Response equipment detection method and device for evaluating peripheral complex inquiry environment
Through real -time interviews and statistical inquiry information, evaluate the complicated inquiry environment, solve the problem of not high credibility of evaluation results in existing technologies, realize efficient and accurate inquiry environment assessment, and support system optimization detection scope.
Patent Information
- Application Number
- CN202411510332.4
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-10-28
- Publication Date
- 2025-01-28
AI Technical Summary
The prior art is difficult to effectively evaluate complex interrogation environments, especially when the working parameters of secondary radars change in real time in real-time in the real-world environment. The simulation environment and the real-world environment are very different, resulting in low credibility of the evaluation results.
Through the inquiry information of the carrier of the carrier, the statistics and transmission of various inquiries information are used to evaluate the inquiry environment based on the statistical results of the record. This method includes the incisioning modules, statistical modules, transmission modules, and analysis modules to achieve real -time and authentic assessment of the complex inquiry environment.
It greatly reduces the cost and evaluation cycle, reduces the occupation of the airspace resources of a dedicated route, improves the accuracy of the evaluation results, and supports the civil aviation and military systems to adjust the radar parameters to optimize the scope of detection according to the evaluation results.
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Figure CN119380584A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the technical field of answering device detection, and in particular to an answering device detection method and device for evaluating a surrounding complex interrogation environment. Background Art
[0002] With the rapid development of the aviation industry, the number of civil aircraft is increasing, and the density of air traffic is gradually increasing. In order to ensure the safety of civil aviation flights, the deployment of civil secondary radars is becoming more and more intensive. The flight training of military aircraft is becoming more and more frequent, which also requires more military secondary radars to ensure the smooth implementation of training tasks. At present, the interrogation signals radiated by military and civil secondary radars with different purposes and different power coverage are intricate, and the complex interrogation environment will in turn affect the aircraft in the airspace.
[0003] For civil aviation systems, it is necessary to evaluate the complex interrogation environment and take corresponding measures based on the evaluation results; for military systems, it is necessary to detect electromagnetic signals such as interrogations in the airspace, obtain the activity status of various secondary radars, evaluate the detected information, and provide support for subsequent actions.
[0004] The assessment of the electromagnetic environment such as interrogation comes from the collection of operating parameters of each secondary radar in the assessment area on the one hand, and from the acquisition of detection information by the air detection system on the other.
[0005] The details are as follows:
[0006] 1. Collect the relevant working parameters of each secondary radar in the evaluation area (inquiry cycle, inquiry mode, antenna rotation speed, working position environment, etc.), simulate the radiation of the inquiry signal in the area, and then evaluate the results. However, the working parameters of the secondary radar in the real environment change in real time. For example, some military secondary radars are mobile (ground mobile, airborne mobile, etc.) and the working time is difficult to determine, and many working parameters are unknown. The simulation environment may be very different from the real environment and cannot be used as a basis for evaluation.
[0007] 2. Install special interrogation signal detection equipment on the aircraft, and detect the interrogation signal in the airspace to achieve the purpose of evaluating the interrogation environment in the airspace. However, this method requires the addition of special detection equipment, which is expensive and is also restricted by the installation space of the aircraft; and this method is limited by the flight route and flight time. The information evaluated is only the detection information of a specific space and a specific period of time, which is still a certain gap from the real environment, and the credibility of its evaluation results is not particularly high. Summary of the invention
[0008] In view of the above problems, the present invention provides a method and apparatus for detecting and receiving a response device for evaluating a surrounding complex interrogation environment, so as to achieve the evaluation of the surrounding complex interrogation environment.
[0009] In a first aspect, the present invention provides a method for detecting and receiving an answering device for evaluating a complex surrounding interrogation environment, comprising:
[0010] Real-time detection of the carrier's inquiry information;
[0011] To compile statistics on various inquiry information collected;
[0012] Transmit the statistical results to other equipment on the carrier and record them;
[0013] Evaluate the query environment based on the recorded statistical results.
[0014] In some embodiments, the collecting statistics of various intercepted inquiry information includes:
[0015] Statistics of various collected inquiry information shall be collected as required at preset periods.
