CN212657824U - Air conditioning system for secondary refrigeration data center - Google Patents
Air conditioning system for secondary refrigeration data center Download PDFInfo
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- CN212657824U CN212657824U CN202021864318.1U CN202021864318U CN212657824U CN 212657824 U CN212657824 U CN 212657824U CN 202021864318 U CN202021864318 U CN 202021864318U CN 212657824 U CN212657824 U CN 212657824U
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Abstract
The utility model discloses an air conditioning system for a secondary refrigeration data center, which comprises a direct evaporative cooler and a liquid coolant evaporative condenser which are arranged in parallel in a shell, wherein the liquid coolant evaporative condenser is connected with a chip heat dissipation system arranged in the data center through a liquid coolant circulating pipe; a direct-plate-tube indirect evaporative cooler is arranged in the shell and above the direct evaporative cooler and the liquid coolant evaporative condenser, and the direct-plate-tube indirect evaporative cooler is connected with a data center air return system through a circulating air pipe. The utility model discloses an air conditioning system carries out source cooling heat dissipation when carrying out source cooling heat dissipation to data center heat dissipation source data processing chip submergence in the liquid coolant, carries out the inside air circumstance of data center through indirect evaporative cooling refrigeration air conditioning module again and waits wet cooling process, not only energy saving and consumption reduction, extensive applicability moreover.
Description
Technical Field
The utility model belongs to the technical field of the evaporative cooling air conditioner, concretely relates to secondary refrigeration's air conditioning system for data center.
Background
Nowadays, with the deep development of 5G technology cloud computing, artificial intelligence, big data and Internet of things, data centers are used as important components of new capital construction, and the current state advocates vigorously to promote the creation of green data centers, guide the data centers to go along efficient, clean, intensive and cyclic development roads, realize the continuous and healthy development of the data centers, and further make the efficient operation of data rooms very important. At present, the energy consumption of a data machine room is higher and higher, and the most effective and most potential of reducing the PUE in the data center is to start with the energy conservation of an air conditioning system, so that the selection of a proper air conditioning system is more important. The traditional mechanical refrigeration air-conditioning cooling technology not only has extremely large operation power consumption, but also is not in line with the requirements of a data center on energy conservation and consumption reduction, and has larger noise and higher maintenance cost.
SUMMERY OF THE UTILITY MODEL
The utility model aims at providing a secondary refrigeration's air conditioning system for data center carries out source cooling heat dissipation to data center heat dissipation source data processing chip submergence in the liquid coolant when, carries out the wet cooling processing such as data center inside air circumstance again through indirect evaporative cooling refrigeration air conditioner module, not only energy saving and consumption reduction, extensive applicability moreover.
The technical scheme adopted by the utility model is that the air conditioning system for the secondary refrigeration data center comprises a direct evaporative cooler and a liquid coolant evaporative condenser which are arranged in parallel in a shell, wherein the liquid coolant evaporative condenser is connected with a chip heat dissipation system arranged in the data center through a liquid coolant circulating pipe; in the shell, direct evaporative cooler and liquid coolant evaporative condenser's top is provided with direct-plate tubular indirect evaporative cooler, direct-plate tubular indirect evaporative cooler is connected with data center air supply return system through the circulating air pipe, data center air supply return system includes in the room of data center, the indoor lower part high temperature cold wind air supply layer of data center that data center rack below set up and the indoor upper portion air return layer of data center that data center rack top set up, on the last lateral wall of the indoor lower part high temperature cold wind air supply layer of data center, open data center lower part supply-air outlet in the position that corresponds the data center rack, it has data center upper portion air return to open on the indoor upper portion air return layer lower lateral wall of data center.
