Intelligent target range management system based on Internet of Things

Abstract

The invention discloses an intelligent shooting range management system based on the Internet of Things, and relates to the technical field of shooting range management, and the intelligent shooting range management system is technically characterized by comprising an in-shooting range safety box which is provided with a plurality of safety boxes and is internally provided with shooting equipment; a safety door with an electronic lock is hinged to one side of the safe box, the electronic lock is connected with a remote server through an Internet of Things transmission module, data can be interacted, and unlocking records can be uploaded in real time; the shell of the shooting equipment is provided with a positioning module which comprises a GPS (Global Positioning System) positioning unit, a satellite signal transmitting unit and a power supply unit, a power supply supplies power, and the GPS unit transmits geographic information to a GPS satellite through the satellite transmitting unit; the remote server is provided with a control unit, a display unit, a satellite signal receiving unit and a data storage unit, the control unit remotely controls unlocking and locking of the electronic lock, the data storage unit stores records, the satellite signal receiving unit receives signals, and the display unit displays the unlocking and locking states of the safe box and positions the shooting equipment; the shooting device in the shooting range can be remotely managed by utilizing the Internet of Things technology.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of target range management, in particular to a smart target range management system based on the Internet of Things. BACKGROUND

[0002] As an important place for military training, shooting device testing and related scientific research activities, the management level of the target range is directly related to the training effect, the accuracy of the test results and the efficiency of the scientific research work. The traditional target range management mainly relies on manual operation and recording, and there are problems such as low efficiency, untimely information updating and the like in the aspects of site planning, personnel scheduling, equipment maintenance and the like. With the rapid development of information technology, the management of the target range is gradually transforming towards intelligence. The intelligent target range management, with the help of advanced technologies such as the Internet of Things, big data, cloud computing and artificial intelligence, realizes the comprehensive perception, intelligent analysis and efficient allocation of target range resources, aiming to improve the safety, scientific nature and intelligent level of the target range operation, and to provide stronger support for military training and scientific research work.

[0003] In the intelligent target range management system, shooting device management occupies a crucial position. As the core resource of the target range, the safety, reliability and efficient management of the shooting device are directly related to the normal operation of the target range and the safety of the personnel. Although the existing intelligent target range management has realized the digital recording of shooting device information and the automation of basic processes to a certain extent, special attention still needs to be paid to shooting device management. On the one hand, shooting devices are highly dangerous, and any oversight in management can lead to serious safety accidents; on the other hand, shooting devices are of various types and complex specifications, and involve multiple links in the use process, such as storage, collection, use and return, which need accurate tracking and monitoring. Therefore, how to ensure the safe and efficient management of shooting devices throughout their life cycle in the target range has become an important challenge faced by the existing intelligent target range management.

[0004] Although the existing intelligent target range management system has made certain progress in shooting device management, there are still obvious deficiencies in the deep combination of shooting device management and Internet of Things technology. Internet of Things technology can realize the interconnection and real-time data sharing between devices, providing a more efficient and accurate means for shooting device management. However, many intelligent target range management systems currently still mainly rely on traditional bar code recognition, manual inspection and other methods in shooting device management, and fail to fully utilize Internet of Things technology to realize remote management of shooting devices. This leads to delays in information acquisition in the process of shooting device management, and the inability to timely discover and handle potential safety hazards. SUMMARY

[0005] In order to solve the above technical problems, the purpose of the present application is to provide a smart shooting range management system based on Internet of Things, which uses Internet of Things technology to remotely manage shooting devices in the shooting range.

[0006] In order to achieve the above-mentioned purpose, the present application provides the following technical solutions:

[0007] A smart shooting range management system based on Internet of Things, comprising a safe cabinet arranged in the shooting range, the safe cabinet comprising a plurality of safes, the safes containing shooting equipment, one side of the safe being hinged with a safe door, and an electronic lock being arranged between the safe door and the safe; the electronic lock being connected with a remote server with networking function through an Internet of Things transmission module;

[0008] The Internet of Things transmission module is used for data interaction and real-time uploading of opening record to the remote server;

[0009] The shooting equipment shell is fixedly provided with a positioning module, the positioning module comprising a GPS positioning unit, a satellite signal sending unit and a power supply unit, the power supply unit being used for supplying power to the GPS positioning unit and the satellite signal sending unit, and the GPS positioning unit sending geographic information to the GPS satellite through the satellite sending unit;

[0010] The remote server is provided with a control unit, a display unit, a satellite signal receiving unit and a data storage unit, the control unit being connected with the electronic lock through the Internet of Things transmission module to realize remote opening and locking control, the data storage unit storing the opening record after the control unit receives the opening record in real time, the satellite signal receiving unit being used for receiving the signal of the GPS satellite, and the display unit being used for displaying the opening and locking state of each safe and the GPS positioning of each shooting equipment.

