CN202853029U - Machine room heat pipe heat-extraction system - Google Patents
Machine room heat pipe heat-extraction system Download PDFInfo
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- CN202853029U CN202853029U CN 201220584965 CN201220584965U CN202853029U CN 202853029 U CN202853029 U CN 202853029U CN 201220584965 CN201220584965 CN 201220584965 CN 201220584965 U CN201220584965 U CN 201220584965U CN 202853029 U CN202853029 U CN 202853029U
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Abstract
The utility model provides a machine room heat pipe heat-extraction system which is suitable for a high heat-dissipation density machine room and used for extracting heat for the high heat-dissipation density machine room needing refrigeration all the year round. The machine room heat pipe heat-extraction system comprises a machine room indoor unit and an outdoor unit, wherein the indoor unit is communicated with the outdoor unit through an air pipe manifold and a liquid pipe manifold, the indoor unit comprises a plurality of heat pipe heat-extraction first level subsystems, each first level subsystem comprises a front back panel heat pipe heat-extraction second level subsystem and a rear back panel heat pipe heat-extraction second level subsystem, the outdoor unit comprises a three-way valve I, a three-way valve II, a natural cold source module first level subsystem, a cooling-water machine set, a water segregator, an intermediate heat exchanger first level subsystem and a water collector. According to the need of environment temperature control of the high heat-dissipation density machine room, the machine room heat pipe heat-extraction system flexibly chooses a work mode of the rear back panel heat pipe heat-extraction second level subsystem and/or a work mode of the front back panel heat pipe heat-extraction second level subsystem. According to the natural environment, the machine room heat pipe heat-extraction system can provide the situations of a natural cold resource, flexibly starts the natural cold source module first level subsystem, and assists the cooling-water machine set or replaces refrigeration, thereby lowering power dissipation of the system and saving resources.
Description
Technical field
The utility model relates to high heat radiation density machine room heat pipe heat field, particularly a kind of height heat radiation density machine room heat pipe heat system of freezing of all needing throughout the year.
Background technology
The integrated density of rack server is more and more higher in the machine room, and the caloric value of server is more and more higher, and in order to guarantee that server is operated under the optimum environment temperature in the high heat radiation density machine room, high heat radiation density machine room heat extraction mode also changes at development at present.
At present high heat radiation density machine room heat extraction mainly contains following dual mode:
A kind of is the precision air conditioner accurate air-feeding, the indoor employing of this mode machine room air channel directly causes server cabinet with the cold wind of precision air conditioner, major advantage is to have realized that cold wind directly causes server cabinet, rack server air intake is under the comparatively ideal low-temperature condition, shortcoming is that blower fan need to be selected the large pressure head blower fan that can overcome duct resistance, therefore the blower fan power consumption is larger, has brought the precision air conditioner power consumption larger thereupon; In addition, adopt this mode heat extraction, distribute uneven because of the cold in the air channel on the one hand, can not effectively solve machine room hot localised points problem, far and near different apart from the precision air conditioner return air inlet because of server cabinet exhaust outlet in the machine room on the other hand, produce easily remote rack air draft return air and freely do not make the machine room local ambient temperature be higher than the hot localised points problem of setting value.
A kind of is to adopt the water-cooled backboard to substitute the point-to-point heat extraction of the front and back door-plate of rack in the machine room, this kind heat extraction mode efficiently solves machine room hot localised points problem, but because the chilled water that the water-cooled backboard adopts is directly introduced machine room, system's water leakage proofing safe design is complicated, and water entered machine room when the design of complicated preventing water leakage can not be avoided system leak, and just when water leaks, send warning, so not wide-scale adoption of this kind heat extraction mode.
Summary of the invention
A kind of height heat radiation density machine room heat pipe heat system of freezing of all needing throughout the year that the utility model provides, according to height heat radiation density building environment temperature control needs, machine room is indoor by starting separately postnotum heat pipe heat secondary subsystem neatly, select between the mode of operation that startup pronotum heat pipe heat secondary subsystem or postnotum heat pipe heat secondary subsystem and pronotum heat pipe heat secondary subsystem start simultaneously separately, the utility model can provide the situation of natural cooling source to start neatly natural cooling source module one-level subsystem according to natural environment, refrigeration is assisted or substituted to handpiece Water Chilling Units, in addition, the indoor refrigerant of the high heat radiation of the utility model density machine room adopts freon refrigerant, the hidden danger that water enters machine room has been stopped in the indoor fully isolation of the cooling water that machine room outdoor adopts and machine room.
The technical scheme that its technical problem that solves the utility model adopts is:
A kind of machine room heat pipe heat system comprises machine room indoor unit, machine room outdoor unit, it is characterized in that:
Described machine room indoor unit comprises independently integrated cabinet heat pipe heat one-level subsystem of some row; Described integrated cabinet heat pipe heat one-level subsystem comprises postnotum heat pipe heat secondary subsystem and the pronotum heat pipe heat secondary subsystem that places on the frame, arranges a plurality of high heat radiation density machine room servers on the frame;
Described postnotum heat pipe heat secondary subsystem comprises three grades of subsystems of some row's postnotum heat pipes, tracheae header I and liquid manifold pipe I;
Described pronotum heat pipe heat secondary subsystem comprises three grades of subsystems of some row's pronotum heat pipes, tracheae header II and liquid manifold pipe II;
Three grades of subsystems of described postnotum heat pipe comprise tracheae stop valve I, postnotum heat exchanger tube and the liquid pipe stop valve I that is communicated with successively by connecting line, and three grades of subsystems of each postnotum heat pipe are communicated with tracheae header I and liquid manifold pipe I by connecting line;
Three grades of subsystems of described pronotum heat pipe comprise tracheae stop valve II, the pronotum heat exchanger tube that is communicated with successively by connecting line, and liquid pipe stop valve II, and three grades of subsystems of each pronotum heat pipe are communicated with tracheae header II and liquid manifold pipe II by connecting line;
Described machine room outdoor unit comprises the Intermediate Heat Exchanger one-level subsystem that is communicated with successively by pipeline, water collector, natural cooling source module one-level subsystem, handpiece Water Chilling Units, and water knockout drum, the corresponding integrated cabinet heat pipe heat one-level subsystem of each Intermediate Heat Exchanger one-level subsystem, comprise Intermediate Heat Exchanger I and Intermediate Heat Exchanger II, the hot side of described Intermediate Heat Exchanger I is communicated with by tracheae header I and three grades of subsystems of liquid manifold pipe I and described postnotum heat pipe, and the hot side of described Intermediate Heat Exchanger II is communicated with described pronotum heat pipe heat secondary subsystem by tracheae header II and liquid manifold pipe II; The cold side two ends of described Intermediate Heat Exchanger one-level subsystem are communicated with by the same water knockout drum of pipeline, water collector respectively.
