Electric control lock detection device

Abstract

The invention discloses an electric control lock detection device, and relates to the technical field of electric control lock detection, the electric control lock detection device comprises a detection table, a positioning assembly, a spring bolt force application mechanism, a key simulation mechanism, an electric control trigger interface, a control module, a first control button and a second control button, the positioning assembly is arranged on the detection table and is used for positioning an electric control lock; the spring bolt force application mechanism comprises a first driving source and a force application rod, the force application rod can move to make contact with a spring bolt of the electric control lock and apply loads to the spring bolt, and the first driving source is used for driving the force application rod to move. The key simulation mechanism comprises a second driving source and an unlocking rod driven by the second driving source, and the unlocking rod is used for being inserted into a key hole of the electric control lock to unlock the electric control lock; the electric control trigger interface is used for being connected with a power supply and a control end of the electric control lock; the control module is electrically connected with the spring bolt force application mechanism, the key simulation mechanism, the electric control trigger interface, the first control button and the second control button. The method and the device have the effect of improving the detection accuracy of the electric control lock.

Description

Technical Field

[0001] This application relates to the technical field of electric lock testing, and in particular to an electric lock testing device. Background Technology

[0002] With the rapid development of security technology, electronically controlled locks have become widely used in smart access control, financial security, hotel management, and smart homes due to their convenience, high security, and integrability. Modern electronically controlled locks, especially those with dual functions of electronic unlocking (such as via password, card swipe, fingerprint, or mobile app) and emergency manual unlocking (such as via mechanical key), have become the mainstream products in the market. These locks ensure convenient access while retaining emergency unlocking capabilities in case of power outages or electronic system failures, greatly improving system reliability.

[0003] The performance of electronic locks directly affects the safety and stability of the entire security system. Therefore, before leaving the factory or during the research and development phase, their key performance indicators must undergo rigorous and comprehensive testing. These indicators typically include, but are not limited to: Reliability of electrical control functions: Whether the extension / retraction of the latch is smooth and accurate under different operating voltages, and whether the operating current of the motor and other drive mechanisms is normal.

[0004] Manual unlocking force: In an emergency, measure the force required for the user to open the electronic lock with the mechanical key to ensure that it conforms to ergonomic design. It should not be too light, which may cause security problems, nor too heavy, which may affect emergency use.

[0005] Traditional testing methods primarily rely on manual operation. Testers need to manually connect / disconnect the power supply to simulate electronic control operations and repeatedly insert and remove mechanical keys to simulate manual operation. This method is not only labor-intensive and time-consuming, but also extremely inefficient, making it difficult to meet the quality inspection requirements of mass production. The randomness of manual operation also makes it impossible to guarantee the accuracy and consistency of test results. Summary of the Invention

[0006] To improve the accuracy of testing electric locks, this application provides an electric lock testing device.

[0007] This application provides an electronically controlled lock detection device, which adopts the following technical solution: An electronic lock detection device, comprising: A testing platform and a positioning component, wherein the positioning component is mounted on the testing platform for positioning the electronically controlled lock; A bolt force application mechanism includes a first drive source and a force application rod, wherein the force application rod is movable to contact the bolt of the electronic lock and apply a load thereto, and the first drive source is used to drive the force application rod to move; A key simulation mechanism includes a second drive source and an unlocking lever driven by the second drive source, the unlocking lever being used to insert into the keyhole of the electronic lock to unlock the electronic lock; An electronic trigger interface is used to connect to the power supply and control terminal of the electronic lock; First control button and second control button; The control module is electrically connected to the latch force application mechanism, the key simulation mechanism, the electronic trigger interface, the first control button, and the second control button, respectively. The control module is configured as follows: In response to a trigger operation of the first control button, the first test procedure is executed: the first drive source of the bolt force application mechanism is controlled to move, so that the force application rod presses the bolt to the locked position, and the first drive source is controlled to reset; then, the electronic trigger interface is controlled to send an unlock signal to the electronic lock. In response to a trigger operation of the second control button, the second test procedure is executed: the first drive source of the bolt force application mechanism is controlled to move, so that the force application rod presses the bolt to the locked position, and the first drive source is controlled to reset; then, the second drive source of the key simulation mechanism is controlled to drive the unlocking rod to move, so as to mechanically unlock the electronic lock.

