WO2020020132A1

WO2020020132A1 - Mobile terminal

Info

Publication number: WO2020020132A1
Application number: PCT/CN2019/097233
Authority: WO
Inventors: 陈旭; 谢长虹; 薛传杰; 殷向兵; 罗斌; 郭阳
Original assignee: 维沃移动通信有限公司
Priority date: 2018-07-25
Filing date: 2019-07-23
Publication date: 2020-01-30
Also published as: CN108924310A; CN108924310B

Abstract

Disclosed is a mobile terminal. The mobile terminal comprises a housing (100), a camera (200), a driving mechanism (300) disposed in the inner cavity (120) of the housing (100). The frame (110) of the housing (100) is provided with a through hole. The driving mechanism (300) comprises a driving body (310) and elastic telescopic members (320). A positioning member (130) is provided in the inner cavity (120). The elastic telescopic members (320) are compressed between the camera (200) and the positioning member (130). The elastic telescopic members (320) are used for applying an elastic force to the camera (200) so that the camera (200) runs through the through hole. The driving body (310) applies a traction force to the camera (200) so that the camera (200) runs through the through hole and retracts into the inner cavity (120).

Description

Mobile terminal

Cross-reference to related applications

This application claims the priority of Chinese Patent Application No. 201810833115.7 filed in China on July 25, 2018, the entire contents of which are hereby incorporated by reference.

Technical field

The present disclosure relates to the technical field of mobile terminal design, and in particular, to a mobile terminal.

Background technique

With the diversification of user needs, more and more mobile terminals have entered people's lives, such as mobile phones and tablet computers. Related mobile terminals have more and more functions. Mobile terminals usually have camera functions, which can meet the shooting needs of users. The shooting function of the mobile terminal is usually completed by the camera module of the mobile terminal. The camera 10 of the camera module is usually arranged on the frame 30 on the top of the mobile terminal and located outside the display screen 20, as shown in FIG.

The frame 30 at the top of the relevant mobile terminal is relatively wide, and further needs to provide sufficient space for the deployment of the camera 10. With the continuous improvement of user needs, the performance of mobile terminals is more and more optimized, and the more prominent performance is that the screen ratio of related mobile terminals is increasing, and even full-screen mobile terminals have appeared. Under the premise of determining the overall size of the mobile terminal, the area occupied by the display screen is getting larger and larger, which will make the frame 30 narrower and narrower, and eventually the frame 30 will not have enough space to arrange the camera 10.

In order to ensure the layout of the camera 10 and increase the screen ratio of the mobile terminal as much as possible, the relevant mobile terminal will open a hole on the display screen to lay out the camera. The placement of the camera on the display screen will affect the display effect of the mobile terminal and affect User experience. More importantly, the camera will still occupy the layout area of the display screen, which will still affect the mobile terminal's development towards the large screen ratio.

Summary of the Invention

The present disclosure discloses a mobile terminal to solve the problem that the layout of the camera will affect the development of the mobile terminal toward a large screen ratio.

To solve the above problems, the present disclosure adopts the following technical solutions:

A mobile terminal includes a casing, a camera, and a driving mechanism provided in the casing. A frame of the casing is provided with a perforation. The driving mechanism includes a driving body and an elastic telescopic element. The inner cavity is provided with A positioning member, the elastic telescopic member is compressed between the camera and the positioning member, the elastic telescopic member is used to apply an elastic force to the camera to make it penetrate the perforation, and the driving body is directed toward The camera applies traction to retract it through the perforation into the lumen.

The technical scheme adopted in the present disclosure can achieve the following beneficial effects:

The mobile terminal disclosed in the present disclosure can ensure that the mobile terminal has a shooting function, and realizes its work by changing the position of the camera. The deployment of the camera will not occupy the area where the display screen is arranged on the mobile terminal, and it will not limit the screen of the mobile terminal. The proportion has further increased. It can be seen that the mobile terminal disclosed in the embodiments of the present disclosure can solve the problem that the layout of the camera in the related technology will affect the development of the mobile terminal toward a large screen ratio.

BRIEF DESCRIPTION OF THE DRAWINGS

The drawings described herein are used to provide a further understanding of the present disclosure and constitute a part of the present disclosure. The exemplary embodiments of the present disclosure and the description thereof are used to explain the present disclosure, and do not constitute an improper limitation on the present disclosure. In the drawings:

FIG. 1 is a partial structural diagram of a typical mobile terminal in the related art; FIG.

