A strength detection device for brocade production and its use method

Abstract

The present invention is applicable to the technical field of detection devices, and provides a strength detection device for brocade production and a method for using the same, wherein the strength detection device for brocade production comprises a base plate, a device frame, a detection, flipping mechanism and a pressing mechanism, the detection frame is composed of a ring frame A and a ring frame B, and also comprises: an adjustment component, a detection mechanism and a control mechanism, a tension sensor is installed on the detection mechanism, the control mechanism adjusts the number of detection mechanisms by cooperating with the adjustment component and the detection frame, changes the clamping points and the clamping number of the detection mechanism on the brocade, not only can the brocade be clamped in the warp and weft directions, and strength detection in the warp and weft directions is convenient, but also the brocade periphery can be clamped equidistantly, and the strength detection of the brocade as a whole can be completed by cooperating with the pressing mechanism and the flipping mechanism, thereby improving the detection efficiency and detection quality of the device, and providing a more reliable and efficient means for evaluating the quality of the brocade.

Description

Technical Field

[0001] The invention belongs to the technical field of detection devices, and in particular relates to a strength detection device for brocade production and a use method thereof. Background Art

[0002] Brocade refers to a fabric that is woven with colored warp and weft threads, and has patterns through jacquard and weaving techniques. It has the characteristics of gorgeous colors, delicate patterns, solid texture, and beautiful and practical appearance. Since brocade uses a process of interweaving warp and weft threads, it is necessary to conduct strength testing during its production to determine whether the production strength of the brocade meets the requirements.

[0003] The existing device can tighten the side of the textile brocade by setting a side tensioning mechanism to ensure the tension of brocades of different widths, can clamp and fix the brocade by a positioning clamping plate mechanism, can adjust the state of the yaw rod mechanism by a lateral anti-tensile mechanism, thereby adjusting the detection angle of the brocade, can synchronously adjust the angles of the two yaw rod mechanisms by cooperating with the synchronous rotation mechanism, can perform tensile testing on the brocade by moving the anti-tensile mechanism, and improves the efficiency of textile brocade strength testing.

[0004] Due to the uniqueness of brocade weaving technology, the strength in the warp and weft directions is one of the important indicators for judging whether the brocade is qualified. However, the existing testing devices can only perform tensile tests on the overall strength of the brocade, but cannot individually, quickly and accurately test the tensile strength of the brocade in the warp and weft directions. This limitation leads to the singleness of the test data, and it is difficult to accurately determine the actual strength data of the brocade in all directions.

[0005] Therefore, in view of the above situation, there is an urgent need to develop a strength detection device for brocade production and a method of using the same to overcome the shortcomings in current practical applications. Summary of the invention

[0006] In view of the deficiencies in the prior art, an object of the embodiments of the present invention is to provide a strength detection device for brocade production and a method of using the same, so as to solve the problems in the above-mentioned background technology.

[0007] To achieve the above object, the present invention provides the following technical solutions:

[0008] A strength detection device for brocade production, comprising a bottom plate, a device frame fixed on the bottom plate, a detection frame arranged inside the device frame, the detection frame consisting of an annular frame A and an annular frame B, the annular frame A and the annular frame B are fixedly connected, the annular frame A is connected to a turning mechanism installed on the device frame and the bottom plate, a pressing mechanism is installed on the device frame, the pressing mechanism is located directly above the detection frame, and further comprising:

[0009] An adjustment assembly, the adjustment assembly is composed of an adjustment disk A, an adjustment disk B and bolts, the adjustment disk A and the adjustment disk B are connected as a whole by bolts, the adjustment disk A and the adjustment disk B both adopt an annular block structure, the connecting body of the adjustment disk A and the adjustment disk B is rotatably installed at the connection between the annular frame A and the annular frame B, the inner sides of the adjustment disk A and the adjustment disk B are both distributed with arc-shaped protrusions, and the number of arc-shaped protrusions on the adjustment disk A is twice the number of arc-shaped protrusions on the adjustment disk B;

[0010] A detection mechanism, wherein the detection mechanism comprises a moving assembly and a detection assembly, wherein the moving assemblies are staggeredly mounted on the annular frame A and the annular frame B, wherein the number of the moving assemblies on the annular frame A and the annular frame B is the same, wherein one end of the moving assembly is respectively slidably matched with the arc-shaped protrusions on the adjustment disk A and the adjustment disk B, and the other end of the moving assembly is mounted with a detection assembly, and a tension sensor is mounted on the detection assembly;

[0011] A control mechanism, the control mechanism comprising a connecting frame A, a rotating assembly A, a connecting frame B and a rotating assembly B, the connecting frame A is fixed to one side of the annular frame B, one end of the connecting frame B is fixed to one side of the adjusting disk B, the other end of the connecting frame B is rotatably mounted on the connecting frame A, the rotating assembly A is mounted on the connecting frame A, the output end of the rotating assembly A is connected to the other end of the connecting frame B, and the rotating assembly B intermittently matched with the detection assembly is mounted on the connecting frame B;

