A condensing apparatus for low protein, durable oxford glove production

Abstract

The application relates to the glove production technical field, in particular to a condensing equipment for low-protein durable oxford glove production, which comprises a condensing box, a base, a cooling box and a cooling box. The upper end of the condensing box is a slide rail, the upper end of the slide rail is a conveying chain, the conveying chain is provided with a mounting plate, adjacent mounting plates arranged on the conveying chain are fixedly provided with connecting shafts, movable blocks are movably arranged on the connecting shafts, conveying assemblies are arranged at the lower ends of the movable blocks, and oxford gloves are arranged at the lower ends of the conveying assemblies. The condensing equipment for low-protein durable oxford glove production is provided with a nitrogen assembly and a refrigeration assembly which are combined to cyclically and reciprocally deliver the refrigerated air into the cooling box, then the reflux assembly arranged in the cooling box is started, the cooling liquid filled in the condensing box is subjected to heat exchange with the cold air introduced into the cooling box, and then is delivered into the condensing box for use again, so that the cooling liquid does not need to be replaced.

Description

Technical Field

[0001] This invention relates to the field of glove manufacturing technology, specifically a condensation device for the production of low-protein durable Oxford gloves. Background Technology

[0002] Low-protein Oxford gloves have a longer service life due to their good wetting properties and tensile strength.

[0003] After blow molding, Oxford gloves need to be promptly transferred to a cooling tank for solidification. Currently, this process is mostly done manually, with the gloves being directly immersed in the cooling tank after blow molding. Because the gloves are concentrated in the cooling tank during transport, the high-temperature gloves easily stick together and are difficult to separate. Furthermore, as the cooling tank is used for a long time, its temperature rises, requiring timely replacement of the cooling water for the next shift. This is not only time-consuming and labor-intensive but also inefficient. Additionally, after the gloves have solidified in the cooling tank, workers need to use tools to retrieve them.

[0004] Clearly, the current condensation process for Oxford gloves is not suitable for mechanized, streamlined production.

[0005] In view of the problems mentioned above, the present invention aims to provide a condensation device for the production of low-protein durable Oxford gloves. Summary of the Invention

[0006] The purpose of this invention is to provide a condensation device for the production of low-protein durable Oxford gloves, in order to solve the problem of slow condensation efficiency in the current Oxford glove production process mentioned in the background art.

[0007] To achieve the above objectives, the present invention provides the following technical solution:

[0008] A condensation device for the production of low-protein durable Oxford gloves, the condensation device comprising:

[0009] The condenser includes a condenser box, a base, a cooling box, and a cooling box. The upper end of the condenser box is a slide rail, and the upper end of the slide rail is a conveyor chain. The conveyor chain is equipped with a mounting plate, and a connecting shaft is fixed between adjacent mounting plates on the conveyor chain. A movable block is movably mounted on the connecting shaft, and a conveying component is provided at the lower end of the movable block. An Oxford glove is installed at the lower end of the conveying component.

[0010] The condenser is filled with coolant and its lower end is fixed to the base. The condenser and the base are separated by a partition. A temporary storage chamber is provided inside the base, and the lower end of the condenser is connected to the temporary storage chamber inside the base via a metal conduit. An inlet pipe is connected to the upper left side of the base, and cooling metal plates are fixed to both sides of the end portion of the metal conduit that extends into the temporary storage chamber. The lower right side of the base is connected to the cooling chamber inside via a return pipe.

[0011] The cooling box is equipped with a reflux assembly, and the inner wall of the cooling box is coated with a heat insulation material layer; the lower right side of the cooling box is connected to the interior of the cooling box through a return air pipe.

[0012] The cooling box has a cooling chamber inside, which is connected to a nitrogen gas assembly. The upper and lower ends of the cooling chamber are connected to the refrigeration assembly through an air inlet pipe and an air outlet pipe, respectively.

