A slide rail blocking point anti-shaking structure
Patent Information
- Application Number
- CN202522577156.2
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-12-04
- Publication Date
- 2026-10-16
- Estimated Expiration
- 2035-12-04
AI Technical Summary
[0005]此机构只具有使衣架快速停止晃动的功能，但是防晃钩的复位通过复位弹簧来实现，复位弹簧或簧片等其他弹性件都有使用寿命，需要维护
本申请提供的下滑轨道挡点防晃结构，倾斜轨道安装于挂架的下翼，供衣架滚轮移动。阻挡放行机构设于挂架的上翼，用于阻挡和放行沿倾斜轨道下滑的衣架。柔性件可灵活安装于挂架下翼或倾斜轨道下端，在衣架杆推力下自动向内弯曲，使衣架沿倾斜轨道正常下滑，衣架杆越过后立即恢复阻挡状态。通过弧面与衣架杆接触，精准限制衣架杆摆动幅度，快速平息晃动，避免衣架因晃幅过大脱离倾斜轨道，既保证衣架的通行效率，又不影响防晃效果。柔性件依靠自身的弹力实现复位，柔性材质与弧面避免刚性碰撞，缓冲衣架杆的冲击力，显著延长整体结构的使用寿命；同时减少了维护频次和备件成本，降低企业长期运营开销。
Smart Images
Figure CN224857760U_ABST
Abstract
Description
Technical Field
[0001] This application relates to the field of suspension system technology, and in particular to a sliding track anti-sway structure. Background Technology
[0002] The hanging system is used in garment and home textile manufacturing enterprises. It includes a circular track with several workstations spaced along its route, each with a workstation below it. Garment pieces hanging on hangers are transported by the system along the circular track to the designated workstation for processing. After processing, they are lifted by a lifting mechanism and enter the circular track from the exit of that workstation, where they are sent to the next workstation for the next processing step.
[0003] Before the lifting mechanism at the workstation and both when the hangers are lifted to the exit support rail, they are blocked by the release mechanism, causing them to stop. The release mechanism then releases the hangers one by one smoothly. Generally, when a hanger hits the release mechanism, it will sway back and forth several times before stopping. If the hanger is released while still swaying, its movement will be extremely unstable, especially during the transition from the curved exit support rail to the main rail, where hangers frequently fall or get stuck.
[0004] To address the aforementioned issues, the applicant developed a "clothes hanger anti-sway mechanism" (application number: 2017205589492), which includes a release mechanism installed above a track, an anti-sway hook rotatably installed below the release mechanism, and a spring on the anti-sway hook to reset it. The hook's gripping opening faces the direction of the clothes hanger's movement. When the clothes hanger enters the release mechanism, it pushes away the anti-sway hook, is blocked by the release mechanism, and then sways forward, followed by swaying backward. Due to the action of the reset spring, the anti-sway hook resets, and the hanger, when caught, quickly stops swaying.
[0005] This mechanism only has the function of quickly stopping the hanger from shaking, but the anti-shake hook is reset by a reset spring. The reset spring or other elastic components have a lifespan and require maintenance. Utility Model Content
[0006] Based on this, this application provides a sliding track stop anti-sway structure that relies on its own elasticity to reset, which improves service life and saves costs.
[0007] This application provides a sliding track anti-sway structure for quickly stopping a clothes hanger from wobbling. The clothes hanger includes hanger rollers, a hanger rod, and a body. The sliding track anti-sway structure includes: Hanging rack; An inclined track is installed on the lower wing of the hanger, and the hanger rollers roll within the inclined track; A blocking and releasing mechanism is installed on the upper wing of the hanger and located above the inclined track; A flexible component is installed on the lower wing of the hanger or the lower end of the inclined track. The flexible component includes a fixed part and a flexible swing part. One end of the flexible swing part is connected to the fixed part, and the other end is a free end. The surface of the free end away from the fixed part is an inwardly extending arc surface. The free end is used to bend inward under the thrust of the hanger rod and return to its original position after the hanger rod passes over it, so as to block the swing of the hanger rod through the arc surface.
[0008] In some embodiments, the curved surface matches the outer periphery of the clothes hanger rod.
[0009] In some embodiments, along the downward direction of the hanger, the flexible swing portion is provided with a hanger rod contact surface that slopes outward from upstream, the downstream end of the hanger rod contact surface is connected to the arc surface, and a portion of the hanger rod contact surface extends into the downward channel of the hanger rod.
