Integrated sliding block glass lifter structure and automobile

Abstract

The invention relates to the technical field of automobile sliding block glass lifters, and discloses an integrated sliding block glass lifter structure and an automobile, the integrated sliding block glass lifter structure comprises a first guide rail assembly, a second guide rail assembly and a first steel wire rope, and each guide rail assembly is provided with a set of sliding blocks; a sliding groove is formed in each group of sliding blocks; the first steel wire rope is used for being wound on a wire winding drum on a motor supporting frame, the end of the first steel wire rope extends to a sliding groove in the sliding block and is fixed to the steel wire chuck, and the portion, between the steel wire chuck and the bottom of the sliding groove, of the periphery of the first steel wire rope is sleeved with a rectangular spring. The outer side of the first steel wire rope between the end of the first guide rail assembly and the first opening of the motor supporting frame is not sleeved with a spiral steel belt, and the two ends of the spiral steel belt are fixedly connected with the second opening of the motor supporting frame and the end of the second guide rail assembly through chucks. The rectangular spring is arranged in the sliding block, so that the purposes of reducing structural parts, improving the transmission efficiency, reducing the assembly complexity and reducing the cost are achieved.

Description

Technical Field

[0001] The invention relates to the technical field of automobile sliding block glass lifters, in particular to an integrated sliding block glass lifter structure and an automobile. Background Art

[0002] As the width of the side door glass of the car gradually widens, higher requirements are put forward for the structural design stability of the glass lifter. In order to improve the stability of the product, the use rate of the slider glass lifter with double guide rails is getting higher and higher. The structure of the existing double guide rail slider glass lifter mechanism is generally composed of a first guide rail assembly, a second guide rail assembly, a steel cable assembly, and a motor bracket for installing a motor and a wire drum. Among them, the end of the wire rope is passed around the pulley and fixed to the wire clamp embedded in the slider; the upper and lower inlets and outlets of the motor bracket are respectively provided with end sleeve seats, and the lower end of the first guide rail assembly and the upper end of the second guide rail assembly are respectively sleeved on the wire rope between the upper and lower inlets and outlets of the motor bracket. The end of the spiral steel belt close to the inlet and outlet of the motor bracket is provided with an end sleeve, and a spring is provided outside the end sleeve. One end of the spring is fixed to the end of the end sleeve, and the other end is abutted on the end sleeve seat; the end of the spiral steel belt close to the guide rail is provided with a clamp. The moving direction of the wire rope is opposite when the glass is raised and lowered. Under the action of the friction between the wire rope and the spiral steel belt, the corresponding spring is compressed to play a buffering role.

[0003] The inventors have discovered that the existing slider glass lifter has two sets of end sleeves, springs, end sleeve seats, and spiral steel belts, which require a large number of parts. First, there are problems such as complex early assembly, high manufacturing costs, and a long development cycle. At the same time, the assembly structure is heavy and cannot meet the current demand for lightweight automobiles. Second, too many structures cause the motor to overcome a large resistance, resulting in high energy consumption of the motor. Third, because the length of the spiral steel belt is greater than the distance from the end of the guide rail to the inlet and outlet of the motor bracket, the spring does not move completely along the axial direction when the glass is raised or lowered, and abnormal noise in the spring position is prone to occur. Summary of the invention

[0004] In view of the deficiencies in the prior art, an object of the present invention is to provide an integrated slider glass lifter structure and a car to solve the problems in the prior art.

[0005] In order to achieve the above object, the present invention is implemented through the following technical solutions:

[0006] In the first aspect, an integrated slider glass lifter structure includes a first guide rail assembly, a second guide rail assembly, a motor support frame, and a first steel wire rope, each guide rail assembly is provided with a group of sliders; each group of sliders is provided with a slide groove; the first steel wire rope is used to be wound around a wire drum on the motor support frame, and the end portion extends to the slide groove inside the slider and is fixed to a wire clamp, and a rectangular spring is sleeved on the circumference of the first steel wire rope between the wire clamp and the bottom of the slide groove; the outer side of the first steel wire rope between the end portion of the first guide rail assembly and the first opening of the motor support frame is not sleeved with a spiral steel belt, and the outer side of the first steel wire rope between the end portion of the second guide rail assembly and the second opening of the motor support frame is sleeved with a spiral steel belt, and the two ends of the spiral steel belt are fixedly connected to the second opening of the motor support frame and the end portion of the second guide rail assembly through a clamp.