[0012] When it is necessary to test the strength of the longitude and latitude directions on the brocade, the flipping mechanism drives the detection frame to flip to a position parallel to the pressing mechanism, the rotating component A drives the connecting frame B to rotate, the connecting frame B drives the adjusting disk B and the adjusting disk A to rotate synchronously, the adjusting disk B and the adjusting disk A drive their respective arc-shaped protrusions to rotate, the arc-shaped protrusion on the adjusting disk B rotates to a position where it does not slide with the moving component, the arc-shaped protrusion on the adjusting disk A rotates to a position where it slides with the moving component, the moving component that slides with the arc-shaped protrusion on the adjusting disk A drives the detection component thereon to cooperate with the rotating component B, the rotating component B drives the detection component that cooperates with it to clamp the longitude and latitude directions of the brocade and perform tensile strength testing, and the tension sensor senses the force generated by the stretching;

[0013] When it is necessary to test the overall strength of the brocade, the flipping mechanism drives the detection frame to flip to a position perpendicular to the pressing mechanism, the rotating component A drives the connecting frame B to rotate, the connecting frame B drives the adjustment disk B and the adjustment disk A to rotate synchronously, the adjustment disk B and the adjustment disk A drive their respective arc-shaped protrusions to rotate to a position that slides with the moving component, the moving components on the annular frame A and the annular frame B drive the detection components thereon to cooperate with the rotating component B, the rotating component B drives the detection component to equidistantly clamp the periphery of the brocade to unfold it, the pressing mechanism presses the unfolded brocade above it by telescoping and performs an overall strength test, and the tension sensor senses the force generated by the pressing.

[0014] As a further technical solution of the present invention, the mobile component includes:

[0015] The movable frames are evenly distributed inside the adjustment disk A and the adjustment disk B, and the two adjacent movable frames are respectively slidably mounted on the annular frame A and the annular frame B through guide pillars, and one end of the movable frame is provided with a guide groove for installing the detection component;

[0016] A spring sleeved on the outside of the guide pillar, wherein the spring is connected to the outer wall of the annular frame A and the annular frame B respectively; and

[0017] The pulleys installed on the moving frame and the pulleys on two adjacent moving frames are slidably matched with the arc-shaped protrusions on the adjusting plate A and the adjusting plate B respectively.

[0018] As a further technical solution of the present invention, the detection component includes:

[0019] A bidirectional screw rod vertically slidably mounted in the guide groove;

[0020] A driven gear fixed to one end of the bidirectional screw, the driven gear being intermittently meshed with the rotating assembly B;

[0021] Two clamping blocks are respectively connected to the two ends of the bidirectional screw by threads, and one side of the two clamping blocks is provided with a sliding groove;

[0022] A detection block vertically slidably matched with the slide slot, wherein one side of the detection block is provided with a groove for installing a tension sensor, and one end of the tension sensor protrudes out of the groove and is slidably connected with the inner wall of the slide slot; and

[0023] A telescopic member B is fixed on the moving frame, and an output end of the telescopic member B is fixedly connected to the detection block.

[0024] As a further technical solution of the present invention, the rotating assembly A comprises:

[0025] Motor B fixed on connecting frame A;

[0026] Gear A fixed to the output end of motor B; and

[0027] A gear B is fixed on one end of a connecting frame B, and the gear B is meshed with the gear A.

[0028] As a further technical solution of the present invention, the rotating assembly B comprises:

[0029] A motor C fixed on a connecting frame B;

[0030] a main shaft fixed to the output end of the motor C; and

[0031] A driving gear is fixed on the main shaft, the driving gear is intermittently meshed with the driven gear, and the driving gear, the detection frame, the adjustment disk A and the adjustment disk B are all concentric.

[0032] As a further technical solution of the present invention, the flipping mechanism includes:

[0033] Motor A fixed on the base plate;

[0034] A transmission member mounted on the output end of the motor A; and

[0035] A flip shaft is rotatably mounted on the device frame, one end of the flip shaft is connected to one end of the transmission member, and the other end of the flip shaft is concentrically and fixedly connected to the annular frame A.

[0036] As a further technical solution of the present invention, the pressing mechanism comprises:

[0037] A telescopic member A fixed to the top of the device frame; and

[0038] A downward pressing ball fixed on the output end of the telescopic member A is located directly above the detection frame.