[0013] As a further embodiment of the present invention: the conveying assembly includes a telescopic rod, a mounting base, and a hand mold. The upper end of the telescopic rod is connected to the movable block, and a roller is installed at the middle position of the telescopic rod. The roller is rotatably mounted on the outer surface of the slide rail. The lower end of the telescopic rod is provided with a mounting base, and a hand mold is installed at the lower end of the mounting base. An Oxford glove is fitted on the hand mold.

[0014] As a further aspect of the present invention: the reflux assembly includes: a water pump and a serpentine reflux pipe, wherein the inlet end of the water pump is connected to the end portion of the reflux pipe that enters the cooling chamber, and the outlet end of the water pump is connected to one end of the serpentine reflux pipe; the serpentine reflux pipe is arranged in a serpentine pattern from bottom to top inside the cooling chamber, and the upper end of the serpentine reflux pipe is connected to the upper end of the condenser chamber through a drain pipe; the serpentine reflux pipe is fixed to the inner wall of the cooling chamber by a locking buckle at the corner positions where it is distributed in a serpentine pattern inside the cooling chamber.

[0015] As a further embodiment of the present invention: the nitrogen assembly includes a nitrogen tank and a diffusion tube. The nitrogen tank is mounted on the cooling box. A nitrogen pipe is connected to the output end of the nitrogen tank. The lower end of the nitrogen pipe extends into the cooling chamber. The end portion of the nitrogen pipe extending into the cooling chamber is connected to the diffusion tube. The diffusion tube is installed and fixed inside the cooling chamber. Dispersion components are provided on both sides of the diffusion tube.

[0016] As a further embodiment of the present invention: the dispersion component includes a dispersion tube and a dispersion ring. The dispersion tube is mounted and fixed on the dispersion ring. One end of the dispersion tube is connected to the diffusion tube, and the other end of the dispersion tube is disposed inside the dispersion ring. The outlet end of the dispersion tube is directly opposite the dispersion sheet, and one end of the dispersion sheet is mounted and fixed on the dispersion ring by a mounting bracket.

[0017] As a further aspect of the present invention: the refrigeration assembly includes a refrigeration device and a refrigerant chamber, one end of the refrigeration device is connected to the air inlet pipe, and the lower end of the refrigeration device is connected to the refrigerant chamber; a refrigerant device is installed inside the refrigerant chamber, a refrigerant inlet box is connected to the upper left side of the refrigerant chamber, and a refrigerant recovery box is installed at the lower left side of the refrigerant chamber.

[0018] Compared with the prior art, the beneficial effects of the present invention are:

[0019] The aforementioned condensation equipment for the production of low-protein durable Oxford gloves offers the following advantages during use:

[0020] First, the installed conveyor components can immerse the formed high-temperature Oxford gloves in the cooling pool in a series of intervals to achieve condensation. This avoids the drawback of the traditional process where the Oxford gloves are too concentrated in one place in the cooling pool. Moreover, after the Oxford gloves are condensed, they can be discharged regularly at intervals without the need for manual retrieval, which greatly improves the processing efficiency of the Oxford gloves.

[0021] Second, at this time, the nitrogen component and the refrigeration component work together to circulate and deliver the cooled air to the inside of the cooling box. Then, the reflux component installed inside the cooling box is activated, and the coolant filled in the condenser box exchanges heat with the cold air introduced into the cooling box and is then delivered back to the condenser box for use. In this way, there is no need to replace the coolant.

[0022] Third, the coolant poured into the condenser will flow into the temporary storage chamber, where it will be cooled by the cooling metal plates and metal conduits, and then enter the cooling chamber through the return pipe to increase the cooling effect. Attached Figure Description

[0023] To more clearly illustrate the technical solutions in the embodiments of the present invention, the accompanying drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of the present invention.

[0024] Figure 1 This is a schematic diagram of a condensation device for producing low-protein durable Oxford gloves according to an embodiment of the present invention.

