Textile fabric winding mechanism

Abstract

The invention relates to the field of winding, in particular to a textile fabric winding mechanism which comprises a winding execution driving end, a winding conduction end, an atomization liquid storage unit and a one-way heat supply source generation part. A plurality of groups of winding inner layer humidity cross-line processing assemblies are arranged in the winding inner layer surface guide roller, and the one-way heat supply source generating part is used for conveying a dry air source to the inner side of the winding inner layer surface guide roller; during winding, the outer layer surface of the wound textile fabric on the outer side of the total winding roller keeps humidity, and the humidity of the inner layer surface of the textile fabric continuously transmitted on the outer side of the winding inner layer surface guide roller is reduced; furthermore, when the inner layer surface of the textile fabric on the outer side of the winding inner layer surface guide roller is conveyed to cover the outer layer surface of the wound textile fabric on the outer side of the total winding roller to be wound, the up-down air pressure difference of the contact surface of the inner layer and the outer layer is kept stable, the winding friction force is reduced, and wrinkles of a local winding surface can be avoided.

Description

Technical Field

[0001] The invention relates to the field of winding, in particular to a textile cloth winding mechanism. Background Art

[0002] During the textile fabric winding process, in order to avoid the phenomenon of too low humidity in the textile workshop causing the fabric to be wound around the roller and loose after winding, an industrial humidifier is usually set at the winding machine position for spray humidification, and the atomized humidification liquid is sprayed downward through the pipe nozzle, so that the humidity of the textile fabric surface increases rapidly after contact, thereby increasing the moisture content of the surface fiber and the needle clothing when in contact, and reducing the mutual friction between the surface fiber and the needle clothing when winding. However, the above treatment method has the following problems: since the atomization distribution surface cannot be specifically limited, when the output atomization humidification amount is too large, the humidity will quickly penetrate the textile fabric. At this time, the wetted surface not only remains on the surface of the textile fabric, but also increases the overall humidity of the textile fabric. Therefore, the humidity between the outer layer that has been wound and the inner layer that has not been wound during winding is on the rise, and the air pressure difference between the upper and lower layers of the fabric changes significantly, which increases the friction between the outer layer that has been wound and the inner layer that has not been wound, resulting in wrinkles on the local winding surface during the textile fabric winding process, and the winding completion is not ideal. To solve this problem, we proposed a textile cloth winding mechanism. Summary of the invention

[0003] In view of the problems in the prior art, the present invention provides a textile fabric winding mechanism.

[0004] The technical solution adopted by the present invention to solve its technical problem is: a textile fabric winding mechanism, comprising: a winding execution drive end, a winding conduction end, an atomizing liquid storage unit and a one-way heat source generating unit, the winding conduction end comprising: a total winding roller and a winding inner layer guide roller, the winding inner layer guide roller is provided with a plurality of groups of winding inner layer humidity cross-line processing components, the one-way heat source generating unit is used to transport a dry air source to the inner side of the winding inner layer guide roller, the winding inner layer humidity cross-line processing component increases the circulating air intake volume before the inner layer of the textile fabric is wound on the total winding roller, thereby improving the dryness of the inner layer of the fabric before being wound, the winding inner layer humidity cross-line processing component comprises an inner ring circulating conduction roller seat, an output section control valve, a lateral wind guide pusher and a cross-line processing response pushing unit, the output end of the output section control valve and the lateral wind guide pusher are connected by The flexible sealing leather cavity is fixedly connected, the cross-line processing response push part is installed on the outside of the output section control valve, the output end of the cross-line processing response push part is fixedly connected to the lateral wind guide push head, the inner ring circulation conduction roller seat is slidably set on the inner wall of the winding inner layer guide roller, and a non-interference shrinkage connection part is connected between the inner ring circulation conduction roller seat and the inner wall of the winding inner layer guide roller, the cross-line processing response push part increases the air intake when the winding inner layer guide roller guides the textile fabric to be wound by adjusting the extension length of the inner ring circulation conduction roller seat, thereby increasing the circulation coverage area of ​​the inner layer and the drying air source when the textile fabric is wound, and the inner ring circulation conduction roller seat is used to control the output direction of the drying air source when it circulates along the winding inner layer guide roller and the inner layer of the textile fabric, thereby reducing the direct heating surface of the inner layer of the textile fabric when drying.

