Bright yarn dance footwear production device
By designing a bright silk dance shoe and sock production device that includes measurement, unloading and recording components, the problems of poor reference of friction measurement data and high equipment cost in the prior art are solved, and a more accurate and efficient friction performance evaluation is achieved.
Patent Information
- Application Number
- CN202510134358.1
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-02-07
- Publication Date
- 2025-04-22
- Estimated Expiration
- Not applicable · inactive patent
AI Technical Summary
The prior art usually uses the same floor material when measuring the friction of bright silk dance shoes and socks, resulting in poor reference of data, and the measurement of multiple materials requires increasing equipment and increasing costs.
A bright silk dance shoe sock production device is designed, including a measuring assembly, a cutting assembly and a recording assembly. The measurement assembly drives multiple friction panels to rub with the shoe socks in turn through the sliding frame and the conveyor belt. The cutting assembly realizes automatic disassembly and replacement of the shoe socks. The recording assembly is used to record and analyze frictional force data.
The referenceability of friction measurement results is improved. Through the rotational measurement of multiple friction panels, the friction performance of shoes and socks can be more accurately evaluated, reducing operating steps, improving production efficiency, and reducing equipment costs.
Smart Images
Figure CN119861035A_ABST
Abstract
Description
Technical Field
[0001] The invention relates to the technical field of friction force measuring devices, and in particular to a production device for bright silk dance shoes and socks. Background Art
[0002] Bright silk dance shoes and socks are made of bright silk material or added with sequins, rhinestones and other decorations. They can reflect bright light under stage lights, making dancers the focus of the stage. For example, the men's bright silk model of Chuang Jingyi's modern dance shoes can show unique charm when dancing. Because bright silk dance shoes and socks need to be used for dance performances on stage, the friction performance of bright silk dance shoes and socks on the stage is particularly important. Weak friction performance may cause dancers to slip, while excessive friction performance may make it inconvenient for dancers to perform movements such as turning and sliding that require friction of the feet on the stage. Therefore, in the production process of bright silk dance shoes and socks, the friction between the bright silk dance shoes and socks and the bottom material needs to be measured to evaluate the friction performance of the bright silk dance shoes and socks.
[0003] However, the prior art has the following problems: In the prior art, when measuring the friction of shiny silk dance shoes and socks, the same floor material is usually used for testing. Due to the diverse usage scenarios of shiny silk dance shoes and socks, the data obtained by measuring the friction using the same material is not very reliable, and using multiple materials for measurement requires adding incremental equipment, which increases costs. Summary of the invention
[0004] The purpose of the present invention is to provide a device for producing shiny silk dance shoes and socks in order to solve the above-mentioned problems and overcome the defects of the prior art, as described in detail below.
[0005] To achieve the above object, the present invention provides the following technical solutions: The present invention provides a device for producing bright silk dance shoes and socks, comprising an operating table, a mounting seat and an outer cover are installed on the operating table, a part of the mounting seat is located in the outer cover, and a cylinder is installed on the outer cover; it also includes a measuring component for measuring the friction of shoes and socks; a material removal component for assisting in disassembling the measured shoes and socks; a recording component for recording measurement data; the measuring component comprises two inner shafts, both of which are installed on the mounting seat, the outer wall of the inner shaft is rotatably connected to the outer shaft, the outer walls of the two outer shafts are sleeved with a conveyor belt, and the conveyor belt Sawtooth bars are respectively connected to the two sides, the outer wall of the conveyor belt is connected to a plurality of friction panels, the mounting seat is slidably connected to a sliding frame, the inner wall of the sliding frame is connected to a mounting frame, the inner wall of the mounting frame is slidably connected to a slider, a support block is inserted on the slider, a hollow column is connected to the sliding frame, the inner wall of the hollow column is slidably connected to a sliding rod, a tension spring is connected between the sliding rod and the inner wall of the hollow column, two pull rods are connected between the sliding rod and the output end of the cylinder, a pointer is connected to the sliding rod, and scale lines are provided on the outer wall of the hollow column.
[0006] Preferably, ratchets are respectively provided on the inner walls at both ends of the outer shaft, and pawls are respectively provided on the inner walls at both ends of the inner shaft, the two pawls of the inner shaft are engaged with the two ratchets of the outer shaft, the bottom of the mounting frame is connected to two columns, the bottom ends of the columns are hinged with buckle rods, and a trapezoidal block is provided at the end of the buckle rod away from the column, and the trapezoidal blocks of the two buckle rods are respectively in contact with two serrated bars.
[0007] Preferably, a spring telescopic rod is slidably installed on the top of the sliding frame, the telescopic end of the spring telescopic rod is connected to the sliding block, a threaded groove is provided on the outer wall of the fixed end of the spring telescopic rod, a nut seat is rotatably installed on the top of the sliding frame through a bracket, the nut seat is threadedly connected to the threaded groove of the spring telescopic rod, the top of the nut seat is connected to a rotating frame, and a handle is provided on the rotating frame.
[0008] Preferably, a long rod is connected to the mounting seat, a brush strip is connected to the bottom of the long rod, the long rod is located inside the outer cover, the multiple friction panels contact the brush strip in sequence during movement, and two spring plates are connected to the bottom of the long rod, and the two spring plates contact two serrated strips respectively.
