A kind of intelligent IoT lock anti-destruction detection device and detection method thereof

Abstract

The present invention provides an anti-destruction detection device for intelligent IoT locks and a detection method thereof, which relates to the technical field of lock monitoring. The anti-destruction detection device comprises: a power consumption analysis unit, which obtains the comprehensive battery loss data of the lock within a preset time, and analyzes the power consumption data of the anti-destruction alarm; an adjustment judgment unit, which judges whether the power consumption data of the anti-destruction alarm meets the preset requirements. If so, the anti-destruction alarm is output as a normal state. If not, the adjustment parameters of the anti-destruction alarm are determined; and an alarm prompt unit, which sends the adjustment parameters to a mobile terminal device and controls the alarm prompt. The present invention can realize real-time monitoring of the looseness of the anti-destruction alarm by detecting the anti-destruction alarm, and prompt correction in time when an abnormality occurs, so as to solve the problem of increased power consumption of the lock due to the looseness of the anti-destruction alarm.

Description

Technical Field

[0001] The present invention relates to the technical field of lock monitoring, and in particular to an anti-destruction detection device for intelligent IoT locks and a detection method thereof. Background Art

[0002] During the installation of the lock, the anti-tampering alarm on the back of the lock is installed corresponding to the surface of the door body. After the lock is installed on the door body, the pressing area of ​​the anti-tampering alarm is always pressed against the surface of the door body to disconnect the alarm. When the lock is damaged, the pressing area of ​​the anti-tampering alarm leaves the surface of the door body, which will cause the pressing area to pop outward, so that the anti-tampering alarm will sound an alarm to indicate that the lock has been damaged.

[0003] When the lock is opening and closing the door, the vibration of the door body will cause the pressing area of ​​the anti-tampering alarm on the lock to shift sideways, tilt, and become loose, which will cause the anti-tampering alarm to fail to maintain a tight state with the door body cavity surface, resulting in increased power consumption during the use of the anti-tampering alarm, and the increased power consumption phenomenon cannot be easily detected. Similarly, if the anti-tampering alarm of the lock is improperly installed, it will also fail to maintain a tight state with the door body cavity surface, causing the anti-tampering alarm to consume more power, resulting in the battery being unable to guarantee long-term power supply to the lock. Summary of the invention

[0004] In view of the shortcomings of the prior art mentioned above, the purpose of the present invention is to provide an intelligent IoT lock anti-destruction detection device and a detection method thereof, which are used to solve the problem in the prior art that the pressing area of ​​the anti-destruction alarm becomes loose during the door opening and closing process, or the anti-destruction alarm of the lock is improperly installed, which in turn causes the anti-destruction alarm to fail to work normally, resulting in increased power consumption during the use of the anti-destruction alarm and the problem that it cannot be easily detected.

[0005] To achieve the above-mentioned purpose and other related purposes, the present invention provides an anti-destruction detection device for an intelligent IoT lock, comprising: a power consumption analysis unit, which obtains the comprehensive battery loss data of the lock within a preset time, and analyzes the power consumption data of the anti-destruction alarm; an adjustment judgment unit, which judges whether the power consumption data of the anti-destruction alarm meets the preset requirements. If so, the anti-destruction alarm is output as a normal state. If not, the adjustment parameters for the anti-destruction alarm are determined; and an alarm prompt unit, which sends the adjustment parameters to the mobile device and controls the alarm prompt.

[0006] In one embodiment of the present invention, the power consumption analysis unit includes: a battery monitoring module, the battery monitoring module monitors the power supply battery of the lock within a preset time period. After the battery comprehensive loss data Monitoring and collection; Factor statistics module, the factor statistics module responds to the use of the lock to trigger the working condition, and obtains the battery loss data corresponding to all working conditions ; and a power consumption budget module, which calculates the power consumption data of the anti-tampering alarm based on the obtained battery comprehensive loss data and battery loss data .

