CN201133778Y - Minute dimension composite phase-change cooling automobile heat administrative system - Google Patents
Minute dimension composite phase-change cooling automobile heat administrative system Download PDFInfo
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- CN201133778Y CN201133778Y CNU2007201729739U CN200720172973U CN201133778Y CN 201133778 Y CN201133778 Y CN 201133778Y CN U2007201729739 U CNU2007201729739 U CN U2007201729739U CN 200720172973 U CN200720172973 U CN 200720172973U CN 201133778 Y CN201133778 Y CN 201133778Y
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- Y—GENERAL TAGGING OF NEW TECHNOLOGICAL DEVELOPMENTS; GENERAL TAGGING OF CROSS-SECTIONAL TECHNOLOGIES SPANNING OVER SEVERAL SECTIONS OF THE IPC; TECHNICAL SUBJECTS COVERED BY FORMER USPC CROSS-REFERENCE ART COLLECTIONS [XRACs] AND DIGESTS
- Y02—TECHNOLOGIES OR APPLICATIONS FOR MITIGATION OR ADAPTATION AGAINST CLIMATE CHANGE
- Y02A—TECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE
- Y02A50/00—TECHNOLOGIES FOR ADAPTATION TO CLIMATE CHANGE in human health protection, e.g. against extreme weather
- Y02A50/20—Air quality improvement or preservation, e.g. vehicle emission control or emission reduction by using catalytic converters
Abstract
The utility model relates to a management system for cooling automobile heat with superfine scale and compound phase transition which relates to the technology of engine; the management system consists of a heat suction converting device, an air cooled condenser, a solenoid pilot actuated valve, a liquid returning tube and a steam heat preservation tube. The liquid inlet of the heat suction converting device and the liquid outlet of the air cooled condenser are connected by the liquid returning tube; the steam outlet of the heat suction converting device and the steam inlet of the air cooled condenser are connected by the steam heat preservation tube; the solenoid pilot actuated valve is mounted on the upper surface of the liquid returning tube and the system is evacuated. The management system of the utility model effectively reduces over-high automobile tail gas temperature to lead an automobile three-way catalyst unit to work normally, thus effectively reducing the content of the contamination in automobile exhaust.
Description
Technical field:
The utility model relates to technical field of engines, is a kind of gas system efficiently, and high-temperature gas can obviously reduce by native system cooling back temperature, is applicable to the cooling of high-power engine high-temperature tail gas.
Technical background:
In 19 beginnings of the century, the two century-old times so far, the automobile industry fast development, up to now, global automobile quantity is above 800,000,000.Automobile had become the sign of modern society's civilization already as a kind of topmost vehicles.Yet automobile is in the productivity development of making greater efforts to promote, for people's trip provides greatly easily simultaneously, and its discharge tail gas also to the healthy generation harm of mankind itself, has caused serious pollution to atmospheric environment.Main pernicious gas in the vehicle exhaust is carbon monoxide (CO), hydrocarbon (HC) and oxynitrides (NO
X).The excessive meeting of these pernicious gases causes photochemical fog in the air, the mankind contact with it and in a large number suction can cause poisoning, cause disease even bring out the cancer threat to life.Simultaneously, it also can cause atmospheric visibility to reduce, and influences vegeto-animal growth, increases the weight of the greenhouse effects of atmospheric environment.The automobile exhaust pollution problem has caused the attention of countries in the world, and national governments and the enterprise a large amount of manpower and financial resources of numerous and confused input solves this problem.What extensively adopt in car and new car at present is the exhaust purification catalytic technology.It is that the waste gas that adopts some advanced external purification technology that automobile is produced purifies to reduce pollution, though this approach can not reach " zero pollutes ", but before finding new better solution, is the way that practicable minimizing is polluted.Because developed countries such as Europe, the U.S. and Japan are early also strict to motor vehicle exhaust emission control, therefore, their used cleaning catalyst for tail gases of automobiles is more extensive, mainly is to use three-way catalyst at present.Promptly make HC and CO be oxidized to H in this catalyst
2O and CO
2Oxidant, also make NOx be reduced into N