[0010] In some embodiments, the clothes hanger rod has a plurality of notches spaced apart on its contact surface.
[0011] In some embodiments, the flexible swing portion is provided with a pressure relief hole, which extends along the length direction of the flexible swing portion.
[0012] In some embodiments, the shape of the pressure relief hole matches the shape of the flexible swing portion, so that a thin wall is formed on the outer periphery of the flexible swing portion.
[0013] In some embodiments, the inner side of the connection between the flexible swing part and the fixed part is provided with a notch that communicates with the pressure relief hole.
[0014] In some embodiments, the fixing part is provided with a limiting step and screw holes.
[0015] In some embodiments, the flexible swinging part is an integrally formed flexible structure.
[0016] In some embodiments, the flexible swinging part is an integrally molded plastic structure, silicone structure, or rubber structure.
[0017] Compared with the prior art, the technical solution provided in this application has the following advantages: The anti-sway structure provided in this application features an inclined track installed on the lower wing of the hanger for the movement of the hanger rollers. A blocking and releasing mechanism is located on the upper wing of the hanger to block and release hangers sliding down the inclined track. A flexible component can be flexibly installed on the lower wing of the hanger or the lower end of the inclined track. Under the thrust of the hanger rod, it automatically bends inward, allowing the hanger to slide normally down the inclined track. After the hanger rod passes, it immediately returns to its blocking state. Through the contact of the curved surface with the hanger rod, the swing amplitude of the hanger rod is precisely limited, quickly calming the sway and preventing the hanger from detaching from the inclined track due to excessive sway. This ensures both the efficiency of hanger passage and the anti-sway effect. The flexible component relies on its own elasticity to achieve reset. The flexible material and the curved surface avoid rigid collisions, buffering the impact force of the hanger rod and significantly extending the service life of the overall structure. Simultaneously, it reduces maintenance frequency and spare parts costs, lowering long-term operating expenses for enterprises. Attached Figure Description
[0018] Figure 1 A schematic diagram of the anti-sway structure of the sliding track stop provided in this application; Figure 2 A schematic diagram illustrating the use of the anti-sway structure at the sliding track stop provided in this application; Figure 3 A schematic diagram of the flexible component in the anti-sway structure of the sliding track stop provided in this application; Figure 4 A top view of the flexible component in the anti-sway structure of the sliding track stop provided in this application; Figure 5 A diagram showing the state of the clothes hanger rod of the anti-sway structure of the sliding track provided in this application when the flexible swinging part is pushed inward; Figure 6 A diagram showing the state of the clothes hanger rod that stops swinging after passing the contact surface of the clothes hanger rod anti-sway structure provided in this application; Figure 7 A top view of another structure of the flexible component in the anti-sway structure of the sliding track stop provided in this application; Figure 8 for Figure 7 Diagram showing the state of the flexible swing section when the middle clothes rack rod is pushed inward; Figure 9 for Figure 7 Diagram showing the state of the clothes hanger rod when it stops swinging after passing the contact surface of the clothes hanger rod.
[0019] Explanation of reference numerals in the attached figures: 1. Inclined track; 2. Hanging rack; 3. Blocking and releasing mechanism; 4. Flexible components; 4.1 Fixing part; 4.1.1 Limiting step; 4.1.2 Screw hole; 4.2 Flexible swing section; 4.2.1 Clothes hanger rod contact surface; 4.2.2 Curved surface; 4.2.3 Notch groove; 4.2.4 Pressure relief hole; 4.2.5 Notch; 5. Clothes hanger; 5.1. Clothes hanger casters; 5.2. Clothes hanger rod; 5.3. Main body. Detailed Implementation
[0020] To make the above-mentioned objectives, features, and advantages of this application more apparent and understandable, the specific embodiments of this application are described in detail below with reference to the accompanying drawings. Many specific details are set forth in the following description to provide a thorough understanding of this application. However, this application can be implemented in many other ways different from those described herein, and those skilled in the art can make similar modifications without departing from the spirit of this application. Therefore, this application is not limited to the specific embodiments disclosed below.
[0021] See Figures 1 to 6 , Figure 1 A schematic diagram of the anti-sway structure of the sliding track stop provided in this application; Figure 2 A schematic diagram illustrating the use of the anti-sway structure at the sliding track stop provided in this application; Figure 3 A schematic diagram of the flexible component in the anti-sway structure of the sliding track stop provided in this application; Figure 4 A top view of the flexible component in the anti-sway structure of the sliding track stop provided in this application; Figure 5 A diagram showing the state of the clothes hanger rod of the anti-sway structure of the sliding track provided in this application when the flexible swinging part is pushed inward; Figure 6 A diagram showing the state of the clothes hanger rod that stops swinging after passing the contact surface of the clothes hanger rod anti-sway structure provided in this application.
