Magnetic induction switch structure for left and right keys of mouse and mouse

Abstract

The invention belongs to the technical field of mice, and particularly relates to a mouse left and right key magnetic induction switch structure and a mouse. Comprising a key piece with a pressing part; the magnetic triggering piece is arranged at the bottom of the key piece; and the magnetic induction switch is used for inducing the displacement of the magnetic triggering piece. The magnetic triggering piece is arranged at the bottom of the key piece and matched with the magnetic induction switch on the fixing part to achieve non-contact triggering, physical abrasion is eliminated, the service life of the key is remarkably prolonged, and the reliability of the key is remarkably improved; the reset piece is arranged between the key piece and the fixing part, so that the key piece can be reliably reset after being pressed; the vibration motor is arranged on the key piece and is synchronously started to generate vibration feedback when the magnetic induction switch is triggered, the hand feeling of a traditional microswitch is simulated, and the operation experience is optimized; the magnetic induction switch adopts a Hall switch, and the magnetic triggering piece adopts a magnet, so that the response is quick and the anti-interference capability is strong; the whole structure achieves key triggering in a magnetic induction mode, has durability and tactile feedback, and is suitable for high-performance mouse products.

Description

Technical Field

[0001] This invention relates to the field of mouse technology, specifically to a magnetic induction switch structure for the left and right mouse buttons and a mouse. Background Technology

[0002] Most existing mouse buttons use mechanical contact microswitches, which switch the circuit on and off through metal spring contacts. During long-term use, this structure is prone to fatigue fracture due to repeated deformation of the metal springs, and contact oxidation can lead to poor contact, affecting the button's lifespan and reliability.

[0003] Therefore, we propose a magnetic induction switch structure for the left and right mouse buttons and a corresponding mouse to solve the above problems. Summary of the Invention

[0004] (a) Technical problems to be solved

[0005] To address the shortcomings of existing technologies, this invention provides a magnetic induction switch structure for left and right mouse buttons and a mouse in general, which solves the problems mentioned in the background art, such as the limited lifespan caused by physical wear and tear of existing mouse buttons and the noise generated by contact collisions.

[0006] (II) Technical Solution

[0007] To achieve the above objectives, the present invention specifically adopts the following technical solution:

[0008] A magnetic induction switch structure for left and right mouse buttons includes:

[0009] A button component, having a pressing part;

[0010] A magnetic trigger is disposed at the bottom of the button component;

[0011] A magnetic induction switch is used to sense the displacement of the magnetic trigger element. The magnetic induction switch is disposed on a fixed part and corresponds to the position of the magnetic trigger element.

[0012] A reset element is disposed between the button element and the fixing part, and is used to reset the button element after the button element is released;

[0013] A vibration motor is mounted on the button and is used to generate vibration feedback when the button is pressed.

[0014] Furthermore, in some embodiments, the bottom of the button component is provided with a fixing seat, the fixing seat has a receiving cavity, and the magnetic trigger component is fixedly installed in the receiving cavity.

[0015] Furthermore, in some embodiments, a connecting seat is also included, which is disposed above the fixing part, the connecting seat having a connecting groove, and the reset member being disposed within the connecting groove.

[0016] Furthermore, in some embodiments, a first limiting post is provided in the connecting groove, a second limiting post is provided at the bottom of the button component, and the reset component is sleeved on the first limiting post and the second limiting post.

[0017] Furthermore, in some embodiments, the reset element is a reset spring.

[0018] Furthermore, in some embodiments, the magnetic induction switch is triggered by a magnetic trigger when the button is pressed, and outputs a signal to control the vibration motor to start.

[0019] Furthermore, in some embodiments, the fixing part is the main control board, and the magnetic induction switch is integrated into the bottom of the main control board; the magnetic induction switch is a Hall switch; and the magnetic trigger is a magnet.

[0020] A mouse includes a mouse body and a magnetic induction switch structure for left and right mouse buttons. The mouse body includes an upper shell and a bottom cover. The upper shell is provided with buttons, including a left mouse button and a right mouse button.

[0021] The top of the bottom cover is equipped with a main control board;

[0022] The top of the bottom cover is also provided with a connecting seat mounting post, and the connecting seat is fixed on the connecting seat mounting post and located above the main control board.

[0023] Furthermore, the upper shell is provided with a side key plate inside, and at least one side key is integrated on the side key plate; an indicator light is also integrated on the top of the side key plate, and a light shield tube is provided on the top of the side key plate opposite to the position of the indicator light. A light guide is provided on the top of the light shield tube, and the top end of the light guide extends to the top of the upper shell.