The utility model is also characterized in that,
a water distributor and a circulating water tank are respectively arranged above and below the direct evaporative cooler and the liquid coolant evaporative condenser, the water distributor is connected with the circulating water tank through a circulating water supply pipe, and a circulating water pump is arranged at the joint of the circulating water supply pipe and the circulating water tank; the direct evaporative cooler comprises a direct evaporative cooler air inlet arranged on a shell on one side of the direct evaporative cooler, a direct evaporative cooler air inlet primary filter is arranged on the inner side of the direct evaporative cooler air inlet, and a direct evaporative cooling filler is arranged in the shell on the inner side of the direct evaporative cooler air inlet primary filter; the liquid cooling agent evaporation condenser comprises a liquid cooling agent evaporation and condensation coil pipe, and an evaporation and condensation heat dissipation module centrifugal exhaust fan is arranged above the liquid cooling agent evaporation and condensation coil pipe.
And a circulating water level meter, a water replenishing opening and a water draining opening are arranged on the side wall of the circulating water tank.
The direct-plate-tube indirect evaporative cooler comprises a direct-plate-tube indirect evaporative cooler circulating water storage tank, a direct-plate-tube indirect evaporative cooler fresh air inlet grille, a direct-plate-tube indirect evaporative cooler direct-indirect composite heat exchange core, a direct-plate-tube indirect evaporative cooler water distributor and a direct-plate-tube indirect evaporative cooler secondary side axial flow exhaust fan which are sequentially arranged from bottom to top, wherein a direct-plate-tube indirect evaporative cooler secondary side air outlet is arranged at the corresponding position of an upper shell, the direct-plate-tube indirect evaporative cooler water distributor is connected with the direct-plate-tube indirect evaporative cooler circulating water storage tank through a direct-plate-tube indirect evaporative cooler circulating water supply pipe, and a direct-plate-tube indirect evaporative cooler circulating water pump is arranged at the joint of the direct-plate-tube indirect evaporative cooler circulating water supply pipe and the direct-plate-tube indirect evaporative cooler circulating water storage tank, the inner side of the direct and indirect composite heat exchange core of the direct-plate-tube indirect evaporative cooler is provided with a water baffle, and the inner side of the water baffle is provided with a centrifugal blower.
The side wall of the circulating water storage tank of the direct-plate-tube indirect evaporative cooler is provided with a direct-plate-tube indirect evaporative cooler reservoir level meter, a direct-plate-tube indirect evaporative cooler water outlet and a direct-plate-tube indirect evaporative cooler water replenishing port.
The chip heat dissipation system comprises a heat dissipation chip placed in a liquid coolant immersion pool, the heat dissipation chip is covered by an immersed liquid coolant, and the liquid coolant immersion pool is connected with a cooled liquid coolant supply pipe and an absorption chip heat dissipation liquid coolant return pipe.
The circulating air pipe comprises a data center air return pipe connected with an upper air return layer in the data center chamber, a direct-plate-pipe type indirect evaporative cooler primary air side middle-effect filter is arranged in the data center air return pipe, and the data center air return pipe is connected with one side of a direct-plate-pipe type indirect evaporative cooler on the shell; the data center air supply pipe is connected with one side of the shell close to the centrifugal air supply machine through the primary air supply pipe flexible connection of a direct-plate-pipe type indirect evaporative cooler.
The liquid cooling agent circulation pipe comprises a liquid cooling agent return pipe and a liquid cooling agent delivery pipe, the liquid cooling agent return pipe and the liquid cooling agent delivery pipe are respectively connected with two ports of the liquid cooling agent evaporation and condensation coil, and a liquid cooling agent circulation pump is further arranged at the joint of the liquid cooling agent delivery pipe and the liquid cooling agent evaporation and condensation coil.
The utility model discloses air conditioning system's beneficial effect is:
(1) the refrigeration system adopts evaporative condensation and indirect and direct evaporative cooling technologies, the liquid cooling and air cooling are organically combined to realize combined cooling and radiating technical means, water and a liquid cooling agent are used as a refrigerant or a secondary refrigerant, the liquid cooling agent is cooled and radiated through the evaporative condensation, meanwhile, the return air of the data center is subjected to equal-humidity cooling treatment through indirect evaporative cooling, the problem of Freon leakage or the problem of condensation, dewing and water dripping cannot exist, the IT equipment and the environment of the data center are harmless and pollution-free, and the refrigeration system is safe, green, economic and environment-friendly.
