Spring bar assembly, watchband and watch

By designing an ear-generating component with a linkage structure, the disassembly and assembly problems caused by the fastening of the ear-generating component in the prior art are solved, and a simple one-click disassembly and assembly of the ear-generating component is realized, making it easier for users to replace the watch strap or repair the dial.

CN222997500UActive Publication Date: 2025-06-20ZHONGSHAN WATCHLINK TECHNOLOGY CO LTD
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Patent Information

Application Number
CN202422189544.9
Authority / Receiving Office
CN · China
Patent Type
Utility models(China)
Current Assignee / Owner
Filing Date
2024-09-06
Publication Date
2025-06-20
Estimated Expiration
2034-09-06

AI Technical Summary

Technical Problem

In the prior art, the connection between the ear and the equipment body is relatively tight, and professional tools are required or a watch repair shop is required to disassemble it, which makes it difficult to replace the watch strap and is inconvenient for users to disassemble and assemble the ear.

Method used

An ear-generating assembly is designed, including a mounting base, a button, an ear-generating rod and an elastic member. The ear-generating rod is retracted and extended through a linkage structure, and the user can disassemble and assemble the ear-generating assembly with one key through a button.

Benefits of technology

It realizes simple disassembly and assembles the ear-generating components, reducing the difficulty of disassembly and assembles, and makes it easier for users to replace the watch strap or repair the dial by themselves.

✦ Generated by Eureka AI based on patent content.

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Abstract

The utility model relates to the technical field of watches, in particular to a spring bar assembly, a watchband and a watch, the watch comprises a dial plate and the watchband, the watchband comprises a body and the spring bar assembly, and the spring bar assembly is installed on the body and used for connecting the watchband and the dial plate; the spring bar assembly comprises a mounting base, a key, a spring bar rod and an elastic piece, the key, the spring bar rod and the elastic piece are arranged in the mounting base, a first containing cavity and a second containing cavity which are distributed in the radial direction of the spring bar rod are formed in the mounting base, the key is arranged in the first containing cavity, the spring bar rod is arranged in the second containing cavity, a linkage structure is arranged between the spring bar rod and the key, and the key can move relative to the mounting base. The spring bar is driven by the linkage structure to slide towards the interior of the mounting seat along the axial direction; the elastic piece can drive the spring bar rod to slide towards the outside of the mounting base in the axial direction, the spring bar dismounting difficulty is reduced, and a user can conveniently dismount the spring bar assembly to replace a watchband or maintain a dial plate by himself / herself.
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Description

Technical Field

[0001] The utility model relates to the technical field of watches, in particular to a spring bar assembly, a watch band and a watch. Background Art

[0002] As an essential component of a wristband device, in order to meet the requirements of different occasions, users often need to replace the watch band. In the prior art, the watch band is usually connected to the device body through a spring bar. The spring bar has a certain strength, and the double-headed thimble can be telescoped for assembly and disassembly with the watch body. It can be applied to various forms of watches, including but not limited to mechanical watches, quartz watches, electronic watches, children's watches, smart watches, smart bracelets and other wearable devices. The spring bar can support watch bands made of various materials such as leather, cloth, metal, rubber, and ceramic. When the user needs to replace the watch band, first remove the spring bar from the device body, then replace it with a new watch band, and then reconnect the spring bar to the device body. Since the connection between the spring bar and the device body is relatively tight, professional tools are often required for disassembly, or the watch needs to be taken to a watch repair shop for disassembly to replace the watch band or repair the dial, which makes the replacement of the watch band very troublesome and not convenient for users to disassemble and assemble the spring bar by themselves.

[0003] The present utility model is studied and proposed in view of the deficiencies of the prior art. Summary of the Utility Model

[0004] In view of the problem in the prior art that the connection between the spring bar and the wristband device is relatively tight, professional tools are often required for disassembly, or the watch needs to be taken to a watch repair shop for disassembly to replace the watch band or repair the dial, resulting in very troublesome replacement of the watch band and not being convenient for users to disassemble and assemble the spring bar by themselves, the present utility model provides a spring bar assembly, a watch band and a watch.

[0005] The technical solution adopted by the present utility model to solve its technical problems is as follows:

[0006] A spring bar assembly, the spring bar assembly includes a mounting base, and a button, a spring bar and an elastic member arranged in the mounting base. The mounting base is provided with a first accommodation cavity and a second accommodation cavity distributed radially along the spring bar. The button is arranged in the first accommodation cavity, the spring bar is arranged in the second accommodation cavity, a linkage structure is arranged between the spring bar and the button, the button can move relative to the mounting base, and the spring bar is driven to slide axially towards the inside of the mounting base through the linkage structure; the elastic member can drive the spring bar to slide axially towards the outside of the mounting base.