2Reducing agent, so just can play good catharsis.Three-way catalyst is minimum will to react in 350 ℃, and temperature is crossed when hanging down, and conversion efficiency sharply descends; And activity of such catalysts temperature (optimum working temperature) is about 400 ℃ to 800 ℃, and the too high catalyst ageing that also can make aggravates.Cause catalyst ageing easily in case operating temperature is crossed the higher position, shorten working life and catalytic efficiency.The temperature of now general engine discharging tail gas is about 400-700 ℃, and under this operating mode, three-way catalyst can effectively play a role.But along with the utilization of new technologies such as present supercharging technology on engine, the performance of engine constantly promotes, and the temperature of tail gas also constantly raises, and the high exhaust temperature of some automobile is up to 900 ℃ recently, and high temperatureization (reaching 950 ℃) trend is very obvious.And simultaneously, it is strict more that the exhaust emission standard of various countries also becomes, and " Europe 4 " discharge standard has been carried out in Europe as far back as 2005.In order to reach this standard, when taking other measure, must guarantee that three-way catalyst works effectively in the active temperature scope.This just need install a kind of cooling device additional in the part exhaust opening of engine, is reduced in the three-way catalyst normal working temperature scope with the temperature of this tail gas.We are called the tide of motorism management system to this cooling device.The indoor design of automobile is very compact, particularly for the automobile that turbocharged engine is installed, it is very unpractical will connecing a bigger cooling device of volume air-cooled or that water-cooled is such in exhaust pipe of engine back, and require high-temperature tail gas to pass through that pressure drop can not be too big after this cooling device, in order to avoid influence the normal discharging of tail gas.As seen from the above analysis, this heat management system that installs additional on the exhaust pipe of engine must satisfy following condition: (1) volume is little.The automotive interior design is very compact, so can not leave very big space specially heat management system is installed; (2) cooling effectiveness wants high.Engine capacity when high load capacity is very big, and the speed of tail gas is also quite high, and it is quite difficult making tail gas stream temperature behind the cooling device of a small size can reduce 100-200 ℃, and this just requires chiller efficiency very high; (3) the tail gas pressure drop is little.The pressure of motor exhaust is only slightly bigger than atmospheric pressure, if the pressure drop of heat management system is excessive, will reduce the efficient of engine.
The utility model content:
The purpose of this utility model is:
Solve that the heat exchanger heat exchange efficiency that prior art exists is low, bulky, gas is by the excessive defective of pressure drop; Thereby the tide of motorism management system that provides a kind of heat exchange efficiency height, structural design compactness, the little micro-scale composite phase-change of pressure drop to cool off.
For achieving the above object, technical solution of the present utility model is:
A kind of micro-scale composite phase-change cooling automobile heat management system, it comprises heat absorption conversion equipment, air cooled condenser, steam insulating tube, liquid return tube and magnetic valve; Its heat absorption conversion equipment comprises inside and outside two diameter differences, the metal circular tube that length is identical, two pipes are coaxial nested, two annular end face sealings that both ends of the surface alignment and outer, interior pipe form also are connected with flange face, and the through hole on the inner chamber of interior pipe and two flange faces is suitable, forms passage; Interior pipe outer surface is carved with axial microflute group, microflute surface plating nano thin-film, and outer surface is by the composite porous parcel of one deck; Annular region between cylindrical pipe internal surface and interior pipe outer surface is divided into cavity a, b, c three parts by the two rings shape steel plate of same cross sectional shape;
In the middle of cavity b is positioned at, be vapor area, cavity b zone has vapor outlet port in the pipe surface outside; Cavity a, c lay respectively at two ends, are to hold the liquid zone, and cavity a, c two zones have a liquid return tube interface outside respectively above the pipe;
The inside of condenser is flat cavity, is respectively equipped with vapour inlet and saturated liquid outlet in the top and the bottom of cavity, and the saturated liquid outlet of condenser and two liquid return tube interfaces of heat absorption conversion equipment are communicated with by liquid return tube; The vapor outlet port of the vapour inlet of condenser and heat absorption conversion equipment is communicated with by the steam insulating tube; Magnetic valve is arranged in the liquid return tube pipeline;
The cavity top of condenser also is provided with and vacuumizes interface; Whole system inside vacuumizes, and working medium is arranged in the system.