(2) The liquid cooling heat dissipation system comprises an immersion liquid pool, a liquid cooling agent return supply pipeline, a liquid cooling agent circulating pump, a liquid cooling agent condensing coil, a circulating water distributor, an axial flow type exhaust fan, a circulating water pump and the like. When the air conditioning system starts to operate, the liquid coolant starts to flow in the evaporation and condensation coil pipe, the circulating water outside the pipe sprays and starts to spray, the direct evaporation cooling and cooling process of air and water continuously occurs outside the condensation coil pipe, the heat of the high-temperature liquid coolant in the pipe is absorbed through the pipe wall, the cooling liquid coolant is finally radiated, and the liquid coolant circularly passes through the liquid cooling pool of the data center to continuously and efficiently radiate the chip.
(3) The direct evaporative cooler with precooled air inlet side consists of a primary filter, a water distributor, a circulating water collecting tank at the bottom of a circulating water pump and a direct evaporative cooling filler.
(4) The direct-plate tube indirect evaporative cooler in the unit consists of seven parts, namely a bottom direct evaporative cooler, a plate tube indirect evaporative cooler, a circulating water pump, a water distributor, a secondary side exhaust fan, a primary side centrifugal air feeder and a indirect-direct shared circulating water collecting tank, wherein outdoor fresh air serving as secondary air enters the direct evaporative cooler from the bottom for cooling, then passes through a wet channel of the plate tube indirect evaporative cooler for carrying out heat insulation and moisture exchange with spray water in the wet channel, and further passes through a plate tube heat exchange wall for carrying out equal moisture cooling on the primary side air (namely return air of a large environment of a data center), and then is sent into a high-temperature cold air supply channel at the lower part of the data center through the primary side centrifugal fan, and finally is sent into the data center through an air supply opening at the lower part of the data center for cooling and radiating the air environment.
(5) The direct evaporative cooler for precooling the inlet air of the refrigeration air-conditioning unit, the evaporative condensation heat dissipation module for condensing and dissipating the liquid refrigerant, the direct-plate-tube indirect evaporative cooler, the centrifugal blower and the like are combined into a whole in one unit, so that the unit is high in integration level, efficient, energy-saving, compact in structure and convenient to install and construct; the cooling device is suitable for cooling and cooling places such as server workstations of general large, medium and small data centers or data rooms or edge data centers, and medium and small data rooms of (large, medium and small) type internet companies and certain medium and small data rooms of enterprises and public institutions.
Drawings
Fig. 1 is a schematic structural diagram of an air conditioning system of the present invention;
fig. 2 is a working schematic diagram of the chip-level immersion cooling heat-dissipating liquid refrigerant in the air conditioning system of the present invention.