Preferably, described machine room outdoor unit also comprises triple valve I, triple valve II, level pressure and water replanishing device and water pump, level pressure and water replanishing device, water pump, triple valve II are successively set on the pipeline between the inlet side of the outlet side of natural cooling source module one-level subsystem and handpiece Water Chilling Units, wherein, described triple valve I, triple valve II include entrance, the first outlet and the second outlet, described entrance can be selected a ground and be communicated with described the first outlet, the second outlet, also can be communicated with described the first outlet, the second outlet simultaneously; The entrance connected set hydrophone of triple valve I, the first outlet is communicated with the entrance side of water pump, and the second outlet is communicated with the entrance side of natural cooling source module one-level subsystem; The entrance of triple valve II is communicated with the outlet of water pump, and the first outlet is communicated with the inlet side of handpiece Water Chilling Units, and the second outlet is communicated with the outlet side of handpiece Water Chilling Units.
Preferably, described natural cooling source module one-level subsystem comprises the air cooling module that several are in parallel, on its outlet side pipeline the check valve I is set.
Preferably, described Intermediate Heat Exchanger one-level subsystem also comprises triple valve III, check valve II, triple valve IV, check valve III, wherein, described triple valve III, triple valve IV include entrance, the first outlet and the second outlet, described entrance can be selected a ground and be communicated with described the first outlet, the second outlet, also can be communicated with described the first outlet, the second outlet simultaneously; The entrance of triple valve III is communicated with water knockout drum, and the first outlet is communicated with the entrance of triple valve IV, and the second outlet is communicated with the water inlet of Intermediate Heat Exchanger II cold side; The entrance of triple valve IV also is communicated with the delivery port of Intermediate Heat Exchanger II cold side, on the pipeline between the delivery port of the entrance of triple valve IV and Intermediate Heat Exchanger II cold side the check valve II is set, the first outlet of triple valve IV is communicated with the water inlet of Intermediate Heat Exchanger I cold side, the second outlet connected set hydrophone, the delivery port of Intermediate Heat Exchanger I cold side is by being provided with the pipeline connection water collector of check valve III.
Preferably, described system further comprises be used to measuring described postnotum heat exchanger tube, pronotum heat exchanger tube return air temperature, wind pushing temperature and described air cooling module, the sensor of handpiece Water Chilling Units confession, return water temperature.
Preferably, the refrigerant that adopts in the described integrated cabinet heat pipe heat one-level subsystem is at least a among R22, R134a, R407C, R410A, R32, the R125.
Described system is according to described postnotum heat exchanger tube, the return air temperature of described pronotum heat exchanger tube, wind pushing temperature and high heat radiation density building environment temperature requirements, selection by described triple valve III, triple valve IV is communicated with that to decide described machine room indoor be to start separately described postnotum heat exchanger tube heat extraction secondary subsystem or start separately described pronotum heat exchanger tube heat extraction secondary subsystem, or described postnotum heat exchanger tube heat extraction secondary subsystem and described pronotum heat exchanger tube heat extraction secondary subsystem start simultaneously.
When described postnotum heat exchanger tube return air temperature is higher than design temperature, high heat radiation density building environment temperature requirements emphasis is digestion machine room hot localised points, thereby controlling described postnotum heat exchanger tube wind pushing temperature remains on when ensureing whole building environment temperature stabilization in the certain temperature range, described machine room is indoor can to start separately described postnotum heat pipe heat secondary subsystem, and the entrance of described triple valve III, triple valve IV all is communicated with its first outlet at this moment; When described pronotum heat exchanger tube return air temperature is higher than design temperature, high heat radiation density building environment temperature requirements emphasis is for eliminating the machine room hot localised points, requirement is positioned at the described high heat radiation density machine room server EAT of described frame, be that the wind pushing temperature of described pronotum heat exchanger tube is in lower temperature range, thereby ensure that the air-out of described high heat radiation density machine room server is in certain temperature range, when avoiding producing the machine room hot localised points, described machine room is indoor can to start separately described pronotum heat exchanger tube heat extraction secondary subsystem, at this moment described triple valve III, the entrance of triple valve IV all is communicated with its second outlet; When described postnotum heat exchanger tube, the return air temperature of pronotum heat exchanger tube, wind pushing temperature all is higher than design temperature, high heat radiation density building environment temperature requirements digests simultaneously and eliminates hot localised points, when thereby the wind pushing temperature of controlling described postnotum heat exchanger tube and described pronotum heat exchanger tube ensures that in certain temperature range whole building environment temperature and the air-out of described high heat radiation density machine room server are all in certain temperature range, described machine room is indoor can to start described postnotum heat pipe heat secondary subsystem and described pronotum heat pipe heat secondary subsystem simultaneously, this moment, the entrance of described triple valve III was communicated with its second outlet, and the entrance of described triple valve IV is communicated with its first outlet.