[0024] The bottom of the bottom cover is provided with a receiver compartment, and the bottom of the receiver compartment is provided with a compartment cover; the top of the bottom cover is provided with a battery located above the receiver compartment.

[0025] Furthermore, the main control board integrates a scroll wheel module located on one side of the connector, with the top of the scroll wheel module extending between the left and right mouse buttons; the main control board also integrates an optical sensing lens; and the bottom of the bottom cover has a window corresponding to the optical sensing lens.

[0026] The bottom of the main control board integrates a pairing key and a toggle switch, as well as a charging interface extending to one end of the bottom cover; the bottom of the bottom cover is provided with buttons and toggle switches corresponding to the pairing key and toggle switch.

[0027] (III) Beneficial Effects

[0028] Compared with the prior art, the present invention provides a magnetic induction switch structure for the left and right mouse buttons and a mouse, which has the following beneficial effects:

[0029] This invention utilizes a magnetic trigger at the bottom of the button component, which works in conjunction with a magnetic induction switch on the fixing part to achieve non-contact triggering, eliminating physical wear and significantly improving button lifespan and reliability. A reset component is located between the button component and the fixing part to ensure reliable reset after the button is pressed. A vibration motor is located on the button component, which starts synchronously when the magnetic induction switch is triggered to generate vibration feedback, simulating the feel of a traditional micro switch and optimizing the user experience. The magnetic induction switch uses a Hall effect switch, and the magnetic trigger uses a magnet, resulting in rapid response and strong anti-interference capabilities. The overall structure achieves button triggering through magnetic induction, combining durability and tactile feedback, making it suitable for high-performance mouse products. Attached Figure Description

[0030] Figure 1 This is a schematic diagram of the key component structure of the present invention;

[0031] Figure 2 This is a cross-sectional view of the connector structure of the present invention;

[0032] Figure 3 This is a schematic diagram of the light-shielding tube structure of the present invention;

[0033] Figure 4 This is a schematic diagram of the connector structure of the present invention;

[0034] Figure 5 This is an exploded view of the main structure of the mouse of the present invention;

[0035] Figure 6 This is an exploded view of the main structure of the mouse of the present invention;

[0036] Figure 7 This is a schematic diagram of the bottom structure of the mouse body of the present invention.

[0037] In the diagram: 1. Button; 11. Mounting base; 12. Left mouse button; 13. Right mouse button; 2. Magnetic trigger; 3. Magnetic induction switch; 4. Reset component; 5. Vibration motor; 6. Main control board; 61. Scroll wheel module; 62. Optical sensing lens; 63. Pairing button; 64. Toggle switch; 65. Charging interface; 7. Connecting base; 71. Connecting slot; 72. First limiting post; 8. Second limiting post; 9. Mouse body; 91. Top shell; 92. Battery; 93. Bottom cover; 94. Window; 94. Connecting base mounting post; 95. Side button plate; 951. Side button; 952. Indicator light; 953. Light shield; 954. Light guide; 96. Receiver compartment; 961. Compartment cover; 97. Button; 98. Toggle switch. Detailed Implementation

[0038] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0039] Example

[0040] like Figure 1-7 As shown, an embodiment of the present invention provides a magnetic induction switch structure for the left and right mouse buttons, comprising:

[0041] Button component 1 has a pressing part;

[0042] A magnetic trigger 2 is disposed at the bottom of the button 1;

[0043] A magnetic induction switch 3 is used to sense the displacement of the magnetic trigger 2. The magnetic induction switch 3 is disposed on a fixed part and corresponds to the position of the magnetic trigger 2.

[0044] The reset component 4 is disposed between the button component 1 and the fixing part, and is used to reset the button component 1 after the button component 1 is released;

[0045] A vibration motor 5 is mounted on the button 1 and is used to generate vibration feedback when the button 1 is pressed.

[0046] The left and right mouse buttons magnetic induction switch structure includes a button component 1, a magnetic trigger component 2, a magnetic induction switch 3, a reset component 4, and a vibration motor 5. The button component 1 has a pressing part for the user to press, and the magnetic trigger component 2 is located at its bottom. The magnetic induction switch 3 is mounted on a fixed part and corresponds to the position of the magnetic trigger component 2, used to sense the displacement change of the magnetic trigger component 2. The reset component 4 is located between the button component 1 and the fixed part; when the user releases the button component 1, the reset component 4 can drive the button component 1 to automatically reset to its initial position. The vibration motor 5 is mounted on the button component 1; when the button component 1 is pressed, the vibration motor 5 starts and generates vibration feedback, which is transmitted to the user's finger.