[0005] Preferably, the output end of the one-way heat supply source generating unit is connected to the output section control valve through the winding surface same-direction air supply guide assembly and the non-rotating transmission pipe, and the non-rotating transmission pipe is fixedly connected to the output end of the one-way heat supply source generating unit, and the winding surface same-direction air supply guide assembly includes an output volume intervention air duct, a rotating sealing connecting valve and a dry air source output single pipe, the output volume intervention air duct is fixedly installed on the inner side of the winding inner layer guide roller, and the dry air source output single pipe is installed between the output volume intervention air duct and the rotating sealing connecting valve, the non-rotating transmission pipe is rotatably connected to the rotating sealing connecting valve, and the rotating sealing connecting valve is used to provide sealing when the non-rotating transmission pipe rotates synchronously with the winding inner layer guide roller, and the output volume intervention air duct is fixedly connected to the output section control valve.

[0006] Preferably, a humidification treatment regulation and execution component is installed on one side of the winding execution drive end, and the humidification treatment regulation and execution component is used to test the humidity of the cloth before winding, and control the atomization humidification amount according to the humidity. The humidification treatment regulation and execution component includes a humidification liquid supply transmission end, an atomization humidification nozzle and an inner winding surface infrared humidity testing end. The atomization humidification nozzle is installed at the output end of the humidification liquid supply transmission end, and the humidification liquid supply transmission end is connected to the liquid supply end of the atomization liquid storage unit. The inner winding surface infrared humidity testing end is arranged at the front end of the winding inner layer guide roller, and the inner winding surface infrared humidity testing end is used to detect the humidity of the textile cloth after the atomization liquid is added by the atomization humidification nozzle.

[0007] Preferably, an evaporation source volatilization part is provided at the bottom of the winding inner layer guide roller, and the evaporation source volatilization part is used to quickly volatilize the excess drying air source generated by the one-way heat source generation part.

[0008] Preferably, the winding execution drive end is provided with a PLC control processing end, and the PLC control processing end is signal-connected with the inner winding surface infrared humidity testing end and the one-way heat source generating part. The PLC control processing end controls the start-up of the one-way heat source generating part and the winding inner layer humidity crossing line processing component according to the humidity of the textile fabric detected by the inner winding surface infrared humidity testing end.

[0009] Compared with the prior art, the beneficial effects of the present invention are as follows: during the humidification and winding operation, the humidity of the textile fabric affected by the addition of atomized liquid by the atomizing humidifying nozzle is detected through the inner winding surface infrared humidity testing end. When the humidity is too high, the PLC control processing end sends a control signal to the one-way heat source generating part and the winding inner layer humidity crossing line processing component, so that the crossing line processing response driving part adjusts the extension length of the inner ring circulation conduction roller seat, thereby changing the conduction surface of the winding inner layer guide roller guiding the textile fabric to be wound. At this time, the inner ring circulation conduction roller seat will transport the textile fabric inner layer support to the outside of the winding inner layer guide roller, increase the gap between the inner layer of the textile fabric and the winding inner layer guide roller, so that the inner layer of the textile fabric forms a circulation along the annular surface of the winding inner layer guide roller. After the air intake cavity is completed, the dry air source output by the one-way heat source generating unit is guided by the inner ring circulation conduction roller seat to diffuse along the inner side of the circulation air intake cavity, thereby increasing the air volume and reducing the direct heating surface of the inner layer of the textile fabric when it is drying, so that the outer surface of the textile fabric that has been wound on the outside of the total winding roller retains humidity during winding, while the humidity of the inner surface of the textile fabric that continues to be conducted on the outside of the guide roller of the inner surface of the winding decreases, thereby making the inner surface of the textile fabric on the outside of the guide roller of the inner surface of the winding cover the outer surface of the textile fabric that has been wound on the outside of the total winding roller. When the winding is completed, the upper and lower air pressure difference of the inner and outer layer contact surfaces remains stable, reducing the friction of winding, avoiding wrinkles on the local winding surface, and also avoiding the phenomenon of loose winding caused by excessive drying of the textile fabric. BRIEF DESCRIPTION OF THE DRAWINGS

[0010] The present invention is further described below in conjunction with the accompanying drawings and embodiments.

[0011] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0012] Figure 2 This is a diagram of the same-direction air supply guide component for the winding surface and the humidity cross-line processing component for the winding inner layer in the present invention.

[0013] Figure 3 It is a schematic diagram of the overall structure of the present invention from another perspective.

[0014] Figure 4 It is a cross-sectional view of the guide roller of the winding inner layer in the present invention.

