Push-pull roller shutter door based on cylindrical winding wheel
By adopting a combined design of cylindrical coil wheel and wire compensator in the push-pull roller door, the problem of inconsistent fabric pulling speed and reel rolling speed is solved, and the smoothness of the fabric is achieved and the needs of fabrics of different thicknesses is met.
Patent Information
- Application Number
- CN202510023585.7
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-01-07
- Publication Date
- 2025-05-09
AI Technical Summary
The fabric pulling speed of the existing sliding roller shutter door is inconsistent with the unwinding speed of the pulling wire on the reel plate, resulting in the problem of loose fabrics.
The design based on the cylindrical coil wheel is adopted, and the wire pull compensator is added. The wire pull compensator is used to keep the coil speed consistent with the roller shutter speed, solving the problem of inconsistent pull speed.
It effectively solves the problem of loose fabrics of the push-pull roller shutter doors, ensures the smoothness of the fabric, and is suitable for fabrics of different thicknesses.
Smart Images

Figure CN119957058A_ABST
Abstract
Description
Technical Field
[0001] The invention relates to the technical field of sliding rolling shutter doors, and in particular to a sliding rolling shutter door based on a cylindrical winding wheel. Background Art
[0002] In order to solve the problem of looseness of the existing sliding and rolling shutter doors due to the inconsistency between the fabric pulling speed of the sliding and rolling shutter doors and the unwinding speed of the wire on the winding reel of the sliding and rolling shutter doors, the winding wheel and system of the sliding and rolling shutter doors are improved, and the outer contour of the winding wheel is designed into a conical structure to make the fabric winding speed of the sliding and rolling shutter doors consistent with the unwinding speed of the wire, thereby maintaining the flatness of the fabric. This invention can also meet the use requirements of fabrics of different thicknesses.
[0003] The conical winding wheel has been monopolized by foreign companies: the taper of the conical winding wheel is determined by the thickness of the fabric wound on the vertical axis. Different thicknesses result in different tapers. How to use the same winding wheel to fit different fabrics is the pain point of the conical winding wheel. In order to solve the pain points of the industry and circumvent foreign patent monopolies, the problem of loose fabrics in the sliding rolling door caused by the inconsistent pulling speed of the fabric of the sliding rolling door and the unwinding speed of the winding reel of the sliding rolling door is a problem that the domestic industry needs to solve. Summary of the invention
[0004] In order to overcome the above-mentioned deficiencies, the object of the present invention is to provide a sliding rolling door based on a cylindrical winding wheel to solve the problem of the sliding rolling door being loose due to the inconsistency between the pulling speed of the sliding rolling door and the unwinding of the winding drum of the sliding rolling door.
[0005] In order to solve the above technical problems, the technical solution adopted by the present invention is: A sliding rolling shutter door based on a cylindrical winding wheel comprises a left cylindrical winding wheel, a left pull wire, a left rolling shutter vertical shaft, a left rolling shutter and a left pushing and pulling member, wherein the left cylindrical winding wheel is connected to the left rolling shutter vertical shaft, one end of the left rolling shutter is wound on the left rolling shutter vertical shaft, and the other end of the left rolling shutter is connected to the left pushing and pulling member; one end of the left pull wire is wound on the left cylindrical winding wheel, and the other end of the left pull wire is simultaneously connected to one end of the left upper pull wire and one end of the left lower pull wire, and the other end of the left upper pull wire and the other end of the left lower pull wire are fixedly connected to the left pushing and pulling member; when the left pushing and pulling member pulls the left rolling shutter to unfold, the left rolling shutter pulls the left rolling shutter vertical shaft, and the left The vertical axis of the rolling curtain drives the left cylindrical winding wheel to rotate, and the left cylindrical winding wheel reels the left pull wire; when the left push-pull member pulls the upper left pull wire and the lower left pull wire to unwind the left pull wire, the left pull wire pulls the left cylindrical winding wheel, and the left cylindrical winding wheel drives the left rolling curtain vertical axis to rotate, and the left rolling curtain vertical axis reels the left rolling curtain; the left push-pull member is provided with an upper left pull wire compensator and a lower left pull wire compensator, and the upper left pull wire and the lower left pull wire pass through the upper left pull wire compensator and the lower left pull wire compensator respectively, and the upper left pull wire compensator and the lower left pull wire compensator are used to make the winding speed of the left pull wire consistent with the rolling speed of the left rolling curtain.
