CN202356002U - Integrated air drying system - Google Patents
Integrated air drying system Download PDFInfo
- Publication number
- CN202356002U CN202356002U CN2011204576534U CN201120457653U CN202356002U CN 202356002 U CN202356002 U CN 202356002U CN 2011204576534 U CN2011204576534 U CN 2011204576534U CN 201120457653 U CN201120457653 U CN 201120457653U CN 202356002 U CN202356002 U CN 202356002U
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- Prior art keywords
- refrigerant
- filter
- regenerator
- waste heat
- heat recovery
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Abstract
The utility model relates to an integrated air drying system. A heating device is arranged behind a refrigerant waste heat recovery device and before an adsorption drying unit to heat air which is about to enter the adsorption drying unit to temperature at which an adsorber has the best regeneration effect, and the heated air can make the adsorber regenerated and reduced to the best state, so that insufficient temperature of the gas passing through the refrigerant waste heat recovery device can be compensated, the adsorber can be really reduced to the best state, and the service life of the adsorber is prolonged.
Description
Technical field
The utility model relates to a kind of integrated air dryer systems, and its device with dry air is relevant.
Background technology
Common air dryer systems has multiple drying mode; With absorption drier; As shown in Figure 1; This absorption drier 10 comprises pre-cooler 11, vaporising device 12, refrigerant waste heat recovery plant 13, refrigerant compression set 14, condensing unit 15 and absorbed type drying device 16, and it is to carry out preliminarily dried and cool by pre-cooler 11 and vaporising device 12, then again the gas of preliminarily dried is imported absorbed type drying device 16 and carries out depth drying;
Refrigerant waste heat recovery plant 13 then can reclaim the Waste Heat Recovery of refrigerant generation after 14 compressions of refrigerant compression set and provide and give the action that the adsorbent in the absorbed type drying device 16 is regenerated; The action of regeneration is as shown in Figure 2; At first be the compressed air of discharging low temperature by pre-cooler 11; Low temperature compressed air gets into refrigerant waste heat recovery plant 13 and carries out heat exchange; High-temperature gas after the heat exchange gets into absorbed type drying device 16, and then the adsorbent in the absorbed type drying device 16 produces regeneration reducing.
Yet gas differs through refrigerant waste heat recovery plant 13 and makes adsorbent reach best regeneration effect surely, so will cause the adsorbing usefulness that continues to reduce, and also can improve the load of adsorbent, the service life of having reduced adsorbent.
The utility model content
For addressing the above problem, the utility model provides a kind of integrated air dryer systems, and its main purpose is to guarantee that adsorbent can reach optimum efficiency when each regeneration reducing, prolongs the service life of adsorbent.
A kind of integrated air dryer systems comprises:
One refrigerant compression set compresses refrigerant;
One refrigerant waste heat recovery plant is connected with this refrigerant compression set, reclaims the used heat of refrigerant after compression;
One condensing unit is connected with this refrigerant waste heat recovery plant, and the refrigerant that is flowed out by the refrigerant waste heat recovery plant is cooled off;
One cold medium controller; Comprise a refrigerant filter and an expansion valve; This refrigerant filter is connected with this condensing unit, and this expansion valve connects this refrigerant filter, and the refrigerant that is flowed out by condensing unit filters and produce pressure drop and throttling through refrigerant filter and this expansion valve;
One vaporising device is connected with this cold medium controller, to the action of evaporating through the refrigerant after the cold medium controller processing, and produces refrigerating effect;
One heat exchange pre-cooler is connected with this vaporising device;
One absorbed type drying unit; Comprise one first filter, one second filter, one first regenerator and one second regenerator; This first filter connects this vaporising device and this second filter; This second filter connects this first regenerator again, and this first regenerator connects this heat exchange pre-cooler again, and this second regenerator then connects this vaporising device; And
One heater is connected between this refrigerant waste heat recovery plant and this second regenerator.
The utility model provides a kind of integrated air dryer systems; It is to get at gas before regenerator reduces heater to be set; By heater gas is heated to making adsorbent reach the temperature of best reduction effect; It is not enough to supply the possible intensification of forward end gas temperatures, and can guarantee that adsorbent can both reach best reduction effect at every turn, promotes the service life of adsorbent.
Description of drawings
Fig. 1 is the sketch map of common absorption drier.
Fig. 2 is the regeneration flow process of common absorption drier.
Fig. 3 is the sketch map of the integrated air dryer systems of the utility model.
Fig. 4 flows to sketch map for the refrigerant of the integrated air dryer systems of the utility model.
Fig. 5 is the dry gas flow figure of gas of the integrated air dryer systems of the utility model.