[0009] Preferably, the unloading assembly includes two pry bars, which are rotatably mounted on a mounting seat, and are located on the right side of the conveyor belt. A connecting rod is connected between the two pry bars, and a push plate is connected to the connecting rod. Two protrusions are connected to the conveyor belt, and the two protrusions are located between two friction panels. The two protrusions contact the bottom ends of the two pry bars respectively during movement, and the push plate contacts the support block during movement.
[0010] Preferably, the recording assembly includes a mounting box, a central shaft is rotatably mounted in the mounting box, a recording paper is wound around the outer wall of the central shaft, a long slot is formed in the top of the mounting box, the recording paper penetrates through the long slot of the mounting box, a recording pen is connected to the sliding rod, and the recording pen is in contact with the recording paper.
[0011] Preferably, a guiding roller and a rotating shaft are rotatably mounted in the mounting box, a friction roller is connected to the outer wall of the rotating shaft, the friction roller and the guiding roller are respectively in contact with two sides of the recording paper, one end of the rotating shaft close to the sliding frame penetrates through the mounting box, a triangular wheel is connected to one end of the rotating shaft close to the sliding frame, a resilient sliding seat is slidably connected to the outer wall of the mounting box close to the sliding frame, a reset spring is arranged between the resilient sliding seat and the mounting box, a C-shaped frame is connected to the resilient sliding seat, rollers are respectively connected to two ends of the C-shaped frame, an arc-shaped plate is connected to the top of the C-shaped frame, a shifting shaft is connected to the sliding rod, and the shifting shaft is in sliding contact with the arc-shaped plate during movement.
[0012] Preferably, the two rollers are respectively located above and below the triangular wheel, the two rollers are both in contact with the outer wall of the triangular wheel, the outer wall of the triangular wheel is provided with three arc-shaped convex surfaces, an arc-shaped concave surface is arranged between two adjacent arc-shaped convex surfaces of the triangular wheel, and a notch is arranged at the arc-shaped end of the triangular wheel.
[0013] Preferably, a connecting block is slidably connected to the top surface of the mounting box, a supporting plate is connected to the connecting block, the supporting plate is in contact with the side of the recording paper away from the recording pen, a sliding shaft is connected to the connecting block, a chute rod is connected to the top surface of the resilient sliding seat, an inclined chute is arranged on the chute rod, and the inclined chute of the chute rod is slidably connected to the sliding shaft.
[0014] The beneficial effects are as follows: 1. For this bright silk dance shoes and socks production device, through the setting of the measuring assembly, every time the sliding frame makes a left-right reciprocating movement, a friction force measurement can be carried out, and at the same time, multiple friction panels can be driven to switch, so that multiple friction panels take turns to rub against the shoes and socks, thereby measuring the friction forces between the shoes and socks and multiple different friction panels. By comprehensively analyzing multiple friction force data, the referenceability of the friction force measurement result is improved; through the setting of the rotating frame, the staff can adjust the pressure value generated by the shoes and socks on the friction panel by rotating the rotating frame, which is convenient for adjusting different pressure values for different products according to actual needs; through the setting of the brush strip, when the multiple friction panels are switched, the brush strip cleans the friction panels in a vibrating contact manner in turn, avoiding the influence of dust adhering to the surface of the friction panel on the accuracy of the friction force data.
[0015] 2. The bright silk dance shoes and socks production device, through the setting of the unloading component, enables the push plate to automatically push the shoes and socks and the support block to the left after the shoes and socks complete a cycle of friction force measurement, so that the support block is disconnected from the slider, which is convenient for the staff to replace the shoes and socks and improves the convenience of operation.
[0016] 3. The bright silk dance shoes and socks production device, through the setting of the recording component, enables the recording pen to record the friction measurement data on the recording paper, which is convenient for the staff to observe. After each friction measurement, the friction roller drives the recording paper to move upward a certain distance by rotation, so that the recording pen can record in segments, and each measurement data is recorded separately to improve the clarity of the recording traces; through the setting of the support plate, the support plate can support the back side of the recording paper when the recording pen is recording, thereby improving the fit between the recording pen and the recording paper. When the recording paper moves upward, the support plate can move backward to avoid affecting the upward movement of the recording paper. BRIEF DESCRIPTION OF THE DRAWINGS
[0017] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.
[0018] Figure 1 It is a schematic diagram of the appearance of the present invention; Figure 2 It is a schematic diagram of the overall structure of the present invention; Figure 3 It is a schematic diagram of the structure of the measuring component of the present invention; Figure 4 It is a schematic diagram of the structure of the sliding frame of the present invention; Figure 5 It is a schematic diagram of the support block structure of the present invention; Figure 6 It is a schematic diagram of the structure of the spring telescopic rod of the present invention; Figure 7 It is a schematic diagram of the hollow column structure of the present invention; Figure 8 It is a schematic diagram of the long rod structure of the present invention; Fig. 9 It is a schematic structural diagram of a blanking assembly of the present invention; Fig.10 It is a schematic diagram of the structure of the recording component of the present invention; Fig.11 It is a schematic diagram of the structure of the installation box of the present invention; Fig.12 It is a schematic diagram of the structure of the mold frame of the present invention; Fig.13 It is a schematic diagram of the triangular wheel structure of the present invention.