[0039] A method for using the strength detection device for brocade production as described above comprises the following specific steps:

[0040] 1. When it is necessary to test the strength of the longitude and latitude directions on the brocade, the motor A drives the transmission member to rotate, the transmission member drives the flip shaft to rotate, the flip shaft drives the annular frame A and the annular frame B to rotate, the annular frame A and the annular frame B flip to a position parallel to the pressing mechanism, the motor B drives the gear A to rotate, the gear A drives the connecting frame B to rotate through the gear B, the connecting frame B drives the adjusting disk A and the adjusting disk B to rotate, the adjusting disk B and the adjusting disk A drive their respective arc-shaped protrusions to rotate, the spring drives the pulley to intermittently slide to a position that cooperates with the arc-shaped protrusions on the adjusting disk A and the adjusting disk B through its own elastic force and in cooperation with the moving frame and the guide column, the arc-shaped protrusion on the adjusting disk B rotates to a position that does not slide with the pulley, and the arc-shaped protrusion on the adjusting disk A rotates to a position that slides with the pulley;

[0041] The moving component that slides with the arc-shaped protrusion on the adjustment plate A drives the detection component thereon to cooperate with the rotating component B, the motor C drives the main shaft to rotate, the main shaft drives the driven gear meshing with it to rotate through the driving gear, the driven gear drives the bidirectional screw thereon to rotate, the bidirectional screw drives the two clamping blocks on the detection block to move away from and towards each other, the two clamping blocks move away from each other to allow the clamping end of the brocade to quickly enter between the two, and the two clamping blocks quickly clamp the brocade between the two by moving closer to each other;

[0042] After the brocade is clamped, the telescopic member B drives the two clamping blocks to move by telescoping, and the multiple clamping blocks stretch the brocade in the warp and weft directions by moving. The tension sensor senses the force generated by the stretching and transmits it to related equipment.

[0043] Second, when the overall strength of the brocade needs to be tested, the motor A drives the transmission member to rotate, the transmission member drives the flip shaft to rotate, the flip shaft drives the annular frame A and the annular frame B to rotate, the annular frame A and the annular frame B flip to a position perpendicular to the pressing mechanism, the motor B drives the gear A to rotate, the gear A drives the connecting frame B to rotate through the gear B, the connecting frame B drives the adjusting disk A and the adjusting disk B to rotate, the adjusting disk B and the adjusting disk A drive their respective arc-shaped protrusions to rotate to a position that slides with the pulley;

[0044] The moving components on the annular frames A and B drive the detection components thereon to cooperate with the rotating component B. The equidistantly distributed clamping blocks can complete the equidistant clamping of the periphery of the brocade and unfold it. The telescopic part A drives the downward pressing ball to move downward and press the unfolded brocade by telescoping. In the process of the downward pressing ball pressing the brocade, the tension sensor quickly senses the force generated by the pressing and transmits it to related equipment.

[0045] Compared with the prior art, the present invention has the following beneficial effects:

[0046] The control mechanism can adjust the number of detection mechanisms by cooperating with the adjustment components and the detection frame, thereby changing the clamping points and the number of clamping points of the brocade by the detection mechanism. This can not only complete the clamping of the brocade in the direction of warp and weft, and facilitate the strength detection in the direction of warp and weft, but also complete the equidistant clamping of the brocade around it, and by cooperating with the pressing mechanism and the flipping mechanism, complete the strength detection of the brocade as a whole. This equidistant clamping method can not only make the constraint force on the brocade more comprehensive and uniform, better avoid local stress concentration during the test, ensure the accuracy of the test data, and make the measurement results more truly reflect the overall tensile strength of the brocade, but also improve the detection efficiency and quality of the device, providing a more reliable and efficient means for evaluating the quality of the brocade.

[0047] In order to more clearly illustrate the structural features and effects of the present invention, the present invention is described in detail below in conjunction with the accompanying drawings and specific embodiments. BRIEF DESCRIPTION OF THE DRAWINGS

[0048] Figure 1 A schematic structural diagram of a strength detection device for brocade production from a first perspective provided in an embodiment of the present invention.

[0049] Figure 2 A schematic structural diagram of a second viewing angle of a strength detection device for brocade production provided in an embodiment of the present invention.

[0050] Figure 3 A schematic structural diagram of a strength detection device for brocade production from a third viewing angle provided in an embodiment of the present invention.

[0051] Figure 4 for Figure 1 An enlarged view of the structure of the central detection frame, adjustment assembly, detection mechanism and control mechanism.

[0052] Figure 5 for Figure 4 Structural side view of the central detection frame, adjustment assembly, detection mechanism and control mechanism.

[0053] Figure 6 for Figure 4 Adjust the structural exploded view of the component.

[0054] Figure 7 for Figure 4 A magnified view of the structure of the detection mechanism.

[0055] Figure 8 for Figure 7 A magnified view of the structure in the middle.

[0056] Reference numerals: 100-bottom plate, 110-device frame, 200-turning mechanism, 210-motor A, 220-transmission member, 230-turning shaft, 300-pressing mechanism, 310-telescopic member A, 320-pressing ball, 400-detection frame, 410-annular frame A, 420-annular frame B, 500-adjusting assembly, 510-adjusting disk A, 520-adjusting disk B, 530-bolt, 540-arc-shaped protrusion, 600-detection mechanism, 610-moving assembly, 611-moving frame, 612-guide column, 613- Spring, 614-pulley, 615-guide groove, 620-detection component, 621-bidirectional screw, 622-driven gear, 623-clamping block, 624-biting part, 625-slide groove, 626-detection block, 627-groove, 628-telescopic part B, 700-control mechanism, 710-connecting frame A, 720-rotation component A, 721-motor B, 722-gear A, 723-gear B, 730-connecting frame B, 740-rotation component B, 741-motor C, 742-spindle, 743-driving gear. DETAILED DESCRIPTION

[0057] In order to make the purpose, technical solution and advantages of the present invention more clearly understood, the present invention is further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not intended to limit the present invention.

