Textile air conditioning and insulation system

Abstract

The application relates to the air conditioning and heat preservation technical field and discloses a textile air conditioning and heat preservation system which comprises a heating shell, a hot air mechanism, a mixing mechanism and a blowing mechanism, the heating shell is in a fin type state, an air inlet pipe is arranged on the heating shell, the hot air mechanism is provided with two groups, the two groups of hot air mechanisms are arranged in the heating shell and are used for heating surrounding air, the mixing mechanism is arranged on one side of the heating shell and is used for mixing and heating hot air in the hot air mechanism with water, the heating shell is communicated with the mixing mechanism through the blowing mechanism and is used for blowing the hot air to the mixing mechanism, through the technical scheme, the problem that the steam pipe is directly sprayed on fiber tows when the textile products are heated and dried in the prior art due to inaccurate humidity control, the surface of the fiber tows is damaged, and the quality of the textile products is reduced is solved.

Description

A textile air conditioning insulation system Technical Field

[0001] This invention relates to the field of air conditioning insulation technology, specifically to an air conditioning insulation system for textiles. Background Technology

[0002] Textile products are manufactured from textile fibers and are divided into two main categories: woven fabrics and knitted fabrics. Drying is necessary during the manufacturing process. Air conditioning and insulation systems are common heating systems in the fiber textile industry. Textile products can change the physical properties of fibers through temperature variations. The normal humidity range for textiles is 65%~75%RH. Different textile workshops have different humidity requirements. In textile and chemical fiber workshops, humidity must be maintained between 50%~70%RH to ensure the production of high-quality products. If the humidity is below the required range, it can lead to severe static electricity. Most existing drying systems spray water vapor generated by a steam generator onto the fiber bundles through steam pipes, resulting in imprecise humidity control of textile products and potential damage to the fiber bundle surface, thus reducing fiber quality. Summary of the Invention

[0003] This invention proposes an air conditioning and insulation system for textiles, which solves the problem in related technologies where inaccurate humidity control during heating and drying of textile products leads to steam being sprayed directly onto the fiber bundles, causing damage to the fiber bundle surface and reducing the quality of textile products.

[0004] The technical solution of the present invention is as follows: an air conditioning insulation system for textiles, comprising;

[0005] A heating housing, wherein the heating housing is finned and an air inlet pipe is provided on the heating housing;

[0006] The hot air mechanism is provided in two sets, which are located inside the heating housing and are used to heat the surrounding air.

[0007] A mixing mechanism, disposed on one side of the heating housing, is used to mix and heat the hot air and water vapor in the hot air mechanism;

[0008] The heating housing is connected to the mixing mechanism via the blower mechanism, and is used to blow hot air into the mixing mechanism.

[0009] Furthermore, the hot air mechanism includes:

[0010] The support frame is disposed inside the heating housing;

[0011] Support plates, three of which are arranged on the support frame;

[0012] The threaded rods are provided in three parts, each corresponding to one of the three support plates, and all three threaded rods penetrate the heating housing.

[0013] The three blocking plates are provided and are disposed on the three threaded rods, and are welded to the heating shell.

[0014] A heat dissipation component, which is mounted on the support frame, is used to dissipate heat to the surroundings and heat the surrounding air.

[0015] Furthermore, the heat dissipation component includes:

[0016] A radiator, wherein multiple radiators are provided and multiple radiators are arranged on the support frame;

[0017] A water inlet pipe, wherein the water inlet pipe is connected to the input end of one of the radiators;

[0018] A water outlet pipe, wherein the water outlet pipe is connected to the output end of one of the radiators;

[0019] The input and output terminals of the multiple heat sinks are connected through the connecting pipe.

[0020] Furthermore, the hybrid mechanism includes:

[0021] A steam assembly is disposed on one side of the heating housing;

[0022] A mixing component is disposed inside the water vapor component.