When natural environment can not provide described energy saving of system to move required natural cooling source, the required low-temperature receiver of the indoor heat extraction of described machine room was only provided by described handpiece Water Chilling Units, and the entrance of described triple valve I, triple valve II all is communicated with its first outlet at this moment.
When natural environment can partly provide described energy saving of system to move required natural cooling source, the required low-temperature receiver of the indoor heat extraction of described machine room is provided jointly by described natural cooling source module one-level subsystem and described handpiece Water Chilling Units, this moment, the entrance of described triple valve I was communicated with simultaneously with its first outlet and the second outlet, and the entrance of triple valve II is communicated with its first outlet.
When natural environment can all provide described energy saving of system to move required natural cooling source, the required low-temperature receiver of the indoor heat extraction of described machine room is only provided by described natural cooling source module one-level subsystem, the entrance of described triple valve I is communicated with its second outlet, the entrance of described triple valve II is communicated with its second outlet or the pressure drop that produces during through described handpiece Water Chilling Units evaporimeter when cooling water flow in tolerance interval the time, and the entrance of described triple valve II first exports and is communicated with it.
Described postnotum heat exchanger tube and described pronotum heat exchanger tube can substitute respectively back door and the Qianmen of the indoor original rack of described machine room, or substitute respectively top board and the base plate of original rack, or substitute respectively left plate and the right plate of original rack.
Described machine room is indoor can be according to the thermic load situation of the described high heat radiation density machine room server in concrete each described frame, judge all or part of back door and the Qianmen that substitutes the indoor original rack of described machine room of described postnotum heat exchanger tube and described pronotum heat exchanger tube, or substitute respectively top board and the base plate of original rack, or substitute respectively left plate and the right plate of original rack, to realize solving targetedly the indoor hot localised points problem of described machine room.
The hidden danger that water enters machine room has been stopped in the indoor fully isolation of the cooling water that described machine room outdoor adopts and described machine room.
By above technical scheme as can be known, a kind of height heat radiation density machine room heat pipe heat system of freezing of all needing throughout the year that the utility model provides, according to height heat radiation density building environment temperature control needs, machine room is indoor by starting separately postnotum heat pipe heat secondary subsystem neatly, select between the mode of operation that startup pronotum heat pipe heat secondary subsystem or postnotum heat pipe heat secondary subsystem and pronotum heat pipe heat secondary subsystem start simultaneously separately, eliminate or digested high heat radiation density machine room hot localised points, realized the efficient heat extraction of high heat radiation density machine room, simultaneously, on the basis of satisfying the temperature control of high heat radiation density building environment, can reduce the original precision air conditioner quantity of machine room, reduce precision air conditioner power consumption and machine room and taken up an area the space, can increase rack number of servers in the machine room in the time of energy-saving run, improve machine room space effective rate of utilization, the utility model can provide the situation of natural cooling source to start neatly natural cooling source module one-level subsystem according to natural environment, refrigeration is assisted or substituted to handpiece Water Chilling Units, to reduce system power dissipation, energy savings, in addition, the indoor refrigerant of the high heat radiation of the utility model density machine room adopts freon refrigerant, the hidden danger that water enters machine room has been stopped in the indoor fully isolation of the cooling water that machine room outdoor adopts and machine room.
Description of drawings
Fig. 1 is the structural representation of the high density machine room heat pipe heat system of dispelling the heat of the present utility model.
Fig. 2 is the structural representation of high heat radiation density machine room heat pipe heat of the present utility model system when being in by the independent heat extraction pattern of the independent cooling postnotum of handpiece Water Chilling Units heat pipe heat secondary subsystem.
Fig. 3 is the structural representation of high heat radiation density machine room heat pipe heat of the present utility model system when being in by the independent heat extraction pattern of the independent cooling pronotum of handpiece Water Chilling Units heat pipe heat secondary subsystem.
Fig. 4 is the structural representation of high heat radiation density machine room heat pipe heat of the present utility model system when being in by simultaneously heat extraction of the forward and backward backboard heat pipe heat of the independent cooling of handpiece Water Chilling Units secondary subsystem pattern.
Fig. 5 is that high heat radiation density machine room heat pipe heat of the present utility model system is in by natural cooling source module one-level subsystem and the handpiece Water Chilling Units structural representation during the independent heat extraction pattern of cooling postnotum heat pipe heat secondary subsystem simultaneously.
Fig. 6 is that high heat radiation density machine room heat pipe heat of the present utility model system is in by natural cooling source module one-level subsystem and the handpiece Water Chilling Units structural representation during the independent heat extraction pattern of cooling pronotum heat pipe heat secondary subsystem simultaneously.
Fig. 7 is the structural representation of high heat radiation density machine room heat pipe heat of the present utility model system when being in by natural cooling source module one-level subsystem and simultaneously simultaneously heat extraction of the forward and backward backboard heat pipe heat of cooling secondary subsystem of handpiece Water Chilling Units pattern.
Fig. 8 is the structural representation of high heat radiation density machine room heat pipe heat of the present utility model system when being in by the independent heat extraction pattern of the independent cooling postnotum of natural cooling source module one-level subsystem heat pipe heat secondary subsystem.
Fig. 9 is the structural representation of high heat radiation density machine room heat pipe heat of the present utility model system when being in by the independent heat extraction pattern of the independent cooling pronotum of natural cooling source module one-level subsystem heat pipe heat secondary subsystem.
Figure 10 is the structural representation of high heat radiation density machine room heat pipe heat of the present utility model system when being in by simultaneously heat extraction of the forward and backward backboard heat pipe heat of the independent cooling of natural cooling source module one-level subsystem secondary subsystem pattern.
The specific embodiment
For making the purpose of this utility model, technical scheme and advantage clearer, referring to the accompanying drawing embodiment that develops simultaneously, the utility model is further described.
