Electronic device and method of operation for electronic device

Abstract

The application provides an electronic device and a method for the same. The electronic device comprises a first body, a second body and a connecting assembly connected to the first body and the second body; the connecting assembly comprises a first part and a second part, the first part enables the first body to move relative to the second body in a first movement mode, and the second part enables the first body to move relative to the second body in a second movement mode; wherein the first body moves to the second body in the first movement mode through the first part to satisfy a first positional relationship, so that the movement of the first body in the second movement mode through the second part is affected.

Description

Technical Field

[0001] This application relates to an electronic device and a method of operating the electronic device. Background Technology

[0002] With the advancement of technology, electronic devices can have different usage forms through different operating methods, but such electronic devices are easily damaged. Summary of the Invention

[0003] The purpose of this application is to provide an electronic device to solve existing problems.

[0004] To address the aforementioned technical problems, this application provides the following technical solutions:

[0005] A first aspect of this application provides an electronic device, which includes a first body, a second body, and a connection component connected to the first body and the second body;

[0006] The connecting component includes a first part and a second part. The first part enables the first body to move relative to the second body in a first motion manner, and the second part enables the first body to move relative to the second body in a second motion manner.

[0007] Wherein, the first body moves through the first part in the first motion mode to satisfy the first positional relationship with the second body, so that the movement of the first body through the second part in the second motion mode is affected.

[0008] In some modified embodiments of the first aspect of this application, the aforementioned electronic device, wherein the first body moves through the first part in a first motion manner to satisfy a second positional relationship with the second body, and the movement of the first body through the second part in the second motion manner is not affected.

[0009] In some modified embodiments of the first aspect of this application, the aforementioned electronic device, wherein the connection component includes an influencing element having a first state and a second state, wherein the first state affects the movement of the first body in the second motion mode, and the second state does not affect the movement of the first body in the second motion mode;

[0010] The electronic device includes a control component connected to the influencing element. The control component is related to the movement of the first body through the first part in the first movement mode, and is used to control the influencing element to be in the first state when the first body moves through the first part in the first movement mode to satisfy a first positional relationship with the second body; and to control the influencing element to be in the second state when the first body moves through the first part in the first movement mode to satisfy a second positional relationship with the second body.

[0011] In some modified embodiments of the first aspect of this application, the aforementioned electronic device, wherein the control component is a structural control element included in the connection component;

[0012] The influencing component includes a first structural component and a second structural component that cooperate with each other;

[0013] The first state includes the first structural component and the second structural component satisfying a constraint relationship;

[0014] The second state includes situations where the first structural component and the second structural component do not satisfy the constraint relationship.

[0015] In some modified embodiments of the first aspect of this application, the aforementioned electronic device, wherein the structural control member moves along with the first body through the first part in the first motion manner, and the structural control member is connected to the first structural member;

[0016] Wherein, if the first body moves through the first part in the first motion manner to a positional relationship with the second body, the structural control member can drive the first structural member to make the first structural member and the second structural member satisfy the restriction relationship;

[0017] If the first body moves through the first part in the first motion manner to a position that satisfies the second positional relationship with the second body, the structural control member can drive the first structural member so that the first structural member and the second structural member no longer satisfy the restriction relationship.

[0018] In some modified embodiments of the first aspect of this application, the aforementioned electronic device, wherein the first structural member is movably disposed between the first portion and the second portion along a second direction, the second direction being the direction in which the first body and the second body are stacked;

[0019] The second structural component is disposed in the second part and is movably fitted with the first structural component;

[0020] Wherein, the first body moves through the first part in the first motion manner to satisfy the first positional relationship with the second body, and the structural control component can drive the first structural component to move along the second direction to contact the second structural component to satisfy the restriction relationship;

[0021] The first body moves through the first part in the first motion manner until it satisfies the second positional relationship with the second body, and the structural control member can drive the first structural member to move along the second direction until it separates from the second structural member so as not to satisfy the restriction relationship.

[0022] In some modified embodiments of the first aspect of this application, the aforementioned electronic device, wherein the first structural member is movably disposed between the first part and the second part along a first direction, and the first direction is perpendicular to the direction in which the first body and the second body are stacked.

[0023] The second structural component is disposed in the second part and is movably fitted with the first structural component;

[0024] Wherein, the first body moves through the first part in the first motion manner to satisfy the first positional relationship with the second body, and the structural control component can drive the first structural component to move along the first direction to engage with the second structural component to satisfy the restriction relationship;

[0025] The first body moves through the first part in the first motion manner to satisfy the second positional relationship with the second body, and the structural control member can drive the first structural member to move along the first direction to be independent of the second structural member so as not to satisfy the restriction relationship.

[0026] In some modified embodiments of the first aspect of this application, the aforementioned electronic device, wherein the first structural member includes two limiting blocks;

[0027] The two limiting blocks are positioned opposite each other and movable along the first direction;

[0028] The second structural component is a limiting groove arranged along the first direction, and the two limiting blocks can move closer or further apart from each other within the limiting groove along the first direction;

[0029] Wherein, the first body moves through the first part in the first motion manner to satisfy the first positional relationship with the second body, and the structural control component can drive the two limiting blocks to move closer to each other along the first direction to a first specified distance to satisfy the limiting relationship;

[0030] The first body moves through the first part in the first motion manner to satisfy the first positional relationship with the second body, and the structural control component can drive the two limiting blocks to move away from each other along the first direction to a second specified distance so as not to satisfy the limiting relationship.

[0031] In some modified embodiments of the first aspect of this application, the aforementioned electronic device, wherein the first structural member includes at least one limiting block, and the structural control member is capable of driving the at least one limiting block to reciprocate along the first direction;

[0032] The second structural component includes a first limiting groove, a second limiting groove, a third limiting groove, and a fourth limiting groove arranged sequentially and at intervals along a first direction, and an annular channel communicating around the second direction is formed between the first limiting groove and the second limiting groove and between the third limiting groove and the fourth limiting groove.

[0033] Wherein, the first body moves through the first part in the first motion manner to satisfy the first positional relationship with the second body, and the structural control component can drive the at least one limiting block to move along the first direction to the limiting groove outside the annular channel to satisfy the limiting relationship;

[0034] The first body moves through the first part in the first motion manner to satisfy the second positional relationship with the second body, and the structural control member can drive the at least one limiting block to move along the first direction into the annular channel so as not to satisfy the limiting relationship.

[0035] A second aspect of this application provides a method for operating an electronic device, comprising the following steps:

[0036] Under the action of the first force, the first body moves relative to the second body in a first motion manner through the first part of the connecting component;

[0037] Under the action of the second force, the first body moves relative to the second body in a second manner via the second part of the connecting component.

[0038] Wherein, when the first body moves through the first part in the first motion mode to a positional relationship with the second body, the movement of the first body through the second part in the second motion mode is affected.

