Bacteriostatic cool fabric setting and finishing equipment

Abstract

The utility model discloses a kind of bacteriostatic cool feeling fabric shaping finishing equipment, including the main body support cylinder shell being fixed on support base plate and the axis horizontal arrangement, main body support cylinder shell is equipped with the main body support tube shaft coaxial with it;Two rotating support rings are rotatably connected on main body support tube shaft, and two rotating support rings are commonly fixed with negative pressure support cylinder shell;Main body support cylinder shell outer side is equipped with fabric input and fabric output with its inside intercommunication and horizontal extension arrangement;Hot gas conveying shell is fixed in the top of main body support cylinder shell, and multiple hot gas dispersion output pipes are arranged in the lower side of hot gas conveying shell and are interconnected with its inside;Adopting negative pressure to fit shaping, guarantee fabric flatness, can tightly adsorb fabric on the surface of cylinder shell, fabric is synchronously rotated with cylinder shell after fitting, and it will not appear displacement, wrinkle during shaping process, substantially improve the flatness and consistency of fabric after shaping.

Description

Technical Field

[0001] This utility model relates to the field of fabric shaping technology, specifically to a shaping and finishing device for antibacterial and cooling fabrics. Background Technology

[0002] The core of fabric setting is to stabilize the shape, size, and function of antibacterial and cooling fabrics through physical or chemical means, so that they are no longer easily deformed. Simply put, setting is to make it maintain its proper shape and performance in subsequent use, such as washing and wearing. The setting process is especially important for functional fabrics such as "antibacterial" and "cooling".

[0003] Existing fabric setting equipment still suffers from insufficient flatness and consistency in terms of setting effect, and needs further improvement and optimization. Utility Model Content

[0004] The purpose of this invention is to provide a finishing and shaping device for antibacterial and cooling fabrics, which greatly improves the smoothness and consistency of the fabric after finishing.

[0005] To achieve the above objectives, this utility model provides the following technical solution: A shaping and finishing device for antibacterial and cooling fabrics includes a main support cylinder shell fixed on a support base plate and arranged horizontally along its axis, and a main support tube shaft coaxial with the main support cylinder shell. Two rotating support rings are rotatably connected to the main support tube shaft, and the two rotating support rings together fix the negative pressure support shell. The outer side of the main support cylinder shell is provided with a fabric inlet and a fabric outlet that are connected to the interior and extend horizontally. A hot gas conveying shell is fixed at the top inside the main support cylinder, and multiple hot gas dispersion output pipes connected to the interior are provided on the lower side of the hot gas conveying shell.

[0006] Preferably, the negative pressure support cylinder shell has multiple negative pressure flow holes that extend radially through it on its side wall, and the upper side wall of the section of the main support tube shaft located inside the negative pressure support cylinder shell has multiple hot air exhaust holes that communicate with the inside and outside. The upper side of the hot gas conveying shell is provided with multiple hot gas input pipes that are connected to its interior, and the hot gas input pipes extend to the outside of the main support cylinder shell. One end of the main support tube shaft is connected to a negative pressure suction machine via a negative pressure connecting pipe.

[0007] Note: As hot air flows along the negative pressure flow hole, it allows the antibacterial cooling fabric to adhere smoothly and tightly to the upper side of the negative pressure support cylinder shell.

[0008] Preferably, an input guide roller shaft is rotatably connected inside the main support cylinder shell at the fabric inlet, and an output guide roller shaft is rotatably connected inside the main support cylinder shell at the fabric outlet. The axes of both the input guide roller shaft and the output guide roller shaft are arranged parallel to the axis of the negative pressure support shell.

[0009] Explanation: The antibacterial and cooling fabric enters the main support cylinder shell through the fabric inlet, passes around the upper side of the negative pressure support cylinder shell under the guidance of the input guide roller, and finally exits through the fabric outlet after being guided by the output guide roller.