[0007] In one embodiment of the present invention, the battery monitoring module includes: a power collection module, the power collection module controls the collection in a preset time period Initial value of the battery before , in a preset time period After the battery power consumption value ; and a loss calculation module, the loss calculation module controls the initial value of the power supply battery obtained And the battery consumption value , calculate the comprehensive battery loss data .

[0008] In one embodiment of the present invention, the factor statistics module includes: a conventional acquisition module, which acquires the lock in a preset time period. Normal power consumption data of each power consumption unit under normal working conditions ; Working condition summary module, the working condition summary module collects the control signals of the lock's entry and exit working conditions, and obtains the corresponding power consumption data of the entry working condition , and the power consumption data corresponding to the out-of-door working conditions ; and the working condition statistics module, which calculates the conventional power consumption data , power consumption data upon entry And power consumption data when going out Corresponding battery loss data .

[0009] In one embodiment of the present invention, the working condition summary module includes: a door entry recording module, which collects data in a preset time period. Each entrance The unlocking method information under the lock is based on the number of unlocking times to open the lock. , Door opening time , calculate each entry Corresponding entry loss , get the power consumption data of all the doors ; and an exit record module, which collects data for a preset time period Each time you go out Door opening time , calculate each time you go out Corresponding outgoing loss , get the power consumption data of all outgoing people ;in, is the number of entrances, For the number of times you go out, is the unlocking power consumption corresponding to the unlocking method, is the power consumption of the lock when the door is normally open. is the power consumption of the lock opening process, It is the power consumption of the lock during closing process.

[0010] In one embodiment of the present invention, the adjustment judgment unit includes: an abnormal monitoring module, the abnormal monitoring module monitors the power consumption data of the anti-tampering alarm , exceeding the preset time period of the anti-tampering alarm in normal state After the loss threshold and an adjustment analysis module, the adjustment analysis module determines the state of the anti-destruction alarm according to the abnormal signal, and obtains the adjustment parameters of the anti-destruction alarm.

[0011] In one embodiment of the present invention, the adjustment analysis module includes: a difference calculation module, the difference calculation module calculates the power consumption data of the anti-tampering alarm according to the power consumption data of the anti-tampering alarm. and loss threshold , calculate the loss difference between the two ; and a parameter determination module, the parameter determination module according to the loss difference and anti-tamper alarm position adjustment factors , calculate the adjustment parameters of the anti-tampering alarm , to adjust the anti-tampering alarm close to the corresponding pressing surface.

[0012] In one embodiment of the present invention, the alarm prompt unit includes: a parameter forwarding module, the parameter forwarding module forwards the calculated adjustment parameter , sent to the corresponding bound mobile device APP through the Internet of Things; and the solution adaptation module, the solution adaptation module adjusts the parameters based on the location status information of the anti-tampering alarm , the position adjustment plan of the anti-destruction alarm will be sent to the mobile device APP for prompt adjustment.

[0013] In one embodiment of the present invention, the scheme adaptation module includes: an abnormal confirmation module, which collects a position state image of the anti-tampering alarm on the disassembled lock relative to the corresponding installation position of the lock, and determines the deformation difference data of the anti-tampering alarm relative to the reference position, wherein the deformation difference data includes lateral displacement, lateral displacement tilt and no change; and an adjustment data export module, which retrieves the adjustment data based on the adjustment parameters according to the deformation difference data. The position adjustment steps and position adjustment amount data are sent to the mobile device APP.

[0014] The present invention also provides a method for detecting anti-destruction of intelligent IoT locks, comprising the following steps:

[0015] S1: Obtain the comprehensive battery consumption data of the lock within a preset time, and analyze the power consumption data of the anti-tampering alarm;

[0016] S2: Determine whether the power consumption data meets the preset requirements. If so, output that the anti-tampering alarm is in a normal state. If not, determine the adjustment parameters of the anti-tampering alarm.