[0007] An earpiece assembly as described above, wherein the earpiece rod at least includes a first earpiece rod and a second earpiece rod oppositely arranged in the second accommodating cavity, a linkage structure is provided between the button and the first earpiece rod and / or the second earpiece rod, the button can drive the first earpiece rod and / or the second earpiece rod to slide axially towards the inside of the mounting seat through the linkage structure, and the elastic member is arranged between the first earpiece rod and the second earpiece rod.

[0008] An earpiece assembly as described above, wherein the linkage structure includes a first guiding portion provided in the button and a second guiding portion provided in the earpiece rod, the button and the earpiece rod are in abutment through the first guiding portion and the second guiding portion, and the first guiding portion can drive the second guiding portion to drive the earpiece rod to slide axially towards the inside of the mounting seat.

[0009] An earpiece assembly as described above, wherein the first guiding portion includes a first guiding groove provided in the button and a first side wall provided in the first guiding groove, along the moving direction of the button, there is a first preset angle between the extending direction of the first side wall and the moving direction of the button, and the button abuts against the second guiding portion through the first side wall.

[0010] An earpiece assembly as described above, wherein the first guiding groove extends towards the top of the button and forms a relief groove above the first side wall.

[0011] An earpiece assembly as described above, wherein the second guiding portion includes a second guiding groove provided in the earpiece rod and a second side wall provided in the second guiding groove, along the radial direction of the earpiece rod, there is a second preset angle between the extending direction of the second side wall and the radial direction of the earpiece rod, and the earpiece rod abuts against the first guiding portion through the second side wall.

[0012] An earpiece assembly as described above, wherein the second guiding portion further includes a third side wall provided in the second guiding groove, the third side wall is connected to the second side wall, and there is a third preset angle between the extending direction of the third side wall and the extending direction of the second side wall, or between the extending direction of the third side wall and the radial direction of the earpiece rod.

[0013] An earpiece assembly as described above, wherein the mounting seat includes a sleeve and a sleeve rod, the first accommodating cavity is provided in the sleeve, the second accommodating cavity is provided in the sleeve rod, the first accommodating cavity is communicated with the second accommodating cavity, the first accommodating cavity is communicated with the outside for the button to pass through the outside of the sleeve, and the second accommodating cavity is communicated with the outside for the earpiece rod to pass through the outside of the sleeve rod; a clamping portion is provided in the button, and the clamping portion can move in the second accommodating cavity through the button and abut against the top of the second accommodating cavity or the earpiece rod.

[0014] The present utility model also provides a watchband, which includes a body and the spring bar assembly as described above, and the spring bar assembly is connected to the body.

[0015] The present utility model also provides a watch, which includes a dial and the watchband as described above, and the body and the dial are connected through the spring bar assembly.

[0016] Compared with the prior art, the beneficial effects of the present utility model are as follows:

[0017] The user can directly press the button to move it in the first accommodating cavity towards the second accommodating cavity, and drive the spring bar to retract towards the inside of the mounting seat in the second accommodating cavity through the linkage structure, so that the spring bar assembly is unlocked from the dial, and then the watchband body and the dial can be separated; when the user releases the button, the spring bar extends towards the outside of the mounting seat in the second accommodating cavity under the elastic force of the elastic member, so that the spring bar assembly is locked with the dial, and the watchband body and the dial are connected. At the same time, during the extension process of the spring bar, it drives the linkage structure, and through the linkage structure, drives the button to move towards the outside of the mounting seat in the first accommodating cavity, so that the button automatically resets; by arranging the linkage structure between the button and the spring bar, one-key disassembly and assembly of the spring bar assembly are realized, greatly reducing the difficulty of disassembly and assembly of the spring bar, and facilitating the user to disassemble and assemble the spring bar assembly by himself to replace the watchband or repair the dial.

[0018] The following will further describe the present utility model in conjunction with the drawings and specific embodiments. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 Schematic connection diagram of the spring bar assembly and the watchband of the present utility model Figure 1 ;

[0020] Figure 2 Schematic connection diagram of the spring bar assembly and the watchband of the present utility model Figure 2 ;

[0021] Figure 3 Stereogram of the spring bar assembly of the present utility model;

[0022] Figure 4 Exploded view of the structure of the spring bar assembly of the present utility model Figure 1 ;

[0023] Figure 5 Exploded view of the structure of the spring bar assembly of the present utility model Figure 2 ;

[0024] Figure 6 is Figure 3 A - A cross-section in Figure 1 ;

[0025] Figure 7 For Figure 3 the A - A sectional view in Figure 2 ;

[0026] Figure 8 For Figure 7 the enlarged view of part B in Specific implementation manner

[0027] The following will make a detailed description of the implementation manner of the present utility model in conjunction with the accompanying drawings.