[0015] Figure 5 for Figure 2 Enlarged view of part A in the middle.

[0016] Figure 6 for Figure 4 Enlarged view of part B in the middle.

[0017] In the figure: 1. Winding execution drive end; 11. PLC control processing end; 2. Winding conduction end; 21. Total winding roller; 22. Winding inner surface guide roller; 3. Atomizing liquid storage unit; 4. One-way heat supply source generation unit; 41. Winding surface same-way air supply guide assembly; 411. Output volume intervention air duct; 412. Rotating sealing connection valve; 413. Dry air source output single pipe; 42. Non-rotating transmission pipe; 5. Winding inner layer humidity cross-line processing assembly; 51. Inner ring circulation conduction roller seat; 511. Non-intervention contraction connection; 52. Output interval control valve; 521. Flexible sealing leather cavity; 53. Lateral wind guide pusher; 54. Cross-line processing response pusher; 6. Evaporation source volatilization unit; 7. Humidification treatment control execution assembly; 71. Humidification liquid supply transmission end; 72. Atomizing humidification nozzle; 73. Inner winding surface infrared humidity test end. DETAILED DESCRIPTION

[0018] In order to make the technical means, creative features, objectives and effects achieved by the present invention easy to understand, the present invention is further explained below in conjunction with specific implementation methods.

[0019] like Figure 1-Figure 6As shown, a textile fabric winding mechanism described in the present invention includes: a winding execution drive end 1, a winding conduction end 2, an atomizing liquid storage unit 3 and a one-way heat source generating part 4, the winding conduction end 2 includes: a total winding roller 21 and a winding inner layer guide roller 22, the winding inner layer guide roller 22 is provided with a plurality of groups of winding inner layer humidity cross-line processing components 5, the one-way heat source generating part 4 is used to transport a dry air source to the inside of the winding inner layer guide roller 22, the winding inner layer humidity cross-line processing component 5 increases the circulating air intake volume of the inner layer of the textile fabric before it is wound on the total winding roller 21, thereby improving the dryness of the inner layer of the fabric before it is wound.

[0020] In this embodiment, the transmission end of the winding execution drive end 1 is connected to the total winding roller 21 and the winding inner layer guide roller 22 through a transmission belt. The winding execution drive end 1 drives the total winding roller 21 and the winding inner layer guide roller 22 to rotate as the actuator of the winding action of the textile fabric, and the one-way heat source generating unit 4 uses a hot air blower as the generating end of the drying air source. The above-mentioned winding and air source transmission principle is well known in the art, and since it is not the improvement content of the present invention, it will not be repeated here.

[0021] In an optional implementation of this embodiment, the winding inner layer humidity cross-line processing component 5 includes: an inner ring circulation conduction roller seat 51, an output section control valve 52, a lateral wind guide pusher 53 and a cross-line processing response pusher 54. The output end of the output section control valve 52 is fixedly connected to the lateral wind guide pusher 53 through a flexible sealing leather cavity 521. The cross-line processing response pusher 54 is installed on the outer side of the output section control valve 52, and the output end of the cross-line processing response pusher 54 is fixedly connected to the lateral wind guide pusher 53. The inner ring circulation conduction roller seat 51 is slidably arranged on the inner wall of the winding inner layer guide roller 22, and a non-interference contraction connection part 511 is connected between the inner ring circulation conduction roller seat 51 and the inner wall of the winding inner layer guide roller 22. The cross-line processing response pusher 54 increases the air intake when the winding inner layer guide roller 22 guides the textile fabric to be wound, thereby increasing the circulation coverage of the inner layer and the drying air source when the textile fabric is wound. The inner ring circulation conduction roller seat 51 is used to control the output direction of the drying air source when the inner layer of the textile fabric circulates along the winding inner layer guide roller 22, thereby reducing the direct heating surface of the inner layer of the textile fabric when it is dried.

