An automated buzzer alarm control communication system

Abstract

The application discloses an automatic buzzer alarm control communication system and relates to the field of early warning communication.The system comprises a sensing module, which is used for sensing environmental parameters of a target area in real time and recording the sensed environmental parameters of the target area synchronously; and a judgment module, which is used for setting a risk judgment threshold, receiving the latest running sensed environmental parameters of the target area from the sensing module synchronously, and judging whether there is a risk problem in the target area based on comparison between the environmental parameters of the target area and the risk judgment threshold.When it is judged that there is a risk, the application can configure audio alarms with corresponding intensity and frequency based on the risk level, and the system can refresh the alarm logic for reconfiguration.The system comprehensively monitors through multiple sensing devices, scientifically analyzes the risk in combination with the position weight, realizes dynamic monitoring of the environment of the target area, risk early warning and intelligent adjustment of the alarm logic, and provides effective guarantee for the safety of the target area.

Description

TECHNICAL FIELD

[0001] The application relates to the technical field of early warning communication, and particularly relates to an automatic buzzer alarm control communication system. BACKGROUND

[0002] Early warning communication is an intelligent means for quickly transmitting early warning information of disasters, safety and the like.

[0003] An application No. 202311437821.7 invention patent application discloses a buzzer alarm system applied to a high-altitude operation platform, the buzzer alarm system comprises an early warning communication and a control module; the control module is in communication connection with the high-altitude operation platform and the early warning communication, the control module is used for judging the working state of the high-altitude operation platform, and the early warning communication is controlled to emit a buzzer sound when the high-altitude operation platform is in an abnormal state, the alarm system further comprises a collection module used for collecting environmental noise; the control module is in communication connection with the collection module, used for determining the maximum decibel value of the environmental noise when entering an automatic adjustment decibel mode, and determining a target decibel value buzzer sound according to the maximum decibel value of the environmental noise, and then controlling the early warning communication to emit the target decibel value buzzer sound when the high-altitude operation platform is in the abnormal state; the difference between the target decibel value buzzer sound and the maximum decibel value of the environmental noise and the maximum decibel value of the environmental noise satisfy a preset proportion value, and the application aims to solve the problem that a construction unit pays more and more attention to the safety of the high-altitude operation platform, especially in a bumpy road and a narrow operation space, an operator needs to know the working state of the equipment to ensure construction safety.

[0004] However, for the problems of fire, toxic gas leakage, temperature out of control and the like in an industrial production scene, the relevant staff always focuses on prevention, and the prior art applies the early warning communication technology to the alarm of the problems, but the alarm process is monotonous, and more risk problem information cannot be obtained through the early warning communication alarm audio.

[0005] Therefore, the application provides an automatic buzzer alarm control communication system. SUMMARY

[0006] In view of the above defects of the prior art, the application provides an automatic buzzer alarm control communication system, which can effectively solve the problems of the prior art.

[0007] To achieve the above purpose, the application is implemented through the following technical scheme.

[0008] The application discloses an automatic buzzer alarm control communication system, comprising:

[0009] The perception module is used for perceiving the environmental parameters of the target area in real time and recording the perceived environmental parameters of the target area synchronously; the determination module is used for setting a risk determination threshold, receiving the environmental parameters of the target area perceived by the perception module synchronously, and determining whether the target area has a risk problem based on the comparison between the environmental parameters of the target area and the risk determination threshold; the analysis module is used for receiving the environmental parameters of the target area recorded by the perception module, and analyzing the risk level of the target area based on the received environmental parameters of the target area; the buzzer module is used for obtaining the determination result of the determination module, and sending an audio alarm when it is determined that the target area has a risk problem; the logic module is used for obtaining the analysis result associated information of the risk level analysis of the target area in the analysis module, and configuring the audio alarm logic for the buzzer module based on the analysis result associated information; and the refreshing module is used for refreshing the system operation and reconfiguring the audio alarm logic applied by the buzzer module.

[0010] Further, the perception module is integrated by a temperature and humidity sensor, a smoke concentration sensor, a gas sensor and an infrared sensor, and the environmental parameters of the target area perceived by the perception module include a temperature and humidity value, a smoke concentration, a harmful gas content and an infrared image.