Fig. 1 is the structural representation of the high density machine room heat pipe heat system of dispelling the heat of the present utility model.High heat radiation density machine room heat pipe heat of the present utility model system comprises indoor 1, the machine room outdoor 25 of machine room.Wherein, machine room indoor 1 by some row independently integrated cabinet heat pipe heat one-level subsystem 2 consist of; Integrated cabinet heat pipe heat one-level subsystem 2 is by postnotum heat pipe heat secondary subsystem 3, frame 18, and high heat radiation density machine room server 19, pronotum heat pipe heat secondary subsystem 4 consists of; Postnotum heat pipe heat secondary subsystem 3 is by three grades of subsystems 5 of some row's postnotum heat pipes, and tracheae header I 9 and liquid manifold pipe I 10 consist of; Pronotum heat pipe heat secondary subsystem 4 is by three grades of subsystems 6 of some row's pronotum heat pipes, and tracheae header II 7 and liquid manifold pipe II 8 consist of; Three grades of subsystems 5 of postnotum heat pipe are by postnotum heat exchanger tube 20, and tracheae stop valve 13, liquid pipe stop valve 14 pass through connecting line 21,22 and be communicated with successively, and are communicated with tracheae header I 9 and liquid manifold pipe I 10 by connecting line 23,24; Three grades of subsystems 6 of pronotum heat pipe are by pronotum heat exchanger tube 17, and tracheae stop valve 13, liquid pipe stop valve 14 pass through connecting line 16,15 and be communicated with successively, and are communicated with tracheae header II 7 and liquid manifold pipe II 8 by connecting line 12,11; Machine room outdoor 25 is by triple valve I 33, natural cooling source module one-level subsystem 26, level pressure and water replanishing device 38, water pump 40, triple valve II 42, handpiece Water Chilling Units 43, water knockout drum 44, Intermediate Heat Exchanger one-level subsystem 51, water collector 45 is communicated with successively by pipeline 29,28,35,36,37,39,41,46,47,48,49,50; Natural cooling source module one-level subsystem 26 is by two air cooling modules 27, and check valve I 34 is communicated with successively by pipeline 29,30,28,31; Intermediate Heat Exchanger one-level subsystem 51 is by triple valve III 58, Intermediate Heat Exchanger II 52, and check valve II 57, triple valve IV 62, Intermediate Heat Exchanger I 53, check valve III 63 is communicated with successively by pipeline 54,55,60,61,56,59,64; Triple valve I 33, triple valve II 42, triple valve III 58, triple valve IV 62 include entrance, the first outlet and the second outlet, and described entrance is selected a ground and is communicated with described the first outlet, the second outlet; Machine room indoor 1 and machine room outdoor 25 by with some groups of tracheae header I 9 corresponding to integrated cabinet heat pipe heat one-level subsystem 2 columns, liquid manifold pipe I 10, tracheae header II 7, liquid manifold pipe II 8 is communicated with.
Fig. 2 is the structural representation of high heat radiation density machine room heat pipe heat of the present utility model system when being in by the independent heat extraction pattern of the independent cooling postnotum of handpiece Water Chilling Units heat pipe heat secondary subsystem.When natural environment can not provide described energy saving of system to move required natural cooling source, the required low-temperature receiver of indoor 1 heat extraction of described machine room was only provided by described handpiece Water Chilling Units 43, and the entrance of described triple valve I 33, triple valve II 42 all is communicated with its first outlet at this moment; When described postnotum heat exchanger tube 20 return air temperatures are higher than design temperature, high heat radiation density building environment temperature requirements emphasis is digestion machine room hot localised points, thereby controlling described postnotum heat exchanger tube 20 wind pushing temperatures remains on when ensureing whole building environment temperature stabilization in the certain temperature range, described machine room indoor 1 can start separately described postnotum heat pipe heat secondary subsystem 3, and the entrance of described triple valve III 58, triple valve IV 62 all is communicated with its first outlet at this moment.In described machine room outdoor 25 system pipelines, the flow of cooling water direction is among Fig. 2 shown in the arrow A direction, in indoor 1 system pipeline of described machine room, the flow of refrigerant direction is among Fig. 2 shown in the arrow B direction, three grades of subsystems 5 of described postnotum heat pipe, three grades of subsystems 6 of pronotum heat pipe, frame 18, high heat radiation density machine room server 19 Air flow directions are among Fig. 2 shown in the arrow C direction.
Fig. 3 is the structural representation of high heat radiation density machine room heat pipe heat of the present utility model system when being in by the independent heat extraction pattern of the independent cooling pronotum of handpiece Water Chilling Units heat pipe heat secondary subsystem.When natural environment can not provide described energy saving of system to move required natural cooling source, the required low-temperature receiver of indoor 1 heat extraction of described machine room was only provided by described handpiece Water Chilling Units 43, and the entrance of described triple valve I 33, triple valve II 42 all is communicated with its first outlet at this moment; When described pronotum heat exchanger tube 17 return air temperatures are higher than design temperature, high heat radiation density building environment temperature requirements emphasis is for eliminating the machine room hot localised points, requirement is positioned at described high heat radiation density machine room server 19 EATs of described frame 18, be that the wind pushing temperature of described pronotum heat exchanger tube 17 is in lower temperature range, thereby ensure that 19 air-out of described high heat radiation density machine room server are in certain temperature range, when avoiding producing the machine room hot localised points, described machine room indoor 1 can start separately described pronotum heat pipe heat secondary subsystem 4, at this moment described triple valve III (58), the entrance of triple valve IV (62) all is communicated with its second outlet.In described machine room outdoor 25 system pipelines, the flow of cooling water direction is among Fig. 3 shown in the arrow E direction, in indoor 1 system pipeline of described machine room, the flow of refrigerant direction is among Fig. 3 shown in the arrow D direction, three grades of subsystems 5 of described postnotum heat pipe, three grades of subsystems 6 of pronotum heat pipe, frame 18, high heat radiation density machine room server 19 Air flow directions are among Fig. 3 shown in the arrow C direction.