[0039] Compared to the prior art, the electronic device provided in the first aspect of this application, through the cooperation of the first part and the second part in the connecting component, enables the first body to move relative to the second body in a first motion manner until it satisfies the first positional relationship with the second body, at which point the movement of the first body relative to the second body in a second motion manner will be affected. Attached Figure Description

[0040] The above and other objects, features, and advantages of exemplary embodiments of this application will become readily understood by reading the following detailed description with reference to the accompanying drawings. In the drawings, several embodiments of this application are illustrated by way of example and not limitation, with the same or corresponding reference numerals denoteing the same or corresponding parts, wherein:

[0041] Figure 1 This schematic diagram illustrates the state of the electronic device disclosed in this embodiment moving in a first motion manner;

[0042] Figure 2 This schematic diagram illustrates the state of the electronic device disclosed in this embodiment moving in a second motion manner;

[0043] Figure 3 A schematic diagram illustrating a first state of the connection component in the electronic device disclosed in this embodiment is shown.

[0044] Figure 4 A schematic diagram illustrating a second state of the connection component in the electronic device disclosed in this embodiment is shown.

[0045] Figure 5 A schematic diagram of the rotating shaft structure in the connecting assembly disclosed in this embodiment is shown.

[0046] Figure 6 An exploded view schematically illustrates the basic structure of the connecting components;

[0047] Figure 7 An exploded view of the first type of connection assembly disclosed in this embodiment is shown schematically.

[0048] Figure 8 schematically shown Figure 7 Schematic diagram of the middle limiting block;

[0049] Figure 9 schematically shown Figure 7 A schematic diagram of the switching lever;

[0050] Figure 10 schematically shown Figure 7 A schematic diagram of the structure of the central rotating shaft;

[0051] Figure 11 schematically shown Figure 7 A schematic diagram of the structure where the connecting component is in a limited position;

[0052] Figure 12 schematically shown Figure 7 A schematic diagram of the structure where the connecting component is in a non-limited state;

[0053] Figure 13 A schematic diagram of a second exploded structure of the connecting component disclosed in this embodiment is shown.

[0054] Figure 14 schematically shown Figure 13 A schematic diagram of the switching lever;

[0055] Figure 15 schematically shown Figure 13 Schematic diagram of the structure of the top block;

[0056] Figure 16 schematically shown Figure 13 A schematic diagram of the structure where the connecting component is in a limited position;

[0057] Figure 17 schematically shown Figure 13 A schematic diagram of the structure where the connecting component is in a non-limited state;

[0058] Figure 18 A schematic diagram of a third exploded structure of the connecting assembly disclosed in this embodiment is shown.

[0059] Figure 19 schematically shown Figure 18 Schematic diagram of the middle limiting block structure;

[0060] Figure 20 schematically shown Figure 18 A schematic diagram of the structure where the connecting component is in a limited position;

[0061] Figure 21 schematically shown Figure 18 A schematic diagram of the structure where the connecting component is in a non-limited state;

[0062] Figure 22 schematically shown Figure 18 Schematic diagram of the structural fit between the middle rope and the connecting components;

[0063] Figure 23 A fourth exploded view of the connecting assembly disclosed in this embodiment is schematically shown;

[0064] Figure 24 schematically shown Figure 23 A schematic diagram of the structure of the second structural component in the intermediate connection assembly;

[0065] Figure 25 schematically shown Figure 23 A schematic diagram of the guide groove in the intermediate connection component;

[0066] Figure 26 schematically shown Figure 23Schematic diagram of the middle limiting block;

[0067] Figure 27 schematically shown Figure 23 A schematic diagram of the switching lever;

[0068] Figure 28 schematically shown Figure 23 A schematic diagram of the structure where the connecting component is in a non-limited state;

[0069] Figure 29 schematically shown Figure 28 A schematic diagram showing the structural fit between the switching lever and the guide groove in different states;

[0070] Figure 30 schematically shown Figure 23 A schematic diagram of the structure where the connecting component is in a limited position;

[0071] Figure 31 schematically shown Figure 30 A schematic diagram showing the structural fit between the switching lever and the guide groove in different states;

[0072] Figure 32 A schematic diagram of a fifth exploded structure of the connecting component disclosed in this embodiment is shown.

[0073] Figure 33 schematically shown Figure 32 A schematic diagram of the structure of the second structural component in the intermediate connection assembly;

[0074] Figure 34 schematically shown Figure 32 Schematic diagram of the structure of the helical guide rod;

[0075] Figure 35 schematically shown Figure 32 Schematic diagram of the middle limit guide rod;

[0076] Figure 36 schematically shown Figure 32 A schematic diagram of the guide groove in the intermediate connection component;

[0077] Figure 37 schematically shown Figure 32 Schematic diagram of the structure of the T-shaped shaft body;

[0078] Figure 38 schematically shown Figure 32 A schematic diagram of the structure where the connecting component is in a limited position;

[0079] Figure 39 schematically shown Figure 32 A schematic diagram showing the structural fit between the limiting guide rod and the guide groove in the current state;

[0080] Figure 40 schematically shown Figure 32 A schematic diagram of the structure where the connecting component is in a non-limited state;

[0081] Figure 41 schematically shown Figure 32 A schematic diagram showing the structural fit between the limiting guide rod and the guide groove in the current state;

[0082] Reference numerals: 1. Electronic device; 2. First body; 3. Second body; 4. Connecting assembly; 5. First part; 6. U-shaped connecting shell; 7. T-shaped shaft body; 8. Flip shaft; 9. Shaft; 10. Second arc-shaped part; 11. Second part; 12. Connecting frame; 13. Flange; 14. Lower chuck; 15. Upper chuck; 16. Base; 17. Limiting groove; 18. Affecting component; 19. First structural component; 10. Limiting block; 11. First through hole; 12. Second through hole; 13. Connecting rod; 14. Elastic component. Limiting guide rod 714, second structural component 72, first limiting groove 721, second limiting groove 722, third limiting groove 723, fourth limiting groove 724, annular channel 725, control component 8, switching part 81, first arc-shaped part 82, switching rod 83, switching head 831, top block 84, receiving groove 841, rope body 85, adjusting end 851, pressing wheel 86, guide groove 87, spiral guide rod 88, guide block 881, spiral rod 89, first direction a, second direction b, third direction c. Detailed Implementation

[0083] Exemplary embodiments of the present disclosure will now be described in more detail with reference to the accompanying drawings. While exemplary embodiments of the present disclosure are shown in the drawings, it should be understood that the present disclosure may be implemented in various forms and should not be limited to the embodiments set forth herein. Rather, these embodiments are provided so that this disclosure will be thorough and complete, and will fully convey the scope of the disclosure to those skilled in the art.

[0084] It should be noted that, unless otherwise stated, the technical or scientific terms used in this application shall have the ordinary meaning as understood by one of ordinary skill in the art to which this application pertains.

[0085] Reference Appendix Figure 1 and attached Figure 2 This embodiment discloses an electronic device 1, which includes a first body 2, a second body 3, and a connection component 4 connected to the first body 2 and the second body 3; the connection component 4 includes a first part 5 and a second part 6, the first part 5 enabling the first body 2 to move relative to the second body 3 in a first motion manner, and the second part 6 enabling the first body 2 to move relative to the second body 3 in a second motion manner.