[0058] The specific implementation of the present invention is described in detail below in conjunction with specific embodiments.

[0059] like Figures 1 to 7 As shown, a strength detection device for brocade production provided as an embodiment of the present invention includes a bottom plate 100, a device frame 110 is fixed on the bottom plate 100, a detection frame 400 is arranged inside the device frame 110, the detection frame 400 is composed of an annular frame A410 and an annular frame B420, the annular frame A410 and the annular frame B420 are fixedly connected, the annular frame A410 is connected to a turning mechanism 200 installed on the device frame 110 and the bottom plate 100, a pressing mechanism 300 is installed on the device frame 110, and the pressing mechanism 300 is located directly above the detection frame 400, and further includes:

[0060] An adjustment assembly 500, the adjustment assembly 500 is composed of an adjustment disk A510, an adjustment disk B520 and a bolt 530, the adjustment disk A510 and the adjustment disk B520 are connected as a whole by the bolt 530, the adjustment disk A510 and the adjustment disk B520 are preferably an annular block structure, the connecting body of the adjustment disk A510 and the adjustment disk B520 is rotatably installed at the connection between the annular frame A410 and the annular frame B420, the inner sides of the adjustment disk A510 and the adjustment disk B520 are both distributed with arc-shaped protrusions 540, and the number of the arc-shaped protrusions 540 on the adjustment disk A510 is twice the number of the arc-shaped protrusions 540 on the adjustment disk B520;

[0061] The detection mechanism 600 includes a moving assembly 610 and a detection assembly 620. The moving assembly 610 is staggeredly installed on the annular frame A410 and the annular frame B420. The number of the moving assemblies 610 on the annular frame A410 and the annular frame B420 is the same. One end of the moving assembly 610 is respectively slidably matched with the arc-shaped protrusions 540 on the adjustment disk A510 and the adjustment disk B520. The other end of the moving assembly 610 is installed with the detection assembly 620, and the detection assembly 620 is installed with a tension sensor;

[0062] A control mechanism 700, the control mechanism 700 comprises a connecting frame A710, a rotating assembly A720, a connecting frame B730 and a rotating assembly B740, the connecting frame A710 is fixed to one side of the annular frame B420, one end of the connecting frame B730 is fixed to one side of the adjustment disk B520, the other end of the connecting frame B730 is rotatably mounted on the connecting frame A710, the rotating assembly A720 is mounted on the connecting frame A710, the output end of the rotating assembly A720 is connected to the other end of the connecting frame B730, and the connecting frame B730 is mounted with a rotating assembly B740 intermittently cooperating with the detection assembly 620;

[0063] When it is necessary to test the strength of the warp and weft directions on the brocade, the flipping mechanism 200 drives the testing frame 400 to flip to a position parallel to the pressing mechanism 300, the rotating assembly A720 drives the connecting frame B730 to rotate, the connecting frame B730 drives the adjusting disk B520 and the adjusting disk A510 to rotate synchronously, the adjusting disk B520 and the adjusting disk A510 drive their respective arc-shaped protrusions 540 to rotate, so that the arc-shaped protrusions 540 on the adjusting disk B520 rotate to a position where they do not slide with the moving assembly 610, and the arc-shaped protrusions 540 on the adjusting disk A510 rotate to a position where they do not slide with the moving assembly 610. The protrusion 540 rotates to a position where it slides with the moving component 610. The moving component 610 that slides with the arc-shaped protrusion 540 on the adjustment plate A510 drives the detection component 620 thereon to cooperate with the rotating component B740. The rotating component B740 drives the detection component 620 that cooperates with it to clamp the warp and weft directions of the brocade, so that the detection component 620 can quickly stretch the brocade in the warp and weft directions. The tension sensor senses the force generated by the stretching and transmits it to related equipment, thereby completing the detection of the strength of the brocade in the warp and weft directions.

[0064] When it is necessary to test the overall strength of the brocade, the flip mechanism 200 drives the detection frame 400 to flip to a position perpendicular to the pressing mechanism 300, the rotating assembly A720 drives the connecting frame B730 to rotate, the connecting frame B730 drives the adjustment disk B520 and the adjustment disk A510 to rotate synchronously, the adjustment disk B520 and the adjustment disk A510 drive their respective arc-shaped protrusions 540 to rotate to a position that slides with the moving assembly 610, so that the annular frame A410 and the moving assembly 610 on the annular frame B420 drive the detection assembly 620 thereon to cooperate with the rotating assembly B740, and the rotating assembly B740 drives the detection assembly 620 to perform a perimeter test on the brocade. The equidistant clamping allows the detection component 620 to quickly unfold the brocade, and the pressing mechanism 300 presses the unfolded brocade above it by telescoping. The tension sensor senses the force generated by the pressing and transmits it to related equipment, thereby completing the detection of the overall strength of the brocade. This equidistant clamping method can not only make the restraint force on the brocade more comprehensive and uniform, better avoid local stress concentration during the test, ensure the accuracy of the test data, and make the measurement results more truly reflect the overall tensile strength of the brocade, but also improve the detection efficiency and detection quality of the device, providing a more reliable and efficient means for evaluating the quality of the brocade.