[0022] This application provides a sliding track anti-sway structure for quickly stopping the clothes hanger 5 from shaking. The clothes hanger 5 includes a clothes hanger roller 5.1, a clothes hanger rod 5.2 and a body 5.3. The sliding track anti-sway structure includes an inclined track 1, a hanging bracket 2, a blocking and releasing mechanism 3 and a flexible component 4. The inclined track 1 is installed on the lower wing of the hanger 2, and the hanger roller 5.1 rolls within the inclined track 1; the blocking and releasing mechanism 3 is installed on the upper wing of the hanger 2 and is located above the inclined track 1; the flexible component 4 is installed on the lower wing of the hanger 2 or the lower end of the inclined track 1. The flexible component 4 includes a fixed part 4.1 and a flexible swing part 4.2. One end of the flexible swing part 4.2 is connected to the fixed part 4.1, and the other end is a free end. The surface of the free end away from the fixed part 4.1 is an inwardly extending arc surface 4.2.2. The free end is used to bend inward under the pushing force of the hanger rod 5.2 and return to its original position after the hanger rod 5.2 passes over, so as to block the swing of the hanger rod 5.2 through the arc surface 4.2.2.
[0023] In this embodiment, the hanger 2 is a C-shaped hanger with sufficient installation space on both the upper and lower wings, while maintaining adequate structural strength. Based on this support, an inclined track 1 is installed on the lower wing of the hanger 2 for the movement of the hanger rollers 5.1. A blocking and releasing mechanism 3 is located on the upper wing of the hanger 2 to block and release the hangers 5 sliding down the inclined track 1. A flexible component 4 can be flexibly installed on the lower wing of the hanger 2 or at the lower end of the inclined track 1. Under the thrust of the hanger rod 5.2, it automatically bends inward, allowing the hanger 5 to slide normally down the inclined track 1. After the hanger rod 5.2 passes, the flexible component 4 immediately returns to its blocking state. Through the contact between the arc surface 4.2.2 and the hanger rod 5.2, the swing amplitude of the hanger rod 5.2 is precisely limited, quickly calming its sway and preventing the hanger 5 from detaching from the inclined track 1 due to excessive sway. This ensures the efficiency of the hanger 5's passage without affecting the anti-sway effect. The flexible component 4 achieves reset by its own elasticity. Both the flexible material and the curved surface 4.2.2 can avoid rigid collisions and buffer the impact force of the clothes hanger rod 5.2, significantly extending the service life of the overall structure. At the same time, it reduces the frequency of maintenance and spare parts costs, reducing the long-term operating expenses of the enterprise.
[0024] Please refer to it again. Figure 3 and Figure 4 In some embodiments, the curved surface 4.2.2 matches the outer periphery of the clothes hanger rod 5.2.
[0025] Specifically, the curved surface 4.2.2 precisely matches the outer circumference of the hanger rod 5.2, ensuring a complete surface fit when they come into contact. When the hanger 5 is blocked by the blocking and releasing mechanism 3, the hanger rod 5.2 swings back due to inertia. The curved surface 4.2.2 can fit against the outer circumference of the hanger rod 5.2 in all directions, quickly releasing the force and allowing the hanger rod 5.2 to stop swinging smoothly in a short time. This significantly improves the anti-sway efficiency, ensuring that the hanger 5 waits for release in a stable posture, and eliminating the risk of the tilted track 1 getting stuck or the hanger 5 falling due to unstable release.
[0026] Furthermore, since the curved surface 4.2.2 perfectly matches the outer contour of the hanger rod 5.2, the pressure is evenly distributed throughout the entire contact area of the curved surface 4.2.2 during contact, avoiding localized stress concentration. On the one hand, this prevents the hanger rod 5.2 from wearing down or deforming due to excessive localized stress, extending the service life of the hanger 5; on the other hand, it reduces localized impacts on the flexible swing part 4.2, preventing the flexible component 4 from experiencing elasticity decay or breakage due to long-term localized stress, further improving the durability of the flexible component 4 and reducing replacement and maintenance costs.