Fig. 4 is the structural representation of high heat radiation density machine room heat pipe heat of the present utility model system when being in by simultaneously heat extraction of the forward and backward backboard heat pipe heat of the independent cooling of handpiece Water Chilling Units secondary subsystem pattern.When natural environment can not provide described energy saving of system to move required natural cooling source, the required low-temperature receiver of indoor 1 heat extraction of described machine room was only provided by described handpiece Water Chilling Units 43, and the entrance of described triple valve I 33, triple valve II 42 all is communicated with its first outlet at this moment; When described postnotum heat exchanger tube 20, the return air temperature of pronotum heat exchanger tube 17, wind pushing temperature all is higher than design temperature, high heat radiation density building environment temperature requirements digests simultaneously and eliminates hot localised points, when thereby the wind pushing temperature of controlling described postnotum heat exchanger tube 20 and described pronotum heat exchanger tube 17 ensures that in certain temperature range whole building environment temperature and 19 air-out of described high heat radiation density machine room server are all in certain temperature range, described machine room indoor 1 can start described postnotum heat pipe heat secondary subsystem 3 and described pronotum heat pipe heat secondary subsystem 4 simultaneously, this moment, the entrance of described triple valve III 58 was communicated with its second outlet, and the entrance of described triple valve IV 62 is communicated with its first outlet.In described machine room outdoor 25 system pipelines, the flow of cooling water direction is among Fig. 4 shown in the arrow F direction, in indoor 1 system pipeline of described machine room, the flow of refrigerant direction is shown in arrow B among Fig. 4, the D direction, three grades of subsystems 5 of described postnotum heat pipe, three grades of subsystems 6 of pronotum heat pipe, frame 18, high heat radiation density machine room server 19 Air flow directions are among Fig. 4 shown in the arrow C direction.
Fig. 5 is that high heat radiation density machine room heat pipe heat of the present utility model system is in by natural cooling source module one-level subsystem and the handpiece Water Chilling Units structural representation during the independent heat extraction pattern of cooling postnotum heat pipe heat secondary subsystem simultaneously.When natural environment can partly provide described energy saving of system to move required natural cooling source, the required low-temperature receiver of indoor 1 heat extraction of described machine room is provided jointly by described natural cooling source module one-level subsystem 26 and described handpiece Water Chilling Units 42, this moment, the entrance of described triple valve I 33 was communicated with simultaneously with its first outlet and the second outlet, and the entrance of described triple valve II42 is communicated with its first outlet; When described postnotum heat exchanger tube 20 return air temperatures are higher than design temperature, high heat radiation density building environment temperature requirements emphasis is digestion machine room hot localised points, thereby controlling described postnotum heat exchanger tube 20 wind pushing temperatures remains on when ensureing whole building environment temperature stabilization in the certain temperature range, described machine room indoor 1 can start separately described postnotum heat pipe heat secondary subsystem 3, and the entrance of described triple valve III 58, triple valve IV 62 all is communicated with its first outlet at this moment.In described machine room outdoor 25 system pipelines, the flow of cooling water direction is among Fig. 5 shown in the arrow G direction, described air cooling module 27 air inlet/outlet directions are shown in arrow H direction among Fig. 5, in indoor 1 system pipeline of described machine room, the flow of refrigerant direction is among Fig. 5 shown in the arrow B direction, three grades of subsystems 5 of described postnotum heat pipe, three grades of subsystems 6 of pronotum heat pipe, frame 18, high heat radiation density machine room server 19 Air flow directions are among Fig. 5 shown in the arrow C direction.
Fig. 6 is that high heat radiation density machine room heat pipe heat of the present utility model system is in by natural cooling source module one-level subsystem and the handpiece Water Chilling Units structural representation during the independent heat extraction pattern of cooling pronotum heat pipe heat secondary subsystem simultaneously.When natural environment can partly provide described energy saving of system to move required natural cooling source, the required low-temperature receiver of indoor 1 heat extraction of described machine room is provided jointly by described natural cooling source module one-level subsystem 26 and described handpiece Water Chilling Units 42, this moment, the entrance of described triple valve I 33 was communicated with simultaneously with its first outlet and the second outlet, and the entrance of described triple valve II42 is communicated with its first outlet; When described pronotum heat exchanger tube 17 return air temperatures are higher than design temperature, high heat radiation density building environment temperature requirements emphasis is for eliminating the machine room hot localised points, requirement is positioned at described high heat radiation density machine room server 19 EATs of described frame 18, be that the wind pushing temperature of described pronotum heat exchanger tube 17 is in lower temperature range, thereby ensure that 19 air-out of described high heat radiation density machine room server are in certain temperature range, when avoiding producing the machine room hot localised points, described machine room indoor 1 can start separately described pronotum heat pipe heat secondary subsystem 4, at this moment described triple valve III (58), the entrance of triple valve IV (62) all is communicated with its second outlet.In described machine room outdoor 25 system pipelines, the flow of cooling water direction is among Fig. 6 shown in the arrow J direction, described air cooling module 27 air inlet/outlet directions are shown in arrow H direction among Fig. 6, in indoor 1 system pipeline of described machine room, the flow of refrigerant direction is among Fig. 6 shown in the arrow D direction, three grades of subsystems 5 of described postnotum heat pipe, three grades of subsystems 6 of pronotum heat pipe, frame 18, high heat radiation density machine room server 19 Air flow directions are among Fig. 6 shown in the arrow C direction.