[0008] By adopting the above technical solution, when in use, the electric lock is installed on the testing platform and positioned by the positioning component, and the test is performed by the program controlled by the first control button and the second control button; During the first test, the first control button is triggered, transmitting input commands to the control module. The control module can control the first drive source to move the force bar, pressing the bolt and locking the bolt in place, thus detecting the lock. The delay command issued by the control module can also control the first drive source to reset. Subsequently, the control module sends an unlocking signal to the electric lock through the electric control trigger interface. If the electric lock can unlock normally, the bolt rotates, allowing the force bar to slide back to its original position, completing the first test. During the second test, the second control button is triggered, transmitting input commands to the control module. The control module can control the first drive source to move the force bar, pressing the bolt and locking the bolt to its position, thus detecting the lock. The delay command issued by the control module can also control the first drive source to reset. Subsequently, the control module drives the second drive source to move the unlocking lever to mechanically unlock the electric lock. If the mechanical unlocking structure can unlock normally, the bolt rotates, allowing the force bar to slide back to its original position, completing the first test. The two detection processes are controlled by two buttons respectively. The detection device has a simple structure, low cost, and can improve detection accuracy and precision.

[0009] Optionally, the testing platform is provided with a slide rail, and a sliding seat is slidably connected to the slide rail. The force-applying rod is disposed on the sliding seat. The first driving source includes a first output shaft, which is movable to abut against the sliding seat and push the sliding seat to move.

[0010] By adopting the above technical solution, the force-applying rod is set on the sliding seat and can slide along the slide rail together with the sliding seat. Since the first output shaft and the sliding seat are not connected, the first output shaft can push the sliding seat to move when it moves. When the force-applying rod and the locking tongue are connected, it does not affect the reset of the first output shaft, so that the sliding seat can be reset after the electric lock is unlocked.

[0011] Optionally, a mounting block is slidably connected to the sliding seat, the force rod is mounted on the mounting block, the sliding direction of the mounting block is parallel to the moving direction of the sliding seat, and the mounting block is provided with a locking element for locking the position of the mounting block.

[0012] By adopting the above technical solution, the force-applying rod is installed on the mounting block, and the mounting block can slide relative to the sliding seat and be locked by the locking element, thereby adjusting the relative position of the mounting block and the sliding seat. This allows for fine adjustment of the maximum distance the force-applying rod can move to adapt to the use of different types of electric locks.

[0013] Optionally, the mounting block has an oblong hole, the length of which is along the sliding direction of the sliding seat, and the locking member includes a fixing rod threadedly connected to the sliding seat, the fixing rod being able to slide within the oblong hole; The fixed rod is provided with a limiting edge at the end away from the sliding seat, and a first elastic element is provided between the limiting edge and the mounting block.

[0014] By adopting the above technical solution, the fixed rod and the sliding seat are fixed by a threaded connection. When the sliding seat and the mounting block move relative to each other, the fixed rod can also be adjusted to the position in the oblong hole. When the limiting edge abuts against the mounting block, the position of the sliding seat and the mounting block can be locked to achieve the adjustment function. The first elastic element can make the connection of the fixed rod more reliable and less prone to rotation that could cause positional deviation of the sliding seat and the mounting block.

[0015] Optionally, it also includes a display screen and a force sensor, wherein the force sensor is mounted on the force-applying rod and communicates with the control module to detect the force information of the bolt of the electric lock; The display screen is detachably connected to the testing platform. The display screen and the control module are communicatively connected. The control module is configured to send the data detected by the force sensor to the display screen for display.

[0016] By adopting the above technical solution, when the force bar moves to apply force to the latch, and when the latch rotates to apply force to the force bar, the force sensor can detect the force and transmit it to the control module. The control module sends the detection data to the display screen for display, so that the display screen can display the corresponding data.

[0017] Optionally, the positioning component includes a first positioning seat and a second positioning seat. The first positioning seat has a first receiving groove, and the second positioning seat has a second receiving groove. The first receiving groove includes a first limiting area for positioning one side edge of the electronically controlled lock, and the second receiving groove includes a second limiting area and a third limiting area for positioning two adjacent side edges of the electronically controlled lock, respectively.