[0027] Please refer to it again. Figure 3 and Figure 4In some embodiments, along the downward direction of the hanger 5, the flexible swing part 4.2 is provided with a hanger rod contact surface 4.2.1 that is inclined outward from the upstream. The downstream end of the hanger rod contact surface 4.2.1 is connected to the arc surface 4.2.2, and part of the hanger rod contact surface 4.2.1 extends into the downward channel of the hanger rod 5.2.
[0028] The downward channel of the hanger rod 5.2 can also be understood as the downward path of the hanger 5.2. The contact surface 4.2.1 of the hanger rod extends into the downward channel of the hanger rod 5.2. When the hanger 5 slides down the inclined track 1, the hanger rod 5.2 will naturally contact and apply a pushing force along the inclined contact surface 4.2.1. The inclination angle of the flexible swing part 4.2 forms a natural guide, avoiding hard impacts and jamming problems caused by vertical or reverse contact. In this way, the flexible swing part 4.2 can bend smoothly inward, which does not hinder the normal downward rhythm of the hanger 5, and ensures the effective deformation of the flexible swing part 4.2. The elasticity of the flexible swing part 4.2 itself ensures the smoothness of the subsequent reset action and improves the smoothness of the overall conveying process.
[0029] Please refer to it again. Figure 3 and Figure 4 In some embodiments, the clothes hanger rod contact surface 4.2.1 is provided with a plurality of notches 4.2.3 spaced apart.
[0030] When the hanger rod 5.2 slides down and pushes along the hanger rod contact surface 4.2.1, the notch groove 4.2.3 can provide deformation buffer space for the flexible swing part 4.2, making the flexible swing part 4.2 bend inward more easily without the hanger rod 5.2 applying excessive pushing force. This avoids the hanger 5 from getting stuck or slowing down due to hard pushing, ensuring the smooth conveying rhythm of the hanger 5 along the inclined track 1, while reducing the pushing load on the hanger rod 5.2.
[0031] Furthermore, the multiple spaced notches 4.2.3 allow for adjustment of the deformation amplitude of the flexible swing section 4.2, enabling it to adapt to hanger rods 5.2 of different diameters or hangers 5 with different sliding speeds. For hangers 5 with slightly larger diameters or faster sliding speeds, the notches 4.2.3 provide greater bending allowance, preventing excessive stretching of the flexible swing section 4.2; for hangers 5 with smaller diameters or slower speeds, they also ensure that the flexible swing section 4.2 is effectively pushed and deformed.
[0032] Please refer to it again. Figure 3 and Figure 4 In some embodiments, the flexible swing portion 4.2 is provided with a pressure relief hole 4.2.4, which extends along the length direction of the flexible swing portion 4.2.
[0033] When the hanger rod 5.2 slides down and pushes along the hanger rod contact surface 4.2.1, the pressure relief hole 4.2.4 can accommodate the stretching and compression deformation of the materials on both sides, so that the flexible swing part 4.2 can bend inward more smoothly, ensuring the smoothness of conveying along the inclined track 1, reducing the thrust load of the hanger rod 5.2, and reducing contact wear.
[0034] Secondly, when the flexible swing part 4.2 is repeatedly bent and reset, it is easy to generate concentrated stress inside. The pressure relief hole 4.2.4 runs through the entire length direction, which can evenly distribute the internal stress generated by deformation to the entire length range of the flexible swing part 4.2, and avoid stress superposition in local areas.
[0035] It is understandable that the pressure relief hole 4.2.4, together with the notch 4.2.3 on the contact surface 4.2.1 of the clothes hanger rod, can achieve dual stress dispersion through external segmentation and internal pressure relief, which can significantly improve the fatigue resistance of the flexible component 4, extend its service life, and reduce maintenance and replacement costs.
[0036] Please see Figures 7 to 9 , Figure 7 A top view of another structure of the flexible component in the anti-sway structure of the sliding track stop provided in this application; Figure 8 for Figure 7 Diagram showing the state of the flexible swing section when the middle clothes rack rod is pushed inward; Figure 9 for Figure 7 A diagram showing the state when the clothes hanger rod stops swinging after passing the contact surface of the clothes hanger rod. In some embodiments, the shape of the pressure relief hole 4.2.4 matches the shape of the flexible swing part 4.2, so that the outer periphery of the flexible swing part 4.2 forms a thin wall.
[0037] Because the pressure relief hole 4.2.4 matches the shape of the flexible swing part 4.2, the thickness of the outer thin wall can remain uniform, avoiding stress concentration caused by excessive thickness or thinness in certain areas. When the flexible swing part 4.2 repeatedly bends and returns to its original position, the stress can be evenly distributed throughout the thin wall area, rather than concentrated at a single point, effectively reducing fatigue wear caused by long-term deformation. Combined with the internal pressure distribution effect of the pressure relief hole 4.2.4, the fatigue resistance of the flexible component 4 is significantly improved, its service life is extended, and maintenance and replacement costs are reduced.
