Environmental perception electromagnetic radiation safety early warning processing system and method

Abstract

The invention provides an environmental perception electromagnetic radiation safety early warning processing system and method. The system comprises an application module, a circuit partition module, a perception scanning module, a regional risk module and an application evaluation module. Wherein the sensing scanning module can obtain the radiation intensity of a scanning area, the area risk module can judge whether the scanning area has a risk or not, the scanning area with the risk serves as a first risk area, and the application evaluation module can judge whether a function application has a risk or not; when it is judged that the function application has risks, the perceptual scanning module conducts perceptual scanning on a first risk area, the area risk module judges whether risks exist or not according to the radiation intensity, the scanning area with the risks serves as a second risk area, and the application evaluation module evaluates the function application according to the correlation degree between the second risk area and the function application. And evaluating the risk of the functional application. According to the invention, the accuracy, safety and stability of early warning are improved.

Description

TECHNICAL FIELD

[0001] The present application relates to the field of environment-aware electromagnetic radiation safety, and particularly relates to an environment-aware electromagnetic radiation safety early warning processing system and method. BACKGROUND

[0002] The existing microcircuit, microchip or integrated circuit (IC) is usually used as a key component of electronic equipment, and is widely used in computers, mobile phones, household appliances and various modern technology products according to its functions and applications, responsible for performing computing tasks, data processing, information exchange and other functions. With the increase and enhancement of circuit functionality, the usage rate is increasingly high. The security requirement level demand is gradually increasing for the problem of information leakage and information theft in various functional applications. Especially when the circuit produces electromigration, time-dependent dielectric breakdown and thermal-dependent damage defects, it is easy to provide more side channel attacks and openings, making it easier for attackers to obtain important data. Therefore, in order to avoid the electromagnetic signals emitted by the integrated circuit chip from being sent to other receivers through other transmission paths, thereby causing security leakage problems, we consider the environment-aware mode of scanning the circuit through the electromagnetic field probe to monitor the electromagnetic radiation intensity. However, due to the current leakage method is often hidden, it may be hidden in different functional modes, or hidden at different times. If the circuit is always scanned and monitored as a whole, it is not only time-consuming and laborious, but also inefficient. It may also occur that the time period is missed or the function is missed, or false positives occur. Therefore, an intelligent analysis method is needed to optimize the monitoring data, risk classification, and automatic security warning strategy. SUMMARY

[0003] The following description is used to disclose the present application so that those skilled in the art can implement the present application. The preferred embodiments in the following description are only examples, and other obvious modifications can be made by those skilled in the art. The basic principles of the present application defined in the following description can be applied to other embodiments, modifications, improvements, equivalents and other technical solutions without departing from the spirit and scope of the present application.

[0004] In order to solve the technical problem, the present application provides an environment-aware electromagnetic radiation safety early warning processing system, comprising: an application module, a circuit partition module, a perception scanning module, a region risk module and an application evaluation module.

[0005] The application module includes a function application with a security risk; the circuit partition module divides a circuit into a plurality of scanning areas, and sets a function application associated with a scanning area as an associated application of the scanning area; the perception scanning module can perform perception scanning on the scanning areas to obtain radiation intensity of the scanning areas; the area risk module can determine whether the scanning areas have risks according to the radiation intensity of the scanning areas, take the scanning areas with risks as first risk areas, and obtain risk degrees of the first risk areas; the application evaluation module can determine whether the function application has risks by the degree of association between the first risk areas and the function application; when it is determined that the function application has risks, the perception scanning module performs perception scanning on the first risk areas to obtain radiation intensity, the area risk module determines whether the scanning areas have risks according to the radiation intensity, takes the scanning areas with risks as second risk areas, and obtains risk degrees of the second risk areas, and the application evaluation module evaluates the risks of the function application and allocates an early warning strategy by the degree of association between the second risk areas and the function application.

[0006] The application evaluation module obtains a first security score of the function application according to the degree of association between the function application and the first risk areas and the risk degrees of the first risk areas, and determines that the function application has risks when the first security score of the function application exceeds a security score threshold.

[0007] The application evaluation module obtains a second security score of the function application according to the degree of association between the function application and the second risk areas and the risk degrees of the second risk areas, and determines whether the function application has risks according to the second security score, the first security score and the security score threshold.