[0019] The reference numerals are as follows: 1. operating table; 2. mounting base; 3. outer cover; 4. cylinder; 5. measuring assembly; 51. inner shaft; 52. outer shaft; 53. conveyor belt; 54. sawtooth bar; 55. friction panel; 56. sliding frame; 57. mounting frame; 58. column; 59. buckle rod; 510. slider; 511. support block; 512. spring telescopic rod; 513. nut seat; 514. rotating frame; 515. hollow column; 516. tension spring; 517. sliding rod; 518. pull rod; 519. pointer; 520 , long rod; 521, brush strip; 522, spring piece; 6, blanking assembly; 61, bump; 62, pry bar; 63, connecting rod; 64, push plate; 7, recording assembly; 71, installation box; 72, middle axis; 73, recording paper; 74, recording pen; 75, guide roller; 76, rotating shaft; 77, friction roller; 78, triangular wheel; 79, rebound slide; 710, profile frame; 711, roller; 712, arc plate; 713, dial shaft; 714, connecting block; 715, support plate; 716, sliding shaft; 717, slide groove rod. DETAILED DESCRIPTION
[0020] To make the purpose, technical solution and advantages of the present invention clearer, the technical solution of the present invention will be described in detail below. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other implementation methods obtained by ordinary technicians in this field without making creative work belong to the scope of protection of the present invention.
[0021] Example 1: Please refer to Figure 1 - Figure 8A device for producing bright silk dance shoes and socks comprises an operating table 1, on which a mounting seat 2 and an outer cover 3 are mounted, a part of the mounting seat 2 is located inside the outer cover 3, and a cylinder 4 is mounted on the outer cover 3; it also comprises a measuring assembly 5 for measuring the friction of shoes and socks; the measuring assembly 5 comprises two inner shafts 51, both of which are mounted on the mounting seat 2, the outer wall of the inner shaft 51 is rotatably connected with an outer shaft 52, the outer walls of the two outer shafts 52 are sleeved with a conveyor belt 53, the two sides of the conveyor belt 53 are respectively connected with sawtooth strips 54, the outer wall of the conveyor belt 53 is connected with a plurality of friction panels 55, and the plurality of friction panels 55 are made of different materials, a sliding frame 56 is slidably connected to the mounting seat 2, the inner wall of the sliding frame 56 is connected with a mounting frame 57, the inner wall of the mounting frame 57 is slidably connected with a slider 510, a support block 511 is inserted on the slider 510, and a hollow column 51 is connected to the sliding frame 56 5. The inner wall of the hollow column 515 is slidably connected with a slide bar 517. A tension spring 516 is connected between the slide bar 517 and the inner wall of the hollow column 515. Two pull rods 518 are connected between the slide bar 517 and the output end of the cylinder 4. The cylinder 4 contracts to the left, so that the output end of the cylinder 4 pulls the slide bar 517 to the left through the two pull rods 518. The slide bar 517 pulls the tension spring 516 to extend the tension spring 516. When the tension spring 516 stops extending, the slide bar 517 pulls the hollow column 515 to the left through the tension spring 516. A pointer 519 is connected to the slide bar 517. The outer wall of the hollow column 515 is provided with scale lines. When the slide bar 517 moves, it drives the pointer 519 to move synchronously. After the pointer 519 is displaced, it moves to the corresponding scale line. The staff judges the magnitude of the friction force by the data of the scale line where the pointer 519 is located, thereby achieving the effect of measuring the friction force. Ratchets are respectively provided on the inner walls at both ends of the outer shaft 52, and pawls are respectively provided on the inner walls at both ends of the inner shaft 51. The two pawls of the inner shaft 51 mesh with the two ratchets of the outer shaft 52. Due to the cooperation of the ratchet and pawl mechanisms on the two outer shafts 52 and the two inner shafts 51, the outer shaft 52 can only rotate clockwise on the two inner shafts 51 but not counterclockwise, so that the conveyor belt 53 and the multiple friction panels 55 above it can only rotate clockwise, so the friction panel 55 can only move to the right. The bottom of the mounting frame 57 is connected to two columns 58, and the bottom end of the column 58 is hinged with a buckle rod 59. A trapezoidal block is provided at one end of the buckle rod 59 away from the column 58. The trapezoidal blocks of the two buckle rods 59 are in contact with the two sawtooth bars 54 respectively. When the two buckle rods 59 move to the right When the conveyor belt 53 is moved, the two trapezoidal blocks buckle the inclined teeth of the two sawtooth bars 54, so that when the two buckle rods 59 move to the right, they can drive the conveyor belt 53 to rotate to the right by buckling the two sawtooth bars 54, so that the multiple friction panels 55 on the conveyor belt 53 rotate to the right, so that the friction panel 55 that has just rubbed against the shoes and socks moves to the bottom of the conveyor belt 53 along with the conveyor belt 53, and the other friction panel 55 moves to the left of the sliding frame 56. Each time the sliding frame 56 reciprocates left and right, it can measure the friction force once, and at the same