[0018] By adopting the above technical solution, since the electric lock is generally rectangular in shape, it can be placed in the first and second receiving slots for positioning. Specifically, the three edges of the electric lock are positioned by the first, second and third limiting areas respectively, so as to achieve rapid positioning.

[0019] Optionally, the first positioning seat and the second positioning seat are slidably connected to the detection table, and the first positioning seat can move toward and away from the second positioning seat, and the second positioning seat can move toward and away from the first positioning seat. The second positioning seat includes a fixed part and a sliding part. The second limiting area is disposed on the fixed part, and the third limiting area is disposed on the sliding part. The fixed part and the sliding part can approach each other and move away from each other.

[0020] By adopting the above technical solution, the first positioning seat and the second positioning seat slide on the detection table, thereby adjusting the distance between the first limiting area and the second limiting area. The sliding part can slide relative to the fixed part, which also allows the distance between the second limiting part and the third limiting part to be adjusted. As a result, the positioning component can be applied to electric locks of different sizes and shapes, improving its applicability.

[0021] Optionally, the side wall of the testing platform is provided with an adjustment seat, and the adjustment seat is provided with a first knob and a second knob. The first knob is rotated to drive the relative movement of the first positioning seat and the second positioning seat, and the second knob is used to drive the sliding part to move relative to the fixed part.

[0022] By adopting the above technical solution, rotating the first knob can adjust the relative position of the first positioning seat and the second positioning seat, and rotating the second knob can adjust the position of the sliding part relative to the fixed part, thereby facilitating the detection of different types of electric locks.

[0023] Optionally, the testing platform is provided with a mounting part, and a second elastic element is provided between the mounting part and the sliding seat. The second elastic element is capable of storing elastic force when the sliding seat is driven to move by the first driving source.

[0024] By adopting the above technical solution, since some electric locks have a torsion spring in their bolts, when the electric lock is unlocked, the sliding seat can be reset by the elastic force of the electric lock so that the sliding seat can be detected next time; when detecting an electric lock without a torsion spring, or when the elastic force of the electric lock's bolt is low, the sliding seat can be reset by the elastic force of the second elastic element.

[0025] Optionally, one end of the second elastic member is rotatably connected to the mounting portion, and the other end is detachably connected to the sliding seat; The sliding seat is provided with a plurality of first fixing parts at equal intervals along the length direction, and the end of the second elastic member away from the mounting part is detachably connected to the first fixing part. The testing platform is provided with a second fixing part for detachably connecting to the end of the second elastic member away from the mounting part.

[0026] By adopting the above technical solution, one end of the second elastic element can be installed on different first fixing parts, thereby adjusting the stretching length and stored elastic force of the second elastic element to adapt to different similar electric locks; and when the second elastic element is not needed, the second elastic element can be connected to the second fixing part.

[0027] In summary, this application includes at least one of the following beneficial effects: 1. Two detection procedures can be performed separately using the first and second control buttons. The detection device has a simple structure, low cost, and can improve detection accuracy and precision. 2. The relative position of the lever and the sliding seat can be adjusted, thereby allowing for fine-tuning of the maximum distance the lever can move to accommodate different types of electronic locks; 3. Set up a display screen and a force sensor. The display screen can show the force data received by the force sensor, thereby obtaining the force data of the locking tongue; 4. The second elastic element is provided so that the detection device can adapt to the electric lock with no elasticity when the bolt is reset, thereby reducing the influence of the sliding seat on the bolt reset of the electric lock and facilitating subsequent detection. Attached Figure Description

[0028] Figure 1 This is a schematic diagram of the overall structure of the electronically controlled lock tested in Embodiment 1 of this application; Figure 2 This is a schematic diagram of the overall structure of Embodiment 1 of this application; Figure 3 yes Figure 2 Enlarged structural diagram at point A; Figure 4 This is a partial structural schematic diagram of the positioning structure shown in Embodiment 1 of this application; Figure 5 This is a partial structural schematic diagram of the locking tongue force application mechanism shown in Embodiment 2 of this application; Figure 6 This is a schematic diagram illustrating the structure of the adjustment seat and positioning component as shown in Embodiment 3 of this application; Figure 7 This is a schematic diagram illustrating the first knob drive structure in Embodiment 3 of this application; Figure 8 This is a schematic diagram illustrating the second knob drive structure in Embodiment 3 of this application.