[0017] S3: Send the adjustment parameters to the mobile device and control the alarm prompt.

[0018] As described above, an intelligent IoT lock anti-destruction detection device and detection method of the present invention have the following beneficial effects: by using the Internet of Things to obtain the comprehensive battery loss data of the lock within a preset time period in real time, and according to the comprehensive battery loss data and the use triggering conditions in the use of various locks, the predicted value of battery loss caused by various use triggering conditions, that is, the battery loss data, is statistically calculated, and then the power consumption data of the anti-destruction alarm is calculated. By further determining whether the normal power loss requirements of the anti-destruction alarm are met according to the power consumption data of the anti-destruction alarm, if it is met, it is detected that the anti-destruction alarm is in a normal working state. If it is not met, it is detected that the anti-destruction alarm is in an abnormal working state, causing the anti-destruction alarm to increase power consumption. Therefore, by outputting the adjustment parameters of the anti-destruction alarm, the pressing area on the anti-destruction alarm is adjusted toward the pressing direction, so that after the adjustment is completed, the anti-destruction alarm controls the consumption of battery power, thereby ensuring that the anti-destruction alarm of the lock is always kept in normal use under the detection state. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 FIG. 4 is a structural diagram of the anti-destruction detection device of the present invention.

[0020] Figure 2 FIG. 4 is a structural diagram of the power consumption analysis unit of the present invention.

[0021] Figure 3This is a structural diagram of the adjustment judgment unit of the present invention.

[0022] Figure 4 It is a structural diagram of the alarm prompt unit of the present invention.

[0023] Figure 5 Flow chart of the anti-destruction detection method of the present invention. DETAILED DESCRIPTION

[0024] See also Figure 1 The present invention provides an anti-destruction detection device for an intelligent IoT lock, comprising: a power consumption analysis unit, which obtains the comprehensive battery consumption data of the lock within a preset time, and analyzes the power consumption data of the anti-destruction alarm; an adjustment judgment unit, which judges whether the power consumption data of the anti-destruction alarm meets the preset requirements. If so, the anti-destruction alarm is output as a normal state. If not, the adjustment parameters for the anti-destruction alarm are determined; and an alarm prompt unit, which sends the adjustment parameters to a mobile terminal device and controls the alarm prompt.

[0025] It is not difficult to find from the above content that during the use of the lock with the anti-destruction alarm after installation, the power consumption analysis unit is used to realize the battery comprehensive loss data generated by the lock battery during the preset time during use, and then obtain the power consumption data corresponding to the anti-destruction alarm during the preset time. Because within the preset time, the fingerprint unlocking from the outside to the inside of the door, the password unlocking, or the unlocking of the lock from the inside to the outside of the door will cause the loss of the lock battery. Therefore, the loss of the lock battery during the preset time, that is, the battery comprehensive loss data, can be accurately obtained by using, for example, the Internet of Things. And according to the battery comprehensive loss, the loss generated by the anti-destruction alarm is further accurately obtained, that is, the power consumption data is obtained. Then, by adjusting the judgment unit, it is determined whether the anti-destruction alarm of the lock is in a normal state, that is, by judging whether the power consumption data within the preset time meets the preset requirements of the set normal power consumption, etc. Then, when the power consumption data meets the preset requirements, it means that the anti-destruction alarm is in a normal state, and there is no need to process the anti-destruction alarm of the lock, and the anti-destruction alarm of the lock is controlled to continue to detect. If the power consumption data does not meet the preset requirements, it means that the anti-destruction alarm has caused a change in the battery power consumption. That is, the degree of pressure in the pressing area where the anti-destruction alarm contacts the surface of the door body has changed, which in turn causes a change in the battery power consumption. By determining the amount of change that causes the change in the battery power consumption, it is possible to further determine the position parameters of the pressing area of ​​the anti-destruction alarm to be adjusted, thereby adjusting the degree of pressure in the pressing area of ​​the anti-destruction alarm. After determining the adjustment parameters, they are sent to the user's mobile device through the alarm prompt unit to prompt the user and help the user disassemble the lock and readjust the position of the anti-destruction alarm. By detecting the power consumption data of the anti-destruction alarm of the lock in the above manner, it is possible to effectively solve the problem of increased battery loss due to loosening of the pressing area of ​​the anti-destruction alarm, and even abnormal alarms of the anti-destruction alarm.