[0022] In this embodiment, in order to solve the problem that when the textile fabric is rolled up, the humidity between the outer layer that has been rolled up and the inner layer that has not been rolled up is increasing due to the excessive output of the atomization humidification amount, and the air pressure difference between the upper and lower layers of the fabric changes significantly, which increases the friction between the contact surface of the outer layer that has been rolled up and the inner layer that has not been rolled up, resulting in the problem that local winding surface wrinkles are easily generated during the textile fabric rolling process. While the humidification treatment control execution component 7 adds humidity, the present invention stabilizes the air pressure difference between the outer layer of the textile fabric that has been rolled up at the position of the total winding roller 21 and the inner layer of the textile fabric that has not been rolled up at the position of the winding inner layer guide roller 22 through the one-way heat source generation unit 4 and the winding inner layer humidity crossing line processing component 5. The specific usage of the one-way heat source generating unit 4 and the winding inner layer humidity crossing line processing component 5 is as follows: after the inner winding surface infrared humidity testing end 73 obtains that the humidity of the textile fabric is too high, the PLC control processing end 11 sends a control signal to the one-way heat source generating unit 4 and the winding inner layer humidity crossing line processing component 5. At this time, the crossing line processing response pushing unit 54 receives the control signal to extend and push the lateral wind guide pusher 53, so that the lateral wind guide pusher 53 drives the inner ring circulation conduction roller seat 51 to extend toward the outside of the winding inner layer guide roller 22, and then adjusts the extension length of the inner ring circulation conduction roller seat 51 until the air outlet of the inner ring circulation conduction roller seat 51 is exposed to the outside, and the inner ring circulation conduction roller seat 51 is no longer blocked by the non-interference shrinkage connection part 511, thereby changing the conduction surface of the winding inner layer guide roller 22 when guiding the textile fabric to wind up. After completion, the inner ring circulation conduction roller seat 51 extending from the inner side of the winding inner layer guide roller 22 can support the inner layer of the textile fabric transported to the position of the winding inner layer guide roller 22, increase the gap between the inner layer of the textile fabric and the winding inner layer guide roller 22, and form a circulating air inlet cavity along the annular surface of the winding inner layer guide roller 22.After the circulating air intake cavity is formed, the one-way heat source generating unit 4 can deliver dry air source, and transmit it to the inner side of the inner ring circulating conduction roller seat 51 through the output section control valve 52, and guide it along the circulating air intake cavity through the through hole opened on the side of the inner ring circulating conduction roller seat 51, thereby increasing the air volume and reducing the direct heating surface of the inner layer of the textile fabric during drying, so that during the conduction process of the textile fabric by the winding inner layer guide roller 22, only the inner layer is affected by the dry air source and the humidity is reduced, while the outer layer keeps the original humidity as much as possible, thereby preventing the fabric from being wound up. After the total winding roller 21 is rolled up, the outer surface of the textile fabric that has been rolled up at the position of the total winding roller 21 retains moisture during winding, while the moisture of the inner surface of the textile fabric that continues to be conducted at the position of the winding inner surface guide roller 22 decreases, so that after the inner and outer layers of the textile fabric are finally rolled up and contacted together, the upper and lower air pressure difference of the contact surface of the inner and outer layers remains stable, thereby reducing the rolling friction, avoiding the excessive increase in moisture of the inner and outer layers of the textile fabric due to humidification when winding, causing wrinkles on the local winding surface, and also avoiding the phenomenon of loose winding caused by excessive drying of the textile fabric.

[0023] In this embodiment, the flexible sealing leather cavity 521 is arranged between the lateral wind guide push head 53 and the output section control valve 52. When the cross-line processing response pushing part 54 pushes the lateral wind guide push head 53 to rise, the flexible sealing leather cavity 521 can extend synchronously with the rise of the lateral wind guide push head 53. When the cross-line processing response pushing part 54 contracts and drives the lateral wind guide push head 53 to descend, the flexible sealing leather cavity 521 can contract synchronously with the descent of the lateral wind guide push head 53, so as to maintain the sealing of the lateral wind guide push head 53 when it is pushed up and down by the cross-line processing response pushing part 54. Among them, when the cross-line processing response pushing part 54 controls the contraction of the lateral wind guide push head 53, the inner ring circulation conduction roller seat 51 slides and descends synchronously with the lateral wind guide push head 53 until the inner ring circulation conduction roller seat 51 contracts to the inner side of the winding inner layer guide roller 22, and then the non-interference contraction connection part 511 fills and seals the connection between the inner ring circulation conduction roller seat 51 and the winding inner layer guide roller 22. When the inner ring circulation conduction roller seat 51 slides and rises synchronously with the lateral wind guide push head 53, the non-interference contraction connection part 511 extends with the sliding of the inner ring circulation conduction roller seat 51, aiming to maintain the connectivity between the inner ring circulation conduction roller seat 51 and the winding inner layer guide roller 22.

