Anti-disassembly key and electric appliance

Abstract

The utility model relates to an anti-disassembly key and an electric appliance, and belongs to the field of electric appliances. An anti-dismounting button comprises a housing assembly which is provided with an installation space, a movable groove and an installation hole; the limiting assembly is arranged on the shell assembly and located in the installation space, and the limiting assembly is spliced with the shell assembly; the pushing assembly is arranged on the shell assembly and located at the movable groove; and the driven assembly is arranged on the shell assembly and located in the mounting space, the pushing assembly and the driven assembly are arranged on the two sides of the mounting hole respectively and spliced, and the pushing assembly can drive the driven assembly to abut against the limiting assembly. According to the anti-disassembly key, the limiting assembly and the shell assembly are spliced through the ultrasonic welding technology, the pushing assembly and the driven assembly are spliced through the ultrasonic welding technology, and easy disassembly caused by loose connection is effectively prevented.

Description

Technical Field

[0001] This utility model relates to the field of electrical appliances, and in particular to an anti-disassembly button and an electrical appliance. Background Technology

[0002] In existing technologies, the button structure on the appliance casing is not effectively secured during installation, making it prone to loosening after repeated use. The connection between the button and surrounding components weakens, causing wobbling during use. This not only affects the tactile feedback but may also lead to unresponsive button operation, requiring users to press repeatedly to activate the function, significantly reducing the user experience. Utility Model Content

[0003] Therefore, it is necessary to provide a tamper-proof button and appliance to address the problem of unstable button installation on the appliance casing.

[0004] A tamper-proof button includes: a housing assembly having an installation space, a movable groove, and a mounting hole; a limiting assembly disposed on the housing assembly and located in the installation space, the limiting assembly being spliced ​​with the housing assembly; a pushing assembly disposed on the housing assembly and located in the movable groove; and a driven assembly disposed on the housing assembly and located in the installation space, the pushing assembly and the driven assembly being spliced ​​on opposite sides of the mounting hole, the pushing assembly capable of driving the driven assembly to abut against the limiting assembly.

[0005] The aforementioned disclosure describes an anti-disassembly button where the limiting component and the outer shell are joined using ultrasonic welding technology, eliminating gaps or weak connection points that can occur with traditional assembly methods. This means that when faced with external forces attempting to disassemble the limiting component, the entire structure can withstand the impact as a tightly integrated unit, effectively preventing easy disassembly due to loose connections. This ensures the limiting component is firmly fixed in place after installation, making it difficult to remove by illegal means, thus guaranteeing the safety and integrity of the related equipment. The pushing component and the driven component are located on opposite sides of the mounting hole and joined using ultrasonic welding technology, fundamentally eliminating the risk of the entire button malfunctioning due to their separation. During frequent daily use of the button, if a traditional connection method is used, the pushing component and the driven component may gradually loosen or even separate due to prolonged external forces. If this happens, the button will malfunction, leading to the loss of some functions of the related equipment. The joined structure, however, tightly connects the pushing component and the driven component, making them an inseparable whole. Even in extreme operating environments, facing high-intensity and high-frequency operations, the two components will not separate, maintaining constant coordinated operation to ensure the continuous stability of the button function and provide a solid guarantee for the stable operation of the equipment. Simultaneously, when the actuating component is operated in the moving slot, the tight connection formed by the splicing allows for rapid and accurate power transmission to the driven component. This efficient power transmission mechanism avoids operational stuttering or delays caused by loose connections or improper coordination between components, providing users with a simple and direct operating experience, allowing them to easily achieve button functions without complex operating skills.

[0006] In one embodiment, the limiting component includes a limiting main component and limiting blocks. The limiting main component is disposed on the housing assembly and located in the mounting space. Multiple limiting blocks are disposed on the limiting main component. The mounting space has multiple grooves, and the multiple limiting blocks are matched and engaged one-to-one with the multiple grooves. By placing the limiting main component in the mounting space of the housing assembly, and distributing multiple limiting blocks on the limiting main component and engaging with the multiple grooves in the mounting space, this tightly fitting structure greatly enhances the overall stability of the button. When faced with strong impacts from external disassembly, the engagement of the limiting blocks and grooves firmly fixes the limiting main component within the housing assembly, preventing displacement or detachment, thus effectively resisting unauthorized disassembly of the button and comprehensively protecting the safety and integrity of the related equipment. Moreover, the engagement of multiple limiting blocks and grooves disperses external forces from various directions. During daily use, the equipment inevitably experiences varying degrees of external forces due to vibration, collisions, etc. At this point, the multi-point connection between the limiting block and the groove allows the entire limiting component to bear these external forces evenly, avoiding the risk of structural damage caused by excessive force at a single point, greatly extending the service life of the entire anti-disassembly button, and ensuring that the structure maintains good performance in long-term use.

