Watch buckle testing device and testing method

Abstract

The embodiment of the application relates to the technical field of wristband equipment, and provides a watch buckle testing device and a testing method, the testing device comprises a testing chamber, a program control mechanism and an upper computer, the testing chamber comprises clamping components, moving components and pressing components arranged on a base, the clamping components are used for clamping first watch buckles, the moving components are used for driving second watch buckles to move in a preset direction, and the pressing components are used for applying pressing force to keys; the program control mechanism is connected with the pressing components and the moving components, the program control mechanism drives the pressing components to apply pressing force to the keys in response to a first operation instruction, and drives the moving components to drive the second watch buckles to move in response to a second operation instruction and a third operation instruction; and the upper computer is connected with the program control mechanism and is configured to send the first operation instruction, the second operation instruction and the third operation instruction to the program control mechanism. The watch buckle testing device and the testing method provided by the embodiment of the application are at least beneficial to automatic watch buckle testing.

Description

Technical Field

[0001] This application relates to the field of wristband device technology, and in particular to a watch buckle testing device and testing method. Background Technology

[0002] Wearable devices are portable devices worn directly on the user's body. Taking watches, smartwatches, or smart bracelets as examples, existing wearable devices typically include a watch face, a watch strap, and a clasp. Some clasps use buttons to fasten or detach the strap, allowing users to put on or take off the device by pressing the button. Alternatively, some straps use multiple interconnected clasps, with buttons on the clasps allowing for the removal or installation of individual clasps to adjust the strap length. As a crucial component for putting on and taking off the wearable device, the comfort and practicality of the buttons on the clasp directly impact the wearer's experience.

[0003] Conventional testing of watch buckle components is done manually. Manual testing is prone to issues such as inconsistencies in real-time synchronization with the actual operation, the need for manual judgment of test results leading to misjudgments and incorrect measurements, poor stability and consistency, and insufficient accuracy under high-intensity testing. Furthermore, the lack of real-time availability of manual test results hinders the analysis and efficient resolution of anomalies, and results in significant manpower costs, making it unsuitable for large-scale testing tasks such as long-term stress testing. Summary of the Invention

[0004] This application provides a buckle testing device and method, which at least facilitates automated buckle testing.

[0005] According to some embodiments of this application, one aspect of this application provides a watch buckle testing device for testing watch buckle assemblies. The watch buckle assembly includes a first watch buckle and a second watch buckle. The first watch buckle includes a receiving portion and a button, and the second watch buckle includes a connecting portion. When the button of the first watch buckle is pressed, the connecting portion of the second watch buckle can extend into the receiving portion of the first watch buckle. The watch buckle testing device includes: a testing chamber, which includes a base, a clamping component, a moving component, and a pressing component. The clamping component is disposed on the base and is used to clamp the first watch buckle; the moving component is disposed on the base and is used to drive the second watch buckle away from or closer to the first watch buckle in a preset direction. A pressing component is mounted on the base and is used to apply pressing force to the button. A programmable control mechanism is located outside the test chamber and connected to the pressing component. The programmable control mechanism responds to a first operation command to drive the pressing component to apply pressing force to the button. The programmable control mechanism is also connected to a moving component. The programmable control mechanism responds to a second operation command to drive the moving component to move the second gauge buckle closer to the first gauge buckle in a preset direction, and also responds to a third operation command to drive the moving component to move the second gauge buckle away from the first gauge buckle in a preset direction. A host computer is connected to the programmable control mechanism and is configured to issue the first operation command, the second operation command, and the third operation command to the programmable control mechanism.

[0006] In some embodiments, the test chamber further includes: a temperature regulating mechanism for regulating the temperature inside the test chamber; a programmable control mechanism connected to the temperature regulating mechanism; the programmable control mechanism responding to a temperature regulating command to control the temperature regulating mechanism to regulate the temperature inside the test chamber; and a host computer configured to issue a temperature regulating command to the programmable control mechanism.

[0007] In some embodiments, the test chamber further includes: a humidity regulating mechanism for regulating the humidity inside the test chamber; a programmable control mechanism connected to the humidity regulating mechanism; the programmable control mechanism responding to a humidity regulating command to control the humidity regulating mechanism to regulate the humidity inside the test chamber; and a host computer configured to issue a humidity regulating command to the programmable control mechanism.