[0024] In this embodiment, the output section control valve 52 is used to control the aperture of the air outlet, thereby adjusting the output of the drying air source.

[0025] In an optional implementation of this embodiment, the output end of the one-way heat supply source generating unit 4 is connected to the output section control valve 52 through the winding surface same-direction air supply guide assembly 41 and the non-rotating transmission pipe 42. The non-rotating transmission pipe 42 is fixedly connected to the output end of the one-way heat supply source generating unit 4, and the winding surface same-direction air supply guide assembly 41 includes: an output volume intervention air duct 411, a rotating sealed connection valve 412 and a drying air source output single pipe 413. The output volume intervention air duct 411 is fixedly installed on the inner side of the winding inner layer guide roller 22, and the drying air source output single pipe 413 is installed between the output volume intervention air duct 411 and the rotating sealed connection valve 412. The non-rotating transmission pipe 42 is rotationally connected to the rotating sealed connection valve 412, and the rotating sealed connection valve 412 is used to provide sealing when the non-rotating transmission pipe 42 and the winding inner layer guide roller 22 rotate synchronously, and the output volume intervention air duct 411 is fixedly connected to the output section control valve 52.

[0026] In this embodiment, since the output volume intervention air duct 411 and the output section control valve 52 are fixedly connected, in order to ensure that when the winding inner layer guide roller 22 rotates, the inner ring circulation conduction roller seat 51, the output section control valve 52 and the winding inner layer guide roller 22 can rotate synchronously, the output end of the one-way heat source generating unit 4 and the output volume intervention air duct 411 are sealed by arranging the non-rotating transmission pipe 42 and the rotating sealing connection valve 412, wherein the non-rotating transmission pipe 42 is located on the inner side of the rotating sealing connection valve 412, and the sealing during rotation is achieved by the rotating sealing connection valve 412, that is, the winding inner layer guide roller 22 is affected by the winding inner layer guide roller 22. When the roll execution driving end 1 is driven to rotate, the rotating sealed connecting valve 412 rotates synchronously along the outer side of the non-rotating transmission pipe 42, and the non-rotating transmission pipe 42 can still input the dry air source to the dry air source output single pipe 413 through the rotating sealed connecting valve 412, that is, the dry air source generated by the one-way heat source generating part 4 is sequentially sent to the output section control valve 52 through the non-rotating transmission pipe 42, the rotating sealed connecting valve 412, the dry air source output single pipe 413, and the output quantity intervention air duct 411, and finally transmitted to the inner ring circulation conduction roller seat 51 through the lateral through hole of the inner ring circulation conduction roller seat 51, and output to the outside.

[0027] In an optional implementation of the present embodiment, the humidification treatment regulation and execution component 7 is installed on one side of the winding execution drive end 1. The humidification treatment regulation and execution component 7 is used to test the humidity of the cloth before winding, and control the atomization humidification amount according to the humidity. The humidification treatment regulation and execution component 7 includes: a humidification liquid supply transmission end 71, an atomization humidification nozzle 72 and an inner winding surface infrared humidity test end 73. The atomization humidification nozzle 72 is installed at the output end of the humidification liquid supply transmission end 71, and the humidification liquid supply transmission end 71 is connected to the liquid supply end of the atomization liquid storage unit 3. The inner winding surface infrared humidity test end 73 is arranged at the front end of the winding inner layer guide roller 22. The inner winding surface infrared humidity test end 73 is used to detect the humidity of the textile cloth after the atomized liquid is added through the atomization humidification nozzle 72.

[0028] In this embodiment, before the textile fabric is rolled up, the humidifying liquid is first transported to the humidifying liquid supply transmission end 71 through the atomizing liquid storage unit 3, and the humidifying liquid is atomized and sprayed onto the textile fabric through the atomizing humidifying nozzle 72. The inner rolling surface infrared humidity testing end 73 uses an infrared humidity tester. After the humidity is increased by the atomizing humidifying nozzle 72 before the textile fabric is rolled up, the humidity of the textile fabric is detected by the inner rolling surface infrared humidity testing end 73. When the humidity exceeds the preset range, a control signal is sent to the one-way heat source generating unit 4 and the rolling inner layer humidity crossing line processing component 5 through the PLC control processing end 11 to start the intervention processing during rolling.