[0038] Please refer to it again. Figures 7 to 9 In some embodiments, the inner side of the connection between the flexible swing part 4.2 and the fixed part 4.1 is provided with a notch 4.2.5 that communicates with the pressure relief hole 4.2.4.
[0039] When the flexible swinging part 4.2 is pushed and bent by the hanger rod 5.2, the concentrated stress generated inside can be quickly transmitted to the notch 4.2.5 through the pressure relief hole 4.2.4, avoiding stress accumulation at the root, significantly improving the fatigue resistance of the flexible part 4, extending its service life, and reducing maintenance and replacement costs. Secondly, when the hanger rod 5.2 slides down and pushes along the inclined hanger rod contact surface 4.2.1, the flexible swinging part 4.2 can flexibly bend along the notch 4.2.5, achieving smooth deformation without the hanger 5 applying excessive pushing force. This avoids the hanger 5 from getting stuck and slowing down when sliding down the inclined track 1, ensuring the conveying rhythm, and also prevents hard bending damage at the root due to forced bending, further protecting the structural integrity of the flexible part 4.
[0040] Please refer to it again. Figure 3 and Figure 4 In some embodiments, the fixing part 4.1 is provided with a limiting step 4.1.1 and a screw hole 4.1.2.
[0041] Specifically, the limiting step 4.1.1 of the fixing part 4.1 can quickly form a close fit with the mounting surface of the lower wing of the hanger 2 or the inclined track 1 during installation, clearly defining the installation height and horizontal position of the flexible part 4 and avoiding installation misalignment. It also ensures that part of the hanger rod contact surface 4.2.1 extends into the downward channel of the hanger rod 5.2, and that the curved surface 4.2.2 is aligned with the swing path of the hanger rod 5.2.
[0042] Screw hole 4.1.2 provides a reliable bolt connection for flexible component 4, allowing fixed part 4.1 to be tightly secured to the mounting surface. When flexible swing part 4.2 repeatedly withstands the pushing impact of clothes hanger rod 5.2 and its own rebound force, it can effectively resist vibration and displacement, preventing flexible component 4 from loosening or falling off, ensuring the overall structure remains stable during long-term, high-frequency use, and further guaranteeing the continuous operation of the hanging system.
[0043] In some embodiments, the flexible swing part 4.2 is an integrally formed flexible structure.
[0044] The flexible swing section 4.2 adopts a one-piece molding design with no splicing, bonding, or assembly gaps, avoiding cracking and detachment at the splice points due to repeated bending and impact. Its continuous structure of flexible material can evenly bear the pushing force of the clothes hanger rod 5.2 and its own rebound stress, significantly improving the fatigue resistance of the flexible swing section 4.2, ensuring that it can maintain stable deformation and recovery ability during long-term high-frequency use, and extending the overall service life of the flexible component 4.
[0045] Meanwhile, this embodiment of the application uses integral molding to ensure the tilt angle of the hanger rod contact surface 4.2.1, the matching degree between the arc surface 4.2.2 and the outer periphery of the hanger rod 5.2, and the position and size of the pressure relief hole 4.2.4 and the notch 4.2.5, avoiding functional surface misalignment caused by assembly errors. This further ensures that the hanger rod 5.2 smoothly pushes along the contact surface 4.2.1 when sliding down and contacts the arc surface 4.2.2 to relieve pressure when swinging back.
[0046] The flexible swing part 4.2 can be completed in one piece through injection molding and other processes, without the need for subsequent splicing and assembly processes, which greatly reduces processing steps and labor costs.
[0047] In some embodiments, the flexible swinging part 4.2 is an integrally molded plastic structure, silicone structure, or rubber structure.
[0048] Specifically, the plastic, silicone, and rubber materials themselves possess excellent flexibility and resilience. Combined with the one-piece molded structure, the flexible swinging part 4.2 can quickly return to its original position after bending due to the elasticity of its own materials. When the hanger rod 5.2 pushes past the hanger rod contact surface 4.2.1, the flexible swinging part 4.2 can immediately rebound to its initial position, ensuring that the curved surface 4.2.2 accurately blocks the swinging hanger rod 5.2, quickly releasing force and stopping swaying, and avoiding secondary swaying. At the same time, it avoids the problem of fatigue failure and frequent replacement of elastic components, significantly extending the service life of the flexible component 4 and reducing maintenance costs.