[0011] When the perception module records the environmental parameters of the target area, the environmental parameters of the target area are recorded based on the type of the environmental parameters of the target area.

[0012] The perception module is continuously operated based on a preset frequency, and performs the perception operation of the environmental parameters of the target area. The perception module is provided with four groups or more, each group of the perception module is deployed at a position decided by a user of the system end, and the positions of the perception modules are connected to form a closed solid figure bounding box, which is recorded as the target area.

[0013] Further, each group of the perception module is provided with an independent distinguishing mark, and when the perception module records each type of the environmental parameters of the target area, the distinguishing mark of the perception module recording the environmental parameters of the target area is applied synchronously, and the environmental parameters of the target area are marked.

[0014] The risk determination threshold set in the determination module corresponds to each type of the environmental parameters of the target area one by one, and the determination module compares the corresponding risk determination threshold with the environmental parameters of the target area. When any one or more of the environmental parameters of the target area meets the corresponding risk determination threshold, it is determined that the target area has a risk problem, otherwise, it is determined that the target area does not have a risk problem.

[0015] Further, in the risk level analysis stage of the analysis module, the risk level reference index of the target area is first calculated:

[0016] ;

[0017] wherein: is a target area risk level reference index; is an adjustment function; is a perceived temperature value; is a temperature value safety interval; is the minimum difference between the two end values of ; is a perceived humidity value; is a humidity value safety interval; is the minimum difference between the two end values of ; is a perceived smoke concentration; is a smoke concentration value safety interval; is the minimum difference between the two end values of ; is a perceived harmful gas content; is a harmful gas content safety interval; is the minimum difference between the two end values of ;

[0018] wherein, is subject to:

[0019] then , then , and so on.

[0020] Further, the target area risk level reference index is analyzed based on the target area risk level reference index after being obtained.

[0021] ;

[0022] wherein: is a target area risk level; is a total quantity of the perception modules; is a target area risk level reference index of the i-th group of perception module deployment positions; is a configuration weight;

[0023] The configuration weights are all greater than zero and less than one, and are subject to and:

[0024] The shorter the straight-line distance between the deployment location of the perception module corresponding to the configuration weight product object and the center location of the target area, and the shorter the straight-line distance between it and the center intersection of each path intersection in the target area, the larger the configuration weight value; conversely, the smaller the configuration weight value.

[0025] When there are no roads in the target area, only the straight-line distance between the deployment location of the perception module corresponding to the configuration weight product object and the center location of the target area is considered.

[0026] Furthermore, the risk level of the target area analyzed by the analysis module during the operation phase is monitored in real time by the judgment module. When the judgment module detects that the risk level of the target area has increased three times in a row, it simultaneously determines that there is a risk problem in the target area.

[0027] Furthermore, the matching configuration between the buzzer module and the sensing module ensures that a buzzer module is deployed at each sensing module deployment location. All buzzer modules are triggered to run when the determination module determines that there is a risk problem in the target area.

[0028] Furthermore, the target area risk level analysis results obtained in the logic module are associated with the target area risk level information. The product of the target area risk level reference index mapped to the deployment location of each sensing module and its corresponding configured weight is denoted as: ;

[0029] The logic module is based on Configure the audio alarm intensity and frequency for the target area:

[0030] The Arranged from smallest to largest, the audio alarm intensity refers to the intensity of the alarm audio.

[0031] ; ;

[0032] In the formula: This is a unit for audio alarm intensity. The maximum alarm audio intensity that the buzzer module can emit; The minimum alarm audio intensity that the buzzer module can emit, or the alarm audio intensity that can be heard by a human and is user-defined by the system. for The total value; This is the minimum value, used to avoid the denominator being zero;

[0033] This is a unit for audio alarm frequency; The buzzer module can emit the maximum and minimum alarm audio frequencies; The total quantity of dynamic targets in the target region determined based on each infrared image;

[0034] Setting The audio alarm intensity of the buzzer module in the region where the corresponding sensing module is located is , and the audio alarm frequency is ;

[0035] Wherein, represents The number of dynamic targets in the infrared image of the region where the corresponding sensing module is located.