[0010] Preferably, a sealed arc-shaped plate is fixed to the lower side of the section of the main support tube shaft inside the negative pressure support cylinder shell, and the sealed arc-shaped plate is fixedly connected to the main support tube shaft through a radial connecting rod; The sealed arc-shaped plate is fitted in a sealed contact with the lower side of the inside of the negative pressure support cylinder shell.

[0011] Explanation: During the rotation of the negative pressure support cylinder shell, the negative pressure flow hole on the lower side of the negative pressure support cylinder shell is sealed by a sealed arc plate, so that hot air can only flow from the upper side of the negative pressure support cylinder shell.

[0012] Preferably, a fabric smoothing mechanism is provided inside the main support cylinder shell. The fabric smoothing mechanism includes a smoothing radial support slide rail fixed to the inner end face of the main support cylinder shell and extending radially therein, and a smoothing radial support slider is slidably connected on the smoothing radial support slide rail. A smoothing support beam is fixed on the smoothing radial support slider and arranged parallel to the axis of the main support cylinder shell. The smoothing support beam is located above the negative pressure support cylinder shell. A smoothing axial support slide rail is fixed on the lower side of the smoothing support crossbeam, a smoothing axial support slider is slidably connected on the smoothing axial support slide rail, and a fabric smoothing arc tube is fixed on the smoothing axial support slider. The fabric-smoothing arc-shaped tube extends circumferentially around the negative pressure support cylinder shell, and the lower side of the fabric-smoothing arc-shaped tube has the same arc shape as the upper side of the negative pressure support cylinder shell.

[0013] Note: The antibacterial and cooling fabric on the upper side of the negative pressure support cylinder shell is smoothed using a fabric smoothing mechanism, which helps to make the antibacterial and cooling fabric smoother after shaping.

[0014] Compared with the prior art, the beneficial effects of this utility model are reflected in the following aspects: 1. The present invention has a reasonable structural design and adopts negative pressure bonding and shaping to ensure the flatness of the fabric. The negative pressure support cylinder shell, through the negative pressure flow hole on the side wall, and in conjunction with the negative pressure suction machine connected to the main support tube shaft, can tightly adsorb the fabric onto the surface of the cylinder shell. After the fabric is bonded, it rotates synchronously with the cylinder shell. There will be no displacement or wrinkles during the shaping process, which greatly improves the flatness and consistency of the fabric after shaping. 2. This utility model is easy to operate, provides bidirectional uniform heating, and improves the setting efficiency and effect. Through the hot air conveying shell and the hot air dispersion output pipe, hot air is evenly sprayed onto the fabric surface, and the hot air can evenly pass through the fabric to make the fabric heat evenly, avoiding local overheating or uneven heating, shortening the setting time, and ensuring that the antibacterial, cooling and other functional finishing agents are more stable on the fabric. 3. This utility model can actively smooth and prevent wrinkles, optimize the surface quality of the fabric. By driving the smoothing radial support slide rail and the smoothing axial support slider with a servo motor, it can smooth the arc tube as it moves closer to or away from the negative pressure support cylinder shell, as well as move along the axial direction of the negative pressure support cylinder shell. It can actively smooth the wrinkles on the fabric surface during shaping, and is especially suitable for antibacterial and cool fabrics that are prone to wrinkling, further improving the quality of the finished product. Attached Figure Description

[0015] Figure 1 This is the front view of this utility model; Figure 2 This is a left view of the present invention; Figure 3 This is a left view of the fabric smoothing mechanism of this utility model.

[0016] In the diagram, 10-support base plate, 101-negative pressure connecting pipe, 102-negative pressure suction machine, 11-main support cylinder shell, 111-fabric inlet, 112-fabric outlet, 113-inlet guide roller shaft, 114-outlet guide roller shaft, 12-main support tube shaft, 120-hot air exhaust hole, 121-sealed arc plate, 122-radial connecting rod, 13-negative pressure support cylinder shell, 130-negative pressure flow hole, 131-rotating support ring, 14-hot air conveying shell, 140-hot air inlet pipe, 141-hot air dispersion outlet pipe, 15-fabric smoothing mechanism, 151-smoothing radial support slide rail, 152-smoothing radial support slider, 153-smoothing support crossbeam, 154-smoothing axial support slide rail, 155-smoothing axial support slider, 156-fabric smoothing arc tube. Detailed Implementation

[0017] The following is combined Figures 1-3 This utility model will be described in detail. For ease of description, the orientations mentioned below are defined as follows: The directions of up, down, left, right, front, and back mentioned below are consistent with the directions of up, down, left, right, front, and back in the projection relationship of their respective main views or structural schematic diagrams.