time, it can drive the multiple friction panels 55 to switch, so that the multiple friction panels 55 rub against the shoes and socks in turn, thereby measuring the friction between the shoes and socks and multiple different friction panels 55 to evaluate their friction performance; The top of the sliding frame 56 is slidably installed with a spring telescopic rod 512, the telescopic end of the spring telescopic rod 512 is connected to the sliding block 510, and the outer wall of the fixed end of the spring telescopic rod 512 is provided with a threaded groove. The top of the sliding frame 56 is rotatably installed with a nut seat 513 through a bracket, and the nut seat 513 is threadedly connected to the threaded groove of the spring telescopic rod 512. The top of the nut seat 513 is connected with a rotating frame 514, and a handle is provided on the rotating frame 514. The rotating frame 514 is rotated by the handle, and the rotating frame 514 drives the nut seat 513 to rotate. When the nut seat 513 rotates, the spring telescopic rod 512 is driven to move upward or downward through the threaded groove on the spring telescopic rod 512, so that the pressure generated by the shoes and socks on the friction panel 55 can be adjusted by rotating the rotating frame 514, which is convenient for the staff to adjust the pressure value applied by the shoes and socks to the friction panel 55 according to the use requirements when testing different shoes and socks; A long rod 520 is connected to the mounting seat 2, and a brush strip 521 is connected to the bottom of the long rod 520. The long rod 520 is located inside the outer cover 3. The multiple friction panels 55 contact the brush strip 521 in sequence when moving. Two spring pieces 522 are connected to the bottom of the long rod 520. The two spring pieces 522 contact the two sawtooth strips 54 respectively. The brush strip 521 can clean the surface of the friction panel 55 to prevent dust from adhering to the surface of the friction panel 55 and affecting the accuracy of friction force measurement. The two sawtooth strips 54 drive the two spring pieces 522 to vibrate respectively when moving. The two spring pieces 522 transmit the vibration to the long rod 520, and the long rod 520 drives the brush strip 521 to vibrate. The brush strip 521 further promotes the cleaning effect through vibration. By setting up the measuring component 5, the friction force can be measured every time the sliding frame 56 makes a left and right reciprocating motion. At the same time, it can also drive multiple friction panels 55 to switch, so that multiple friction panels 55 rub against shoes and socks in turn, thereby measuring the friction between shoes and socks and multiple different friction panels 55, and comprehensively analyzing multiple friction force data to improve the reference value of the friction force measurement results; by setting up the rotating frame 514, the staff can adjust the pressure value generated by the shoes and socks on the friction panel 55 by rotating the rotating frame 514, so as to adjust different pressure values for different products according to actual needs; by setting up the brush strip 521, the brush strip 521 can clean the friction panels 55 in turn by vibration contact when multiple friction panels 55 are switched, so as to avoid dust adhering to the surface of the friction panel 55 and affecting the accuracy of the friction force data.
[0022] For further information, see Figure 1 , Fig. 9, a material disassembly component 6 is used to assist in disassembling the measured shoes and socks. The material disassembly component 6 includes two pry bars 62, which are rotatably mounted on the mounting seat 2. The two pry bars 62 are located on the right side of the conveyor belt 53. A connecting rod 63 is connected between the two pry bars 62, and a push plate 64 is connected to the connecting rod 63. Two protrusions 61 are connected to the conveyor belt 53, and the two protrusions 61 are located between two friction panels 55. The two protrusions 61 contact the bottom ends of the two pry bars 62 respectively during the movement. During the period from the contact of the protrusion 61 with the pry bar 62 to the next contact with the pry bar 62, the conveyor belt 53 rotates a full circle, and multiple friction panels 55 take turns to complete the friction measurement with the shoes and socks. One cycle of friction After the friction measurement is completed, when the two protrusions 61 contact the bottom ends of the two pry bars 62, the two protrusions 61 push the two pry bars 62 to the left, and the push plate 64 contacts the support block 511 during the movement. The two pry bars 62 use the lever principle to drive the push plate 64 to move to the left through the connecting rod 63. When the push plate 64 moves to the left, it pushes the shoe and the support block 511 to the left, so that the shoe and the support block 511 are separated from the slider 510, thereby achieving the effect of disassembling the shoe; through the setting of the blanking component 6, after the shoe completes a cycle of friction measurement, the push plate 64 can automatically push the shoe and the support block 511 to the left, so that the support block 511 is separated from the connection with the slider 510, which is convenient for the staff to replace the shoe and the support block 511, thereby improving the convenience of operation.