[0029] Explanation of reference numerals in the attached drawings: 1. Testing table; 11. Electrically controlled trigger interface; 12. First control button; 13. Second control button; 14. Slide rail; 15. Mounting part; 151. Second elastic element; 16. Second fixing part; 17. First slide groove; 172. Second slide groove; 2. Positioning assembly; 21. First positioning seat; 211. First receiving groove; 212. First limiting area; 213. First connecting bar; 22. Second positioning seat; 221. Second receiving groove; 222. Second limiting area; 223. Third limiting area; 224. Fixing part; 225. Sliding part; 226. Second connecting bar; 3. Locking tongue force application mechanism 31. First drive source; 32. Force rod; 321. Force sensor; 33. Sliding seat; 331. Mounting block; 332. Waist-shaped hole; 333. Fixing rod; 3331. Limiting edge; 334. First elastic element; 335. First fixing part; 4. Key simulation mechanism; 41. Second drive source; 42. Unlocking rod; 5. Electric lock; 51. Lock tongue; 52. Keyhole; 53. Insertion hole; 6. Display screen; 7. Adjustment seat; 71. First knob; 72. Second knob; 73. Gear; 74. Linkage part; 741. Rack part; 742. Telescopic rod; 743. Third connecting bar; 75. Bidirectional lead screw. Detailed Implementation

[0030] The following is in conjunction with the appendix Figure 1-8 This application will be described in further detail.

[0031] This application discloses an electronic lock detection device, which is described in an embodiment. Figure 1The electric lock 5 to be tested in this application is a rectangular parallelepiped. One side of the electric lock 5 has a insertion hole 53, and the adjacent side has a keyhole 52. A latch 51 is rotatably mounted at the insertion hole 53. When a force-applying component enters the opening and pushes the latch 51 to rotate, the latch 51 locks the force-applying component, achieving the locking purpose of the electric lock 5. The electric lock 5 is equipped with an electric unlocking structure. When the control module of the electric lock 5 receives an unlocking signal, the control module controls the electric unlocking structure to drive the latch 51 to rotate in the opposite direction, thereby unlocking the force-applying rod 32. The force-applying rod 32 can be separated from the electric lock 5. When the latch 51 locks the force-applying component, a key can also be inserted into the keyhole 52 to drive the mechanical unlocking structure inside the electric lock 5 to act on the latch 51, thereby driving the latch 51 to rotate and unlocking the force-applying rod 32.

[0032] Example 1 Reference Figure 2 and Figure 3 This application discloses an electronic lock testing device, including a testing platform 1, a positioning component 2, a bolt force application mechanism 3, a key simulation mechanism 4, an electronic trigger interface 11, a first control button 12, a second control button 13, a start button and an emergency stop button, and a circuit board (not shown in the figure) is also provided in the testing platform 1. The circuit board integrates a control module and is connected to an external power supply through a plug.

[0033] The electric lock 5 is positioned and fixed by the positioning component 2. The control module is electrically connected to the bolt force application mechanism 3, the key simulation mechanism 4, the electric trigger interface 11, the first control button 12, the second control button 13, the start button and the stop button respectively. The wiring terminals of the electric lock 5 are electrically connected to the electric trigger interface 11 and the control module.

[0034] Reference Figure 3 and Figure 4 The locking tongue force application mechanism 3 includes a first drive source 31 and a force application rod 32. The force application rod 32 can move and contact the locking tongue 51 of the electric lock 5 and apply a load to it, so that the locking tongue 51 rotates and locks the force application rod 32. The first drive source 31 is used to drive the force application rod 32 to move. Specifically, the first drive source 31 can be a cylinder. The key simulation mechanism 4 includes a second drive source 41 and an unlocking rod 42 driven by the second drive source 41. The unlocking rod 42 is used to insert into the keyhole 52 of the electric lock 5 to unlock the electric lock 5. Specifically, the second drive source 41 can be a cylinder. In other preferred embodiments of this application, the unlocking rod 42 can include an unlocking section and a rotary drive source that drives the unlocking section to rotate. Specifically, the rotary drive source can be a rotary cylinder, so that the electric lock 5 with the need for rotary mechanical unlocking can be used. The first drive source 31, the second drive source 41, and the rotary drive source are all controlled by a control module.

