A drying equipment for the production and processing of knitted socks

Abstract

The present invention discloses a drying device for the production and processing of knitted socks, which comprises a motor, a drying structure, a high-temperature resistant crawler, a heat conduction chamber, and a placement slot. The present invention generates heat through a heating plate, transfers the heat to the heat-conducting strips, so that each heat-conducting strip is evenly heated, cooperates with a hot air ring to assist in conducting the heat generated in the heat conduction chamber, and finally transfers the heat out through the rotation of the hot air blower structure, thereby achieving a drying process for the processed knitted socks. During this process, the knitted socks are clamped, fixed, and dried using a turning structure, and the telescopic effect of the telescopic rod drives the connecting rod to drive the clamp to clamp, fix, and dry the knitted socks on the high-temperature resistant crawler for drying. After drying for a certain period of time, the rotating shaft is rotated to turn the knitted socks over for drying, so that the other side of the knitted socks is fully dried, thereby ensuring the comprehensiveness of the drying of the knitted socks after processing.

Description

Technical Field

[0001] The present invention is a drying device for the production and processing of knitted socks, belonging to the field of sock production and processing. Background Art

[0002] A kind of clothing item worn on the feet. In "Shuowen Jiezi", it is said that "socks are foot clothes." It plays the role of protecting the feet and preventing foot odor. Socks are a general term. According to raw materials, there are cotton socks, wool socks, silk stockings, and various chemical fiber socks, etc. According to the shape, there are long stockings, mid-calf stockings, boat socks, tights, etc. There are also various styles and varieties such as flat cuffs, ribbed cuffs, with heels, without heels, jacquard, and embroidered. The disadvantages to be optimized in the current common technology are as follows: For existing drying equipment for knitted socks processing, the knitted socks that have been produced and processed are directly poured into the drying equipment for drying, without drying them at a fixed placement position for the knitted socks, and the position where the drying equipment generates heat is relatively fixed, resulting in different drying efficiencies for the knitted socks, which will cause uneven heating during the drying process of the knitted socks, and it is easy to occur that the knitted socks are over-dried and hardened or not fully dried, reducing the quality of the overall processing of the knitted socks. Summary of the Invention

[0003] Aiming at the deficiencies existing in the prior art, the purpose of the present invention is to provide a drying device for the production and processing of knitted socks to solve the problems existing in the prior art.

[0004] To achieve the above purpose, the present invention is realized through the following technical solutions: A drying device for the production and processing of knitted socks, its structure includes a motor, a drying structure, a high-temperature resistant track, a heat diversion chamber, and a placement groove. The motor is integrally installed directly above the drying structure. The high-temperature resistant track is integrally installed inside the drying structure. The heat diversion chamber is nested inside the equipment main body, and the heat diversion chamber is integrally interconnected with the drying structure.

[0005] As a further improvement of the present invention, the drying structure includes a main body, a hot air blower structure, a turning structure, and a guide roller. There are several hot air blower structures, and the hot air blower structures are nested and installed inside the middle of the main body. There are several turning structures, and the turning structures are movably nested and installed below the bottom of the main body. The guide roller is drivingly connected below the bottom on the right side of the main body.

[0006] As a further improvement of the present invention, the hot air blower structure includes a heating plate, a nut fastener, a heat conduction strip, and a hot air ring opening. The heating plate is threadedly connected to the nut fastener, and several heat conduction strips are fixedly installed on the outer ring of the heating plate. The heat conduction strip is in clearance fit connection with the hot air ring opening. The heat conduction strip is made of a metal material and has good heat conduction performance, capable of quickly transferring heat.

