Equipment attack and defense confrontation deduction system and method under laser weapon attack
By designing a laser weapon attack and attack equipment offensive and defense confrontation deduction system and using multiple platforms for collaborative simulation, the problem of traditional equipment lacking effective deduction methods when facing laser weapons is solved, and accurate evaluation of laser weapons and effective analysis of defense strategies is achieved.
Patent Information
- Application Number
- CN202510101995.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-01-22
- Publication Date
- 2025-05-06
AI Technical Summary
Traditional equipment lacks effective deduction methods when facing laser weapons, making it difficult to evaluate the effects of different defense strategies, and computer simulation technology has not been fully utilized.
A laser weapon strike equipment offensive and defense confrontation deduction system is designed, including a high-energy laser weapon design platform, a laser weapon early warning interference platform, an offensive and defense confrontation deduction platform, a joint simulation control platform and a high-energy laser damage assessment platform. Through these platforms, the simulation evaluation of laser weapons and the analysis of defense strategies are realized.
The system can accurately evaluate the damage capability of laser weapons, analyze the survivability and effectiveness of defense strategies of target equipment under the threat of laser weapons, and provide scientific basis for equipment research and development and tactical planning.
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Figure CN119942864A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the field of simulation and evaluation technology, and in particular to a system and method for simulating attack and defense confrontation of equipment under the attack of laser weapons. Background Art
[0002] With the rapid development of laser weapon technology, its application is becoming more and more extensive. Laser weapons, with their advantages such as high precision, high speed, and strong anti-interference ability, pose a serious threat to traditional equipment. For example, laser weapons can lock and destroy targets in a very short time, are almost unaffected by electromagnetic interference, and are relatively low in cost, making them suitable for large-scale deployment. However, this also means that traditional equipment faces unprecedented challenges when facing laser weapons.
[0003] In order to improve the battlefield survivability of equipment, an effective deduction method is needed to simulate the offensive and defensive confrontation process under the attack of laser weapons, evaluate the effects of different defense strategies, and provide a scientific basis for equipment research and development and tactical planning. Traditional experimental methods are not only costly, but also difficult to fully cover various complex environments. Computer simulation technology can be a key means to solve this problem.
[0004] Therefore, a method for simulating the offensive and defensive confrontation of equipment under the attack of laser weapons based on computer simulation technology is needed, which can accurately evaluate the destructive capability of laser weapons and analyze the survivability of target equipment under the threat of laser weapons and the effectiveness of defense strategies. Summary of the invention
[0005] The purpose of the present invention is to provide a system and method for simulating attack and defense confrontation of equipment under laser weapon attack, so as to solve the problems mentioned in the above background technology.
[0006] To achieve the above object, the present invention provides an attack and defense confrontation simulation system for equipment under laser weapon attack, comprising:
[0007] High-energy laser weapon design platform, used for attack, building different types of laser weapon models, integrating megawatt-level high beam quality light sources, and defining the functional composition, interface relationship and operation logic of different types of laser weapon systems under combat business requirements;
[0008] Laser weapon early warning jamming platform, used for defense, uses high repetition rate laser as the core jamming source, and emits high repetition rate laser pulses to the laser seeker directly or through false target reflection to drown out the guidance signal;
[0009] The attack and defense simulation platform is used to build combat scenarios in combination with combat missions and configure different equipment models in attack and defense according to the laser weapon model;
[0010] The joint simulation control platform controls the data and command interaction between the laser weapon model and the equipment model according to the simulation interaction relationship configuration table to achieve collaborative simulation;
[0011] The high-energy laser damage assessment platform is used to calculate the effective range and damage effect of laser weapons and evaluate the damage to target materials.
[0012] Preferably, the high-energy laser weapon design platform complies with the divergence angle matching criterion, the maximum power in the barrel criterion, the high-efficiency coupling criterion and the platform adaptation criterion, and is implemented using the unified modeling platform model of weapons and equipment.
[0013] Preferably, the laser weapon early warning jamming platform integrates advanced coding and time gate technologies to adapt to the jamming requirements of different guidance signals; through a one-to-many jamming strategy, simultaneous jamming of multiple laser-guided targets is achieved.
[0014] Preferably, the attack and defense confrontation simulation platform is implemented using a satellite toolkit STK physical model to simulate a real battlefield environment.
[0015] Preferably, the interactive interface between the joint simulation control platform and the high-energy laser weapon design platform adopts a functional simulation interface that complies with the international joint simulation standard FMI.