[0035] The control module is configured as follows: In response to a trigger operation of the first control button 12, the first test procedure is executed: the first drive source 31 of the latch force application mechanism 3 is controlled to move, so that the force application rod 32 presses the latch 51 to the locked position, and the first drive source 31 is controlled to reset; then, the electronic trigger interface 11 is controlled to send an unlocking signal to the electronic lock 5. In response to a trigger operation of the second control button 13, the second test procedure is executed: the first drive source 31 of the lock tongue force application mechanism 3 is controlled to move, so that the force application rod 32 presses the lock tongue 51 to the locked position, and the first drive source 31 is controlled to reset; then, the second drive source 41 of the key simulation mechanism 4 is controlled to drive the unlocking rod 42 to move, so as to mechanically unlock the electric lock 5.

[0036] The start and stop buttons serve as the main switches, enabling the connection and disconnection of the external power supply and the electrical connections of all components of the electric lock detection device, thus facilitating the operation and shutdown of the entire device. The stop button can also function as an emergency stop button; if a problem occurs during the detection process, the operation of the electric lock detection device can be halted using the stop button.

[0037] Reference Figure 3 and Figure 4 A slide rail 14 is bolted to the testing platform 1, and a sliding seat 33 is slidably connected to the slide rail 14. A force-applying rod 32 is disposed on the sliding seat 33. The first drive source 31 includes a first output shaft, which is movable and abuts against the sliding seat 33, pushing the sliding seat 33 to move. Specifically, in this embodiment, the first drive source 31 is a cylinder.

[0038] A mounting block 331 is slidably connected to the sliding seat 33. A force rod 32 is mounted on the mounting block 331. The sliding direction of the mounting block 331 is parallel to the moving direction of the sliding seat 33. A locking element for locking the position of the mounting block 331 is provided on the mounting block 331.

[0039] The mounting block 331 has a waist-shaped hole 332, the length of which is along the sliding direction of the sliding seat 33. The locking element includes a fixing rod 333 that is threadedly connected to the sliding seat 33. The fixing rod 333 can slide within the waist-shaped hole 332. A limit edge 3331 is provided at the end of the fixing rod 333 away from the sliding seat 33. A first elastic element 334 is provided between the limit edge 3331 and the mounting block 331. Specifically, the first elastic element 334 is a spring in this embodiment.

[0040] Since the fixed rod 333 and the sliding seat 33 are fixed by a threaded connection, when the sliding seat 33 and the mounting block 331 move relative to each other, the fixed rod 333 can also be adjusted to a position within the oblong hole 332. When the limiting edge 3331 abuts against the mounting block 331, it can lock the position of the sliding seat 33 and the mounting block 331, thus realizing the function of adjusting the position of the fixed rod 333. The first elastic element 334 makes the connection of the fixed rod 333 more secure, and it is not easy for rotation to cause positional deviation between the sliding seat 33 and the mounting block 331. Since the force-applying rod 32 is mounted on the mounting block 331, and the mounting block 331 can slide relative to the sliding seat 33 and be locked by the locking element, the relative position of the mounting block 331 and the sliding seat 33 can be adjusted, thereby allowing for fine adjustment of the maximum distance the force-applying rod 32 can move to adapt to the use of different types of electric locks 5.

[0041] Reference Figure 2 and Figure 4 The electric lock detection device also includes a display screen 6 and a force sensor 321. The force sensor 321 is fixed on the force application rod 32 and communicates with the control module to detect the force information of the bolt 51 of the electric lock 5. The display screen 6 is detachably connected to the testing station 1. The display screen 6 is communicatively connected to the control module, which is configured to send the data detected by the force sensor 321 to the display screen 6 for display.

[0042] When the force-applying lever 32 moves to apply force to the latch 51, and when the latch 51 rotates to apply force to the force-applying lever 32, the force sensor 321 can detect these movements and transmit the data to the control module. The control module then sends the detected data to the display screen 6 for display, allowing the display screen 6 to show the corresponding data. This enables timely understanding of the data information of the electric lock 5, and by comparing the data to ensure it is within a predetermined range, it can be determined whether the electric lock 5 meets the standards.