[0007] As a further improvement of the present invention, the flipping structure includes a rotating shaft, a telescopic rod, a support roller, a clamp, and a connecting rod. The telescopic rod is movably connected to the middle surface of the rotating shaft. Two support rollers are provided, and the bottom of the support roller is welded to the upper and lower ends of the rotating shaft. The telescopic rod is movably connected to the support roller through a connecting rod. Two clamps are provided, and the clamps are transmission-connected to the upper and lower ends of the top of the support roller. The surface of the clamp is made of heat-conductive silicone, which is convenient for absorbing heat on its surface. The part of the area occupied by the clamped knitted socks is subjected to heat-conductive drying, thereby avoiding the part of the area occupied by the clamped knitted socks that cannot be dried normally, thereby further improving the comprehensiveness of the drying of the knitted socks.

[0008] As a further improvement of the present invention, the heat conduction chamber includes an outer shell, a circulating heating structure, and a heat conduction pipe. The circulating heating structure is nested and installed inside the outer shell, and a heat conduction pipe is installed at the bottom of the circulating heating structure.

[0009] As a further improvement of the present invention, the circulating heating structure includes a drying chamber, a spiral heating tube, an air supply tube, a support column, and an air flow layer. The left and right ends of the drying chamber are respectively nested and connected with a heat guide tube. The bottom end of the spiral heating tube is connected to the top of the drying chamber, and the middle part of the spiral heating tube is welded to the air supply tube. The middle of the bottom of the air flow layer is fixedly connected to the top of the spiral heating tube, and the upper and lower ends of the support column are respectively welded between the drying chamber and the air flow layer.

[0010] As a further improvement of the present invention, the drying chamber includes a filter layer, a drying box, and a partition. There are two drying boxes, each of which is filled with a silica desiccant, and a filter layer is gap-fittedly connected above the two drying boxes. The partition is fixedly connected to the middle of the two drying boxes through the filter layer. The silica desiccant inside the drying box can adsorb water vapor contained in the air.

[0011] Compared with the prior art, the present invention has the following beneficial effects:

[0012] 1. The present invention generates heat through the heating plate, transfers the heat to the heat-conducting strips, so that each heat-conducting strip is evenly heated. The hot air ring is used to assist in the conduction of the heat generated in the heat guide chamber. Finally, the heat is transferred out through the rotation of the hot air blower structure to achieve the drying of the processed knitted socks. During this process, the knitted socks are clamped, fixed and dried by the turning structure. The telescopic action of the telescopic rod B32 drives the connecting rod to drive the clamp to clamp and fix the knitted socks on the high-temperature resistant crawler for drying. After drying for a certain period of time, the rotating shaft is rotated to turn the knitted socks over for drying, so that the other side of the knitted socks is fully dried, further improving the drying efficiency of the knitted socks, thereby ensuring the comprehensive drying of the knitted socks after processing.

[0013] 2. The present invention allows the heated air flow to enter the drying chamber for drying treatment. The hot air flow passes through the filter layer to adsorb impurities carried by the hot air flow. The adsorbed hot air flow passes through two drying boxes to adsorb and dry the water vapor carried by the hot air flow. The dried air flow flows along the heat guide pipe into the inner side of the hot air blower structure in the drying structure, and then cooperates with the hot air blower structure to perform hot air drying treatment on the knitted socks clamped by the turning structure, further improving the drying efficiency of the knitted socks and facilitating the circulation and heat conduction treatment of the air flow inside the hot air blower structure. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the following will describe in detail the drawings in the description of the embodiments, so that other features, purposes and advantages of the present invention will become more apparent:

[0015] Figure 1 The present invention is a schematic diagram of the three-dimensional structure of a drying device for producing and processing knitted socks.

[0016] Figure 2 It is a schematic diagram of the three-dimensional structure of the drying structure of the present invention.

[0017] Figure 3 It is a schematic planar structural diagram of the hot air blower structure of the present invention.

[0018] Figure 4 It is a schematic diagram of the planar structure of the flip structure of the present invention.

[0019] Figure 5 It is a schematic diagram of the three-dimensional structure of the heat conduction chamber of the present invention.

[0020] Figure 6 It is a schematic diagram of the three-dimensional structure of the circulating heating structure of the present invention.