[0008] When the second security score of the function application cannot determine whether the function application has risks, the perception scanning is performed again on a union set of the first risk areas and the second risk areas to obtain third risk areas, a third security score of the function application is obtained, and it is determined whether the function application has risks.

[0009] The scanning area includes a plurality of scanning points, the electromagnetic field probe is used to perform perception scanning on the scanning points to obtain electromagnetic radiation intensity of the scanning points, and the sum of the electromagnetic radiation intensity of all the scanning points in the scanning area is taken as the electromagnetic radiation intensity of the scanning area.

[0010] A radiation threshold of the scanning area is set, the scanning area is determined to have risks when the electromagnetic radiation intensity of the scanning area exceeds the radiation threshold, and the scanning area is taken as the first risk area.

[0011] The function application includes a clipboard, an input method, and an application that needs to obtain identity permissions, address book permissions and positioning permissions.

[0012] This invention also provides a processing method for an environmentally sensitive electromagnetic radiation safety early warning system, comprising the following steps:

[0013] S1, Set circuit D to include n functional applications DA with safety risks, DA = [DA1, DA2, DA3, ..., DA2]. n ], where the i-th functional application with security risks is DA i ;

[0014] S2, the circuit D is configured to include m sensing scanning areas DB, DB = [DB1, DB2, DB3, ..., DB2, DB3, ..., DB4]. m ], where the j-th sensing scanning region is DB. j Set the sensing scan area DB j Includes p scan points JC = [JC1, JC2, JC3, ..., JC...] p ], where the z-th scan point is JC z ;

[0015] S3, using an electromagnetic field probe to sense and scan all scanning points in circuit D, obtain scanning point JC. z electromagnetic radiation intensity H z The sensing scan area DB is obtained. j radiation intensity ;

[0016] S4, Set the sensing scan area DB j The radiation threshold F0;

[0017] Establish a first risk area list Q1, when F j When >F0, DB will be... j As a high-risk area, add it to the first high-risk area list Q1;

[0018] Specifically, the risk areas in the first risk area list Q1 are arranged in descending order of their radiation intensity to obtain the risk area DB. j risk factor Where e is the natural constant;

[0019] The first risk area list Q1 includes r1 risk areas, and the first radiation anomaly level of circuit D is obtained. ;

[0020] Set the radiation anomaly threshold FD0 for circuit D;

[0021] If FD1 > FD0, proceed to step S5;

[0022] S5, Set the risk area DB in the first risk area list Q1.j There are q associated modules JDA, JDA = [JDA1, JDA2, JDA3, ..., JDA...]. q ], where the kth associated module is JDA k Configure DB j Its associated functional application JDA k The correlation between them is μ j ;

[0023] Based on the r1 risk areas included in the first risk area list Q1, risk area DB j With JDA k The correlation μ between them j and DB j Risk coefficient ω j To obtain functional applications JDA k First safety score ;

[0024] Setting up the JDA application k The safety threshold is FK0;

[0025] When FK1≥FK0, the judgment function applies JDA. k There are security risks associated with JDA. k Add to the list of risky applications P1;

[0026] When the risk application list P1 is not empty, the r1 risk areas in the first risk area list Q1 are scanned again to obtain the risk area DB. j The second radiation intensity F j ', when F j When '≥F0, DB will be...' j Add to the second risk zone list Q2;

[0027] Arrange the risk areas in the second risk area list Q2 in descending order of their radiation intensity to obtain the risk area DB. j The second risk factor ;

[0028] The second risk area list Q2 includes r2 risk areas, enabling the application JDA functionality. k Second security score ;

[0029] When FK2≥FK1, the judgment function applies JDA. k If there is a security risk, the system will issue an alarm and push the risky application to relevant personnel;

[0030] When FK2≤FK0, the function applies JDA. k Risk elimination;

[0031] When FK0<FK2<FK1, the perception scanning is performed again on the union of r1 risk areas in the first risk area list Q1 and r2 risk areas in the second risk area list Q2, to obtain a risk area DB j of the third radiation intensity F j ''; when F j ''>=F0, the DB j is added to the third risk area list Q3, to obtain a third risk area list Q3, and a risk area DB j of the third risk coefficient ;

[0032] The risk areas in the third risk area list Q3 are arranged in descending order of their radiation intensity, to obtain a risk area DB j of the third risk coefficient ;

[0033] The third risk area list Q3 is set to include r3 risk areas, to obtain a third security score of the functional application JDA k ;

[0034] When FK3>=FK0, it is judged that the functional application JDA k has a security risk, the system alarms, and the risk application is pushed to relevant personnel;

[0035] When FK3<FK0, the functional application JDA k is excluded from the risk.