[0025] Figure 2 This is a schematic diagram of the dispersion component structure of a condensation device for producing low-protein durable Oxford gloves, according to an embodiment of the present invention.

[0026] In the diagram: 1-Moving block, 2-Coupling shaft, 3-Mounting plate, 4-Conveyor chain, 5-Slide rail, 6-Roller, 7-Mounting base, 8-Hand mold, 9-Oxford glove, 10-Condensation box, 11-Coolant, 12-Baffle plate, 13-Inlet pipe, 14-Base, 15-Temporary storage chamber, 16-Cooling metal plate, 17-Metal conduit, 18-Return pipe, 19-Cooling box, 20-Water pump, 21-Serpentine return pipe, 22-Gas return pipe, 23-Cooling box, 24-Cooling chamber, 25-Exhaust pipe, 26-Refrigerant device, 27-Refrigerant inlet box, 28-Refrigerant chamber, 29-Refrigeration device, 30-Gas inlet pipe, 31-Nitrogen tank, 32-Nitrogen pipe, 33-Diffuser pipe, 34-Dispersion assembly, 35-Dispersion pipe, 36-Dispersion ring, 37-Dispersion plate, 38-Mounting bracket. Detailed Implementation

[0027] To make the technical problems to be solved, the technical solutions, and the beneficial effects of the present invention clearer, the present invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the present invention and are not intended to limit the present invention. Example

[0028] Please see Figure 1 The present invention provides a condensation device for the production of low-protein durable Oxford gloves, the condensation device comprising:

[0029] The condenser 10, base 14, cooling box 19 and cooling box 23 are provided. The upper end of the condenser 10 is a slide rail 5, the upper end of the slide rail 5 is a conveyor chain 4, the conveyor chain 4 is provided with a mounting plate 3, the adjacent mounting plates 3 on the conveyor chain 4 are fixedly installed with a connecting shaft 2, the connecting shaft 2 is movably installed with a movable block 1, the lower end of the movable block 1 is provided with a conveying component, and the lower end of the conveying component is provided with an Oxford glove 9.

[0030] The condenser 10 is filled with coolant 11, and its lower end is fixed to the base 14. The condenser 10 and the base 14 are separated by a partition 12. A temporary storage chamber 15 is provided inside the base 14. The lower end of the condenser 10 is connected to the temporary storage chamber 15 inside the base 14 through a metal conduit 17. An inlet pipe 13 is connected to the upper left side of the base 14. Cooling metal plates 16 are installed and fixed on both sides of the end portion of the metal conduit 17 that extends into the temporary storage chamber 15. The lower right side of the base 14 is connected to the cooling chamber 19 through a return pipe 18.

[0031] The cooling box 19 is equipped with a reflux assembly, and the inner wall of the cooling box 19 is coated with a heat insulation material layer; the lower right end of the cooling box 19 is connected to the interior of the cooling box 23 through the return air pipe 22.

[0032] The cooling box 23 has a cooling chamber 24 inside, and a nitrogen gas assembly is connected inside the cooling chamber 24. The upper and lower ends of the cooling chamber 24 are connected to the refrigeration assembly through an air inlet pipe 30 and an exhaust pipe 25, respectively.

[0033] When using the condensation equipment for the production of low-protein durable Oxford gloves, the conveyor chain 4 is started to drive the freshly blow-molded, high-temperature Oxford gloves 9, which are fitted at the bottom of the conveyor assembly, into the coolant 11 filled inside the condensation box 10 for rapid condensation.

[0034] After the high-temperature Oxford glove 9 exchanges heat with the low-temperature coolant 11, the temperature of the coolant 11 will rise. At this time, the nitrogen component and the refrigeration component work together to circulate and deliver the cooled air into the cooling chamber 19. Then, the reflux component installed inside the cooling chamber 19 is activated, and the coolant 11 filled in the condensing chamber 10 exchanges heat with the cold air introduced into the cooling chamber 19 before being delivered back into the condensing chamber 10 for use. The coolant 11 filled in the condensing chamber 10 will flow into the temporary storage chamber 15, be cooled by the cooling metal plate 16 and the metal conduit 17, and then enter the cooling chamber 19 through the reflux pipe 18. Through this circulation method, the coolant 11 filled in the condensing chamber 10 can always be kept within the set constant temperature range, which is beneficial for the condensation operation of the manufactured gloves.