[0008] In some embodiments, the test chamber further includes: a pressure regulating mechanism for regulating the air pressure inside the test chamber; a programmable controller connected to the pressure regulating mechanism; the programmable controller responding to a pressure regulating command to control the pressure regulating mechanism to regulate the air pressure inside the test chamber; and a host computer configured to send a pressure regulating command to the programmable controller.

[0009] In some embodiments, the pressing component further includes a first pressure sensor configured to acquire the magnitude of the pressure applied by the pressing component to the button.

[0010] In some embodiments, the moving component further includes a second pressure sensor configured to acquire the magnitude of resistance as the moving component moves.

[0011] According to some embodiments of this application, another aspect of this application provides a buckle testing method, including: a first buckle being fixed to a clamping component and a second buckle being fixed to a moving component, and the following steps being executed by a host computer: sending a first operation command to a programmable control mechanism, the programmable control mechanism responding to the first operation command by driving a pressing component to press a button; sending a second operation command to the programmable control mechanism, the programmable control mechanism responding to the second operation command by driving the moving component to move the second buckle closer to the first buckle along a preset direction; sending a third operation command to the programmable control mechanism, the programmable control mechanism responding to the third operation command by driving the moving component to move the second buckle away from the first buckle along a preset direction.

[0012] In some embodiments, after sending a third operation instruction to the programmable controller, the process includes: sending a loop instruction to the programmable controller, wherein the programmable controller cyclically executes the first operation instruction, the second operation instruction, and the third operation instruction in response to the loop instruction.

[0013] In some embodiments, the pressing component further includes a first pressure sensor. When the programmable mechanism responds to a first operation command to drive the pressing component to press the button, the first pressure sensor acquires the pressure value of the pressing component applying the pressing force to the button. If the pressure value is less than or equal to a preset pressure value, the subsequent operation continues. If the pressure value is greater than the preset pressure value, the subsequent operation stops, and the number of times the loop command is executed is acquired.

[0014] In some embodiments, the moving component further includes: a second pressure sensor, wherein when the programmable mechanism responds to a second operation command to drive the moving component to move the second buckle closer to the first buckle in a preset direction, the second pressure sensor acquires a first resistance value when the moving component moves; when the programmable mechanism responds to a third operation command to drive the moving component to move the second buckle away from the first buckle in a preset direction, the second pressure sensor acquires a second resistance value when the moving component moves; if both the first resistance value and the second resistance value are less than or equal to a preset resistance value, the subsequent operation continues; if either the first resistance value or the second resistance value is greater than the preset resistance value, the subsequent operation stops, and the number of times the loop command is executed is acquired.

[0015] The technical solution provided in this application has at least the following advantages: The buckle testing device provided in this application embodiment sends a first operation command from a host computer to a programmable control mechanism, causing the programmable control mechanism to drive a pressing component to apply pressing force to the button of the first buckle, achieving button pressing without manual operation. Furthermore, the host computer sends second and third operation commands to the programmable control mechanism, causing the programmable control mechanism to drive a moving component to move the second buckle closer to or further away from the first buckle in a preset direction, thus achieving the engagement or disengagement of the first and second buckles. Automated testing using the buckle testing device can obtain the force required to press the button of the first buckle, allowing for judgment on whether the required pressing force is appropriate when the first buckle engages or disengages with the second buckle. The button structure can then be adjusted based on the test results to improve the user experience. In addition, automated testing using the buckle testing device can repeatedly achieve the engagement and disengagement of the first and second buckles, thereby obtaining the button lifespan of the first buckle, i.e., how many times the button of the first buckle will be pressed before it becomes damaged or unusable. Using a dial gauge testing device can avoid errors caused by manual operation and can complete large-scale testing tasks over a longer period of time, thereby improving the efficiency of dial gauge testing. Attached Figure Description

[0016] One or more embodiments are illustrated by way of example with corresponding pictures in the accompanying drawings. These illustrations do not constitute a limitation on the embodiments. Unless otherwise stated, the pictures in the accompanying drawings do not constitute a limitation on scale. In order to more clearly illustrate the technical solutions in the embodiments of this application or in the conventional technology, the drawings used in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0017] Figure 1 This is a schematic diagram of the structure of a first type of watch buckle assembly provided in an embodiment of this application; Figure 2 This is a schematic diagram of the structure of a second type of watch buckle assembly provided in an embodiment of this application; Figure 3 A schematic diagram of the structure of a buckle testing device provided in an embodiment of this application; Figure 4 This is a flowchart of a buckle testing method provided in an embodiment of this application. Detailed Implementation

[0018] Currently, button press testing of watch buckle components requires the design of fixed test actions that are performed manually. The test data obtained during the test needs to be recorded and analyzed manually, resulting in high labor costs and making it difficult to complete large-scale testing tasks such as long-term pressure testing.