[0006] Furthermore, a push-pull rolling shutter door based on a cylindrical winding wheel also includes a right cylindrical winding wheel, a right pulling wire, a right rolling shutter vertical shaft, a right rolling shutter and a right pushing and pulling member, wherein the right cylindrical winding wheel is connected to the right rolling shutter vertical shaft, one end of the right rolling shutter is wound on the right rolling shutter vertical shaft, and the other end of the right rolling shutter is connected to the right pushing and pulling member; one end of the right pulling wire is wound on the right cylindrical winding wheel, and the other end of the right pulling wire is simultaneously connected to one end of the right upper pulling wire and one end of the right lower pulling wire, and the other end of the right upper pulling wire and the other end of the right lower pulling wire are fixedly connected to the right pushing and pulling member; when the right pushing and pulling member pulls the right rolling shutter to unfold, the right rolling shutter pulls the right rolling shutter vertical shaft to open. Axis, the right roller blind vertical axis drives the right cylindrical winding wheel to rotate, and the right cylindrical winding wheel reels the right pull wire; when the right push-pull member pulls the right upper pull wire and the right lower pull wire to unwind the right pull wire, the right pull wire pulls the right cylindrical winding wheel, and the right cylindrical winding wheel drives the right roller blind vertical axis to rotate, and the right roller blind vertical axis reels the right roller blind; the right push-pull member is provided with a right upper pull wire compensator and a right lower pull wire compensator, the right upper pull wire and the right lower pull wire compensator pass through the right upper pull wire compensator and the right lower pull wire compensator respectively, and the right upper pull wire compensator and the right lower pull wire compensator are used to make the winding speed of the right pull wire consistent with the rolling speed of the right roller blind.
[0007] Furthermore, it also includes a lower right guide pulley, an upper right guide pulley, a lower left guide pulley, an upper left guide pulley and a horizontal top rail, the lower right guide pulley and the upper right guide pulley are located on the right side of the right rolling curtain vertical axis, the lower left guide pulley and the upper left guide pulley are located on the left side of the left rolling curtain vertical axis, the upper left pull wire and the lower left pull wire pass over the upper right guide pulley, the lower left pull wire passes over the lower right guide pulley, the upper right pull wire and the lower right pull wire pass over the upper left guide pulley, and the lower right pull wire passes over the lower left guide pulley; the left push-pull member and the right push-pull member are respectively installed on the horizontal top rail through rollers.
[0008] Furthermore, the left cylindrical winding wheel and the right cylindrical winding wheel have the same structure; the outer contour of the right cylindrical winding wheel is a cylindrical structure, and a spiral wire pulling groove is provided on the circumferential surface of the cylindrical structure, and the spiral wire pulling groove is used to accommodate the wire so that the wire can be wound on the cylindrical winding wheel in an orderly manner to ensure the stability of the wire pulling force; a center hole is opened on the end surface of the cylindrical structure, and a friction damping gear ring is provided on the inner surface of the center hole, and the friction damping gear ring is used to fit with the friction damping block to increase the friction resistance of the cylindrical winding wheel and prevent the relative rotation of the pull rope and the roller blind from causing tangled wires.
[0009] Furthermore, the structures of the upper left wire compensator, the lower left wire compensator, the upper right wire compensator and the lower right wire compensator are the same.
[0010] Furthermore, the upper left wire compensator comprises a first wire compensation wheel, a second wire compensation wheel and a third wire compensation wheel, and the first wire compensation wheel, the second wire compensation wheel and the third wire compensation wheel are all provided with wire passing holes, and the cylindrical winding wheel is used to wind the wire of the push-pull rolling door, and the upper left wire passes through the wire passing hole on the first wire compensation wheel, the wire passing hole on the second wire compensation wheel and the wire passing hole on the third wire compensation wheel in turn to form a circuitous fold line, and the first wire compensation wheel and the third wire compensation wheel are respectively provided with a torsion spring A and a torsion spring B, one end of the torsion spring A is fixed on the first wire compensation wheel, and the other end of the torsion spring A is buckled into the clamping hole A on one side of the second wire compensation wheel, and one end of the torsion spring B is fixed on the third wire compensation wheel, and the other end of the torsion spring B is buckled into the clamping hole B on the other side of the second wire compensation wheel.
[0011] Furthermore, the upper left wire compensator also includes a machine base, and the first wire compensating wheel, the second wire compensating wheel and the third wire compensating wheel are arranged in a row and rotatably connected to the machine base; the first wire compensating wheel, the second wire compensating wheel and the third wire compensating wheel are respectively provided with a first gear, a second gear and a third gear, the first gear is meshed with the second gear, and the second gear is meshed with the third gear.