[0007] In one embodiment, the limiting main component includes a limiting body and a limiting protrusion. The limiting body is disposed on the housing assembly, and the limiting protrusion is disposed on the limiting body. The pushing component can drive the driven component to abut against the limiting protrusion. Multiple limiting blocks are disposed on the limiting body. By using the pushing component to drive the driven component to abut against the limiting protrusion after sliding, a unique and clear tactile feedback is generated. This tactile feedback allows the user to clearly perceive that the button has reached a specific position. With this precise tactile feedback, the user can clearly and accurately judge whether the corresponding function has been successfully achieved after the driven component is operated, greatly improving the accuracy and reliability of the operating experience and avoiding repeated operations or misjudgments caused by uncertainty about the operation result. The multiple limiting blocks disposed on the limiting body fit tightly with the grooves in the installation space of the housing assembly, firmly fixing the limiting main component. The limiting protrusion, as an indispensable part of the overall structure, further strengthens the connection strength between the limiting main component and other components. When faced with external impact from unauthorized disassembly, the entire limiting assembly can work together to form a strong resistance, comprehensively enhancing the anti-disassembly capability of the anti-disassembly button structure and effectively ensuring equipment safety.

[0008] In one embodiment, the limiting body and the limiting protrusion are integrally formed. By integrally forming the limiting body and the limiting protrusion, the dimensional deviation problems that may occur when manufacturing them separately and then assembling them are avoided. From mold manufacturing to the forming process, the overall dimensions of the limiting body and the limiting protrusion can be precisely controlled, ensuring that the limiting protrusion can be accurately set on the limiting body, meeting the strict requirements of button design for positional accuracy. This ensures that the contact position between the driven component and the limiting protrusion remains consistent during button operation, providing a stable and accurate tactile feel, and further ensuring that the user receives the same and reliable feedback every time they operate.

[0009] In one embodiment, the limiting main component and the plurality of limiting blocks are integrally formed. By integrally forming the limiting main component and the plurality of limiting blocks, potential connection gaps and weak points between the limiting blocks and the limiting main component are eliminated. During long-term use of the button, the limiting assembly will be subjected to various external forces such as vibration and impact. The connection between the separately assembled limiting blocks and the limiting main component is prone to loosening due to repeated stress, resulting in a decrease in the overall structural strength of the limiting assembly. However, after integral forming, the limiting blocks and the limiting main component become a whole, which can evenly distribute the external forces, greatly improve the structural stability of the limiting assembly in complex usage environments, effectively reduce button failures caused by structural loosening, and extend the button's service life.

[0010] In one embodiment, the pushing component includes a pushing base and pushing protrusions. The pushing base is disposed on the housing assembly and located at the movable groove. Multiple pushing protrusions are spaced apart along the length of the pushing base. The pushing base has a pushing groove, and the driven component is disposed on the pushing base and located within the pushing groove. By arranging multiple pushing protrusions spaced apart along the length of the pushing base, the primary effect is a significant increase in friction. When a user pushes the pushing base, the friction generated between these protrusions and the contact component provides the user with a stable and easily controllable point of force. Compared to a smooth pushing base, this design allows the user to have a more effective point of force during operation, requiring less force from the hand to push easily, greatly improving operational convenience. The pushing base, located at the movable groove, provides a clear and stable guide path for the movement of the pushing base. When the user pushes the pushing base, the movable groove effectively constrains its movement trajectory, ensuring that the pushing base can only slide precisely along a preset direction, avoiding instability such as deviation or wobbling. This precise guiding function greatly improves the accuracy of button operation. The driven component is located in the drive slot, which ensures that the drive component drives the driven component to perform the action of turning the electrical appliance on or off.

[0011] In one embodiment, the driven component includes a driven protrusion and a driven member. The driven member is disposed on the housing assembly, and the driven protrusion is disposed on the driven member and the pushing component. By using the driven protrusion to connect the driven member and the pushing component, when the pushing component operates, the driven protrusion can quickly receive power and efficiently transmit it to the driven member. In the control panel buttons of a smart home system, when the user pushes the button, the component moves, and the driven protrusion responds immediately, allowing the driven member to quickly execute the corresponding command, ensuring the immediacy of the button function.