[0036] Further, the refresh module runs in the stage, the buzzer module keeps running state, the system jumps to the sensing module running stage to refresh the running, and the audio alarm logic configured by the logic module is run again to iterate the audio alarm logic of the current buzzer module running application.

[0037] Further, the sensing module is connected with a judgment module and a buzzer module through a wireless network, the judgment module is connected with an analysis module through a wireless network, the analysis module and the judgment module are connected with the buzzer module through a wireless network, the buzzer module is connected with a logic module and a refresh module through a wireless network inside, and the logic module is connected with the refresh module through a wireless network.

[0038] Compared with the known prior art, the technical scheme provided by the application has the following beneficial effects:

[0039] The application provides an automatic buzzer alarm control communication system, which can sense environmental parameters such as temperature and humidity, smoke concentration, harmful gas content, infrared image and the like of a target region during operation, compare with risk judgment thresholds and analyze risk levels, configure audio alarms with corresponding intensity and frequency based on the risk level when it is determined that there is a risk, and reconfigure alarm logic by refreshing the system, comprehensively monitor the system through multiple sensing devices, scientifically analyze risks in combination with position weights, realize dynamic monitoring of the environment of the target region, risk early warning and intelligent adjustment of alarm logic, provide effective protection for the safety of the target region, and in addition, compared with the prior art, the management personnel can intuitively sense the local high-risk area in the region based on the corresponding alarm audio issued by the configured alarm logic, thereby adaptively obtaining the source of the risk problem, and help to maintain, control and evacuate personnel in the corresponding scene. BRIEF DESCRIPTION OF DRAWINGS

[0040] In order to more clearly illustrate the technical solutions in the embodiments of the present application or the prior art, the following will briefly introduce the drawings needed in the embodiments or prior art description. Obviously, the drawings in the following description only show some of the embodiments of the present application, and for those skilled in the art, other drawings can also be obtained without creative labor on the basis of these drawings.

[0041] Figure 1 It is a structural schematic diagram of an automatic buzzer alarm control communication system. DETAILED DESCRIPTION

[0042] In order to make the objects, technical solutions and advantages of the embodiments of the present application clearer, the following will clearly and completely describe the technical solutions in the embodiments of the present application with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are some of the embodiments of the present application, not all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of protection of the present application.

[0043] The present application will be further described below with reference to the embodiments.

[0044] Embodiment:

[0045] An automatic buzzer alarm control communication system of the present embodiment, as shown in the figure, comprises: Figure 1

[0046] A sensing module, for sensing target area environmental parameters in real time, and recording the sensed target area environmental parameters synchronously;

[0047] The sensing module is integrated by a temperature and humidity sensor, a smoke concentration sensor, a gas sensor and an infrared sensor. The target area environmental parameters sensed by the sensing module include: temperature and humidity value, smoke concentration, harmful gas content, infrared image;

[0048] When the sensing module records the target area environmental parameters, it records them based on the type of the target area environmental parameters;

[0049] The sensing module is continuously operated based on a preset frequency, and performs the sensing operation of the target area environmental parameters. The sensing module is provided with four groups or more. Each sensing module is deployed at a position decided by the system end user. The deployment positions of the sensing modules are connected to each other to form a closed solid figure bounding box, which is called a target area.

[0050] It should be noted that the number of sensing modules should be adaptively set according to the actual application scene, cost control and precision requirement level of the present embodiment;

[0051] ​The several groups of sensing modules are provided with independent distinguishing marks, and when the sensing modules distinguish the recorded target area environment parameters of each type, the distinguishing marks of the source sensing modules of the recorded target area environment parameters are applied synchronously to mark the target area environment parameters;

[0052] The determination module is configured to set a risk determination threshold, receive the target area environment parameters sensed by the sensing module in the latest operation synchronously, and determine whether the target area has a risk problem based on a comparison between the target area environment parameters and the risk determination threshold;

[0053] The risk determination threshold set in the determination module corresponds to each type of environment parameter of the target area one by one, and the determination module compares the corresponding risk determination threshold and the target area environment parameters, and determines that the target area has a risk problem when any one or more target area environment parameters meets the corresponding risk determination threshold, and vice versa.