[0086] Wherein, the first body 2 moves through the first part 5 in the first movement mode to satisfy the first positional relationship with the second body 3, so that the movement of the first body 2 through the second part 6 in the second movement mode is affected.

[0087] Considering that the two bodies of an electronic device can move in different ways relative to the connecting component, thus enabling different usage forms to adapt to different application scenarios or working states, when the included angle between the two bodies is small or non-existent, if the bodies can move arbitrarily, the opposing surfaces of the two bodies that satisfy the parallel condition will be damaged, further affecting the product's service life or aesthetics.

[0088] Specifically, to solve this problem, this embodiment provides an electronic device 1, which, through the setting of the connecting component 4, allows the first body 2 of the electronic device 1 to move independently in a first motion mode and a second motion mode relative to the second body 3. Furthermore, when the first motion mode moves to a position relative to the second body 3 to satisfy a first positional relationship, the second motion mode of the electronic device 1 relative to the second body 3 will be affected and restricted. This means that when the first motion mode of the electronic device 2 is relative to the second body 3 and satisfies the first positional relationship, the second motion will be restricted. In this way, when the first motion mode is flipping and the second motion mode is rotating, the second motion can be easily avoided when the first positional relationship is satisfied, thus preventing unnecessary damage.

[0089] The electronic device 1 can be, but is not limited to, a laptop computer. The first body 2 and the second body 3 can be, but are not limited to, the screen and system of the laptop computer, for example, a plate-like or block-like structure. The following description will use a laptop computer as an example. The first body 2 and the second body 3 are respectively the screen and system of the laptop computer. In this embodiment, the first body 2 can move relative to the second body 3 in a first motion mode and a second motion mode, and the two motions are performed independently. The first motion mode and the second motion mode can, but are not limited to, correspond to flipping about a horizontal axis and rotating about a vertical axis, respectively, wherein the horizontal axis and the vertical axis can satisfy the vertical condition.

[0090] Among them, reference appendix Figure 3 and attached Figure 4The connecting component 4 is a connecting structure, which may be, but is not limited to, a rotating shaft assembly. It includes a first part 5 and a second part 6, which are interconnected. The first part 5 is used to connect the first body 2, and the second part 6 is used to connect the second body 3. For example, the first part 5 may include at least a horizontal shaft, and the second part 6 may include at least a vertical shaft. Alternatively, the first part 5 may include both a horizontal and a vertical shaft. The first part 5 is mounted on the second part 6, and the two shafts cooperate to form... Figure 5 As shown in the T-shaped axis, the first body 2 can achieve a first movement mode through the first part 5, namely, flipping 360 degrees to open and close the screen, and achieve a second movement mode through the second part 6, namely, rotating 360 degrees to switch the display direction of the screen. When the first body 2 moves through the first part 5 in the first movement mode (flipping) to satisfy the first positional relationship with the second body 3, the second movement mode (rotation) of the first body 2 through the second part 6 will be affected and restricted, thereby ensuring that when the first body 2 and the second body 3 satisfy the first positional relationship, the first body 2 cannot perform the second movement mode (rotation) relative to the second body 3. The first positional relationship can be, but is not limited to, the positional relationship of the first body 2 relative to the second body 3 before flipping to a predetermined angle. The predetermined angle can be greater than 45 degrees for a laptop, such as 90 degrees.

[0091] Accordingly, see Appendix Figure 2 In the specific implementation of the electronic device 1 provided in this embodiment, the first body 2 moves to a position relative to the second body 3 in a first motion manner through the first part 5, and the movement of the first body 2 in the second motion manner through the second part 6 is not affected.

[0092] That is, when the first body 2 moves relative to the second body 3 in a first motion manner to satisfy the second position relationship, the first body 2 can then rotate through the second part 6 in the second motion manner; wherein the second position relationship can be, but is not limited to, the position relationship after the first body 2 is flipped to a predetermined angle, that is, the first position relationship is released.

[0093] Among them, reference appendix Figure 5 and attached Figure 6Regarding the basic structure of the connecting component 4, its first part 5 includes a U-shaped connecting shell 51, a T-shaped shaft body 52, and a flip shaft 53. The T-shaped shaft body 52 is mainly used to fit onto the second part 6 to achieve rotation relative to the second part 6 around a vertical axis. A flip shaft 53 is rotatably set at each end of the T-shaped shaft body 52 along the first direction a to connect the first body 2 and apply force for flipping and rotation, thus achieving the horizontal axis setting. The U-shaped connecting shell 51 at least covers the flip shaft body 53 to ensure the connection with the first body 2 and the integrity and aesthetics of the appearance. The first direction a is perpendicular to the second direction b, that is, the first direction a is parallel to the length or width of the first body 2 or the second body 3, i.e., the direction of the horizontal axis.

[0094] Among them, reference appendix Figure 5 and attached Figure 6 Regarding the basic structure of the connecting component 4, its second part 6 includes a connecting frame 61, a flange 62, a lower chuck 63, an upper chuck 64, and a base 65. The flange 62 and the base 65 are stacked along the second direction b so that the T-shaped shaft body 52 is fitted into the corresponding hole to achieve the vertical shaft setting. The upper chuck 64 and the lower chuck 63 are stacked between the flange 62 and the base 65 to provide torque for the rotation of the T-shaped shaft body 52. ​​The connecting frame 61 at least accommodates the flange 62, the lower chuck 63, the upper chuck 64, and the base 65, ensuring the connection with the second body 3 and the integrity and aesthetics of the appearance. It can be understood that the second direction b is the direction from the second body 3 to the first body 2, where the second body 3 is stacked with the first body 2.

[0095] According to the above, the electronic device 1 provided in this embodiment, through the cooperation of the first part 5 and the second part 6 in the connecting component 4, enables the first body 2 to move relative to the second body 3 in a first motion manner until it satisfies the first positional relationship with the second body 3. When this happens, the movement of the first body 2 relative to the second body 3 in a second motion manner will be affected, that is, it will be unable to move in the second motion manner. This allows the screen to rotate only after it has been flipped at a certain angle relative to the system end before the display orientation can be switched. This solves the problem that when the screen of an existing laptop computer has a relatively small screen flip angle, if the screen is rotated, it will cause misalignment with the base, i.e., the system end, which can easily lead to scratches on the screen.

[0096] In this article, the term "and / or" is merely a description of the relationship between related objects, identifying three possible relationships, such as A and / or B. Specifically, it can mean that A and B can be included simultaneously, A can exist alone, or B can exist alone, and any one of the above three conditions can be met.

[0097] Furthermore, in a specific implementation of the electronic device 1 provided in this embodiment, the connecting component 4 includes an influencing element 7, which has a first state and a second state. The first state affects the movement of the first body 2 in the second movement mode, while the second state does not affect the movement of the first body 2 in the second movement mode.

[0098] The electronic device 1 includes a control component 8 connected to the influencing element 7. The control component 8 is related to the movement of the first body 2 via the first part 5 in the first movement mode. It is used to control the influencing element 7 to be in the first state when the first body 2 moves to a positional relationship with the second body 3 via the first part 5 in the first movement mode; and to control the influencing element 7 to be in the second state when the first body 2 moves to a positional relationship with the second body 3 via the first part 5 in the first movement mode.

