Laser safety protection system based on quantum encryption technology
By adopting a multi-module collaborative working solution based on quantum encryption technology in the laser security protection system, the shortcomings of the existing system in data security transmission and processing, laser monitoring and emergency response are solved, and high-level security guarantee and comprehensive monitoring functions are achieved.
Patent Information
- Application Number
- CN202411828057.0
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-12
- Publication Date
- 2025-05-06
- Estimated Expiration
- Not applicable · inactive patent
AI Technical Summary
The existing laser security protection systems lack high-level security mechanisms in data transmission and processing, making them difficult to effectively deal with complex network threats, cannot ensure the secure transmission and processing of system data, and comprehensively monitor laser-related conditions and make effective responses in emergencies.
The laser security protection system based on quantum encryption technology is adopted, including quantum key generation and distribution module, laser light source monitoring module, laser transmission path detection module, environment perception module, data encryption and decryption module, risk assessment module, emergency response module and log protocol module. Through the coordinated work of multiple modules, it provides top-level security guarantee and comprehensive monitoring functions.
It realizes the top-level security guarantee for system data transmission and processing, and can comprehensively monitor laser light sources, transmission paths and environmental conditions, quickly cut off the laser source and start the protective device in an emergency, effectively protecting personnel and equipment safety.
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Figure CN119945665A_ABST
Abstract
Description
Technical Field
[0001] The present invention relates to the field of security protection technology, and in particular to a laser security protection system based on quantum encryption technology. Background Art
[0002] Quantum encryption technology, as an encryption technology based on the principles of quantum mechanics, has the characteristics of high security and anti-eavesdropping, and fundamentally solves the problem of crackability in traditional cryptography. In the future information security field, quantum cryptography is expected to become an important encryption technology, providing a higher level of protection for information transmission. Laser is also a laser. The laser intensity, wavelength and other data collected by the sensor need to be transmitted to the control center for analysis and processing. The use of quantum encryption technology can ensure the confidentiality and integrity of these data transmissions and prevent data from being stolen or tampered with.
[0003] Currently, laser safety protection systems lack high-level security mechanisms in data transmission and processing, making it difficult to effectively respond to increasingly complex network threats, and are unable to ensure the secure transmission and processing of system data, as well as comprehensively monitor laser-related conditions and respond effectively in emergencies. Summary of the invention
[0004] In view of the shortcomings of the existing technology, the present invention provides a laser security protection system based on quantum encryption technology, which solves the problem of being unable to ensure the secure transmission and processing of system data, as well as the problem of being unable to comprehensively monitor laser-related conditions and make effective responses in emergencies.
[0005] To achieve the above objectives, the present invention is implemented through the following technical solutions: a laser security protection system based on quantum encryption technology, including a quantum key generation and distribution module, a laser light source monitoring module, a laser transmission path detection module, an environment perception module, a data encryption and decryption module, a risk assessment module, an emergency response module and a log protocol module;
[0006] The quantum key generation and distribution module is used to generate highly secure quantum keys and distribute them to other modules in the system;
[0007] The laser light source monitoring module is used to monitor key parameters of the laser light source in real time;
[0008] The laser transmission path detection module is used to detect the loss, scattering and refraction anomalies of the laser during the transmission process;
[0009] The environment sensing module is used to sense the temperature, humidity and electromagnetic field of the surrounding environment;
[0010] The data encryption and decryption module is used to encrypt and decrypt laser-related data using a quantum key;
[0011] The risk assessment module is used to analyze and calculate the monitored laser parameters and environmental data to assess the potential safety risk level faced by the system;
[0012] The emergency response module is used to quickly cut off the laser source and activate the protective device in an emergency situation;
[0013] The log protocol module is used to record the system's operating operations, events and data, as well as the connection and data interaction between the system and external devices.
[0014] Preferably, the quantum key generation and distribution module includes a quantum state preparation unit, a quantum measurement unit and a key distribution control unit, the quantum state preparation unit is used to generate a quantum state with specific quantum properties as the basis for generating a key, the quantum measurement unit is used to construct a key, and the key distribution control unit is used to accurately control the distribution of the key.