[0019] This application provides a buckle testing device, which at least facilitates automated buckle testing.

[0020] The embodiments of this application will now be described in detail with reference to the accompanying drawings. However, those skilled in the art will understand that many technical details have been provided in the embodiments of this application to facilitate a better understanding of the application. However, the technical solutions claimed in this application can be implemented even without these technical details and various variations and modifications based on the following embodiments. The buckle testing device provided in this embodiment will now be described in detail with reference to the accompanying drawings.

[0021] Figure 1 This is a schematic diagram of the structure of a first type of watch buckle assembly provided in an embodiment of this application. The diagram is shown with the receiving portion in perspective.

[0022] refer to Figure 1 In some embodiments, the watch buckle assembly may include a first watch buckle 101 and a second watch buckle 102, wherein the first watch buckle 101 includes a receiving portion 111 and a button 112, and the second watch buckle 102 includes a connecting portion 103. When the button 112 of the first watch buckle 101 is pressed, the connecting portion 103 of the second watch buckle 102 can extend into the receiving portion 111 of the first watch buckle 101.

[0023] For example, in some embodiments, the inner wall of the receiving portion 111 of the first buckle 101 may have a telescopic member 113 disposed opposite to it. When the button 112 is pressed, the telescopic member 113 can be driven to retract towards the inner wall of the receiving portion 111, thereby allowing the connecting portion 103 of the second buckle 102 to move in a predetermined direction X toward the first buckle 101, so that the connecting portion 103 of the second buckle 102 extends into the receiving portion 111 of the first buckle 101. When the button 112 of the first buckle 101 is released, the telescopic member 113 extends out from the inner wall of the receiving portion 111, thus engaging the connecting portion 103 of the second buckle 102 into the receiving portion 111 of the first buckle 101. Similarly, when it is necessary to separate the first buckle 101 and the second buckle 102, the button 112 of the first buckle 101 can be pressed to retract the telescopic component 113 toward the inner wall of the receiving part 111, and then the second buckle 102 can be moved away from the first buckle 101 along the preset direction X.

[0024] In some embodiments, the receiving portion of the first watch buckle may also have a latch, and the connecting portion of the second watch buckle may have a through hole. When the button of the first watch buckle is pressed, the latch opens, and the connecting portion of the second watch buckle can extend into the receiving portion of the first watch buckle. When the button of the first watch buckle is released, the latch closes and passes through the through hole on the connecting portion of the second watch buckle, thus connecting the first and second watch buckles. Similarly, when it is necessary to separate the first and second watch buckles, the button of the first watch buckle can be pressed to open the latch, and then the connecting portion of the second watch buckle can be moved out of the receiving portion of the first watch buckle.

[0025] In some embodiments, the end of the first buckle away from the second buckle can be connected to the first watch strap, and the end of the second buckle away from the first buckle can be connected to the second watch strap. Through the above-mentioned fixing method of the first buckle and the second buckle, the first watch strap and the second watch strap can be connected or separated, which makes it convenient for users to wear or remove watches, smartwatches or smart bracelets and other devices.

[0026] Figure 2 This is a schematic diagram of the structure of a second type of watch buckle assembly provided in an embodiment of this application. Figure 1 The explanation is presented from the perspective of the containment department.

[0027] refer to Figure 2 In some embodiments, the buckle assembly includes a first buckle 201 and a second buckle 202.