[0023] Further, see Figure 1 , Fig.10 - Fig.13 The recording component 7 is used to record the measurement data. The recording component 7 includes a mounting box 71. A central axis 72 is rotatably mounted in the mounting box 71. A recording paper 73 is wound around the outer wall of the central axis 72. A long slot is provided on the top of the mounting box 71. The recording paper 73 passes through the long slot of the mounting box 71. A recording pen 74 is connected to the slide bar 517. The recording pen 74 contacts the recording paper 73. When the slide bar 517 slides to the left on the hollow column 515, it drives the recording pen 74 to move to the left. The recording pen 74 records the movement length of the slide bar 517 on the recording paper 73 in the mounting box 71. The recording paper 73 is provided with scales. The staff can obtain the friction value by observing the handwriting and the scales. A guide roller 75 and a rotating shaft 76 are rotatably installed in the installation box 71. The outer wall of the rotating shaft 76 is connected to a friction roller 77. The friction roller 77 and the guide roller 75 are in contact with the two sides of the recording paper 73 respectively. The end of the rotating shaft 76 close to the sliding frame 56 passes through the installation box 71. The end of the rotating shaft 76 close to the sliding frame 56 is connected to a triangular wheel 78. When the triangular wheel 78 rotates, the friction roller 77 is driven to rotate through the rotating shaft 76. Since the friction roller 77 and the guide roller 75 sandwich the recording paper 73, the friction roller 77 and the recording paper 73 are There is a large friction force between them, so that when the friction roller 77 rotates, it can drive the recording paper 73 to move upward for a distance. The outer wall of the installation box 71 close to the sliding frame 56 is slidably connected with a rebound slide 79. A return spring is arranged between the rebound slide 79 and the installation box 71. A molded frame 710 is connected to the rebound slide 79. Between two friction force measurements, the molded frame 710 can move up and down once. The two ends of the molded frame 710 are respectively connected to rollers 711. The two rollers 711 are respectively located at three Above and below the angle wheel 78, the two rollers 711 are in contact with the outer wall of the triangular wheel 78. The outer wall of the triangular wheel 78 is set as three arc-shaped convex surfaces. An arc-shaped concave surface is set between two adjacent arc-shaped convex surfaces of the triangular wheel 78. The arc-shaped end of the triangular wheel 78 is provided with a notch. When the two rollers 711 move, they slide along the outer wall of the triangular wheel 78. The notch on the arc-shaped convex surface of the triangular wheel 78 is located at the center of the arc-shaped convex surface. After the roller 711 slides to the notch of the arc-shaped convex surface, the roller 711 is blocked by the notch. 1 can only continue to slide in the same direction as before, so that the two rollers 711 can drive the triangular wheel 78 to rotate a certain angle during the reciprocating motion, and the rotation direction of the triangular wheel 78 remains unchanged. The top of the shaped frame 710 is connected to an arc plate 712, and the slide bar 517 is connected to a shift shaft 713. The shift shaft 713 is in sliding contact with the arc plate 712 during movement. When the slide bar 517 is about to move to the right to the initial position, the shift shaft 713 on the slide bar 517 contacts the arc plate 712 and drives the arc plate 712 to move downward; The top surface of the mounting box 71 is slidably connected with a connecting block 714, and a supporting plate 715 is connected to the connecting block 714. The supporting plate 715 contacts the side of the recording paper 73 away from the recording pen 74, and the connecting block 714 is connected to a sliding shaft 716. The top surface of the rebound slide seat 79 is connected with a sliding groove rod 717, and an inclined sliding groove is provided on the sliding groove rod 717. The inclined sliding groove of the sliding groove rod 717 is slidably connected to the sliding shaft 716. When the sliding groove rod 717 moves downward, the sliding shaft 716 is driven to move backward through the inclined sliding groove. When the sliding groove rod 717 moves upward, the sliding shaft 716 is driven to move forward through the inclined sliding groove. When the supporting plate 715 is located in the front, it can support the rear side of the recording paper 73, which is convenient for the recording pen 74 to record on the recording paper 73. When the recording paper 73 moves upward, the supporting plate 715 moves backward so that the supporting plate 715 does not affect the upward movement of the recording paper 73. By setting the recording component 7, the recording pen 74 can record the measurement data of the friction force on the recording paper 73, which is convenient for the staff to observe. After each friction force measurement, the friction roller 77 drives the recording paper 73 to move upward a certain distance by rotation, so that the recording pen 74 can record in segments, and each measurement data is recorded separately to improve the clarity of the recording traces; by setting the support plate 715, when the recording pen 74 is recording, the support plate 715 can support the back side of the recording paper 73, so as to improve the fit between the recording pen 74 and the recording paper 73, and when the recording paper 73 moves upward, the support plate 715 can move backward to avoid affecting the upward movement of the recording paper 73.