[0021] Figure 7 Schematic diagram of the three-dimensional structure of the drying chamber of the present invention.

[0022] In the figure: motor-A, drying structure-B, high-temperature resistant crawler-C, heat guide chamber-D, placement slot-E, main body-B1, hot air blower structure-B2, flip structure-B3, guide roller-B4, heating plate-B21, nut fastener-B22, heat conduction strip-B23, hot air ring-B24, rotating shaft-B31, telescopic rod-B32, support roller-B33, clamp-B34, connecting rod-B35, housing-D1, circulating heating structure-D2, heat guide pipe-D3, drying chamber-D21, spiral heating pipe-D22, air supply tube-D23, support column-D24, air flow layer-D25, filter layer-21a, drying box-21b, partition-21c. DETAILED DESCRIPTION

[0023] In order to make the technical means, creative features, objectives and effects achieved by the present invention easier to understand, the present invention is further described below in conjunction with specific implementation methods.

[0024] Example 1:

[0025] Please refer to Figure 1 The present invention provides a drying device for the production and processing of knitted socks, which includes a motor A, a drying structure B, a high-temperature resistant crawler C, a heat conduction chamber D, and a placement slot E. The characteristics are as follows: the motor A is entirely installed directly above the drying structure B, the high-temperature resistant crawler C is entirely installed through the interior of the drying structure B, the heat conduction chamber D is nested in the interior of the device body, and the heat conduction chamber D and the drying structure B are integrally connected to each other.

[0026] Please refer to Figure 2 The drying structure B includes a main body B1, a hot air blower structure B2, a turning structure B3, and a guide roller B4. The hot air blower structures B2 are provided in plurality and are nested in the middle interior of the main body B1. The turning structures B3 are provided in plurality and are movably nested and installed on the bottom of the main body B1. The guide roller B4 is transmission-connected to the bottom of the right side of the main body B1. The processed knitted socks are placed on the high-temperature resistant crawler C, and the knitted socks are slowly transported by the high-temperature resistant crawler C. The hot air blower structure B2 is started to generate hot air to dry the knitted socks. During this period, the knitted socks are clamped and fixed for drying by the turning structure B3. After a certain period of time, the knitted socks are turned over by the turning structure B3, so that the other side of the knitted socks is fully dried, further improving the drying efficiency of the knitted socks, thereby ensuring the comprehensiveness of the drying of the knitted socks after processing.

[0027] Please refer to Figure 3 The hot air blower structure B2 includes a heating plate B21, a nut fastener B22, a heat-conducting strip B23, and a hot air ring opening B24. The heating plate B21 is threadedly connected to the nut fastener B22, and a plurality of heat-conducting strips B23 are fixedly installed on the outer ring of the heating plate B21. The heat-conducting strips B23 are loosely connected with the hot air ring opening B24. The heating is generated by the heating plate B21, and the heat is transferred to the heat-conducting strips B23, so that each heat-conducting strip B23 is evenly heated. The heat generated by the heat guide chamber D is assisted in diverting with the hot air ring opening B24. Finally, the heat is transferred out through the rotation of the hot air blower structure B2 to achieve the drying of the processed knitted socks.

[0028] Please refer to Figure 4The turning structure B3 includes a rotating shaft B31, a telescopic rod B32, a supporting roller B33, a clamp B34, and a connecting rod B35. The telescopic rod B32 is movably connected to the middle surface of the rotating shaft B31. Two supporting rollers B33 are provided, and the bottom of the supporting roller B33 is welded to the upper and lower ends of the rotating shaft B31. The telescopic rod B32 is movably connected to the supporting roller through the connecting rod B35. Two clamps B34 are provided, and the clamps B34 are transmission-connected to the upper and lower ends of the top of the supporting roller B33. The telescopic effect of the telescopic rod B32 drives the connecting rod B35 to drive the clamp B34 to clamp and fix the knitted socks on the high-temperature resistant crawler C for drying. After drying for a certain period of time, the rotating shaft B31 is rotated to turn the knitted socks over for drying, thereby achieving comprehensive drying of the knitted socks.