2 is a schematic structural diagram of a part of a mobile terminal disclosed in an embodiment of the present disclosure;

3 is a schematic structural diagram of a part of a mobile terminal with a camera in a state disclosed in an embodiment of the present disclosure;

FIG. 4 is a partial structural diagram of a mobile terminal with a camera in another state according to an embodiment of the present disclosure.

Reference sign description:

10-camera, 20-display, 30-frame;

100-case, 110-frame, 120-inner cavity, 130-position piece, 140-limiting block, 200-camera, 300-drive mechanism, 310-drive body, 311- rope winding mechanism, 311a-motor, 311b -Reducer, 311c-winding wheel, 312-drawing rope, 313-guide wheel, 320-elastic extension, 400-camera bracket, 410-limiting part, 420-bar hole, 430-chute, 500- First Hall device, 600-magnet, 700-second Hall device, 800-controller.

detailed description

In order to make the objectives, technical solutions, and advantages of the present disclosure more clear, the technical solutions of the present disclosure will be clearly and completely described in combination with specific embodiments of the present disclosure and corresponding drawings. Obviously, the described embodiments are only a part of the embodiments of the present disclosure, but not all the embodiments. Based on the embodiments in the present disclosure, all other embodiments obtained by a person having ordinary skill in the art without making creative efforts fall within the protection scope of the present disclosure.

The technical solutions disclosed in the embodiments of the present disclosure will be described in detail below with reference to the drawings.

Please refer to FIGS. 2 to 4. An embodiment of the present disclosure discloses a mobile terminal. The disclosed mobile terminal includes a housing 100, a camera 200, and a driving mechanism 300.

The housing 100 is a supporting member of the mobile terminal, and provides installation foundation and protection for other components of the mobile terminal. The casing 100 has a frame 110 and an inner cavity 120. A perforation is formed on the frame 110, and the perforation communicates with the inner cavity 120.

The driving mechanisms 300 are all disposed in the inner cavity 120 of the casing 100. The camera 200 is movably disposed on the casing 100. The driving mechanism 300 is connected to the camera 200 and can drive the camera 200 to move. Under the driving of the driving mechanism 300, the camera 200 can pass through the perforation, so that it can protrude beyond the mobile terminal. Of course, under the driving of the driving mechanism 300, the camera 200 can be retracted into the inner cavity 120 of the mobile terminal.

In this embodiment, the driving mechanism 300 includes a driving body 310 and an elastic telescopic element 320. A positioning member 130 is disposed in the inner cavity 120. Specifically, the positioning member 130 may be a positioning block or a positioning piece fixed in the casing 100. The elastic expansion member 320 is compressed between the camera 200 and the positioning member 130, and can further apply an elastic force to the camera 200 based on the positioning member 130. The elastic telescopic element 320 is used to apply an elastic force to the camera 200 to make it penetrate through the perforation. The driving body 310 applies a traction force to the camera 200 to retract it into the inner cavity 120 through the perforation.

In the specific work process, when the driving body 310 cancels the traction force applied to the camera 200, in this case, the camera 200 is pushed out of the mobile terminal through the perforation under the elastic force of the elastic telescopic member 320, as shown in FIG. 3 , And finally complete the preparation for shooting. After the user finishes shooting, the driving body 310 is manipulated to apply traction, so that the camera 200 overcomes the elastic force exerted by the elastic telescopic member 320 and is pulled into the inner cavity 120 through the perforation, thereby achieving the retraction of the camera 200, as shown in the figure 4 shown.

According to the above working process, it can be known that the mobile terminal disclosed in the embodiment of the present disclosure can ensure that the mobile terminal has a shooting function, and through the position conversion of the camera 200 (moving from inside the casing 100 to outside the casing 100 and from the casing 100) Move outside into the housing 100) to perform its work. The layout of the camera 200 will not occupy the area where the display screen is arranged on the mobile terminal, and it will not limit the further increase of the screen ratio of the mobile terminal. It can be seen that the mobile terminal disclosed in the embodiments of the present disclosure can solve the problem that the layout of the camera in the related technology will affect the development of the mobile terminal toward a large screen ratio.