[0016] Preferably, the simulation interaction relationship configuration table of the joint simulation control platform defines the configuration relationship between the laser weapon model and its equipment model.
[0017] Preferably, the laser damage assessment factors of the high-energy laser damage assessment platform include laser weapon attributes, transmission impact factors and equipment target attributes.
[0018] A method for using an equipment attack and defense confrontation deduction system under a laser weapon attack comprises the following steps:
[0019] S1. Use the high-energy laser weapon design platform to design and build a laser weapon model based on operational needs;
[0020] S2. Through the laser weapon early warning jamming platform, high repetition rate laser is configured as the jamming source, and advanced coding and time gate technology is adopted to achieve effective jamming of laser guidance signals;
[0021] S3. On the attack and defense simulation platform, build combat scenarios based on combat missions, configure and associate various equipment models with laser weapon models, and use the satellite toolkit STK physical model to simulate the real battlefield environment for attack and defense simulation;
[0022] S4. The joint simulation control platform controls the data and command interaction between the laser weapon model and the equipment model according to the simulation interaction relationship configuration table to achieve collaborative simulation;
[0023] S5. Through the high-energy laser damage assessment platform, set the combat parameters of the laser weapon, simulate the dynamic interaction process between the laser and the target, evaluate the damage effect of the laser on the target, and determine whether the target is destroyed.
[0024] Preferably, the specific steps of constructing the laser weapon model by the high-energy laser weapon design platform in S1 are as follows:
[0025] S11, input laser weapon and target initial parameters and weather conditions;
[0026] S12, setting laser positioning weapon parameters according to the input laser weapon parameters;
[0027] S13, establishing a tracking transmission model for tracking the transmission process of the laser weapon;
[0028] S14. Establish a multi-physics field damage model to simulate the damage effect of laser weapons on targets;
[0029] S15. Establish a target hit rate and damage degree evaluation model to evaluate the hit rate and damage degree of laser weapons on targets;
[0030] S16. Comprehensively evaluate the results of the above models to obtain the final evaluation results. According to the results of the comprehensive evaluation model, design and construct the laser weapon model.
[0031] Preferably, it is characterized in that the specific steps of the attack and defense confrontation deduction method in S3 are as follows:
[0032] S31. Clarify the needs and goals of the simulation and determine the scenarios that need to be simulated;
[0033] S32. According to the needs and goals, a laser attack and defense model is constructed. The attacker is a high-energy laser weapon design platform, and the defender is a laser weapon early warning interference platform.
[0034] S33, inputting initial parameters into the laser attack and defense model;
[0035] S34. Use the constructed laser attack and defense model to conduct simulation tests to observe the attack effect of laser weapons on equipment and the defense effect of equipment;
[0036] S35. Optimizing and adjusting the parameters in the model according to the simulation test results;
[0037] S36. Verify the results of the optimized model. If it does not meet the requirements, return to S5 to continue parameter optimization and adjustment. If it meets the requirements, obtain the equipment attack and defense confrontation model under the attack of laser weapons.
[0038] Therefore, the present invention adopts the above-mentioned equipment attack and defense confrontation deduction system and method under the attack of laser weapons, which has the following beneficial effects:
[0039] (1) Refine the operational concepts into specific models and processes, extract and solidify the rules of engagement and tactical behaviors, build a system architecture model, and clarify the functions, interfaces, and operating logic of the weapon system;
[0040] (2) Supporting the coordinated interaction between weapon systems and force models, enhancing the accuracy and reference value of simulations;
[0041] (3) By dynamically verifying the system architecture model, the operational knowledge is verified and confirmed using the operational concept simulation environment, thus ensuring the validity of the model;
[0042] (4) Data interaction complies with the FMI international simulation standard, achieving universality and interoperability with any simulation data that meets the FMI standard.
[0043] The technical solution of the present invention is further described in detail below through the accompanying drawings and embodiments. BRIEF DESCRIPTION OF THE DRAWINGS
[0044] Figure 1 This is a schematic diagram of a system for simulating attack and defense of equipment under attack by a laser weapon according to the present invention;
[0045] Figure 2 This is a schematic diagram of a high-energy laser weapon design platform for a system and method for deducing equipment attack and defense confrontation under laser weapon attack in the present invention;
[0046] Figure 3 It is a schematic diagram of a laser weapon early warning interference platform of a system and method for deducing equipment attack and defense confrontation under laser weapon attack of the present invention;
[0047] Figure 4 This is a logic diagram of an attack and defense confrontation deduction platform for a system and method for deducing attack and defense confrontation of equipment under a laser weapon attack according to the present invention;
[0048] Figure 5 A laser damage assessment factor establishment diagram for a system and method for simulating attack and defense confrontation of equipment under laser weapon attack according to the present invention;
[0049] Figure 6 This is a flow chart of a system and method for deducing attack and defense confrontation of equipment under laser weapon attack according to the present invention;
[0050] Figure 7 This is a laser weapon attack flow chart of a system and method for simulating equipment attack and defense under laser weapon attack according to the present invention. DETAILED DESCRIPTION
[0051] 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.