[0047] By replacing traditional mechanical contact switches with a non-contact sensing method using a magnetic induction switch 3 and a magnetic trigger 2, physical wear is eliminated, significantly improving the lifespan and reliability of the buttons. Simultaneously, the introduction of the vibration motor 5 provides tactile feedback at the moment of button triggering, simulating the "click" feel of a traditional microswitch, enhancing the user experience. The reset component 4 ensures reliable button reset, preventing jamming or malfunction. The overall structure is simple, responsive, and suitable for high-performance mouse products.

[0048] like Figure 1-7As shown, in some embodiments, the bottom of the button component 1 is provided with a fixing seat 11, the fixing seat 11 has a receiving cavity, and the magnetic trigger component 2 is fixedly installed in the receiving cavity.

[0049] The bottom of the button component 1 is provided with a fixing base 11, and the fixing base 11 has a receiving cavity inside, in which the magnetic trigger component 2 is fixedly installed. The fixing base 11 can be connected to the button component 1 by integral molding or assembly, ensuring that the installation position of the magnetic trigger component 2 is stable and not easily shifted.

[0050] The structural design of the mounting base 11 and the receiving cavity effectively positions and protects the magnetic trigger 2, preventing it from shifting due to vibration or external force during long-term use. This ensures that the relative position between the magnetic trigger 2 and the magnetic induction switch 3 remains accurate, guaranteeing the stability and consistency of the sensing. Simultaneously, the receiving cavity protects the magnetic trigger 2 from interference from external dust or foreign objects.

[0051] like Figure 1-7 As shown, in some embodiments, a connecting seat 7 is also included, which is disposed above the fixing part. The connecting seat 7 has a connecting groove 71, and the reset member 4 is disposed in the connecting groove 71.

[0052] The connecting seat 7 is located above the fixing part and has a connecting groove 71 inside, in which the reset member 4 is disposed. The connecting groove 71 serves to accommodate and limit the reset member 4, preventing the reset member 4 from shifting or falling off during use.

[0053] The introduction of the connecting seat 7 provides an independent mounting base for the reset component 4, enabling it to function stably between the button component 1 and the fixing part. The limiting effect of the connecting groove 71 on the reset component 4 ensures the stability of the movement trajectory of the reset component 4 during compression and rebound, avoiding inconsistent button feel or jamming caused by the misalignment or displacement of the reset component 4. At the same time, the structure of the connecting seat 7 facilitates assembly and maintenance.

[0054] like Figure 1-7 As shown, in some embodiments, the connecting groove 71 is provided with a first limiting post 72, the bottom of the button component 1 is provided with a second limiting post 8, and the reset component 4 is sleeved on the first limiting post 72 and the second limiting post 8.

[0055] A first limiting post 72 is provided in the connecting groove 71, and a second limiting post 8 is provided at the bottom of the button component 1. The reset component 4 is sleeved on the first limiting post 72 and the second limiting post 8. The first limiting post 72 and the second limiting post 8 are arranged opposite to each other, and together guide and limit the reset component 4.

[0056] The combined use of the first limiting post 72 and the second limiting post 8 can precisely guide the movement of the reset component 4, such as a spring, preventing it from bending, tilting, or popping out uncontrollably during compression or rebound. This dual limiting structure not only improves the movement stability of the reset component 4, but also ensures the controllable movement trajectory of the button component 1 during pressing and resetting, making the button feel more uniform and smooth, and extending the service life of the reset component 4.

[0057] like Figure 1-7 As shown, in some embodiments, the reset element 4 is a reset spring.

[0058] A return spring is sleeved between the button 1 and the fixed part. It is compressed and stores energy when the button 1 is pressed, and releases this energy to drive the button 1 to reset when it is released. As a mature and reliable elastic element, the return spring has advantages such as low cost, fast response, and long lifespan. Its linear compression and rebound characteristics provide a stable and uniform reset force for the button 1, resulting in a clear button feel and precise feedback. Furthermore, the spring has a simple structure, is easy to assemble and maintain, and is suitable for mass production.

[0059] like Figure 1-7 As shown, in some embodiments, the magnetic induction switch 3 is triggered by the magnetic trigger 2 when the button 1 is pressed, and outputs a signal to control the vibration motor 5 to start.