[0099] Specifically, in order to achieve the effect of influencing or not influencing the second motion mode of the connecting component 4, in this embodiment, the connecting component 4 is configured to include a control component 8 and an influencing component 7. The influencing component 7 is a structural component disposed between and / or on the first part 5 and the second part 7, which is controlled by the control component 8 to switch between a first state and a second state, thereby influencing or not influencing the second motion mode of the first body 2. That is, before the first body 2 is flipped relative to the second body 3 to a predetermined angle, such as 90 degrees, the first body 2 and the second body 3 are in a first positional relationship, and the influencing component 7 is controlled to be in the first state during this process. After the first body 2 is flipped relative to the second body 3 to a predetermined angle, such as 90 degrees, the first body 2 and the second body 3 are in a second positional relationship, and the influencing component 7 is controlled to be in the second state during this process. For example, the influencing component 7 includes a limiting block, which moves back and forth between the first part 5 and the second part 6 to achieve limiting; or the influencing component 7 includes mutually cooperating limiting blocks, which move closer or further away from each other to achieve limiting, etc. The control component 8 can be a structural component or an electrical control component related to the movement of the first body 2 through the first part 5 in the first movement mode. That is, the control component 8 can obtain the degree of movement of the first body 2 in the first movement mode, thereby controlling the influencing component 8 accordingly. When it is a structural component, it is located between the first part 5 and the second part 6, and its movement mode with the first body 2 is purely structurally linked, and its movement with the influencing component 7 is also purely structurally linked. When it is an electrical control component, it can detect and obtain the degree of movement of the first body 2 in the first movement mode, and determine the first positional relationship and the second positional relationship according to a predetermined angle to control the influencing component 7 accordingly.

[0100] Furthermore, in the specific implementation of the electronic device 1 provided in this embodiment, the control component 8 is the structural control component included in the connection component 4;

[0101] The influencing component 7 includes a first structural component 71 and a second structural component 72 that cooperate with each other; the first state includes the first structural component 71 and the second structural component 72 satisfying a restrictive relationship; the second state includes the first structural component 71 and the second structural component 72 not satisfying a restrictive relationship.

[0102] Specifically, the structural control component moves along with the first body 2 through the first part 5 in the first motion mode, and the structural control component is connected to the first structural component 71;

[0103] If the first body 2 moves through the first part 5 in the first motion manner to satisfy the first positional relationship with the second body 3, the structural control member can drive the first structural member 71 so that the first structural member 71 and the second structural member 72 satisfy the restriction relationship.

[0104] If the first body 2 moves through the first part 5 in the first motion manner to satisfy the second positional relationship with the second body 3, the structural control member can drive the first structural member 71 so that the first structural member 71 and the second structural member 72 do not satisfy the restriction relationship.

[0105] Specifically, when the control component 8 is a structural control component, it is connected to the first structural component 71 and the first body 2 to achieve structural linkage. When the first body 2 moves in the first motion mode, the structural control component moves accordingly to achieve drive control of the first structural component 71 and the second structural component 72. It can be understood that the structural control component can be connected to the aforementioned flip shaft 53 and / or the U-shaped connecting shell 51 to obtain the degree of movement of the first body 2 in the first motion mode and perform corresponding linkage. One of the first structural component 71 and the second structural component 72 can remain stationary in the first part 5 or the second part 6, while the other moves relative to the former between the first part 5 and the second part 6 to achieve limiting and releasing the limiting, for example, the cooperation of the limiting block and the limiting groove.

[0106] Furthermore, in the specific implementation of the electronic device 1 provided in this embodiment, the first structural member 71 is movably disposed between the first part 5 and the second part 6 along the second direction b; the second structural member 72 is disposed in the second part 6 and movably cooperates with the first structural member 71.

[0107] Wherein, the first body 2 moves through the first part 5 in the first movement mode to satisfy the first positional relationship with the second body 3, and the structural control member can drive the first structural member 71 to move along the second direction b to contact the second structural member 72 to satisfy the restriction relationship; the first body 2 moves through the first part 5 in the first movement mode to satisfy the second positional relationship with the second body, and the structural control member can drive the first structural member 71 to move along the second direction b to disengage from the second structural member 72 so as not to satisfy the restriction relationship.

[0108] Specifically, in order to achieve the cooperative limiting of the first structural member 71 and the second structural member 72 in the second direction b, this embodiment provides the following three implementation schemes:

[0109] The first method, see attached document. Figure 7 and attached Figure 8 The second structural component 72 includes two limiting grooves 66 spaced apart along the first direction a on the base 65, with the groove openings facing the first part 5; the first structural component 71 includes at least one limiting block 711 corresponding to the limiting groove 66, a connecting rod 712, and an elastic member 713. The limiting block 711 is connected to the connecting rod 712 upward along the second direction b, and the connecting rod 712 extends towards the first part 5 along the second direction b. The elastic member 713 is sleeved on the outside of the connecting rod 712, with its two ends abutting against the limiting block 711 and the T-shaped shaft body 52, respectively; the bottom side of the limiting block 711 can be chamfered to reduce the friction when it exits from and enters the limiting groove 66.

[0110] In this configuration, please refer to the appendix. Figure 9 and attached Figure 10 The control component 8 includes a switching part 81, which is disposed on the side of the T-shaped shaft body 52 away from the base 65 and fixedly connected to the connecting rod 712. Specifically, the connecting rod 712 passes through the T-shaped shaft body 52 and is fixedly connected to the switching part 81. The switching part 81 has a first arc-shaped portion 82 at both ends along the first direction a on the side away from the base 65. A corresponding pivot 531 is provided on the flip shaft 53 along the first direction a, and a second arc-shaped portion 532 adapted to the pivot 531 is provided at one end of the pivot 531 facing the T-shaped shaft body 52. ​​(See attached diagram.) Figure 11In the initial state, the first body 2 is stacked relative to the second body 3, and the limiting block 711 is located within the limiting groove 66. When the first body 2 begins to move in the first motion mode, that is, when it rotates around the horizontal axis with the axis 531, the limiting block 711 cannot disengage from the limiting groove 66. That is, the first body 2 and the second body 3 are in a first positional relationship, so that the first body 2 can only rotate around the horizontal axis and cannot rotate around the vertical axis. Before the first body 2 rotates relative to the second body 3 around the horizontal axis to a predetermined angle, such as 90 degrees, the second arc-shaped portion 532 and the first arc-shaped portion 82 are not in contact, and the limiting block 711 is still restricted within the limiting groove 66. Accordingly, refer to the attached drawing. Figure 12 When the first body 2 is flipped to a specified angle, such as 90 degrees, the second arc-shaped part 82 and the first arc-shaped part 532 overlap in the second direction b, thereby pushing the first arc-shaped part 532, i.e., the switching part 81, upward along the second direction b. This pulls up the limiting block 711 and out of the limiting groove 66 via the connecting rod 712. At this time, the limiting block 711 disengages from the limiting groove 66, and the movement of the first body 2 relative to the second body 3 in the second motion mode, i.e., the rotation around the vertical axis, is no longer affected. That is, the first body 2 and the second body 3 are at the same position. Regarding the second positional relationship; after the limiting block 711 disengages from the limiting groove 66, it will rotate along with the first part 5 and the first body 2. During the rotation, the limiting block 711 remains above the base 65, and the elastic element 413 always provides downward elastic force until the first body 2 moves 180 degrees in the second movement mode, that is, the display side of the display screen is flipped. At this time, the limiting block 711 corresponds to another limiting groove 66, and returns to the limiting groove 66 under the action of the elastic force to achieve secondary locking, that is, to restrict the movement of the second movement mode again. It can be understood that the initial positions of the first arc-shaped part 82 and the second arc-shaped part 532 can be set according to actual needs to adjust the specific situation of the first positional relationship, that is, the aforementioned predetermined angle. For example, the first positional relationship is satisfied with the second body 3 before the first body 2 is flipped relative to the second body 3 to an angle of 90 degrees, 45 degrees, 60 degrees, etc.; at the same time, the adjustable distance of the limiting block 711 along the second direction b is also adjustable. Furthermore, in this embodiment, the limiting block 711 is a rigid structure that cannot be compressed. Therefore, after the first body 2 reaches the predetermined angle and moves to a certain extent in the second motion mode, i.e., rotates within a certain range (before reaching the secondary locking state), the first body 2 cannot move in the first motion mode again. Of course, it is understood that it is preferable to set two limiting blocks 711 corresponding to the limiting grooves 66 to ensure the stability of the movement of the first body 2.