[0016] In some embodiments, the collecting statistics of various intercepted inquiry information includes:
[0017] At a preset period, count the number of M1 inquiries received by the upper and lower antennas, the number of M1 effective inquiries, and the number of M1 inquiries with sidelobe suppression received;
[0018] At a preset period, count the number of M2 inquiries received by the upper and lower antennas, the number of M2 effective inquiries, and the number of M2 inquiries with sidelobe suppression received;
[0019] At a preset period, count the number of M3 / A inquiries received by the upper and lower antennas, the number of effective M3 / A inquiries, and the number of M3 / A inquiries with sidelobe suppression received;
[0020] At a preset period, count the number of MC inquiries received by the upper and lower antennas, the number of MC effective inquiries, and the number of M3 / A inquiries with sidelobe suppression received;
[0021] At a preset period, count the number of MA-only all-call inquiries received by the upper and lower antennas, the number of effective MA-only all-calls, and the number of MA-only all-call inquiries received with sidelobe suppression;
[0022] At a preset period, count the number of A / S all-call inquiries received by the upper and lower antennas, the number of A / S all-call valid times, and the number of A / S all-call inquiries received with sidelobe suppression;
[0023] At a preset period, count the number of MC-only all-call inquiries received by the upper and lower antennas, the number of MC-only all-call valid inquiries, and the number of MC-only all-call inquiries received with sidelobe suppression;
[0024] At a preset period, count the number of C / S all-call inquiries received by the upper and lower antennas, the number of effective C / S all-calls, and the number of sidelobe suppressions received by the C / S all-call inquiries;
[0025] At a preset period, count the number of S-mode interrogations received by the upper and lower antennas and the number of S-mode interrogation sidelobe suppression times;
[0026] At a preset period, count the number of times the antenna receives M4 inquiries and the number of times the M4 inquiries are received and sidelobe suppressed.
[0027] In some embodiments, the query information of the carrier aircraft includes the position information, barometric altitude information and time information of the carrier aircraft.
[0028] In some embodiments, the statistical results are transmitted in an agreed communication format.
[0029] In a second aspect, the present invention further provides a transponder device detection device for evaluating a surrounding complex interrogation environment, comprising:
[0030] The detection module detects and receives the inquiry information of the carrier aircraft in real time;
[0031] Statistics module, which collects statistics on various inquiry information collected;
[0032] The transmission module transmits the statistical results to other devices on the carrier and records them;
[0033] The analysis module evaluates the query environment based on the recorded statistical results.
[0034] In some embodiments, the statistics module collects statistics on various intercepted inquiry information as required at a preset period.
[0035] In some embodiments, the statistics module is specifically used to:
[0036] At a preset period, count the number of M1 inquiries received by the upper and lower antennas, the number of M1 effective inquiries, and the number of M1 inquiries with sidelobe suppression received;
[0037] At a preset period, count the number of M2 inquiries received by the upper and lower antennas, the number of M2 effective inquiries, and the number of M2 inquiries with sidelobe suppression received;
[0038] At a preset period, count the number of M3 / A inquiries received by the upper and lower antennas, the number of effective M3 / A inquiries, and the number of M3 / A inquiries with sidelobe suppression received;
[0039] At a preset period, count the number of MC inquiries received by the upper and lower antennas, the number of MC effective inquiries, and the number of M3 / A inquiries with sidelobe suppression received;
[0040] At a preset period, count the number of MA-only all-call inquiries received by the upper and lower antennas, the number of effective MA-only all-calls, and the number of MA-only all-call inquiries received with sidelobe suppression;
[0041] At a preset period, count the number of A / S all-call inquiries received by the upper and lower antennas, the number of A / S all-call valid times, and the number of A / S all-call inquiries received with sidelobe suppression;
[0042] At a preset period, count the number of MC-only all-call inquiries received by the upper and lower antennas, the number of MC-only all-call valid inquiries, and the number of MC-only all-call inquiries received with sidelobe suppression;
[0043] At a preset period, count the number of C / S all-call inquiries received by the upper and lower antennas, the number of effective C / S all-calls, and the number of sidelobe suppressions received by the C / S all-call inquiries;
[0044] At a preset period, count the number of S-mode interrogations received by the upper and lower antennas and the number of S-mode interrogation sidelobe suppression times;
[0045] At a preset period, count the number of times the antenna receives M4 inquiries and the number of times the M4 inquiries are received and sidelobe suppressed.
[0046] In some embodiments, the query information of the carrier aircraft includes the position information, barometric altitude information and time information of the carrier aircraft.
[0047] In some embodiments, the transmission module is used to transmit the statistical results in an agreed communication format.