In the figure, 1, a data center cabinet, 2, a liquid refrigerant return pipe, 3, a liquid refrigerant feeding pipe, 4, an upper air return layer in a data center chamber, 5, a high-temperature cold air feeding layer at the lower part in the data center chamber, 6, a data center air return pipe, 7, a data center air feeding pipe, 8, a liquid refrigerant evaporation and condensation coil pipe, 9, a liquid refrigerant circulating pump, 10, a direct-plate pipe type indirect evaporation cooler fresh air inlet grille, 11, a direct-plate pipe type indirect evaporation cooler water storage tank liquid level meter, 12, an evaporation and condensation heat dissipation module centrifugal exhaust fan, 13, a water replenishing port, 14, a water draining port, 15, a circulating water pump, 16, a circulating water feeding pipe, 17, a direct evaporation and cooling filler, 18, a circulating water tank, 19, a circulating water level meter, 20, a direct evaporation and cooler air inlet primary filter, 21, a direct evaporation and cooler air inlet, 22, a water distributor, 23, a direct-plate type indirect evaporation and cooling water outlet, 24. a water replenishing port of a direct-plate-tube indirect evaporative cooler, 25 a circulating water pump of a direct-plate-tube indirect evaporative cooler, 26 a circulating water supply pipe of the direct-plate-tube indirect evaporative cooler, 27 a primary air side middle-effect filter of the direct-plate-tube indirect evaporative cooler, 28 a secondary side axial flow exhaust fan of the direct-plate-tube indirect evaporative cooler, 29 a secondary side exhaust port of the direct-plate-tube indirect evaporative cooler, 30 a water distributor of the direct-plate-tube indirect evaporative cooler, 31 a direct-plate-tube indirect evaporative cooler directly adding an indirect composite heat exchange core, 32 a water baffle, 33 a centrifugal blower, 34 a primary air supply pipe of the direct-plate-tube indirect evaporative cooler, 35 a circulating water storage tank of the direct-plate-tube indirect evaporative cooler, 36 a cooled liquid coolant supply pipe, 37 a radiating liquid coolant return pipe of an absorption chip, 38. the system comprises an immersion type liquid refrigerant 39, a heat dissipation chip 40, a liquid refrigerant immersion tank 41, an upper air return opening of a data center and a lower air supply opening of the data center, wherein the liquid refrigerant immersion tank is provided with a liquid refrigerant immersion inlet 42.
Detailed Description
The present invention will be described in detail with reference to the accompanying drawings and specific embodiments.
The utility model relates to an air conditioning system for a secondary refrigeration data center, as shown in figure 1, which comprises a direct evaporative cooler and a liquid coolant evaporative condenser which are arranged in parallel in a shell, wherein the liquid coolant evaporative condenser is connected with a chip heat dissipation system arranged in the data center through a liquid coolant circulating pipe; a direct-plate-tube indirect evaporative cooler is arranged in the shell and above the direct evaporative cooler and the liquid coolant evaporative condenser, and the direct-plate-tube indirect evaporative cooler is connected with a data center air return system through a circulating air pipe.
A water distributor 22 and a circulating water tank 18 are respectively arranged above and below the direct evaporative cooler and the liquid coolant evaporative condenser, the water distributor 22 is connected with the circulating water tank 18 through a circulating water supply pipe 16, and a circulating water pump 15 is arranged at the joint of the circulating water supply pipe 16 and the circulating water tank 18; the direct evaporative cooler comprises a direct evaporative cooler air inlet 21 arranged on a shell on one side of the direct evaporative cooler, a direct evaporative cooler air inlet primary filter 20 is arranged on the inner side of the direct evaporative cooler air inlet 21, and a direct evaporative cooling filler 17 is arranged in a shell on the inner side of the direct evaporative cooler air inlet primary filter 20; the liquid cooling agent evaporative condenser comprises a liquid cooling agent evaporative condensing coil 8, and an evaporative condensation heat dissipation module centrifugal exhaust fan 12 is arranged above the liquid cooling agent evaporative condensing coil 8. The side wall of the circulating water tank 18 is provided with a circulating water level meter 19, a water replenishing port 13 and a water draining port 14. Air in the device enters the air conditioning unit and firstly passes through an air inlet 21 of the evaporative cooler and then further enters a direct evaporative cooling filler 17 through a primary air inlet filter 20 of the direct evaporative cooler, the air is directly subjected to evaporative cooling on the surface of the filler and then is sprayed to the water on the surface of the filler through a circulating water pump 15 and a circulating water supply pipe 16 and a water distributor 22, and further is subjected to isenthalpic cooling for the inlet air, so that the air entering the evaporative condensation module is precooled, the heat exchange efficiency of the liquid coolant evaporative condensation module is improved, if the spray water is insufficient, the spray water can be supplemented through a water supplementing port 13, and the spray water can be discharged through a water draining port 14 when the unit is not used.