[0026] It is worth noting that after the lock is installed, the anti-tampering alarm will shift due to the frequent need to open and close the door. In addition, due to the uneven flatness of the door surface, when the anti-tampering alarm shifts, the pressing area of ​​the anti-tampering alarm will not be able to reach the maximum pressing degree. Even if the alarm does not occur directly due to the complete release of the pressing area, the power consumption will increase due to the displacement of the pressing area. And as the pressing area gradually loosens, the power consumption will also change. Therefore, by determining the power consumption data of the anti-tampering alarm, the degree of looseness of the pressing area can be predicted, and then the adjustment parameters of the anti-tampering alarm can be calculated to achieve the position adjustment of the anti-tampering alarm and reduce the battery power loss of the lock during use.

[0027] like Figure 2 As shown, the power consumption analysis unit includes: a battery monitoring module, which monitors the power supply battery of the lock within a preset time period. After the battery comprehensive loss data Monitoring and collection; Factor statistics module, the factor statistics module responds to the use of the lock to trigger the working condition, and obtains the battery loss data corresponding to all working conditions ; and a power consumption budget module, which uses the obtained battery comprehensive loss data and battery loss data , calculate the power consumption data of the anti-tampering alarm .

[0028] In one embodiment of the present invention, the power consumption analysis unit analyzes various operating conditions corresponding to battery loss of the battery through the battery monitoring module to realize the battery in a preset time period. Comprehensive battery loss data before and after And then through the factor statistics module, all the triggering conditions in the case of opening and closing the door can be counted within the preset time period. Battery loss data Next, based on the obtained battery comprehensive loss data and battery loss data The power consumption budget module can be used to quickly calculate the difference between the two power consumption data, which is the power consumption of the remaining anti-tampering alarm. .

[0029] Furthermore, the battery monitoring module includes: a power collection module, which controls the collection of power in a preset time period. Initial value of the battery before , in a preset time period After the battery power consumption value ; and a loss calculation module, the loss calculation module controls the initial value of the power supply battery obtained And the battery consumption value , calculate the comprehensive battery loss data .

[0030] In one embodiment of the present invention, the battery monitoring module monitors the battery of the lock to monitor and collect the preset time period. After the battery comprehensive loss data In the process, the power collection module is used to realize the preset time period The battery power before and after can be monitored. Initial value of the battery before and at a preset time period After the battery power consumption value After obtaining the above initial value of the power supply battery And the battery consumption value After that, the loss calculation module is used to calculate the difference between the two and calculate the preset time period. After the battery comprehensive loss data To express the change in battery loss. That is, the comprehensive battery loss data .

[0031] Specifically, the factor statistics module includes: a conventional acquisition module, which acquires the lock in a preset time period. Normal power consumption data of each power consumption unit under normal working conditions ; Working condition summary module, the working condition summary module collects the control signals of the lock's entry and exit working conditions, and obtains the corresponding power consumption data of the entry working condition , and the outgoing power consumption data corresponding to the outgoing working condition; and the working condition statistics module, which calculates the regular power consumption data and the incoming power consumption data And power consumption data when going out Corresponding battery loss data .