[0048] In summary, due to the adoption of the above technical solution, the beneficial effects of the present invention are:
[0049] 1. The traditional method of evaluating the surrounding complex interrogation environment is to inspect and collect the working status information of the surrounding secondary radars, and then analyze and evaluate. This method is time-consuming and labor-intensive. The present invention can greatly reduce the labor cost and shorten the evaluation cycle.
[0050] 2. Military systems generally install interrogation signal detection devices on special aircraft, and detect interrogation signals on the applied special routes. The present invention can only upgrade the software on the necessary transponder of the aircraft, and the aircraft can detect signals during normal flight according to the daily schedule; the cost of modification is low, and the airspace resource occupation of the special route can be reduced, reducing the impact on military and civil aviation flights, and will not increase the workload of the controller.
[0051] 3. The information collected is real-time, true and rich, and the evaluation results will be more accurate. Based on the evaluation results, the civil aviation system can adjust the parameters such as the interrogation cycle, interrogation mode and antenna rotation speed of the secondary radar in the airspace, and increase or decrease the transmission power to adjust the detection range. Based on the evaluation results, the military system can understand the complexity of the electromagnetic environment in the airspace, obtain the activities of various secondary radar targets, and provide intelligence support for subsequent combat missions. BRIEF DESCRIPTION OF THE DRAWINGS
[0052] Figure 1 The flowchart of the answering device detection method for evaluating the surrounding complex interrogation environment in an embodiment of the present invention.
[0053] Figure 2 It is a structural diagram of a transponder device detection device for evaluating a surrounding complex interrogation environment in an embodiment of the present invention. DETAILED DESCRIPTION
[0054] In order to make the purpose, technical solutions and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Generally, the components of the embodiments of the present invention described and shown in the drawings here can be arranged and designed in various different configurations.
[0055] Therefore, the following detailed description of the embodiments of the present invention provided in the accompanying drawings is not intended to limit the scope of the invention claimed for protection, but merely represents selected embodiments of the present invention. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.
[0056] Example
[0057] See also Figure 1 This embodiment proposes a method for detecting and receiving an answering device for evaluating a complex surrounding interrogation environment, comprising the following steps:
[0058] Step 1: Detect the query information of the receiver in real time.
[0059] In some embodiments, the query information of the carrier aircraft includes the position information, barometric altitude information and time information of the carrier aircraft.
[0060] Step 2: Collect statistics on various collected inquiry information.
[0061] In some embodiments, statistics are collected on various interrogation information collected as required at a preset period, wherein the period is preset according to actual needs, for example, it can be set to 1 second.
[0062] Step 3: Transmit the statistical results to other devices on the carrier and record them.
[0063] In some embodiments, the statistical results are transmitted in an agreed communication format, and the agreed communication format for transmission can be agreed upon according to actual needs.
[0064] In some embodiments, the statistical results may be transmitted to a ground or aircraft data recording device for recording.
[0065] Step 4: Evaluate the query environment based on the recorded statistical results.
[0066] In some embodiments, the recorded statistical results may be provided to an analysis and evaluation system to evaluate the inquiry environment of a certain period of time or a certain area.
[0067] Furthermore, the step 2 specifically includes:
[0068] Step 21: Count the number of M1 inquiries received by the upper and lower antennas, the number of M1 effective inquiries, and the number of M1 inquiries sidelobe suppression received at a preset period;
[0069] Step 23: Count the number of M2 inquiries received by the upper and lower antennas, the number of M2 effective inquiries, and the number of M2 inquiries sidelobe suppression received at a preset period;
[0070] Step 24: Count the number of M3 / A inquiries received by the upper and lower antennas, the number of M3 / A effective inquiries, and the number of M3 / A inquiries received with sidelobe suppression at a preset period;
[0071] Step 25: Count the number of MC inquiries received by the upper and lower antennas, the number of MC effective inquiries, and the number of M3 / A inquiries with sidelobe suppression received at a preset period;
[0072] Step 26: At a preset period, count the number of MA-only all-call (P4 short) inquiries received by the upper and lower antennas, the number of effective MA-only all-calls, and the number of MA-only all-call inquiries with sidelobe suppression received;
[0073] Step 27: At a preset period, count the number of A / S all-call (P4 long) inquiries received by the upper and lower antennas, the number of A / S all-call valid times, and the number of A / S all-call inquiries received with sidelobe suppression;
[0074] Step 28: At a preset period, count the number of MC-only all-call (P4 short) inquiries received by the upper and lower antennas, the number of MC-only all-call valid inquiries, and the number of MC-only all-call inquiries received with sidelobe suppression;
[0075] Step 29: At a preset period, count the number of C / S all-call (P4 long) inquiries received by the upper and lower antennas, the number of valid C / S all-calls, and the number of sidelobe suppressions received for C / S all-call inquiries;
[0076] Step 210: Count the number of S-mode interrogations received by the upper and lower antennas and the number of S-mode interrogation sidelobe suppression at a preset period;
[0077] Step 211: At a preset period, count the number of times the antenna receives M4 inquiries and the number of times the antenna suppresses the sidelobe of the M4 inquiries received.