[0036] The beneficial effects realized by the present application are as follows:

[0037] Considering the problem of safe leakage of electromagnetic signals, the present application can scan the circuit through environmental perception, and monitor the electromagnetic radiation intensity, in the monitoring process, the present application can optimize the scanning mode to the key area through the risk determination of the partition, avoid repeated scanning process, improve the efficiency of obtaining key data, at the same time, multiple determinations are performed in the process of scanning the key area, which can timely discover the risk situation in the early stage of information leakage, and timely alarm, and through the repeated determination process, the missing scanning and other determination errors can be avoided, and the false alarm can be reduced. The risk grading is realized quickly and optimally, the determination efficiency is improved, the key data acquisition is improved, and the false alarm is reduced. BRIEF DESCRIPTION OF DRAWINGS

[0038] ​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 described below are only some embodiments of the present application, and other drawings can also be obtained by those skilled in the art based on these drawings.

[0039] Figure 1 The processing method of the environment-aware electromagnetic radiation safety early warning processing system of the present application.

[0040] Figure 2 The result graph of the electronic device of the present application. DETAILED DESCRIPTION

[0041] The technical solutions in the embodiments of the present application will be described clearly and completely below in combination with the drawings in the embodiments of the present application. Obviously, the described embodiments are only some embodiments of the present application, not all embodiments.

[0042] Embodiment one

[0043] The present application provides an environment-aware electromagnetic radiation safety early warning processing system, comprising an application module, a circuit partition module, a perception scanning module, a region risk module and an application evaluation module.

[0044] The application module includes a functional application with safety risks. The circuit partition module divides the circuit into several scanning regions and sets the functional application associated with the scanning region as the associated application of the scanning region. The perception scanning module can perform perception scanning on the scanning region to obtain the radiation intensity of the scanning region. The region risk module can determine whether the scanning region has risks according to the radiation intensity of the scanning region, take the scanning region with risks as the first risk region, and obtain the risk degree of the first risk region. The application evaluation module can determine whether the functional application has risks through the correlation degree between the first risk region and the functional application. When it is determined that the functional application has risks, the perception scanning module performs perception scanning on the first risk region to obtain the radiation intensity, the region risk module determines whether the scanning region has risks according to the radiation intensity, takes the scanning region with risks as the second risk region, and obtains the risk degree of the second risk region. The application evaluation module evaluates the risks of the functional application and allocates early warning strategies through the correlation degree between the second risk region and the functional application.

[0045] The application evaluation module obtains the first safety score of the functional application according to the correlation degree between the functional application and the first risk region and the risk degree of the first risk region. When the first safety score of the functional application exceeds the safety score threshold, it is determined that the functional application has risks.

[0046] The application evaluation module obtains a second security score of the function application according to the correlation between the function application and the second risk area and the risk degree of the second risk area, and judges whether the function application has risks according to the second security score, the first security score and a security score threshold.

[0047] When the second security score of the function application cannot judge whether the function application has risks, the union of the first risk area and the second risk area is scanned again to obtain a third risk area, a third security score of the function application is obtained, and whether the function application has risks is judged.

[0048] The scanning area includes a plurality of scanning points, the electromagnetic radiation intensity of the scanning points is obtained by scanning the scanning points with the electromagnetic field probe, and the sum of the electromagnetic radiation intensities of all the scanning points in the scanning area is taken as the electromagnetic radiation intensity of the scanning area.

[0049] The radiation threshold of the scanning area is set, when the electromagnetic radiation intensity of the scanning area exceeds the radiation threshold, it is judged that the scanning area has risks, and the scanning area is taken as the first risk area.

[0050] The function application includes a clipboard, an input method, and an application that needs to obtain identity permission, address book permission and positioning permission.