[0024] With the above structure, the working principle of this case is that the support block 511 can be disassembled by sliding to the left, and the shoes and socks to be tested are put on the support block 511, and the support block 511 is slid to the right and installed on the slider 510, and the cylinder 4 is started, and the cylinder 4 contracts to the left, so that the output end of the cylinder 4 pulls the slide bar 517 to the left through the two pull rods 518, and the slide bar 517 pulls the tension spring 516 to extend the tension spring 516. When the tension spring 516 stops extending, the slide bar 517 pulls the hollow column 515 to the left through the tension spring 516, and the hollow column 515 drives the sliding frame 56 and the mounting frame 57 above it to slide to the left on the mounting seat 2, and the mounting frame 57 drives the slider 510 and the support block 511 to slide to the left, and the support block 511 drives the shoes and socks to slide to the left. The cooperation of the ratchet and pawl mechanism on the upper part of the outer shaft 52 makes the outer shaft 52 only rotate clockwise on the two inner shafts 51 but not counterclockwise, so that the conveyor belt 53 and the multiple friction panels 55 above it can only rotate clockwise. Therefore, the friction panel 55 can only move to the right. When the shoes and socks move to the left, they rub against one of the friction panels 55. According to the different friction forces, the distance that the slide bar 517 is stretched by the tension spring 516 is also different. Therefore, the distance that the slide bar 517 moves on the hollow column 515 is proportional to the friction force between the shoes and socks and the friction panel 55. When the slide bar 517 moves, it drives the pointer 519 to move synchronously. After the pointer 519 is displaced, it moves to the corresponding scale line. The staff judges the magnitude of the friction force through the data of the scale line where the pointer 519 is located, thereby achieving the effect of measuring the friction force.When the movement distance of the mounting frame 57 is the same as the length of the friction panel 55, that is, after the shoes and socks have completely slid over the top surface of the friction panel 55, the cylinder 4 stops contracting and starts to extend. By installing sensors on the bottom of the mounting frame 57 and the friction panel 55, the cylinder 4 is controlled so that the distance of each movement of the mounting frame 57 is equal to the distance of the friction panel 55. After the cylinder 4 extends, the two pull rods 518 drive the slide bar 517 to move right and reset. The slide bar 517 compresses the tension spring 516 and drives the hollow column 515 to move right. The hollow column 515 drives the sliding frame 56, the mounting frame 57, the slider 510 and the support block 511 to move right and reset. When the mounting frame 57 moves, the two columns 58 drives the two buckle rods 59 to move synchronously. When the two buckle rods 59 move to the left, the two trapezoidal blocks slide along the inclined teeth on the two sawtooth bars 54. When the two buckle rods 59 move to the right, the two trapezoidal blocks buckle the inclined teeth of the two sawtooth bars 54, so that when the two buckle rods 59 move to the right, they can drive the conveyor belt 53 to rotate to the right by buckling the two sawtooth bars 54, so that the multiple friction panels 55 on the conveyor belt 53 rotate to the right, so that the friction panel 55 that has just rubbed against the shoes and socks moves with the conveyor belt 53 to the bottom of the conveyor belt 53, and the other friction panel 55 moves to the left of the sliding frame 56. The cylinder 4 contracts again and repeats the above movement. The shoes and socks are rubbed against the other friction panel 55. 5 for friction measurement. Each time the sliding frame 56 performs a left-right reciprocating motion, a friction measurement can be performed. At the same time, the sliding frame 56 can also drive the multiple friction panels 55 to switch, so that the multiple friction panels 55 rub against the shoes and socks in turn. The multiple friction panels 55 are made of different materials, so as to measure the friction between the shoes and socks and the multiple different friction panels 55 to evaluate their friction performance; the staff rotates the rotating frame 514 by the handle, and the rotating frame 514 drives the nut seat 513 to rotate. When the nut seat 513 rotates, the spring telescopic rod 512 is driven to move upward or downward through the thread groove on the spring telescopic rod 512. When the spring telescopic rod 512 moves downward, the spring telescopic rod 512 moves downward. The telescopic end of the spring telescopic rod 512 contracts, so that the elastic force applied by the telescopic end of the spring telescopic rod 512 to the slider 510 increases. On the contrary, the spring telescopic rod 512 moves upward, and the elastic force applied by the spring telescopic rod 512 to the slider 510 decreases. The slider 510 transmits the elastic force to the footwear through the support block 511, so that the pressure generated by the footwear on the friction panel 55 can be adjusted by rotating the rotating frame 514, which is convenient for the staff to adjust the pressure value applied by the footwear on the friction panel 55 according to the use requirements when testing different footwear. By arranging a pressure sensor at the bottom of the support block 511, the pressure value applied by the footwear on the friction panel 55 can be observed in real time, which is convenient for the staff to adjust.When the multiple friction panels 55 move, they contact with the brush strips 521 in turn. The brush strips 521 can clean the surface of the friction panel 55 to prevent dust from adhering to the surface of the friction panel 55 and affecting the accuracy of the friction force measurement. When the two sawtooth strips 54 move, they respectively drive the two spring pieces 522 to vibrate. The two spring pieces 522 transmit the vibration to the long rod 520. The long rod 520 drives the brush strips 521 to vibrate. The brush strips 521 further promote the cleaning effect through vibration. By setting the measuring component 5, the sliding frame 56 can measure the friction force every time it reciprocates left and right, and can also drive the multiple friction panels 55 to switch, so that the multiple friction panels 55 By rubbing against the shoes and socks in turn, the friction between the shoes and socks and the multiple different friction panels 55 is measured, and the multiple friction data are comprehensively analyzed to improve the reference of the friction measurement results; by setting the rotating frame 514, the staff can adjust the pressure value generated by the shoes and socks on the friction panel 55 by rotating the rotating frame 514, which is convenient for adjusting different pressure values for different products according to actual needs; by setting the brush strip 521, the brush strip 521 can clean the friction panel 55 in turn by vibrating contact when multiple friction panels 55 are switched, so as to avoid dust adhering to the surface of the friction panel 55 and affecting the accuracy of the friction data. ;
[0025] When the two protrusions 61 contact the bottom ends of the two pry bars 62, the two protrusions 61 push the two pry bars 62 to the left, so that the connecting rod 63 between the two pry bars 62 moves to the left, and the connecting rod 63 drives the push plate 64 to move to the left. When the push plate 64 moves to the left, it pushes the shoe and the support block 511 to the left, so that the shoe and the support block 511 are separated from the slider 510, thereby achieving the effect of removing the shoe. Since the two protrusions 61 are located between two of the friction panels 55, during the period from the time when the protrusion 61 contacts the pry bar 62 until the next time it contacts the pry bar 62, the conveyor belt 53 rotates a full circle, and multiple friction panels 55 contact the shoe in turn. After the friction measurement is completed, a cycle of friction measurement is completed. At this time, the shoe and the support block 511 automatically fall off, reducing the number of disassembly steps for the staff and improving convenience. A reset spring is provided between the two pry bars 62 and the mounting seat 2. After the protrusion 61 is out of contact with the pry bar 62, the pry bar 62 is reset by the elastic force, and the connecting rod 63 and the push plate 64 are reset accordingly; through the setting of the blanking component 6, after the shoe and the support block 511 is automatically pushed to the left by the push plate 64 after completing a cycle of friction measurement, so that the support block 511 is disconnected from the slider 510, which is convenient for the staff to replace the shoe and the convenience of operation is improved.