[0060] When button 1 is pressed, magnetic trigger 2 moves downward. Magnetic induction switch 3 senses this displacement and triggers a signal, outputting a control command to start vibration motor 5. Vibration motor 5 then generates vibration feedback. This linkage mechanism synchronizes button 1 triggering with vibration feedback, allowing the user to feel the vibration the instant button 1 is pressed, simulating the tactile feedback of a traditional microswitch and enhancing the realism and comfort of operation. Simultaneously, the start-up of vibration motor 5 is directly controlled by magnetic induction switch 3, eliminating the need for an additional mechanical trigger structure, resulting in rapid response and low latency, further optimizing the user experience.

[0061] like Figure 1-7 As shown, in some embodiments, the fixing part is the main control board 6, and the magnetic induction switch 3 is integrated into the bottom of the main control board 6; the magnetic induction switch 3 is a Hall switch; and the magnetic trigger 2 is a magnet.

[0062] The fixed part is the main control board 6, and the magnetic induction switch 3 is integrated at the bottom of the main control board 6; the magnetic induction switch 3 is a Hall switch, and the magnetic trigger 2 is a magnet. The Hall switch and the magnet are positioned opposite each other. When the magnet moves down with the button 1, the Hall switch senses the change in magnetic field and outputs an electrical signal.

[0063] Using the main control board 6 as the mounting unit, the magnetic induction switch 3 is directly integrated into the bottom of the main control board 6, which not only saves space but also simplifies circuit connections and improves assembly efficiency. The Hall effect switch, as a magnetic induction element, has advantages such as being contactless, wear-free, having a fast response speed, and strong anti-interference capabilities, enabling long-term stable operation. Magnets are low-cost and have strong magnetic properties; when used in conjunction with the Hall effect switch, they can achieve precise displacement detection, ensuring the reliability of button triggering.

[0064] A mouse includes a mouse body 9 and a magnetic induction switch structure for the left and right mouse buttons. The mouse body 9 includes an upper shell 91 and a bottom cover 93. The upper shell 91 is provided with a button 1, which includes a left mouse button 12 and a right mouse button 13.

[0065] The top of the bottom cover 93 is provided with a main control board 6;

[0066] The top of the bottom cover 93 is also provided with a connecting seat mounting post 94, and the connecting seat 7 is fixed on the connecting seat mounting post 94 and located above the main control board 6.

[0067] This mouse integrates the magnetic induction switch 3 structure with the mouse body 9. The left mouse button 12 and right mouse button 13 on the upper shell 91 serve as button components 1, directly applying non-contact magnetic induction triggering technology, improving button lifespan and tactile feel. The connecting base 7 is fixed above the main control board 6 by mounting posts, providing a stable mounting base for the reset component 4 and ensuring the reliability of button reset. The overall structure is compact and rationally laid out, facilitating assembly and maintenance.

[0068] like Figure 1-7 As shown, in some embodiments, a side key plate 95 is provided inside the upper shell 91, and at least one side key 951 is integrated on the side key plate 95; an indicator light 952 is also integrated on the top of the side key plate 95, and a light shield 953 is provided on the top of the side key plate 95 opposite to the position of the indicator light 952; a light guide 954 is provided on the top of the light shield 953, and the top end of the light guide 954 extends to the top of the upper shell 91;

[0069] The bottom of the bottom cover 93 is provided with a receiver compartment 96, and the bottom of the receiver compartment 96 is provided with a compartment cover 961; the top of the bottom cover 93 is provided with a battery 92 located above the receiver compartment 96; the bottom of the bottom cover 93 is also provided with an anti-slip pad.

[0070] The upper shell 91 has a side button plate 95 inside, with at least one side button 951 integrated on it. A corresponding side button 955 is also provided on one side of each side button 951, with the end of the side button 955 extending to one side of the upper shell 91 away from the side button 951. An indicator light 952 is integrated on the top of the side button plate 95, and a light shield 953 is positioned opposite the indicator light 952 on the top of the side button plate 95. A light guide 954 is provided on the top of the light shield 953, with its tip extending to the top of the upper shell 91. The bottom of the bottom cover 93 has a receiver compartment 96 for installing a wireless receiver compatible with the mouse body 9. A compartment cover 961 is provided on the bottom of the receiver compartment 96, and the compartment cover 961 is installed at the bottom opening of the receiver compartment 96 using a snap-fit ​​method. A battery 92 is located on the top of the bottom cover 93 above the receiver compartment 96.