[0028] The first buckle 201 may include a first main body 211, a first receiving portion 221, a first connecting portion 231, and a first button 241. The first receiving portion 221 is located at both ends of the first main body 211, the first connecting portion 231 is disposed at the end of the first receiving portion 221 away from the first main body 211, and the first button 241 is disposed on the first main body 211. The inner wall of the first receiving portion 221 may have multiple first telescopic members 251. When the first button 241 is pressed, the first telescopic members 251 retract towards the inner wall of the first receiving portion 221; when the first button 241 is released, the first telescopic members 251 extend out from the inner wall of the first receiving portion 221.

[0029] The structure of the second buckle 202 can be the same as that of the first buckle 201. The second buckle 202 includes a second main body 212, a second receiving portion 222, a second connecting portion 232, and a second button 242. The structures of the second main body 212, the second receiving portion 222, the second connecting portion 232, and the second button 242 are respectively identical to those of the first main body 211, the first receiving portion 221, the first connecting portion 231, and the first button 241. When the second button 242 is pressed, the second telescopic member 252 retracts towards the inner wall of the second receiving portion 222; when the first button 241 is released, the first telescopic member 251 extends out from the inner wall of the first receiving portion 221.

[0030] Thus, when the first button 241 of the first buckle 201 is pressed, the second buckle 202 can move closer to the first buckle 201 along a preset direction X, and the second connecting part 232 of the second buckle 202 can extend into the first receiving part 221 of the first buckle 201. When the first button 241 of the first buckle 201 is released, the first telescopic member 251 extends from the inner wall of the first receiving part 221, thereby engaging the connecting part 232 of the second buckle 202 into the receiving part 221 of the first buckle 201, thus achieving the connection between the first buckle 201 and the second buckle 202. Similarly, when it is necessary to separate the first buckle 201 and the second buckle 202, the first button 241 can be pressed to retract the first telescopic member 251 towards the inner wall of the first receiving part 221, and then the second buckle 202 can be moved away from the first buckle 201 along the preset direction X.

[0031] In some embodiments, there may be multiple first and second buckles connected sequentially, thus forming a watch strap structure. Any one of the first or second buckles can be used to detach the watch strap structure via a first or second button. Therefore, users can not only put on or take off watches, smartwatches, or smart bracelets using the first or second button, but also remove the first or second buckle to change the length of the watch strap structure.

[0032] Figure 3 This is a schematic diagram of the structure of a buckle testing device provided in an embodiment of this application. Figure 3 The second type of watch buckle assembly provided in the above embodiments is used as an example for illustration, and does not constitute a limitation on the watch buckle assembly. The watch buckle testing device can be applied to other watch buckle assemblies that achieve fastening by buttons.

[0033] refer to Figure 3 The buckle testing device includes: a test chamber 301, a programmable control mechanism 302, and a host computer (not shown in the figure).

[0034] The test chamber 301 includes a base 311, a clamping component 321, a moving component 331, and a pressing component 341. The clamping component 321 is disposed on the base 311 and is used to clamp the first buckle 201. The moving component 331 is disposed on the base 311 and is used to drive the second buckle 202 away from or closer to the first buckle 201 along a preset direction X. The pressing component 341 is disposed on the base 311 and is used to apply pressing force to the button of the first buckle 201.

[0035] The programmable control mechanism 302 is located outside the test chamber 301 and is connected to the pressing component 341. The programmable control mechanism 302 responds to the first operation command to drive the pressing component 341 to apply pressing force to the button of the first buckle 201. The programmable control mechanism 302 is also connected to the moving component 331. The programmable control mechanism 302 responds to the second operation command to drive the moving component 331 to move the second buckle 202 closer to the first buckle 201 along the preset direction X, and also responds to the third operation command to drive the moving component 331 to move the second buckle 202 away from the first buckle 201 along the preset direction X.

[0036] The host computer is connected to the programmable control unit 302 and is configured to issue a first operation command, a second operation command, and a third operation command to the programmable control unit 302.