[0051] Embodiment two

[0052] The above embodiment two is closely related to the processing system of embodiment one; the application further provides an environment-aware electromagnetic radiation safety warning processing system processing method, including the following steps:

[0053] The circuit D includes n function applications DA with security risks, DA= [DA1, DA2, DA3, …, DA n , wherein the i-th function application with security risks is DA i , the function weight of DA i is ω i ;

[0054] The circuit D includes m perception scanning areas DB, DB= [DB1, DB2, DB3, …, DB m , wherein the j-th perception scanning area is DB j , the perception scanning area DB j includes p scanning points JC= [JC1, JC2, JC3, …, JC p , wherein the z-th scanning point is JC z ;

[0055] The perception scanning area DBj The related functional application is DB. j The associated module, the known sensing scanning area DB j Associated with q functional applications using JDA, where q ≤ m, set the database. j The associated modules JDA = [JDA1, JDA2, JDA3, ..., JDA q ], where the kth associated module is JDA k ;

[0056] The electromagnetic field probe is used to sense and scan all scanning points in circuit D to obtain scanning point JC. z electromagnetic radiation intensity H z The sensing scan area DB is obtained. j radiation intensity ;

[0057] Set the sensing scan area DB j The radiation threshold F0;

[0058] Create a risk area list Q1, when F j When >F0, DB will be... j As a high-risk area, add it to the first high-risk area list Q1;

[0059] Specifically, the risk areas in the first risk area list Q1 are arranged in descending order of their radiation intensity to obtain the risk area DB. j risk factor Where e is the natural constant;

[0060] The first risk area list Q1 includes r1 risk areas, and the first radiation anomaly level of circuit D is obtained. ;

[0061] Set the radiation anomaly threshold FD0 for circuit D;

[0062] When FD1 > FD0, it indicates that circuit D may be at risk of safety leakage, and the procedure for handling safety risks should be initiated.

[0063] Set the risk area DB in the first risk area list Q1. j There are q associated modules JDA, JDA = [JDA1, JDA2, JDA3, ..., JDA...]. q ], where the kth associated module is JDA k Configure DB j Its associated functional application JDA k The correlation between them is μ j ;

[0064] According to the r1 risk areas included in the first risk area list Q1, wherein the risk area DB j The association degree μ k between JDA j and DB j The risk coefficient ω j of DB j , obtain the first security score of the function application JDA k ;

[0065] Set the security threshold of the function application JDA k As FK0;

[0066] When FK1≥FK0, it is judged that the function application JDA k has security risks, and JDA k is added to the risk application list P1;

[0067] When the risk application list P1 is not empty, the r1 risk areas in the first risk area list Q1 are scanned again, and the second radiation intensity F j of the risk area DB j is obtained, and when F j '≥F0, DB j is added to the second risk area list Q2; obtain the second risk area list Q2, arrange the risk areas in the risk area list Q2 according to their radiation intensity from large to small, and obtain the second risk coefficient ω j of the risk area DB ;

[0068] Set the second risk area list Q2 including r2 risk areas, obtain the second security score of the function application JDA k ;

[0069] When FK2≥FK1, it is judged that the function application JDA k has security risks, the system alarms, and the risk application is pushed to the relevant personnel;

[0070] When FK2≤FK0, the function application JDA k Risk exclusion;

[0071] When FK0<FK2 <FK1, the r1 risk areas in the first risk area list Q1 and the r2 risk areas in the second risk area list Q2 are scanned again, and the third radiation intensity F j of the risk area DB j is obtained; when F j ''≥F0, DB jAdd the third risk area list Q3, obtain the third risk area list Q3, obtain the risk area DB j The third risk coefficient of the risk area DB ;

[0072] Arrange the risk areas in the third risk area list Q3 in order of their radiation intensity from large to small, and obtain the risk area DB j The third risk coefficient of the risk area DB ;

[0073] Set the third risk area list Q3 to include r3 risk areas, and obtain the functional application JDA k The third security score of the functional application JDA ;

[0074] When FK3≥FK0, determine that the functional application JDA k has a security risk, the system alarms, and pushes the risk application to relevant personnel;

[0075] When FK3<FK0, the functional application JDA k risk is excluded.