[0035] In one embodiment of the present invention, the conveying assembly includes a telescopic rod, a mounting base 7 and a hand mold 8. The upper end of the telescopic rod is connected to the movable block 1. A roller 6 is installed at the middle position of the telescopic rod. The roller 6 is rotatably mounted on the outer surface of the slide rail 5. The lower end of the telescopic rod is provided with a mounting base 7. The lower end of the mounting base 7 is equipped with a hand mold 8. An Oxford glove 9 is fitted on the hand mold 8.

[0036] When the conveyor chain 4 performs cyclic displacement, it drives the movable block 1 to move left and right. When the installed Oxford gloves 9 change from a horizontal to a vertical position and enter the condenser box 10, the rollers 6 installed on the telescopic rod change from oblique displacement to horizontal displacement on the slide rail 5, thereby immersing the Oxford gloves 9 in the coolant 11 poured inside the condenser box 10 for condensation. Since the Oxford gloves 9 are moved and immersed by the conveyor assembly, it can directly avoid the Oxford gloves 9 from directly contacting the condenser box 10 and getting dust and stains on them, which would affect the condensation effect.

[0037] Furthermore, it can prevent friction between the Oxford gloves 9 and the condensation box 10 from causing the Oxford gloves 9 to fall off the hand mold 8. Through this design of the conveyor component, while ensuring that the Oxford gloves 9 in the set can achieve the immersion and condensation effect, it can also facilitate the subsequent switching of the movement track, so that the condensed Oxford gloves 9 changes from a vertical displacement state to a horizontal displacement state, which is conducive to the draining and drying operations.

[0038] In one embodiment of the present invention, the reflux assembly includes: a water pump 20 and a serpentine reflux pipe 21. The inlet end of the water pump 20 is connected to the end portion of the reflux pipe 18 that enters the cooling chamber 19, and the outlet end of the water pump 20 is connected to one end of the serpentine reflux pipe 21. The serpentine reflux pipe 21 is arranged in a serpentine pattern from bottom to top inside the cooling chamber 19, and the upper end of the serpentine reflux pipe 21 is connected to the upper end of the condenser 10 through a drain pipe. The serpentine reflux pipe 21 is fixed to the inner wall of the cooling chamber 19 at the corner positions where it is distributed in a serpentine pattern inside the cooling chamber 19 by a locking buckle. The locking buckle is prior art and will not be further described here.

[0039] When the coolant 11 filled in the condenser 10 is circulated using the reflux assembly, the water pump 20 is started. The water pump 20 operates and draws the coolant 11 temporarily stored in the storage chamber 15 through the reflux pipe 18 and delivers the coolant 11 to the serpentine reflux pipe 21. The coolant 11 flows in a ring inside the serpentine reflux pipe 21. During the ring flow of the coolant 11, it exchanges heat with the cold air introduced into the cooling chamber 19, thereby physically cooling the flowing coolant 11. After the coolant 11 is cooled, it is delivered back to the condenser 10 through the drain pipe for use in cooling the molded high-temperature Oxford gloves 9.

[0040] In one embodiment of the present invention, the nitrogen assembly includes a nitrogen tank 31 and a diffuser 33. The nitrogen tank 31 is disposed on the cooling box 23. The output end of the nitrogen tank 31 is connected to a nitrogen pipe 32. The lower end of the nitrogen pipe 32 extends into the cooling chamber 24. The end portion of the nitrogen pipe 32 extending into the cooling chamber 24 is connected to the diffuser 33. The diffuser 33 is installed and fixed inside the cooling chamber 24. Dispersion components 34 are provided on both sides of the diffuser 33.