At the same time, during the process of extending the camera 200, the traction force applied by the driving body 310 is cancelled. In this case, the camera 200 is subjected to the elastic force of the elastic telescopic member 320, and the mobile terminal is protruded from the perforation by the elastic force. . In this case, after the camera 200 is extended, it will be elastically supported by the elastic telescopic member 320. If the mobile terminal drops, the moment when the camera 200 touches the ground, the elastic telescopic member 320 will cushion the collision, which can alleviate the collision of the camera 200. strength. Therefore, in the mobile terminal disclosed in the embodiments of the present disclosure, the driving mechanism 300 can also play a role of protecting the camera 200.

As described above, the driving body 310 is used to apply traction, and there are various structures of the driving body 310. For example, the driving body 310 may be a link driving mechanism, and may be a micro hydraulic part or a micro pneumatic part. Of course, the driving body 310 needs to have a certain degree of freedom after evacuating the traction force, so as to be able to adapt to the movement of the camera 200 when the camera 200 is driven by the elastic telescopic element 320.

Please refer to FIGS. 3-4 again. The embodiment of the present disclosure discloses a driving body 310. The disclosed driving body 310 may include a rope winding mechanism 311 and a pull rope 312 partially wound on the rope winding mechanism 311. The rope 312 It is connected to the camera 200 and applies traction to the camera 200. In the specific work process, when the rope winding mechanism 311 is facing in one direction (which can be considered as a forward rotation), the rope winding mechanism 311 retracts the rope, thereby realizing more parts of the rope 312 to be wound, and the rope 312 is tightened. It exerts traction force, which in turn enables it to overcome the elastic force provided by the elastic telescopic element 320, so that the camera 200 is retracted into the inner cavity 120 of the mobile terminal. When the rope winding mechanism 311 rotates in the opposite direction (which can be considered reverse), the rope winding mechanism 311 releases the rope, and then relaxes more parts of the rope 312. After the rope 312 is relaxed, its traction force is cancelled. In this case, the elastic force applied by the elastic telescopic element 320 pushes the camera 200 out of the mobile terminal.

In this embodiment, there may be various structures of the rope winding mechanism 311 as long as the pulling rope 312 can be retracted or released during the rotation of the retractable rope. Referring to FIG. 3, in a specific implementation, the rope winding mechanism 311 may include a motor 311a, a reducer 311b, and a reel 311c. The reel 311c is drivingly connected to the motor 311a through the reducer 311b. The motor 311a can rotate in both directions, thereby realizing winding and unwinding of the reel 311c. Specifically, the reducer 311b may be a gear reducer. In order to improve the rotation accuracy, the motor 311a may be a stepping motor.

In order to implement a more stable traction on the camera 200, in an optional solution, the pull rope 312 may be partially wound around the rope winding mechanism 311, and both ends of the pull rope 312 may be fixed at the two ends of the bottom edge of the camera 200 and connected respectively. . During the retracting and pulling process of the pulling rope 312, both ends of the pulling rope 312 can traction both ends of the bottom edge of the camera 200, thereby making the movement of the camera 200 more stable. Rotation of the rope winding mechanism 311 can realize both ends of the pulling rope 312 to simultaneously retract or release the rope. There are various ways to achieve the above purpose, which are conventional technical means in the art, and will not be described in detail here. It should be noted that the bottom edge of the camera 200 refers to the edge of the end farther from the perforation when the camera 200 is retracted into the inner cavity 120.

In another optional solution, the mobile terminal disclosed in the embodiments of the present disclosure may further include a guide wheel 313. Both ends of the pull rope 312 can bypass the guide wheel 313 and be respectively fixed at both ends of the bottom edge of the camera 200. The guide wheel 313 is more favorable for adjusting the pulling force direction of the pull rope 312. Specifically, the rope segments of the pull rope 312 between the camera 200 and the two guide wheels 313 are parallel to the moving direction of the camera 200. This routing method can make both ends of the pull rope 312 apply traction force along the moving direction of the camera 200, which will undoubtedly help the camera 200 to move more accurately and avoid deviation.

In this embodiment, the elastic telescopic element 320 may be an elastic rubber block, may also be elastically bent, and may also be a telescopic spring. This embodiment does not limit the specific structure and type of the elastic telescopic element 320, and of course, this embodiment does not limit the number of the elastic telescopic element 320.