[0043] The display screen 6 can be detachably fixed to the testing table 1, or it can be detachably connected to the testing table 1 through a multi-axis connection structure to achieve height and angle adjustment. This is a conventional design method and will not be described in detail.

[0044] Reference Figure 3 and Figure 4 The positioning component 2 includes a first positioning seat 21 and a second positioning seat 22. The first positioning seat 21 has a first receiving groove 211 and the second positioning seat 22 has a second receiving groove 221. The electric lock 5 can be simultaneously received in the first receiving groove 211 and the second receiving groove 221 for positioning. The first receiving groove 211 includes a first limiting area 212 for positioning one side edge of the electric lock 5. The second receiving groove 221 includes a second limiting area 222 and a third limiting area 223 for positioning two adjacent side edges of the electric lock 5, respectively.

[0045] Since the electric lock 5 is generally rectangular, it can be placed in the first receiving groove 211 and the second receiving groove 221 for positioning. Specifically, the three edges of the electric lock 5 are positioned by the first limiting area 212, the second limiting area 222 and the third limiting area 223 respectively, so as to achieve rapid positioning.

[0046] The implementation principle of the electric lock detection device in this application embodiment is as follows: When in use, the electric lock 5 is installed on the detection table 1 and positioned by the positioning component 2, and the detection is performed by the program controlled by the first control button 12 and the second control button 13. During the first test, the first control button 12 is triggered, transmitting an input command to the control module. The control module can control the first drive source 31 to move the force rod 32 to press the latch 51, locking the latch 51 and achieving the locking detection. The delay command issued by the control module can also control the first drive source 31 to reset. Subsequently, the control module sends an unlocking signal to the electric lock 5 through the electric trigger interface 11. If the electric lock 5 can unlock normally, the latch 51 rotates, allowing the force rod 32 to slide back to its original position, completing the first test. During the second test, the second control button 13 is triggered, transmitting an input command to the control module. The control module can control the first drive source 31 to move the force rod 32 to press the latch 51, locking the latch 51 and achieving the locking detection. The delay command issued by the control module can also control the first drive source 31 to reset. Subsequently, the control module drives the second drive source 41 to move the unlocking rod 42 to mechanically unlock the electric lock 5. If the mechanical unlocking structure can unlock normally, the latch 51 rotates, allowing the force rod 32 to slide back to its original position, completing the first test. The two detection processes are controlled by two buttons respectively. The detection device has a simple structure, low cost, and can improve detection accuracy and precision.

[0047] Example 2 The difference between Embodiment 2 and Embodiment 1 of this application is that: Reference Figure 5The testing table 1 is provided with a mounting part 15. A second elastic element 151 is provided between the mounting part 15 and the sliding seat 33. Specifically, the second elastic element 151 can be a tension spring. One end of the second elastic element 151 is rotatably connected to the mounting part 15, and the other end away from the mounting part 15 is detachably connected to the sliding seat 33. Specifically, the sliding seat 33 is fixed with a plurality of first fixing parts 335 at equal intervals along its length. A collar is connected to the end of the second elastic element 151 away from the mounting part 15. The collar can be detachably inserted and engaged with the first fixing parts 335. In order to reduce mutual interference, the plurality of first fixing parts 335 can also be set at different heights. A second fixing part 16 is fixed on the testing table 1 for detachably inserting and engaging with the collar of the second elastic element 151.

[0048] Since some of the electric locks 5 have a torsion spring in their bolt 51, when the electric lock 5 is unlocked, the spring force of the electric lock 5 can push the sliding seat 33 back to its original position so that the sliding seat 33 can be detected next time. When an electric lock 5 without a torsion spring is detected, or when the elastic force of the bolt 51 of the electric lock 5 is low, the sliding seat 33 can be reset by the elastic force of the second elastic member 151. One end of the second elastic member 151 can be installed on different first fixing parts 335, thereby adjusting the extension length and stored elastic force of the second elastic member 151 to adapt to different similar electric locks 5. When the second elastic member 151 is not needed, the second elastic member 151 can be connected to the second fixing part 16 and no longer provide tension to the sliding seat 33.