[0007] As a further implementation method, the axis of the first opening of the motor support frame is tangent to the pulley at the lower end of the first guide rail assembly, so that the first steel wire rope directly enters the first opening after bypassing the pulley, and no end sleeve seat structure is set at the first opening.

[0008] As a further implementation method, a first slider is slidably provided on the first guide rail assembly, and a second slider is slidably provided on the second guide rail assembly. Both ends of the first wire rope extend to the sliding grooves on the first slider and the second slider respectively and are fixedly connected to the wire clamps.

[0009] As a further implementation method, the bottom of the slide groove on each group of sliders corresponds to the direction of the first wire rope end, so that when the motor drives the wire drum to rotate, the first wire rope end compresses the rectangular spring under the action of the wire clamp and the bottom of the slide groove.

[0010] As a further implementation, the wire clamp is a T-shaped wire clamp, the end of which is used to abut against one end of the rectangular spring away from the bottom of the groove, and the rectangular spring is sleeved on the peripheral side of the T-shaped wire clamp.

[0011] As a further implementation method, it also includes a second steel wire rope, which is not coordinated with the motor support frame. Both ends of the second steel wire rope pass around the pulleys on the two sets of guide rail assemblies and then enter the two sets of sliders and are fixed by wire clamps. The first steel wire rope and the second steel wire rope are wound into an "8" shape.

[0012] As a further implementation method, the slide groove is a blind hole structure, and the opening at the bottom of the hole allows the first steel wire rope to enter the slide groove through the extension groove on the slider, and the outer diameter of the rectangular spring is adapted to the inner diameter of the slide groove so that the moment spring only moves in the axial direction.

[0013] As a further implementation, a spiral steel belt is sleeved around the circumference of the second steel wire rope, and both ends of the spiral steel belt are fixed at the end positions of the guide rail assembly by a clamp.

[0014] As a further implementation method, a motor and a wire drum are installed on the motor support frame, the motor drives the wire drum to rotate, and the first steel wire rope is wound on the wire drum.

[0015] In a second aspect, a car is provided, wherein an integrated slider glass lifter structure as described above is installed in a door of the car.

[0016] The beneficial effects of the present invention are as follows:

[0017] 1. The present invention arranges an integrated slider and arranges the rectangular spring in a slide groove inside the slider. On the one hand, it can reduce the number of parts, especially by eliminating the lower spiral steel belt, and the assembly process is optimized and reduced at the same time, shortening the development cycle and cost; it can also reduce the internal friction of the lifter assembly, improve the lifting transmission efficiency, and reduce the torque demand of the motor; on the other hand, it effectively reduces the weight of components, reduces energy consumption, and meets lightweight requirements; the movement of the rectangular spring in the slide groove is restricted by the inner wall of the slide groove, which solves the problem of abnormal noise prone to existing springs.

[0018] 2. The regular movement of the rectangular spring of the present invention also helps to improve the lifting efficiency and performance, can reduce the number of winding coils of the motor, and can improve the sound quality of the lifting operation by optimizing the tightness of the wire rope.

[0019] 2. The axis of the first opening of the motor support frame of the present invention is tangent to the pulley at the bottom end of the first guide rail assembly, so that the first steel wire rope can directly enter the first opening after exiting the pulley, and will not interfere with the inside of the first opening during operation. There is no need to set a spiral steel belt, thereby improving transmission efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] The accompanying drawings in the specification, which constitute a part of the present invention, are used to provide a further understanding of the present invention. The exemplary embodiments of the present invention and their descriptions are used to explain the present invention and do not constitute improper limitations on the present invention.

[0021] Figure 1 1 is a schematic diagram of the overall structure of an integrated slider glass lifter according to an embodiment of the present invention;

[0022] Figure 2 It is a schematic diagram of the overall structure of the existing slider glass lifter;

[0023] Figure 3 It is a schematic diagram of the existing motor bracket structure in the existing slider glass lifter;

[0024] Figure 4 is a schematic structural diagram of a first slider in a slider glass lifter in an embodiment of the present invention;

[0025] Figure 5 is a schematic structural diagram of a second slider in a slider glass lifter in an embodiment of the present invention;

[0026] Figure 6 It is a schematic diagram of the rope outlet position structure of the first guide rail assembly in an embodiment of the present invention.

[0027] In the figure: the distances or sizes between parts are exaggerated to show the positions of various parts, and the schematic diagram is for reference only.