[0071] The side button panel 95 and side buttons 951 provide additional function buttons for the mouse, meeting diverse user operation needs. The coordinated design of the indicator light 952, light shield 953, and light guide 954 effectively guides the light from the indicator light 952 to the top of the upper shell 91, improving the visibility and uniformity of the indicator light. Simultaneously, the light shield 953 prevents light scattering from interfering with other components. The receiver compartment 96 stores the wireless receiver for easy carrying and storage, and the cover 961 prevents the receiver from falling out. The battery 92 is located above the receiver compartment 96, making full use of the internal space of the bottom cover 93 to achieve a compact and stable design.

[0072] like Figure 1-7 As shown, in some embodiments, the main control board 6 integrates a scroll wheel module 61 located on one side of the connector 7, and the top of the scroll wheel module 61 extends between the left mouse button 12 and the right mouse button 13; the main control board 6 also integrates an optical sensing lens 62; and the bottom of the bottom cover 93 is provided with a window 94 corresponding to the optical sensing lens 62.

[0073] The bottom of the main control board 6 integrates a pairing key 63 and a toggle switch 64, as well as a charging interface 65 extending to one end of the bottom cover 93; the bottom of the bottom cover 93 is provided with a button 97 and a toggle switch 98 corresponding to the pairing key 63 and the toggle switch 64.

[0074] The main control board 6 integrates a scroll wheel module 61 located on one side of the connector 7, with the top of the scroll wheel module 61 extending between the left mouse button 12 and the right mouse button 13; the main control board 6 also integrates an optical sensing lens 62; the bottom of the bottom cover 93 is provided with a window 94 corresponding to the optical sensing lens 62; the bottom of the main control board 6 integrates a pairing key 63 and a toggle switch 64, as well as a charging interface 65 extending to one end of the bottom cover 93; the bottom of the bottom cover 93 is provided with a button 97 and a toggle switch 98 corresponding to the pairing key 63 and the toggle switch 64.

[0075] The scroll wheel module 61 is positioned between the left mouse button 12 and the right mouse button 13, conforming to ergonomic operating habits and facilitating user scrolling. The optical sensing lens 62 corresponds to the window 94 on the bottom cover 93, ensuring that the optical sensor can effectively capture the desktop image and achieve precise cursor positioning. The pairing button 63 and the toggle switch 64 facilitate pairing operations and device power control, improving ease of use. The charging port 65 extends to one end of the bottom cover 93, making it easy to connect the charging cable and avoiding difficulties in plugging and unplugging due to unreasonable port placement. The buttons 97 and toggle switches 98 on the bottom of the bottom cover 93 correspond to the pairing button 63 and the toggle switch 64, allowing users to operate them directly without disassembling the mouse, thus improving the convenience of human-computer interaction.

[0076] The internal electrical connections of the mouse body 9 are centered around the main control board 6. The battery 92 is fixed to the top of the bottom cover 93 and is electrically connected to the battery 92 interface of the main control board 6 via positive and negative wires, providing power to the main control board 6 and all its electronic components. The side button plate 95 is located inside the upper shell 91 and is electrically connected to the main control board 6 via a flexible cable, enabling the transmission of button signals for the side button 951 and the control of the indicator light 952. The vibration motor 5 is fixed to the bottom of the button piece 1 and is electrically connected to the motor drive interface on the main control board 6 via a wire. When the magnetic induction switch 3 is triggered, the main control board 6 controls the vibration motor 5 to start and generate tactile feedback. In addition, the bottom of the main control board 6 also integrates a charging interface 65, a pairing device, and a toggle switch 64. One end of the charging interface 65 extends to one end of the bottom cover 93 for connecting to an external power source. The pairing device and toggle switch 64 cooperate with the corresponding buttons 97 and toggle switches 98 on the bottom of the bottom cover 93 to achieve wireless pairing and power control functions. The optical sensor chip below the optical sensing lens 62 is integrated on the main control board 6, and it achieves cursor positioning by acquiring images. Overall, the battery 92 provides power, the main control board 6 provides control, and the various functional modules are connected in parallel via wires or ribbon cables, forming a stable, compact, and collaborative circuit system.