[0018] Example 1: A type of antibacterial and cooling fabric finishing equipment, such as Figure 1 As shown, it includes a main support cylinder shell 11 fixed on the support base plate 10 and arranged horizontally along the axis, and a main support tube shaft 12 coaxial with it is provided on the main support cylinder shell 11. like Figure 2 As shown, two rotating support rings 131 are rotatably connected to the main support tube shaft 12, and the two rotating support rings 131 are jointly fixed to the negative pressure support shell 13. The rotating support ring 131 is driven by a prior art servo motor fixed to the inner wall of the main support cylinder shell 11 to rotate around the axis of the main support tube shaft 12 via gear transmission; like Figure 1 As shown, the outer side of the main support cylinder shell 11 is provided with a fabric inlet 111 and a fabric outlet 112 that are connected to the interior and extend horizontally. A hot gas conveying shell 14 is fixed at the top inside the main support cylinder shell 11, and multiple hot gas dispersion output pipes 141 connected to its interior are provided on the lower side of the hot gas conveying shell 14.

[0019] like Figure 1 As shown, the negative pressure support cylinder shell 13 has multiple negative pressure flow holes 130 that extend radially through its side wall, and the upper side wall of the section of the main support tube shaft 12 inside the negative pressure support cylinder shell 13 has multiple hot air exhaust holes 120 that are connected internally and externally. The upper side of the hot gas conveying shell 14 is provided with multiple hot gas input pipes 140 that are connected to its interior, and the hot gas input pipes 140 extend to the outside of the main support shell 11. like Figure 2 As shown, one end of the main support tube shaft 12 is connected to a negative pressure suction machine 102 via a negative pressure connecting pipe 101. The negative pressure suction machine 102 is a commercially available product of the prior art.

[0020] like Figure 1 As shown, an input guide roller 113 is rotatably connected inside the main support cylinder shell 11 at the fabric inlet 111, and an output guide roller 114 is rotatably connected inside the main support cylinder shell 11 at the fabric outlet 112. The axes of the input guide roller shaft 113 and the output guide roller shaft 114 are both arranged parallel to the axis of the negative pressure support shell 13.

[0021] Example 2: Based on Example 1, such as Figure 1 As shown, a sealed arc plate 121 is fixed on the lower side of a section of the main support tube shaft 12 inside the negative pressure support cylinder shell 13. The sealed arc plate 121 is fixedly connected to the main support tube shaft 12 through a radial connecting rod 122. The sealed arc plate 121 is in sealed contact with the lower side of the inside of the negative pressure support shell 13.

[0022] Example 3: Based on Example 2, such as Figure 2 As shown, the main support cylinder shell 11 is equipped with a fabric smoothing mechanism 15, such as... Figure 3As shown, the fabric smoothing mechanism 15 includes a smoothing radial support slide rail 151 fixed to the inner end face of the main support cylinder shell 11 and extending radially therein, and a smoothing radial support slider 152 slidably connected on the smoothing radial support slide rail 151. The smoothing radial support slider 152 is driven by a servo motor of the prior art to move along the smoothing radial support slide rail 151 via ball screw transmission; A smoothing support beam 153 is fixed on the smoothing radial support slider 152 and arranged parallel to the axis of the main support cylinder shell 11. The smoothing support beam 153 is located above the negative pressure support cylinder shell 13. A smoothing axial support slide rail 154 is fixed on the lower side of the smoothing support beam 153. A smoothing axial support slider 155 is slidably connected on the smoothing axial support slide rail 154. A fabric smoothing arc tube 156 is fixed on the smoothing axial support slider 155. The smoothing axial support slider 155 is driven by a servo motor of the prior art to move along the smoothing axial support slide rail 154 via ball screw transmission. The fabric-smoothing arc tube 156 extends circumferentially around the negative pressure support cylinder shell 13, and the lower side of the fabric-smoothing arc tube 156 has the same arc shape as the upper side of the negative pressure support cylinder shell 13.