[0023] As a further aspect of the present invention, the water vapor assembly includes:

[0024] A mixing housing, wherein the mixing housing is disposed on one side of the heating housing;

[0025] A steam generator is mounted on the mixing housing;

[0026] A steam inlet pipe is provided, which is connected to the steam generator, and a first electric valve is provided on the steam inlet pipe;

[0027] A water vapor release pipe is provided, wherein the water vapor inlet pipe passes through the top of the mixing shell and is connected to the water vapor release pipe, and the water vapor release pipe is provided with multiple water vapor release holes;

[0028] A shut-off pipe, wherein several of the mixing components are connected to the steam inlet pipe through the shut-off pipe, and a second electric valve is provided on the shut-off pipe.

[0029] Based on the aforementioned solution, preferably, the hybrid component includes:

[0030] A mixing shaft is disposed inside the mixing housing, and the mixing shaft has a first cavity.

[0031] A heating shaft is sleeved on the mixing shaft, and the heating shaft has a second cavity.

[0032] Multiple mixing branch pipes are provided, and the multiple mixing branch pipes pass through the heating shaft and are connected to the mixing shaft. A recovery hood is connected to each of the multiple mixing branch pipes.

[0033] A heating branch pipe is provided, and the heating shaft is connected to the heating housing via the heating branch pipe.

[0034] A drying shell is disposed on one side of the mixing shell, and a partition is provided inside the drying shell;

[0035] The drying housing is connected to the mixing shaft via the spray pipe, and a third electric valve is provided on the spray pipe.

[0036] Furthermore, the blower mechanism includes:

[0037] The air blowing pipe is provided in multiple ways, and the mixing housing is connected to the heating housing through the multiple air blowing pipes;

[0038] A blower cover is provided in multiple ways, and each blower cover corresponds to a blower tube. Each blower cover is provided with a first air guide opening.

[0039] A cooling component is disposed between the mixing housing and the heating housing.

[0040] Furthermore, the cooling component includes:

[0041] The cooling duct connects the mixing shell to the heating shell, and a fourth electric valve is installed on the cooling duct.

[0042] A water pump is disposed on one side of the mixing housing and is connected to the mixing housing via an absorption pipe;

[0043] The cooling water pipe has two cooling water pipes installed on it. The two cooling water pipes are spiral in shape and connected by a connecting pipe. The output end of the cooling water pipe is connected to a discharge pipe.

[0044] A water supply pipe, wherein the cooling water pipe is connected to the water pump through the water supply pipe.

[0045] The working principle and beneficial effects of this invention are as follows:

[0046] 1. In this invention, when this device is installed in other equipment by installing a hot air mechanism, the blocking plate is welded to the heating shell to fix the support frame. Then, hot water enters the radiator through the inlet pipe and enters other radiators through the connecting pipe. The radiator heats the air around the heating shell. The hot air is blown towards the textile products through the air inlet pipe. After the water temperature in the radiator drops, it is discharged through the water outlet pipe. This cycle continues. The temperature of the water vapor is maintained by blowing hot air towards the water vapor.

[0047] 2. In this invention, by installing a blower mechanism, hot air from the heating housing enters the mixing housing through the blower pipe, and the hot air can be evenly blown into the mixing housing through the air guide opening on the blower cover. When the temperature is too high, the water pump starts and supplies water to the cooling water pipe through the water supply pipe to cool the hot air in the cooling air pipe. The water in the two cooling water pipes flows through the connecting pipe, or the water pump injects the water remaining in the mixing housing into the cooling water pipe to cool the hot air in the cooling air pipe. After the cooled air enters the mixing housing, it mixes with the hot air and lowers the overall temperature, thus accurately controlling the heating temperature and improving the production quality of textile products.

[0048] 3. In this invention, by installing a mixing mechanism, the steam generator introduces water vapor into the water vapor release pipe through the water vapor inlet pipe. The water vapor is then released into the mixing shell through the water vapor release hole. The amount of water vapor released is controlled by adjusting the first electric valve. Hot air and water vapor enter the mixing shaft through the mixing branch pipe, and then enter the spray shell through the spray pipe to heat and dry the textile products. In order to prevent hot air from entering the heating shaft during the transmission process or to ensure the heating temperature, the hot air in the heating shell enters the heating shaft through the heating branch pipe to heat the water vapor in the mixing shaft. When heating and drying different products, the second electric valve is opened to allow some water vapor to enter the spray pipe through the intercepting pipe. Because the drying shell is equipped with a partition, the drying shell is divided into a high humidity heating and drying chamber and a low humidity heating and drying chamber, which ensures the mixing efficiency of water vapor and hot air and can heat and dry different textile products according to their humidity requirements.