[0032] In one embodiment of the present invention, when the factor statistics module is used to count the battery loss caused by the use triggering conditions corresponding to various locks, the conventional acquisition module is used to realize the lock in the preset time period. The following are the normal power consumption data of each power consumption unit under normal working conditions For example, in normal standby mode, the battery loss caused by each power consumption unit and the power loss of the battery itself. Through the working condition summary module, the control signals corresponding to the entry working condition and the exit working condition corresponding to the exit are collected when entering and leaving the door. And when the control signal reflects the entry working condition, the power consumption data corresponding to all the entry working conditions are recorded and counted. ; When the control signal reflects the outgoing working condition, record and count the outgoing power consumption data corresponding to all outgoing working conditions Finally, the working condition statistics module is used to realize the statistics of battery consumption in all working conditions such as normal working conditions, door-in working conditions and exit working conditions. Specifically, when all working conditions are normal working conditions, door-in working conditions and exit working conditions, the corresponding battery consumption data is the normal power consumption data. , power consumption data upon entry And power consumption data when going out That is, the battery loss data .

[0033] It is worth noting that all working conditions can include not only normal working conditions, door entry working conditions and door exit working conditions. It is also possible to determine the battery life in a preset time period based on whether the lock has other control units such as a camera unit, and further based on the shooting loss of the camera unit and the application loss of other control units. total loss.

[0034] Furthermore, the working condition summary module includes: an entry record module, which collects the preset time period Each entrance The unlocking method information under the lock is based on the number of unlocking times to open the lock. , Door opening time , calculate each entry Corresponding entry loss , get the power consumption data of all the doors ; and an exit record module, which collects data for a preset time period Each time you go out Door opening time , calculate each time you go out Corresponding outgoing loss , get the power consumption data of all outgoing people ;in, is the number of entrances, For the number of times you go out, is the unlocking power consumption corresponding to the unlocking method, is the power consumption of the lock when the door is normally open. is the power consumption of the lock opening process, It is the power consumption of the lock during closing process.

[0035] In one embodiment of the present invention, in the process of summarizing all working conditions through the working condition summary module, each door entry is recorded through the door entry recording module. The following are the ways to unlock the locks. For example, when unlocking, you can use fingerprint unlocking, camera unlocking, or digital password unlocking. Of course, the power consumption corresponding to each unlocking method is also different. Therefore, when entering the door, you need to record the corresponding door unlocking method. And when unlocking, there may be a situation where the unlocking cannot be successful at one time, and each unlocking will correspond to a power consumption output, so you also need to record the number of unlockings corresponding to a single successful unlocking. After unlocking the door, the long time the door is open will increase the power consumption of the lock recognition, so it is also necessary to calculate the door opening time. Then according to the unlocking method, the unlocking power consumption , Lock power consumption when the door is normally open , power consumption during the lock opening process , power consumption during lock closing process , calculate the entry loss of each time , and the preset time period All entrances within Corresponding power consumption data at the entrance Similarly, when going out, the exit record module can be used to further calculate the exit loss corresponding to each exit based on the door opening time each time. , and the power consumption data corresponding to all the times of going out within the preset time period .

[0036] like Figure 3 As shown, the adjustment judgment unit includes: an abnormal monitoring module, which monitors the power consumption data of the anti-destruction alarm , exceeding the preset time period of the anti-tampering alarm in normal state The loss threshold after and an adjustment analysis module, the adjustment analysis module determines the state of the anti-destruction alarm according to the abnormal signal, and obtains the adjustment parameters of the anti-destruction alarm.

[0037] In one embodiment of the present invention, when analyzing the adjustment parameters of the anti-tampering alarm, the adjustment judgment unit uses the abnormal monitoring module to determine whether the power consumption data of the anti-tampering alarm meets the preset requirements. , exceeding the preset time period of the anti-tampering alarm in normal state The loss threshold after The anti-tampering alarm is normally on for a preset period of time. The loss threshold after It can be the loss threshold per unit time of the destruction alarm in normal state and the corresponding preset time period The product of After obtaining the abnormal signal, the adjustment analysis module will be further used to analyze and calculate the adjustment parameters of the anti-destruction alarm.