[0028] The present utility model provides a watch, which includes a watch dial (not shown in the figure) and a watch band. As shown in Figure 1 —2, the watch band includes a body 200 and a spring bar assembly 100. The spring bar assembly 100 is installed on the body 200 and is used to connect the watch band and the watch dial. The spring bar assembly 100 can be applicable to various types of watch bands such as metal watch bands, leather watch bands, nylon watch bands, rubber watch bands, ceramic watch bands, and braided watch bands. When replacing the watch band or repairing the watch dial, it is necessary to use a special tool to cancel the connection between the spring bar assembly 100 and the watch dial and the watch band, resulting in great difficulty for users to disassemble and assemble the spring bar, and it is not convenient for users to disassemble and assemble the spring bar by themselves.

[0029] In order to reduce the difficulty of disassembling and assembling the spring bar, this embodiment provides a spring bar assembly 100. Specifically, as shown in Figure 3As shown in FIGS. 8, the spring bar assembly 100 includes a mounting base 110, and a button 120, a spring bar 130 and an elastic member 140 disposed in the mounting base 110. The mounting base 110 is provided with a first accommodation cavity 111 and a second accommodation cavity 112 radially distributed along the spring bar 130. The button 120 is disposed in the first accommodation cavity 111, and the spring bar 130 is disposed in the second accommodation cavity 112. A linkage structure is provided between the spring bar 130 and the button 120. The button 120 can move relative to the mounting base 110, and drive the spring bar 130 to slide axially towards the inside of the mounting base 110 through the linkage structure. The elastic member 140 can drive the spring bar 130 to slide axially towards the outside of the mounting base 110. In this embodiment, the first accommodation cavity 111 and the second accommodation cavity 112 that communicate with each other are provided inside the mounting base 110, and the first accommodation cavity 111 and the second accommodation cavity 112 are distributed along the same radial direction of the spring bar 120. At least part of the button 120 is disposed in the first accommodation cavity 111, and at least part of the spring bar 130 is disposed in the second accommodation cavity 112. During installation, at least part of the button 120 can extend into the second accommodation cavity 112, and the button 120 is connected to the spring bar 130 through the linkage structure. The spring bar assembly 100 is installed in the watch band body 200. The button 120 can move relative to the mounting base 110 in the first accommodation cavity 111 under an external force, and drive the spring bar 130 to move relative to the mounting base 110 in the second accommodation cavity 112 through the linkage structure, so that the spring bar 130 extends outwards or retracts inwards towards the mounting base 110, so as to lock and unlock the watch face by the spring bar assembly 100, thereby realizing the connection and disassembly between the watch band body 200 and the watch face. It should be noted that the movement direction of the button 120 is perpendicular to the axial direction of the spring bar 130, and the movement direction of the button 120 is parallel to the distribution direction of the first accommodation cavity 111 and the second accommodation cavity 112. Specifically, as Figure 6 and Figure 7 shown Figure 7The arrow S1 in it is the movement direction of the button 120 under the pressing force, and this arrow S1 is consistent with the distribution direction of the first accommodation cavity 111 and the second accommodation cavity 112 along the radial direction of the spring bar 130. The arrow S2 indicates the direction in which the spring bar 130 retracts towards the inside of the mounting base 110, and the arrow S3 indicates the direction in which the spring bar 130 extends towards the outside of the mounting base 110. When the spring bar assembly 100 locks the watch dial, the button 120 can move towards the second accommodation cavity 112 in the first accommodation cavity 111 under the pressing force, and drive the linkage structure to generate a driving force on the spring bar 130, so that the spring bar 130 retracts axially towards the inside of the mounting base 110. At this time, the spring bar assembly 100 unlocks the watch dial, causing the watch band body 200 to be separated from the watch dial; the elastic member 140 is disposed on the side of the spring bar 130 close to the center of the second accommodation cavity 112. Since the spring bar 130 retracts axially towards the inside of the mounting base 110 in the second accommodation cavity 112, the elastic member 140 is compressed by the spring bar 130 to generate an elastic force, and this elastic force reacts on the spring bar 130 to drive the spring bar 130 to extend towards the outside of the mounting base 110 circumferentially. At this time, the spring bar assembly 100 locks the watch dial, causing the watch band body 200 to be connected to the watch dial. At the same time, during the process of the spring bar 130 extending axially towards the outside of the mounting base 110, the spring bar 130 drives the linkage structure to generate a driving force on the button 120, so that the button 120 moves relative to the mounting base 110 in the first accommodation cavity 111 in a direction away from the second accommodation cavity 112, so as to realize the reset of the button 120.