[0037] The host computer in the aforementioned buckle testing device sends a first operation command to the programmable control mechanism 302, causing the programmable control mechanism 302 to drive the pressing component 341 to apply pressing force to the button of the first buckle 201, achieving button pressing without manual operation. Furthermore, the host computer sends second and third operation commands to the programmable control mechanism 302, causing the programmable control mechanism 302 to drive the moving component 331 to move the second buckle 202 closer to or further away from the first buckle 201 along a preset direction X, thus achieving the engagement and disengagement of the first buckle 201 and the second buckle 202. Automated testing using the buckle testing device allows for the acquisition of the force required to press the button of the first buckle 201, facilitating the determination of whether the required pressing force is appropriate when the first buckle 201 engages or disengages with the second buckle 202. The test results can then be used to adjust the button structure to improve the user experience. Furthermore, by employing an automated testing device, the engagement and disengagement of the first buckle 201 and the second buckle 202 can be repeatedly performed, thereby determining the button lifespan of the first buckle 201—that is, the number of presses required before the button on the first buckle 201 becomes damaged or unusable. Using a buckle testing device avoids errors from manual operation and can complete large-scale testing tasks over extended periods, thus improving the efficiency of buckle testing.

[0038] In some embodiments, the programmable control mechanism 302 can be a control panel outside the test chamber, which controls various components inside the test chamber 301 through the operating program on the control panel.

[0039] In some embodiments, the host computer can be a smart device such as a computer, tablet, or mobile phone. The host computer can be connected to the programmable control mechanism via wired or wireless means to send instructions to the programmable control mechanism.

[0040] In some embodiments, a track extending in a preset direction can be provided on the base, and both the clamping component and the moving component can be provided on the track. In this way, when the moving component moves the second buckle, the problem of test error caused by the displacement of the moving component can be avoided.

[0041] In some embodiments, the clamping component can also move the first buckle closer to or further away from the second buckle in a preset direction, and the pressing component can also move synchronously with the clamping component in a preset direction. In this way, the state of the user using the button of the first buckle in a moving state is simulated to obtain the usage situation when pressing the button of the first buckle in a dynamic state.

[0042] In some embodiments, the test chamber may further include: a temperature regulating mechanism for regulating the temperature within the test chamber; a programmable control mechanism connected to the temperature regulating mechanism; and a host computer configured to issue temperature regulating commands to the programmable control mechanism in response to a temperature regulating command. By regulating the temperature within the test chamber through the temperature regulating mechanism, the usage of the buttons on the first gauge buckle under different temperatures can be simulated, thus obtaining the effect of temperature on the button usage of the first gauge buckle.

[0043] In some embodiments, the test chamber may further include: a humidity regulating mechanism for regulating the humidity within the test chamber; a programmable control mechanism connected to the humidity regulating mechanism; and a host computer configured to send humidity regulating commands to the programmable control mechanism. By regulating the humidity within the test chamber through the humidity regulating mechanism, the usage of the buttons on the first gauge buckle under different humidity levels can be simulated, thus obtaining the effect of humidity on the button usage of the first gauge buckle.

[0044] In some embodiments, the test chamber may further include: a pressure regulating mechanism for regulating the air pressure within the test chamber; a programmable controller connected to the pressure regulating mechanism; and a host computer configured to send pressure regulating commands to the programmable controller. By regulating the air pressure within the test chamber through the pressure regulating mechanism, the usage of the buttons on the first gauge buckle under different air pressures can be simulated, thus obtaining the effect of air pressure on the button usage of the first gauge buckle.

[0045] In some implementations, the test chamber 301 may also have a pressure valve 303.

[0046] It is understandable that the temperature, humidity, and pressure vary in different regions, and the corresponding usage environment of the buttons on the first gauge buckle will also vary. In order to ensure the practicality of the buttons on the first gauge buckle, the structure of the buttons on the first gauge buckle can be adapted to the test results under different temperatures, humidity, and pressure conditions, so as to meet the user experience of users in different regions.

[0047] In some embodiments, the test temperature can be -15℃ to 55℃, such as -15℃, -10℃, -5℃, 0℃, 5℃, 15℃, 25℃, 35℃, 45℃ or 55℃.

[0048] In some embodiments, the test humidity can be 25%RH to 95%RH, such as 25%RH, 30%RH, 34%RH, 46%RH, 57%RH, 66%RH, 75%RH, 89%RH or 95%RH.

[0049] In some embodiments, the test pressure can be 10 kPa to 20 kPa, such as 10 kPa, 13 kPa, 15 kPa, 16 kPa, 18 kPa, 19 kPa or 20 kPa.

[0050] In some embodiments, the test chamber can be filled with water to simulate the underwater use of the buttons on the first buckle, thereby obtaining the probability of the buttons on the first buckle being accidentally pressed underwater, and thus avoiding the problem of loss when the user uses the first buckle underwater.