[0041] When the nitrogen assembly is used to cool the hot air that has entered the cooling chamber 24 after heat exchange, the nitrogen temporarily stored in the nitrogen tank 31 is atomized and then sprayed out through the nitrogen pipe 32, the diffuser pipe 33 and finally the dispersion assembly 34 connected on both sides of the diffuser pipe 33 to physically cool the hot air at various locations inside the cooling chamber 24.

[0042] Please see Figure 2In an embodiment of the present invention, the dispersion component 34 includes a dispersion tube 35 and a dispersion ring 36. The dispersion tube 35 is mounted and fixed on the dispersion ring 36. One end of the dispersion tube 35 is connected to the diffusion tube 33, and the other end of the dispersion tube 35 is disposed inside the dispersion ring 36. The outlet end of the dispersion tube 35 is directly opposite the dispersion sheet 37. One end of the dispersion sheet 37 is mounted and fixed on the dispersion ring 36 through a mounting bracket 38.

[0043] When the nitrogen atomized inside the nitrogen tank 31 enters the diffuser 33 through the nitrogen pipe 32, it is then sprayed out from the dispersion components 34 set on both sides of the diffuser 33. The nitrogen is sprayed out through the dispersion pipe 35. The atomized nitrogen undergoes aerodynamic friction with the dispersion plate 37 and then diffuses around the dispersion plate 37, so that the low-temperature nitrogen can quickly exchange heat with the hot air entering the cooling chamber 24.

[0044] In one embodiment of the present invention, the refrigeration assembly includes a refrigeration device 29 and a refrigerant chamber 28. One end of the refrigeration device 29 is connected to the air inlet pipe 30, and the lower end of the refrigeration device 29 is connected to the refrigerant chamber 28. A refrigerant device 26 is installed inside the refrigerant chamber 28. A refrigerant inlet box 27 is connected to the upper left side of the refrigerant chamber 28, and a refrigerant recovery box is installed at the lower left side of the refrigerant chamber 28.

[0045] Simultaneously, the refrigeration unit 29 and the refrigerant unit 26 are activated. The refrigeration unit 29 draws in hot air from the cooling chamber 24 through the air inlet pipe 30, which undergoes the first physical cooling. The cooled hot air is then transported to the refrigerant chamber 28. At this time, the refrigerant unit 26 allows the refrigerant in the refrigerant box 27 to evaporate inside the pipe and exchange heat with the hot air, achieving a second cooling of the hot air. The evaporated refrigerant is then sent to the refrigerant recovery box. The cooled air, after two cooling cycles, is discharged through the exhaust pipe 25 and transported to the cooling chamber 24. The hot air entering the cooling chamber 24 undergoes heat exchange and cooling, allowing the cooled hot air to enter the cooling box 19 for heat exchange with the coolant.

[0046] In the description of this invention, unless otherwise explicitly specified and limited, the terms "installation," "connection," and "linking" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; and they can refer to the internal connection of two components. Those skilled in the art can understand the specific meaning of the above terms in this invention based on the specific circumstances.