[0029] Working process: The processed knitted socks are placed on the high-temperature resistant crawler C, and the knitted socks are slowly conveyed by the high-temperature resistant crawler C. The hot air blower structure B2 is started to generate hot air to dry the knitted socks. The heating plate B21 generates heat and transfers the heat to the heat-conducting strip B23, so that each heat-conducting strip B23 is evenly heated. The hot air ring B24 cooperates to assist in the conduction of the heat generated by the heat guide chamber D. Finally, the hot air blower structure B2 is rotated to transfer the heat to achieve the drying of the processed knitted socks. During this period, the turning structure B3 is used to clamp and fix the knitted socks for drying. The telescopic effect of the telescopic rod B32 drives the connecting rod B35 to drive the clamp B34 to clamp and fix the knitted socks on the high-temperature resistant crawler C for drying. After drying for a certain period of time, the rotating shaft B31 is rotated to turn the knitted socks over for drying, so that the other side of the knitted socks is fully dried, further improving the drying efficiency of the knitted socks, thereby ensuring the comprehensiveness of the drying of the knitted socks after processing.

[0030] Example 2:

[0031] Please refer to Figure 5 The heat conduction chamber D includes a shell D1, a circulating heating structure D2, and a heat conduction pipe D3. The circulating heating structure D2 is nested and installed inside the shell D1, and a heat conduction pipe D3 is installed at the bottom of the circulating heating structure D2.

[0032] Please refer to Figure 6The circulating heating structure D2 includes a drying chamber D21, a spiral heating tube D22, an air supply tube D23, a support column D24, and an air flow layer D25. The left and right ends of the drying chamber D21 are respectively connected with a heat guide tube D3. The bottom end of the spiral heating tube D22 is connected to the top of the drying chamber D21, and the middle part of the spiral heating tube D22 is welded to the air supply tube D23. The middle of the bottom of the air flow layer D25 is fixedly connected to the top of the spiral heating tube D22. The upper and lower ends of the support column D24 are respectively welded to the drying chamber D21 and the air flow layer D25. Between the layers D25, among which, the air flow is generated by the air flow layer D25 to send the wind into the air supply tube D23, and the spiral heating tube D22 is started to heat the air flow, and the heated air flow will enter the drying chamber D21 for drying treatment. The dried air flow flows along the heat guide tube D3 into the inner side of the hot air blower structure B2 in the drying structure B, and then cooperates with the hot air blower structure B2 to perform hot air drying treatment on the knitted socks clamped by the turning structure B3, further improving the drying efficiency of the knitted socks and facilitating the circulation and heat conduction treatment of the air flow inside the hot air blower structure B2.

[0033] Please refer to Figure 7 The drying chamber D21 includes a filter layer 21a, a drying box 21b, and a partition 21c. There are two drying boxes 21b, each of which is filled with a silica desiccant, and a filter layer 21a is gap-fittedly connected above the two drying boxes 21b. The partition 21c is fixedly connected to the middle of the two drying boxes 21b through the filter layer 21a. When the generated hot air is transmitted from the spiral heating tube D22 to the drying chamber D21, the hot air flows through the filter layer 21a and adsorbs the impurities carried by the hot air. Finally, the adsorbed hot air passes through the two drying boxes 21b to adsorb and dry the water vapor carried by the hot air. Finally, the hot air will be transmitted through the heat guide tube D3 to cooperate with the drying structure B to assist in the circulation drying of the knitted socks.