Described heat management system, its described heat absorption conversion equipment, external diameter of pipe is 20mm-70mm in it, and wall thickness is 0.5mm-10mm, and material is red copper alloy, nichrome or stainless steel; Its outer round tube inside diameter increases 1mm-20mm on the basis of interior pipe external diameter, wall thickness is 0.5mm-10mm, and material is a stainless steel; The uniform axial microflute group of circular tube external wall face in whole; The cross sectional shape of micro-channel is semicircle, rectangle, trapezoidal or triangle; The width at micro-channel top and the degree of depth are between 0.01mm-5mm, and in the heart spacing is 0.1mm-5mm in adjacent two micro-channel; It between the adjacent micro-channel little fin of respective shapes.
Described heat management system, the composite of pipe outer surface was combined by silk screen and capillary porous material in it was described, and silk screen layer and porous material layer are alternately fitted, and the number of plies of silk screen is between 1-10, and the number of plies of porous material is between 1-5; Meshcount is 50-1000; Thickness of composite material is between 0.5mm-5mm; The passage two ends that interior pipe forms are connected with blast pipe by flange.
Described heat management system, its described heat absorption conversion equipment, two steel plates in the inner annular cavity, its nearest pipe end face is respectively the 1/20-1/4 of pipe range.
Described heat management system, the thickness of its described doughnut-shaped steel plate are 0.5mm-10mm; Three part cavity a, b, c that steel plate is cut apart, by microflute and composite porous connection, the composite junction on doughnut-shaped steel plate and outer round tube inner wall and the interior circular tube external wall all seals between adjacent two parts.
Described heat management system, the cavity thickness of its described air cooled condenser is 2mm-50mm, cavity inner wall has vertical liquid condensation and backflow conduit of leading to the bottom, the cross sectional shape of conduit is rectangle, semicircle, trapezoidal or triangle, the top width of conduit is between 0.01mm-5mm, groove depth is between 0.5mm-5mm, and adjacent two groove center spacings are between 0.1mm-10mm; The cavity outer wall is provided with radiated rib, and fin height and thickness are 1mm-50mm, and spacing of fins is 1mm-20mm.
Described heat management system, its described steam insulating tube is to be made by polyurethane or polythene material, and there is the pressure-bearing steel wire its inside, and its diameter is 10mm-50mm.
Described heat management system, its described liquid return tube is to be made by polyamide, poly-ammonia value or polythene material, diameter is 3mm-20mm.
Described heat management system, its described magnetic valve is to control its switching by the signal of telecommunication.
Described heat management system, its described working medium in inner loop, is distilled water, methyl alcohol or ethanol.
Advantage of the present utility model is:
Domestic and international research shows that the evaporation and the boiling of working medium have high heat transfer intensity in the micro-channel, belong to the extraordinary phenomenon of the heat and mass under the yardstick between microvoid, and the utility model has utilized high this advantage of its heat exchange efficiency exactly.Arranged a lot of micro-scale conduits at the outer wall of inner tube of heat absorption conversion equipment, liquid working substance flows in the microflute group from the two ends toroidal cavity continuously, and evaporation and boiling composite phase-change take place rapidly in groove liquid working substance, and heat is taken away.Compare with the type of cooling of routine such as air-cooled, water-cooled, the surperficial convection transfer rate of this type of cooling is higher, and required heat exchange area is littler.