[0028] Wherein: 1. first guide rail assembly, 2. second guide rail assembly, 9. motor support frame, 91. first opening, 92. second opening, 11. pulley; 3. first slider, 4. second slider, 31. slide groove, 32. extension groove, 41. slide groove, 5. first steel wire rope, 51. T-type steel wire clamp, 52. rectangular spring;

[0029] 6. Existing motor bracket, 61. upper mouth, 62. lower mouth, 63. end sleeve seat, 64. end sleeve, 65. spring, 66. wire drum, 67. motor, 7. lower spiral steel belt, 71. lower chuck, 8. upper spiral steel belt, 81. upper chuck. DETAILED DESCRIPTION

[0030] It should be noted that the following detailed descriptions are illustrative and intended to provide further explanation of the present invention. Unless otherwise specified, all technical and scientific terms used in the present invention have the same meanings as those commonly understood by those skilled in the art to which the present invention belongs.

[0031] As mentioned in the background technology, the structure of the slider glass lifter in the prior art is as follows: Figure 2 and Figure 3 As shown, it includes two sets of guide rails and an existing motor bracket 6. Each set of guide rails is provided with a set of sliders. Two steel wire ropes are wound into an "8" shape, wherein the main body of the first steel wire rope needs to be wound around the wire drum 66, and both ends are passed around the pulley on the guide rail assembly and fixedly connected to the slider through a wire clamp. Both ends of the second steel wire rope are passed around the remaining two pulleys and fixedly connected to the slider through a wire clamp.

[0032] The ends of the two sets of guide rails and the upper opening 61 and the lower opening 62 of the existing motor bracket 6 are all covered with spiral steel belts around the wire rope. Figure 2 As shown, they are a lower spiral steel belt 7 and an upper spiral steel belt 8, one end of the lower spiral steel belt 7 is fixed to the guide rail through a lower clamp 71, and one end of the upper spiral steel belt 8 is fixed to another guide rail through an upper clamp 81. Two sets of end sleeve seats 63, end sleeves 64, and springs 65 are provided near the upper opening 61 and the lower opening 62 of the corresponding motor bracket 6 of the two sets of spiral steel belts. When the motor 67 drives the wire reel 66 to rotate, the problems mentioned in the background technology are very obvious due to the large number of structural parts here.

[0033] Embodiment 1

[0034] In a typical embodiment of the present invention, reference is made to Figure 1 , Figure 4-Figure 6 As shown, an integrated slider glass lifter structure includes a first guide rail assembly 1, a second guide rail assembly 2, a motor support frame 9, a first steel wire rope 5, and a second steel wire rope. Each set of guide rail assemblies is provided with a set of sliders; each set of sliders is provided with a slide groove; the first steel wire rope is used to be wound around a wire drum on the motor support frame, and the end portion extends to the slide groove inside the slider and is fixed to a wire clamp, and a rectangular spring is sleeved on the circumference of the first steel wire rope between the wire clamp and the bottom of the slide groove; a spiral steel belt is not sleeved on the outer side of the steel wire rope between the end portion of the first guide rail assembly and the first opening of the motor support frame, and a spiral steel belt is sleeved on the outer side of the steel wire rope between the end portion of the second guide rail assembly and the second opening of the motor support frame, and both ends of the spiral steel belt are fixedly connected to the second opening of the motor support frame and the end portion of the second guide rail assembly through a clamp.

[0035] This embodiment improves the existing slider glass lifter by transferring the spring at the opening of the motor bracket to the inside of the slider, thereby reducing structural parts and lowering energy consumption.

[0036] like Figure 1 As shown, a first slider 3 is slidably provided on the first guide rail assembly 1, and a second slider 4 is slidably provided on the second guide rail assembly 2. The first slider 3 and the second slider 4 are used to fix the side window glass of the automobile and synchronously drive the sliders to rise and fall. A set of pulleys are provided at the top and bottom of the first guide rail assembly 1 and the second guide rail assembly 2 for cooperating with the wire rope.

[0037] The motor support frame 9 is disposed between the first guide rail assembly 1 and the second guide rail assembly 2 and is close to the first guide rail assembly 1. The first opening 91 of the motor support frame 9 is downwardly directed toward the pulley 11 at the bottom end of the first guide rail assembly 1. The second opening 92 is upwardly directed toward the pulley at the top end of the second guide rail assembly 2.