[0026] When the slide bar 517 slides to the left on the hollow column 515, it drives the recording pen 74 to move to the left. The recording pen 74 records the movement length of the slide bar 517 on the recording paper 73 in the installation box 71. The recording paper 73 is provided with scales. The staff can obtain the friction value by observing the handwriting and the scales. After a friction measurement is completed, when the slide bar 517 is about to move to the right to the initial position, the dial shaft 713 on the slide bar 517 contacts the arc plate 712 and drives the arc plate 712 to move downward. The arc plate 712 drives the mold frame 710 and the rebound slide 79 to move downward. When the slide bar 517 moves to the left again, the dial shaft 713 breaks away from the contact with the arc plate 712, and the rebound slide 79 is elastically reset by the return spring. When the triangular wheel 78 is rotated, the two rollers 711 are rotated to move synchronously, and the two rollers 711 are moved along the outer wall of the triangular wheel 78. The notch on the arc convex surface of the triangular wheel 78 is located at the center of the arc convex surface. After the roller 711 slides to the notch on the arc convex surface, the roller 711 can only continue to slide in the same direction as before due to the obstruction of the notch, so that the two rollers 711 can drive the triangular wheel 78 to rotate a certain angle during the reciprocating motion, and the rotation direction of the triangular wheel 78 remains unchanged. When the triangular wheel 78 rotates, it drives the rotating shaft 76 to rotate. , the rotating shaft 76 drives the friction roller 77 to rotate. Since the friction roller 77 and the guide roller 75 sandwich the recording paper 73, and there is a large friction force between the friction roller 77 and the recording paper 73, the friction roller 77 can drive the recording paper 73 to move upward for a distance when rotating. The middle shaft 72 rotates with the movement of the recording paper 73, so that the recording paper 73 can move upward for a distance after completing a friction force recording, which is convenient for the next recording; when the rebound slide 79 moves up and down, it drives the slide rod 717 to move up and down synchronously. When the slide rod 717 moves downward, it drives the slide shaft 716 to move backward through the inclined slide groove. The slide shaft 716 drives the connecting block 714 and the support plate 715 to move backward. Conversely, the slide rod 717 When moving upward, the sliding shaft 716 drives the connecting block 714 and the supporting plate 715 to move forward. When the supporting plate 715 is located in the front, it can support the rear side of the recording paper 73, so that the recording pen 74 can record on the recording paper 73. When the recording paper 73 moves upward, the supporting plate 715 moves backward, so that the supporting plate 715 does not affect the upward movement of the recording paper 73. Through the setting of the recording component 7, the recording pen 74 can record the measurement data of the friction force on the recording paper 73, which is convenient for the staff to observe. After each friction force measurement is completed, the friction roller 77 drives the recording paper 73 to move upward for a distance by rotating, so that the recording pen 74 can record in sections, and each measurement data is recorded separately to improve the clarity of the recording traces.By setting the support plate 715, when the recording pen 74 is recording, the support plate 715 can support the back side of the recording paper 73, thereby improving the fit between the recording pen 74 and the recording paper 73. When the recording paper 73 moves upward, the support plate 715 can move backward to avoid affecting the upward movement of the recording paper 73.
[0027] The above is only a specific embodiment of the present invention, but the protection scope of the present invention is not limited thereto. Any person skilled in the art can easily think of changes or substitutions within the technical scope disclosed by the present invention, which should be included in the protection scope of the present invention. Therefore, the protection scope of the present invention should be based on the protection scope of the claims.
Claims
1. A device for producing shiny silk dance shoes and socks, comprising an operating table (1), characterized in that: The operating table (1) is mounted with a mounting seat (2) and an outer cover (3), a portion of the mounting seat (2) is located inside the outer cover (3), and a cylinder (4) is mounted on the outer cover (3); Also included is a measuring component (5) for measuring the friction of footwear; A material removal component (6) for assisting in the removal of the measured shoes and socks; A recording component (7), used for recording measurement data; The measuring assembly (5) comprises two inner shafts (51), the two inner shafts (51) are both mounted on a mounting seat (2), the outer walls of the inner shafts (51) are rotatably connected to the outer shafts (52), the outer walls of the two outer shafts (52) are sleeved with conveyor belts (53), the two sides of the conveyor belt (53) are respectively connected to sawtooth bars (54), the outer wall of the conveyor belt (53) is connected to a plurality of friction panels (55), the mounting seat (2) is slidably connected to a sliding frame (56), the inner wall of the sliding frame (56) is connected to a mounting frame (57), and the mounting frame (57) is The inner wall is slidably connected to a slider (510), a support block (511) is inserted into the slider (510), a hollow column (515) is connected to the sliding frame (56), a sliding rod (517) is slidably connected to the inner wall of the hollow column (515), a tension spring (516) is connected between the sliding rod (517) and the inner wall of the hollow column (515), two pull rods (518) are connected between the sliding rod (517) and the output end of the cylinder (4), a pointer (519) is connected to the sliding rod (517), and scale lines are provided on the outer wall of the hollow column (515).