The condenser of heat management system is placed on automotive front, and in the automobile driving process, high velocity air washes away the fin of condenser on every side, rejects heat in the surrounding environment.Fin absorbs the latent heat of vaporization that saturated vapor discharges, and steam becomes saturated liquid after discharging the latent heat of vaporization, does not need will install fan additional in the condenser outside as other air cooled condenser, has not only saved the electrical dissipation cooling effectiveness of fan but also high.In addition in the utility model, condenser and heat absorption conversion equipment are arranged apart, absorb the heat of high-temperature tail gas earlier with the heat absorption system, then heat transportation is discharged into heat in the surrounding environment by condenser to the strange land, overcome the limitation that existing space is narrow and small, area of dissipation is not enough when arranging the tide of motorism management system in the past, made the design of heat management system not be subjected to the restriction of blast pipe surrounding space.
Description of drawings
Fig. 1 is a micro-scale composite phase-change cooling automobile heat management system schematic diagram of the present utility model;
Fig. 2 is the axial cutaway view of the vertical tube of heat absorption conversion equipment of the present utility model;
Fig. 3 be heat absorption conversion equipment of the present utility model along the pipe axial section;
Fig. 4 is a schematic cross-section behind the inner tubal wall face microflute topping up of the present utility model;
Fig. 5 a is the internal structure profile of air cooled condenser of the present utility model;
Fig. 5 b is the external view of air cooled condenser of the present utility model.
The specific embodiment:
Figure 1 shows that the tide of motorism management system of a kind of micro-scale composite phase-change cooling of the present utility model, mainly form by heat absorption conversion equipment 4, condenser 1, steam insulating tube 2, liquid return tube 3 and magnetic valve 5.See Fig. 2 and Fig. 3, heat absorption conversion equipment 4 is by identical metal circular tube 21,22 nested the forming of inside and outside two diameter different lengths, and outer, interior pipe 21, the 22 sealed at both ends flange faces 23 that are fixed with, the through hole on the inner chamber of interior pipe 22 and two flange faces 23 is suitable, forms passage; The dead in line of back two pipes is installed; Interior pipe 22 outer surfaces are carved axial microflute group (referring to Fig. 4), microflute 24 outer surfaces plating nano thin-film 29, and outer surface is by composite porous 30 parcels of one deck; Annular region between outer pipe 21 inner surfaces and interior pipe 22 outer surfaces is divided into a, b, c three parts by the two rings shape steel plate 25 of same cross sectional shape.A, c two parts are positioned at two ends, are to hold the liquid zone; In the middle of b partly is positioned at, be vapor area.A, c two zones have a liquid return tube interface 26,27 respectively on outer tube; B zone tube-surface outside has vapor outlet port 28.
Air cooled condenser 1 inside is flat cavity 11, is furnished with saturated vapor inlet 12 and saturated solution outlet 13 respectively in the top and the bottom of cavity 11.The top of cavity 11 also is provided with and vacuumizes interface 15 (see figure 1)s.The outside of condenser 1 is a radiated rib 14.The liquid return tube interface 26,27 of heat absorption conversion equipment 4 interlinks through the saturated solution outlet 13 of liquid return tube 3 and air cooled condenser 1 respectively; The vapor outlet port 28 of heat absorption conversion equipment 4 and the vapour inlet 12 of air cooled condenser 1 interlink by steam insulating tube 2.
When whole system was worked, two ends cavity b, c inside were full of liquid working substance 31, and these liquid working substances 31 are managed (see figure 4) among the microflute group on 22 outer walls in flowing under the effect of microflute 24 capillary forces.The high-temperature tail gas that engine is discharged flows through from the interior pipe 22 of heat absorption conversion equipment 4, and and the inner tube wall face between exchange heat takes place, high-temperature tail gas heat release cooling, interior pipe 22 is heated, after being heated, interior pipe 22 will inevitably cause that liquid working substances 31 produce evaporation and boiling composite phase-change in the microflute 24, become steam behind the heat of pipe in saturated liquid working medium 31 a large amount of the absorptions, steam enters steam insulating tube 2 by the vapor outlet port 28 above the cavity b outer tube under the effect of pressure reduction, entered by saturated vapor inlet 12 then and discharge gasification latent heat in the air cooled condenser 1 and be condensed into liquid, gasification latent heat is discharged in the air by the fin 14 of air cooled condenser 1.The liquid that retains in the condenser 1 flows out by the saturated solution outlet 13 of condenser 1 bottom, and then the liquid return tube 3 of flowing through is entered two toroidal cavity b, the c at heat absorption conversion equipment 4 two ends by liquid return tube interface 26,27.So far, internal working medium 31 has been finished a circulation, the temperature of high-temperature tail gas is reduced in 800 ℃, the high-temperature tail gas of Pai Chuing enters the three-way catalytic apparatus that is installed in the blast pipe rear portion more then, carbon monoxide in the tail gas (CO), hydrocarbon (HC) and oxynitrides pernicious gases such as (NOX) are converted into water, carbon dioxide and nitrogen under the effect of catalyst, enter in the atmosphere at last.