When the elastic telescopic element 320 is a telescopic spring, the number of the elastic telescopic element 320 may be two, and the two elastic telescopic elements 320 may be compressed between the positioning element 130 and the bottom edge of the camera 200, respectively. The pulling rope 312 is located between the camera 200 and the two guide wheels 313, and can pass through the corresponding elastic telescopic members 320 respectively. This assembly method is not only conducive to the stable expansion and contraction of the elastic telescopic members 320, but also beneficial to the The elastic telescopic element 320 applies a more balanced elastic force to the camera 200 to ensure that the extension of the elastic telescopic element 320 is more stable, and can prevent the camera 200 from deviating from the moving direction due to the elastic deformation of the elastic telescopic element 320.

Of course, the elastic telescopic element 320 can be a cylindrical elastic telescopic element. In this case, the rope segments of the pull rope 312 between the camera 200 and the two guide wheels 313 can also pass through the corresponding elastic telescopic elements 320 respectively. Of course, the elastic expansion member 320 may also have other assembling methods, and the upper section is only an optional solution.

The mobile terminal disclosed in the embodiments of the present disclosure may further include a camera bracket 400. The camera 200 is mounted on the camera bracket 400, and the camera bracket 400 is connected to the driving mechanism 300. The driving mechanism 300 is indirectly connected to the camera 200 through the camera bracket 400. The driving mechanism 300 drives the camera bracket 400 to further indirectly drive the camera 200 to move. The camera bracket 400 can facilitate the assembly of the camera 200. Generally, the camera bracket 400 has a frame structure and can also play a role of protecting the camera 200.

The camera bracket 400 may be provided with a limiting portion 410. The limiting portion 410 is used to limit the position of the inside port of the perforation when the camera 200 is extended out of the perforation, thereby preventing the camera 200 from moving excessively. In the process of the camera 200 being driven and extended, after the camera 200 is extended in place, the limiting portion 410 can limit the position of the inner port of the perforation. It should be noted that the inner port refers to a port with a perforation closer to the inner cavity 120. The perforation has an inner port and an outer port. The outer port is another port of the perforation. Compared with the inner port, the outer port is farther away from the inner cavity 120.

In an optional solution, the limiting portion 410 can be sealed and sealed between the edge of the perforated inner port and the camera bracket 400. In this case, the limiting portion 410 can not only play a limiting role, but also realize The seal between the camera bracket 400 and the inner wall of the perforation achieves better dustproof and waterproof purposes. There are various structures of the limiting portion 410. In a specific implementation, the limiting portion 410 may be a limiting piece, and the limiting piece is thin, which can reduce the occupied space of the limiting portion 410.

The mobile terminal disclosed in the embodiments of the present disclosure may implement control of the driving body 310 in various ways. Please refer to FIGS. 3 and 4 again. In a specific implementation, the mobile terminal disclosed in the embodiment of the present disclosure may further include a first Hall device 500, a magnet 600, and a controller 800. The magnet 600 is disposed on the camera 200, And as the camera 200 moves, specifically, the magnet 600 may be a magnet. The first Hall device 500 is disposed inside the frame 110 (that is, the side of the frame 110 that is closer to the inner cavity 120 and the other side of the frame 110 is outside the mobile terminal). The controller 800 is connected to the first Hall device 500 The controller 800 can control the driving body 310 to be turned off according to the change in the magnetic flux of the magnet 600 sensed by the first Hall device 500.

During the process of extending the camera 200, the camera 200 gradually approaches the frame 110, and finally extends out of the perforation. During this process, the magnet 600 gradually approaches the first Hall device 500 with the camera 200. The magnetic flux of the magnet 600 that can be sensed by the first Hall device 500 changes greatly. When the limit portion 410 cooperates with the perforated inner port limit, Or when the driving body 310 pushes the camera 200 to the extended limit position, the magnetic flux of the magnet 600 that can be sensed by the first Hall device 500 no longer changes (that is, the magnetic flux change is zero) or the magnetic flux change is small (for example, less than the designer's pre- (The set threshold), in this case, the controller 800 controls the driving body 310 to be turned off according to this, and finally the driving of the camera 200 will be stopped. When the driving body 310 includes the rope winding mechanism 311 and the pull rope 312, the controller 800 controls the rope winding mechanism 311 to stop reverse rotation.

Of course, the change in the magnetic flux of the magnet 600 induced by the first Hall device 500 is relatively large (for example, the magnetic flux is greater than zero or the magnetic flux variation is greater than the threshold set by the designer described above), it means that the extension of the camera 200 has not In place, in this case, the controller 800 still controls the driving body 310 to maintain the driving working state.