[0051] In some embodiments, the pressing component may further include a first pressure sensor configured to acquire the pressure applied by the pressing component to the button. By acquiring the applied pressure of the pressing component through the first pressure sensor, the required pressure for the button of the first buckle to be pressed under different conditions can be obtained. For example, when testing the button lifespan of the first buckle using a buckle testing device, the number of presses can be used as the horizontal axis and the pressing force as the vertical axis to obtain the button lifespan curve of the first buckle. Based on the relationship between the number of presses and the pressing force, it can be determined how many times the button will malfunction.

[0052] In some embodiments, the moving component may further include a second pressure sensor configured to acquire the magnitude of resistance when the moving component moves. It is understood that when the first buckle malfunctions, a situation may occur where the button of the first buckle is pressed, but the connecting portion of the second buckle cannot extend into the receiving portion of the first buckle, or the connecting portion of the second buckle cannot move out of the receiving portion of the first buckle. By acquiring the moving resistance of the moving component, it is possible to determine whether the button of the first buckle is experiencing the aforementioned situation.

[0053] The buckle testing device provided in this application embodiment sends a first operation command from a host computer to a programmable control mechanism 302, causing the programmable control mechanism 302 to drive a pressing component 341 to apply pressing force to the button of the first buckle 201, thus achieving button pressing without manual operation. Furthermore, the host computer sends a second and a third operation command to the programmable control mechanism 302, causing the programmable control mechanism 302 to drive a moving component 331 to move the second buckle 202 closer to or further away from the first buckle 201 along a preset direction X, thereby achieving the engagement and disengagement of the first buckle 201 and the second buckle 202. Automated testing using this buckle testing device can obtain the force required to press the button of the first buckle 201, allowing for judgment of whether the required pressing force is appropriate when the first buckle 201 engages or disengages with the second buckle 202. The test results can then be used to adjust the button structure to improve the user experience. Furthermore, by employing an automated testing device, the engagement and disengagement of the first buckle 201 and the second buckle 202 can be repeatedly performed, thereby determining the button lifespan of the first buckle 201—that is, the number of presses required before the button on the first buckle 201 becomes damaged or unusable. Using a buckle testing device avoids errors from manual operation and can complete large-scale testing tasks over extended periods, thus improving the efficiency of buckle testing.

[0054] Another embodiment of this application provides a buckle testing method, which can be performed using the buckle testing device provided in the above embodiments to achieve automated buckle testing. It should be noted that the parts that are the same as or corresponding to those in the above embodiments can be referred to the corresponding descriptions in the foregoing embodiments, and will not be described in detail below. The buckle testing method provided in this embodiment will be described in detail below with reference to the accompanying drawings.

[0055] Figure 4 This is a flowchart illustrating a buckle testing method according to an embodiment of this application. During the buckle test, a first buckle is fixed to a clamping component, and a second buckle is fixed to a moving component.

[0056] refer to Figure 4 The following steps are executed via the host computer: Step 401: A first operation command is sent to the programmable control mechanism, which responds to the first operation command by driving the pressing component to press the button. At this time, the connecting part of the second buckle can extend into the receiving part of the first buckle.

[0057] Step 402: A second operation command is sent to the programmable control mechanism. In response to the second operation command, the programmable control mechanism drives the moving component to move the second watch buckle closer to the first watch buckle in a preset direction. At this time, the connecting part of the second watch buckle extends into the receiving part of the first watch buckle.

[0058] Step 403: A third operation command is sent to the programmable control mechanism. In response to the third operation command, the programmable control mechanism drives the moving component to move the second watch buckle away from the first watch buckle in a preset direction. At this time, the connecting part of the second watch buckle is moved out of the receiving part of the first watch buckle.

[0059] Thus, the above steps complete a press test on the button of the first buckle.

[0060] In some embodiments, after sending the second operation command to the programmable controller and before sending the third operation command to the programmable controller, the process may further include: stopping the sending of the first operation command to the programmable controller, at which time the connecting portion of the second buckle extends into the receiving portion of the first buckle, and the first buckle and the second buckle are engaged; furthermore, re-sending the first operation command to the programmable controller, at which time the connecting portion of the second buckle extends into the receiving portion of the first buckle, and the first buckle and the second buckle are not engaged. That is, pressing the button engages the first buckle and the second buckle; pressing the button again separates the first buckle and the second buckle, thus performing a press test on the button of the first buckle.