Under the situation of engine operate as normal, magnetic valve 5 is in open mode, is beneficial to liquid and flows in the heat absorption conversion equipment 4; In engine was in a few minutes of flame-out, idling or start just, magnetic valve 5 was in closed condition, stoped the evaporation of liquid heat absorption with this, made the temperature of tail gas be unlikely to be lower than 400 ℃.
The external diameter of pipe 22 is 20mm-70mm in the heat absorption conversion equipment 4, and interior pipe 22 wall thickness are 0.5mm-10mm, and material is red copper alloy, nichrome or stainless steel; Its outer tube 21 internal diameters increase 1mm-20mm on the basis of interior pipe 22 external diameters, the wall thickness of outer tube 21 is 0.5mm-10mm, and material is a stainless steel.The uniform axial microflute 24 of pipe 22 outside wall surface in whole.The cross sectional shape of micro-channel is semicircle, rectangle, trapezoidal or triangle.The micro-channel width and the degree of depth are between 0.01mm-5mm, and in the heart spacing is 0.1mm-5mm in adjacent two micro-channel.It between the adjacent micro-channel little fin of respective shapes.
The microflute 24 plating nano thin-films 29 of pipe 22 outer surfaces in the heat absorption conversion equipment 4; The whole outer surface of interior pipe 22 is by composite 30 parcels, and this composite is made up of silk screen and capillary porous material, and meshcount is 50-1000; Composite 30 thickness are between 0.5mm-5mm.Outer tube 21 inwalls do not plate nano thin-film, do not wrap up composite yet.
The distance that has a nearest pipe end face in the position of steel disc 25 of identical cross-sectional shape with annular region of installing in the heat absorption conversion equipment 4 inner annular cavitys is respectively the 1/20-1/4 of pipe range.
The thickness of annular steel disc 25 is 0.5mm-10mm.Be communicated with by microflute group and capillary composite between adjacent two parts, annular steel disc 25 all seals with the composite 30 of interior pipe 22 outer walls parcel and the junction of outer tube 21 inwalls.
Air cooled condenser 1 inside is used for the cavity 11 of condensing steam and is rectangular shape, and its thickness is between 2mm-50mm.Cavity 11 walls have the vertical liquid backflow conduit 16 that leads to the bottom, the cross sectional shape of conduit 16 is rectangle, semicircle, trapezoidal or triangle, the top width of conduit 16 is between 0.01mm-5mm, and groove depth is between 0.5mm-5mm, and adjacent two groove center spacings are between 0.1mm-10mm.The height of the radiated rib 14 of condenser 1 outer setting and thickness are 1mm-50mm, and spacing of fins is 1mm-20mm.