[0012] Furthermore, a torsion spring force adjuster is provided on the second wire-drawing compensation wheel, and the torsion spring force adjuster is used to simultaneously adjust the elastic forces of torsion spring A and torsion spring B; the torsion spring force adjuster includes a force adjustment column and a limit pin, and the second wire-drawing compensation wheel is a tubular hollow structure, and the force adjustment column is arranged at the center of the second wire-drawing compensation wheel, and the force adjustment column is connected to the inner wall of the second wire-drawing compensation wheel through a plurality of connecting plates, and an arc-shaped limit hole A is formed between adjacent connecting plates, and the machine base is provided with limit holes corresponding to the arc-shaped limit holes A. Hole B, rotate the elastic force adjustment column, the elastic force adjustment column drives the second wire-pulling compensation wheel to rotate a preset angle, the second wire-pulling compensation wheel drives the first wire-pulling compensation wheel and the third wire-pulling compensation wheel to rotate a preset angle through the first gear, the second gear and the third gear to adjust the elastic force of the torsion spring A and the torsion spring B, and then insert the limit pin into the corresponding arc-shaped limit hole B and limit hole A. The limit pin is used to limit the reverse rotation of the second wire-pulling compensation wheel. During wire compensation, the limit pin slides in the arc-shaped limit hole B during the forward rotation of the second wire-pulling compensation wheel.
[0013] Furthermore, a fourth wire-pulling compensation wheel and a wire column are provided on the machine base, a wire-pulling compensation wheel is provided with a wire-pulling through hole, the fourth wire-pulling compensation wheel is installed on the machine base and is arranged in a row with the first wire-pulling compensation wheel, the second wire-pulling compensation wheel and the third wire-pulling compensation wheel, a fourth gear is provided on the fourth wire-pulling compensation wheel, the fourth gear is meshed with the third gear, and the upper left wire passes through the wire-pulling through hole on the fourth wire-pulling compensation wheel; a horizontal hole is provided on the wire column, and the wire of the push-pull rolling door passes through the horizontal hole on the wire column; the wire column is located on one side of the fourth wire-pulling compensation wheel and is arranged in a row with the first wire-pulling compensation wheel, the second wire-pulling compensation wheel, the third wire-pulling compensation wheel and the fourth wire-pulling compensation wheel.
[0014] Furthermore, the elastic force adjustment column is a hexagonal prism structure, or the upper end surface of the elastic force adjustment column is provided with a hexagonal groove, and the hexagonal groove is used to cooperate with a hexagonal wrench.
[0015] The beneficial effects of the present invention are: The sliding rolling shutter door of the present application is provided with a wire compensator on the basis of a cylindrical winding wheel. The addition of the wire compensator can compensate for the wire of the sliding rolling shutter door to solve the problem of looseness of the sliding rolling shutter door caused by the inconsistency between the pulling speed of the rolling shutter door and the unwinding speed of the wire on the winding drum of the sliding rolling shutter door.
[0016] The sliding shutter door of the present application can adopt a single-opening structure or a double-opening structure. In practical applications, it can be used as a sliding door in a balcony or partition, and it can also be used as a curtain on a window. BRIEF DESCRIPTION OF THE DRAWINGS
[0017] The present invention is further described with the aid of the accompanying drawings, but the embodiments in the accompanying drawings do not constitute any limitation to the present invention. A person skilled in the art can obtain other accompanying drawings according to the following drawings without creative work: Figure 1 It is a structural schematic diagram of the present invention; Figure 2 for Figure 1 The top view shown; Figure 3 for Figure 1 The stereogram shown; Figure 4 for Figure 1 A schematic diagram of the structure of the cable arrangement shown; Figure 5 for Figure 1 The structural schematic diagram of the right cylindrical winding wheel shown; Figure 6 for Figure 4 The structural schematic diagram of the upper left cable compensator is shown; Figure 7 for Figure 6 The structural schematic diagram of the second wire-drawing compensation wheel is shown; Figure 8 for Figure 6 The top view shown; Fig. 9 for Figure 6 The structural schematic diagram of the base bottom shell shown; Fig.10 for Figure 7 The stereogram shown; Fig.11 It is a schematic diagram of the structure behind the top shell of the machine base in the left upper wire compensator of the present invention; Fig.12 It is a schematic diagram of threading the upper left wire compensator of the present invention.