[0030] During actual operation, the user can directly press the button 120 to move it towards the second accommodation cavity 112 within the first accommodation cavity 111, and drive the spring bar 130 to retract towards the interior of the mounting base 110 within the second accommodation cavity 112 through the linkage structure, so as to unlock the spring assembly 100 from the watch dial, enabling the separation of the watch band body and the watch dial; when the user releases the button 120, the spring bar 130 extends towards the outside of the mounting base 110 within the second accommodation cavity 112 under the elastic force of the elastic member 140, so as to lock the spring assembly 100 with the watch dial, connecting the watch band body and the watch dial. At the same time, during the extension process of the spring bar 130, it drives the linkage structure, and through the linkage structure, drives the button 120 to move towards the outside of the mounting base 110 within the first accommodation cavity 111, causing the button 120 to automatically reset; by arranging the linkage structure between the button 120 and the spring bar 130, one-key disassembly and assembly of the spring assembly 100 are realized, greatly reducing the difficulty of disassembling and assembling the spring, and facilitating the user to disassemble and assemble the spring assembly 100 by themselves to replace the watch band or repair the watch dial. It should be noted that the watch dial is provided with a mating portion for connecting with the spring bar 130. Before the user releases the button 120, align the spring bar 130 with the mating portion on the watch dial. After the user releases the button 120, the spring bar 130 extends towards the outside of the mounting base 110 and inserts into this mating portion to connect the watch band body with the watch dial. Usually, the spring bar 130 and the watch dial are connected by shaft-hole mating.

[0031] Further, as Figure 4As shown in FIGS. 1-8, the linkage structure includes a first guiding portion 121 provided in the button 120 and a second guiding portion 133 provided in the spring bar 130. The button 120 and the spring bar 130 are in contact with each other through the first guiding portion 121 and the second guiding portion 133. The first guiding portion 121 can drive the second guiding portion 133 to drive the spring bar 130 to slide axially into the interior of the mounting base 110. In this embodiment, when the button 120 is pressed and moves in the first accommodating cavity 111 towards the second accommodating cavity 112, and drives the first guiding portion 121 to move synchronously, a lateral acting component force is generated by the first guiding portion 121 on the second guiding portion 133 to drive the spring bar 130 to move and retract into the interior of the mounting base 110 in the second accommodating cavity 112. Similarly, when the pressing force on the button 120 is cancelled, the spring bar 130 is driven by the elastic force of the elastic member 140 to move towards the outside of the mounting base 110 in the second accommodating cavity 112, and drives the second guiding portion 133 to move synchronously. A longitudinal acting component force is generated by the second guiding portion 133 on the first guiding portion 121 to drive the button 120 to move and reset towards the outside of the mounting base 110 in the first accommodating cavity 111. In addition, the first guiding portion 121 is provided in the button 120, and the second guiding portion 133 is provided in the spring bar 130, which simplifies the structure of the spring assembly 100 and is beneficial to improving the assembly efficiency of the spring assembly 100.

[0032] Preferably, as Figure 4 As shown in FIGS. 1-8, the first guiding portion 121 includes a first guiding groove 1211 provided in the button 120 and a first side wall 1212 provided in the first guiding groove 1211. Along the movement direction of the button 120, there is a first preset angle H1 between the extending direction of the first side wall 1212 and the movement direction of the button 120. The button 120 is in contact with the second guiding portion 133 through the first side wall 1212. In this embodiment, at least part of the bottom of the button 120 is recessed upward to form the first guiding groove 1211. The first guiding groove 1211 is provided in the button 120 and the first guiding groove 1211 is open downward, so that at least part of the bottom of the button 120 is open, so that the first side wall 1212 abuts against one side of the second guiding portion 133, which simplifies the structure of the button 120 for the production and manufacture of the button 120. Optionally, the first side wall 1212 is provided in the first guiding groove 1211 and corresponds to the second guiding portion 133. Figure 8The dashed line L in the middle represents the radial and axial direction of the spring bar 130, which is parallel to the moving direction of the button 120 under the pressing force. The first side wall 1212 extends towards the bottom of the button 120 along the moving direction of the button 120, and there is a first preset angle H1 between the extending direction of the first side wall 1212 and the moving direction of the button 120. Optionally, as Figure 8 shown, the first side wall 1212 can be set as an inclined plane, and the first side wall 1212 is opposite to the bottom of the first guiding groove 1211. There is the first preset angle H1 between the first side wall 1212 and the dashed line L. By setting the first side wall 1212 as an inclined plane, the structure of the first guiding portion 121 is simplified, which is beneficial to the production and installation of the button 120 and helps to reduce the production cost of the spring assembly 100.