[0012] In one embodiment, the driven member includes a driven base plate and a driven hook block. The driven base plate is disposed on the housing assembly, and the driven hook block is disposed on the driven base plate. The driven base plate can abut against the limiting assembly, and the driven hook block is connected to an external structure. By placing the driven hook block on the driven base plate, when the pushing assembly drives the driven protrusion to move, the driven base plate can stably receive and transmit this power, ensuring that the driven hook block accurately connects to the external structure and performs the corresponding operation. In the control buttons of automated equipment, the driven base plate can quickly transmit the power generated by the button operation to the driven hook block, thereby accurately controlling the operation of the external equipment and ensuring the efficiency and accuracy of equipment operation. When the user pushes the pushing assembly, the driven base plate gradually approaches the limiting assembly and finally abuts against it, producing a clear and unique tactile feedback. This feedback provides a confirmation signal for the user's operation, allowing the user to clearly perceive whether the driven component is in the correct position, greatly improving the accuracy of the operation. The driven base plate is tightly integrated with the housing assembly, and the driven hook block is connected to the external structure, making the entire driven component an indispensable part of the button structure. If someone attempts to disassemble the tamper-proof button or the appliance is subjected to external impact, the connection between the driven component, the housing assembly, and the external structure increases the strength of the entire structure, effectively protecting the safety of the button and related equipment.

[0013] In one embodiment, the driven member has a first groove and a second groove. The pushing component can drive the driven member to move via the driven protrusion. The limiting component has a limiting protrusion. When the pushing component abuts against one side wall of the movable groove, the limiting protrusion abuts against the driven member and is located in the first groove. When the pushing component abuts against the other opposite side wall of the movable groove, the limiting protrusion abuts against the driven member and is located in the second groove. By utilizing the structure of the limiting protrusion and the first and second grooves, when the user operates the pushing component, the limiting protrusion contacts the first or second groove on the driven member, providing a clear and distinct tactile feedback. This feedback not only enhances the user's operating experience but also ensures precise control of the device. Specifically, when the pushing component abuts against one side wall of the movable groove, the limiting protrusion embeds into the first groove, and the user will feel a distinct impact sound and a slight change in resistance. This feedback lets the user know that the device has reached a preset limiting position. Similarly, when the pushing component moves to the opposite side wall of the active slot, the limiting protrusion engages in the second groove, providing similar tactile and audible feedback again. This design not only improves the device's operational precision but also reduces the possibility of misoperation. Users can easily determine the device's status through tactile feedback without relying on visual confirmation, which is especially important in low-light conditions or scenarios requiring rapid operation. Furthermore, this mechanical limiting feedback is more reliable than electronic sensors, less susceptible to environmental factors, and ensures the device's stability and durability under various conditions.

[0014] In one embodiment, the housing assembly includes a housing body and a fixing member. The fixing member is disposed on the housing body, the limiting component is disposed on the fixing member, the pushing component and the driven component are disposed on the housing body, the fixing member has the mounting space, and the housing body has the movable groove and the mounting hole. By placing the fixing member on the housing body and providing the mounting space, the limiting component can be securely mounted on the fixing member, ensuring the accuracy and reliability of the limiting function. Simultaneously, the pushing component and the driven component are directly disposed on the housing body, and the movable groove and the mounting hole provide motion guidance and fixed support. The fixing member has a pre-existing mounting space, allowing the limiting component to be precisely installed in place using ultrasonic welding technology, ensuring the strength of the connection. At the same time, the pushing component and the driven component on both sides of the mounting hole on the housing body are also joined together using ultrasonic welding technology. Ultrasonic welding uses high-frequency vibration to allow molecules at the contact surfaces of components to penetrate and fuse together, forming a strong connection. Compared to other connection methods, such as adhesive bonding or simple mechanical fixing, the welded connection is stronger and can withstand greater external forces and impacts, ensuring that the driving and driven components will not easily separate during long-term use, thus improving the stability and reliability of the entire structure.

[0015] The second aspect of this application discloses an electrical appliance, which includes the aforementioned anti-disassembly button.