[0018] In the figure: 1. first wire-drawing compensation wheel; 2. second wire-drawing compensation wheel; 3. third wire-drawing compensation wheel; 4. fourth wire-drawing compensation wheel; 5. machine base; 6. wire-drawing through hole; 7. torsion spring A; 8. torsion spring B; 9. snap-in hole A; 10. snap-in hole B; 11. first gear; 12. second gear; 13. third gear; 14. fourth gear; 15. wire column; 16. horizontal hole; 17. elastic force adjustment column; 18. connecting plate; 19. arc-shaped limit hole A; 20. limit hole B; 21. hexagonal groove; 23. spiral wire-drawing groove; 24. friction damping gear ring; 25. left cylindrical winding wheel; 26. left wire; 27. left roller blind vertical axis; 28. left roller blind; 29. left push-pull member ; 30. Upper left pull wire; 31. Lower left pull wire; 32. Upper left pull wire compensator; 33. Lower left pull wire compensator; 34. Right cylindrical winding wheel; 35. Right pull wire; 36. Right roller blind vertical axis; 37. Right roller blind; 38. Right push-pull member; 39. Upper right pull wire; 40. Lower right pull wire; 41. Upper right pull wire compensator; 42. Lower right pull wire compensator; 43. Lower right guide pulley; 44. Upper right guide pulley; 45. Lower left guide pulley; 46. Upper left guide pulley; 47. Horizontal top rail; 48. Friction damping block. DETAILED DESCRIPTION
[0019] In order to enable those skilled in the art to better understand the technical solution of the present invention, the present invention is further described in detail below in conjunction with the accompanying drawings and specific embodiments. It should be noted that the embodiments of the present application and the features therein can be combined with each other without conflict.
[0020] In the description of the present invention, it should be understood that the terms "center", "longitudinal", "lateral", "length", "width", "thickness", "upper surface", "lower surface", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inside", "outside", "forward", "reverse", "axial", "radial", "circumferential" and the like indicate orientations or positional relationships based on the orientations or positional relationships shown in the accompanying drawings, and are only for the convenience of describing the present invention and simplifying the description, and do not indicate or imply that the referred device or element must have a specific orientation, be constructed and operated in a specific orientation, and therefore should not be understood as limiting the present invention.
[0021] like Figure 1 , 2As shown in Figures 3 and 4, a push-pull rolling shutter door based on a cylindrical winding wheel comprises a left cylindrical winding wheel 25, a left pull wire 26, a left rolling shutter vertical shaft 27, a left rolling shutter 28 and a left push-pull member 29, wherein the left cylindrical winding wheel 25 is connected to the left rolling shutter vertical shaft 27, one end of the left rolling shutter 28 is wound on the left rolling shutter vertical shaft 27, and the other end of the left rolling shutter 28 is connected to the left push-pull member 29; one end of the left pull wire 26 is wound on the left cylindrical winding wheel 25, and the other end of the left pull wire 25 is simultaneously connected to one end of the left upper pull wire 30 and one end of the left lower pull wire 31, and the other end of the left upper pull wire 30 and the other end of the left lower pull wire 31 are fixedly connected to the left push-pull member 29; when the left push-pull member 29 pulls the left rolling shutter 28 to unfold, the left rolling shutter 28 pulls the left rolling shutter vertical shaft 27 , the left roller blind vertical shaft 27 drives the left cylindrical winding wheel 25 to rotate, and the left cylindrical winding wheel 25 reels the left pull wire 26; when the left push-pull member 29 pulls the left upper pull wire 30 and the left lower pull wire 31 to unwind the left pull wire 26, the left pull wire 26 pulls the left cylindrical winding wheel 25, and the left cylindrical winding wheel 25 drives the left roller blind vertical shaft 27 to rotate, and the left roller blind vertical shaft 27 reels the left roller blind 28; the left push-pull member 29 is provided with a left upper pull wire compensator 32 and a left lower pull wire compensator 33, and the left upper pull wire 30 and the left lower pull wire 31 pass through the left upper pull wire compensator 32 and the left lower pull wire compensator 33 respectively, and the left upper pull wire compensator 32 and the left lower pull wire compensator 33 are used to make the winding speed of the left pull wire 26 consistent with the rolling speed of the left roller blind 28.
[0022] The above-mentioned structural form is essentially a single-opening structural form. On the basis of the above-mentioned structure, the sliding and pulling rolling shutter door based on the cylindrical winding wheel can be designed as a double-opening structural form. Specifically, a sliding and pulling rolling shutter door based on the cylindrical winding wheel also includes a right cylindrical winding wheel 34, a right pull wire 35, a right rolling shutter vertical shaft 36, a right rolling shutter 37 and a right pushing and pulling member 38. The right cylindrical winding wheel 34 is connected to the right rolling shutter vertical shaft 36, one end of the right rolling shutter 37 is wound on the right rolling shutter vertical shaft 36, and the other end of the right rolling shutter 37 is connected to the right pushing and pulling member 38; one end of the right pull wire 35 is wound on the right cylindrical winding wheel 34, and the other end of the right pull wire 35 is simultaneously connected to one end of the right upper pull wire 39 and one end of the right lower pull wire 40, and the other end of the right upper pull wire 39 and the other end of the right lower pull wire 40 are fixedly connected to the right pushing and pulling member 38; when the right pushing and pulling When the right push-pull member 38 pulls the right roller blind 37 to unfold, the right roller blind 37 pulls the right roller blind vertical shaft 36, and the right roller blind vertical shaft 36 drives the right cylindrical winding wheel 34 to rotate, and the right cylindrical winding wheel 34 reels the right pull wire 35; when the right push-pull member 38 pulls the right upper pull wire 39 and the right lower pull wire 40 to unwind the right pull wire 35, the right pull wire 35 pulls the right cylindrical winding wheel 34, and the right cylindrical winding wheel 34 drives the right roller blind vertical shaft 36 to rotate The right roller blind 37 is reeled in by the right vertical axis 36 of the right roller blind 37; the right push-pull member 38 is provided with a right upper wire compensator 41 and a right lower wire compensator 42, the right upper wire 39 and the right lower wire 40 pass through the right upper wire compensator 41 and the right lower wire compensator 42 respectively, and the right upper wire compensator 41 and the right lower wire compensator 42 are used to make the winding speed of the right wire 35 consistent with the rolling speed of the right roller blind 37.