Fig. 7 is the structural representation of high heat radiation density machine room heat pipe heat of the present utility model system when being in by natural cooling source module one-level subsystem and simultaneously simultaneously heat extraction of the forward and backward backboard heat pipe heat of cooling secondary subsystem of handpiece Water Chilling Units pattern.When natural environment can partly provide described energy saving of system to move required natural cooling source, the required low-temperature receiver of indoor 1 heat extraction of described machine room is provided jointly by described natural cooling source module one-level subsystem 26 and described handpiece Water Chilling Units 42, this moment, the entrance of described triple valve I 33 was communicated with simultaneously with its first outlet and the second outlet, and the entrance of described triple valve II 42 is communicated with its first outlet; When described postnotum heat exchanger tube 20, the return air temperature of pronotum heat exchanger tube 17, wind pushing temperature all is higher than design temperature, high heat radiation density building environment temperature requirements digests simultaneously and eliminates hot localised points, when thereby the wind pushing temperature of controlling described postnotum heat exchanger tube 20 and described pronotum heat exchanger tube 17 ensures that in certain temperature range whole building environment temperature and 19 air-out of described high heat radiation density machine room server are all in certain temperature range, described machine room indoor 1 can start described postnotum heat pipe heat secondary subsystem 3 and described pronotum heat pipe heat secondary subsystem 4 simultaneously, this moment, the entrance of described triple valve III 58 was communicated with its second outlet, and the entrance of described triple valve IV 62 is communicated with its first outlet.In described machine room outdoor 25 system pipelines, the flow of cooling water direction is among Fig. 7 shown in the arrow K direction, described air cooling module 27 air inlet/outlet directions are shown in arrow H direction among Fig. 7, in indoor 1 system pipeline of described machine room, the flow of refrigerant direction is shown in arrow B among Fig. 7, the D direction, three grades of subsystems 5 of described postnotum heat pipe, three grades of subsystems 6 of pronotum heat pipe, frame 18, high heat radiation density machine room server 19 Air flow directions are among Fig. 7 shown in the arrow C direction.
Fig. 8 is the structural representation of high heat radiation density machine room heat pipe heat of the present utility model system when being in by the independent heat extraction pattern of the independent cooling postnotum of natural cooling source module one-level subsystem heat pipe heat secondary subsystem.When natural environment can all provide described energy saving of system to move required natural cooling source, the required low-temperature receiver of indoor 1 heat extraction of described machine room is only provided by described natural cooling source module one-level subsystem 26, the entrance of described triple valve I 33 is communicated with its second outlet, the entrance of described triple valve II 42 is communicated with its second outlet or the pressure drop that produces during through described handpiece Water Chilling Units evaporimeter when cooling water flow in tolerance interval the time, and the entrance of described triple valve II 42 first exports and is communicated with it; When described postnotum heat exchanger tube 20 return air temperatures are higher than design temperature, high heat radiation density building environment temperature requirements emphasis is digestion machine room hot localised points, thereby controlling described postnotum heat exchanger tube 20 wind pushing temperatures remains on when ensureing whole building environment temperature stabilization in the certain temperature range, described machine room indoor 1 can start separately described postnotum heat pipe heat secondary subsystem 3, and the entrance of described triple valve III 58, triple valve IV 62 all is communicated with its first outlet at this moment.In described machine room outdoor 25 system pipelines, the flow of cooling water direction is among Fig. 8 shown in the arrow L direction, described air cooling module 27 air inlet/outlet directions are shown in arrow H direction among Fig. 8, in indoor 1 system pipeline of described machine room, the flow of refrigerant direction is among Fig. 8 shown in the arrow B direction, three grades of subsystems 5 of described postnotum heat pipe, three grades of subsystems 6 of pronotum heat pipe, frame 18, high heat radiation density machine room server 19 Air flow directions are among Fig. 8 shown in the arrow C direction.
Fig. 9 is the structural representation of high heat radiation density machine room heat pipe heat of the present utility model system when being in by the independent heat extraction pattern of the independent cooling pronotum of natural cooling source module one-level subsystem heat pipe heat secondary subsystem.When natural environment can all provide described energy saving of system to move required natural cooling source, the required low-temperature receiver of indoor 1 heat extraction of described machine room is only provided by described natural cooling source module one-level subsystem 26, the entrance of described triple valve I 33 is communicated with its second outlet, the entrance of described triple valve II 42 is communicated with its second outlet or the pressure drop that produces during through described handpiece Water Chilling Units evaporimeter when cooling water flow in tolerance interval the time, and the entrance of described triple valve II 42 first exports and is communicated with it; When described pronotum heat exchanger tube 17 return air temperatures are higher than design temperature, high heat radiation density building environment temperature requirements emphasis is for eliminating the machine room hot localised points, requirement is positioned at described high heat radiation density machine room server 19 EATs of described frame 18, be that the wind pushing temperature of described pronotum heat exchanger tube 17 is in lower temperature range, thereby ensure that 19 air-out of described high heat radiation density machine room server are in certain temperature range, when avoiding producing the machine room hot localised points, described machine room indoor 1 can start separately described pronotum heat pipe heat secondary subsystem 4, at this moment described triple valve III (58), the entrance of triple valve IV (62) all is communicated with its second outlet.In described machine room outdoor 25 system pipelines, the flow of cooling water direction is among Fig. 9 shown in the arrow M direction, described air cooling module 27 air inlet/outlet directions are shown in arrow H direction among Fig. 9, in indoor 1 system pipeline of described machine room, the flow of refrigerant direction is among Fig. 9 shown in the arrow D direction, three grades of subsystems 5 of described postnotum heat pipe, three grades of subsystems 6 of pronotum heat pipe, frame 18, high heat radiation density machine room server 19 Air flow directions are among Fig. 9 shown in the arrow C direction.