[0011] Preferably, the safe is provided with a pressure sensor at the bottom, the pressure sensor being connected with a timer, when the pressure detected by the pressure sensor is lower than the preset pressure, the timer starts timing, and when the timing of the timer reaches the preset alarm time, the timer transmits an alarm signal to the remote server through the Internet of Things transmission module.

[0012] Preferably, the safe is provided with a tray on the pressure sensor, the tray inner cavity is provided with a wireless charging transmitting coil, the positioning module comprises a wireless charging receiving coil matched with the wireless charging transmitting coil, and the wireless charging receiving coil charges the power supply unit through a power supply controller.

[0013] Preferably, the positioning module is embedded in the shooting equipment, and the shooting equipment is provided with a plurality of through holes at the positioning module.

[0014] Preferably, the power supply unit is a lithium battery, and the display unit is a liquid crystal display.

[0015] Preferably, the shell of the safe is made of high-strength alloy material, and the surface of the safe is coated with a wear-resistant coating.

[0016] Preferably, the Internet of Things transmission module is equipped with an AES encryption algorithm or an RSA encryption algorithm to encrypt the transmission data.

[0017] The present application has the following beneficial effects:

[0018] I. Improve the convenience and efficiency of shooting device management: using the Internet of Things technology, the remote server connects with the electronic lock signal of the safe box in the safe through the Internet of Things transmission module, realizing the remote unlocking and locking control of the shooting device. The management personnel do not need to go to the shooting range site, but only need to operate in the remote server end, which can manage the shooting equipment placed in the safe box, greatly saving the time and labor cost, and significantly improving the convenience and efficiency of shooting device management. For example, in emergency situations or when the shooting equipment needs to be quickly deployed, the management personnel can quickly complete the unlocking through remote operation and timely obtain the required equipment.

[0019] II. Enhance the safety and traceability of shooting device management: the Internet of Things transmission module not only realizes remote control, but also is used for data interaction and real-time uploading of unlocking records to the remote server. The data storage unit stores these unlocking records, so that every time the shooting device is taken and used, there is a detailed record. This helps the management personnel to trace the use of the shooting device, understand when and who takes which equipment, and enhances the safety and traceability of shooting device management. Once an abnormal situation occurs, such as equipment loss or unauthorized use, the management personnel can quickly investigate the problem and hold responsible by checking the unlocking records.

[0020] III. Realize real-time positioning and state monitoring of shooting device: the shooting equipment shell is fixedly provided with a positioning module, which includes a GPS positioning unit, a satellite signal sending unit and a power supply unit. The satellite sending unit sends geographic information to the GPS satellite, and the satellite signal receiving unit of the remote server receives the signal of the GPS satellite. The display unit is used to display the GPS positioning of each shooting equipment. This enables the management personnel to real-time master the position information of the shooting equipment, whether the equipment is in the shooting range or is moved to other places, the specific position can be accurately known. At the same time, the display unit can also display the opening and closing state of each safe box, so that the management personnel can know the storage state of the shooting equipment at any time, realize the real-time positioning and state monitoring of the shooting device, and improve the accuracy and timeliness of management.

[0021] Fourth, to ensure the reliability and stability of the shooting device management: the Internet of Things transmission module is equipped with AES encryption algorithm or RSA encryption algorithm to encrypt the transmission data. In the process of remote management, a large amount of sensitive information is involved, such as unlocking instructions, device positioning data, etc. Through encryption processing, it can effectively prevent data from being stolen or tampered with during transmission, ensuring the security and integrity of the data, and thus ensuring the reliability and stability of the shooting device management. Even in the case of complex network environment or potential security threats, the remote management operation can be carried out smoothly, avoiding management errors or device loss caused by data security problems. BRIEF DESCRIPTION OF DRAWINGS

[0022] In order to more clearly illustrate the technical solutions of the embodiments of the present application, the following will briefly introduce the drawings needed to be used in the embodiments. It should be understood that the following drawings only show some embodiments of the present application, and therefore should not be regarded as a limitation on the scope. For those skilled in the art, other related drawings can also be obtained without creative labor.

[0023] Fig. 1 The front view of the safe of the first embodiment of the present application.

[0024] Fig. 2 The connection relationship diagram of the first embodiment of the present application.

[0025] Fig. 3 The safe cross-sectional view of the second embodiment of the present application.

[0026] In the figure: 1, safe; 101, safe; 102, safe door; 103, electronic lock; 104, Internet of Things transmission module; 2, shooting device; 201, positioning module; 301, pressure sensor; 302, timer; 303, tray; 304, wireless charging transmitting coil. DETAILED DESCRIPTION

[0027] The technical solutions in the embodiments of the present application will be described clearly and completely below in conjunction with the drawings in the embodiments of the present application. Obviously, the described embodiments are only some of the embodiments of the present application, not all. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor are within the scope of protection of the present application.