[0016] The second aspect disclosed above discloses an electrical appliance in which an anti-tamper button is installed. Traditional button structures are typically assembled from multiple parts to achieve a pressing function. This design not only increases the parts management costs of assembly plants but also reduces assembly efficiency. In this context, the design of an anti-tamper button becomes particularly important. By integrating the button structure with the housing, the number of parts can be reduced, the assembly process simplified, thereby reducing material management costs and assembly difficulty. Simultaneously, the anti-tamper button prevents users or non-professionals from disassembling it arbitrarily or causing it to fall due to external impacts, reducing equipment damage or malfunction caused by improper operation or collisions. This design not only improves the product's structural compactness but also enhances the device's durability and safety, providing a feasible solution for the lightweight and efficient design of digital intelligent terminal products. Attached Figure Description

[0017] Figure 1 First 3D view of the buttons to prevent disassembly;

[0018] Figure 2 A second perspective view of the anti-disassembly button;

[0019] Figure 3 A third perspective view to prevent disassembly of the buttons;

[0020] Figure 4 A fourth perspective view to prevent disassembly of the buttons;

[0021] Figure 5 This is a 3D view of the housing components;

[0022] Figure 6 A 3D view of the limiting component;

[0023] Figure 7 Cross-sectional view of the button to prevent disassembly;

[0024] Figure 8 for Figure 7 A magnified view of a portion of region A;

[0025] Figure 9 The first 3D view of the component;

[0026] Figure 10 To promote the second stereoscopic view of the component;

[0027] Figure 11 This is a first perspective view of the driven component;

[0028] Figure 12 This is the second three-dimensional view of the driven component.

[0029] The correspondence between the reference numerals and the component names is as follows:

[0030] 1. Housing assembly; 11. Housing body; 12. Fixture; 101. Mounting space; 102. Movable groove; 103. Mounting hole;

[0031] 2 Limiting components, 21 Limiting main components, 211 Limiting body, 212 Limiting protrusion, 22 Limiting block;

[0032] 3. Push assembly, 31. Push base, 32. Push protrusion, 301. Push groove;

[0033] 4 driven components, 41 driven protrusion, 42 driven member, 421 driven base plate, 422 driven hook block, 401 first groove, 402 second groove. Detailed Implementation

[0034] To better understand the above-mentioned objectives, features, and advantages of this utility model, the present utility model will be further described in detail below with reference to the accompanying drawings and specific embodiments. It should be noted that, unless otherwise specified, the embodiments and features described in these embodiments can be combined with each other.

[0035] Many specific details are set forth in the following description in order to provide a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Therefore, the scope of protection of the present invention is not limited to the specific embodiments disclosed below.

[0036] The following describes some embodiments of the anti-disassembly buttons and electrical appliances according to the present invention with reference to the accompanying drawings.

[0037] Example 1

[0038] like Figures 1 to 12 As shown, this embodiment discloses an anti-disassembly button, including: a housing assembly 1, which has an installation space 101, a movable groove 102, and a mounting hole 103; a limiting assembly 2, which is disposed on the housing assembly 1 and located in the installation space 101, and is spliced ​​with the housing assembly 1; a pushing assembly 3, which is disposed on the housing assembly 1 and located in the movable groove 102; and a driven assembly 4, which is disposed on the housing assembly 1 and located in the installation space 101. The pushing assembly 3 and the driven assembly 4 are respectively disposed on both sides of the mounting hole 103 and spliced ​​together, and the pushing assembly 3 can drive the driven assembly 4 to abut against the limiting assembly 2.

[0039] This application discloses an anti-disassembly button. The limiting component 2 and the outer shell component 1 are spliced ​​together using ultrasonic welding technology, eliminating gaps or weak connection points that would occur with traditional assembly methods. This means that when faced with external forces attempting to disassemble the limiting component 2, the entire structure can withstand the impact as a tight whole, effectively preventing easy disassembly due to loose connections. This ensures that the limiting component 2 is firmly fixed in its original position after installation, making it difficult to remove by illegal means, thus guaranteeing the safety and integrity of the related equipment. The pushing component 3 and the driven component 4 are respectively located on both sides of the mounting hole 103 and spliced ​​together using ultrasonic welding technology, fundamentally eliminating the potential for the entire button to malfunction due to their separation. During frequent daily use of the button, if a traditional connection method is used, the pushing component 3 and the driven component 4 may gradually loosen or even separate due to long-term external forces. Once this happens, the button will not function properly, leading to the loss of some functions of the related equipment. The spliced ​​structure tightly connects the pushing component 3 and the driven component 4, making them an inseparable whole. Even in extreme operating environments, facing high-intensity and high-frequency operations, the two components will not separate and will always maintain coordinated operation, ensuring the continuous stability of the button function and providing a solid guarantee for the stable operation of the equipment. Simultaneously, when the actuating component 3 is operated in the movable slot 102, the tight connection formed by the splicing allows for rapid and accurate transmission of power to the driven component 4. This efficient power transmission mechanism avoids operational stuttering or delays caused by loose connections or improper coordination between components, providing users with a simple and direct operating experience, allowing them to easily achieve button functions without complex operating skills.