[0061] In some embodiments, the buttons of the first buckle can be subjected to multiple press tests using a buckle testing device. For example, after sending a third operation command to the programmable mechanism, the test may further include sending a loop command to the programmable mechanism, which in turn executes the first operation command, the second operation command, and the third operation command in a loop. By repeatedly engaging and disengaging the first buckle and the second buckle through the loop command, the scenario of the buttons of the first buckle being used multiple times can be simulated, thereby obtaining the lifespan of the buttons of the first buckle.

[0062] In some embodiments, the pressing component may further include: a first pressure sensor, which acquires the pressure value when the programmable mechanism responds to a first operation command to drive the pressing component to press the button; if the pressure value is less than or equal to a preset pressure value, the subsequent operation continues; if the pressure value is greater than the preset pressure value, the subsequent operation stops, and the number of times the loop command is executed is acquired. That is, when the pressure value of the first pressure sensor exceeds the preset pressure value, it can be determined that the button of the first gauge buckle has a fault that cannot be pressed. At this time, the number of times the loop command is executed reflects the number of times the button of the first gauge buckle has been used, that is, the button lifespan of the first gauge buckle.

[0063] In some embodiments, the moving component may further include: a second pressure sensor, which acquires a first resistance value when the programmable mechanism responds to a second operation command to drive the moving component to move the second buckle closer to the first buckle in a preset direction; and acquires a second resistance value when the programmable mechanism responds to a third operation command to drive the moving component to move the second buckle away from the first buckle in a preset direction. If both the first and second resistance values ​​are less than or equal to the preset resistance value, subsequent operations continue; if either the first or second resistance value is greater than the preset resistance value, subsequent operations stop, and the number of times the loop command is executed is acquired. That is, when the first or second resistance value acquired by the second pressure sensor exceeds the preset resistance value, it can be determined that the button of the first buckle is pressed, but the connecting part of the second buckle cannot extend into the receiving part of the first buckle or the connecting part of the second buckle cannot move out of the receiving part of the first buckle. The number of times the loop command is executed at this time reflects the number of times the button of the first buckle is used, i.e., the button lifespan of the first buckle.

[0064] The buckle testing method provided in this application uses the buckle testing device provided in the above embodiments. A first operation command is sent from a host computer to a programmable control mechanism, causing the programmable control mechanism to drive a pressing component to apply pressure to the button of the first buckle. This eliminates the need for manual button operation. Furthermore, a second and third operation command are sent from the host computer to the programmable control mechanism, causing the programmable control mechanism to drive a moving component to move the second buckle closer to or further away from the first buckle in a preset direction, thus achieving the engagement and disengagement of the first and second buckles. Automated testing using the buckle testing device allows for the acquisition of the required pressure when pressing the button of the first buckle. This helps determine whether the required pressure is appropriate when the first buckle engages or disengages with the second buckle, and the button structure can be adjusted based on the test results to improve the user experience. Additionally, automated testing using the buckle testing device allows for repeated engagement and disengagement of the first and second buckles, thereby determining the button's lifespan—that is, the number of presses required before the button of the first buckle becomes damaged or unusable. Using a dial gauge testing device can avoid errors caused by manual operation and can complete large-scale testing tasks over a longer period of time, thereby improving the efficiency of dial gauge testing.

[0065] Those skilled in the art will understand that the above embodiments are specific implementations of this application, and in practical applications, various changes can be made in form and detail without departing from the spirit and scope of this application.

Claims

1. A watch buckle testing device, characterized in that, For testing watch buckle assemblies, the watch buckle assembly includes a first watch buckle and a second watch buckle. The first watch buckle includes a receiving portion and a button, and the second watch buckle includes a connecting portion. When the button of the first watch buckle is pressed, the connecting portion of the second watch buckle can extend into the receiving portion of the first watch buckle. The watch buckle testing device includes: The test chamber includes a base, a clamping component, a moving component, and a pressing component. The clamping component is disposed on the base and is used to clamp the first buckle. The moving component is disposed on the base and is used to move the second buckle away from or closer to the first buckle in a preset direction. The pressing component is disposed on the base and is used to apply pressing force to the button. A programmable control mechanism is disposed outside the test chamber and connected to the pressing component. The programmable control mechanism responds to a first operation command to drive the pressing component to apply pressing force to the button. The programmable control mechanism is also connected to the moving component. The programmable control mechanism responds to a second operation command to drive the moving component to move the second buckle closer to the first buckle along the preset direction, and also responds to a third operation command to drive the moving component to move the second buckle away from the first buckle along the preset direction. A host computer, which is connected to the programmable control mechanism, is configured to issue the first operation instruction, the second operation instruction, and the third operation instruction to the programmable control mechanism.