[0077] In summary, by incorporating a magnetic trigger 2 at the bottom of the button 1, which works in conjunction with a magnetic induction switch 3 on the fixed part, non-contact triggering is achieved, eliminating physical wear and significantly improving button lifespan and reliability. A reset component 4 is located between the button 1 and the fixed part, ensuring reliable reset of the button 1 after pressing. A vibration motor 5 is located on the button 1, activating synchronously when the magnetic induction switch 3 is triggered to generate vibration feedback, simulating the feel of a traditional microswitch and optimizing the user experience. The magnetic induction switch 3 uses a Hall effect switch, and the magnetic trigger 2 uses a magnet, resulting in rapid response and strong anti-interference capabilities. The overall structure achieves button triggering through magnetic induction, combining durability and tactile feedback, resulting in quieter operation and suitability for high-performance mouse products.

[0078] Finally, it should be noted that the above descriptions are merely preferred embodiments of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A magnetic induction switch structure for the left and right mouse buttons, characterized in that, include: The button component (1) has a pressing part; A magnetic trigger (2) is disposed at the bottom of the button (1); A magnetic induction switch (3) is used to sense the displacement of the magnetic trigger (2). The magnetic induction switch (3) is mounted on a fixed part and corresponds to the position of the magnetic trigger (2). A reset component (4) is disposed between the button component (1) and the fixing part, and is used to reset the button component (1) after the button component (1) is released; A vibration motor (5) is disposed on the button (1) and is used to generate vibration feedback when the button (1) is pressed.

2. The magnetic induction switch structure for left and right mouse buttons according to claim 1, characterized in that: The bottom of the button component (1) is provided with a fixing seat (11), the fixing seat (11) has a receiving cavity, and the magnetic trigger component (2) is fixedly installed in the receiving cavity.

3. The magnetic induction switch structure for the left and right mouse buttons according to claim 1, characterized in that: It also includes a connecting seat (7), which is disposed above the fixing part. The connecting seat (7) has a connecting groove (71), and the reset member (4) is disposed in the connecting groove (71).

4. The magnetic induction switch structure for left and right mouse buttons according to claim 3, characterized in that: The connecting groove (71) is provided with a first limiting post (72), the bottom of the button component (1) is provided with a second limiting post (8), and the reset component (4) is sleeved on the first limiting post (72) and the second limiting post (8).

5. The magnetic induction switch structure for the left and right mouse buttons according to claim 1, characterized in that: The reset component (4) is a reset spring.

6. The magnetic induction switch structure for the left and right mouse buttons according to claim 1, characterized in that: The magnetic induction switch (3) is triggered by the magnetic trigger (2) when the button (1) is pressed, and outputs a signal to control the vibration motor (5) to start.

7. The magnetic induction switch structure for left and right mouse buttons according to claim 1, characterized in that: The fixing part is the main control board (6), and the magnetic induction switch (3) is integrated at the bottom of the main control board (6); the magnetic induction switch (3) is a Hall switch; the magnetic trigger (2) is a magnet.

8. A mouse, comprising a mouse body (9) and a magnetic induction switch structure for the left and right mouse buttons as described in any one of claims 1-7, characterized in that: The mouse body (9) includes an upper shell (91) and a bottom cover (93). The upper shell (91) is provided with a button (1), which includes a left mouse button (12) and a right mouse button (13). The top of the bottom cover (93) is provided with a main control board (6); The top of the bottom cover (93) is also provided with a connecting seat mounting post (94), and the connecting seat (7) is fixed on the connecting seat mounting post (94) and located above the main control board (6).

9. A mouse according to claim 8, characterized in that: The upper shell (91) is provided with a side key plate (95) inside, and at least one side key (951) is integrated on the side key plate (95); an indicator light (952) is also integrated on the top of the side key plate (95); a light shield (953) is provided on the top of the side key plate (95) opposite to the position of the indicator light (952); a light guide (954) is provided on the top of the light shield (953); and the top end of the light guide (954) extends to the top of the upper shell (91). The bottom of the bottom cover (93) is provided with a receiver compartment (96), and the bottom of the receiver compartment (96) is provided with a compartment cover (961); the top of the bottom cover (93) is provided with a battery (92) located above the receiver compartment (96).

10. A mouse according to claim 8, characterized in that: The main control board (6) integrates a scroll wheel module (61) located on one side of the connector (7), and the top of the scroll wheel module (61) extends between the left mouse button (12) and the right mouse button (13); the main control board (6) also integrates an optical sensing lens (62); the bottom of the bottom cover (93) is provided with a window (94) corresponding to the optical sensing lens (62); The bottom of the main control board (6) integrates a pairing key (63) and a toggle switch (64), as well as a charging interface (65) extending to one end of the bottom cover (93); the bottom of the bottom cover (93) is provided with a button (97) and a toggle switch (98) corresponding to the pairing key (63) and the toggle switch (64).

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