-conditioning of the secondary exhausting pipe (10)
Air port (14) is connected, and the outlet air end of the secondary exhausting pipe (10) is stretched out through exhaust passage (2) and by the top of data center, and
Outlet air end be connected with gas flow jet pipe, the gas flow jet pipe be evenly arranged with it is multiple towards in solar photovoltaic generation system
The jet orifice (24) of solar energy photovoltaic panel (1) air-supply, the secondary exhausting pipe (10) is located on one section of tube wall in exhaust passage (2)
Return air inlet is provided with, air returning valve (11) is provided with the return air inlet, secondary exhausting pipe can be made by opening air returning valve (11)
(10), closing fresh flue (9) and exhaust passage (2) connection.
8. data center's dew point indirect evaporative Cooling Air-conditioning System according to claim 1,2 or 7, it is characterised in that
The solar photovoltaic generation system, includes solar energy photovoltaic panel (1), and the solar energy photovoltaic panel (1) by wire according to
It is secondary to be connected with controller (25), inverter (27)；The controller (25) is connected by wire with electricity accumulating unit；The inverter
(27) air-conditioning (6) is cooled down by wire and two combined type dew point indirect evaporatives to be connected.
9. data center according to claim 8 dew point indirect evaporative Cooling Air-conditioning System, it is characterised in that the storage
Electric unit is sequentially connected by wire by multiple batteries (26) and constituted.
10. data center according to claim 8 dew point indirect evaporative Cooling Air-conditioning System, it is characterised in that described
Solar energy photovoltaic panel (1) is supported at the top of data center by the way that support (13) is inclined.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201621371123.7U CN206330242U (en) | 2016-12-14 | 2016-12-14 | The data center's dew point indirect evaporative Cooling Air-conditioning System driven based on photovoltaic |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN201621371123.7U CN206330242U (en) | 2016-12-14 | 2016-12-14 | The data center's dew point indirect evaporative Cooling Air-conditioning System driven based on photovoltaic |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN206330242U true CN206330242U (en) | 2017-07-14 |
Family
ID=59290394
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| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN201621371123.7U Expired - Fee Related CN206330242U (en) | 2016-12-14 | 2016-12-14 | The data center's dew point indirect evaporative Cooling Air-conditioning System driven based on photovoltaic |
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| CN (1) | CN206330242U (en) |
Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN107896466A (en) * | 2017-10-17 | 2018-04-10 | 西安工程大学 | Data center cools down cold supply system with active with the evaporation being passively combined |
| CN108848655A (en) * | 2018-06-29 | 2018-11-20 | 西安工程大学 | Data center of the fan wall in conjunction with Radiation Module natural cooling air-conditioning system |
| CN110996618A (en) * | 2019-12-10 | 2020-04-10 | 江苏南通申通机械有限公司 | Water-cooling type phase change cooling method and device for data center and machine room |
-
2016
- 2016-12-14 CN CN201621371123.7U patent/CN206330242U/en not_active Expired - Fee Related
Cited By (3)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN107896466A (en) * | 2017-10-17 | 2018-04-10 | 西安工程大学 | Data center cools down cold supply system with active with the evaporation being passively combined |
| CN108848655A (en) * | 2018-06-29 | 2018-11-20 | 西安工程大学 | Data center of the fan wall in conjunction with Radiation Module natural cooling air-conditioning system |
| CN110996618A (en) * | 2019-12-10 | 2020-04-10 | 江苏南通申通机械有限公司 | Water-cooling type phase change cooling method and device for data center and machine room |
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