[0033] In addition, as Figure 4 shown in FIG. -8, the first guiding groove 1211 extends towards the top of the button 120 and forms a relief groove above the first side wall 1212. When the button 120 is subjected to an external force and moves towards the second accommodation cavity 112 in the first accommodation cavity 111, that is, when the button 120 moves towards the spring bar 130, the relief groove provides clearance for the spring bar 130 to ensure the normal telescopic movement of the spring bar 130. Further, the top of the first guiding groove 1211 (i.e., the top of the relief groove) is set as the fourth side wall 1213. When the button 120 is subjected to an external force and moves towards the second accommodation cavity 112 in the first accommodation cavity 111 and drives the first side wall 1212 to move synchronously, the button 120 can move until it contacts the top of the spring bar 130 with the fourth side wall 1213. The movement distance of the button 120 is restricted by the fourth side wall 1213, thereby restricting the telescopic distance of the spring bar 130 to improve the movement stability of the button 120 and the unlocking and locking efficiency of the spring assembly 100 for the watch dial.

[0034] Preferably, as Figure 4 shown in FIG. -8, Figure 8The dashed line L therein represents the radial axis of the spring bar 130. The second guiding portion 133 includes a second guiding groove 1331 provided in the spring bar 130 and a second side wall 1332 provided in the second guiding groove 1331. Along the radial direction of the spring bar 130, there is a second preset angle H2 between the extending direction of the second side wall 1332 and the radial direction of the spring bar 130. The spring bar 130 abuts against the first guiding portion 121 through the second side wall 1332. In this embodiment, the second guiding portion 133 is provided in the spring bar 130. At least part of the top of the spring bar 130 is recessed downward to form the second guiding groove 1331. The second guiding groove 1331 is open upward, so that at least part of the top of the spring bar 130 is open. The second guiding groove 1331 is provided with a second side wall 1332. During installation, at least part of the first side wall 1212 of the button 120 can extend into the second guiding groove 1331 and abut against the second side wall 1332. Optionally, the second side wall 1332 extends along the radial direction of the spring bar 130 towards the bottom of the spring bar 130, and there is a second preset angle H2 between the extending direction of the second side wall 1332 and the radial direction of the spring bar 130. Optionally, as Figure 8 shown, the second side wall 1332 can be set as an inclined plane, and the second side wall 1332 is opposite to the top of the second guiding groove 1331. There is the second preset angle H2 between the second side wall 1332 and the dashed line L. By setting the second side wall 1332 as an inclined plane, the structure of the second guiding portion 133 is simplified, which is beneficial to the production and installation of the spring bar 130 and helps to reduce the production cost of the spring assembly 100. It should be noted that the radial direction of the spring bar 130 is parallel to the distribution directions of the first accommodating cavity 111 and the second accommodating cavity 112.

[0035] In addition, as Figure 4 shown in FIG. 8, the second guiding portion 133 further includes a third side wall 1333 provided in the second guiding groove 1331. The third side wall 1333 is connected to the second side wall 1332. There is a third preset angle between the extending direction of the third side wall 1333 and the extending direction of the second side wall 1332, or between the extending direction of the third side wall 1333 and the radial direction of the spring bar 130. As Figure 8 shown, Figure 8The dashed line L therein represents the radial axis of the spring bar 130. The third side wall 1333 is connected to the second side wall 1332, and the third side wall 1333 extends along the axial direction of the spring bar 130 towards the end of the spring bar 130. Optionally, there is a third preset angle H3a between the extending direction of the third side wall 1333 and the extending direction of the second side wall 1332, that is, the third preset angle H3a is formed between the third side wall 1333 and the second side wall 1332; or, optionally, the third preset angle H3b is formed between the extending direction of the third side wall 1333 and the radial direction of the spring bar 130, that is, the third preset angle H3b is formed between the third side wall 1333 and the dashed line L; in this embodiment, the third side wall 1333 can be understood as the bottom of the second guiding groove 1331. Preferably, the third side wall 1333 extends along the axial direction of the spring bar 130, and the third preset angle H3b is preferably 90°; when the button 120 moves relative to the second side wall 1332 through the first side wall 1212 under an external force, the button 120 can move to contact the third side wall 1333, and the movement distance of the button 120 is restricted by the third side wall 1333, so as to restrict the telescopic distance of the spring bar 130, thereby improving the movement stability of the button 120 and the unlocking and locking efficiency of the spring bar assembly 100 for the watch dial.