[0052] Example
[0053] like Figure 1 As shown in the figure, a simulation system for attack and defense confrontation of equipment under laser weapon attack includes a high-energy laser weapon design platform, which follows the divergence angle matching criterion, the highest power criterion in the barrel, the efficient coupling criterion and the platform adaptation criterion for attack, builds different types of laser weapon models, integrates megawatt-level high-beam quality light sources, optimizes long-range combat capabilities, ensures efficient damage effects, realizes compact and efficient design, and adapts to different platform requirements; the high-energy laser weapon design platform defines the functional composition, interface relationship and operation logic of different types of laser weapon models under combat business requirements, and adopts the unified modeling platform (UPDM) model for weapons and equipment. Each laser weapon model will select a suitable laser wavelength to improve the material coupling coefficient for a specific combat environment and task, while considering the atmospheric transmission characteristics and platform environmental adaptability. The schematic diagram of the high-energy laser weapon design platform is shown in the figure. Figure 2 shown.
[0054] The laser weapon early warning jamming platform is used for defense. It uses a high-repetition-rate laser as the core jamming source. It emits high-repetition-rate laser pulses to the laser seeker directly or through false target reflection to drown out the guidance signal. It integrates advanced coding and time gate technologies to adapt to the jamming requirements of different guidance signals. At the same time, the platform will have rapid response capabilities to reduce the impact of jamming reaction time on the jamming effect, and will be able to process a variety of signal styles, including finite-bit random periodic codes and precise frequency codes. In addition, the platform will avoid using integer repetition frequencies to reduce the uncertainty of the effective probability of jamming, and through a "one-to-many" jamming strategy, it will achieve simultaneous jamming of multiple laser-guided targets, thereby improving the overall jamming effect and battlefield adaptability. The schematic diagram of the laser weapon early warning jamming platform is shown below. Figure 3 shown.
[0055] The attack and defense simulation platform is used to build combat scenarios in combination with combat missions, configure different equipment models according to the laser weapon model, associate multiple equipment models with the operation of the laser weapon model, perform simulations based on the combat scenarios, and send the events generated in the combat to the high-energy laser weapon design platform to simulate the real battlefield environment and provide a realistic test scenario for the laser weapon model; the attack and defense simulation platform is implemented using the satellite toolkit STK physical model. The logic diagram of the attack and defense simulation platform is as follows: Figure 4 shown.
[0056] The joint simulation control platform is used to control the data and command interaction between the laser weapon model and the equipment model to achieve collaborative simulation; the interaction interface between the joint simulation control platform and the high-energy laser weapon design platform adopts a functional simulation interface that complies with the international joint simulation standard FMI; the simulation interaction relationship configuration table is used to define the configuration relationship between the laser weapon model and its equipment model to ensure the accuracy and efficiency of data interaction.
[0057] The high-energy laser damage assessment platform is used to calculate the effective range and damage effect of laser weapons and evaluate the damage of target materials. According to the combat parameters of laser weapons set by the high-energy laser weapon system, in the transmission model of tracking and aiming, the coordinates are calculated based on the dynamic motion parameters between the target and the laser weapon, thereby determining the real-time effective range. At the same time, combined with the set atmospheric transmission conditions, the specific parameters of the laser when it reaches the target can be calculated. The platform can also construct a calculation model of laser irradiated materials based on the characteristics of the target material, through which the relationship between the real-time thermal parameters and the damage threshold of the target material can be evaluated, thereby determining whether the target has been completely destroyed; such as Figure 5 As shown, the laser damage assessment factors of the high-energy laser damage assessment platform include laser weapon attributes, transmission influence factors and equipment target attributes.
[0058] A method for using an equipment attack and defense confrontation deduction system under a laser weapon attack comprises the following steps:
[0059] S1. Utilize the high-energy laser weapon design platform to design and build a laser weapon model based on operational needs, ensure the laser weapon model's efficient destructive capability and platform adaptability, and ensure the integrity and effectiveness of the model through dynamic verification.