[0111] The second method is detailed in the appendix. Figure 13 Appendix Figure 14 and appendix Figure 15The second structural component 72 includes two limiting grooves 66 spaced apart along the first direction a on the base 65, with the groove openings facing the first part 5; the first structural component 71 includes at least one limiting block 711 corresponding to the limiting groove 66, a connecting rod 712, and an elastic member 713. The limiting block 711 is connected to the connecting rod 712 upward along the second direction b, and the connecting rod 712 extends towards the first part 5 along the second direction b. The elastic member 713 is sleeved on the outside of the connecting rod 712, with its two ends abutting against the limiting block 711 and the T-shaped shaft body 52, respectively; the bottom side of the limiting block 711 can be chamfered to reduce the friction when it exits from and enters the limiting groove 66.

[0112] In this configuration, please refer to the appendix. Figure 14 and attached Figure 15 The control component 8 includes two switching levers 83 and two top blocks 84. The two switching levers 83 are respectively set corresponding to two shafts 531. In this configuration, the shafts 531 have no special structure, as long as they are coaxial with the flip shaft 53. The switching levers 83 can be connected to the shafts 531 or to the U-shaped connecting shell 51, as long as they can flip around the horizontal axis with the first body 2. The end of the switching lever 83 away from the shaft 531 is an elliptical or racetrack-shaped switching head 831, and is eccentrically set with respect to the shaft 531. The top block 84 is a slotted top block, and one side surface is provided with a receiving groove 841 for receiving and connecting the switching head 831 of the switching lever 83. The connecting rod 712 passes through the T-shaped shaft body 52 along the second direction b and is fixedly connected to the top block 84. (See attached figure) Figure 16 In the initial state, the first body 2 is stacked relative to the second body 3, and the limiting block 711 is located within the limiting groove 66. The first body 2 and the second body 3 are in a first positional relationship. When the first body 2 begins to move in a first motion mode, that is, when it rotates around the horizontal axis with the axis 531, the limiting block 711 cannot disengage from the limiting groove 66, so that the first body 2 can only rotate around the horizontal axis and cannot rotate around the vertical axis. During this process, before the first body 2 rotates relative to the second body 3 around the horizontal axis to a predetermined angle, such as 90 degrees, the size of the switching head 831 along the second direction b is small, and the limiting block 711 is still partially restricted within the limiting groove 66. Accordingly, refer to the attached... Figure 17When the first body 2 is flipped to a specified angle, such as 90 degrees, the switching head 831, along with the axis 531, or in other words, after the first body 2 is flipped, its size in the second direction b increases. This causes the top block 84 to be pushed upward along the second direction b, thereby pulling up the limiting block 711 through the connecting rod 712 and pulling it out of the limiting groove 66. At this time, the limiting block 711 is disengaged from the limiting groove 66, and the movement of the first body 2 relative to the second body 3 in the second motion mode, i.e., the rotation around the vertical axis, is no longer affected. That is, the first body 2 and the second body 3 are in a state of equilibrium. The second positional relationship: After the limiting block 711 disengages from the limiting groove 66, it will rotate with the first part 5 and the first body 2. During the rotation, the limiting block 711 remains above the base 65, and the elastic element 413 always provides downward elastic force until the first body 2 moves 180 degrees in the second movement mode, that is, the display side of the display screen is flipped. At this time, the limiting block 711 corresponds to another limiting groove 66, and returns to the limiting groove 66 under the action of the elastic force to achieve secondary locking, that is, to restrict the movement of the second movement mode again. It can be understood that the initial position of the receiving groove 841 of the switching head 831 and the top block 84 can be set according to actual needs to adjust the specific situation of the first positional relationship, that is, the aforementioned predetermined angle. For example, the first positional relationship is satisfied with the second body 3 before the first body 2 is flipped relative to the second body 3 to an angle of 90 degrees, 45 degrees, 60 degrees, etc.; at the same time, the size of the switching head 831 is also adjustable. Furthermore, in this embodiment, the limiting block 711 is a rigid structure that cannot be compressed. Therefore, after the first body 2 reaches the predetermined angle and moves to a certain extent in the second motion mode, i.e., rotates within a certain range (before reaching the secondary locking state), the first body 2 cannot move in the first motion mode again. Of course, it is understood that it is preferable to set two limiting blocks 711 corresponding to the limiting grooves 66 to ensure the stability of the movement of the first body 2.

[0113] The third method, see attached document. Figure 18 and Figure 19 The second structural component 72 includes two limiting grooves 66 spaced apart along the first direction a on the base 65, with the groove openings facing the first part 5; the first structural component 71 includes two limiting blocks 711 corresponding to the limiting grooves 66 and an elastic element 713. The limiting block 711 has a horizontal first through hole 7111 in the middle for inserting a rod or screw. The end of the limiting block 711 away from the base 65 has a second through hole 7112 that communicates with and is perpendicular to the first through hole 7111 for inserting a rope 85. The elastic element 713 is located at the end of the limiting block 711 away from the base 65 and is used to fit around the rope 85. Both ends abut against the limiting block 711 and the T-shaped shaft body 52, respectively. The bottom side of the limiting block 711 can be chamfered to reduce the friction when it comes out of and into the limiting groove 66.