[0015] Preferably, the laser light source monitoring module includes a power detection unit, a wavelength detection unit and a stability analysis unit, wherein the power detection unit is used to provide power data to evaluate the light source performance, the wavelength detection unit is used to detect the wavelength of the laser, and the stability analysis unit is used to analyze the changes in power and wavelength to determine the stability of the light source operation.
[0016] Preferably, the laser transmission path detection module includes a loss detection unit, a scattering detection unit and a refraction anomaly detection unit, the loss detection unit is used to measure the energy loss of the laser during transmission, the scattering detection unit is used to detect interference caused by the scattering of the laser, and the refraction anomaly detection unit is used to detect refraction anomalies in laser transmission.
[0017] Preferably, the environmental perception module includes a temperature sensor unit, a humidity sensor unit and an electromagnetic field detection unit, the temperature sensor unit is used to perceive the ambient temperature in real time, the humidity sensor unit is used to measure the ambient humidity, and the electromagnetic field detection unit is used to detect the surrounding electromagnetic field strength and changes.
[0018] Preferably, the data encryption and decryption module includes an encryption algorithm execution unit, a decryption algorithm execution unit and a key storage unit, the encryption algorithm execution unit is used to encrypt data, the decryption algorithm execution unit is used to restore the encrypted data to the original data, and the key storage unit is used to securely store the quantum key.
[0019] Preferably, the risk assessment module includes a parameter analysis unit, a risk calculation unit and a threshold setting unit, wherein the parameter analysis unit is used to deeply analyze the monitored laser parameters and environmental data, the risk calculation unit is used to calculate the specific value or level of the risk degree, and the threshold setting unit is used to set the risk threshold.
[0020] Preferably, the emergency response module comprises a power cut-off control unit and a protection device activation unit, wherein the power cut-off control unit is used to cut off the power of the laser source, and the protection device activation unit is used to activate the protection device.
[0021] Preferably, the log protocol module includes a log data collection unit, a storage management unit, an audit analysis unit and an interface unit. The log data collection unit is used to collect various operations and event data during the system operation process, the storage management unit is used to save log data, the audit analysis unit is used to review and analyze log data, and the interface unit is used for connection and data interaction between external devices and systems.
[0022] Preferably, the protective device is a protective barrier or a shading device, wherein the protective barrier can block the laser light, and the shading device can quickly close or adjust the angle of the shading sheet.
[0023] Working principle: First, the quantum key generation and distribution module starts working. The quantum state preparation unit generates quantum states with specific quantum properties, laying the foundation for key generation. Then, the quantum measurement unit constructs highly secure quantum keys based on these quantum states. Then, the key distribution control unit accurately distributes the generated quantum keys to other modules in the system, thereby providing top-level security for subsequent data transmission and processing, ensuring the confidentiality and integrity of system data.
[0024] With a secure key foundation, the laser light source monitoring module begins to play a role. The power detection unit obtains the power data of the laser light source in real time, and the wavelength detection unit synchronously detects the wavelength of the laser. These data are transmitted to the stability analysis unit, which comprehensively analyzes the changes in power and wavelength, so as to accurately judge the stability of the light source. During the laser transmission process, the laser transmission path detection module intervenes. The loss detection unit first measures the energy loss of the laser during transmission. The scattering detection unit then detects whether there are interferences that cause laser scattering. The refraction anomaly detection unit constantly monitors the refraction anomaly in laser transmission. Once any anomaly is found, the relevant data will be quickly transmitted to the subsequent modules for processing;
[0025] At the same time, the environmental perception module is also operating continuously. The temperature sensor unit senses the ambient temperature in real time, the humidity sensor unit accurately measures the ambient humidity, and the electromagnetic field detection unit closely detects the surrounding electromagnetic field strength and changes. These environmental data provide important references for the comprehensive evaluation of the system. Then, the data encryption and decryption module starts to work. The encryption algorithm execution unit uses the received quantum key to encrypt the laser-related data, so that the data is in a highly secure state during transmission and storage. When the data needs to be used, the decryption algorithm execution unit can restore the encrypted data to the original data, and the key storage unit always safely stores the quantum key.
[0026] Next, the risk assessment module operates. The parameter analysis unit deeply analyzes the laser parameters and environmental data collected by the previous modules. The risk calculation unit calculates the specific value or level of the risk degree based on these analysis results. The threshold setting unit sets a reasonable risk threshold in advance. Once the calculated risk value exceeds the threshold, an emergency response will be triggered.