[0040] like Figure 1 , Figure 5 and Figure 6As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the limiting component 2 includes a limiting main component 21 and limiting blocks 22. The limiting main component 21 is disposed on the outer shell component 1 and located in the installation space 101. Multiple limiting blocks 22 are disposed on the limiting main component 21. The installation space 101 has multiple grooves, and the multiple limiting blocks 22 are matched and engaged with the multiple grooves one-to-one. By placing the limiting main component 21 in the installation space of the outer shell component 1, and distributing the multiple limiting blocks 22 on the limiting main component 21 and engaging with the multiple grooves of the installation space 101, this tightly fitting structure greatly enhances the overall stability of the button. When faced with strong impacts from external disassembly, the engagement of the limiting blocks 22 with the grooves firmly fixes the limiting main component 21 within the outer shell component 1, preventing displacement or detachment of the limiting main component 21, thereby effectively resisting illegal disassembly of the button and comprehensively protecting the safety and integrity of the related equipment. Furthermore, the cooperation of multiple limiting blocks 22 with the grooves disperses external forces from various directions. During daily use, the device is inevitably subjected to external forces of varying degrees due to vibration, collisions, etc. At this time, the multi-point connection between the limiting blocks 22 and the grooves allows the entire limiting assembly 2 to evenly bear these external forces, avoiding the risk of structural damage caused by excessive force at a single point, greatly extending the service life of the entire anti-disassembly button, and ensuring that the structure maintains good performance during long-term use.

[0041] like Figure 1 , Figure 2 and Figure 6As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the limiting main component 21 includes a limiting body 211 and a limiting protrusion 212. The limiting body 211 is disposed on the housing assembly 1, and the limiting protrusion 212 is disposed on the limiting body 211. The pushing component 3 can drive the driven component 4 to abut against the limiting protrusion 212. Multiple limiting blocks 22 are disposed on the limiting body 211. By using the pushing component 3 to drive the driven component 4 to abut against the limiting protrusion 212 after sliding, a unique and clear tactile feedback is generated. This tactile feedback allows the user to clearly perceive that the button has reached a specific position. With this accurate tactile feedback, the user can clearly and accurately judge whether the driven component 4 has successfully performed the corresponding function after operation, greatly improving the accuracy and reliability of the operation experience and avoiding repeated operations or misjudgments caused by the inability to determine the operation result. The multiple limiting blocks 22 disposed on the limiting body 211 are tightly fitted with the groove of the installation space 101 of the housing assembly 1, firmly fixing the limiting main component 211. As an indispensable part of the overall structure, the limiting protrusion 212 further strengthens the connection between the limiting main component 211 and other components. When faced with the impact of unauthorized disassembly, the entire limiting component 211 can work together to form a strong resistance, comprehensively improving the anti-disassembly capability of the anti-disassembly button structure and effectively ensuring equipment safety.

[0042] like Figure 6 As shown, in addition to the features of the above embodiments, this embodiment further specifies that the limiting body 211 and the limiting protrusion 212 are integrally formed. By integrally forming the limiting body 211 and the limiting protrusion 212, the dimensional deviation problems that may occur when manufacturing and then splicing them separately are avoided. From mold manufacturing to the forming process, the overall dimensions of the limiting body 211 and the limiting protrusion 212 can be precisely controlled, ensuring that the limiting protrusion 212 can be accurately set on the limiting body 211, meeting the strict requirements of button design for positional accuracy. This ensures that the contact position between the driven component 4 and the limiting protrusion 212 remains consistent during button operation, stably providing a precise tactile feel, and further ensuring that the user receives the same and reliable feedback every time they operate.