[0114] In this configuration, please refer to the appendix. Figure 18The control component 8 includes two ropes 85 of equal length and two pressure rollers 86. The two ropes 85 are respectively set along the first direction a corresponding to the two shafts 531. In this setting, the shafts 531 have no special structure, as long as they can be coaxial with the flipping shaft 53. One end of the rope 85 can be connected to the shaft 531 or to the U-shaped connecting shell 51, as long as it can be wound around with the flipping of the first body 2. The other end passes through the T-shaped shaft body 52, the elastic element 712, and the second through hole 7112 and connects to the rod or screw in the first through hole 7111 to achieve a fixed connection with the limiting block 711. In this embodiment, the initial winding directions of the two ropes 85 are opposite, and when they are flipped with the first body 2, one is wound tightly and the other is wound loosely. Then refer to the attached... Figure 20 In the initial state, the first body 2 is stacked relative to the second body 3, with one limiting block 711 inside the limiting groove 66 and the other limiting block 711 outside the limiting groove 66. Correspondingly, one elastic element 712 remains undeformed while the other is compressed. At this time, one limiting block 711 cannot disengage from the limiting groove 66, allowing the first body 2 to rotate only around the horizontal axis and not around the vertical axis. Before the first body 2 rotates relative to the second body 3 around the horizontal axis to a predetermined angle, such as 90 degrees, the limiting block 711 is still partially restricted within the limiting groove 66. Accordingly, refer to the attached... Figure 21As the first body 2 continues to rotate, the two ropes 85 rotate with the first body 2. Correspondingly, the limiting block 711 outside the limiting groove 66 is relaxed by the loosened ropes 85 and moves towards the limiting groove 66 under the restoring deformation force of the elastic element 712. Correspondingly, the limiting block 711 inside the limiting groove 66 is pulled up along the second direction b by the tightly wound ropes 85 and moves out of the limiting groove 66. That is, the two limiting blocks 711 alternately rise and fall along the second direction b and in the opposite direction to the second direction b; until the first... When the first body 2 is flipped to a predetermined angle, such as 90 degrees, both limiting blocks 711 are outside the limiting groove 66. Therefore, the movement of the first body 2 relative to the second body 3 in the second motion mode, i.e., rotation around the vertical axis, is no longer affected. It can be understood that after the limiting block 711 disengages from the limiting groove 66, it will rotate with the first part 5 and the first body 2. During rotation, the limiting block 711 remains above the base 65, and the elastic element 413 always provides a downward elastic force that balances the tension of the rope 85. It can be understood that the wound length of the rope 85 is related to the overlap depth of the limiting blocks 711 and the limiting groove 66 in the second direction b. Adjusting the above data can adjust the specific situation of the first positional relationship, i.e., the aforementioned predetermined angle. For example, the first positional relationship is satisfied with the second body 3 before the first body 2 is flipped to angles such as 90 degrees, 45 degrees, and 60 degrees relative to the second body 3. In this embodiment, the elastic element 712 is sleeved on the outside of the rope 85 and can be continuously compressed. After the first body 2 reaches a predetermined angle, it moves to a certain extent in the second motion mode, that is, it rotates within a certain range. Then, the first body 2 can continue to move in the first motion mode. The rope 85 is a soft rope that cannot be stretched, such as a steel wire rope. In order to ensure that the rope 85 does not shift or move during winding, a pressure wheel 86 is provided in this embodiment. It is arranged along the third direction c (the direction perpendicular to the first direction a and the second direction b) on the side of the rope 85 away from the base 65 to press and position it. The pressure wheel 86 can be directly connected or rotatably connected to the U-shaped connecting shell 51 or the T-shaped shaft body 52.

[0115] Furthermore, in order to achieve more humane adjustments, please refer to the appendix. Figure 22 In this embodiment, the end of the rope 85 connected to the shaft 531 or the first body 2 can be placed in the space of the U-shaped connecting shell 51 or outside the electronic device 1, and an adjustment end 851 is reserved, such as a rotatable screw, so that the winding length of the rope 85 can be adjusted, thereby adjusting the specific situation of the first position relationship between the first body 2 and the second body 3, improving the humanization and flexibility of the electronic device 1.

[0116] Furthermore, in the specific implementation of the electronic device 1 provided in this embodiment, the first structural member 5 is movably disposed between the first part 5 and the second part 6 along the first direction a, and the first direction a is perpendicular to the direction in which the first body 2 and the second body 3 are stacked; the second structural member 72 is disposed in the second part 6 and movably cooperates with the first structural member 71.

[0117] Wherein, the first body 2 moves through the first part 5 in the first movement mode to satisfy the first positional relationship with the second body 3, and the structural control member can drive the first structural member 71 to move along the first direction a to engage with the second structural member 72 to satisfy the restriction relationship; the first body 2 moves through the first part 5 in the first movement mode to satisfy the second positional relationship with the second body 3, and the structural control member can drive the first structural member 71 to move along the first direction a to be independent of the second structural member 72 so as not to satisfy the restriction relationship.

[0118] Specifically, in order to achieve the cooperative limiting of the first structural member 71 and the second structural member 72 in the first direction a, this embodiment provides the following two implementation schemes:

[0119] First type; see attached document Figure 23 The first structural component 71 includes two limiting blocks 711; the two limiting blocks 711 are opposite to each other and movably arranged along the first direction a; the second structural component 72 includes a limiting groove 66 arranged along the first direction a, and the two limiting blocks 711 can move closer to each other or further away from each other within the limiting groove 72 along the first direction a.

[0120] Wherein, the first body 2 moves through the first part 5 in the first movement mode to satisfy the first positional relationship with the second body 3, and the structural control component can drive the two limiting blocks 711 to move closer to each other along the first direction a to a first specified distance to satisfy the limiting relationship; the first body 2 moves through the first part 5 in the first movement mode to satisfy the first positional relationship with the second body 3, and the structural control component can drive the two limiting blocks 711 to move away from each other along the first direction a to a second specified distance so as not to satisfy the limiting relationship.