[0060] The specific steps to build a laser weapon model are as follows:
[0061] S11, input laser weapon and target initial parameters and weather conditions;
[0062] S12, setting laser positioning weapon parameters according to the input laser weapon parameters;
[0063] S13, establishing a tracking transmission model for tracking the transmission process of the laser weapon;
[0064] S14. Establish a multi-physics field damage model to simulate the damage effect of laser weapons on targets;
[0065] S15. Establish a target hit rate and damage degree evaluation model to evaluate the hit rate and damage degree of laser weapons on targets;
[0066] S16. Comprehensively evaluate the results of the above models to obtain the final evaluation results. According to the results of the comprehensive evaluation model, design and construct the laser weapon model.
[0067] S2. Through the laser weapon early warning jamming platform, a high repetition rate laser is configured as the jamming source, and advanced coding and time gate technology is adopted to achieve effective jamming of the laser guidance signal.
[0068] S3. On the attack and defense simulation platform, build combat scenarios based on combat missions, configure and associate various equipment models with laser weapon models, use the satellite toolkit STK physical model to simulate the real battlefield environment for attack and defense simulation, and simulate combat events in conjunction with the high-energy laser weapon design platform and the laser weapon early warning and interference platform to achieve logical judgment of events and command feedback.
[0069] like Figure 6 As shown, the specific steps of the attack and defense confrontation deduction method are as follows:
[0070] S31. Clarify the needs and goals of the simulation and determine the scenarios that need to be simulated;
[0071] S32. According to the needs and goals, a laser attack and defense model is constructed. The attacker is a high-energy laser weapon design platform. The process of the high-energy laser weapon design platform using laser weapons to attack is as follows: Figure 7 As shown, the defender is a laser weapon early warning jamming platform;
[0072] S33, inputting initial parameters into the laser attack and defense model;
[0073] S34. Use the constructed laser attack and defense model to conduct simulation tests to observe the attack effect of laser weapons on equipment and the defense effect of equipment;
[0074] S35. Optimizing and adjusting the parameters in the model according to the simulation test results;
[0075] S36. Verify the results of the optimized model. If it does not meet the requirements, return to S5. Continue to optimize and adjust the parameters. If it meets the requirements, obtain the equipment attack and defense confrontation model under the attack of laser weapons.
[0076] S4. The joint simulation control platform controls the data and command interaction between the laser weapon model and the equipment model according to the simulation interaction relationship configuration table, realizes collaborative simulation and enhances the credibility of the simulation.
[0077] S5. Through the high-energy laser damage assessment platform, the combat parameters of laser weapons are set, the dynamic interaction process between laser and target is simulated, the damage effect of laser on target is evaluated, and it is determined whether the target is destroyed, thereby providing a scientific basis for equipment research and development and tactical planning.
[0078] Therefore, the present invention adopts the above-mentioned system and method for simulating the attack and defense confrontation of equipment under the attack of laser weapons. By refining the combat concept into specific modes and processes, extracting and solidifying the rules of engagement and tactical behaviors, constructing a system architecture model, and clarifying the functions, interfaces and operating logic of the weapon system; supporting the coordinated interaction between the weapon system and the force model, enhancing the accuracy and reference value of the simulation simulation; at the same time, by dynamically verifying the system architecture model, the combat knowledge is verified and confirmed using the combat concept simulation environment, thereby ensuring the effectiveness of the model.
[0079] Finally, it should be noted that the above embodiments are only used to illustrate the technical solution of the present invention rather than to limit it. Although the present invention has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that they can still modify or replace the technical solution of the present invention with equivalents, and these modifications or equivalent replacements cannot cause the modified technical solution to deviate from the spirit and scope of the technical solution of the present invention.
Claims
1. A system for simulating attack and defense of equipment under attack by laser weapons, characterized in that: include: High-energy laser weapon design platform, used for attack, building different types of laser weapon models, integrating megawatt-level high beam quality light sources, and defining the functional composition, interface relationship and operation logic of different types of laser weapon systems under combat business requirements; Laser weapon early warning jamming platform, used for defense, uses high repetition rate laser as the core jamming source, and emits high repetition rate laser pulses to the laser seeker directly or through false target reflection to drown out the guidance signal; The attack and defense simulation platform is used to build combat scenarios in combination with combat missions and configure different equipment models in attack and defense according to the laser weapon model; The joint simulation control platform controls the data and command interaction between the laser weapon model and the equipment model according to the simulation interaction relationship configuration table to achieve collaborative simulation; The high-energy laser damage assessment platform is used to calculate the effective range and damage effect of laser weapons and evaluate the damage to target materials.