The direct-plate-tube indirect evaporative cooler comprises a direct-plate-tube indirect evaporative cooler circulating water storage tank 35, a direct-plate-tube indirect evaporative cooler fresh air inlet grille 10, a direct-plate-tube indirect evaporative cooler direct and indirect composite heat exchange core 31, a direct-plate-tube indirect evaporative cooler water distributor 30 and a direct-plate-tube indirect evaporative cooler secondary side axial flow exhaust fan 28 which are sequentially arranged from bottom to top, wherein a direct-plate-tube indirect evaporative cooler secondary side air outlet 29 is arranged at a position corresponding to a shell above the direct-plate-tube indirect evaporative cooler secondary side axial flow exhaust fan 28, the direct-plate-tube indirect evaporative cooler water distributor 30 is connected with the direct-plate-tube indirect evaporative cooler circulating water storage tank 35 through a direct-plate-tube indirect evaporative cooler circulating water supply pipe 26, the direct-plate-tube indirect evaporative cooler circulating water 26 and the direct-plate-tube indirect evaporative cooler circulating water storage tank The joint of the water circulation pump 35 and the water circulation pump 25 of the direct-plate-tube indirect evaporative cooler is provided, the inner side of the direct-plate-tube indirect evaporative cooler and the indirect composite heat exchange core 31 is provided with a water baffle 32, and the inner side of the water baffle 32 is provided with a centrifugal blower 33. The side wall of the circulating water storage tank 35 of the direct-plate-tube indirect evaporative cooler is provided with a direct-plate-tube indirect evaporative cooler reservoir level meter 11, a direct-plate-tube indirect evaporative cooler water outlet 23 and a direct-plate-tube indirect evaporative cooler water replenishing port 24. The chip heat dissipation system, as shown in fig. 2, includes a heat dissipation chip 39 disposed in a liquid coolant immersion tank 40, the heat dissipation chip 39 is covered by an immersion liquid coolant 38, and the liquid coolant immersion tank 40 is connected to a cooled liquid coolant supply pipe 36 and an absorption chip heat dissipation liquid coolant return pipe 37. The liquid cooling agent circulation pipe comprises a liquid cooling agent return pipe 2 and a liquid cooling agent delivery pipe 3, the liquid cooling agent return pipe 2 and the liquid cooling agent delivery pipe 3 are respectively connected with two ports of the liquid cooling agent evaporation and condensation coil pipe 8, and a liquid cooling agent circulation pump 9 is further arranged at the joint of the liquid cooling agent delivery pipe 3 and the liquid cooling agent evaporation and condensation coil pipe 8.
The process of liquid cooling and heat dissipation of the chip by the direct plate-tube indirect evaporative cooler, the liquid coolant circulating tube and the chip heat dissipation system is as follows: the immersed liquid coolant 38 which absorbs the heat dissipation capacity of the chip and heats up enters the liquid coolant evaporation and condensation coil 8 from the liquid coolant return pipe 37 of the absorbed chip heat dissipation capacity to the liquid coolant return pipe 2, then enters the circulating water pump 15 from the circulating water tank 18 through the circulating water supply pipe 16 and is further supplied to the water distributor 22, and sprays water on the outer surface of the liquid coolant evaporation and condensation coil through the nozzle, at this time, the water and the air which is directly evaporated and cooled through the previous part are further directly evaporated and cooled outside the unit, and absorbs the heat of the liquid coolant dissipated from the wall surface of the coil, so as to realize the evaporation, condensation and heat dissipation of the liquid coolant, and the air which is directly evaporated and cooled outside the unit and heated up is discharged outside the unit through the evaporation, condensation and heat dissipation module centrifugal fan 12, and the liquid coolant after heat dissipation and cooling is pressurized through the liquid coolant circulating pump 9 and then passes through the liquid coolant supply pipe 3 to the cooled liquid coolant supply pipe, And returning to the liquid coolant immersion liquid pool 40, and performing immersion liquid type heat dissipation on the chip in a circulating and reciprocating manner.