[0036] Specifically, as Figure 6 and Figure 7 shown, the unlocking and locking processes of the spring bar assembly 100 are as follows:

[0037] The user can directly press the button 120 to move it in the first accommodation cavity 111 towards the second accommodation cavity 112, and drive the first side wall 1212 to move downward relative to the second side wall 1332. A lateral acting component force is generated on the second side wall 1332 through the first side wall 1212 to drive the spring bar 130 to retract towards the inside of the mounting seat 110 in the second accommodation cavity 112, so that the spring bar assembly 100 is unlocked from the watch dial, and the watch band body and the watch dial can be separated; when the user releases the button 120, the spring bar 130 extends towards the outside of the mounting seat 110 in the second accommodation cavity 112 under the elastic force of the elastic member 140, so that the spring bar assembly 100 is locked with the watch dial, and the watch band body and the watch dial are connected. At the same time, the spring bar 130 drives the second side wall 1332 to move synchronously during the extending process, so that the second side wall 1332 generates a longitudinal acting component force on the first side wall 1212 to drive the button 120 to move towards the outside of the mounting seat 110 in the first accommodation cavity 111, so that the button 120 automatically resets.

[0038] In other embodiments, as Figure 4As shown in FIGS. 8, the mounting base 110 includes a sleeve 113 and a sleeve rod 114. The first accommodating cavity 111 is provided inside the sleeve 113, and the second accommodating cavity 112 is provided inside the sleeve rod 114. The first accommodating cavity 111 communicates with the second accommodating cavity 112. The first accommodating cavity 111 communicates with the outside to allow the button 120 to pass through the outside of the sleeve 113. The second accommodating cavity 112 communicates with the outside to allow the spring bar 130 to pass through the outside of the sleeve rod 114. In this embodiment, the sleeve 113 is provided at the upper part of the sleeve rod 114, so that the first accommodating cavity 111 and the second accommodating cavity 112 can be distributed along the same radial direction of the spring bar 130. The top of the sleeve 113 is provided with a first through hole adapted to the button 120, and the first accommodating cavity 111 communicates with the outside through the first through hole, so that at least part of the button 120 can extend out of the sleeve 113 through the first through hole for the user to press. The end of the sleeve rod 114 is provided with a second through hole adapted to the spring bar 130, and the second accommodating cavity 112 communicates with the outside through the second through hole, so that at least part of the spring bar 130 can extend out of the sleeve rod 114 through the second through hole and be connected to the mating part in the watch dial. In addition, a clamping part 123 is provided in the button 120. The clamping part 123 extends outward from the end of the button 120. The clamping part 123 can move in the second accommodating cavity 112 through the button 120 and abut against the top of the second accommodating cavity 112 or the spring bar 130. During installation, the clamping part 123 can extend into the second accommodating cavity 112 through the button 120, and the first side wall 1212 contacts the second side wall 1332 to connect the button 120 to the spring bar 130. When the button 120 is pressed and moves in the first accommodating cavity 111 towards the second accommodating cavity 112, the clamping part 123 is driven to move synchronously through the button 120, and the button 120 moves until the clamping part 123 contacts the top of the second accommodating cavity 112 (i.e., the inner wall of the sleeve rod 114) or the spring bar 130 (i.e., the third side wall 1333). By providing the clamping part 123 in the button 120, the moving distance of the button 120 can be limited, thereby limiting the telescopic distance of the spring bar 130, improving the connection stability of the button 120, and the unlocking and locking efficiency of the spring bar assembly 100 for the watch dial. Moreover, when the button 120 is reset, the button 120 moves until the clamping part 123 contacts the inner wall of the sleeve rod 114 to prevent the button 120 from popping out of the mounting base 110 and detaching from the mounting base 110 when reset, thereby ensuring the structural integrity of the spring bar assembly 100.

[0039] Optionally, in one of the embodiments of the mounting base 110, the mounting base 110 is integrally formed, that is, the sleeve 113 and the sleeve rod 114 are integrally designed, which is beneficial to simplifying the production process of the mounting base 110 and improving the production efficiency of the mounting base 110. Optionally, in the second embodiment of the mounting base 110, the sleeve 113 and the sleeve rod 114 are separately provided. The sleeve 113 is connected to the upper part of the sleeve rod 114. The sleeve rod 114 is provided with a connection port through which the button 120 passes. The first accommodation cavity 111 communicates with the second accommodation cavity 112 through the connection port 1141. During the assembly process of the spring bar assembly 100, the spring bar 130 and the elastic member 140 can be inserted into the second accommodation cavity through the second through hole. The button 120 can be inserted into the second accommodation cavity 112 through the connection port 1141, and the button 120 is connected to the spring bar 130 through the linkage structure. The clamping portion 123 contacts the inner wall of the sleeve rod 114 to position the button 120. Subsequently, the sleeve 113 is sleeved outside the button 120 and installed on the upper part of the sleeve rod 114. By separately providing the sleeve 113 and the sleeve rod 114 and enabling independent assembly, it is beneficial to the overall assembly of the spring bar assembly 100. And the sleeve 113 is sleeved outside the button 120, which is beneficial to enhancing the movement stability of the button 120. Further optionally, the sleeve 113 and the sleeve rod 114 can be connected by welding or other means to enhance the structural strength of the mounting base 110. It should be noted that the connection between the sleeve 113 and the sleeve rod 114 does not affect the movement of the button 120 relative to the mounting base 110.