[0065] like Figures 4 to 8As shown, as a preferred embodiment of the present invention, the moving assembly 610 includes a moving frame 611, a guide column 612, a spring 613, a pulley 614 and a guide groove 615. The moving frames 611 are equidistantly distributed on the inner sides of the adjustment disk A510 and the adjustment disk B520. Two adjacent moving frames 611 are slidably mounted on the annular frame A410 and the annular frame B420 through the guide columns 612. The guide columns 612 are sleeved with springs 613, and the springs 613 are respectively connected to the outer walls of the annular frame A410 and the annular frame B420. Pulleys 614 are installed on the moving frames 611. The pulleys 614 on the two adjacent moving frames 611 are respectively slidably matched with the arc-shaped protrusions 540 on the adjustment disk A510 and the adjustment disk B520, and a guide groove 615 for installing the detection assembly 620 is opened at one end of the moving frame 611.

[0066] In this embodiment, the rotating component A720 drives the connecting frame B730 to rotate, and the connecting frame B730 drives the adjusting disk B520 and the adjusting disk A510 to rotate synchronously. The adjusting disk B520 and the adjusting disk A510 drive their respective arc-shaped protrusions 540 to rotate. The spring 613 can drive the pulley 614 to intermittently slide to a position that cooperates with the arc-shaped protrusions 540 on the adjusting disk A510 and the adjusting disk B520 through its own elastic force and the cooperation with the movable frame 611 and the guide column 612. The pulley 614 can drive the detection component 620 on the movable frame 611 to intermittently move to a position that cooperates with the rotating component B740 through the cooperation of the spring 613 and the arc-shaped protrusion 540, so that the rotating component B740 can drive the detection component 620 that cooperates with it to clamp the brocade in the direction of longitude and latitude or equidistantly, which is convenient for the longitude and latitude direction or overall strength detection of the brocade, improves the detection efficiency and detection quality of the device, and provides a more reliable and efficient means for evaluating the quality of the brocade.

[0067] like Figures 4 to 8As shown in FIG. 1 , as a preferred embodiment of the present invention, the detection assembly 620 includes a bidirectional screw 621, a driven gear 622, a clamping block 623, a slide groove 625, a detection block 626, a groove 627 and a telescopic member B628. The bidirectional screw 621 is vertically slidably installed in the guide groove 615. Both ends of the bidirectional screw 621 are threadedly connected with the clamping block 623, and one end of the bidirectional screw 621 is fixed with a driven gear intermittently meshed with the rotating assembly B740. Wheel 622, one side of the two clamping blocks 623 is provided with a slide groove 625, the slide groove 625 is vertically slidably matched with the detection block 626, the detection block 626 is fixed on the output end of the telescopic member B628, and the telescopic member B628 is fixed on the movable frame 611, and one side of the detection block 626 is provided with a groove 627 for installing a tension sensor, and one end of the tension sensor protrudes out of the groove 627 and is slidably connected to the inner wall of the slide groove 625.

[0068] In this embodiment, when the driven gear 622 moves to the position where the rotating assembly B740 is engaged, the rotating assembly B740 drives the bidirectional screw 621 to rotate through the driven gear 622, and the bidirectional screw 621 drives the two clamping blocks 623 to move away from or towards each other on the detection block 626. The two clamping blocks 623 move away from each other so that the clamping end of the brocade can quickly enter between the two, and the two clamping blocks 623 can quickly clamp the brocade between the two by moving closer to each other.

[0069] After completing the clamping of the brocade, the telescopic part B628 can drive the two clamping blocks 623 to move by telescoping. The multiple clamping blocks 623 can not only stretch the brocade in the warp and weft directions, but also unfold the brocade to facilitate the pressing mechanism 300 to press it. During the stretching and pressing process of the brocade, the tension sensor can sense the action force between the clamping block 623 and the detection block 626 and transmit it to the corresponding equipment, thereby completing the detection of the warp and weft directions and the overall strength of the brocade. This can not only make the constraint force on the brocade more comprehensive and uniform, better avoid local stress concentration during the test, ensure the accuracy of the test data, and make the measurement results more truly reflect the overall tensile strength of the brocade, but also improve the detection efficiency and quality of the device, providing a more reliable and efficient means for evaluating the quality of the brocade.

[0070] In a preferred embodiment, the two clamping blocks 623 are provided with mutually matching bite parts 624 on their end faces close to each other, and the bite parts 624 can increase the connection strength between the brocade and the clamping blocks 623, avoid the brocade from loosening during the test, and further ensure the accuracy of the test data;

[0071] The telescopic member B628 is preferably an electric telescopic rod.