[0049] 4. In this invention, by installing a hot air mechanism, a blower mechanism, and a mixing mechanism in coordination, the problem of inaccurate humidity control during the heating and drying of textile products in related technologies is solved, which leads to the steam pipe spraying directly onto the fiber bundle, causing damage to the surface of the fiber bundle and reducing the quality of textile products. Attached Figure Description

[0050] The present invention will now be described in further detail with reference to the accompanying drawings and specific embodiments.

[0051] Figure 1 is a partial cross-sectional structural schematic diagram of the present invention;

[0052] Figure 2 is a schematic diagram of the overall structure of the present invention;

[0053] Figure 3 is a schematic diagram of the hot air mechanism in this invention;

[0054] Figure 4 is a schematic diagram of the blower mechanism in this invention;

[0055] Figure 5 is a schematic diagram of the mixing mechanism in this invention;

[0056] Figure 6 is a schematic diagram of the structure of the hybrid component in this invention;

[0057] Figure 7 is a schematic diagram of the cooling component in this invention;

[0058] Figure 8 is a schematic diagram of the structure of the blower hood in this invention;

[0059] Figure 9 is a partially enlarged structural diagram of point A in Figure 1 of the present invention;

[0060] Figure 10 is a partially enlarged structural diagram of point B in Figure 1 of the present invention;

[0061] Figure 11 is a partially enlarged structural diagram of point C in Figure 1 of the present invention.

[0062] The labels in the diagram represent: 1. Heating shell; 2. Air inlet pipe; 3. Support frame; 4. Support plate; 5. Threaded rod; 6. Blocking plate; 7. Radiator; 8. Water inlet pipe; 9. Water outlet pipe; 10. Connecting pipe; 11. Mixing shell; 12. Steam generator; 13. Steam inlet pipe; 14. First electric valve; 15. Steam release pipe; 16. Cut-off pipe; 17. Second electric valve; 18. Mixing shaft; 19. Heating shaft; 20. Mixing branch pipe; 21. Recovery hood; 22. Heating branch pipe; 23. Drying shell; 24. Partition plate; 25. Spray pipe; 26. Third electric valve; 27. Air blower; 28. Air blower hood; 29. ​​Cooling air blower; 30. Fourth electric valve; 31. Water pump; 32. Absorption pipe; 33. Cooling water pipe; 34. Connecting pipe; 35. Discharge pipe; 36. Water supply pipe. Detailed Implementation

[0063] The technical solutions of the present invention will be clearly and completely described below with reference to the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the scope of protection of the present invention.

[0064] As shown in Figures 1-11, this embodiment proposes an air conditioning insulation system for textiles, including: a heating shell 1, a hot air mechanism, a mixing mechanism, and a blower mechanism. The heating shell 1 is finned and has an air inlet pipe. The hot air mechanism consists of two sets, which are located inside the heating shell 1 to heat the surrounding air. The mixing mechanism is located on one side of the heating shell 1 and is used to mix the hot air from the hot air mechanism with water vapor for heating. The heating shell 1 is connected to the mixing mechanism via the blower mechanism to blow hot air into the mixing mechanism. The hot air mechanism heats the air inside the heating shell 1, and then the blower mechanism blows the hot air into the mixing mechanism to mix it with water vapor for further heating and drying.