[0049] Example 3 The difference between Embodiment 3 and Embodiments 1 and 2 of this application is that: Reference Figure 6 and Figure 7 The first positioning seat 21 and the second positioning seat 22 are slidably connected to the detection table 1. The first positioning seat 21 can move towards and away from the second positioning seat 22, and the second positioning seat 22 can move towards and away from the first positioning seat 21. Specifically, multiple parallel first sliding grooves 17 are opened on the surface of the detection table 1. The bottom of the first positioning seat 21 is fixed with a first connecting strip 213 that slides in the first sliding groove 17, and the bottom of the second positioning seat 22 is fixed with a second connecting strip 226 that slides in the first sliding groove 17.

[0050] The second positioning seat 22 includes a fixed part 224 and a sliding part 225. The second limiting area 222 is located on the fixed part 224, and the third limiting area 223 is located on the sliding part 225. The fixed part 224 and the sliding part 225 can move closer to each other and further away from each other. In this embodiment, the sliding part 225 can move towards and away from the fixed part 224. An adjustment seat 7 is provided on the side wall of the detection table 1. The adjustment seat 7 is provided with a first knob 71 and a second knob 72. The rotation of the first knob 71 is used to drive the relative movement of the first positioning seat 21 and the second positioning seat 22, and the second knob 72 is used to drive the sliding part 225 to move relative to the fixed part 224.

[0051] Rotating the first knob 71 can adjust the relative position of the first positioning seat 21 and the second positioning seat 22, and rotating the second knob 72 can adjust the position of the sliding part 225 relative to the fixed part 224, thereby facilitating the fixing of different types of electric locks 5 and the detection of different types of electric locks 5.

[0052] Reference Figure 6 and Figure 7 Specifically, the first knob 71 is coaxially fixed with a bidirectional lead screw 75, which is located inside the testing table 1. The first connecting bar 213 and the second connecting bar 226 are respectively threaded to different threaded sections of the bidirectional lead screw 75, so that when the first knob 71 is rotated, the distance between the first positioning seat 21 and the second positioning seat 22 can be adjusted.

[0053] Reference Figure 6 and Figure 8 A gear 73 is coaxially fixed to the bottom of the second knob 72. A second slide groove 172 is provided on the side wall of the testing platform 1. A linkage part 74 is slidably connected in the second slide groove 172. The linkage part 74 includes a rack part 741 that meshes with the gear 73, and a telescopic rod 742 whose length direction is perpendicular to the rack part 741. A third connecting strip 743 is fixed between the end of the telescopic rod 742 and the sliding part 225. A third slide groove (not shown in the figure) is provided on the testing platform 1 for the third connecting strip 743 to slide. When the second knob 72 is rotated, it drives the gear 73 to rotate, which in turn drives the rack part 741 to move in the sliding direction of the sliding part 225, which in turn drives the telescopic rod 742, the third connecting strip 743, and the sliding part 225 to move, thereby realizing the control of the relative position of the sliding part 225 and the fixed part 224. The telescopic rod 742 can reduce the interference effect on the above structure caused by the relative sliding of the first positioning seat 21 and the second positioning seat 22.

[0054] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. An electronic lock detection device, characterized in that, include: The testing platform (1) and the positioning component (2) are provided on the testing platform (1) for positioning the electric lock (5). The latch force application mechanism (3) includes a first drive source (31) and a force application rod (32). The force application rod (32) is able to move and contact the latch (51) of the electric lock (5) and apply a load to it. The first drive source (31) is used to drive the force application rod (32) to move. The key simulation mechanism (4) includes a second drive source (41) and an unlocking rod (42) driven by the second drive source (41), the unlocking rod (42) being used to insert into the keyhole (52) of the electric lock (5) to unlock the electric lock (5). An electronic trigger interface (11) is used to connect to the power supply and control terminal of the electronic lock (5); First control button (12) and second control button (13); The control module is electrically connected to the latch force application mechanism (3), the key simulation mechanism (4), the electronic trigger interface (11), the first control button (12), and the second control button (13), respectively. The control module is configured as follows: In response to a trigger operation of the first control button (12), the first test procedure is executed: the first drive source (31) of the latch force application mechanism (3) is controlled to move, so that the force application rod (32) presses the latch (51) to the locked position, and the first drive source (31) is controlled to reset; then, the electronic trigger interface (11) is controlled to send an unlocking signal to the electronic lock (5); In response to a trigger operation of the second control button (13), the second test procedure is executed: the first drive source (31) of the latch force application mechanism (3) is controlled to move, so that the force application rod (32) presses the latch (51) to the locked position, and the first drive source (31) is controlled to reset; then, the second drive source (41) of the key simulation mechanism (4) is controlled to drive the unlocking rod (42) to move, so as to mechanically unlock the electric lock (5).