[0027] The power cut-off control unit in the emergency response module will quickly cut off the power supply of the laser source, and the protective device activation unit will immediately activate the protective barrier or shading device to maximize the safety of personnel and equipment. During the entire system operation, the log protocol module is always recording, the log data acquisition unit comprehensively collects various operations and event data in the system operation, the storage management unit properly preserves these data, the audit analysis unit carefully reviews and deeply analyzes them, and the interface unit ensures the connection and data interaction between the system and external devices. At the same time, the connection and data interaction with external devices will be recorded in the log data acquisition unit, through the processing and analysis of these log data.
[0028] The present invention provides a laser security protection system based on quantum encryption technology. It has the following beneficial effects:
[0029] 1. The present invention adopts quantum key generation and distribution technology to provide top-level security for system data transmission and processing. At the same time, multiple modules work together to comprehensively monitor the laser light source, transmission path and environmental conditions. In an emergency, the laser source can be quickly cut off and the protective device can be activated. The protective barrier or sunshade can effectively block the light to ensure the safety of personnel and equipment and avoid damage caused by laser lasers.
[0030] 2. The present invention acquires the key parameters of laser power and wavelength, as well as the temperature and humidity information of the environment in real time, deeply analyzes and calculates the degree of risk, and sets a reasonable risk threshold in advance, so that the system can detect potential problems in time, make preventive preparations, effectively avoid risks, ensure that the system runs stably in a safe and reliable state, and provide reliable laser safety protection for various application scenarios.
[0031] 3. The present invention records operation operations, events and data completely through the system, covering the connection between the system and external devices and data interaction. This not only facilitates subsequent detailed audit analysis and troubleshooting, but also helps to summarize experience and discover optimization space for the system, thereby improving the level of maintenance and management, and providing subsequent guarantees for the system's subsequent continuous stable operation and performance improvement. BRIEF DESCRIPTION OF THE DRAWINGS
[0032] Figure 1 This is a framework diagram of the laser security protection system based on quantum encryption technology of the present invention;
[0033] Figure 2 A schematic diagram of a quantum key generation and distribution module of a laser security protection system based on quantum encryption technology of the present invention;
[0034] Figure 3 A schematic diagram of a laser light source monitoring module of a laser security protection system based on quantum encryption technology of the present invention;
[0035] Figure 4 A schematic diagram of a laser transmission path detection module of a laser security protection system based on quantum encryption technology of the present invention;
[0036] Figure 5 A schematic diagram of an environment sensing module of a laser security protection system based on quantum encryption technology of the present invention;
[0037] Figure 6 A schematic diagram of a data encryption and decryption module of a laser security protection system based on quantum encryption technology of the present invention;
[0038] Figure 7 It is a schematic diagram of a risk assessment module of a laser security protection system based on quantum encryption technology of the present invention;
[0039] Figure 8 A schematic diagram of an emergency response module of a laser safety protection system based on quantum encryption technology of the present invention;
[0040] Fig. 9 Schematic diagram of the log protocol module of the laser security protection system based on quantum encryption technology of the present invention. DETAILED DESCRIPTION
[0041] The technical solution of the present invention will be described clearly and completely below in conjunction with the accompanying drawings of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. 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.
[0042] Example:
[0043] Please see attached Figure 1 -Attached Fig. 9 , an embodiment of the present invention provides a laser security protection system based on quantum encryption technology, including a quantum key generation and distribution module, a laser light source monitoring module, a laser transmission path detection module, an environment perception module, a data encryption and decryption module, a risk assessment module, an emergency response module and a log protocol module;
[0044] The quantum key generation and distribution module is used to generate highly secure quantum keys and distribute them to other modules in the system, providing reliable key protection for data encryption and ensuring the confidentiality of communication and data transmission in the laser security protection system;
[0045] The laser light source monitoring module is used to monitor the key parameters of the laser light source in real time;
[0046] The laser transmission path detection module is used to detect the loss, scattering and refraction anomalies of the laser during transmission;
[0047] The environmental sensing module is used to sense the temperature, humidity and electromagnetic field of the surrounding environment;
[0048] The data encryption and decryption module is used to encrypt and decrypt laser-related data using quantum keys;
[0049] The risk assessment module is used to analyze and calculate the monitored laser parameters and environmental data to assess the potential safety risks faced by the system;
[0050] The emergency response module is used to quickly cut off the laser source and activate the protective device in an emergency situation;
[0051] The log protocol module is used to record the system's operating operations, events and data, as well as the connection and data interaction between the system and external devices.