[0054] The analysis module is configured to receive the target area environment parameters recorded in the sensing module in the latest operation, and analyze the risk level of the target area based on the received target area environment parameters.

[0055] In the target area risk level analysis stage in the analysis module, the target area risk level reference index is first calculated:

[0056]

[0057] In the formula: is the target area risk level reference index; is the adjustment function; is the sensed temperature value; is the temperature value safety interval; is the minimum difference between the two end values of and is the sensed humidity value; is the humidity value safety interval; is the minimum difference between the two end values of and is the sensed smoke concentration; is the smoke concentration value safety interval; is the minimum difference between the two end values of and is the sensed harmful gas content; is the harmful gas content safety interval; is the minimum difference between the two end values of and

[0058] wherein,​​​​​ In the operation, it is subject to:

[0059] Then , Then , Similarly;

[0060] After the target area risk level reference index is obtained, the target area risk level is analyzed based on the target area risk level reference index;

[0061] ;

[0062] In the formula: The target area risk level is; The total amount of the perception module is; The target area risk level reference index of the i-th group of perception module deployment position mapping is; The configuration weight is;

[0063] The configuration weight is greater than zero and less than one, and is subject to And:

[0064] The shorter the straight-line distance between the configuration weight product object corresponding to the perception module deployment position and the target area center position, and the shorter the straight-line distance between the center intersection in each path intersection in the target area, the greater the configuration weight value, and vice versa.

[0065] Wherein, when there is no road in the target area, only the straight-line distance between the configuration weight product object corresponding to the perception module deployment position and the target area center position is considered;

[0066] The target area risk level analyzed by the analysis module in the running stage is monitored by the judgment module in real time, and when the judgment module monitors the continuous three times of the target area risk level rising, it is judged that the target area has a risk problem.

[0067] The buzzer module is used to obtain the judgment result of the judgment module, and when it is judged that the target area has a risk problem, an audio alarm is issued;

[0068] The matching setting of the buzzer module and the perception module makes each perception module deployment position deploy a buzzer module, and all buzzer modules are triggered to run when the judgment result of the judgment module is that the target area has a risk problem.

[0069] The logic module is used to obtain the analysis result association information of the target area risk level in the analysis module, and configure the audio alarm logic for the buzzer module based on the analysis result association information;

[0070] The associated information of the target area risk level analysis results obtained in the logic module, i.e., the target area risk level. The product of the target area risk level reference index mapped to the deployment location of each sensing module and its corresponding configured weight is denoted as: ;

[0071] Logic module based on Configure the audio alarm intensity and frequency for the target area:

[0072] Arranged from smallest to largest, the audio alarm intensity is the strength of the alarm audio.

[0073] ; ;

[0074] In the formula: This is a unit for audio alarm intensity. The maximum alarm audio intensity that the buzzer module can emit; The minimum alarm audio intensity that the buzzer module can emit, or the alarm audio intensity that can be heard by a human and is user-defined by the system. for The total value; This is the minimum value, used to avoid the denominator being zero;

[0075] It should be explained The value of is set according to the actual scenario in this embodiment, and is intended to avoid the denominator being zero.

[0076] This is a unit for audio alarm frequency; The buzzer module can emit the maximum and minimum alarm audio frequencies; This represents the total number of dynamic targets in the target area determined based on each infrared image;

[0077] set up The audio alarm intensity emitted by the buzzer module in the area corresponding to the sensing module is ,Right now The audio alarm frequency is ;

[0078] in, express The number of dynamic targets in the infrared image of the area where the corresponding sensing module is located;

[0079] The refresh module is used to refresh the system operation and reconfigure the audio alarm logic of the buzzer module application.