[0038] like Figure 1 As shown, the second steel wire rope of the present embodiment does not change, and it does not cooperate with the motor support frame, and maintains the original connection method. Specifically, one end of the second steel wire rope passes around the top pulley of the first guide rail assembly 1 and then enters the first slider 3 downward and is fixed by a wire clamp, and the other end passes around the bottom pulley of the second guide rail assembly 2 and then enters the second slider 4 upward and is fixed by a wire clamp.

[0039] The second steel wire rope portion between the first guide rail assembly 1 and the second guide rail assembly 2 is sleeved with a spiral steel belt, and clamps are provided at both ends of the spiral steel belt. The two ends of the spiral steel belt are fixedly connected to the end positions of the guide rail assemblies through the clamps, which is the existing technology.

[0040] like Figure 1As shown, the motor support frame 8 is used to install the motor and the wire drum. The motor drives the wire drum to rotate. The first wire rope body needs to be wound around the wire drum for several turns. One end of the first wire rope passes through the second opening 92 and extends to the top of the second guide rail assembly 2 and passes around the pulley and then extends into the second slider for fixing. The other end passes through the first opening 91 and extends to the bottom of the first guide rail assembly 1 and passes around the pulley and then extends into the first slider for fixing. In this way, the first wire rope 5 and the second wire rope are wound into an "8" shape.

[0041] like Figure 4 and Figure 5 As shown, they are schematic diagrams of the structures of the first slider 3 and the second slider 4, respectively. The two have similar structures, wherein the first slider 3 and the second slider 4 are both provided with a channel for the second steel wire rope to extend and a space for the wire clamp at the end of the steel wire rope to be clamped, so as to fix the second steel wire rope.

[0042] The first slider 3 is also provided with an extension groove 32 and a slide groove 31 for the first steel wire 5 to enter, and the second slider 4 is provided with an extension groove and a slide groove 41 for the first steel wire 5 to enter. Both ends of the first steel wire 5 extend to the slide grooves on the first slider 3 and the second slider 4 respectively and are fixedly connected to the wire clamps.

[0043] The slide groove of this embodiment is formed by setting a blind hole structure on the slider, and a round hole is opened at the bottom of the groove, i.e., the bottom of the hole, to connect with the extension groove, so that the end of the first wire rope can enter the slide groove. Since the extension directions of the two ends of the first wire rope on the two sets of guide rail assemblies are opposite, the opening directions of the blind holes on the two sliders are also opposite, wherein the blind hole on the first slider 3 opens upward, and the blind hole on the second slider 4 opens downward.

[0044] The end of the first wire rope passes through the extension groove and the circular hole at the bottom of the hole and enters the slide groove and is fixed to the wire clamp. The wire clamp adopts a T-shaped wire clamp, which can slide in the slide groove. A rectangular spring is sleeved on the circumference of the first wire rope between the T-shaped wire clamp and the bottom of the slide groove. Specifically, the rectangular spring is sleeved on the circumference of the T-shaped wire clamp, and the part of the end of the T-shaped wire clamp that is larger than the outer diameter is used to abut one end of the rectangular spring, and the other end of the rectangular spring abuts against the bottom of the groove.

[0045] The bottom of the slide groove on each set of sliders corresponds to the direction of the rope near the end of the first wire rope, so that when the glass is raised or lowered, the motor drives the wire drum to rotate. Under the action of tension, the end of the first wire rope 5 can pull the T-shaped wire clamp and compress the rectangular spring to achieve tensioning and buffering.

[0046] The rectangular spring prevents the wire rope from loosening, enables the wire rope of the lifter to meet the same tensioning force requirements, and meets the elongation of the wire rope for the lifter's durability. It does not cause the wire rope to be too loose during operation, causing the wire rope to fall out of the groove or be entangled, resulting in the lifting and lowering not working. It has the same good reliability.

[0047] The outer diameter of the rectangular spring of this embodiment is adapted to the inner diameter of the slide groove, so that the moment spring only moves in the axial direction, eliminating the problem in the prior art that the spring is arranged at the opening of the motor bracket and is prone to abnormal noise due to irregular movement.

[0048] The integrated slider glass lifter of the present embodiment replaces the spring 65 at the original existing motor bracket 6 with a rectangular spring 52, and the rectangular spring 52 is arranged at the slide groove in the two sets of sliders. Therefore, the improved structure can eliminate the spring 65, the end sleeve 64 and the end sleeve seat 63 at the first opening 91 and the second opening 92 of the motor support frame 9, thereby simplifying the structure of the integrated slider glass lifter.