Temperature according to the flow of determining tail gas and this heat management system of flowing through is fallen, and calculates the required amount of cooling water of system according to the physical property characteristic of tail gas.Determine the dimensional parameters of suitable each parts of heat management system again according to required amount of cooling water, such as the inner and outer diameter of 4 liang of steel pipes of heat absorption conversion equipment 21,22, the degree of depth of microflute 24, width and spacing, the size of condenser 1 etc.Size according to the system that determines processes heat absorption conversion equipment 4 and condenser 1, has 26,27 and vapor outlet port 28 of two liquid return tube interfaces above the heat absorption conversion equipment 4, and two ends are welded with mounting flange 23.Condenser is respectively equipped with vapour inlet 12 and saturated solution outlet 13 in the position about in the of 1, and top also is provided with and vacuumizes interface 15.Heat absorption conversion equipment 4 is installed in the enmgine exhaust outlet nearby, joins with blast pipe by two flange faces 23, interior pipe 22 forms passage, and the passage two ends promptly are connected with blast pipe.Condenser 1 is installed in the Auto front grille place, helps air-cooled heat exchange.Two liquid return tube interfaces 26,27 on the heat absorption conversion equipment 4 and the saturated solution on the condenser 1 outlet 13 is joined by liquid return tube 3, and interface must sealing, and magnetic valve 5 is installed on liquid return tube 3 pipelines.The vapor outlet port 28 of heat absorption conversion equipment 4 and the vapour inlet 12 of condenser 1 join by steam insulating tube 2, and interface must sealing.After system installs, inject working medium 31, whole system inside is vacuumized by vacuumizing interface 15 with air exhauster again.
Behind the engine steady operation, open the switch of magnetic valve 5, the liquid in the liquid return tube 3 slowly flows among toroidal cavity a, the c at heat absorption conversion equipment 4 two ends, and under the effect of microflute 24 capillary forces, liquid flow into whole microflute 24.High-speed and high-temperature tail gas flows through from the interior pipe 22 of heat absorption conversion equipment 4, and the heat of tail gas is passed to tube wall by forced-convection heat transfer, and tube wall is heated up, and the liquid on interior pipe 22 outer walls in the microflute 24 absorbs heat evaporation and the heat exchange of boiling composite phase-change take place.Along with the vaporization of liquid, the pressure in the heat absorption conversion equipment 4 can increase gradually, and under action of pressure, steam flows in the condensers 1 by steam insulating tube 2, steam in condenser 1 becoming liquid behind the wall that condenses in the heat transferred condenser 1.In a few minutes after engine shutdown, low cruise or cold machine start, the magnetic valve 5 of heat management system is in closed condition, makes the temperature of tail gas be unlikely to low, and the normal operation of engine is opened magnetic valve 5, makes the temperature of tail gas be unlikely to too high.
Claims (10)
1. micro-scale composite phase-change cooling automobile heat management system, it comprises heat absorption conversion equipment, air cooled condenser, steam insulating tube, liquid return tube and magnetic valve; It is characterized in that, the heat absorption conversion equipment comprises inside and outside two diameter differences, the metal circular tube that length is identical, and two pipes are coaxial nested, alignment of two annular end faces and the sealed at both ends flange face that is fixed with of outer, interior pipe, through hole on the inner chamber of interior pipe and two flange faces is suitable, forms passage; Interior pipe outer surface is carved with axial microflute group, microflute surface plating nano thin-film, and outer surface is by the composite porous parcel of one deck; Annular region between cylindrical pipe internal surface and interior pipe outer surface is divided into cavity a, b, c three parts by the two rings shape steel plate of same cross sectional shape; In the middle of cavity b is positioned at, be vapor area, cavity b zone has vapor outlet port in the pipe surface outside; Cavity a, c lay respectively at two ends, are to hold the liquid zone, and cavity a, c two zones have a liquid return tube interface outside respectively above the pipe; The inside of condenser is flat cavity, is respectively equipped with vapour inlet and saturated liquid outlet in the top and the bottom of cavity, and the saturated liquid outlet of condenser and two liquid return tube interfaces of heat absorption conversion equipment are communicated with by liquid return tube; The vapor outlet port of the vapour inlet of condenser and heat absorption conversion equipment is communicated with by the steam insulating tube; Magnetic valve is arranged in the liquid return tube pipeline; The cavity top of condenser also is provided with and vacuumizes interface; Whole system inside vacuumizes, and working medium is arranged in the system.