Fig. 6 carries out the gas flow figure of adsorbent reactivation for this uses novel integrated air dryer systems.
Fig. 7 carries out another embodiment of the gas flow figure of adsorbent reactivation for the integrated air dryer systems of the utility model.
Fig. 8 carries out the flow chart of adsorbent reactivation for the integrated air dryer systems of the utility model.
Description of reference numerals
" ordinary skill "
The 10th, absorption drier 11 is pre-coolers
The 12nd, vaporising device 13 is refrigerant waste heat recovery plants
The 14th, refrigerant compression set 15 is condensing units
The 16th, the absorbed type drying device
" the utility model "
The 20th, refrigerant compression set 30 is refrigerant waste heat recovery plants
The 40th, condensing unit 50 is cold medium controllers
The 51st, refrigerant filter 52 is expansion valves
The 60th, vaporising device 70 is heat exchange pre-coolers
The 80th, absorbed type drying unit 81 is first filters
82 is that second filter 83 is first regenerators
84 is that second regenerator 90 is heaters
The specific embodiment
The integrated air dryer systems conjunction with figs. of the utility model description details is following:
The preferred embodiment of the integrated air dryer systems of the utility model such as Fig. 2 comprise to shown in Figure 8:
One refrigerant compression set 20 can compress refrigerant, and becomes the gaseous coolant of HTHP after refrigerant is compressed;
One refrigerant waste heat recovery plant 30 is connected the used heat of these refrigerant waste heat recovery plant 30 recyclable refrigerants after compression with this refrigerant compression set 20;
One condensing unit 40 is connected with this refrigerant waste heat recovery plant 30, the refrigerant that is flowed out by refrigerant waste heat recovery plant 30 is cooled off, and make refrigerant become the liquid refrigerants of high normal pressure and temperature;
One cold medium controller 50; Comprise a refrigerant filter 51 and an expansion valve 52; This refrigerant filter 51 is connected with this condensing unit 40; And this expansion valve 52 connects this refrigerant filter 51, and the refrigerant that is flowed out by condensing unit 40 filters and produce pressure drop and throttling through refrigerant filter 51 and this expansion valve 52, makes refrigerant become the liquid refrigerants of low-pressure low-temperature;
One vaporising device 60 is connected with this cold medium controller 50, the action that the refrigerant after handling through cold medium controller 50 is evaporated, and in the action of evaporation a large amount of absorption heat energy and produce refrigerating effect;
One heat exchange pre-cooler 70 is connected with this vaporising device 60;
One absorbed type drying unit 80; Comprise one first filter 81, one second filter 82, one first regenerator 83 and one second regenerator 84; This first filter 81 connects this vaporising device 60 and this second filter 82, and this second filter 82 connects this first regenerator 83 again, and this first regenerator 83 connects this heat exchange pre-cooler 70 again; This second regenerator 84 then connects this vaporising device 60, and ccontaining adsorbent is to carry out the absorption of moisture in this each regenerator 83,84; And
One heater 90 is connected between this refrigerant waste heat recovery plant 30 and this second regenerator 84.
More than be the structural relation of the integrated air dryer systems of the utility model, and when using, at first please cooperate and consult the sketch map that flows to for refrigerant shown in Figure 4; Refrigerant at first is collapsed into the gaseous coolant of HTHP by refrigerant compression set 20, then the gaseous coolant of HTHP flows to this refrigerant waste heat recovery plant 30, and then this refrigerant waste heat recovery plant 30 just can reclaim the used heat of refrigerant; Then refrigerant continues to flow to condensing unit 40, and condensing unit 40 becomes high temperature but the liquid refrigerants of middle temperature or normal temperature with the refrigerant cooling, then liquid refrigerants continue to flow through cold medium controller 50 and flow toward vaporising devices 60; 50 pairs of refrigerants of cold medium controller produce pressure drop and throttling, make refrigerant become the liquid refrigerants of low-pressure low-temperature, follow; The liquid refrigerants of low-pressure low-temperature flows to the action that vaporising device 60 evaporates; And in the action of evaporation a large amount of absorption heat energy and produce refrigerating effect, so far, accomplish complete freezing action; At last, refrigerant can flow back to the refrigerant compression set 20 freezing action next time that continues again;
Then; In the time will carrying out the action of gas drying; Please cooperate and consult shown in Figure 5ly, this heat exchange pre-cooler 70 of ambient atmos input produces the action of precoolings, and the air after the precooling then flows to vaporising device 60; Then vaporising device 60 produces cooling to air and makes the moisture ability of part in the air separated because of the refrigerating effect of refrigerant; This moment, the air via heat exchange pre-cooler 70 and vaporising device 60 produced preliminary drying effect, and then air produces the clean effect of filter through this first filter 81 and this second filter 82, and then air gets in this first regenerator 83; First regenerator 83 can produce the drying of the degree of depth to air, and dried gas just can be discharged via heat exchange pre-cooler 70 again and is provided with using;