[0029] In the present embodiment, in an optional implementation manner of the present embodiment, the winding execution drive end 1 is provided with the PLC control processing end 11, and the PLC control processing end 11 is signal-connected with the inner winding surface infrared humidity test end 73 and the one-way heat source generating part 4, and the PLC control processing end 11 controls the start-up of the one-way heat source generating part 4 and the winding inner layer humidity crossing line processing component 5 according to the humidity of the textile fabric detected by the inner winding surface infrared humidity test end 73.

[0030] In an optional implementation of the present embodiment, an evaporation source volatilization portion 6 is provided at the bottom of the winding inner layer guide roller 22 , and the evaporation source volatilization portion 6 is used to quickly volatilize the excess drying air source generated by the one-way heat source generation portion 4 .

[0031] In this embodiment, when the inner rolled surface infrared humidity testing end 73 detects that no winding humidity needs to be added to the current rolled fabric, the one-way heat source generating part 4 is controlled to stop through the PLC control processing end 11, and then the evaporation source volatilization part 6 is used to supply air to quickly volatilize the residual temperature of the dry air source at the guide roller 22 position of the inner layer of the roll.

[0032] The workflow of the present invention comprises:

[0033] Step A, winding the textile fabric along the gap between the total winding roller 21 and the winding inner layer guide roller 22, so that the total winding roller 21 serves as the winding surface of the textile fabric, and the winding inner layer guide roller 22 serves as the transmission guide surface of the textile fabric, and then starting the winding execution drive end 1 to start winding the fabric.

[0034] Step B: After the cloth starts to be rolled up, the atomizing liquid storage unit 3 delivers the humidifying liquid to the humidifying liquid supply transmission end 71, and atomizes and sprays the humidifying liquid onto the textile cloth through the atomizing humidifying nozzle 72, so that the humidity of the textile cloth is increased before rolling up, so as to improve the rolling compactness.

[0035] Step C, after the atomizing humidifying nozzle 72 moistens the textile fabric, the inner rolling surface infrared humidity testing end 73 detects the humidity of the textile fabric. When the humidity exceeds the preset range, a control signal is sent to the one-way heat source generating part 4 and the rolling inner layer humidity crossing line processing component 5 through the PLC control processing end 11 to start the intervention processing during rolling.

[0036] Step D, the cross-line processing response driving unit 54 receives the control signal sent by the PLC control processing end 11, extends and pushes the lateral wind guide pusher 53, so that the lateral wind guide pusher 53 drives the inner ring circulation conduction roller seat 51 to extend toward the outside of the winding inner layer guide roller 22. At this time, the inner ring circulation conduction roller seat 51 extended from the inner side of the winding inner layer guide roller 22 can support the inner layer of the textile fabric transported to the position of the winding inner layer guide roller 22, so that the inner layer of the textile fabric forms a circulating air intake cavity along the annular surface of the winding inner layer guide roller 22. After the circulating air intake cavity is formed, the unidirectional heat supply source generating unit 4 can transport the dry air source, and realize lateral output through the inner ring circulation conduction roller seat 51 under the guiding action of the winding surface same-direction air supply guide component 41, the output section control valve 52 and the lateral wind guide pusher 53.

[0037] Step E, after the inner ring circulation conduction roller seat 51 outputs the dry air source, during the conduction process of the textile fabric by the winding inner layer guide roller 22, only the inner layer has its humidity reduced by the dry air source, while the outer layer keeps its original humidity as much as possible, so that the upper and lower air pressure difference of the contact surface of the inner and outer layers remains stable, thereby reducing the friction when the textile fabric is wound, avoiding the wrinkles on the local winding surface caused by the excessive increase of humidity of the inner and outer layers of the textile fabric due to humidification, and also avoiding the textile fabric from being too dry and loose when wound.

[0038] Step F, after a single winding is completed, the one-way heat source generating unit 4 can be controlled to stop through the PLC control processing end 11, and the winding inner layer humidity crossing the line processing component 5 sends a reset command, and the side wind guide push head 53 is contracted through the crossing the line processing response pushing unit 54, so that the inner ring circulation conduction roller seat 51 is restored to the original position inside the winding inner layer guide roller 22 for conventional winding use.

[0039] The above shows and describes the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The above embodiments and descriptions are only for explaining the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention may have various changes and improvements, which fall within the scope of the present invention. The scope of the present invention is defined by the attached claims and their equivalents.