[0023] In addition, it also includes a lower right guide pulley 43, an upper right guide pulley 44, a lower left guide pulley 45, an upper left guide pulley 46 and a horizontal top rail 47. The lower right guide pulley 43 and the upper right guide pulley 44 are located on the right side of the right rolling curtain vertical shaft 36, and the lower left guide pulley 45 and the upper left guide pulley 46 are located on the left side of the left rolling curtain vertical shaft 27. The upper left pull wire 30 and the lower left pull wire 31 pass over the upper right guide pulley 44, the lower left pull wire 31 passes over the lower right guide pulley 43, the upper right pull wire 39 and the lower right pull wire 40 pass over the upper left guide pulley 46, and the lower right pull wire 40 passes over the lower left guide pulley 45. The left push-pull member 29 and the right push-pull member 38 are respectively installed on the horizontal top rail 47 through rollers.
[0024] like Figure 5As shown, the outer contour of the cylindrical winding wheel 9 is a cylindrical structure, and a spiral wire pulling groove 23 is provided on the circumferential surface of the cylindrical structure, and the spiral wire pulling groove 23 is used to accommodate the wire so that the wire can be wound in an orderly manner on the cylindrical winding wheel to ensure the stability of the wire pulling force; a center hole is opened on the end face of the cylindrical structure, and a friction damping gear ring 24 is provided on the inner surface of the center hole, and the friction damping gear ring 24 is used to fit with the friction damping block 48 to increase the friction resistance of the cylindrical winding wheel 9 and prevent the relative rotation of the pull rope and the roller blind from causing tangled wires.
[0025] The structures of the upper left wire compensator, the lower left wire compensator, the upper right wire compensator and the lower right wire compensator are the same.
[0026] like Figure 6 , 7 As shown in Figures 1 and 11, the upper left wire compensator includes a machine base 5, a first wire compensating wheel 1, a second wire compensating wheel 2, a third wire compensating wheel 3, and a fourth wire compensating wheel 4. The first wire compensating wheel 1, the second wire compensating wheel 2, the third wire compensating wheel 3, and the fourth wire compensating wheel 4 are all provided with a wire passing hole 6. The first wire compensating wheel 1 and the third wire compensating wheel 3 are respectively provided with a torsion spring A7 and a torsion spring B8. One end of the torsion spring A7 is fixed on the first wire compensating wheel 1, and the other end of the torsion spring A is buckled into the clamping hole A9 on one side of the second wire compensating wheel 2. One end of the torsion spring B8 is fixed on the third wire compensating wheel 3, and the other end of the torsion spring B8 is buckled into the clamping hole B10 on the other side of the second wire compensating wheel 2.
[0027] The first wire-drawing compensation wheel 1 , the second wire-drawing compensation wheel 2 , the third wire-drawing compensation wheel 3 and the fourth wire-drawing compensation wheel 4 are arranged in a row and are rotatably connected to the machine base 5 .
[0028] A first gear 11, a second gear 12, a third gear 13 and a fourth gear 14 are respectively provided on the first wire-pulling compensation wheel 1, the second wire-pulling compensation wheel 2, the third wire-pulling compensation wheel 3 and the fourth wire-pulling compensation wheel 4. The first gear 11 is meshed with the second gear 12, the second gear 12 is meshed with the third gear 13, and the third gear 13 is meshed with the fourth gear 14.