2. The device for producing bright silk dance shoes and socks according to claim 1, characterized in that: Ratchets are respectively arranged on the inner walls at both ends of the outer shaft (52), and pawls are respectively arranged on the inner walls at both ends of the inner shaft (51), the two pawls of the inner shaft (51) mesh with the two ratchets of the outer shaft (52), the bottom of the mounting frame (57) is connected to two columns (58), the bottom end of the column (58) is hinged with a buckle rod (59), the end of the buckle rod (59) away from the column (58) is provided with a trapezoidal block, and the trapezoidal blocks of the two buckle rods (59) are respectively in contact with the two sawtooth bars (54).
3. The device for producing bright silk dance shoes and socks according to claim 2, characterized in that: A spring telescopic rod (512) is slidably mounted on the top of the sliding frame (56); the telescopic end of the spring telescopic rod (512) is connected to the sliding block (510); a threaded groove is provided on the outer wall of the fixed end of the spring telescopic rod (512); a nut seat (513) is rotatably mounted on the top of the sliding frame (56) through a bracket; the nut seat (513) is threadably connected to the threaded groove of the spring telescopic rod (512); a rotating frame (514) is connected to the top of the nut seat (513); and a handle is provided on the rotating frame (514).
4. The device for producing bright silk dance shoes and socks according to claim 3, characterized in that: A long rod (520) is connected to the mounting seat (2), a brush strip (521) is connected to the bottom of the long rod (520), the long rod (520) is located inside the outer cover (3), the plurality of friction panels (55) contact the brush strip (521) in sequence when moving, two spring sheets (522) are connected to the bottom of the long rod (520), and the two spring sheets (522) contact two sawtooth strips (54) respectively.
5. The device for producing bright silk dance shoes and socks according to claim 4, characterized in that: The material unloading assembly (6) comprises two pry bars (62), the two pry bars (62) are rotatably mounted on the mounting seat (2), the two pry bars (62) are located on the right side of the conveyor belt (53), a connecting rod (63) is connected between the two pry bars (62), a push plate (64) is connected to the connecting rod (63), two protrusions (61) are connected to the conveyor belt (53), the two protrusions (61) are located between two friction panels (55), the two protrusions (61) respectively contact the bottom ends of the two pry bars (62) during movement, and the push plate (64) contacts the support block (511) during movement.
6. The device for producing bright silk dance shoes and socks according to claim 5, characterized in that: The recording component (7) includes a mounting box (71), a central axis (72) is rotatably mounted inside the mounting box (71), a recording paper (73) is wound around the outer wall of the central axis (72), a long groove is provided at the top of the mounting box (71), the recording paper (73) passes through the long groove of the mounting box (71), and a recording pen (74) is connected to the sliding rod (517), and the recording pen (74) is in contact with the recording paper (73).
7. The device for producing bright silk dance shoes and socks according to claim 6, characterized in that: A guide roller (75) and a rotating shaft (76) are rotatably mounted in the mounting box (71). The outer wall of the rotating shaft (76) is connected to a friction roller (77). The friction roller (77) and the guide roller (75) are in contact with two sides of the recording paper (73) respectively. One end of the rotating shaft (76) close to the sliding frame (56) passes through the mounting box (71). One end of the rotating shaft (76) close to the sliding frame (56) is connected to a triangular wheel (78). The side outer wall is slidably connected to a rebound slide (79), a return spring is arranged between the rebound slide (79) and the installation box (71), the rebound slide (79) is connected to a shaped frame (710), both ends of the shaped frame (710) are respectively connected to rollers (711), the top of the shaped frame (710) is connected to an arc plate (712), the slide rod (517) is connected to a shifting shaft (713), and the shifting shaft (713) is in sliding contact with the arc plate (712) when moving.
8. The device for producing bright silk dance shoes and socks according to claim 7, characterized in that: The two rollers (711) are respectively located above and below the triangular wheel (78); the two rollers (711) are in contact with the outer wall of the triangular wheel (78); the outer wall of the triangular wheel (78) is provided with three arc-shaped convex surfaces; an arc-shaped concave surface is provided between two adjacent arc-shaped convex surfaces of the triangular wheel (78); and a notch is provided at the arc-shaped end of the triangular wheel (78).
9. The device for producing bright silk dance shoes and socks according to claim 8, characterized in that: The top surface of the installation box (71) is slidably connected to a connecting block (714), and the connecting block (714) is connected to a support plate (715), and the support plate (715) contacts the side of the recording paper (73) away from the recording pen (74), and the connecting block (714) is connected to a sliding shaft (716). The top surface of the rebound slide seat (79) is connected to a sliding groove rod (717), and the sliding groove rod (717) is provided with an inclined sliding groove, and the inclined sliding groove of the sliding groove rod (717) is slidably connected to the sliding shaft (716).