[0072] like Figures 1 to 6 As shown, as a preferred embodiment of the present invention, the rotating component A720 includes a motor B721, a gear A722 and a gear B723, the motor B721 is fixed on the connecting frame A710, a gear A722 is fixed on the output end of the motor B721, and the gear A722 is meshed with the gear B723 fixed on one end of the connecting frame B730.

[0073] In this embodiment, the motor B721 drives the gear A722 to rotate, and the gear A722 can drive the connecting frame B730 to rotate through the gear B723. The connecting frame B730 drives the adjustment disk A510 and the adjustment disk B520 to rotate, thereby changing the number of points at which the detection mechanism 600 clamps the brocade, so that the detection mechanism 600 can not only effectively clamp and detect the brocade in the direction of longitude and latitude, but also effectively unfold the brocade as a whole, making it convenient for the pressing mechanism 300 to press it, thereby completing the detection of the overall strength of the brocade and improving the detection efficiency and quality of the device.

[0074] In a preferred embodiment, the gear B723 is preferably a ring gear, and the gear teeth arranged on the ring gear are distributed on the outside of the ring structure.

[0075] like Figures 1 to 6 As shown, as a preferred embodiment of the present invention, the rotating assembly B740 includes a motor C741, a main shaft 742 and a driving gear 743. The motor C741 is fixed on the connecting frame B730. The main shaft 742 is fixed on the output end of the motor C741. The driving gear 743 is fixed on the main shaft 742. The driving gear 743 is intermittently meshed with the driven gear 622, and the driving gear 743, the detection frame 400, the adjustment disk A510 and the adjustment disk B520 are all concentric.

[0076] In this embodiment, the motor C741 drives the main shaft 742 to rotate, and the main shaft 742 drives the driven gear 622 meshing with it to rotate through the driving gear 743. The driven gear 622 drives the bidirectional screw 621 thereon to rotate, so that the two clamping blocks 623 screwed to the bidirectional screw 621 can complete the rapid clamping and rapid release of the brocade, and then quickly complete the detection of the brocade strength, thereby improving the detection efficiency and detection quality of the device.

[0077] like Figures 1 to 5As shown, as a preferred embodiment of the present invention, the flipping mechanism 200 includes a motor A210, a transmission member 220 and a flipping shaft 230, the motor A210 is fixed on the base plate 100, the transmission member 220 is installed on the output end of the motor A210, one end of the transmission member 220 is connected to one end of the flipping shaft 230 rotatably installed on the device frame 110, and the other end of the flipping shaft 230 is concentric with the annular frame A410 and fixedly connected.

[0078] In this embodiment, the motor A210 drives the transmission member 220 to rotate, the transmission member 220 drives the flip shaft 230 to rotate, and the flip shaft 230 drives the annular frame A410 and the annular frame B420 to rotate, so that the annular frame A410 and the annular frame B420 can be flipped to a position parallel or perpendicular to the pressing mechanism 300, which facilitates the detection mechanism 600 to quickly complete the detection of the brocade strength and improve the detection efficiency and detection quality of the device.

[0079] like Figures 1 to 3 As shown, as a preferred embodiment of the present invention, the pressing mechanism 300 includes a telescopic member A310 and a pressing ball 320, the telescopic member A310 is fixed on the top of the device frame 110, the pressing ball 320 is fixed on the output end of the telescopic member A310, and the pressing ball 320 is located directly above the detection frame 400.

[0080] In this embodiment, after the detection component 620 equidistantly clamps the brocade and unfolds it, the telescopic member A310 drives the downward pressing ball 320 to move downward and press the unfolded brocade by telescoping, so that when the downward pressing ball 320 presses the brocade, the tension sensor can quickly sense the force generated by the pressing and transmit it to related equipment, thereby completing the detection of the overall strength of the brocade.

[0081] In a preferred embodiment, the telescopic member A310 preferably adopts a hydraulic telescopic structure composed of a hydraulic telescopic cylinder and a telescopic rod, and other structures that meet the requirements may also be adopted.

[0082] A method for using the strength detection device for brocade production as described above comprises the following specific steps:

[0083] 1. When it is necessary to test the strength of the warp and weft directions of the brocade, the motor A210 drives the transmission member 220 to rotate, the transmission member 220 drives the flip shaft 230 to rotate, the flip shaft 230 drives the annular frame A410 and the annular frame B420 to rotate, so that the annular frame A410 and the annular frame B420 can be flipped to a position parallel to the pressing mechanism 300, the motor B721 drives the gear A722 to rotate, the gear A722 can drive the connecting frame B730 to rotate through the gear B723, and the connecting frame B730 drives the adjusting plate A510 and the adjusting plate B510 to rotate. 520 rotates, and the adjusting disk B520 and the adjusting disk A510 drive their respective arc-shaped protrusions 540 to rotate. The spring 613 can drive the pulley 614 to intermittently slide to the position that cooperates with the adjusting disk A510 and the arc-shaped protrusions 540 on the adjusting disk B520 through its own elastic force and the way of cooperating with the moving frame 611 and the guide column 612, so that the arc-shaped protrusion 540 on the adjusting disk B520 rotates to a position where it does not slide and cooperate with the pulley 614, and the arc-shaped protrusion 540 on the adjusting disk A510 rotates to a position where it slides and cooperates with the pulley 614;