2. The buckle testing device according to claim 1, characterized in that, The test chamber also includes a temperature regulating mechanism for regulating the temperature inside the test chamber. The programmable controller is also connected to the temperature regulating mechanism and responds to a temperature regulating command to control the temperature regulating mechanism to regulate the temperature inside the test chamber. The host computer is also configured to send the temperature regulating command to the programmable controller.

3. The buckle testing device according to claim 1, characterized in that, The test chamber also includes a humidity regulating mechanism for regulating the humidity within the test chamber. The programmable controller is also connected to the humidity regulating mechanism and responds to a humidity regulating command to control the humidity regulating mechanism to regulate the humidity within the test chamber. The host computer is also configured to send the humidity regulating command to the programmable controller.

4. The buckle testing device according to claim 1, characterized in that, The test chamber further includes: a pressure regulating mechanism for regulating the air pressure in the test chamber; a programmable controller connected to the pressure regulating mechanism; the programmable controller responding to a pressure regulating command to control the pressure regulating mechanism to regulate the air pressure in the test chamber; and the host computer configured to send the pressure regulating command to the programmable controller.

5. The buckle testing device according to claim 1, characterized in that, The pressing component further includes a first pressure sensor, which is configured to acquire the pressure magnitude when the pressing component applies a pressing force to the button.

6. The buckle testing device according to claim 1, characterized in that, The moving component further includes a second pressure sensor configured to acquire the magnitude of resistance when the moving component moves.

7. A watch buckle testing method, employing the watch buckle testing device as described in any one of claims 1 to 6, characterized in that, The first buckle is fixed to the clamping component, and the second buckle is fixed to the moving component. The following steps are executed by the host computer: The programmable control mechanism sends the first operation command, and the programmable control mechanism responds to the first operation command by driving the pressing component to press the button; The programmable control mechanism sends the second operation command to the programmable control mechanism, which responds to the second operation command by driving the moving component to move the second buckle closer to the first buckle along the preset direction; The third operation instruction is sent to the programmable mechanism, and the programmable mechanism responds to the third operation instruction by driving the moving component to move the second buckle away from the first buckle along the preset direction.

8. The buckle testing method according to claim 7, characterized in that, After sending the third operation instruction to the programmable mechanism, the following is included: A loop instruction is sent to the programmable control mechanism, and the programmable control mechanism responds to the loop instruction by repeatedly executing the first operation instruction, the second operation instruction, and the third operation instruction.

9. The buckle testing method according to claim 8, characterized in that, The pressing component also includes a first pressure sensor. When the programmable mechanism responds to the first operation command to drive the pressing component to press the button, the first pressure sensor acquires the pressure value of the pressing component applying the pressing force to the button. If the pressure value is less than or equal to the preset pressure value, then continue with the subsequent operations; If the pressure value is greater than the preset pressure value, then the subsequent operation is stopped, and the number of times the loop instruction has been executed is obtained.

10. The buckle testing method according to claim 8, characterized in that, The moving component further includes: a second pressure sensor, wherein when the programmable mechanism responds to the second operation command to drive the moving component to move the second buckle closer to the first buckle along the preset direction, the second pressure sensor acquires a first resistance value when the moving component moves; and when the programmable mechanism responds to the third operation command to drive the moving component to move the second buckle away from the first buckle along the preset direction, the second pressure sensor acquires a second resistance value when the moving component moves. If either the first resistance value or the second resistance value is less than or equal to the preset resistance value, then continue with the subsequent operations; If either the first resistance value or the second resistance value is greater than the preset resistance value, then the subsequent operation is stopped, and the number of times the loop instruction has been executed is obtained.

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