The effect of this second regenerator 84 then is like Fig. 6, shown in 8, and heat exchange pre-cooler 70 partly gas is directed to this refrigerant waste heat recovery plant 30, and gas produces heat exchange through this refrigerant waste heat recovery plant 30; And be that gas is heated, then, the gas after heating continues through this heater 90; This heater 90 is the sense gasses temperature simultaneously, and when gas temperature no show still can make adsorbent reach the temperature of best regeneration effect, this heater 90 just can heat gas once more; And the temperature that gas is reached to make adsorbent reach best regeneration effect; When gas temperature reaches the temperature that can make adsorbent reach best regeneration effect, make gas flow to the regeneration action that second regenerator 84 carries out adsorbent again, so, supply gas temperature by this heater 90; The temperature that makes gas get into second regenerator 84 is to make adsorbent reach the temperature of best regeneration effect; The time that so just can reduce adsorbent reactivation, and can reach best regeneration effect, improve the adsorption efficiency of adsorbent; And can lower the burden of the each absorption of adsorbent, prolong the service life of adsorbent.
In addition; The utility model can be as shown in Figure 7 again in order to the motion flow that carries out adsorbent reactivation; It is can be with carrying out dried gas; By directly being directed to heater 90 between first regenerator 83 and the heat exchange pre-cooler 70, then heater 90 just can heat gas, and the gas after will heating again is directed to second regenerator 84 and carries out the regeneration of adsorbent; Then this flow process just need not passed through refrigerant waste heat recovery plant 30, uses as the usefulness that can't make the subsequent use renewable sources of energy of time spent when refrigerant waste heat recovery plant 30; Simultaneously, also can be as shown in Figure 8, also can make the gas of discharging directly be directed to heater 90 and heat and carry out follow-up adsorbent reactivation homing action by heat exchange pre-cooler 70.
Claims (1)
1. integrated air dryer systems is characterized in that: comprise:
One refrigerant compression set compresses refrigerant;
One refrigerant waste heat recovery plant is connected with this refrigerant compression set, reclaims the used heat of refrigerant after compression;
One condensing unit is connected with this refrigerant waste heat recovery plant, and the refrigerant that is flowed out by the refrigerant waste heat recovery plant is cooled off;
One cold medium controller; Comprise a refrigerant filter and an expansion valve; This refrigerant filter is connected with this condensing unit, and this expansion valve connects this refrigerant filter, and the refrigerant that is flowed out by condensing unit filters and produce pressure drop and throttling through refrigerant filter and this expansion valve;
One vaporising device is connected with this cold medium controller, to the action of evaporating through the refrigerant after the cold medium controller processing, and produces refrigerating effect;
One heat exchange pre-cooler is connected with this vaporising device;
One absorbed type drying unit; Comprise one first filter, one second filter, one first regenerator and one second regenerator; This first filter connects this vaporising device and this second filter; This second filter connects this first regenerator again, and this first regenerator connects this heat exchange pre-cooler again, and this second regenerator then connects this vaporising device; And
One heater is connected between this refrigerant waste heat recovery plant and this second regenerator.
Priority Applications (1)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
CN2011204576534U CN202356002U (en) | 2011-11-17 | 2011-11-17 | Integrated air drying system |
Applications Claiming Priority (1)
Application Number | Priority Date | Filing Date | Title |
---|---|---|---|
CN2011204576534U CN202356002U (en) | 2011-11-17 | 2011-11-17 | Integrated air drying system |
Publications (1)
Publication Number | Publication Date |
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CN202356002U true CN202356002U (en) | 2012-08-01 |
Family
ID=46567222
Family Applications (1)
Application Number | Title | Priority Date | Filing Date |
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CN2011204576534U Expired - Lifetime CN202356002U (en) | 2011-11-17 | 2011-11-17 | Integrated air drying system |
Country Status (1)
Country | Link |
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CN (1) | CN202356002U (en) |
-
2011
- 2011-11-17 CN CN2011204576534U patent/CN202356002U/en not_active Expired - Lifetime
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C14 | Grant of patent or utility model | ||
GR01 | Patent grant | ||
CX01 | Expiry of patent term |
Granted publication date: 20120801 |
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CX01 | Expiry of patent term |