[0078] Different secondary radars are deployed more and more densely and intertwined with each other, and the radiation of interrogation signals of various radars is complicated. The transponder is a special device that receives interrogation signals and makes different responses according to the type of interrogation signal. While receiving the interrogation and making responses, it can also record and save the changes of the detected interrogation signal. The detection results are transmitted to the ground station in real time for analysis and evaluation through other means of the carrier aircraft (such as data link communication, etc.), or the detection data is recorded, and the recorded data is read back for analysis after the carrier aircraft lands, so as to achieve the purpose of evaluating the complex interrogation environment in the corresponding airspace. Therefore, by adopting the above-mentioned transponder device detection method for evaluating the surrounding complex interrogation environment, it has the following advantages:
[0079] 1. The traditional method of evaluating the surrounding complex interrogation environment is to inspect and collect the working status information of the surrounding secondary radars, and then analyze and evaluate. This method is time-consuming and labor-intensive. The present invention can greatly reduce the labor cost and shorten the evaluation cycle.
[0080] 2. Military systems generally require special aircraft to be equipped with interrogation signal detection devices, and interrogation signals are detected on the applied special routes. The present invention can upgrade the software only on the transponder required by the aircraft, and the aircraft can perform signal detection during normal flight according to daily arrangements; the cost of modification is low, and the airspace resource occupation of the special route can be reduced, reducing the impact on military and civil aviation flights, and will not increase the workload of control personnel.
[0081] 3. The information collected is real-time, true and rich, and the evaluation results will be more accurate. Based on the evaluation results, the civil aviation system can adjust the parameters such as the interrogation cycle, interrogation mode and antenna rotation speed of the secondary radar in the airspace, and increase or decrease the transmission power to adjust the detection range. Based on the evaluation results, the military system can understand the complexity of the electromagnetic environment in the airspace, obtain the activities of various secondary radar targets, and provide intelligence support for subsequent combat missions.
[0082] Based on the same inventive concept, see Figure 2 This embodiment also provides a response device detection device for evaluating a complex surrounding interrogation environment, including:
[0083] The detection module detects and receives the inquiry information of the carrier aircraft in real time;
[0084] Statistics module, which collects statistics on various inquiry information collected;
[0085] The transmission module transmits the statistical results to other devices on the carrier and records them;
[0086] The analysis module evaluates the query environment based on the recorded statistical results.
[0087] The various functional modules in the above-mentioned device can refer to the description of the aforementioned answering device detection method for evaluating the surrounding complex interrogation environment, and will not be repeated here.
[0088] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. For those skilled in the art, the present invention may have various modifications and variations. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.
Claims
1. A method for detecting and receiving an answering device for evaluating a complex surrounding interrogation environment, characterized in that: include: Real-time detection of the carrier's inquiry information; To compile statistics on various inquiry information collected; Transmit the statistical results to other equipment on the carrier and record them; Evaluate the query environment based on the recorded statistical results.
2. The answering device detection method for evaluating a complex surrounding interrogation environment according to claim 1, characterized in that: The statistics of various collected inquiry information include: Statistics of various collected inquiry information shall be collected as required at preset periods.