[0043] like Figure 6As shown, in addition to the features of the above embodiments, this embodiment further specifies that the limiting main component 21 and the multiple limiting blocks 22 are integrally formed. By integrally forming the limiting main component 21 and the multiple limiting blocks 22, potential connection gaps and weak points between the limiting blocks 22 and the limiting main component 21 are eliminated. During long-term use of the button, the limiting component 2 will be subjected to various external forces such as vibration and impact. The connection between the separately assembled limiting blocks 22 and the limiting main component 21 is prone to loosening due to repeated stress, resulting in a decrease in the overall structural strength of the limiting component 2. However, after integral forming, the limiting blocks 22 and the limiting main component 21 become a whole, which can evenly distribute the external forces, greatly improve the structural stability of the limiting component 2 in complex usage environments, effectively reduce button failures caused by structural loosening, and extend the button's service life.

[0044] like Figure 1 , Figure 4 , Figure 9 and Figure 10 As shown, in addition to the features of the above embodiments, this embodiment further defines: the pushing component 3 includes a pushing base 31 and pushing protrusions 32. The pushing base 31 is disposed on the housing component 1 and located in the movable groove 102. There are multiple pushing protrusions 32, spaced apart along the length of the pushing base 31. The pushing base 31 has a pushing groove 301, and the driven component 4 is disposed on the pushing base 31 and located in the pushing groove 301. By arranging multiple pushing protrusions 32 spaced apart along the length of the pushing base 31, the primary effect is a significant increase in friction. When a user pushes the pushing base 31, the friction generated between these protrusions and the contacting components provides the user with a stable and easily controllable point of force. Compared to a smooth pushing base 31, this design provides the user with a more effective point of force during operation, allowing for easy pushing without excessive hand force, greatly improving operational convenience. The pushing base 31, located in the movable groove 102, provides a clear and stable guiding path for the movement of the pushing base 31. When the user pushes the base 31, the movable groove 102 effectively constrains its movement trajectory, ensuring that the base 31 can only slide precisely along a preset direction, avoiding instability such as deviation or wobbling. This precise guiding function greatly improves the accuracy of button operation. The driven component 4 is located in the push groove 301, ensuring that the push component 3 drives the driven component 4 to perform the opening or closing action of the electrical appliance.

[0045] like Figure 1 , Figure 7 , Figure 8 and Figure 11As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the driven component 4 includes a driven protrusion 41 and a driven member 42. The driven member 42 is disposed on the housing component 1, and the driven protrusion 41 is disposed on the driven member 42 and the pushing component 3. By using the driven protrusion 41 to connect the driven member 42 and the pushing component 3, when the pushing component 3 operates, the driven protrusion 41 can quickly receive power and efficiently transmit it to the driven member 42. In the control panel buttons of the smart home, when the user pushes the button, the pushing component 3 moves, and the driven protrusion 41 responds immediately, allowing the driven member 42 to quickly execute the corresponding command, ensuring the immediacy of the button function.

[0046] like Figure 1 , Figure 11 and Figure 12 As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the driven member 42 includes a driven base plate 421 and a driven hook block 422. The driven base plate 421 is disposed on the housing assembly 1, and the driven hook block 422 is disposed on the driven base plate 421. The driven base plate 421 can abut against the limiting assembly 2, and the driven hook block 422 is connected to the external structure. By disposing the driven hook block 422 on the driven base plate 421, when the pushing assembly 3 drives the driven protrusion 41 to move, the driven base plate 421 can stably receive and transmit this power, ensuring that the driven hook block 422 is accurately connected to the external structure and performs the corresponding operation. In the control buttons of the automated equipment, the driven base plate 421 can quickly transmit the power generated by the button operation to the driven hook block 422, thereby accurately controlling the operation of the external equipment and ensuring the efficiency and accuracy of the equipment operation. When the user pushes the pushing assembly 3, and the driven base plate 421 gradually approaches the limiting assembly 2 and finally abuts against it, a clear and unique tactile feedback is generated. This feedback provides a confirmation signal to the user, allowing them to clearly perceive whether the driven component 4 is in the correct position, greatly improving the accuracy of operation. The driven base plate 421 is tightly integrated with the housing assembly 1, and the driven hook block 422 is connected to the external structure, making the entire driven component an indispensable part of the button structure. If someone attempts to disassemble the tamper-proof button or the appliance is subjected to external impact, the connection between the driven component 42, the housing assembly 1, and the external structure increases the strength of the entire structure, effectively protecting the safety of the button and related equipment.