Figure 10 is the structural representation of high heat radiation density machine room heat pipe heat of the present utility model system when being in by simultaneously heat extraction of the forward and backward backboard heat pipe heat of the independent cooling of natural cooling source module one-level subsystem secondary subsystem pattern.When natural environment can all provide described energy saving of system to move required natural cooling source, the required low-temperature receiver of indoor 1 heat extraction of described machine room is only provided by described natural cooling source module one-level subsystem 26, the entrance of described triple valve I 33 is communicated with its second outlet, the entrance of described triple valve II 42 is communicated with its second outlet or the pressure drop that produces during through described handpiece Water Chilling Units evaporimeter when cooling water flow in tolerance interval the time, and the entrance of described triple valve II 42 first exports and is communicated with it; When described postnotum heat exchanger tube 20, the return air temperature of pronotum heat exchanger tube 17, wind pushing temperature all is higher than design temperature, high heat radiation density building environment temperature requirements digests simultaneously and eliminates hot localised points, when thereby the wind pushing temperature of controlling described postnotum heat exchanger tube 20 and described pronotum heat exchanger tube 17 ensures that in certain temperature range whole building environment temperature and 19 air-out of described high heat radiation density machine room server are all in certain temperature range, described machine room indoor 1 can start described postnotum heat pipe heat secondary subsystem 3 and described pronotum heat pipe heat secondary subsystem 4 simultaneously, this moment, the entrance of described triple valve III 58 was communicated with its second outlet, and the entrance of described triple valve IV 62 is communicated with its first outlet.In described machine room outdoor 25 system pipelines, the flow of cooling water direction is among Figure 10 shown in the arrow N direction, described air cooling module 27 air inlet/outlet directions are shown in arrow H direction among Figure 10, in indoor 1 system pipeline of described machine room, the flow of refrigerant direction is shown in arrow B among Figure 10, the D direction, three grades of subsystems 5 of described postnotum heat pipe, three grades of subsystems 6 of pronotum heat pipe, frame 18, high heat radiation density machine room server 19 Air flow directions are among Figure 10 shown in the arrow C direction.
The above only is preferred embodiment of the present utility model; not in order to limit the utility model; all within spirit of the present utility model and principle, any modification of making, be equal to replacement, improvement etc., all should be included within the scope of the utility model protection.
Claims (6)
1. a machine room heat pipe heat system comprises machine room indoor unit (1), machine room outdoor unit (25), it is characterized in that:
Described machine room indoor unit (1) comprises independently integrated cabinet heat pipe heat one-level subsystem (2) of some row; Described integrated cabinet heat pipe heat one-level subsystem (2) comprises postnotum heat pipe heat secondary subsystem (3) and the pronotum heat pipe heat secondary subsystem (4) that places on the frame (18), the upper a plurality of high heat radiation density machine room servers (19) of arranging of frame (18);
Described postnotum heat pipe heat secondary subsystem (3) comprises some three grades of subsystems of row's postnotum heat pipe (5), tracheae header I (9) and liquid manifold pipe I (10);
Described pronotum heat pipe heat secondary subsystem (4) comprises some three grades of subsystems of row's pronotum heat pipe (6), tracheae header II (7) and liquid manifold pipe II (8);
Three grades of subsystems of described postnotum heat pipe (5) comprise tracheae stop valve I (13), postnotum heat exchanger tube (20) and the liquid pipe stop valve I (14) that is communicated with successively by connecting line, and three grades of subsystems of each postnotum heat pipe (5) are communicated with tracheae header I (9) and liquid manifold pipe I (10) by connecting line;
Three grades of subsystems of described pronotum heat pipe (6) comprise tracheae stop valve II (13), the pronotum heat exchanger tube (17) that is communicated with successively by connecting line, with liquid pipe stop valve II (14), three grades of subsystems of each pronotum heat pipe (6) are communicated with tracheae header II (7) and liquid manifold pipe II (8) by connecting line;
Described machine room outdoor unit (25) comprises the Intermediate Heat Exchanger one-level subsystem (51) that is communicated with successively by pipeline, water collector (45), natural cooling source module one-level subsystem (26), handpiece Water Chilling Units (43), and water knockout drum (44),
The corresponding integrated cabinet heat pipe heat one-level subsystem (2) of each Intermediate Heat Exchanger one-level subsystem (51), comprise Intermediate Heat Exchanger I (53) and Intermediate Heat Exchanger II (52), the hot side of described Intermediate Heat Exchanger I (53) is communicated with three grades of subsystems of described postnotum heat pipe (5) by tracheae header I (9) and liquid manifold pipe I (10), and the hot side of described Intermediate Heat Exchanger II (52) is communicated with described pronotum heat pipe heat secondary subsystem (4) by tracheae header II (7) and liquid manifold pipe II (8); The cold side two ends of described Intermediate Heat Exchanger one-level subsystem (51) are communicated with by the same water knockout drum of pipeline (44), water collector (45) respectively.
2. machine room heat pipe heat according to claim 1 system, it is characterized in that, described machine room outdoor unit (25) also comprises triple valve I (33), triple valve II (42), level pressure and water replanishing device (38) and water pump (40), level pressure and water replanishing device (38), water pump (40), triple valve II (42) is successively set on the pipeline between the inlet side of the outlet side of natural cooling source module one-level subsystem (26) and handpiece Water Chilling Units (43), wherein, described triple valve I (33), triple valve II (42) includes entrance, the first outlet and the second outlet, described entrance can be selected a ground and described the first outlet, the second outlet is communicated with, and also can export with described first simultaneously, the second outlet is communicated with; The entrance connected set hydrophone (45) of triple valve I (33), the first outlet is communicated with the entrance side of water pump (40), and the second outlet is communicated with the entrance side of natural cooling source module one-level subsystem (26); The entrance of triple valve II (42) is communicated with the outlet of water pump (40), and the first outlet is communicated with the inlet side of handpiece Water Chilling Units (43), and the second outlet is communicated with the outlet side of handpiece Water Chilling Units (43).