The data center air supply and return system comprises a data center indoor lower high-temperature cold air supply layer 5 arranged in a data center room and below a data center cabinet 1 and a data center indoor upper air return layer 4 arranged above the data center cabinet 1, a data center lower air supply opening 42 is formed in the position, corresponding to the data center cabinet 1, of the upper side wall of the data center indoor lower high-temperature cold air supply layer 5, and a data center upper air return opening 41 is formed in the side wall of the data center indoor upper air return layer 4. The circulating air pipe comprises a data center return air pipe 6 connected with an upper return air layer 4 in the data center chamber, a primary air side middle effect filter 27 of the direct-plate-tube type indirect evaporative cooler is arranged in the data center return air pipe 6, and the data center return air pipe 6 is connected with one side of the direct-plate-tube type indirect evaporative cooler on the shell; the data center indoor lower part high temperature cold air blast layer 5 is connected with the data center blast pipe 7, and the data center blast pipe 7 is connected with one side of the shell close to the centrifugal blower 33 through the direct-plate tube type indirect evaporative cooler primary blast pipe flexible connection 34. Outdoor air as secondary air enters from a fresh air inlet grille 10 of a direct-plate-tube type indirect evaporative cooler to directly add an indirect composite heat exchange core 31 through the direct-plate-tube type indirect evaporative cooler, firstly, the secondary air is pre-cooled through direct evaporative cooling, then the secondary air enters a plate-tube type indirect evaporative cooling wet channel, and is pressurized through a circulating water supply pipe 26 of the direct-plate-tube type indirect evaporative cooler and a circulating water pump 25 of the direct-plate-tube type indirect evaporative cooler and then sent to a water distributor 30 of the direct-plate-tube type indirect evaporative cooler, and spray circulating water sequentially generates direct evaporative cooling processes in a direct evaporative cooling filler and a plate-tube type indirect evaporative cooling wet channel (namely the secondary air side) respectively to provide cooling power for a primary side, and the primary side air is hot return air from absorbing internal air heat of a data center, passes through a return air inlet 41 at the upper part of the data center and then passes through a return air layer 4 at the upper part of The data center return air pipe 6 is further purified by the primary air side middle effect filter 27 of the direct-plate-tube type indirect evaporative cooler, the data center indoor return air which is sent to the primary side of the plate-tube type indirect evaporative cooling heat exchange core and cooled in the indirect equal-humidity temperature reduction process passes through the water baffle 32, then passes through the centrifugal blower 33, is connected with the data center air supply pipe 7 through the primary air supply pipe flexible connection 34 of the direct-plate-tube type indirect evaporative cooler, then is sent into the upper return air layer 4 in the data center room, finally passes through the lower air supply outlet 42 of the data center and is sent back to the inside of the data center again, and the temperature reduction and cooling are carried out on the environment in the data. If the spray water is insufficient, the water can be supplemented through the water supplementing opening 24 of the direct-plate-tube indirect evaporative cooler, and the spray water can be discharged through the water discharging opening 23 of the direct-plate-tube indirect evaporative cooler when the unit is not used.
Furthermore, the utility model relates to an air conditioning system for secondary refrigeration's data center will carry out the precooling direct evaporative cooler of the air inlet of refrigeration air conditioning unit, the evaporative condensation heat dissipation module of the condensation heat dissipation of liquid refrigerant, direct-plate tubular indirect evaporative cooler, centrifugal blower etc. combine to form a whole in a unit, make the unit integrated level high, compact structure, easy to process, practicality are strong; meanwhile, the direct evaporative cooler and the indirect-direct composite core in the unit are respectively used for leading the inlet air or the secondary air to be properly cooled, so that the heat exchange working efficiency of the whole unit is correspondingly improved.