[0047] like Figure 1 , Figure 6 , Figure 10 and Figure 11As shown, in addition to the features of the above embodiments, this embodiment further specifies that: the driven member 42 is provided with a first groove 401 and a second groove 402; the pushing component 3 can drive the driven member 42 to move via the driven protrusion 41; the limiting component 2 is provided with a limiting protrusion 212; when the pushing component 3 abuts against one side wall of the movable groove 102, the limiting protrusion 212 abuts against the driven member 42 and is located in the first groove 401; when the pushing component 3 abuts against the other opposite side wall of the movable groove 102, the limiting protrusion 212 abuts against the driven member 42 and is located in the second groove 402. By utilizing the structure of the limiting protrusion 212 and the first groove 401 and the second groove 402, when the user operates the pushing component 3, when the limiting protrusion 212 contacts the first groove 401 or the second groove 402 on the driven member 42, a clear and definite tactile feedback is provided. This feedback not only enhances the user's operating experience but also ensures precise control of the device. Specifically, when the pushing component 3 abuts against one side wall of the movable slot 102, the limiting protrusion 212 engages in the first groove 401, and the user experiences a distinct impact sound and a slight change in resistance. This feedback informs the user that the device has reached a preset limit position. Similarly, when the pushing component 3 moves to the opposite side wall of the movable slot 102, the limiting protrusion 212 engages in the second groove 402, again providing similar tactile and auditory feedback. This design not only improves the device's operational precision but also reduces the possibility of misoperation. Users can easily determine the device's status through tactile feedback without relying on visual confirmation, which is especially important in low-light conditions or scenarios requiring rapid operation. Furthermore, this mechanical limiting feedback is more reliable than electronic sensors, less susceptible to environmental factors, and ensures the device's stability and durability under various conditions.

[0048] like Figure 1 , Figure 4 and Figure 5As shown, in addition to the features of the above embodiments, this embodiment further defines: the outer shell assembly 1 includes an outer shell body 11 and a fixing member 12. The fixing member 12 is disposed on the outer shell body 11, the limiting component 2 is disposed on the fixing member 12, the pushing component 3 and the driven component 4 are disposed on the outer shell body 11, the fixing member 12 is provided with an installation space 101, and the outer shell body 11 is provided with a movable groove 102 and a mounting hole 103. By disposing the fixing member 12 on the outer shell body 11 and providing the installation space 101, the limiting component 2 can be stably installed on the fixing member 12, ensuring the accuracy and reliability of the limiting function. At the same time, the pushing component 3 and the driven component 4 are directly disposed on the outer shell body 11, and the movable groove 102 and the mounting hole 103 realize motion guidance and fixed support. The fixing member 12 is provided with an installation space 101 in advance, and the limiting component 2 can be directly and accurately installed in place by ultrasonic welding technology, so that the fixing member 12 of the limiting component 2 is spliced, ensuring the strength of the connection. Meanwhile, the driving component 3 and the driven component 4 on both sides of the mounting hole 103 on the outer casing 11 are also joined together using ultrasonic welding technology. Ultrasonic welding uses high-frequency vibration to cause the molecules on the contact surfaces of the components to penetrate and fuse with each other, forming a strong connection. Compared with other connection methods, such as adhesive bonding or simple mechanical fixing, the welded connection is stronger and can withstand greater external forces and impacts, ensuring that the driving component and the driven component will not easily separate during long-term use, thus improving the stability and reliability of the entire structure.

[0049] Example 2

[0050] like Figures 1 to 12 As shown, this embodiment discloses an electrical appliance, including the aforementioned anti-disassembly button.

[0051] The second aspect of this application discloses an electrical appliance in which an anti-tamper button is installed. Traditional button structures are typically assembled from multiple parts to achieve a pressing function. This design not only increases the parts management costs of assembly plants but also reduces assembly efficiency. In this context, the design of an anti-tamper button becomes particularly important. By integrating the button structure with the housing, the number of parts can be reduced, the assembly process simplified, thereby reducing material management costs and assembly difficulty. Simultaneously, the anti-tamper button prevents users or non-professionals from disassembling it arbitrarily or causing it to fall due to external impacts, reducing equipment damage or malfunction caused by improper operation or collisions. This design not only improves the product's structural compactness but also enhances the device's durability and safety, providing a feasible solution for the lightweight and efficient design of digital intelligent terminal products.