[0052] The quantum key generation and distribution module includes a quantum state preparation unit, a quantum measurement unit and a key distribution control unit. The quantum state preparation unit is used to generate a quantum state with specific quantum properties as the basis for generating keys, the quantum measurement unit is used to construct keys, and the key distribution control unit is used to accurately control the distribution of keys.
[0053] The quantum state preparation unit generates a quantum state with specific quantum properties as the basis for generating keys. The quantum measurement unit accurately constructs the keys, while the key distribution control unit strictly and accurately controls the distribution of keys. This module generates highly secure quantum keys and distributes them to other modules in the system, providing extremely reliable key protection for data encryption and ensuring the confidentiality of communication and data transmission in the laser security protection system.
[0054] The laser light source monitoring module includes a power detection unit, a wavelength detection unit and a stability analysis unit. The power detection unit can continuously provide the power data of the light source to evaluate the performance of the light source. The wavelength detection unit is responsible for detecting the wavelength of the laser. The stability analysis unit will comprehensively analyze the changes in power and wavelength to determine whether the light source is working stably.
[0055] The laser transmission path detection module includes a loss detection unit, a scattering detection unit and a refraction anomaly detection unit. The loss detection unit is used to measure the energy loss of the laser during transmission and evaluate the transmission efficiency and quality. The scattering detection unit is used to monitor the scattering of the laser and determine whether there are interfering substances in the transmission path. The refraction anomaly detection unit is used to detect refraction anomalies in laser transmission, indicating that there will be bends or uneven media in the path.
[0056] The environmental perception module includes a temperature sensor unit, a humidity sensor unit and an electromagnetic field detection unit. The temperature sensor unit is used to sense the ambient temperature in real time and provide data for judging the impact of temperature on the laser system. The humidity sensor unit is used to measure the ambient humidity to prevent high humidity from damaging the laser equipment. The electromagnetic field detection unit is used to detect the intensity and changes of the surrounding electromagnetic field to prevent electromagnetic field interference with the laser.
[0057] The data encryption and decryption module includes an encryption algorithm execution unit, a decryption algorithm execution unit and a key storage unit. The encryption algorithm execution unit uses an encryption algorithm and a quantum key to encrypt data to ensure data security. The decryption algorithm execution unit restores the encrypted data to the original data based on the decryption algorithm and the quantum key. The key storage unit is used to safely store the quantum key to prevent the key from being lost or illegally obtained.
[0058] The risk assessment module includes a parameter analysis unit, a risk calculation unit and a threshold setting unit. The parameter analysis unit is used to deeply analyze the monitored laser parameters and environmental data and extract key information. The risk calculation unit calculates the specific value or level of the risk degree based on the analysis results. The threshold setting unit sets the risk threshold as the standard for triggering alarms and emergency responses.
[0059] The emergency response module includes a power cut-off control unit and a protection device starting unit. The power cut-off control unit is used to cut off the power of the laser source, and the protection device starting unit is used to start the protection device.
[0060] The log protocol module includes a log data collection unit, a storage management unit, an audit analysis unit and an interface unit. The log data collection unit is used to collect various operations and event data during the system operation process, the storage management unit is used to save log data, the audit analysis unit is used to review and analyze log data, and the interface unit is used for connection and data interaction between external devices and systems.
[0061] The interface unit realizes the connection and data interaction between external devices and systems. At the same time, these external devices and interaction data are recorded by the log data collection unit. The audit analysis unit is used to review and analyze the connection between the interface unit and the external device, as well as the interaction data. After the data source and security are reviewed and passed, the records are stored in the storage management unit.
[0062] The protective device is a protective barrier or a shading device. The protective barrier can block the laser light, and the shading device can quickly close or adjust the angle of the shading sheet.
[0063] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.