[0029] A wire post 15 is provided on the machine base 5. The wire post 15 is located on one side of the fourth wire-pulling compensation wheel 4 and is arranged in a row with the first wire-pulling compensation wheel 1, the second wire-pulling compensation wheel 2, the third wire-pulling compensation wheel 3 and the fourth wire-pulling compensation wheel 4. A transverse hole 16 is provided on the wire post 15. The upper left wire 30 passes through the transverse hole 16 on the wire post 15, the wire-pulling through hole on the fourth wire-pulling compensation wheel 4, the wire-pulling through hole on the third wire-pulling compensation wheel 3, the wire-pulling through hole on the second wire-pulling compensation wheel 2 and the wire-pulling through hole on the first wire-pulling compensation wheel 1 in sequence to form a circuitous fold line. The threading schematic diagram is as shown in FIG. Fig.12shown.
[0030] The second wire-drawing compensation wheel 2 is provided with a torsion spring force adjuster, and the torsion spring force adjuster is used to adjust the elastic force of the torsion spring A7 and the torsion spring B8 at the same time.
[0031] like Figure 8 , 9 As shown in 10, the torsion spring force regulator includes a force regulating column 17 and a limit pin (not shown in the figure), the second wire-drawing compensation wheel 2 is a tubular hollow structure, the force regulating column 17 is arranged at the center of the second wire-drawing compensation wheel 2, the force regulating column 17 is connected to the inner wall of the second wire-drawing compensation wheel 2 through a plurality of connecting plates 18, and an arc-shaped limit hole A19 is formed between adjacent connecting plates 18, and the base 5 is provided with limit holes B20 corresponding to the arc-shaped limit holes A19, and the force regulating column 17 is rotated, and the force regulating column 17 is brought Drive the second wire-pulling compensation wheel 2 to rotate a preset angle. The second wire-pulling compensation wheel 2 drives the first wire-pulling compensation wheel 1 and the third wire-pulling compensation wheel 3 to rotate a preset angle through the first gear 11, the second gear 12 and the third gear 13 to adjust the elastic force of the torsion spring A7 and the torsion spring B8. Then, the limit pin is inserted into the corresponding arc-shaped limit hole B19 and the limit hole A20. The limit pin is used to limit the reverse rotation of the second wire-pulling compensation wheel 2. During wire compensation, the limit pin slides in the arc-shaped limit hole B19 during the forward rotation of the second wire-pulling compensation wheel 2.
[0032] The elastic force adjustment column can be designed as a hexagonal prism structure. In this embodiment, the upper end surface of the elastic force adjustment column 17 is provided with a hexagonal groove 21, and the hexagonal groove 21 is used to cooperate with a hexagonal wrench. When the upper left wire compensator is in use, the upper left wire 30 of the push-pull rolling door passes through the horizontal hole 16 on the wire column 15, the wire through hole on the fourth wire compensation wheel 4, the wire through hole on the third wire compensation wheel 3, the wire through hole on the second wire compensation wheel 2, and the wire through hole on the first wire compensation wheel 1 in sequence to form a circuitous fold line and then fixedly connected with the handle on the rolling door. When the handle on the rolling door is pulled, when the moving speed of the handle is relatively high, the fold line angle of the wire becomes larger, so that the fold line state is transformed into a straight line state, thereby achieving the purpose of wire compensation.
[0033] Working principle: The sliding and pulling rolling shutter door of the present application is designed based on a cylindrical winding wheel. Since the outer diameter of the cylindrical winding wheel remains unchanged, the pulling force of the pulling wire is not affected during the winding and unwinding process of the pulling wire on the cylindrical winding wheel. However, the rolling shutter is wound on the vertical shaft of the rolling shutter in circles, and the vertical shaft of the rolling shutter and the cylindrical winding wheel rotate synchronously. During the winding and unwinding process of the rolling shutter on the vertical shaft of the rolling shutter, the number of windings or layers of the rolling shutter changes. As the number of windings of the rolling shutter increases or decreases, the pulling force of the rolling shutter is affected. Therefore, when the rolling shutter door is pushed and pulled, there will be a problem that the winding speed of the rolling shutter is inconsistent with the unwinding speed of the pulling wire on the winding drum. The sliding rolling shutter door of the present application is provided with a wire compensator on the basis of a cylindrical winding wheel. The addition of the wire compensator can compensate for the wire of the sliding rolling shutter door to solve the problem of looseness of the sliding rolling shutter door caused by the inconsistency between the pulling speed of the rolling shutter door and the unwinding speed of the wire on the winding drum of the sliding rolling shutter door.
[0034] In addition, those skilled in the art may combine and combine the different embodiments or examples and the features of the different embodiments or examples described in this specification without contradiction. Although the embodiments of the present invention have been shown and described above, it is understood that the above embodiments are exemplary and cannot be understood as limiting the present invention. Those skilled in the art may change, modify, replace and modify the above embodiments within the scope of the present invention.