Claims

1. A textile fabric winding mechanism, comprising: a winding execution drive end (1), a winding conduction end (2), an atomizing liquid storage unit (3) and a one-way heat source generating unit (4), characterized in that: The winding conduction end (2) comprises: a total winding roller (21) and a winding inner layer guide roller (22), wherein the winding inner layer guide roller (22) is provided with a plurality of groups of winding inner layer humidity cross-line processing components (5), the one-way heat source generating part (4) is used to transport a dry air source to the inner side of the winding inner layer guide roller (22), and the winding inner layer humidity cross-line processing components (5) are used to increase the circulating air intake volume before the inner layer of the textile fabric is wound around the total winding roller (21); The reel inner layer humidity cross-line processing component (5) comprises: an inner ring circulation conduction roller seat (51), an output section control valve (52), a lateral wind guide pusher (53) and a cross-line processing response pusher (54); the output end of the output section control valve (52) and the lateral wind guide pusher (53) are fixedly connected via a flexible sealing leather cavity (521); the cross-line processing response pusher (54) is used to increase the air intake when the reel inner layer guide roller (22) guides the textile fabric to be reeled by adjusting the extension length of the inner ring circulation conduction roller seat (51); the inner ring circulation conduction roller seat (51) is used to control the output direction of the drying air source when circulating along the reel inner layer guide roller (22) and the inner layer of the textile fabric.

2. A textile fabric winding mechanism according to claim 1, characterized in that: The cross-line processing response push part (54) is installed on the outer side of the output interval control valve (52), the output end of the cross-line processing response push part (54) is fixedly connected to the lateral wind guide push head (53), the inner ring circulation conduction roller seat (51) is slidably arranged on the inner wall of the winding inner layer guide roller (22), and a non-interference shrinkage connection part (511) is connected between the inner ring circulation conduction roller seat (51) and the inner wall of the winding inner layer guide roller (22).

3. A textile fabric winding mechanism according to claim 1, characterized in that: The output end of the one-way heat supply source generating part (4) is connected to the output section control valve (52) through a winding surface same-direction air supply guide component (41) and a non-rotating transmission pipe (42); the non-rotating transmission pipe (42) is fixedly connected to the output end of the one-way heat supply source generating part (4); the winding surface same-direction air supply guide component (41) comprises an output volume intervention air duct (411), a rotating sealing connection valve (412) and a drying air source output single pipe (413); the output volume intervention air duct (411) is fixedly installed on the inner surface of the winding surface On the inner side of the guide roller (22), the drying air source output single tube (413) is installed between the output volume intervention air duct (411) and the rotating sealed connection valve (412), the non-rotating transmission pipe (42) is rotationally connected to the rotating sealed connection valve (412), and the rotating sealed connection valve (412) is used to provide sealing when the non-rotating transmission pipe (42) and the winding inner layer guide roller (22) rotate synchronously, and the output volume intervention air duct (411) is fixedly connected to the output section control valve (52).

4. A textile fabric winding mechanism according to claim 1, characterized in that: A humidification control execution component (7) is installed on one side of the winding execution drive end (1). The humidification control execution component (7) is used to test the humidity of the cloth before winding and control the atomization humidification amount according to the humidity. The humidification control execution component (7) includes a humidification liquid supply transmission end (71), an atomization humidification nozzle (72) and an inner winding surface infrared humidity test end (73). The atomization humidification nozzle (72) is installed at the output end of the humidification liquid supply transmission end (71). The humidification liquid supply transmission end (71) is connected to the liquid supply end of the atomization liquid storage unit (3). The inner winding surface infrared humidity test end (73) is arranged at the front end of the winding inner layer guide roller (22). The inner winding surface infrared humidity test end (73) is used to detect the humidity of the textile cloth after the atomization liquid is added by the atomization humidification nozzle (72).

5. A textile fabric winding mechanism according to claim 1, characterized in that: An evaporation source volatilization part (6) is provided at the bottom of the winding inner layer guide roller (22), and the evaporation source volatilization part (6) is used to quickly volatilize the excess drying air source generated by the one-way heat supply source generation part (4).

6. A textile fabric winding mechanism according to claim 4, characterized in that: The winding execution drive end (1) is provided with a PLC control processing end (11), and the PLC control processing end (11) is connected to the inner winding surface infrared humidity test end (73) and the one-way heat supply source generation unit (4) by signal. The PLC control processing end (11) controls the activation of the one-way heat supply source generation unit (4) and the winding inner layer humidity crossing line processing component (5) according to the humidity of the textile fabric detected by the inner winding surface infrared humidity test end (73).

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