Similarly, in an optional solution, the mobile terminal disclosed in the embodiment of the present disclosure may further include a second Hall device 700 connected to the controller 800, and the second Hall device 700 and the first Hall device 500 are in the camera 200. The moving directions are arranged in sequence. The first Hall device 500 is disposed between the second Hall device 700 and the frame 110. The controller 800 controls the driving body 310 to be turned off according to the change in the magnetic flux of the magnet 600 sensed by the second Hall device 700.

During the retraction of the camera 200, the magnet 600 gradually approaches the second Hall device 700 with the camera 200. The magnetic flux of the magnet 600 that the second Hall device 700 can sense has been changing. When the camera 200 is completely retracted into the inner cavity At 120, when the camera 200 is positioned by other components or the driving mechanism 300 cannot drive the camera 200 to retract further (that is, the retracted limit position is reached), the magnetic flux of the magnet 600 sensed by the second Hall device 700 no longer changes (i.e. The change in magnetic flux is zero) or the change in magnetic flux is small (for example, less than a threshold set by the designer). In this case, the controller 800 controls the driving body 310 to be turned off according to this, and finally the driving of the camera 200 is stopped. When the driving body 310 includes the rope winding mechanism 311 and the pull rope 312, the controller 800 controls the rope winding mechanism 311 to stop forward rotation.

When the magnetic flux of the magnet 600 sensed by the second Hall device 700 is large (for example, the magnetic flux is greater than zero or the magnetic flux is greater than a threshold set by the designer described above), the controller 800 controls the driving body accordingly 310 keeps driving working.

Of course, it should be noted that during the movement of the magnet 600, the magnet 600 gradually approaches the first Hall device 500, and then the controller 800 performs the driving of the driving body 310 based on the sensing result of the first Hall device 500. control. The magnet 600 gradually approaches the second Hall device 700, and the controller 800 controls the driving body 310 based on the sensing result of the second Hall device 500.

There are various ways to achieve the above purpose. For example, a shield may be provided between the first Hall device 500 and the second Hall device 700. When the magnet 600 passes the shield and gradually approaches the first Hall device 500, the second The Hall device 700 cannot sense the magnetic flux of the magnet 600. In this case, the controller 800 can only use the induction result of the first Hall device 500 as a control basis. Similarly, when the magnet 600 approaches the second Hall device 700 through the shield, the first Hall device 500 cannot sense the magnetic flux of the magnet 600. In this case, the controller 800 can only use the second Hall device 700. The sensing result is the control basis.

Of course, the controller 800 may also select a control basis from the sensing results of the first Hall device 500 and the second Hall device 700 according to the position of the magnet 600. For example, when the magnet 600 is closer to the first Hall device 500, the controller 800 takes the sensing result of the first Hall device 500 as a control basis; when the magnet 600 is closer to the second Hall device 700, it controls The controller 800 is based on the sensing result of the second Hall device 700.

Driven by the driving mechanism 300, the camera 200 can move. Under normal circumstances, the camera bracket 400 and the casing 100 are slidingly fitted, thereby driving the camera 200 to move relative to the casing 100. Specifically, the camera bracket 400 may be provided with a sliding groove 430 that extends along the moving direction of the camera 200. The housing 100 includes a guide rail provided in the inner cavity 120, and the sliding groove 430 and the guide rail slidingly cooperate. Of course, the guide rail may also be provided on the camera bracket 400, and correspondingly, the sliding groove 430 may be provided on the surface inside the inner cavity 120.

In an optional solution, the camera bracket 400 may be provided with a strip-shaped hole 420 extending along the moving direction of the camera 200. A limiting block 140 is disposed in the inner cavity 120, and the limiting block 140 is disposed in the strip-shaped hole 420. It cooperates with the two ends of the strip-shaped hole 420 in a limited position. In this case, the two ends of the strip-shaped hole 420 cooperate with the limit of the limit block 140 to achieve a limit on the movement of the camera 200 and avoid excessive movement of the camera 200.

The mobile terminal disclosed in the embodiments of the present disclosure may be a device with a camera and a display screen, such as a mobile phone, a tablet computer, an e-book reader, and a wearable device. The embodiments of the present disclosure do not limit the specific types of mobile terminals.