[0049] like Figure 1 As shown, the outer side of the first steel wire rope between the first opening 91 of the motor support frame 9 and the bottom end of the first guide rail assembly 1 no longer needs to be sleeved with a spiral steel belt, and the first opening 91 does not need to be provided with a mounting seat. The first steel wire rope is wound on the wire drum and comes out through the first opening 91, and then directly bypasses the pulley at the bottom end of the first guide rail assembly and is connected to the first slider. Therefore, this embodiment eliminates the need for a spiral steel belt. Figure 2 The lower spiral steel belt 7 and the lower clamp 71 are also removed, and the spring 65 and the end sleeve 64 at the top of the lower spiral steel belt 7 are also cancelled.

[0050] like Figure 1 and Figure 6 As shown, the axis of the first opening 91 of the motor support frame 9 is tangent to the pulley 11 at the lower end of the first guide rail assembly 1, so that the first steel wire rope 5 can directly enter the first opening 91 after bypassing the pulley 11. There is no need to set an end sleeve seat structure at the first opening 91, and there is no need to set a spiral steel belt on the circumferential side. During transmission, the first steel wire rope 5 will not interfere with the inner wall of the first opening 91.

[0051] like Figure 1 As shown, a spiral steel belt is sleeved on the outside of the first steel wire rope between the end of the second guide rail assembly 2 and the second opening 92 of the motor support frame 9, and the two ends of the spiral steel belt are fixedly connected to the second opening 92 of the motor support frame and the end of the second guide rail assembly 2 through a clamp. Here, only a clamp is required at the end of the spiral steel belt, and there is no need to set a spring and an end sleeve at the second opening 92. There is no need to set an end sleeve seat at the second opening 92 because the position of the rectangular spring is transferred to the second slider 4. The purpose of retaining the spiral steel belt is to support the steel wire rope, prevent the lifter structure from falling apart, and maintain its structural stability.

[0052] In summary, this embodiment replaces the existing spring 65 with a rectangular spring 52 and transfers its installation position to the slide groove of the slider; the structure that can be eliminated includes two springs 65, two end sleeves 64, two end sleeve seats 63, the lower spiral steel belt 7, and the lower clamp 71; in addition to replacing the spring 65 with a rectangular spring 52, it is only necessary to add a clamp at one end of the upper spiral steel belt 8 close to the second opening 92.

[0053] Through the structural design of this embodiment, the first steel wire rope of the glass lifter is designed to be directly wound around the motor wire drum from the pulley outlet end of the guide rail, without the need for the steel wire rope of the traditional mechanism to be guided by the clamp of the guide rail, pass through the sleeve of the spiral steel belt, and be wound around the wire drum through the end sleeve. This structural conversion not only achieves the same lifting function effect, but also has the following advantages compared with the prior art:

[0054] First, the movement of the rectangular spring 52 in the slide groove is restricted by the inner wall of the slide groove, and is a straight up and down type, which solves the problem of abnormal noise prone to existing springs, and improves the sound quality of the lifting operation by optimizing the tightness of the wire rope; the regular movement of the rectangular spring 52 also helps to improve the lifting efficiency and reduce internal friction. After testing, the motor transmission efficiency can be improved by about 11%, and the torque demand for the motor can be reduced by 1.2Nm, thereby reducing the number of motor windings, reducing the model requirements for the motor, and reducing the weight of the motor.

[0055] Secondly, the number of parts has been reduced, especially the elimination of the lower spiral steel belt, which can reduce the internal friction of the lifter assembly, improve the lifting transmission efficiency, and reduce the torque demand on the motor. This effectively reduces the weight of components, reduces energy consumption, and meets lightweight requirements. At the same time, the assembly process is optimized and reduced, reducing the manufacturing cost of the lifter itself and shortening the development cycle.

[0056] Embodiment 2

[0057] In a typical embodiment of the present invention, reference is made to Figure 1 , Figure 4-Figure 6 As shown, a car has an integrated slider glass lifter structure according to the first embodiment installed in its door.

[0058] The motor support frame 9 is designed as a plastic structure, and the mounting bolts docked with the car door can be injection molded together during injection molding. The motor, wire reel, motor support frame 9, and guide rail are locked together by bolts, and the bolts of the motor bracket are fixed together with the car door to fix the lifter.