2. According to claim 1, a laser weapon attack and defense simulation system for equipment, characterized in that: The high-energy laser weapon design platform complies with the divergence angle matching criterion, the maximum power in the barrel criterion, the high-efficiency coupling criterion and the platform adaptation criterion, and is implemented using the unified modeling platform model of weapons and equipment.
3. According to claim 1, a laser weapon attack and defense simulation system for equipment, characterized in that: The laser weapon early warning jamming platform integrates advanced coding and time gate technologies to adapt to the jamming requirements of different guidance signals; through a one-to-many jamming strategy, it achieves simultaneous jamming of multiple laser-guided targets.
4. According to claim 1, a laser weapon attack and defense simulation system for equipment, characterized in that: The attack and defense confrontation simulation platform is implemented using the satellite toolkit STK physical model to simulate the real battlefield environment.
5. According to claim 1, a laser weapon attack and defense simulation system for equipment, characterized in that: The interactive interface between the joint simulation control platform and the high-energy laser weapon design platform adopts a functional simulation interface that complies with the international joint simulation standard FMI.
6. The attack and defense simulation system for equipment under laser weapon attack according to claim 1, characterized in that: The simulation interaction relationship configuration table of the joint simulation control platform defines the configuration relationship between the laser weapon model and its equipment model.
7. The attack and defense simulation system for equipment under laser weapon attack according to claim 1, characterized in that: The laser damage assessment factors of the high-energy laser damage assessment platform include laser weapon attributes, transmission impact factors and equipment target attributes.
8. A method for using the attack and defense simulation system for equipment under attack by a laser weapon as claimed in any one of claims 1 to 7, characterized in that: The following steps are involved: S1. Use the high-energy laser weapon design platform to design and build a laser weapon model based on operational needs; S2. Through the laser weapon early warning jamming platform, high repetition rate laser is configured as the jamming source, and advanced coding and time gate technology is adopted to achieve effective jamming of laser guidance signals; S3. On the attack and defense simulation platform, build combat scenarios based on combat missions, configure and associate various equipment models with laser weapon models, and use the satellite toolkit STK physical model to simulate the real battlefield environment for attack and defense simulation; S4. The joint simulation control platform controls the data and command interaction between the laser weapon model and the equipment model according to the simulation interaction relationship configuration table to achieve collaborative simulation; S5. Through the high-energy laser damage assessment platform, set the combat parameters of the laser weapon, simulate the dynamic interaction process between the laser and the target, evaluate the damage effect of the laser on the target, and determine whether the target is destroyed.
9. The method for using the attack and defense simulation system for equipment under attack by laser weapons according to claim 8 is characterized in that: The specific steps for constructing a laser weapon model on the high-energy laser weapon design platform in S1 are as follows: S11, input laser weapon and target initial parameters and weather conditions; S12, setting laser positioning weapon parameters according to the input laser weapon parameters; S13, establishing a tracking transmission model for tracking the transmission process of the laser weapon; S14. Establish a multi-physics field damage model to simulate the damage effect of laser weapons on targets; S15. Establish a target hit rate and damage degree evaluation model to evaluate the hit rate and damage degree of laser weapons on targets; S16. Comprehensively evaluate the results of the above models to obtain the final evaluation results. According to the results of the comprehensive evaluation model, design and construct the laser weapon model.
10. The method for using the equipment attack and defense confrontation simulation system under laser weapon attack according to claim 8 is characterized in that: The specific steps of the attack and defense deduction method in S3 are as follows: S31. Clarify the needs and goals of the simulation and determine the scenarios that need to be simulated; S32. According to the needs and goals, a laser attack and defense model is constructed. The attacker is a high-energy laser weapon design platform, and the defender is a laser weapon early warning interference platform. S33, inputting necessary initial parameters into the laser attack and defense model; S34. Use the constructed laser attack and defense model to conduct simulation tests to observe the attack effect of laser weapons on equipment and the defense effect of equipment; S35. Optimizing and adjusting the parameters in the model according to the simulation test results; S36. Verify the results of the optimized model. If it does not meet the requirements, return to S5 to continue parameter optimization and adjustment. If it meets the requirements, obtain the equipment attack and defense confrontation model under the attack of laser weapons.
Citation Information
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