[0065] Specifically, the hot air mechanism includes: a support frame 3, support plates 4, threaded rods 5, blocking plates 6, and a heat dissipation assembly. The support frame 3 is located inside the heating housing 1. Three support plates 4 are provided, each mounted on the support frame 3. Three threaded rods 5 are provided, each corresponding to one of the three support plates 4, and each threaded rod 5 penetrates the heating housing 1. Three blocking plates 6 are provided, each mounted on one of the three threaded rods 5, and each blocking plate 6 is welded to the heating housing 1. The heat dissipation assembly is located on the support frame 3 and is used to dissipate heat to the surrounding environment and heat the surrounding air. The heat dissipation assembly includes: radiators 7, inlet pipes 8, outlet pipes 9, and connecting pipes 10. Multiple radiators 7 are provided, and multiple radiators 7 are installed... On the support frame 3, the inlet pipe 8 is connected to the input end of one of the radiators 7, and the outlet pipe 9 is connected to the output end of one of the radiators 7. The input and output ends of multiple radiators 7 are connected through the connecting pipe 10. When this device is installed in other devices, the blocking plate 6 is welded to the heating shell 1 to fix the support frame 3. Then, hot water enters the radiator 7 through the inlet pipe 8 and enters other radiators 7 through the connecting pipe 10. The radiator 7 heats the air around the heating shell 1. The hot air is blown towards the textile products through the air inlet pipe. After the water temperature in the radiator 7 drops, it is discharged through the outlet pipe 9. This cycle continues, and the temperature of the water vapor is maintained by blowing hot air towards the water vapor.

[0066] Accordingly, the blower mechanism includes: blower pipes 27, blower hoods 28, and a cooling component. Multiple blower pipes 27 are provided, and the mixing housing 11 is connected to the heating housing 1 through multiple blower pipes 27. Multiple blower hoods 28 are provided, each corresponding to one of the multiple blower pipes 27, and each blower hood 28 has a first air guide opening. The cooling component is located between the mixing housing 11 and the heating housing 1. The cooling component includes: a cooling air duct 29, a water pump 31, cooling water pipes 33, and a water supply pipe 36. The mixing housing 11 is connected to the heating housing 1 through the cooling air duct 29. A fourth electric valve 30 is provided on the cooling air duct 29. The water pump 31 is located on one side of the mixing housing 11 and is connected to the mixing housing 11 through an absorption pipe 32. Two cooling water pipes 33 are provided on the cooling air duct 29, and the two cooling water pipes 33 are in a spiral configuration. The cooling water pipes 33 are connected by the connecting pipe 34, and the output end of the cooling water pipes 33 is connected to the discharge pipe 35. The cooling water pipes 33 are connected to the water pump 31 through the water supply pipe 36. The hot air in the heating shell 1 enters the mixing shell 11 through the air blowing pipe 27, and the hot air can be blown evenly into the mixing shell 11 through the air guide opening on the air blowing hood 28. When the temperature is too high, the water pump 31 starts and cools the hot air in the cooling air pipe 29 by supplying water to the cooling water pipes 33 through the water supply pipe 36. The water in the two cooling water pipes 33 flows through the connecting pipe 34, or the water pump 31 injects the water remaining in the mixing shell 11 into the cooling water pipes 33 to cool the hot air in the cooling air pipe 29. After cooling, the air enters the mixing shell 11 and mixes with the hot air to reduce the overall temperature. The heating temperature is precisely controlled, which improves the production quality of textile products.