The above embodiments of the present disclosure mainly describe the differences between the various embodiments. As long as the different optimization features between the various embodiments are not contradictory, they can be combined to form a better embodiment. In view of the conciseness of the text, here is the No longer.

The above are only examples of the present disclosure and are not intended to limit the present disclosure. It will be apparent to those skilled in the art that various modifications and variations can be made in the present disclosure. Any modification, equivalent replacement, and improvement made within the spirit and principle of the present disclosure shall be included in the scope of claims of the present disclosure.

Claims

A mobile terminal includes a housing (100), a camera (200), and a driving mechanism (300) provided in an inner cavity (120) of the housing (100), and a frame ( 110) is provided with a perforation, the driving mechanism (300) includes a driving body (310) and an elastic telescopic element (320), a positioning element (130) is provided in the inner cavity (120), and the elastic telescopic element (320) ) Is compressed between the camera (200) and the positioning member (130), and the elastic telescopic member (320) is used to apply an elastic force to the camera (200) to make it penetrate the perforation, so The driving body (310) applies a traction force to the camera (200) to retract through the perforation into the inner cavity (120).
The mobile terminal according to claim 1, wherein the driving body (310) comprises a rope winding mechanism (311) and a draw rope (312) partially wound on the rope winding mechanism (311), the pulling The rope (312) is connected to the camera (200), and can apply the traction force to the camera (200) with the rotation of the rope winding mechanism (311).
The mobile terminal according to claim 2, wherein the pull rope (312) is partially wound around the rope winding mechanism (311), and both ends of the pull rope (312) are respectively fixed to the camera (200) Both ends of the bottom edge.
The mobile terminal according to claim 3, wherein the mobile terminal further comprises a guide wheel (313), and both ends of the pull rope (312) bypass the guide wheel (313) and are respectively fixed at all places. The two ends of the bottom edge of the camera (200), and the ropes (312) between the camera (200) and the two guide wheels (313) are connected to the camera (200). The moving directions are parallel.
The mobile terminal according to claim 4, wherein the elastic telescopic members (320) are all telescopic springs, the number of the elastic telescopic members (320) is two, and the two elastic telescopic members (320) are respectively Compressed between the positioning member (130) and the bottom edge of the camera (200), and the drawstring (312) is located between the camera (200) and the two guide wheels (313) The rope segments pass through the corresponding elastic telescopic pieces (320), respectively.
The mobile terminal according to claim 1, further comprising: a camera bracket (400), the camera (200) being mounted on the camera bracket (400), the camera bracket (400) and the driving mechanism (300) ) Connected.
The mobile terminal according to claim 6, wherein the camera bracket (400) is provided with a limiting portion (410), and the limiting portion (410) is configured to extend the perforated portion of the camera (200). In a state, it is limited to cooperate with the inner port of the perforation.
The mobile terminal according to claim 7, wherein the limiting portion (410) is a limiting piece, and the limiting portion (410) is sealed and sealed at an edge of the perforated inner port and the camera bracket (400).
The mobile terminal according to claim 1, further comprising a first Hall device (500), a magnet (600), and a controller (800), the magnet (600) being disposed on the camera (200), and The camera (200) moves, the first Hall device (500) is disposed inside the frame (110), and the controller (800) is connected to the first Hall device (500). The controller (800) controls the driving body (310) to be turned off according to a change in the magnetic flux sensed by the first Hall device (500).
The mobile terminal according to claim 9, further comprising a second Hall device (700) connected to the controller (800), the second Hall device (700) and the first Hall device (700) 500) are sequentially arranged in the moving direction of the camera (200), the first Hall device (500) is disposed between the second Hall device (700) and the frame (110), and the control The device (800) controls the driving body (310) to be turned off according to the change of the magnetic flux sensed by the second Hall device (700).
The mobile terminal according to claim 6, wherein the camera bracket (400) is provided with a bar-shaped hole (420) extending along the moving direction of the camera (200), and the inner cavity (120) is provided A limiting block (140), the limiting block (140) is disposed in the strip-shaped hole (420) and cooperates with the two ends of the strip-shaped hole (420).
The mobile terminal according to claim 6, wherein the camera bracket (400) is provided with a chute (430), the housing (100) includes a guide rail provided in the inner cavity (120), and A sliding slot (430) is slidably engaged with the guide rail, and the sliding slot (430) extends along a moving direction of the camera (200).