[0121] Specifically, for this setting method, please refer to the appendix. Figure 23 and attached Figure 24 The limiting groove 66 is located at the bottom of the connecting frame 61. Therefore, the dimension of the corresponding receiving groove 66 along the third direction c must be greater than or equal to the outer diameter of the common circumscribed circle of the two limiting blocks 711 when they are close together to a certain extent, for example, the maximum outer diameter of the circumscribed circle when they are fitted together. Further reference is made to the attached... Figure 28When the two limiting blocks 711 are far apart from each other along the first direction a within the limiting groove 66, and the outer diameter of their common circumscribed circle is much larger than the diameter of the inscribed circle of the receiving groove 66, then when the T-shaped shaft body 52, i.e., the first body 2, rotates around the vertical axis, the two limiting blocks 711 cannot rotate within the limiting groove 66, thus achieving limiting; correspondingly, refer to the attached... Figure 30 When the two limiting blocks 711 approach and fit together along the first direction a within the limiting groove 66, the outer tangent circles of the two limiting blocks 711 are equal to or smaller than the inner tangent circles of the receiving groove 66. Consequently, when the T-shaped shaft body 52, i.e., the first body 2, rotates around the vertical axis, the two limiting blocks 711 can rotate within the limiting groove 66 to release the limiting function. Therefore, the limiting blocks 711 can be as follows: Figure 26 The semi-cylindrical shape shown can also be any other shape, in which case the control component will include at least the following: Figure 27 The switch lever 83 shown and as Figure 25 The guide groove 87 shown has a switching rod 83 extending along the first direction a. One end (right end in the figure) is movably disposed within the guide groove 87, and the other end (left end in the figure) is rotatably connected to the limiting block 711, ensuring that the limiting block 711 can be driven to move along the first direction a while rotating with the first body 2. The guide groove 87 is V-shaped on the U-shaped connecting shell 51, and the openings of the two guide grooves 87 corresponding to the two switching rods 83 are opposite to each other in the first direction a. (See attached figure.) Figure 29 In the initial state, the first body 2 and the second body 3 are stacked, with the two guide rods 83 located at the opening ends (i.e., the farthest ends) of the two guide grooves 87, and the two limiting blocks 711 are also in position. Figure 28 As shown in the diagram, when the U-shaped connecting shell 51 rotates with the first body 2, the guide rod 83 will move along the guide groove 87 in the first direction a until the first body 2 moves to a predetermined angle, such as 90 degrees. Then, the guide rod 83 will move to the tip of the guide groove 87. Figure 31 In the state shown, the two limit blocks 711 are pushed closer to each other by the switching lever 83. Figure 30 If the first body 2 and the second body 3 are in a second positional relationship and can rotate within the limiting groove 66, then the first body 2 and the second body 3 are in a second motion relationship and can move relative to the second body 3 in a second motion mode; it can be understood that, referring to the attached... Figure 31If the first body 2 continues to move in the first motion mode, the switching rod 83 will move again towards the opening end (the farthest end) on the lower side of the guide groove 87, thereby causing the two limiting blocks 711 to move away again along the first direction a, locking them a second time. Furthermore, in this embodiment, the limiting blocks 711 are rigid structures and cannot be compressed. Therefore, after the first body 2 reaches a predetermined angle and moves to a certain extent in the second motion mode (i.e., rotates a certain range) (before reaching the second locking state), the first body 2 cannot move in the first motion mode again. Of course, it is understandable that the specific situation of the first positional relationship can be adjusted by adjusting the size of the third direction c of the limiting groove 66 and the size of the two limiting blocks 711. For example, if the size of the limiting blocks 711 is small enough, then the two limiting blocks 711 can rotate within the receiving groove 66 even if they are not in contact with each other in the first direction a.

[0122] The second method: See attached document Figure 32 The first structural member 71 includes at least one limiting block 711, and the structural control member can drive the at least one limiting block 711 to reciprocate along the first direction a; the second structural member 72 includes a first limiting groove 721, a second limiting groove 722, a third limiting groove 723 and a fourth limiting groove 724 arranged sequentially and at intervals along the first direction a, and an annular channel 725 communicating around the second direction b is formed between the first limiting groove 721 and the second limiting groove 722 and between the third limiting groove 723 and the fourth limiting groove 724;

[0123] Wherein, the first body 2 moves through the first part 5 in the first movement mode to satisfy the first positional relationship with the second body 3, and the structural control member can drive the at least one limiting block 711 to move along the first direction a to the limiting groove outside the annular channel 725 to satisfy the limiting relationship; the first body 2 moves through the first part 5 in the first movement mode to satisfy the second positional relationship with the second body 3, and the structural control member can drive the at least one limiting block 711 to move along the first direction a to the annular channel 725 to not satisfy the limiting relationship.

[0124] Specifically, for this setting method, please refer to the appendix. Figure 33 The second structural member 72 includes a first limiting groove 721 and a fourth limiting groove 724 disposed at both ends of the base 65 along the first direction a, and a second limiting groove 722 and a third limiting groove 723 disposed at both ends of the upper chuck 64 along the first direction a, to form the annular channel 725 shown; the first structural member 71 includes Figure 35The limiting guide rod 714 shown extends from above the T-shaped shaft body 52 in the opposite direction of the second direction b towards the base 65, and at least one limiting block 711 is provided at one end facing the base 65. The two ends of the limiting guide rod 714 above the T-shaped shaft body 52 along the first direction a are used to connect to the control assembly 8; see attached figure. Figure 38 When the limiting block 711 is in any of the limiting slots, the first body 2 and the second body 3 are in a first position relationship. Therefore, when the T-shaped shaft body 52, i.e., the first body 2, rotates around the vertical axis, the limiting block 711 cannot rotate within the slot, thus achieving the limiting function. Correspondingly, refer to the attached... Figure 40 When the limiting block 711 moves from the groove along the first direction a to the annular channel 725, the first body 2 and the second body 3 are in a second positional relationship. The limiting block 711 is not restricted by the groove and can move within the annular channel 725. Furthermore, when the T-shaped shaft body 52, i.e., the first body 2, rotates around the vertical axis, the limiting block 711 can move within the annular channel 725 to release the restriction. Preferably, the limiting block 711 is as follows: Figure 35 As shown, two limit guide rods 714 are spaced apart along the first direction a below them, respectively corresponding to... Figure 33 The first limiting groove 721, the second limiting groove 722, the third limiting groove 723, and the fourth limiting groove 724 at both ends of the first direction a of the middle eye. At this time, the control component includes at least the following: Figure 34 The spiral guide rod 88 shown is as follows: Figure 36 The guide groove 87 shown and Figure 37 The spiral rod 89 shown is fixedly mounted at both ends of the T-shaped shaft body 52 along the first direction a. A spiral guide rod 88 is spirally connected to it. The arrangement of the threaded groove and protrusion can be adjusted according to the actual design, as long as one has a protrusion and the other has a groove to achieve a fit. The spiral guide rod 88 is connected to the shaft 531 to rotate with the first body 2. In this arrangement, the shaft 531 does not require a special structure; it only needs to be coaxial with the rotating shaft 53. During the rotation process, the spiral guide rod 88 can reciprocate along the first direction a on the spiral rod 89. A guide block 881 is provided on the spiral guide rod 88, and the guide block 881 is movably engaged with the guide groove 87. The guide groove 87 is provided on the U-shaped connecting shell 51 and extends linearly along the first direction a. (See attached diagram.) Figure 39In the initial state, the first body 2 and the second body 3 are stacked, and the two guide blocks 881 are located at the same end of the two guide grooves 87, i.e., the leftmost or rightmost end in the figure. At this time, when there is only one limiting block 711, it is located in the first limiting groove 721 or the fourth limiting groove 724. When the U-shaped connecting shell 51 flips with the first body 2, the guide block 881 will move along the guide groove 87 in the first direction a, and drive the limiting guide rod 714 and the limiting block 711 to move in the first direction a until the first body 2 moves to a predetermined angle, such as 90 degrees. Then the guide block 881 will move to the middle of the guide groove 87. Figure 41 In the state shown, the limiting block 711 is pushed into the annular channel 725 between the first limiting groove 721 and the second limiting groove 722, or into the annular channel 725 between the third limiting groove 723 and the fourth limiting groove 724. At this time, the first body 2 and the second body 3 are in a second positional relationship, capable of moving relative to the second body 3 in a second motion mode. Correspondingly, when there are two limiting blocks 711, initially one is located in the first limiting groove 721 and the other in the third limiting groove 724 (or one is located in the second limiting groove 722 and the other in the fourth limiting groove 724). When the U-shaped connecting shell 51 flips with the first body 2, the guide block 881 will move along the guide groove 87 in the first direction a, driving the limiting guide rod 714 and the two limiting blocks 711 to move along the first direction a until the first body 2 moves to a predetermined angle, such as 90 degrees. Then, the guide block 881 will move to the middle of the guide groove 87. Figure 41 In the state shown, the two limiting blocks 711 are pushed into the annular channel 725 between the first limiting groove 721 and the second limiting groove 722, and the annular channel 725 between the third limiting groove 723 and the fourth limiting groove 724, respectively. At this time, the first body 2 and the second body 3 are in a second positional relationship and can move relative to the second body 3 in a second motion mode. It can be understood that if the first body 2 continues to move in the first motion mode, the guide block 881 will move again to its other end in the guide groove 87, that is, drive the limiting block 711 to move again along the first direction a to be located in the second limiting groove 722 and / or the fourth limiting groove 724 (this includes the case of one limiting block 711 and two limiting blocks 711), and lock for the second time. In this embodiment, the limiting block 711 is a rigid structure and cannot be compressed. After the first body 2 reaches the predetermined angle and moves to a certain extent in the second motion mode, that is, rotates to a certain range (but does not reach the second locking state), the first body 2 cannot move in the first motion mode again. Of course, it is understandable that the specific situation of the first positional relationship can be adjusted by adjusting the dimensions of the four limiting slots along the first direction a and the dimensions of the limiting block 711 along the first direction a.