[0067] Specifically, the mixing mechanism includes a steam assembly and a mixing assembly. The steam assembly is located on one side of the heating housing 1, and the mixing assembly is located inside the steam assembly. The steam assembly includes a mixing housing 11, a steam generator 12, a steam inlet pipe 13, a steam release pipe 15, and a shut-off pipe 16. The mixing housing 11 is located on one side of the heating housing 1, the steam generator 12 is mounted on the mixing housing 11, the steam inlet pipe 13 is connected to the steam generator 12, a first electric valve 14 is mounted on the steam inlet pipe 13, the steam inlet pipe 13 passes through the top of the mixing housing 11 and connects to the steam release pipe 15. Multiple steam release holes are provided on the 15. Several mixing components are connected to the steam inlet pipe 13 through the intercepting pipe 16, and a second electric valve 17 is provided on the intercepting pipe 16. The mixing components include: a mixing shaft 18, a heating shaft 19, mixing branch pipes 20, heating branch pipes 22, a drying shell 23, and an outlet pipe 25. The mixing shaft 18 is located inside the mixing shell 11 and has a first cavity. The heating shaft 19 is sleeved on the mixing shaft 18 and has a second cavity. Multiple mixing branch pipes 20 are provided, and multiple mixing branch pipes 20 pass through the heating shaft 19 and are connected to the mixing shaft 18. Each of the multiple mixing branch pipes 20 is connected to... A recovery hood 21 is provided. The heating shaft 19 is connected to the heating housing 1 via a heating branch pipe 22. The drying housing 23 is located on one side of the mixing housing 11, and a partition 24 is provided inside the drying housing 23. The drying housing 23 is connected to the mixing shaft 18 via a spray pipe 25, and a third electric valve 26 is provided on the spray pipe 25. The steam generator 12 sends water vapor into the water vapor release pipe 15 through the water vapor inlet pipe 13. The water vapor is released into the mixing housing 11 through the water vapor release hole. The amount of water vapor released is controlled by adjusting the first electric valve 14. Hot air and water vapor enter the mixing shaft 18 through the mixing branch pipe 20, and then through the spray pipe. The hot air enters the spraying housing 25 to heat and dry the textile products. In order to prevent the hot air from being transported or to ensure the heating temperature, the hot air in the heating housing 1 enters the heating shaft 19 through the heating branch pipe 22 to heat the water vapor in the mixing shaft 18. When heating and drying different products, the second electric valve 17 is opened to allow some water vapor to enter the spraying pipe 25 through the intercepting pipe 16. Because the drying housing 23 is equipped with a partition 24, the drying housing 23 is divided into a high humidity heating and drying chamber and a low humidity heating and drying chamber, which ensures the mixing efficiency of water vapor and hot air and can heat and dry different textile products according to their humidity requirements.

[0068] In this embodiment, the working principle of the textile air conditioning insulation system is as follows: When installing this device into other equipment, the blocking plate 6 is welded to the heating shell 1 to fix the support frame 3. Then, hot water enters the radiator 7 through the inlet pipe 8 and enters other radiators 7 through the connecting pipe 10. The radiators 7 heat the air around the heating shell 1. The hot air is blown towards the textile products through the air inlet pipe. After the water temperature in the radiator 7 drops, it is discharged through the outlet pipe 9. This cycle continues. The hot air in the heating shell 1 enters the mixing shell 11 through the air blowing pipe 27, and the hot air can be evenly blown into the mixing shell 11 through the air guide opening on the air blowing hood 28. When the temperature is too high, the water pump 31 starts and supplies water to the cooling water pipe 33 through the water supply pipe 36 to cool the hot air in the cooling air pipe 29. The water in the two cooling water pipes 33 flows through the connecting pipe 34, or the water pump 31 injects the water remaining in the mixing shell 11 into the cooling water pipe 33. The hot air in the cooling duct 29 is cooled down. The cooled air enters the mixing shell 11 and mixes with the hot air to lower the overall temperature. The steam generator 12 sends water vapor into the water vapor release pipe 15 through the water vapor inlet pipe 13. The water vapor is released into the mixing shell 11 through the water vapor release hole. The amount of water vapor released is controlled by adjusting the first electric valve 14. The hot air and water vapor enter the mixing shaft 18 through the mixing branch pipe 20, and then enter the spray shell through the spray pipe 25 to heat and dry the textile products. In order to prevent the hot air from being transported or to ensure the heating temperature, the hot air in the heating shell 1 enters the heating shaft 19 through the heating branch pipe 22 to heat the water vapor in the mixing shaft 18. When heating and drying different products, the second electric valve 17 is opened to allow some water vapor to enter the spray pipe 25 through the intercepting pipe 16. Because the drying shell 23 is equipped with a partition 24, the drying shell 23 is divided into a high humidity heating and drying chamber and a low humidity heating and drying chamber.