[0080] The refresh module runs in a stage, the buzzer module keeps running in a state, the system jumps to the sensing module running stage for refreshing running, and the logic module runs the audio alarm logic configured again to iterate the audio alarm logic of the current buzzer module running application;

[0081] The sensing module is interactively connected with the judgment module and the buzzer module through a wireless network, the judgment module is interactively connected with the analysis module through a wireless network, the analysis module is interactively connected with the buzzer module through a wireless network, the buzzer module is internally interactively connected with the logic module and the refresh module through a wireless network, and the logic module is interactively connected with the refresh module through a wireless network.

[0082] In the embodiment, when the system runs, first, four groups and more sensing modules integrated with temperature and humidity, smoke concentration, gas and infrared sensors collect the temperature and humidity value, smoke concentration, harmful gas content and infrared image of the target area in real time at a preset frequency, record and mark the independent marks of each module based on the parameter type distinction; then, the judgment module receives the latest parameters of the sensing module, compares them with the preset corresponding risk judgment threshold, and if any parameter exceeds the threshold or the judgment module monitors that the risk level output by the analysis module rises for three times in a row, it is determined that there is a risk in the target area;

[0083] Subsequently, the analysis module calculates the single-module risk level reference index in combination with the sensing parameters, and then configures the weight according to the distance between each sensing module and the center of the target area, the path center and the intersection, obtains the global risk level through weighted summation; after that, the buzzer module corresponding to the sensing module triggers running when it is determined that there is a risk, and the logic module obtains the product of each module risk reference index and the corresponding weight, configures the audio alarm logic of the corresponding strength and frequency for the buzzer in combination with the maximum / minimum alarm strength of the buzzer, the frequency and the number of dynamic targets in the infrared image;

[0084] Finally, the refresh module keeps running, keeps the buzzer in a working state, and jumps to the sensing module to re-collect parameters at the same time, and the logic module iteratively updates the alarm logic according to the new data to realize dynamic monitoring and intelligent adjustment.

[0085] Compared with the existing buzzer alarm triggering mechanism in the same scene, the system running in the above embodiment is more intelligent, and through the logical configuration of the alarm audio strength and frequency of the buzzer, relevant personnel can obtain more valuable information according to the alarm audio strength and frequency, so as to more quickly and accurately realize risk maintenance, control and personnel evacuation in the corresponding scene.

[0086] The above examples are only used to illustrate the technical solutions of the present application, and are not intended to limit the present application; although the present application has been described in detail with reference to the foregoing examples, those skilled in the art should understand that the technical solutions recorded in the foregoing examples can be modified, or some of the technical features can be replaced by equivalents; and these modifications or replacements will not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of the present application.

Claims

1. An automated buzzer alarm control communication system characterized by, Comprise: The perception module is used for real-time sensing of the target area environment parameter, and the sensed target area environment parameter is recorded synchronously; The determination module is used for setting a risk determination threshold, synchronously receiving the target area environment parameter sensed by the perception module in the latest operation, and determining whether the target area has a risk problem based on the comparison between the target area environment parameter and the risk determination threshold; The analysis module is used for receiving the target area environment parameter recorded in the latest operation of the perception module, and analyzing the target area risk level based on the received target area environment parameter; In the target area risk level analysis stage of the analysis module, the target area risk level reference index is first calculated: ； wherein: is a target zone risk level reference index; is an adjustment function; is a perceived temperature value; is a temperature value safety interval; is a is a minimum difference between the two end values of is a perceived humidity value; is a humidity value safety interval; is a is a minimum difference between the two end values of is a perceived smoke concentration; is a smoke concentration value safety interval; is a is a minimum difference between the two end values of is a perceived harmful gas content; is a harmful gas content safety interval; is a is a minimum difference between the two end values of ​​​​ wherein In operation, the following applies: then , then , likewise; The buzzer module is used for obtaining the determination result of the determination module, and issuing an audio alarm when it is determined that the target area has a risk problem; The logic module is used for obtaining the analysis result associated information of the target area risk level analysis module, and configuring the audio alarm logic for the buzzer module based on the analysis result associated information; The target area risk level analysis result association information obtained in the logic module, that is, the target area risk level The product of the target area risk level reference index of the mapping of the deployment position of each perception module in the calculation process and the corresponding configuration weight is recorded as ; The logic module is based on Configuring audio alarm intensity and frequency for target area: The In ascending order, the audio alert intensity, i.e. the intensity of the alert audio; ； ； wherein: is the audio alarm intensity unit; is the maximum alarm audio intensity that the buzzer module can emit; is the minimum alarm audio intensity that the buzzer module can emit or the alarm audio intensity that can be heard by a human as defined by the user of the system; is the total value of ; and is a very small value to avoid a zero denominator. is an audio alarm frequency unit; is a maximum alarm audio frequency and a minimum alarm audio frequency that the buzzer module can emit; is a total amount of dynamic targets in the target region determined based on each infrared image; Set The audio alarm intensity of the buzzer module in the area where the corresponding awareness module is located is , and the audio alarm frequency is ; wherein, indicates a number of dynamic targets in the infrared image corresponding to the region where the awareness module is located; The refresh module is used for refreshing the system operation, and reconfiguring the audio alarm logic applied to the buzzer module.