[0040] In some other embodiments, such as Figure 2As shown, the spring bar 130 at least includes a first spring bar 131 and a second spring bar 132 that are oppositely arranged in the second accommodation cavity 112. A linkage structure is provided between the button 120 and the first spring bar 131 and / or the second spring bar 132. The button 120 can drive the first spring bar 131 and / or the second spring bar 132 to slide axially towards the inside of the mounting base 110 through the linkage structure. The elastic member 140 is arranged between the first spring bar 131 and the second spring bar 132. In order to enhance the connection stability between the spring bar assembly 100 and the dial, two spring bars 130 can be provided, namely the first spring bar 131 and the second spring bar 132. Optionally, there are multiple embodiments for the arrangement of the linkage structure. In one of the embodiments of the specific arrangement of the linkage structure, the linkage structure is arranged between the button 120 and the first spring bar 131, that is, a first guiding portion 121 is arranged in the button 120, and a corresponding second guiding portion 133 is arranged in the first spring bar 131. The elastic member 140 is connected to the first spring bar 131. The second spring bar 132 can be fixedly installed in the mounting base 110, and the spring bar assembly 100 and the dial are locked or unlocked through the telescopic movement of the first spring bar 131. In the second embodiment of the specific arrangement of the linkage structure, the linkage structure is arranged between the button 120 and the second spring bar 132, that is, a first guiding portion 121 is arranged in the button 120, and a corresponding second guiding portion 133 is arranged in the second spring bar 132. The elastic member 140 is connected to the second spring bar 132. The first spring bar 131 can be fixedly installed in the mounting base 110, and the spring bar assembly 100 and the dial are locked or unlocked through the telescopic movement of the second spring bar 132. In the third embodiment of the specific arrangement of the linkage structure, such as Figure 4As shown in FIG. 8 , the linkage structure is respectively arranged between the button 120 and the first ear rod 131 and the second ear rod 132, that is, two opposite first guide portions 121 are arranged in the button 120, and second guide portions 133 corresponding to the two first guide portions 121 are respectively arranged in the first ear rod 131 and the second ear rod 132, and the elastic member 140 is installed between the first ear rod 131 and the second ear rod 132, so that the ear assembly 100 and the dial lock are locked by the simultaneous telescopic movement of the first ear rod 131 and the second ear rod 132. The above three embodiments of the specific arrangement of the linkage structure each have their own advantages. In the first and second embodiments of the specific arrangement of the linkage structure, the ear assembly 100 adopts a one-side ear rod 130 fixedly connected to the mounting seat 110, and the other-side ear rod 130 slidingly connected to the mounting seat 110. When driving the ear assembly 100 to connect the watch dial with the watch strap, the user can first insert the ear rod 130 on one side fixedly connected to the mounting seat 110 into the corresponding matching part in the watch dial, so as to first fix one side of the ear assembly 100, and then the user The button 120 can be directly pressed and the linkage structure can be used to make the other side ear rod 130 slidably connected to the mounting seat 110 expand and contract relative to the mounting seat 110, and the other side ear rod 130 can be inserted into the corresponding matching part of the dial, so as to realize the connection between the strap and the dial. By fixing the connection between one side of the ear assembly 100 and the dial in advance, it is beneficial to improve the disassembly and assembly efficiency of the ear assembly 100, and thus improve the disassembly and assembly efficiency of the dial and the strap. In the third embodiment of the specific arrangement of the linkage structure, the ear assembly 100 adopts the double-sided ear rods 130 and the mounting seat. 110 is slidably connected. When driving the ear assembly 100 to connect the dial with the watch strap, the user can directly press the button 120 and use the linkage structure to make the double-sided ear rods 130 of the ear assembly 100 expand and contract relative to the mounting seat 110 at the same time, which is conducive to improving the disassembly and assembly efficiency of the ear assembly 100, and further improving the disassembly and assembly efficiency of the dial and the watch strap. In addition, the elastic member 140 is preferably connected between the first ear rod 131 and the second ear rod 132, which is conducive to simplifying the structure of the ear assembly 100, thereby improving the assembly efficiency of the ear assembly 100. It should be noted that the specific expansion and contraction movement of the first ear rod 131 and the second ear rod 132 has been described in detail above and will not be repeated here.