[0023] In practical application, the antibacterial cooling fabric enters the main support cylinder shell 11 from the fabric inlet 111, passes around the upper side of the negative pressure support cylinder shell 13 under the guidance of the input guide roller 113, and finally passes out from the fabric outlet 112 after being guided by the output guide roller 114. The existing fabric traction equipment is used to continuously traction the antibacterial cooling fabric that passes out from the fabric outlet 112. The diameter of the negative pressure flow hole 130 is 10μm, and the diameter of the hot gas exhaust hole 120 is 100 times the diameter of the negative pressure flow hole 130. Taking polyester fiber antibacterial cooling fabric as an example, during the process of the antibacterial cooling fabric passing through the main support cylinder shell 11, hot air at 190° is introduced into each hot air inlet pipe 140 using an existing air conveyor. The hot air in the hot air inlet pipe 140 enters the hot air conveying shell 14 and is then discharged from multiple hot air dispersion outlet pipes 141. The hot air discharged from the multiple hot air dispersion outlet pipes 141 blows onto the antibacterial cooling fabric on the upper side of the negative pressure support cylinder shell 13 to perform a shaping treatment on the antibacterial cooling fabric. The negative pressure suction machine 102 is started to suction the inside of the main support tube shaft 12. After the hot air heats the antibacterial and cooling fabric, it passes through the negative pressure flow hole 130 and enters the inside of the negative pressure support cylinder shell 13. The hot air inside the negative pressure support cylinder shell 13 then passes through the hot air exhaust hole 122 and enters the inside of the main support tube shaft 12. The hot air after use is suctioned out by the negative pressure suction machine 102. As hot air flows along the negative pressure flow hole 130, it can make the antibacterial cooling fabric adhere smoothly and tightly to the upper side of the negative pressure support cylinder shell 13. The exhaust gas discharged from the output end of the negative pressure suction machine 102 can be treated harmlessly using existing gas purification equipment; The antibacterial and cooling fabric on the upper side of the negative pressure support cylinder shell 13 is smoothed by the fabric smoothing mechanism 15, so that the antibacterial and cooling fabric is smoother after shaping. With the axial direction of the negative pressure support cylinder shell 13 as a reference, in the initial state, the fabric smoothing arc tube 156 is located in the middle of the negative pressure support cylinder shell 13, and there is a 5 cm gap between the fabric smoothing arc tube 156 and the antibacterial cooling fabric on the upper side of the negative pressure support cylinder shell 13. When the fabric smoothing mechanism 15 starts to work, the smoothing radial support slider 152 is first driven by a servo motor of the prior art through ball screw transmission to move along the smoothing radial support slide rail 151, so that the smoothing radial support slider 152 drives the smoothing support crossbeam 153 and the smoothing axial support. The slide rail 154, the smoothing axial support slider 155, and the fabric smoothing arc tube 156 move towards the upper side of the negative pressure support cylinder shell 13, so that the lower side of the fabric smoothing arc tube 156 is pressed lightly against the antibacterial and cooling fabric. Then, the smoothing axial support slider 155 is driven by a servo motor of the prior art through ball screw transmission to move along the smoothing axial support slide rail 154. The smoothing axial support slider 155 drives the fabric smoothing arc tube 156 to move towards the end of the negative pressure support cylinder shell 13 to smooth the antibacterial and cooling fabric. When the fabric smoothing arc tube 156 reaches the end of the negative pressure support cylinder shell 13, the smoothing radial support slider 152 then drives the smoothing support beam 153, the smoothing axial support slide rail 154, the smoothing axial support slider 155, and the fabric smoothing arc tube 156 to move away from the upper side of the negative pressure support cylinder shell 13, so that the distance between the fabric smoothing arc tube 156 and the upper side of the negative pressure support cylinder shell 13 returns to 5 cm. Finally, the smoothing axial support slider 155 drives the fabric smoothing arc tube 156 to move closer to the middle of the negative pressure support cylinder shell 13 and return to the initial state. The fabric smoothing arc tube 156 repeats the above movement to continuously smooth the antibacterial and cooling fabric passing through the upper side of the negative pressure support cylinder shell 13.