[0052] The technical features of the above embodiments can be combined in any way. For the sake of brevity, not all possible combinations of the technical features in the above embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0053] The embodiments described above are merely illustrative of several implementations of this utility model, and while the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the utility model patent. It should be noted that those skilled in the art can make various modifications and improvements without departing from the concept of this utility model, and these all fall within the protection scope of this utility model. Therefore, the protection scope of this utility model patent should be determined by the appended claims.

Claims

1. A tamper-proof button, characterized in that, The tamper-proof button includes: The housing assembly (1) is provided with an installation space (101), a movable groove (102) and a mounting hole (103). A limiting component (2) is disposed on the outer shell component (1) and located in the installation space (101), and the limiting component (2) is spliced ​​with the outer shell component (1); A pushing component (3) is disposed on the housing assembly (1) and located at the movable slot (102); The driven component (4) is disposed on the housing component (1) and located in the mounting space (101). The pushing component (3) and the driven component (4) are respectively disposed on both sides of the mounting hole (103) and spliced ​​together. The pushing component (3) can drive the driven component (4) to abut against the limiting component (2).

2. The anti-disassembly button according to claim 1, characterized in that, The limiting component (2) includes a limiting main component (21) and a limiting block (22). The limiting main component (21) is disposed on the outer shell component (1) and located in the installation space (101). There are multiple limiting blocks (22), which are disposed on the limiting main component (21). The installation space (101) is provided with multiple grooves, and the multiple limiting blocks (22) are matched and spliced ​​with the multiple grooves one by one.

3. The anti-disassembly button according to claim 2, characterized in that, The limiting main component (21) includes a limiting body (211) and a limiting protrusion (212). The limiting body (211) is disposed on the outer shell assembly (1), and the limiting protrusion (212) is disposed on the limiting body (211). The pushing component (3) can drive the driven component (4) to abut against the limiting protrusion (212). A plurality of the limiting blocks (22) are disposed on the limiting body (211).

4. The anti-disassembly button according to claim 3, characterized in that, The limiting body (211) and the limiting protrusion (212) are integrally formed; And / or the limiting main component (21) and the plurality of the limiting blocks (22) are integrally formed.

5. The anti-disassembly button according to claim 1, characterized in that, The pushing assembly (3) includes a pushing base (31) and a pushing protrusion (32). The pushing base (31) is disposed on the housing assembly (1) and located in the movable groove (102). There are multiple pushing protrusions (32), which are spaced apart along the length direction of the pushing base (31). The pushing base (31) is provided with a pushing groove (301). The driven assembly (4) is disposed on the pushing base (31) and located in the pushing groove (301).

6. The anti-disassembly button according to claim 1, characterized in that, The driven component (4) includes a driven protrusion (41) and a driven member (42), the driven member (42) being disposed on the housing assembly (1), and the driven protrusion (41) being disposed on the driven member (42) and the push assembly (3).

7. The anti-disassembly button according to claim 6, characterized in that, The driven member (42) includes a driven base plate (421) and a driven hook block (422). The driven base plate (421) is disposed on the outer shell assembly (1), and the driven hook block (422) is disposed on the driven base plate (421). The driven base plate (421) can abut against the limiting assembly (2), and the driven hook block (422) is connected to the external structure.

8. The tamper-resistant key of claim 6, wherein, The driven member (42) is provided with a first groove (401) and a second groove (402). The pushing component (3) can drive the driven member (42) to move through the driven protrusion (41). The limiting component (2) is provided with a limiting protrusion (212). When the pushing component (3) abuts against one side wall of the movable groove (102), the limiting protrusion (212) abuts against the driven member (42) and is located in the first groove (401). When the pushing component (3) abuts against the other opposite side wall of the movable groove (102), the limiting protrusion (212) abuts against the driven member (42) and is located in the second groove (402).

9. The tamper-resistant key of claim 1, wherein, The outer casing assembly (1) includes an outer casing body (11) and a fixing member (12). The fixing member (12) is disposed on the outer casing body (11). The limiting component (2) is disposed on the fixing member (12). The pushing component (3) and the driven component (4) are disposed on the outer casing body (11). The fixing member (12) is provided with the mounting space (101). The outer casing body (11) is provided with the movable groove (102) and the mounting hole (103).

10. An electrical appliance characterized by The electrical appliances mentioned include: The anti-disassembly button according to any one of claims 1 to 9.

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