[0041] The above examples are only used to further illustrate the technical content of the utility model, so that readers can understand it more easily, but it does not mean that the implementation methods of the utility model are limited to this. Any technical extension or re-creation made based on the utility model is protected by the utility model. The protection scope of the utility model shall be based on the claims.

Claims

1. A green ear component, characterized in that: The ear plug assembly (100) comprises a mounting seat (110), and a button (120), an ear plug rod (130) and an elastic member (140) arranged in the mounting seat (110); a first accommodating cavity (111) and a second accommodating cavity (112) radially distributed along the ear plug rod (130) are arranged in the mounting seat (110); the button (120) is arranged in the first accommodating cavity (111); the ear plug rod (130) is arranged in the second accommodating cavity (112); a linkage structure is arranged between the ear plug rod (130) and the button (120); the button (120) can move relative to the mounting seat (110), and the linkage structure drives the ear plug rod (130) to slide axially toward the inside of the mounting seat (110); and the elastic member (140) can drive the ear plug rod (130) to slide axially toward the outside of the mounting seat (110).

2. The ear assembly according to claim 1, characterized in that: The ear rod (130) comprises at least a first ear rod (131) and a second ear rod (132) which are arranged opposite to each other in the second accommodating cavity (112); a linkage structure is provided between the button (120) and the first ear rod (131) and / or the second ear rod (132); the button (120) can drive the first ear rod (131) and / or the second ear rod (132) to slide axially toward the inside of the mounting seat (110) through the linkage structure; and the elastic member (140) is provided between the first ear rod (131) and the second ear rod (132).

3. The ear assembly according to claim 1, characterized in that: The linkage structure comprises a first guide portion (121) provided in the button (120) and a second guide portion (133) provided in the ear rod (130); the button (120) and the ear rod (130) are in contact with each other via the first guide portion (121) and the second guide portion (133); the first guide portion (121) can drive the second guide portion (133) to drive the ear rod (130) to slide axially toward the inside of the mounting seat (110).

4. The ear assembly according to claim 3, characterized in that: The first guide portion (121) comprises a first guide groove (1211) provided in the key (120), and a first side wall (1212) provided in the first guide groove (1211); along the movement direction of the key (120), there is a first preset angle between the extension direction of the first side wall (1212) and the movement direction of the key (120); the key (120) abuts against the second guide portion (133) via the first side wall (1212).

5. The ear-groove assembly according to claim 4, characterized in that: The first guide groove (1211) extends toward the top of the key (120) and forms a clearance groove above the first side wall (1212).

6. The ear assembly according to claim 3, characterized in that: The second guide portion (133) comprises a second guide groove (1331) provided in the ear rod (130) and a second side wall (1332) provided in the second guide groove (1331); along the radial direction of the ear rod (130), there is a second preset angle between the extension direction of the second side wall (1332) and the radial direction of the ear rod (130); the ear rod (130) abuts against the first guide portion (121) via the second side wall (1332).

7. The ear assembly according to claim 6, characterized in that: The second guide portion (133) further comprises a third side wall (1333) arranged in the second guide groove (1331), the third side wall (1333) being connected to the second side wall (1332), and a third preset angle existing between an extension direction of the third side wall (1333) and an extension direction of the second side wall (1332), or between an extension direction of the third side wall (1333) and a radial direction of the ear rod (130).

8. The ear assembly according to claim 1, characterized in that: The mounting seat (110) comprises a sleeve (113) and a sleeve rod (114); the first accommodating chamber (111) is arranged in the sleeve (113); the second accommodating chamber (112) is arranged in the sleeve rod (114); the first accommodating chamber (111) is communicated with the second accommodating chamber (112); the first accommodating chamber (111) is communicated with the outside so that the button (120) can pass through the outside of the sleeve (113); and the second accommodating chamber (112) is communicated with the outside so that the ear rod (130) can pass through the outside of the sleeve rod (114); A clamping portion (123) is provided in the button (120), and the clamping portion (123) can move in the second accommodating cavity (112) through the button (120) and abut against the top of the second accommodating cavity (112) or the ear rod (130).

9. A watch strap, characterized in that: It comprises a main body (200) and a green ear component (100) according to any one of claims 1 to 8, wherein the green ear component (100) is connected to the main body (200).

10. A watch, characterized in that: It comprises a watch dial and a watch band as claimed in claim 9, wherein the body (200) and the watch dial are connected via the ear assembly (100).