3. machine room heat pipe heat according to claim 1 and 2 system is characterized in that described natural cooling source module one-level subsystem (26) comprises several air cooling modules in parallel (27), and check valve I (34) is set on its outlet side pipeline.
4. machine room heat pipe heat according to claim 1 and 2 system, it is characterized in that, described Intermediate Heat Exchanger one-level subsystem (51) also comprises triple valve III (58), check valve II (57), triple valve IV (62), check valve III (63), wherein, described triple valve III (58), triple valve IV (62) include entrance, the first outlet and the second outlet, described entrance can be selected a ground and be communicated with described the first outlet, the second outlet, also can be communicated with described the first outlet, the second outlet simultaneously; The entrance of triple valve III (58) is communicated with water knockout drum (44), and the first outlet is communicated with the entrance of triple valve IV (62), and the second outlet is communicated with the water inlet of Intermediate Heat Exchanger II (52) cold side; The entrance of triple valve IV (62) also is communicated with the delivery port of Intermediate Heat Exchanger II (52) cold side, on the pipeline between the delivery port of the entrance of triple valve IV (62) and Intermediate Heat Exchanger II (52) cold side check valve II (57) is set, the first outlet of triple valve IV (62) is communicated with the water inlet of Intermediate Heat Exchanger I (53) cold side, the second outlet connected set hydrophone (45), the delivery port of Intermediate Heat Exchanger I (53) cold side is by being provided with the pipeline connection water collector (45) of check valve III (63).
5. machine room heat pipe heat according to claim 1 and 2 system, it is characterized in that, described system further comprises be used to measuring described postnotum heat exchanger tube (20), pronotum heat exchanger tube (17) return air temperature, wind pushing temperature and described air cooling module (27), handpiece Water Chilling Units (42) supplies, the sensor of return water temperature.
6. high heat radiation density machine room heat pipe heat according to claim 1 and 2 system, it is characterized in that the refrigerant that adopts in the described integrated cabinet heat pipe heat one-level subsystem (2) is at least a among R22, R134a, R407C, R410A, R32, the R125.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN 201220584965 CN202853029U (en) | 2012-11-07 | 2012-11-07 | Machine room heat pipe heat-extraction system |
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| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN 201220584965 CN202853029U (en) | 2012-11-07 | 2012-11-07 | Machine room heat pipe heat-extraction system |
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| CN202853029U true CN202853029U (en) | 2013-04-03 |
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| CN 201220584965 Withdrawn - After Issue CN202853029U (en) | 2012-11-07 | 2012-11-07 | Machine room heat pipe heat-extraction system |
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Cited By (6)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN102889659A (en) * | 2012-11-07 | 2013-01-23 | 北京纳源丰科技发展有限公司 | Heat pipe heat extraction system in high-radiating density machine room |
| CN103277868A (en) * | 2013-05-30 | 2013-09-04 | 北京雅驿欣科技有限公司 | Isolated type heat elimination system |
| CN108566761A (en) * | 2018-01-26 | 2018-09-21 | 青岛理工大学 | It is a kind of using the data center module heat extraction of cabinet-level heat pipe and waste heat utilization system |
| CN109539388A (en) * | 2018-12-25 | 2019-03-29 | 北京纳源丰科技发展有限公司 | A kind of double circulation overhead heat pipe micromodule |
| CN110145825A (en) * | 2018-02-11 | 2019-08-20 | 盾安环境技术有限公司 | A kind of heat pipe combined air-conditioning system and its standby system |
| CN110770522A (en) * | 2017-03-12 | 2020-02-07 | 祖达科尔有限公司 | Cooling system and method |
-
2012
- 2012-11-07 CN CN 201220584965 patent/CN202853029U/en not_active Withdrawn - After Issue
Cited By (9)
| Publication number | Priority date | Publication date | Assignee | Title |
|---|---|---|---|---|
| CN102889659A (en) * | 2012-11-07 | 2013-01-23 | 北京纳源丰科技发展有限公司 | Heat pipe heat extraction system in high-radiating density machine room |
| CN102889659B (en) * | 2012-11-07 | 2015-01-14 | 北京纳源丰科技发展有限公司 | Heat pipe heat extraction system in high-radiating density machine room |
| CN103277868A (en) * | 2013-05-30 | 2013-09-04 | 北京雅驿欣科技有限公司 | Isolated type heat elimination system |
| CN103277868B (en) * | 2013-05-30 | 2016-08-17 | 广东海悟科技有限公司 | Isolated heat removal system |
| CN110770522A (en) * | 2017-03-12 | 2020-02-07 | 祖达科尔有限公司 | Cooling system and method |
| CN110770522B (en) * | 2017-03-12 | 2022-05-24 | 祖达科尔有限公司 | Cooling system and method |
| CN108566761A (en) * | 2018-01-26 | 2018-09-21 | 青岛理工大学 | It is a kind of using the data center module heat extraction of cabinet-level heat pipe and waste heat utilization system |
| CN110145825A (en) * | 2018-02-11 | 2019-08-20 | 盾安环境技术有限公司 | A kind of heat pipe combined air-conditioning system and its standby system |
| CN109539388A (en) * | 2018-12-25 | 2019-03-29 | 北京纳源丰科技发展有限公司 | A kind of double circulation overhead heat pipe micromodule |
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Address after: 102208 Beijing dragon flag Plaza, building 1505, No. 2, Changping District Patentee after: Beijing Nayuanfeng Science & Technology Development Co., Ltd. Address before: 100085 Beijing city Haidian District Xueqing Road No. 9 Ebizal building 501 Patentee before: Beijing Nayuanfeng Science & Technology Development Co., Ltd. |
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Granted publication date: 20130403 Effective date of abandoning: 20150114 |
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