2. An automated audible alarm control communication system according to claim 1, wherein, The perception module is integrated by a temperature and humidity sensor, a smoke concentration sensor, a gas sensor and an infrared sensor, and the target area environment parameter sensed by the perception module includes temperature and humidity value, smoke concentration, harmful gas content and infrared image; When the perception module records the target area environment parameter, the target area environment parameter is recorded based on the type of the target area environment parameter; The perception module is continuously operated based on a preset frequency, and the perception operation of the target area environment parameter is executed, the perception module is provided with four groups or more, each group of perception module is deployed by the system end user decision position, and the closed solid figure surrounding box composed of the deployment positions of the perception modules is recorded as the target area.

3. An automated audible alarm control communication system according to claim 1, wherein, Each group of the perception module is provided with an independent distinguishing mark, and when the perception module distinguishes and records each type of target area environment parameter, the distinguishing mark of the perception module recording the target area environment parameter is applied synchronously, and the target area environment parameter is marked; The risk determination threshold set in the determination module corresponds to each type of environment parameter of the target area one by one, and the determination module compares the corresponding risk determination threshold with the target area environment parameter, and determines that the target area has a risk problem when any one or more target area environment parameters meets the corresponding risk determination threshold, otherwise, it is determined that there is no risk problem.

4. An automated audible alarm control communication system according to claim 1, wherein, After the target area risk level reference index is calculated, the target area risk level is analyzed based on the target area risk level reference index; ； In the formula, is the target area risk level; is the total amount of perception modules; is the target area risk level reference index of the i-th group of perception module deployment position mapping; is the configuration weight; The configuration weights are all greater than zero and less than one, and are subject to and: The shorter the straight line distance between the deployment position of the perception module corresponding to the configuration weight product object and the center position of the target area, and the shorter the straight line distance between the center intersection in each path intersection in the target area, the greater the configuration weight value, and vice versa. When there is no road in the target area, only the straight line distance between the deployment position of the perception module corresponding to the configuration weight product object and the center position of the target area is considered.

5. An automated audible alarm control communication system according to claim 1, wherein, The risk level of the target area analyzed by the analysis module is monitored in real time by a judgment module, and the judgment module synchronously judges that the target area has a risk problem when the risk level of the target area is continuously increased for three times.

6. An automated audible alarm control communication system according to claim 1, wherein, The matching of the buzzer module and the sensing module makes each sensing module be deployed with a buzzer module, and all the buzzer modules are triggered to run when the judgment module judges that the target area has a risk problem.

7. An automated audible alarm control communication system according to claim 1, wherein, In the refresh module running stage, the buzzer module keeps running, and the system is synchronously switched to the sensing module running stage to refresh the running, so that the audio alarm logic configured by the logic module is iterated to run the audio alarm logic of the current buzzer module.

8. An automated audible alarm control communication system according to claim 1, wherein, The sensing module is interactively connected with the judgment module and the buzzer module through a wireless network, the judgment module is interactively connected with the analysis module through a wireless network, the analysis module and the judgment module are interactively connected with the buzzer module through a wireless network, and the logic module and the refresh module are interactively connected inside the buzzer module through a wireless network.

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