To sum up, the utility model provides an air conditioning system for a secondary refrigeration data center, which comprehensively utilizes a direct evaporative cooler for precooling the inlet air of a refrigeration air conditioning unit, an evaporative condensation heat dissipation module for condensation heat dissipation of liquid refrigerant, a direct-plate tube type indirect evaporative cooler, a centrifugal blower and the like to be combined into a unit to form a whole, so that the unit has high integration level and compact structure; meanwhile, the air inside the data center is controlled and adjusted by temperature and humidity, and the most main source Chip (CPU) radiating the data center is subjected to direct contact type immersion liquid cooling heat dissipation treatment, the liquid coolant evaporation and condensation module and the direct-plate tube type indirect evaporation cooler are precooled by working air, so that the heat exchange efficiency is improved, meanwhile, the lower module of the unit is also used by a circulating water pump and a circulating water supply pipe, so that the energy is saved, the efficiency is high, the structure is simpler, more convenient and more convenient to maintain and manage, and the working efficiency of the whole unit is correspondingly improved.
Claims (8)
1. An air conditioning system for a secondary refrigeration data center is characterized by comprising a direct evaporative cooler and a liquid coolant evaporative condenser which are arranged in parallel in a shell, wherein the liquid coolant evaporative condenser is connected with a chip heat dissipation system arranged in the data center through a liquid coolant circulating pipe; the top of in the casing, direct evaporative cooler and liquid coolant evaporative condenser is provided with direct-plate tubular indirect evaporative cooler, direct-plate tubular indirect evaporative cooler send back the wind system through circulation tuber pipe and data center and be connected, data center send back the wind system and include in the data center room, the indoor upper portion return air layer (4) of data center that the indoor lower part high temperature cold wind air supply layer (5) of data center and data center rack (1) top set up of data center rack (1) below set up, the indoor lower part high temperature cold wind air supply layer of data center on the last lateral wall of data center room (5), open data center lower part supply-air outlet (42) in the position that corresponds data center rack (1), it has data center upper portion return air inlet (41) to open on the lateral wall under the indoor upper portion return air layer of data center (4).
2. The air conditioning system according to claim 1, wherein a water distributor (22) and a circulating water tank (18) are respectively arranged above and below the direct evaporative cooler and the liquid coolant evaporative condenser, the water distributor (22) is connected with the circulating water tank (18) through a circulating water supply pipe (16), and a circulating water pump (15) is arranged at the joint of the circulating water supply pipe (16) and the circulating water tank (18); the direct evaporative cooler comprises a direct evaporative cooler air inlet (21) arranged on a shell on one side of the direct evaporative cooler, a direct evaporative cooler air inlet primary filter (20) is arranged on the inner side of the direct evaporative cooler air inlet (21), and a direct evaporative cooling filler (17) is arranged in a shell on the inner side of the direct evaporative cooler air inlet primary filter (20); the liquid coolant evaporative condenser comprises a liquid coolant evaporative condensing coil (8), and an evaporative condensing heat dissipation module centrifugal exhaust fan (12) is arranged above the liquid coolant evaporative condensing coil (8).
3. The air conditioning system as claimed in claim 2, wherein a circulating water level meter (19), a water replenishing opening (13) and a water draining opening (14) are arranged on the side wall of the circulating water tank (18).
4. The air conditioning system according to claim 1 or 2, wherein the direct-plate-tube indirect evaporative cooler comprises a circulating water storage tank (35) of the direct-plate-tube indirect evaporative cooler, a fresh air intake grille (10) of the direct-plate-tube indirect evaporative cooler, a direct-plate-tube indirect evaporative cooler direct-indirect composite heat exchange core (31), a water distributor (30) of the direct-plate-tube indirect evaporative cooler and a secondary side axial flow exhaust fan (28) of the direct-plate-tube indirect evaporative cooler, which are sequentially arranged from bottom to top, a secondary side exhaust outlet (29) of the direct-plate-tube indirect evaporative cooler is arranged at a position corresponding to a shell above the secondary side axial flow exhaust fan (28) of the direct-plate-tube indirect evaporative cooler, and the water distributor (30) of the direct-plate-tube indirect evaporative cooler is connected with a circulating water supply pipe (26) of the direct-plate-tube indirect evaporative cooler Send out cooler circulating water storage box (35), direct-plate tubular indirect evaporative cooler circulating water delivery pipe (26) and direct-plate tubular indirect evaporative cooler circulating water storage box (35) junction be provided with direct-plate tubular indirect evaporative cooler circulating water pump (25), direct-plate tubular indirect evaporative cooler directly add indirect compound heat exchange core (31) inboard and be provided with breakwater (32), breakwater (32) inboard be provided with centrifugal forced draught blower (33).