[0059] Through this new integrated slider design, the rectangular spring of the lifter is embedded into the slider, and the end sleeve, end sleeve seat, large spring, pressure pipe of the lower cable and other parts of the traditional lifter motor bracket are eliminated, and the transmission efficiency of the lifter is improved, and the weight of the motor is reduced. Through this structural conversion, the same lifting function can be achieved. It not only reduces the number of parts, reduces the internal friction of the lifter assembly, improves the lifting transmission efficiency, and reduces the torque demand on the motor, which effectively reduces the weight of parts and reduces energy consumption. At the same time, the BOM parts are reduced, and the assembly process is optimized and reduced, which reduces the manufacturing cost of the lifter itself and shortens the development cycle.

[0060] This integrated slider structure can reduce the Y-dimension of the lifter by about 8 to 10 mm, and occupies less Y-space of the entire door cavity than the traditional structure. Through this structural optimization, it provides more favorable space for the layout of the door guard plate, improves the space utilization rate of the entire vehicle, has good application prospects, and improves customer satisfaction.

[0061] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. For those skilled in the art, the present invention may have various modifications and variations. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. An integrated slider glass lifter structure, characterized in that: The invention comprises a first guide rail assembly, a second guide rail assembly, a motor support frame and a first steel wire rope, each guide rail assembly is provided with a group of sliders; each slider is provided with a slide groove; the first steel wire rope is used to be wound around a wire drum on the motor support frame, and the end portion thereof extends to the slide groove inside the slider and is fixed to a wire clamp, and a rectangular spring is sleeved on the circumference of the first steel wire rope between the wire clamp and the bottom of the slide groove; a spiral steel belt is not sleeved on the outer side of the first steel wire rope between the end portion of the first guide rail assembly and the first opening of the motor support frame, and a spiral steel belt is sleeved on the outer side of the first steel wire rope between the end portion of the second guide rail assembly and the second opening of the motor support frame, and two ends of the spiral steel belt are fixedly connected to the second opening of the motor support frame and the end portion of the second guide rail assembly through a clamp.

2. The integrated slider glass lifter structure according to claim 1, characterized in that: The axis of the first opening of the motor support frame is tangent to the pulley at the lower end of the first guide rail assembly, so that the first steel wire rope directly enters the first opening after passing around the pulley, and no end sleeve seat structure is provided at the first opening.

3. The integrated slider glass lifter structure according to claim 1, characterized in that: A first slider is slidably provided on the first guide rail assembly, and a second slider is slidably provided on the second guide rail assembly. Both ends of the first steel wire rope extend to the sliding grooves on the first slider and the second slider respectively and are fixedly connected to the steel wire clamp.

4. The integrated slider glass lifter structure according to claim 3, characterized in that: The bottom of the slide groove on each set of sliders corresponds to the direction of the first wire rope end, so that when the motor drives the wire drum to rotate, the first wire rope end compresses the rectangular spring under the action of the wire clamp and the bottom of the slide groove.

5. The integrated slider glass lifter structure according to claim 4, characterized in that: The wire clamp is a T-shaped wire clamp, the end of which is used to abut against one end of a rectangular spring away from the bottom of the groove, and the rectangular spring is sleeved on the peripheral side of the T-shaped wire clamp.

6. The integrated slider glass lifter structure according to claim 3, characterized in that: It also includes a second steel wire rope, which is not matched with the motor support frame. Both ends of the second steel wire rope pass around the pulleys on the two sets of guide rail assemblies and then enter the two sets of sliders and are fixed by wire clamps. The first steel wire rope and the second steel wire rope are wound into an "8" shape.

7. The integrated slider glass lifter structure according to claim 1, characterized in that: The slide groove is a blind hole structure, and the opening at the bottom of the hole allows the first wire rope to enter the slide groove through the extension groove on the slider. The outer diameter of the rectangular spring is adapted to the inner diameter of the slide groove so that the moment spring only moves in the axial direction.

8. The integrated slider glass lifter structure according to claim 6, characterized in that: A spiral steel belt is sleeved around the circumference of the second steel wire rope, and the two ends of the spiral steel belt are fixed at the end positions of the guide rail assembly through a clamp.

9. The integrated slider glass lifter structure according to claim 1, characterized in that: The motor support frame is provided with a motor and a wire reel, the motor drives the wire reel to rotate, and the first steel wire rope is wound around the wire reel.

10. An automobile, characterized in that: An integrated slider glass lifter structure as claimed in any one of claims 1 to 9 is installed in a door of a car.

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