[0038] Specifically, the adjustment analysis module includes: a difference calculation module, which calculates the power consumption data of the anti-tampering alarm according to the power consumption data of the anti-tampering alarm. and loss threshold , calculate the loss difference between the two ; and a parameter determination module, the parameter determination module according to the loss difference and anti-tamper alarm position adjustment factors , calculate the adjustment parameters of the anti-tampering alarm , to adjust the anti-tampering alarm close to the corresponding pressing surface.

[0039] In one embodiment of the present invention, when the adjustment analysis module includes analyzing and calculating the adjustment parameters of the anti-tampering alarm, the difference calculation module is used to realize the power consumption data of the anti-tampering alarm according to the obtained data. and the anti-tampering alarm is in normal state after a preset time period After the loss threshold . Control calculation to get loss difference The loss difference , which reflects the degree of looseness in the pressing area of ​​the anti-tamper alarm. Therefore, the loss difference calculated by the module can be determined by the parameter , and an adjustment factor based on the location of the set anti-tamper alarm , determine the adjustment parameters of the anti-tampering alarm when adjusting towards the opposite side of looseness (i.e. the side of the door surface) . So according to the obtained adjustment parameters To adjust the anti-tampering alarm so that the pressing area on the anti-tampering alarm always remains in a compressed state to reduce the power consumption of the anti-tampering alarm.

[0040] like Figure 4 As shown, the alarm prompt unit includes: a parameter forwarding module, the parameter forwarding module forwards the calculated adjustment parameter , sent to the corresponding bound mobile device APP through the Internet of Things; and the solution adaptation module, the solution adaptation module adjusts the parameters based on the location status information of the anti-tampering alarm , the position adjustment plan of the anti-destruction alarm will be sent to the mobile device APP for prompt adjustment.

[0041] In one embodiment of the present invention, when the alarm prompt unit prompts an alarm, the parameter forwarding module is used to adjust the parameter. , forwarded to the mobile device APP. The mobile device APP will display the corresponding adjustment parameters And through the scheme adaptation module, according to the displacement of the pressing area on the anti-tampering alarm, the adjustment parameters , a quick and convenient position adjustment plan can be retrieved and displayed on the mobile device APP, and the user is prompted to complete the adjustment.

[0042] Specifically, the scheme adaptation module includes: an abnormal confirmation module, which collects the position state image of the anti-tampering alarm on the disassembled lock relative to the corresponding installation position of the lock, and determines the deformation difference data of the anti-tampering alarm relative to the reference position, wherein the deformation difference data includes lateral displacement, lateral displacement tilt and no change; and an adjustment data export module, which calls out the adjustment parameters based on the deformation difference data. The position adjustment steps and position adjustment amount data are sent to the mobile device APP.

[0043] In one embodiment of the present invention, when determining the position adjustment scheme, the scheme adaptation module collects, through the abnormal confirmation module, a position image of the pressing area on the anti-tampering alarm of the lock, for example, captured by a mobile device. And based on the original position image of the pressing area on the anti-tampering alarm before the lock is installed, the deformation difference data of the anti-tampering alarm relative to the reference position is determined. And then based on the deformation difference data, the position adjustment scheme is further improved. Specifically, when the pressing area on the anti-tampering alarm shifts sideways and does not tilt and the position of the pressing area does not change, it means that the change is only the change in the tightness of the pressing area. Therefore, it can be directly determined according to the loss difference. , using the calculation formula of the adjustment parameters , calculated The pressing area on the anti-tampering alarm is adjusted in the pressing direction. When the pressing area on the anti-tampering alarm is tilted, the pressing area on the anti-tampering alarm needs to be rotated back to the original plane state and the surface of the pressing area is at the top position contacting the door surface. After the adjustment is completed, based on the top position, the calculation formula of the adjustment parameter is used. , calculated Adjust the pressing area on the anti-tamper alarm towards the pressing direction.