5. The air conditioning system as claimed in claim 4, wherein the side wall of the circulating water storage tank (35) of the direct-plate-tube indirect evaporative cooler is provided with a direct-plate-tube indirect evaporative cooler water storage tank liquid level meter (11), a direct-plate-tube indirect evaporative cooler water outlet (23) and a direct-plate-tube indirect evaporative cooler water replenishing opening (24).
6. The air conditioning system of claim 1 or 2, wherein said system for dissipating heat from a chip comprises a heat dissipating chip (39) disposed within a liquid coolant immersion bath (40), said heat dissipating chip (39) being covered by an immersion liquid coolant (38), said liquid coolant immersion bath (40) being connected to a supply of cooled liquid coolant (36) and a return of absorbed chip heat sink coolant (37).
7. The air conditioning system as claimed in claim 1, wherein the circulating air duct comprises a data center return air duct (6) connected to the upper return air layer (4) in the data center room, a direct-plate-tube type indirect evaporative cooler primary air side intermediate efficiency filter (27) is arranged in the data center return air duct (6), and the data center return air duct (6) is further connected to the direct-plate-tube type indirect evaporative cooler side on the shell; the data center air supply pipe (7) is connected with one side, close to a centrifugal blower (33), of the shell through a primary air supply pipe flexible connection (34) of a direct-plate pipe type indirect evaporative cooler.
8. The air conditioning system according to claim 1 or 2, wherein the liquid coolant circulation pipe comprises a liquid coolant return pipe (2) and a liquid coolant delivery pipe (3), the liquid coolant return pipe (2) and the liquid coolant delivery pipe (3) are respectively connected with two ports of the liquid coolant evaporation and condensation coil (8), and a liquid coolant circulation pump (9) is further arranged at the connection position of the liquid coolant delivery pipe (3) and the liquid coolant evaporation and condensation coil (8).
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202021864318.1U CN212657824U (en) | 2020-08-31 | 2020-08-31 | Air conditioning system for secondary refrigeration data center |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202021864318.1U CN212657824U (en) | 2020-08-31 | 2020-08-31 | Air conditioning system for secondary refrigeration data center |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN212657824U true CN212657824U (en) | 2021-03-05 |
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Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN202021864318.1U Expired - Fee Related CN212657824U (en) | 2020-08-31 | 2020-08-31 | Air conditioning system for secondary refrigeration data center |
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| Country | Link |
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| CN (1) | CN212657824U (en) |
Cited By (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN111947262A (en) * | 2020-08-31 | 2020-11-17 | 西安工程大学 | Air conditioning system for data center based on combination of liquid cooling and evaporative cooling technology |
| CN113737209A (en) * | 2021-09-27 | 2021-12-03 | 长江勘测规划设计研究有限责任公司 | Water electrolysis hydrogen production system adopting external circulation evaporation cooling full immersion and use method |
-
2020
- 2020-08-31 CN CN202021864318.1U patent/CN212657824U/en not_active Expired - Fee Related
Cited By (2)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN111947262A (en) * | 2020-08-31 | 2020-11-17 | 西安工程大学 | Air conditioning system for data center based on combination of liquid cooling and evaporative cooling technology |
| CN113737209A (en) * | 2021-09-27 | 2021-12-03 | 长江勘测规划设计研究有限责任公司 | Water electrolysis hydrogen production system adopting external circulation evaporation cooling full immersion and use method |
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