[0049] The working principle of this application embodiment is as follows.
[0050] As the hanger 5 slides down the inclined track 1, when it reaches the flexible component 4, the flexible swinging part 4.2 extends into the sliding channel of the hanger rod 5.2, and the hanger rod 5.2 contacts the hanger rod contact surface 4.2.1, pushing the flexible swinging part 4.2 inward and causing it to bend inward. After the hanger rod 5.2 passes the downstream end of the hanger rod contact surface 4.2.1, the flexible swinging part 4.2 returns to its original position due to its own elasticity. At this time, the hanger roller 5.1 is blocked by the blocking and releasing mechanism 3, causing the hanger rod 5.2 to swing downstream due to inertia. When the hanger rod 5.2 swings back, it is blocked and dissipated by the arc surface 4.2.2 of the flexible swinging part 4.2, thus causing the hanger rod 5.2 to stop swinging quickly.
[0051] The technical features of the above embodiments can be combined in any way. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.
[0052] The embodiments described above are merely illustrative of several implementation methods of this application, and while the descriptions are specific and detailed, they should not be construed as limiting the scope of this patent application. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this application, and these all fall within the protection scope of this application. Therefore, the protection scope of this patent application should be determined by the appended claims.
Claims
1. A sliding track anti-sway structure for quickly stopping the swaying of a clothes hanger (5), the clothes hanger (5) comprising hanger rollers (5.1), hanger rods (5.2), and a body (5.3), characterized in that, The anti-sway structure of the sliding track includes: Hanging rack (2); An inclined track (1) is installed on the lower wing of the hanger (2), and the hanger rollers (5.1) roll within the inclined track (1); The blocking release mechanism (3) is installed on the upper wing of the hanger (2) and located above the inclined track (1); A flexible component (4) is installed on the lower wing of the hanger (2) or the lower end of the inclined track (1). The flexible component (4) includes a fixed part (4.1) and a flexible swing part (4.2). One end of the flexible swing part (4.2) is connected to the fixed part (4.1), and the other end is a free end. The surface of the free end away from the fixed part (4.1) is an inwardly extending arc surface (4.2.2). The free end is used to bend inward under the thrust of the hanger rod (5.2) and reset after the hanger rod (5.2) passes by, so as to block the swing of the hanger rod (5.2) through the arc surface (4.2.2).
2. The anti-sway structure of the sliding track stop point according to claim 1, characterized in that, The arc surface (4.2.2) matches the outer periphery of the clothes hanger rod (5.2).
3. The anti-sway structure of the sliding track stop point according to claim 1, characterized in that, Along the downward direction of the hanger (5), the flexible swing part (4.2) is provided with a hanger rod contact surface (4.2.1) that is inclined outward from the upstream. The downstream end of the hanger rod contact surface (4.2.1) is connected to the arc surface (4.2.2), and part of the hanger rod contact surface (4.2.1) extends into the downward channel of the hanger rod (5.2).
4. The anti-sway structure of the sliding track stop point according to claim 3, characterized in that, The clothes hanger rod contact surface (4.2.1) is provided with multiple notches (4.2.3) spaced apart.
5. The anti-sway structure for the sliding track stop point according to claim 3 or 4, characterized in that, The flexible swing part (4.2) is provided with a pressure relief hole (4.2.4), which extends along the length direction of the flexible swing part (4.2).
6. The anti-sway structure of the sliding track stop point according to claim 5, characterized in that, The shape of the pressure relief hole (4.2.4) matches the shape of the flexible swing part (4.2), so that a thin wall is formed on the outer periphery of the flexible swing part (4.2).
7. The anti-sway structure of the sliding track stop point according to claim 6, characterized in that, The flexible swing part (4.2) is provided with a notch (4.2.5) on the inner side of the connection between the fixed part (4.1) and the fixed part (4.2.4), which communicates with the pressure relief hole (4.2.4).
8. The anti-sway structure of the sliding track stop point according to claim 1, characterized in that, The fixing part (4.1) is provided with a limiting step (4.1.1) and a screw hole (4.1.2).
9. The anti-sway structure of the sliding track stop point according to claim 1, characterized in that, The flexible swing part (4.2) is an integrally formed flexible structure.
10. The anti-sway structure for the sliding track stop point according to claim 9, characterized in that, The flexible swinging part (4.2) is an integrally molded plastic structure, silicone structure or rubber structure.