[0047] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions, and improvements made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A condensation device for the production of low-protein durable Oxford gloves, comprising: The condenser (10), base (14), cooling chamber (19), and cooling box (23) are characterized by: The upper end of the condenser box (10) is a slide rail (5), the upper end of the slide rail (5) is a conveyor chain (4), the conveyor chain (4) is provided with a mounting plate (3), the adjacent mounting plates (3) on the conveyor chain (4) are fixedly installed with a connecting shaft (2), the connecting shaft (2) is movably installed with a movable block (1), the lower end of the movable block (1) is provided with a conveying component, and the lower end of the conveying component is provided with an Oxford glove (9). The condenser (10) is filled with coolant (11), and the lower end of the condenser (10) is fixed on the base (14). The condenser (10) and the base (14) are separated by a partition (12). A temporary storage chamber (15) is opened inside the base (14). The lower end of the condenser (10) is connected to the temporary storage chamber (15) opened inside the base (14) through a metal conduit (17). An inlet pipe (13) is connected to the upper left side of the base (14). Cooling metal plates (16) are installed and fixed on both sides of the end part of the metal conduit (17) that extends into the temporary storage chamber (15). The lower right side of the base (14) is connected to the cooling box (19) through a return pipe (18). The cooling box (19) is equipped with a reflux assembly inside, and the inner wall of the cooling box (19) is coated with a heat insulation material layer; the lower right end of the cooling box (19) is connected to the interior of the cooling box (23) through a return air pipe (22); The cooling chamber (23) has a cooling cavity (24) inside, and the cooling cavity (24) is connected to a nitrogen gas assembly. The upper and lower ends of the cooling cavity (24) are connected to the refrigeration assembly through an air inlet pipe (30) and an exhaust pipe (25), respectively. The reflux assembly includes a water pump (20) and a serpentine reflux pipe (21). The inlet end of the water pump (20) is connected to the end of the reflux pipe (18) entering the cooling chamber (19), and the outlet end of the water pump (20) is connected to one end of the serpentine reflux pipe (21). The serpentine reflux pipe (21) is arranged in a serpentine pattern from bottom to top inside the cooling chamber (19). The upper end of the serpentine reflux pipe (21) is connected to the upper end of the condenser (10) inside through a drain pipe. The serpentine reflux pipe (21) is fixed to the inner wall of the cooling chamber (19) by a locking buckle at the corner position of the serpentine distribution inside the cooling chamber (19).

2. The condensation device for producing low-protein durable Oxford gloves according to claim 1, characterized in that: The conveying assembly includes a telescopic rod, a mounting base (7), and a hand mold (8). The upper end of the telescopic rod is connected to the movable block (1). A roller (6) is installed in the middle of the telescopic rod. The roller (6) is rolled on the outer surface of the slide rail (5). The lower end of the telescopic rod is provided with a mounting base (7). The lower end of the mounting base (7) is provided with a hand mold (8). An Oxford glove (9) is fitted on the hand mold (8).

3. The condensation device for producing low-protein durable Oxford gloves according to claim 1, characterized in that: The nitrogen assembly includes a nitrogen tank (31) and a diffuser (33). The nitrogen tank (31) is mounted on the cooling box (23). The output end of the nitrogen tank (31) is connected to a nitrogen pipe (32). The lower end of the nitrogen pipe (32) extends into the cooling chamber (24). The end portion of the nitrogen pipe (32) extending into the cooling chamber (24) is connected to the diffuser (33). The diffuser (33) is installed and fixed inside the cooling chamber (24). Dispersion components (34) are provided on both sides of the diffuser (33). The dispersion component (34) includes a dispersion tube (35) and a dispersion ring (36). The dispersion tube (35) is mounted and fixed on the dispersion ring (36). One end of the dispersion tube (35) is connected to the diffusion tube (33), and the other end of the dispersion tube (35) is located inside the dispersion ring (36). The outlet end of the dispersion tube (35) is directly opposite the dispersion plate (37). One end of the dispersion plate (37) is mounted and fixed on the dispersion ring (36) through a mounting bracket (38).

4. The condensation apparatus for producing low-protein durable Oxford gloves according to claim 3, characterized in that: The refrigeration assembly includes a refrigeration device (29) and a refrigerant chamber (28). One end of the refrigeration device (29) is connected to the air inlet pipe (30), and the lower end of the refrigeration device (29) is connected to the refrigerant chamber (28). A refrigerant device (26) is installed inside the refrigerant chamber (28). A refrigerant inlet box (27) is connected to the upper left side of the refrigerant chamber (28), and a refrigerant recovery box is installed at the lower left side of the refrigerant chamber (28).

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