[0034] Working process: air flow is generated through the air flow layer D25 to send the wind into the air supply tube D23, and the spiral heating tube D22 is started to heat the air flow, and the heated air flow will enter the drying chamber D21 for drying. The hot air flow passes through the filter layer 21a to adsorb the impurities carried by the hot air flow. The hot air flow after adsorption passes through the two drying boxes 21b to adsorb and dry the water vapor carried by the hot air flow. The dried air flow flows along the heat guide tube D3 into the inner side of the hot air blower structure B2 in the drying structure B, and then cooperates with the hot air blower structure B2 to perform hot air drying on the knitted socks clamped by the turning structure B3, further improving the drying efficiency of the knitted socks and facilitating the circulation and heat conduction of the air flow inside the hot air blower structure B2.

[0035] The specific embodiments described herein are merely illustrative of the present invention. Persons skilled in the art may make various modifications, additions, or substitutions to the described specific embodiments without departing from the present invention or exceeding the scope of the appended claims.

Claims

1. A drying device for the production and processing of knitted socks, comprising a motor (A), a drying structure (B), a high-temperature resistant crawler (C), a heat conduction chamber (D), and a placement tank (E), characterized in that: The motor (A) is entirely mounted directly above the drying structure (B), the high-temperature resistant crawler (C) is entirely installed through the interior of the drying structure (B), the heat conduction chamber (D) is nested within the main body of the device, and the heat conduction chamber (D) and the drying structure (B) are entirely interconnected; The drying structure (B) comprises a main body (B1), a hot air blower structure (B2), a flipping structure (B3), and a guide roller (B4); the hot air blower structures (B2) are provided in plurality, and are nested and installed in the middle interior of the main body (B1); the flipping structures (B3) are provided in plurality, and are movably nested and installed on the bottom of the main body (B1); and the guide roller (B4) is transmission-connected to the bottom of the right side of the main body (B1); The hot air blower structure (B2) includes a heating plate (B21), a nut fastener (B22), a heat-conducting strip (B23), and a hot air ring opening (B24); the heating plate (B21) is threadedly connected to the nut fastener (B22); and a plurality of heat-conducting strips (B23) are fixedly installed on the outer ring of the heating plate (B21); and the heat-conducting strips (B23) are connected to the hot air ring opening (B24) with a clearance fit; The turning structure (B3) includes a rotating shaft (B31), a telescopic rod (B32), a supporting roller (B33), a clamp (B34), and a connecting rod (B35). The telescopic rod (B32) is movably connected to the middle surface of the rotating shaft (B31). Two supporting rollers (B33) are provided, and the bottom of the supporting roller (B33) is welded to the upper and lower ends of the rotating shaft (B31). The telescopic rod (B32) is movably connected to the supporting roller via the connecting rod (B35). Two clamps (B34) are provided, and the clamp (B34) is transmission-connected to the upper and lower ends of the top of the supporting roller (B33). The heat conduction chamber (D) comprises an outer shell (D1), a circulating heating structure (D2), and a heat conduction pipe (D3); the circulating heating structure (D2) is nested and installed inside the outer shell (D1), and the heat conduction pipe (D3) is installed at the bottom of the circulating heating structure (D2); The circulating heating structure (D2) comprises a drying chamber (D21), a spiral heating tube (D22), an air supply tube (D23), a support column (D24), and an air flow layer (D25); the left and right ends of the drying chamber (D21) are respectively connected with a heat guide tube (D3); the bottom end of the spiral heating tube (D22) is connected directly above the top of the drying chamber (D21); the middle portion of the spiral heating tube (D22) and the air supply tube (D23) are welded to each other; the middle portion of the bottom of the air flow layer (D25) is fixedly connected to the top of the spiral heating tube (D22); and the upper and lower ends of the support column (D24) are respectively welded between the drying chamber (D21) and the air flow layer (D25); The drying chamber (D21) comprises a filter layer (21a), a drying box (21b), and a partition (21c). Two drying boxes (21b) are provided, each containing a silicon dioxide desiccant. The filter layer (21a) is gap-fittedly connected above the two drying boxes (21b). The partition (21c) is integrally fixedly connected to the middle of the two drying boxes (21b) through the filter layer (21a).

Images