Claims

1. A finishing and shaping device for antibacterial and cooling fabrics, characterized in that, It includes a main support cylinder shell (11) fixed on the support base plate (10) and arranged horizontally on the axis, and a main support tube shaft (12) coaxial with it is provided on the main support cylinder shell (11). Two rotating support rings (131) are rotatably connected to the main support tube shaft (12), and the two rotating support rings (131) are fixed together with the negative pressure support shell (13). The main support cylinder shell (11) is provided with a fabric inlet (111) and a fabric outlet (112) on the outside, which are connected to the interior and extend horizontally. The main support cylinder (11) has a hot gas conveying shell (14) fixed at the top inside, and the hot gas conveying shell (14) has multiple hot gas dispersion output pipes (141) connected to its interior on the lower side.

2. The antibacterial and cooling fabric shaping and finishing equipment according to claim 1, characterized in that, The negative pressure support cylinder shell (13) has multiple negative pressure flow holes (130) that extend radially through it on its side wall, and the upper side wall of the section of the main support tube shaft (12) inside the negative pressure support cylinder shell (13) has multiple hot air exhaust holes (120) that are connected to the inside and outside. The upper side of the hot gas conveying shell (14) is provided with multiple hot gas input pipes (140) that are connected to its interior, and the hot gas input pipes (140) extend to the outside of the main support shell (11); One end of the main support tube shaft (12) is connected to a negative pressure suction machine (102) via a negative pressure connecting pipe (101).

3. The antibacterial and cooling fabric shaping and finishing equipment according to claim 1, characterized in that, An input guide roller (113) is rotatably connected inside the main support cylinder (11) at the fabric inlet (111), and an output guide roller (114) is rotatably connected inside the main support cylinder (11) at the fabric outlet (112). The axes of the input guide roller shaft (113) and the output guide roller shaft (114) are both arranged parallel to the axis of the negative pressure support cylinder shell (13).

4. The antibacterial and cooling fabric shaping and finishing equipment according to claim 1, characterized in that, A sealed arc plate (121) is fixed on the lower side of a section of the main support tube shaft (12) inside the negative pressure support cylinder shell (13). The sealed arc plate (121) is fixedly connected to the main support tube shaft (12) through a radial connecting rod (122). The sealed arc plate (121) is in sealed contact with the lower side of the inside of the negative pressure support shell (13).

5. The antibacterial and cooling fabric shaping and finishing equipment according to claim 1, characterized in that, The main support cylinder shell (11) is provided with a fabric smoothing mechanism (15). The fabric smoothing mechanism (15) includes a smoothing radial support slide rail (151) fixed to the inner end face of the main support cylinder shell (11) and extending radially therein. A smoothing radial support slider (152) is slidably connected on the smoothing radial support slide rail (151). The smoothing radial support slider (152) is fixed with a smoothing support beam (153) arranged parallel to the axis of the main support cylinder shell (11), and the smoothing support beam (153) is located above the negative pressure support cylinder shell (13). The smoothing support beam (153) is fixed with a smoothing axial support slide rail (154) on its lower side. A smoothing axial support slider (155) is slidably connected to the smoothing axial support slide rail (154). A fabric smoothing arc tube (156) is fixed to the smoothing axial support slider (155). The fabric smoothing arc tube (156) extends circumferentially around the negative pressure support cylinder shell (13), and the lower side of the fabric smoothing arc tube (156) has the same arc shape as the upper side of the negative pressure support cylinder shell (13).

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