2. the heat management system described in claim 1 is characterized in that, described heat absorption conversion equipment, and external diameter of pipe is 20mm-70mm in it, and wall thickness is 0.5mm-10mm, and material is red copper alloy, nichrome or stainless steel; Its outer round tube inside diameter increases 1mm-20mm on the basis of interior pipe external diameter, wall thickness is 0.5mm-10mm, and material is a stainless steel; The uniform axial microflute group of circular tube external wall face in whole; The cross sectional shape of micro-channel is semicircle, rectangle, trapezoidal or triangle; The width at micro-channel top and the degree of depth are between 0.01mm-5mm, and in the heart spacing is 0.1mm-5mm in adjacent two micro-channel; It between the adjacent micro-channel little fin of respective shapes.
3. the heat management system described in claim 1 or 2, it is characterized in that the composite of described interior pipe outer surface comprises silk screen layer and capillary porous material layer, silk screen layer and porous material layer are alternately fitted, the number of plies of silk screen is between 1~10, and the number of plies of porous material is between 1~5; Meshcount is 50-1000; Thickness of composite material is between 0.5mm-5mm; The passage two ends that interior pipe forms are connected with blast pipe by flange.
4. the heat management system described in claim 1 or 2 is characterized in that, described heat absorption conversion equipment, and two steel plates in the inner annular cavity, its nearest pipe end face is respectively the 1/20-1/4 of pipe range.
5. the heat management system described in claim 4 is characterized in that, the thickness of described doughnut-shaped steel plate is 0.5mm-10mm; Three part cavity a, b, c that steel plate is cut apart, by microflute and composite porous connection, the composite junction on doughnut-shaped steel plate and outer round tube inner wall and the interior circular tube external wall all seals between adjacent two parts.
6. the heat management system described in claim 1, it is characterized in that, the cavity thickness of described air cooled condenser is 2mm-50mm, cavity inner wall has vertical liquid condensation and backflow conduit of leading to the bottom, the cross sectional shape of conduit is rectangle, semicircle, trapezoidal or triangle, the top width of conduit is between 0.01mm-5mm, and groove depth is between 0.5mm-5mm, and adjacent two groove center spacings are between 0.1mm-10mm; The cavity outer wall is provided with radiated rib, and fin height and thickness are 1mm-50mm, and spacing of fins is 1mm-20mm.
7. the heat management system described in claim 1 is characterized in that, described steam insulating tube is to be made by polyurethane or polythene material, and there is the pressure-bearing steel wire its inside, and its diameter is 10mm-50mm.
8. the heat management system described in claim 1 is characterized in that, described liquid return tube is to be made by polyamide, poly-ammonia value or polythene material, and the pipe diameter is 3mm-20mm.
9. the heat management system described in claim 1 is characterized in that, described magnetic valve is to control its switching by the signal of telecommunication.
10. the heat management system described in claim 1 is characterized in that, described working medium in inner loop, is distilled water, methyl alcohol or ethanol.
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CNU2007201729739U CN201133778Y (en) | 2007-09-05 | 2007-09-05 | Minute dimension composite phase-change cooling automobile heat administrative system |
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Cited By (2)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN101382399B (en) * | 2007-09-05 | 2011-11-09 | 中国科学院工程热物理研究所 | Thermal management method and device for micro dimension composite phase change cooling for automobile |
CN103375945A (en) * | 2012-04-12 | 2013-10-30 | 王云章 | Marine non-return air-cooling ammonia condenser |
-
2007
- 2007-09-05 CN CNU2007201729739U patent/CN201133778Y/en not_active Expired - Lifetime
Cited By (2)
Publication number | Priority date | Publication date | Assignee | Title |
---|---|---|---|---|
CN101382399B (en) * | 2007-09-05 | 2011-11-09 | 中国科学院工程热物理研究所 | Thermal management method and device for micro dimension composite phase change cooling for automobile |
CN103375945A (en) * | 2012-04-12 | 2013-10-30 | 王云章 | Marine non-return air-cooling ammonia condenser |
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