[0084] The moving assembly 610 that is slidably matched with the arc-shaped protrusion 540 on the adjustment plate A510 drives the detection assembly 620 thereon to cooperate with the rotating assembly B740, the motor C741 drives the main shaft 742 to rotate, the main shaft 742 drives the driven gear 622 meshing therewith to rotate through the driving gear 743, the driven gear 622 drives the bidirectional screw 621 thereon to rotate, the bidirectional screw 621 drives the two clamping blocks 623 to move away from or towards each other on the detection block 626, the two clamping blocks 623 can move away from each other, so that the clamping end of the brocade can quickly enter between the two, and the two clamping blocks 623 can quickly clamp the brocade between the two by approaching each other;

[0085] After the clamping of the brocade is completed, the telescopic member B628 can drive the two clamping blocks 623 to move by telescoping, and the multiple clamping blocks 623 can stretch the brocade in the warp and weft directions by moving. The tension sensor senses the force generated by the stretching and transmits it to the relevant equipment, thereby completing the detection of the strength of the brocade in the warp and weft directions.

[0086] 2. When the overall strength of the brocade needs to be tested, the motor A210 drives the transmission member 220 to rotate, the transmission member 220 drives the flip shaft 230 to rotate, the flip shaft 230 drives the annular frame A410 and the annular frame B420 to rotate, so that the annular frame A410 and the annular frame B420 can be flipped to a position perpendicular to the pressing mechanism 300, the motor B721 drives the gear A722 to rotate, the gear A722 can drive the connecting frame B730 to rotate through the gear B723, the connecting frame B730 drives the adjusting disk A510 and the adjusting disk B520 to rotate, and the adjusting disk B520 and the adjusting disk A510 drive their respective arc-shaped protrusions 540 to rotate to a position that slides with the pulley 614;

[0087] The moving components 610 on the annular frame A410 and the annular frame B420 drive the detection components 620 thereon to cooperate with the rotating components B740, so that the equidistantly distributed clamping blocks 623 can complete the equidistant clamping of the periphery of the brocade and unfold it, and the telescopic part A310 drives the downward pressing ball 320 to move downward and press the unfolded brocade by telescoping, so that in the process of the downward pressing ball 320 pressing the brocade, the tension sensor can quickly sense the force generated by the pressing and transmit it to related equipment, thereby completing the detection of the overall strength of the brocade.

[0088] 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 in the protection scope of the present invention.

Claims

1. A strength detection device for brocade production, comprising a bottom plate, a device frame fixed on the bottom plate, a detection frame arranged inside the device frame, the detection frame consisting of a ring frame A and a ring frame B, the ring frame A and the ring frame B are fixedly connected, the ring frame A is connected to a turning mechanism installed on the device frame and the bottom plate, a pressing mechanism is installed on the device frame, and the pressing mechanism is located directly above the detection frame, characterized in that: Also includes: An adjustment assembly, the adjustment assembly is composed of an adjustment disk A, an adjustment disk B and bolts, the adjustment disk A and the adjustment disk B are connected as a whole by bolts, the adjustment disk A and the adjustment disk B both adopt an annular block structure, the connecting body of the adjustment disk A and the adjustment disk B is rotatably installed at the connection between the annular frame A and the annular frame B, the inner sides of the adjustment disk A and the adjustment disk B are both distributed with arc-shaped protrusions, and the number of arc-shaped protrusions on the adjustment disk A is twice the number of arc-shaped protrusions on the adjustment disk B; A detection mechanism, wherein the detection mechanism comprises a moving assembly and a detection assembly, wherein the moving assemblies are staggeredly mounted on the annular frame A and the annular frame B, wherein the number of the moving assemblies on the annular frame A and the annular frame B is the same, wherein one end of the moving assembly is respectively slidably matched with the arc-shaped protrusions on the adjustment disk A and the adjustment disk B, and the other end of the moving assembly is mounted with a detection assembly, and a tension sensor is mounted on the detection assembly; A control mechanism, the control mechanism comprising a connecting frame A, a rotating assembly A, a connecting frame B and a rotating assembly B, the connecting frame A is fixed to one side of the annular frame B, one end of the connecting frame B is fixed to one side of the adjusting disk B, the other end of the connecting frame B is rotatably mounted on the connecting frame A, the rotating assembly A is mounted on the connecting frame A, the output end of the rotating assembly A is connected to the other end of the connecting frame B, and the rotating assembly B intermittently matched with the detection assembly is mounted on the connecting frame B; The mobile assembly comprises: The movable frames are evenly distributed inside the adjustment disk A and the adjustment disk B, and the two adjacent movable frames are respectively slidably mounted on the annular frame A and the annular frame B through guide pillars, and a guide groove for installing the detection component is opened at one end of the movable frame; A spring sleeved on the outside of the guide pillar, wherein the spring is connected to the outer wall of the annular frame A and the annular frame B respectively; and The pulleys installed on the moving frame, the pulleys on the two adjacent moving frames are respectively slidably matched with the arc-shaped protrusions on the adjusting plate A and the adjusting plate B; The detection component comprises: A bidirectional screw rod vertically slidably mounted in the guide groove; A driven gear fixed to one end of the bidirectional screw, the driven gear being intermittently meshed with the rotating assembly B; Two clamping blocks are respectively connected to the two ends of the bidirectional screw by threads, and a slide groove is provided on one side of the two clamping blocks. The end surfaces of the two clamping blocks close to each other are provided with mutually matching bite parts, and the bite parts are used to increase the connection strength between the brocade and the clamping blocks; A detection block vertically slidably matched with the slide slot, wherein one side of the detection block is provided with a groove for installing a tension sensor, and one end of the tension sensor protrudes out of the groove and is slidably connected with the inner wall of the slide slot; and A telescopic member B fixed on the mobile frame, wherein the output end of the telescopic member B is fixedly connected to the detection block; The rotating assembly B comprises: A motor C fixed on a connecting frame B; a main shaft fixed to the output end of the motor C; and A driving gear fixed on the main shaft, the driving gear is intermittently meshed with the driven gear, and the driving gear, the detection frame, the adjustment plate A and the adjustment plate B are all concentric; The flipping mechanism comprises: Motor A fixed on the base plate; A transmission member mounted on the output end of the motor A; and A flip shaft is rotatably mounted on the device frame, one end of the flip shaft is connected to one end of the transmission member, and the other end of the flip shaft is concentrically and fixedly connected to the annular frame A.