[0076] Specifically, in one embodiment, the circuit to be detected includes 10 functional applications with security risks, which are [application E1, application E2, application E3, application E4, application E5, application E6, application E7, application E8, application E9, application E10], wherein the functional applications with security risks in the circuit application include the clipboard, the input method, and other applications that need to obtain identity permissions, address book permissions, and positioning permissions, which are prone to information leakage.

[0077] Set the weight coefficients of the above-mentioned functional applications to be detected as [1.3, 1.7, 1.9, 1.5, 1.3, 1.5, 1.3, 1.1, 1.5, 1.1]

[0078] Divide the physical area of the circuit chip into 8 scanning areas, which are [area D1, area D2, area D3, area D4, area D5, area D6, area D7, area D8];

[0079] Among them, the correlation coefficients of application E1 and the above-mentioned 8 scanning areas are [1.2, 1.4, 1.4, 1.2, 1.0, 1.0, 1.4, 1.2]

[0080] Scan the scanning points in the circuit by the electromagnetic field probe to obtain the radiation intensity of the 8 scanning areas, wherein the radiation intensity of area D1 is the sum of the radiation intensities of all scanning points in area D1.

[0081] When the radiation intensity of the region D1 exceeds its set threshold value, then the region D1 is added to the risk region list Q1 as a risk region, and the risk regions in the risk region list Q1 are arranged in descending order of their radiation intensity.

[0082] In the present embodiment, the first risk region list Q1 is [region D5, region D7, region D1, region D3, region D6], and according to the arrangement order, the risk coefficients corresponding to the risk regions in the risk region list Q1 are [1.0, 0.9, 0.8, 0.7, 0.6];

[0083] At this time, according to the risk region list Q1 and the correlation coefficients of the application E1 and the risk regions, the risk score of the application E1 is 1.0*1.0+0.9*1.4+0.8*1.2+0.7*1.4+0.6*1.0=4.8

[0084] The risk threshold of the application E1 is set to 4.5, and at this time the risk score of the application E1 exceeds its risk threshold, so the application E1 is added to the risk application list P2 as a risk application.

[0085] The second risk region list Q2 is obtained as [region D7, region D1, region D3], according to the arrangement order, and the region D7, region D1, and region D3 are all regions that have appeared in the first risk region list, and they appear again, indicating that their risk is increasing, so the risk coefficients corresponding to the risk regions in the risk region list Q1 are [0.9, 0.8, 0.7]

[0086] The risk score of the application E1 is 1.5*0.9*1.4+1.5*0.8*1.2+1.5*0.7*1.4=4.8.

[0087] Since the security score has not changed, at this time it is judged that E1 has a security risk, and the system alarms.

[0088] Further, the present application also provides a computer readable storage medium, the computer readable storage medium comprising a stored program, wherein the program executes the method of the above method embodiment when running.

[0089] Further, the present application also provides an electronic device comprising a memory and a processor, the memory storing a computer program, and the processor being configured to execute the method of the above method embodiment through the computer program.

[0090] In one possible design, Figure 2 An electronic device of the illustrated embodiment can include a storage component 31 and a processing component 32. Figure 2 As shown, the electronic device can include a storage component 31 and a processing component 32.

[0091] The storage component 31 stores one or more computer instructions, wherein the one or more computer instructions are called by the processing component 32 for execution.

[0092] The processing component 32 is configured to execute the steps of the environment-aware electromagnetic radiation safety warning processing method adopted by the embodiment of the present application.

[0093] The processing component 32 can include one or more processors to execute the computer instructions to complete all or part of the steps in the above method. Of course, the processing component can also be one or more application-specific integrated circuits (ASICs), digital signal processors (DSPs), digital signal processing devices (DSPDs), programmable logic devices (PLDs), field programmable gate arrays (FPGAs), controllers, microcontrollers, microprocessors or other electronic components, configured to execute the above method.

[0094] The storage component 31 is configured to store various types of data to support the operation of the terminal. The storage component can be implemented by any type of volatile or non-volatile storage device or a combination thereof, such as static random access memory (SRAM), electrically erasable programmable read-only memory (EEPROM), erasable programmable read-only memory (EPROM), programmable read-only memory (PROM), read-only memory (ROM), magnetic storage, flash memory, magnetic disk or optical disk.