Claims
1. A sliding shutter door based on a cylindrical winding wheel, characterized in that: The present invention comprises a left cylindrical winding wheel, a left pull wire, a left rolling curtain vertical shaft, a left rolling curtain and a left push-pull member, wherein the left cylindrical winding wheel is connected to the left rolling curtain vertical shaft, one end of the left rolling curtain is wound on the left rolling curtain vertical shaft, and the other end of the left rolling curtain is connected to the left push-pull member; one end of the left pull wire is wound on the left cylindrical winding wheel, and the other end of the left pull wire is simultaneously connected to one end of the left upper pull wire and one end of the left lower pull wire, and the other end of the left upper pull wire and the other end of the left lower pull wire are fixedly connected to the left push-pull member; when the left push-pull member pulls the left rolling curtain to unfold, the left rolling curtain pulls the left rolling curtain vertical shaft, and the left rolling curtain vertical shaft drives the left cylindrical winding wheel to rotate. The cylindrical winding wheel rotates, and the left cylindrical winding wheel reels the left pull wire; when the left push-pull member pulls the upper left pull wire and the lower left pull wire to unwind the left pull wire, the left pull wire pulls the left cylindrical winding wheel, and the left cylindrical winding wheel drives the left roller blind vertical axis to rotate, and the left roller blind vertical axis reels the left roller blind; the left push-pull member is provided with an upper left pull wire compensator and a lower left pull wire compensator, and the upper left pull wire and the lower left pull wire pass through the upper left pull wire compensator and the lower left pull wire compensator respectively, and the upper left pull wire compensator and the lower left pull wire compensator are used to keep the winding speed of the left pull wire consistent with the rolling speed of the left roller blind.
2. The push-pull rolling shutter door based on a cylindrical winding wheel according to claim 1, characterized in that: It also includes a right cylindrical winding wheel, a right pulling wire, a right rolling curtain vertical shaft, a right rolling curtain and a right pushing and pulling member, the right cylindrical winding wheel is connected to the right rolling curtain vertical shaft, one end of the right rolling curtain is wound on the right rolling curtain vertical shaft, and the other end of the right rolling curtain is connected to the right pushing and pulling member; one end of the right pulling wire is wound on the right cylindrical winding wheel, and the other end of the right pulling wire is simultaneously connected to one end of the right upper pulling wire and one end of the right lower pulling wire, and the other end of the right upper pulling wire and the other end of the right lower pulling wire are fixedly connected to the right pushing and pulling member; when the right pushing and pulling member pulls the right rolling curtain to unfold, the right rolling curtain pulls the right rolling curtain vertical shaft, and the right rolling curtain vertical shaft drives the right cylindrical winding wheel to rotate. The cylindrical winding wheel rotates, and the right cylindrical winding wheel reels the right pull wire; when the right push-pull member pulls the right upper pull wire and the right lower pull wire to unwind the right pull wire, the right pull wire pulls the right cylindrical winding wheel, and the right cylindrical winding wheel drives the right roller blind vertical axis to rotate, and the right roller blind vertical axis reels the right roller blind; the right push-pull member is provided with a right upper pull wire compensator and a right lower pull wire compensator, and the right upper pull wire and the right lower pull wire compensator pass through the right upper pull wire compensator and the right lower pull wire compensator respectively, and the right upper pull wire compensator and the right lower pull wire compensator are used to make the winding speed of the right pull wire consistent with the rolling speed of the right roller blind.
3. The push-pull rolling shutter door based on a cylindrical winding wheel according to claim 2, characterized in that: It also includes a lower right guide pulley, an upper right guide pulley, a lower left guide pulley, an upper left guide pulley and a horizontal top rail, the lower right guide pulley and the upper right guide pulley are located on the right side of the right rolling curtain vertical axis, the lower left guide pulley and the upper left guide pulley are located on the left side of the left rolling curtain vertical axis, the upper left pull wire and the lower left pull wire pass over the upper right guide pulley, the lower left pull wire passes over the lower right guide pulley, the upper right pull wire and the lower right pull wire pass over the upper left guide pulley, and the lower right pull wire passes over the lower left guide pulley; the left push-pull member and the right push-pull member are respectively installed on the horizontal top rail through rollers.
4. The push-pull rolling shutter door based on a cylindrical winding wheel according to claim 3 is characterized in that: The left cylindrical winding wheel and the right cylindrical winding wheel have the same structure; the outer contour of the right cylindrical winding wheel is a cylindrical structure, and a spiral wire pulling groove is provided on the circumferential surface of the cylindrical structure, and the spiral wire pulling groove is used to accommodate the wire so that the wire can be wound on the cylindrical winding wheel in an orderly manner to ensure the stability of the wire pulling force; a center hole is opened on the end surface of the cylindrical structure, and a friction damping gear ring is provided on the inner surface of the center hole, and the friction damping gear ring is used to fit with the friction damping block to increase the friction resistance of the cylindrical winding wheel and prevent the relative rotation of the pull rope and the roller blind from causing tangled wires.