3. The answering device detection method for evaluating a complex surrounding interrogation environment according to claim 2, characterized in that: The statistics of various collected inquiry information include: At a preset period, count the number of M1 inquiries received by the upper and lower antennas, the number of M1 effective inquiries, and the number of M1 inquiries with sidelobe suppression received; At a preset period, count the number of M2 inquiries received by the upper and lower antennas, the number of M2 effective inquiries, and the number of M2 inquiries with sidelobe suppression received; At a preset period, count the number of M3 / A inquiries received by the upper and lower antennas, the number of effective M3 / A inquiries, and the number of M3 / A inquiries with sidelobe suppression received; At a preset period, count the number of MC inquiries received by the upper and lower antennas, the number of MC effective inquiries, and the number of M3 / A inquiries with sidelobe suppression received; At a preset period, count the number of MA-only all-call inquiries received by the upper and lower antennas, the number of effective MA-only all-calls, and the number of MA-only all-call inquiries received with sidelobe suppression; At a preset period, count the number of A / S all-call inquiries received by the upper and lower antennas, the number of A / S all-call valid times, and the number of A / S all-call inquiries received with sidelobe suppression; At a preset period, count the number of MC-only all-call inquiries received by the upper and lower antennas, the number of MC-only all-call valid inquiries, and the number of MC-only all-call inquiries received with sidelobe suppression; At a preset period, count the number of C / S all-call inquiries received by the upper and lower antennas, the number of effective C / S all-calls, and the number of sidelobe suppressions received by the C / S all-call inquiries; At a preset period, count the number of S-mode interrogations received by the upper and lower antennas and the number of S-mode interrogation sidelobe suppression times; At a preset period, count the number of times the antenna receives M4 inquiries and the number of times the M4 inquiries are received and sidelobe suppressed.
4. The answering device detection method for evaluating a complex surrounding interrogation environment according to claim 1, characterized in that: The query information of the carrier aircraft includes the position information, pressure altitude information and time information of the carrier aircraft.
5. The answering device detection method for evaluating a surrounding complex interrogation environment according to claim 1, characterized in that: The statistical results are transmitted in the agreed communication format.
6. A transponder detection device for evaluating a complex surrounding interrogation environment, characterized in that: include: The detection module detects and receives the inquiry information of the carrier aircraft in real time; Statistics module, which collects statistics on various inquiry information collected; The transmission module transmits the statistical results to other devices on the carrier and records them; The analysis module evaluates the query environment based on the recorded statistical results.
7. The answering device detection device for evaluating a complex surrounding interrogation environment according to claim 6, characterized in that: In the statistical module, statistics are collected on various interrogation information collected as required at a preset period.
8. The answering device detection device for evaluating a complex surrounding interrogation environment according to claim 7, characterized in that: The statistical module is specifically used for: At a preset period, count the number of M1 inquiries received by the upper and lower antennas, the number of M1 effective inquiries, and the number of M1 inquiries with sidelobe suppression received; At a preset period, count the number of M2 inquiries received by the upper and lower antennas, the number of M2 effective inquiries, and the number of M2 inquiries with sidelobe suppression received; At a preset period, count the number of M3 / A inquiries received by the upper and lower antennas, the number of effective M3 / A inquiries, and the number of M3 / A inquiries with sidelobe suppression received; At a preset period, count the number of MC inquiries received by the upper and lower antennas, the number of MC effective inquiries, and the number of M3 / A inquiries with sidelobe suppression received; At a preset period, count the number of MA-only all-call inquiries received by the upper and lower antennas, the number of effective MA-only all-calls, and the number of MA-only all-call inquiries received with sidelobe suppression; At a preset period, count the number of A / S all-call inquiries received by the upper and lower antennas, the number of A / S all-call valid times, and the number of A / S all-call inquiries received with sidelobe suppression; At a preset period, count the number of MC-only all-call inquiries received by the upper and lower antennas, the number of MC-only all-call valid inquiries, and the number of MC-only all-call inquiries received with sidelobe suppression; At a preset period, count the number of C / S all-call inquiries received by the upper and lower antennas, the number of effective C / S all-calls, and the number of sidelobe suppressions received by the C / S all-call inquiries; At a preset period, count the number of S-mode interrogations received by the upper and lower antennas and the number of S-mode interrogation sidelobe suppression times; At a preset period, count the number of times the antenna receives M4 inquiries and the number of times the M4 inquiries are received and sidelobe suppressed.
9. The answering device detection device for evaluating a complex surrounding interrogation environment according to claim 6, characterized in that: The query information of the carrier aircraft includes the position information, pressure altitude information and time information of the carrier aircraft.
10. The answering device detection device for evaluating a complex surrounding interrogation environment according to claim 6, characterized in that: The transmission module is used to transmit the statistical results in an agreed communication format.