[0095] Further, it should be understood that, since the settings of the various modules are only for illustrating the functional units of the device of the present application, the physical devices corresponding to the modules can be the processor itself, or a part of software in the processor, a part of hardware, or a part of the combination of software and hardware. Therefore, the number of each module in the figure is only illustrative.

[0096] Those skilled in the art can understand that all or part of the processes in the method of the above embodiment of the present application can also be completed by a computer program instructing related hardware, and the computer program can be stored in a computer readable storage medium. When the computer program is executed by a processor, the steps of each method embodiment described above can be implemented. The computer program includes computer program code, which can be in the form of source code, object code, executable file or some intermediate form, etc. The computer readable storage medium can include any entity or device, medium, U disk, mobile hard disk, magnetic disk, optical disk, computer memory, read-only memory, random access memory, electric carrier signal, telecommunication signal and software distribution medium, etc. that can carry the computer program code.

[0097] The computer device can be a terminal, and the computer device comprises a processor, a memory, a communication interface, a display screen and an input device connected by a system bus. The processor of the computer device is configured to provide computing and control capabilities. The memory of the computer device comprises a non-volatile storage medium and an internal memory.

[0098] The non-volatile storage medium stores an operating system and a computer program. The internal memory provides an environment for running the operating system and the computer program in the non-volatile storage medium. The communication interface of the computer device is implemented by a network, NFC (Near Field Communication) or other technologies. The display screen of the computer device can be a liquid crystal display screen or an electronic ink display screen. The input device of the computer device can be a touch layer overlaid on the display screen, or can be a key, a trackball or a touchpad arranged on the shell of the computer device, or can be an external keyboard, a touchpad or a mouse, etc.

[0099] Those skilled in the art can understand that each module in the device can be adaptively split or combined, and such splitting or combining of the specific module will not cause the technical solution to deviate from the principles of the present application, therefore, the technical solution after splitting or combining will fall within the protection scope of the present application.

Claims

1. An environment-aware electromagnetic radiation safety warning processing system, characterized in that, The application module, the circuit partition module, the perception scanning module, the region risk module, and the application evaluation module are included. The application module includes a functional application with a security risk. The circuit partition module divides a circuit into a plurality of scanning regions and sets a functional application associated with a scanning region as an associated application of the scanning region. The perception scanning module can perform perception scanning on the scanning regions to obtain radiation intensity of the scanning regions. The region risk module can determine whether the scanning regions have risks according to the radiation intensity of the scanning regions, take the scanning regions with risks as first risk regions, and obtain risk degrees of the first risk regions. The application evaluation module can determine whether the functional application has risks according to the degree of association between the first risk regions and the functional application. When it is determined that the functional application has risks, the perception scanning module performs perception scanning on the first risk regions to obtain radiation intensity. The region risk module determines whether the scanning regions have risks according to the radiation intensity, takes the scanning regions with risks as second risk regions, and obtains risk degrees of the second risk regions. The application evaluation module evaluates the risks of the functional application and allocates an early warning strategy according to the degree of association between the second risk regions and the functional application. The application evaluation module obtains a first security score of the functional application according to the degree of association between the functional application and the first risk regions and the risk degrees of the first risk regions. When the first security score of the functional application exceeds a security score threshold, it is determined that the functional application has risks.

2. The ambient-aware electromagnetic radiation safety alert processing system of claim 1, wherein, The application evaluation module obtains a second security score of the functional application according to the degree of association between the functional application and the second risk regions and the risk degrees of the second risk regions, and determines whether the functional application has risks according to the second security score, the first security score, and the security score threshold.

3. The ambient-aware electromagnetic radiation safety alert processing system of claim 2, wherein, When the second security score of the functional application cannot determine whether the functional application has risks, the union of the first risk regions and the second risk regions is scanned again to obtain third risk regions, a third security score of the functional application is obtained, and it is determined whether the functional application has risks.

4. The ambient-aware electromagnetic radiation safety alert processing system of claim 3, wherein, The scanning regions include a plurality of scanning points. The electromagnetic radiation intensity of the scanning points is obtained by performing perception scanning on the scanning points by an electromagnetic field probe. The sum of the electromagnetic radiation intensity of all the scanning points in the scanning regions is taken as the electromagnetic radiation intensity of the scanning regions.