5. The push-pull rolling shutter door based on a cylindrical winding wheel according to claim 4, characterized in that: The structures of the upper left wire compensator, the lower left wire compensator, the upper right wire compensator and the lower right wire compensator are the same.
6. The push-pull rolling shutter door based on a cylindrical winding wheel according to claim 5, characterized in that: The upper left wire compensator includes a first wire compensating wheel, a second wire compensating wheel and a third wire compensating wheel. The first wire compensating wheel, the second wire compensating wheel and the third wire compensating wheel are all provided with wire passing holes. The cylindrical winding wheel is used to wind the wire of the push-pull rolling door. The upper left wire passes through the wire passing hole on the first wire compensating wheel, the wire passing hole on the second wire compensating wheel and the wire passing hole on the third wire compensating wheel in turn to form a circuitous fold line. The first wire compensating wheel and the third wire compensating wheel are respectively provided with a torsion spring A and a torsion spring B. One end of the torsion spring A is fixed on the first wire compensating wheel, and the other end of the torsion spring A is buckled into the clamping hole A on one side of the second wire compensating wheel. One end of the torsion spring B is fixed on the third wire compensating wheel, and the other end of the torsion spring B is buckled into the clamping hole B on the other side of the second wire compensating wheel.
7. The push-pull rolling shutter door based on a cylindrical winding wheel according to claim 6, characterized in that: The upper left wire pulling compensator also includes a machine base, and the first wire pulling compensation wheel, the second wire pulling compensation wheel and the third wire pulling compensation wheel are arranged in a row and rotatably connected to the machine base; the first wire pulling compensation wheel, the second wire pulling compensation wheel and the third wire pulling compensation wheel are respectively provided with a first gear, a second gear and a third gear, the first gear is meshed with the second gear, and the second gear is meshed with the third gear.
8. The push-pull rolling shutter door based on a cylindrical winding wheel according to claim 7, characterized in that: The second wire-drawing compensation wheel is provided with a torsion spring force adjuster, and the torsion spring force adjuster is used to simultaneously adjust the elastic force of torsion spring A and torsion spring B; the torsion spring force adjuster includes a force adjustment column and a limit pin, and the second wire-drawing compensation wheel is a tubular hollow structure, and the force adjustment column is arranged at the center of the second wire-drawing compensation wheel, and the force adjustment column is connected to the inner wall of the second wire-drawing compensation wheel through a plurality of connecting plates, and arc-shaped limit holes A are formed between adjacent connecting plates, and the machine base is provided with limit holes B corresponding to the arc-shaped limit holes A. , rotate the elastic force adjustment column, the elastic force adjustment column drives the second wire pulling compensation wheel to rotate a preset angle, the second wire pulling compensation wheel drives the first wire pulling compensation wheel and the third wire pulling compensation wheel to rotate a preset angle through the first gear, the second gear and the third gear to adjust the elastic force of the torsion spring A and the torsion spring B, and then insert the limit pin into the corresponding arc-shaped limit hole B and the limit hole A. The limit pin is used to limit the reverse rotation of the second wire pulling compensation wheel. During wire pulling compensation, the limit pin slides in the arc-shaped limit hole B during the forward rotation of the second wire pulling compensation wheel.
9. The push-pull rolling shutter door based on a cylindrical winding wheel according to claim 8, characterized in that: The machine base is provided with a fourth wire-pulling compensation wheel and a wire column, the fourth wire-pulling compensation wheel is provided with a wire-pulling through hole, the fourth wire-pulling compensation wheel is installed on the machine base and is arranged in a row with the first wire-pulling compensation wheel, the second wire-pulling compensation wheel and the third wire-pulling compensation wheel, the fourth wire-pulling compensation wheel is provided with a fourth gear, the fourth gear is meshed with the third gear, and the upper left wire passes through the wire-pulling through hole on the fourth wire-pulling compensation wheel; the wire column is provided with a horizontal hole, and the wire of the push-pull rolling door passes through the horizontal hole on the wire column; the wire column is located on one side of the fourth wire-pulling compensation wheel and is arranged in a row with the first wire-pulling compensation wheel, the second wire-pulling compensation wheel, the third wire-pulling compensation wheel and the fourth wire-pulling compensation wheel.
10. The push-pull rolling shutter door based on a cylindrical winding wheel according to claim 9, characterized in that: The elastic force adjustment column is a hexagonal prism structure, or the upper end surface of the elastic force adjustment column is provided with a hexagonal groove, and the hexagonal groove is used to match with a hexagonal wrench.