Claims
1. The laser security protection system based on quantum encryption technology is characterized by: It includes quantum key generation and distribution module, laser light source monitoring module, laser transmission path detection module, environmental perception module, data encryption and decryption module, risk assessment module, emergency response module and log protocol module; The quantum key generation and distribution module is used to generate highly secure quantum keys and distribute them to other modules in the system; The laser light source monitoring module is used to monitor key parameters of the laser light source in real time; The laser transmission path detection module is used to detect the loss, scattering and refraction anomalies of the laser during the transmission process; The environment sensing module is used to sense the temperature, humidity and electromagnetic field of the surrounding environment; The data encryption and decryption module is used to encrypt and decrypt laser-related data using a quantum key; The risk assessment module is used to analyze and calculate the monitored laser parameters and environmental data to assess the potential safety risk level faced by the system; The emergency response module is used to quickly cut off the laser source and activate the protective device in an emergency situation; The log protocol module is used to record the system's operating operations, events and data, as well as the connection and data interaction between the system and external devices.
2. The laser security protection system based on quantum encryption technology according to claim 1, characterized in that: The quantum key generation and distribution module includes a quantum state preparation unit, a quantum measurement unit and a key distribution control unit. The quantum state preparation unit is used to generate a quantum state with specific quantum properties as the basis for generating a key, the quantum measurement unit is used to construct a key, and the key distribution control unit is used to accurately control the distribution of the key.
3. The laser security protection system based on quantum encryption technology according to claim 1, characterized in that: The laser light source monitoring module includes a power detection unit, a wavelength detection unit and a stability analysis unit. The power detection unit is used to provide power data to evaluate the light source performance, the wavelength detection unit is used to detect the wavelength of the laser, and the stability analysis unit is used to analyze the changes in power and wavelength to determine the stability of the light source.
4. The laser security protection system based on quantum encryption technology according to claim 1, characterized in that: The laser transmission path detection module includes a loss detection unit, a scattering detection unit and a refraction anomaly detection unit. The loss detection unit is used to measure the energy loss of the laser during transmission, the scattering detection unit is used to detect interference caused by the scattering of the laser, and the refraction anomaly detection unit is used to detect refraction anomalies in laser transmission.
5. The laser security protection system based on quantum encryption technology according to claim 1, characterized in that: The environment sensing module includes a temperature sensor unit, a humidity sensor unit and an electromagnetic field detection unit. The temperature sensor unit is used to sense the ambient temperature in real time, the humidity sensor unit is used to measure the ambient humidity, and the electromagnetic field detection unit is used to detect the surrounding electromagnetic field strength and changes.
6. The laser security protection system based on quantum encryption technology according to claim 1, characterized in that: The data encryption and decryption module includes an encryption algorithm execution unit, a decryption algorithm execution unit and a key storage unit. The encryption algorithm execution unit is used to encrypt data, the decryption algorithm execution unit is used to restore the encrypted data to the original data, and the key storage unit is used to securely store the quantum key.
7. The laser security protection system based on quantum encryption technology according to claim 1, characterized in that: The risk assessment module includes a parameter analysis unit, a risk calculation unit and a threshold setting unit. The parameter analysis unit is used to deeply analyze the monitored laser parameters and environmental data, the risk calculation unit is used to calculate the specific value or level of the risk degree, and the threshold setting unit is used to set the risk threshold.
8. The laser security protection system based on quantum encryption technology according to claim 1, characterized in that: The emergency response module includes a power cut-off control unit and a protection device activation unit. The power cut-off control unit is used to cut off the power of the laser source, and the protection device activation unit is used to activate the protection device.
9. The laser security protection system based on quantum encryption technology according to claim 1, characterized in that: The log protocol module includes a log data collection unit, a storage management unit, an audit analysis unit and an interface unit. The log data collection unit is used to collect various operations and event data during the system operation process, the storage management unit is used to save log data, the audit analysis unit is used to review and analyze log data, and the interface unit is used for connection and data interaction between external devices and systems.
10. The laser security protection system based on quantum encryption technology according to claim 8, characterized in that: The protective device is a protective barrier or a shading device, wherein the protective barrier can block the laser light, and the shading device can quickly close or adjust the angle of the shading sheet.