[0044] like Figure 5 As shown, the present invention also provides an anti-destruction detection method for an intelligent IoT lock, comprising the following steps:

[0045] S1: Obtain the comprehensive battery consumption data of the lock within a preset time, and analyze the power consumption data of the anti-tampering alarm;

[0046] S2: Determine whether the power consumption data meets the preset requirements. If so, output that the anti-tampering alarm is in a normal state. If not, determine the adjustment parameters of the anti-tampering alarm.

[0047] S3: Send the adjustment parameters to the mobile device and control the alarm prompt.

[0048] In summary, the present invention uses the Internet of Things to obtain the lock in real time within a preset time period. The battery comprehensive loss data in the lock is obtained, and based on the battery comprehensive loss data and the use triggering conditions in the use of various locks, the predicted value of battery loss caused by various use triggering conditions is statistically calculated, that is, the battery loss data , and then calculate the power consumption data of the anti-tampering alarm . Based on the power consumption data of the anti-tampering alarm It is further determined whether the normal power consumption requirements of the anti-tampering alarm are met. If so, it is detected that the anti-tampering alarm is in a normal working state. If not, it is detected that the anti-tampering alarm is in an abnormal working state, causing the anti-tampering alarm to increase power consumption. Therefore, by outputting the adjustment parameters of the anti-tampering alarm The pressing area on the anti-tampering alarm is adjusted toward the pressing direction, so that after the adjustment is completed, the consumption of battery power by the anti-tampering alarm is controlled, thereby ensuring that the anti-tampering alarm of the lock is always kept in the normal use under the detection state.

[0049] The above embodiments are merely illustrative of the principles and effects of the present invention, and are not intended to limit the present invention. Anyone familiar with the art may modify or alter the above embodiments without departing from the spirit and scope of the present invention. Therefore, all equivalent modifications or alterations made by a person of ordinary skill in the art without departing from the spirit and technical concept disclosed by the present invention shall still be covered by the claims of the present invention.

Claims

1. An anti-destruction detection device for intelligent IoT locks, characterized in that: include: A power consumption analysis unit, which obtains comprehensive battery consumption data of the lock within a preset time and analyzes the power consumption data of the anti-tampering alarm; an adjustment judgment unit, wherein the adjustment judgment unit judges whether the power consumption data of the anti-tampering alarm meets a preset requirement, and if so, outputs that the anti-tampering alarm is in a normal state; if not, determines an adjustment parameter for the anti-tampering alarm; as well as An alarm prompt unit, which sends the adjustment parameter to the mobile terminal device and controls the alarm prompt; The power consumption analysis unit comprises: A battery monitoring module is used to monitor the battery comprehensive loss data E of the power supply battery of the lock after a preset time period t. z Conduct monitoring and collection; A factor statistics module, in response to the lock use triggering condition, obtains the battery loss data E corresponding to all conditions g ;as well as The power consumption budget module is configured to calculate the power consumption of the battery according to the obtained battery comprehensive loss data E. z and battery consumption data E g , calculate the power consumption data E of the anti-tamper alarm b =E z -E g ; The battery monitoring module comprises: The power collection module controls the collection of the initial value E of the power supply battery before the preset time period t. c , the power supply battery loss value E after the preset time period t s ;as well as The loss calculation module controls the initial value E of the power supply battery obtained according to the loss calculation module. c And the battery loss value E s , calculate the battery comprehensive loss data E z =E c -E s ; The factor statistics module includes: A conventional acquisition module is used to acquire conventional power consumption data E of each power consumption unit of the lock under conventional working conditions within a preset time period t. CG ; The working condition summary module collects the control signals of the lock's door entry and door exit working conditions, and obtains the door entry power consumption data E corresponding to the door entry working condition. JM , and the power consumption data E corresponding to the out-of-door working condition CM ;as well as The working condition statistics module calculates the conventional power consumption data E CG , power consumption data at the entrance E JM And the power consumption data when going out CM The corresponding battery loss data E g =E CG +E JM +E CM ; The working condition summary module includes: The door entry recording module collects the unlocking mode information of each door entry i within a preset time period t, and records the unlocking mode information according to the number of unlocking times n and the door opening time t. K1 , calculate the entry loss E corresponding to each entry i i =E JS *n+E open +E SC *t K1 +E close , get the power consumption data E of all the entrances JM =ΣE i ;as well as The exit record module collects the door opening time t of each exit j within a preset time period t. K2 , calculate the exit loss E corresponding to each exit j j =E open +E SC *t K2 +E close , get the power consumption data E of all people going out CM =ΣE j ; Among them, i is the number of times you enter the door, j is the number of times you leave the door, and E JS is the unlocking power consumption corresponding to the unlocking method, E SC is the power consumption of the lock when the door is normally open, E open is the power consumption of the lock opening process, E close The power consumption of the lock during closing process; The adjustment judgment unit includes: An abnormal monitoring module, the abnormal monitoring module monitors the power consumption data E of the anti-destruction alarm b =E z -E CG -Σ(E JS *n+E open +E SC *t K1 +E close )-Σ(E open +E SC *t K2 +E close ), an abnormal signal exceeding the loss threshold E0 after a preset time period t in the normal state of the anti-tampering alarm; and An adjustment and analysis module is used to determine the state of the anti-tampering alarm according to the abnormal signal, and obtain adjustment parameters for the anti-tampering alarm.