2. The strength detection device for brocade production according to claim 1 is characterized in that: The rotating assembly A comprises: Motor B fixed on connecting frame A; Gear A fixed to the output end of motor B; and A gear B is fixed on one end of a connecting frame B, and the gear B is meshed with the gear A.

3. The strength detection device for brocade production according to claim 2, characterized in that: The pressing mechanism comprises: A telescopic member A fixed to the top of the device frame; and A downward pressing ball fixed on the output end of the telescopic member A is located directly above the detection frame.

4. A method for using the brocade production strength detection device as claimed in claim 3, characterized in that: The specific steps are as follows:

1. When it is necessary to test the strength of the longitude and latitude directions on the brocade, the motor A drives the transmission member to rotate, the transmission member drives the flip shaft to rotate, the flip shaft drives the annular frame A and the annular frame B to rotate, the annular frame A and the annular frame B flip to a position parallel to the pressing mechanism, the motor B drives the gear A to rotate, the gear A drives the connecting frame B to rotate through the gear B, the connecting frame B drives the adjusting disk A and the adjusting disk B to rotate, the adjusting disk B and the adjusting disk A drive their respective arc-shaped protrusions to rotate, the spring drives the pulley to intermittently slide to a position that cooperates with the arc-shaped protrusions on the adjusting disk A and the adjusting disk B through its own elastic force and in cooperation with the moving frame and the guide column, the arc-shaped protrusion on the adjusting disk B rotates to a position that does not slide with the pulley, and the arc-shaped protrusion on the adjusting disk A rotates to a position that slides with the pulley; The moving component that slides with the arc-shaped protrusion on the adjustment plate A drives the detection component thereon to cooperate with the rotating component B, the motor C drives the main shaft to rotate, the main shaft drives the driven gear meshing with it to rotate through the driving gear, the driven gear drives the bidirectional screw thereon to rotate, the bidirectional screw drives the two clamping blocks on the detection block to move away from and towards each other, the two clamping blocks move away from each other to allow the clamping end of the brocade to quickly enter between the two, and the two clamping blocks quickly clamp the brocade between the two by moving closer to each other; After the brocade is clamped, the telescopic member B drives the two clamping blocks to move by telescoping, and the multiple clamping blocks stretch the brocade in the warp and weft directions by moving. The tension sensor senses the force generated by the stretching and transmits it to related equipment. Second, when the overall strength of the brocade needs to be tested, the motor A drives the transmission member to rotate, the transmission member drives the flip shaft to rotate, the flip shaft drives the annular frame A and the annular frame B to rotate, the annular frame A and the annular frame B flip to a position perpendicular to the pressing mechanism, the motor B drives the gear A to rotate, the gear A drives the connecting frame B to rotate through the gear B, the connecting frame B drives the adjusting disk A and the adjusting disk B to rotate, the adjusting disk B and the adjusting disk A drive their respective arc-shaped protrusions to rotate to a position that slides with the pulley; The moving components on the ring frames A and B drive the detection components thereon to cooperate with the rotating component B. The equidistantly distributed clamping blocks complete the equidistant clamping of the periphery of the brocade and unfold it. The telescopic part A drives the downward pressing ball to move downward and press the unfolded brocade by telescoping. In the process of the downward pressing ball pressing the brocade, the tension sensor quickly senses the force generated by the pressing and transmits it to related equipment.

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