[0125] Furthermore, a second aspect of this embodiment provides an operation method for the aforementioned electronic device 1, comprising the following steps:

[0126] Under the action of the first force, the first body 2 moves relative to the second body 3 in a first motion manner through the first part 5 of the connecting component 4;

[0127] Under the action of the second force, the first body 2 moves relative to the second body 3 in a second manner via the second part 6 of the connecting component 4.

[0128] Specifically, when the first body 2 moves through the first part 5 in the first movement mode to satisfy the first positional relationship with the second body 3, the movement of the first body 2 through the second part 6 in the second movement mode is affected.

[0129] The above description is merely a specific embodiment of this application, but the scope of protection of this application is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the scope of the technology disclosed in this application should be included within the scope of protection of this application. Therefore, the scope of protection of this application should be determined by the scope of the claims.

Claims

1. An electronic device comprising: A first body, a second body, and a connecting component connecting the first body and the second body; The connection component includes a first part, a second part of the influencing element, and a control component. The first part enables the first body to move relative to the second body in a first motion manner, and the second part enables the first body to move relative to the second body in a second motion manner. Wherein, the first body moves through the first part in the first motion manner to satisfy the first positional relationship with the second body, so that the movement of the first body through the second part in the second motion manner is affected; The first body moves through the first part in a first motion manner to a positional relationship with the second body, and the movement of the first body through the second part in the second motion manner is unaffected. The influencing component includes a first structural component and a second structural component that cooperate with each other; the control component is connected to the influencing component; the control component is a structural control component included in the connecting component; The first structural member is movably disposed between the first part and the second part along a first direction, and the first direction is perpendicular to the direction in which the first body and the second body are stacked. The second structural component is disposed in the second part and is movably fitted with the first structural component; Wherein, the first body moves through the first part in the first motion manner to satisfy the first positional relationship with the second body, and the structural control component can drive the first structural component to move along the first direction to engage with the second structural component to satisfy the restriction relationship; The first body moves through the first part in the first motion manner to satisfy the second positional relationship with the second body, and the structural control member can drive the first structural member to move along the first direction to be independent of the second structural member so as not to satisfy the restriction relationship.

2. The electronic device according to claim 1, The influencing element has a first state and a second state. The first state affects the movement of the first body in the second motion mode, and the second state does not affect the movement of the first body in the second motion mode. The control component is related to the movement of the first body through the first part in the first movement mode, and is used to control the influencing member to be in the first state when the first body moves through the first part in the first movement mode to satisfy a first positional relationship with the second body; and to control the influencing member to be in the second state when the first body moves through the first part in the first movement mode to satisfy a second positional relationship with the second body.

3. The electronic device according to claim 2, The first state includes the first structural component and the second structural component satisfying a constraint relationship; The second state includes situations where the first structural component and the second structural component do not satisfy the constraint relationship.

4. The electronic device according to claim 3, The structural control component moves along with the first body through the first part in the first motion manner, and the structural control component is connected to the first structural component; in, If the first body moves through the first part in the first motion manner to a positional relationship with the second body, the structural control member can drive the first structural member to make the first structural member and the second structural member satisfy the restriction relationship; If the first body moves through the first part in the first motion manner to a position that satisfies the second positional relationship with the second body, the structural control member can drive the first structural member so that the first structural member and the second structural member no longer satisfy the restriction relationship.

5. The electronic device according to claim 4, The first structural member is movably disposed between the first part and the second part along a second direction, where the second direction is the direction in which the first body and the second body are stacked. The second structural component is disposed in the second part and is movably fitted with the first structural component; in, The first body moves through the first part in the first motion manner to satisfy the first positional relationship with the second body, and the structural control member can drive the first structural member to move along the second direction to contact the second structural member to satisfy the restriction relationship; The first body moves through the first part in the first motion manner until it satisfies the second positional relationship with the second body, and the structural control member can drive the first structural member to move along the second direction until it separates from the second structural member so as not to satisfy the restriction relationship.

6. The electronic device according to claim 1, characterized in that: The first structural component includes two limiting blocks; The two limiting blocks are positioned opposite each other and movable along the first direction; The second structural component is a limiting groove arranged along the first direction, and the two limiting blocks can move closer or further apart from each other within the limiting groove along the first direction; Wherein, the first body moves through the first part in the first motion manner to satisfy the first positional relationship with the second body, and the structural control component can drive the two limiting blocks to move closer to each other along the first direction to a first specified distance to satisfy the limiting relationship; The first body moves through the first part in the first motion manner to satisfy the first positional relationship with the second body, and the structural control component can drive the two limiting blocks to move away from each other along the first direction to a second specified distance so as not to satisfy the limiting relationship.

7. The electronic device according to claim 1, characterized in that: The first structural component includes at least one limiting block, and the structural control component can drive the at least one limiting block to reciprocate along the first direction; The second structural component includes a first limiting groove, a second limiting groove, a third limiting groove, and a fourth limiting groove arranged sequentially and at intervals along a first direction, and an annular channel communicating around the second direction is formed between the first limiting groove and the second limiting groove and between the third limiting groove and the fourth limiting groove. Wherein, the first body moves through the first part in the first motion manner to satisfy the first positional relationship with the second body, and the structural control component can drive the at least one limiting block to move along the first direction to the limiting groove outside the annular channel to satisfy the limiting relationship; The first body moves through the first part in the first motion manner to satisfy the second positional relationship with the second body, and the structural control member can drive the at least one limiting block to move along the first direction into the annular channel so as not to satisfy the limiting relationship.

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