2. The anti-destruction detection device for intelligent IoT locks according to claim 1, characterized in that: The adjustment analysis module comprises: The difference calculation module calculates the power consumption data E of the anti-tampering alarm according to the power consumption data E of the anti-tampering alarm. b and loss threshold E0, and calculate the loss difference between the two △E SH =E b -E0; and The parameter determination module is configured to determine the loss difference △E. SH and the position adjustment factor δ of the anti-tamper alarm x , calculate the adjustment parameter d for the anti-tampering alarm x =△E SH *δ x , to adjust the anti-tampering alarm close to the corresponding pressing surface.

3. The anti-destruction detection device for intelligent IoT locks according to claim 2, characterized in that: The alarm prompt unit comprises: The parameter forwarding module forwards the calculated adjustment parameter d x =△E SH *δ x , sent to the corresponding bound mobile device APP through the Internet of Things; and A scheme adaptation module, wherein the scheme adaptation module adjusts the position of the anti-tampering alarm based on the adjustment parameter d x =△E SH *δ x , the position adjustment plan of the anti-destruction alarm is sent to the mobile device APP for prompting adjustment.

4. The anti-destruction detection device for intelligent IoT locks according to claim 3, characterized in that: The scheme adaptation module includes: an abnormality confirmation module, wherein the abnormality confirmation module collects a position state image of the anti-tampering alarm on the disassembled lock relative to the corresponding installation position of the lock, and determines deformation difference data of the anti-tampering alarm relative to the reference position, wherein the deformation difference data includes lateral displacement, lateral displacement tilt, and no change; and The adjustment data export module retrieves the adjustment parameters based on the deformation difference data. x The position adjustment steps and position adjustment amount data are sent to the mobile device APP.

5. A method for detecting anti-destruction of an intelligent IoT lock used in the device for detecting anti-destruction of an intelligent IoT lock according to any one of claims 1 to 4, characterized in that: The steps include: S1: Obtain the comprehensive battery consumption data of the lock within a preset time, and analyze the power consumption data of the anti-tampering alarm; S2: judging whether the power consumption data meets the preset requirements, if so, outputting that the anti-tampering alarm is in a normal state, if not, determining adjustment parameters for the anti-tampering alarm; S3: Send the adjustment parameters to the mobile device and control the alarm prompt.

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