5. The ambient-aware electromagnetic radiation safety alert processing system of claim 1, wherein, A radiation threshold of the scanning regions is set. When the electromagnetic radiation intensity of the scanning regions exceeds the radiation threshold, it is determined that the scanning regions have risks, and the scanning regions are taken as the first risk regions.

6. The ambient-aware electromagnetic radiation safety alert processing system of claim 5, wherein, The functional application includes a clipboard, an input method, and an application that needs to obtain identity permissions, address book permissions, and positioning permissions.

7. The ambient-aware electromagnetic radiation safety alert processing system of claim 1, wherein, The following steps are included:

8. The processing method of the ambient-aware electromagnetic radiation safety alert processing system according to any one of claims 1-5, wherein, A radiation anomaly threshold FD0 of the circuit D is set; S1, setting a circuit D including n kinds of function applications DA with security risks, DA = [DA1, DA2, DA3,..., DA n n], wherein the ith function application with security risks is DA i ; S2, the circuit D is configured to include m sensing scanning areas DB, DB = [DB1, DB2, DB3, ..., DB2, DB3, ..., DB4]. m ], where the j-th sensing scanning region is DB. j Set the sensing scan area DB j Includes p scan points JC = [JC1, JC2, JC3, ..., JC...] p ], where the z-th scan point is JC z ; S3, sensing scanning all scanning points in the circuit D by the electromagnetic field probe, obtaining the electromagnetic radiation intensity H of the scanning point JC z of the sensing scanning area DB z ; obtaining the radiation intensity j of the sensing scanning area DB ; S4, setting a perception scanning area DB j a radiation threshold F0; A first risk zone list Q1 is established when F j > F0, the DB j is added to the first risk zone list Q1 as a risk zone; wherein the risk regions in the first risk region list Q1 are arranged in order of their radiation intensity from large to small, to obtain a risk region DB j of the risk coefficient where e is a natural constant. The first risk region list Q1 is set to include r1 risk regions, and the first radiation abnormality degree of the circuit D is obtained ; When FD1>FD0, step S5 is entered. ​ S5, setting the risk region DB in the first risk region list Q1 j has q associated modules JDA, JDA= [JDA1, JDA2, JDA3, …, JDA q , wherein the kth associated module is JDA k , setting DB j and its associated function application JDA k The association degree between them is μ j ; According to the r1 risk areas included in the first risk area list Q1, the risk area DB j The degree of association μ k between JDA j and DB j The risk coefficient ω j of k , obtain the first security score of the functional application JDA ; Setting the function application JDA k to a security threshold of FK0; When FK1 ≥ FK0, judge the function application JDA k With security risk, add JDA k To the risk application list P1; When the risk application list P1 is not empty, a perception scan is again performed on the r1 risk regions in the first risk region list Q1 to obtain a risk region DB j of a second radiation intensity F j , and when F j '≥F0, the DB j is added to the second risk region list Q2; arranging the risk regions in the second risk region list Q2 in order of their radiation intensity from large to small to obtain a risk region DB j of the second risk coefficient ; A second list of risk zones Q2 comprising r2 risk zones is set k obtaining a second security score of the function application JDA ; When FK2≥FK1, determine the function application JDA k There is a security risk, the system alarms, and the risk application is pushed to relevant personnel; FK2 < FK0, function application JDA k Risk exclusion; when F j K0 < F j K1, a perception scan is performed again on the union of the r1 risk regions in the first risk region list Q1 and the r2 risk regions in the second risk region list Q2 to obtain a risk region DB j ''≥ F0, DB j is added to the third risk region list Q3 to obtain a third risk region list Q3, and a risk region DB j of a third risk coefficient is obtained. The risk regions in the third risk region list Q3 are arranged in order of their radiation intensity from large to small, to obtain a risk region DB j of the third risk coefficient ; A third list Q3 of r3 risk regions is set, the function application JDA k obtains a third security score ; When FK3≥FK0, determine the function application JDA k There is a security risk, the system alarms, and the risk application is pushed to relevant personnel; FK3 < FK0, function applies JDA k Risk exclusion.

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