2. The electronic lock detection device according to claim 1, characterized in that, The testing platform (1) is provided with a slide rail (14), and a sliding seat (33) is slidably connected on the slide rail (14). The force rod (32) is provided on the sliding seat (33). The first driving source (31) includes a first output shaft. The first output shaft can move and abut against the sliding seat (33) and push the sliding seat (33) to move.

3. The electronic lock detection device according to claim 2, characterized in that, A mounting block (331) is slidably connected to the sliding seat (33), and the force rod (32) is mounted on the mounting block (331). The sliding direction of the mounting block (331) is parallel to the moving direction of the sliding seat (33), and a locking element for locking the position of the mounting block (331) is provided on the mounting block (331).

4. The electronic lock detection device according to claim 3, characterized in that, The mounting block (331) has a waist-shaped hole (332) with the length direction of the waist-shaped hole (332) along the sliding direction of the sliding seat (33). The locking member includes a fixing rod (333) that is threadedly connected to the sliding seat (33). The fixing rod (333) can slide within the waist-shaped hole (332). The fixed rod (333) is provided with a limiting edge (3331) at one end away from the sliding seat (33), and a first elastic element (334) is provided between the limiting edge (3331) and the mounting block (331).

5. The electronic lock detection device according to claim 1, characterized in that, It also includes a display screen (6) and a force sensor (321), the force sensor (321) being mounted on the force bar (32) and communicating with the control module, for detecting the force information of the bolt (51) of the electric lock (5); The display screen (6) is detachably connected to the testing station (1). The display screen (6) is communicatively connected to the control module. The control module is configured to send the data detected by the force sensor (321) to the display screen (6) for display.

6. The electronic lock detection device according to claim 1, characterized in that, The positioning component (2) includes a first positioning seat (21) and a second positioning seat (22). The first positioning seat (21) has a first receiving groove (211), and the second positioning seat (22) has a second receiving groove (221). The first receiving groove (211) includes a first limiting area (212) for positioning one side edge of the electric lock (5), and the second receiving groove (221) includes a second limiting area (222) and a third limiting area (223) for positioning two adjacent side edges of the electric lock (5).

7. The electronic lock detection device according to claim 6, characterized in that, The first positioning seat (21) and the second positioning seat (22) are slidably connected to the detection table (1), and the first positioning seat (21) can move toward and away from the second positioning seat (22), and the second positioning seat (22) can move toward and away from the first positioning seat (21); The second positioning seat (22) includes a fixed part (224) and a sliding part (225). The second limiting area (222) is disposed on the fixed part (224), and the third limiting area (223) is disposed on the sliding part (225). The fixed part (224) and the sliding part (225) can approach each other and move away from each other.

8. The electronic lock detection device according to claim 7, characterized in that, The side wall of the testing platform (1) is provided with an adjustment seat (7), and the adjustment seat (7) is provided with a first knob (71) and a second knob (72). The first knob (71) is rotated to drive the relative movement of the first positioning seat (21) and the second positioning seat (22), and the second knob (72) is used to drive the sliding part (225) to move relative to the fixed part (224).

9. The electronic lock detection device according to claim 4, characterized in that, The testing platform (1) is provided with a mounting part (15), and a second elastic element (151) is provided between the mounting part (15) and the sliding seat (33). The second elastic element (151) can store elastic force when the first driving source (31) drives the sliding seat (33) to move.

10. The electronic lock detection device according to claim 9, characterized in that, One end of the second elastic member (151) is rotatably connected to the mounting part (15), and the other end is detachably connected to the sliding seat (33); The sliding seat (33) is provided with a plurality of first fixing parts (335) at equal intervals along the length direction, and the end of the second elastic member (151) away from the mounting part (15) is detachably connected to the first fixing part (335); The testing station (1) is provided with a second fixing part (16) for detachably connecting to the end of the second elastic member (151) away from the mounting part (15).

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