[0069] The above are merely preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A textile air conditioning insulation system, characterized in that, The heating housing (1) is finned and has an air inlet pipe. Two sets of hot air mechanisms are located inside the heating housing (1) for heating the surrounding air. A mixing mechanism is located on one side of the heating housing (1) for mixing and heating the hot air with water vapor. A blower mechanism connects the heating housing (1) to the mixing mechanism for blowing hot air into the mixing mechanism. The mixing mechanism includes a water vapor assembly located on one side of the heating housing (1). The mixing assembly is disposed inside the steam assembly; the steam assembly includes: a mixing shell (11), which is disposed on one side of the heating shell (1); a steam generator (12), which is disposed on the mixing shell (11); a steam inlet pipe (13), which is connected to the steam generator (12), and a first electric valve (14) is disposed on the steam inlet pipe (13); and a steam release pipe (15), which is connected to the top of the mixing shell (11). A gas release pipe (15) is provided with multiple water vapor release holes; a choke pipe (16) is provided, through which several of the mixing components are connected to the water vapor inlet pipe (13), and a second electric valve (17) is provided on the choke pipe (16); the mixing components include: a mixing shaft (18) is provided inside the mixing housing (11), and the mixing shaft (18) has a first cavity; a heating shaft (19) is sleeved on the mixing shaft (18), and the heating shaft (19) has a second cavity; and multiple mixing branch pipes (20) are provided. The mixing branch pipe (20) passes through the heating shaft (19) and is connected to the mixing shaft (18). A recovery cover (21) is connected to each of the multiple mixing branch pipes (20). The heating branch pipe (22) is connected to the heating shell (1) through the heating branch pipe (22). The drying shell (23) is located on one side of the mixing shell (11) and a partition (24) is provided inside the drying shell (23). The spray pipe (25) is connected to the mixing shaft (18) through the spray pipe (25) and a third electric valve (26) is provided on the spray pipe (25).

2. The air conditioning and insulation system for textiles according to claim 1, characterized in that, The hot air mechanism includes: a support frame (3), which is disposed inside the heating housing (1); three support plates (4), which are disposed on the support frame (3); three threaded rods (5), which correspond one-to-one with the three support plates (4) and penetrate the heating housing (1); three blocking plates (6), which are disposed on the three threaded rods (5) and welded to the heating housing (1); and a heat dissipation assembly, which is disposed on the support frame (3) and is used to dissipate heat to the surroundings to heat the surrounding air.

3. The air conditioning insulation system for textiles according to claim 2, characterized in that, The heat dissipation assembly includes: a radiator (7), wherein multiple radiators (7) are provided and multiple radiators (7) are provided on the support frame (3); an inlet pipe (8), wherein the inlet pipe (8) is connected to the input end of one of the radiators (7); an outlet pipe (9), wherein the outlet pipe (9) is connected to the output end of one of the radiators (7); and a connecting pipe (10), wherein the input ends and output ends of the multiple radiators (7) are connected through the connecting pipe (10).

4. The air conditioning and insulation system for textiles according to claim 3, characterized in that, The blower mechanism includes: a blower pipe (27), wherein multiple blower pipes (27) are provided, and the mixing housing (11) is connected to the heating housing (1) through multiple blower pipes (27); a blower cover (28), wherein multiple blower covers (28) are provided, and each of the multiple blower covers (28) corresponds to one of the multiple blower pipes (27), and each of the multiple blower covers (28) is provided with a first air guide opening; and a cooling component, wherein the cooling component is disposed between the mixing housing (11) and the heating housing (1).

5. The air conditioning insulation system for textiles according to claim 4, characterized in that, The cooling assembly includes: a cooling duct (29), the mixing shell (11) being connected to the heating shell (1) through the cooling duct (29), and a fourth electric valve (30) being provided on the cooling duct (29); a water pump (31), the water pump (31) being provided on one side of the mixing shell (11), and the water pump (31) being connected to the mixing shell (11) through an absorption pipe (32); a cooling water pipe (33), two cooling water pipes (33) being provided on the cooling duct (29), the two cooling water pipes (33) being in a spiral state, the two cooling water pipes (33) being connected through a connecting pipe (34), and the output end of the cooling water pipe (33) being connected to a discharge pipe (35); and a water supply pipe (36), the cooling water pipe (33) being connected to the water pump (31) through the water supply pipe (36).

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