[0028] First embodiment

[0029] As Figs. 1-2As shown, a smart shooting range management system based on Internet of Things includes a safe 1 arranged in the shooting range, the safe 1 includes a plurality of safes 101, shooting equipment 2 is placed in the safe 101, a safe door 102 is hinged on one side of the safe 101, and an electronic lock 103 is arranged between the safe door 102 and the safe 101; the electronic lock 103 is connected with a remote server with networking function through an Internet of Things transmission module 104; the Internet of Things transmission module 104 is used for data interaction and real-time uploading of opening record to the remote server; the shooting equipment 2 shell is fixedly provided with a positioning module 201, the positioning module 201 includes a GPS positioning unit, a satellite signal sending unit and a power supply unit, the power supply unit is used for supplying power for the GPS positioning unit and the satellite signal sending unit, and the GPS positioning unit sends geographic information to the GPS satellite through the satellite sending unit; a control unit, a display unit, a satellite signal receiving unit and a data storage unit are arranged in the remote server, the control unit is signal connected with the electronic lock 103 through the Internet of Things transmission module 104, so as to realize remote opening and locking control, and the data storage unit stores the opening record after the control unit receives the opening record in real time; the satellite signal receiving unit is used for receiving the signal of the GPS satellite, and the display unit is used for displaying the opening and locking state of each safe 101 and the GPS positioning of each shooting equipment 2.

[0030] People like Figs. 1-2 As shown, the control unit in the remote server is signal connected with the electronic lock 103 of the safe 101 in the safe 1 through the Internet of Things transmission module 104. When the management personnel issues an opening or locking instruction at the remote server end, the instruction is transmitted to the electronic lock 103 through the Internet of Things transmission module 104. After the electronic lock 103 receives the instruction, the corresponding opening or locking action is performed, so that the remote management of the shooting equipment 2 is realized, and personnel on-site operation is not needed.

[0031] When the electronic lock 103 performs the opening operation each time, the Internet of Things transmission module 104 will capture the opening event, and the related opening record (such as opening time, safe 101 number, etc.) is data encapsulated. Then, the encapsulated opening record is uploaded to the remote server in real time through the Internet of Things transmission module 104. After the control unit in the remote server receives the opening record, the opening record is transmitted to the data storage unit, and the data storage unit stores the records, so as to be inquired and traced later.

[0032] The power supply unit in the fixed positioning module 201 of the shooting device 2 shell provides power for the GPS positioning unit and the satellite signal sending unit. The GPS positioning unit continuously obtains the geographic information of the shooting device 2, and then transmits the geographic information to the satellite signal sending unit. The satellite signal sending unit sends the geographic information to the GPS satellite. The satellite signal receiving unit of the remote server receives the signal from the GPS satellite, parses the geographic information of each shooting device 2 from the signal, and transmits the geographic information to the display unit. The display unit displays the geographic information in an intuitive way (such as a mark on a map), realizing real-time positioning of the shooting device 2. The opening and locking state information of the safe 101 is fed back to the Internet of Things transmission module 104 through the electronic lock 103, and the Internet of Things transmission module 104 transmits the state information to the remote server. After the control unit of the remote server receives the state information, the control unit transmits the state information to the display unit. According to the received information, the display unit displays the opening and locking state of each safe 101 in real time, so that the management personnel can know the storage status of the shooting device 2 at any time.

[0033] As shown in Figs. 1-2 The bottom of the safe 101 is provided with a pressure sensor 301, and the pressure sensor 301 is connected with a timer 302. When the pressure detected by the pressure sensor 301 is lower than a preset pressure, the timer 302 starts timing. When the timing of the timer 302 reaches a preset alarm time, the timer 302 transmits an alarm signal to the remote server through the Internet of Things transmission module 104. The pressure sensor 301 is arranged at the bottom of the safe 101, and can sense the pressure borne by the bottom of the safe 101 in real time. When the shooting device 2 is placed in the safe 101, a certain pressure will be generated at the bottom, and the pressure sensor 301 continuously detects this pressure value. The system pre-sets a pressure threshold (preset pressure). When the shooting device 2 is taken out, the pressure borne by the bottom of the safe 101 decreases. Once the pressure detected by the pressure sensor 301 is lower than the preset pressure, it indicates that the shooting device 2 may have been taken out. At this time, the pressure sensor 301 sends a trigger signal to the timer 302 connected thereto. After receiving the trigger signal, the timer 302 starts timing. At the same time, the system pre-sets an alarm time threshold (preset alarm time). When the timing of the timer 302 reaches the preset alarm time, the timer 302 generates an alarm signal, and transmits the alarm signal to the remote server through the Internet of Things transmission module 104. In this way, the management personnel can know that the shooting device 2 may be abnormally taken out in time, so as to take corresponding measures.

[0034] As shown in Figs. 1-2As shown, the power supply unit adopts a lithium battery, which has the advantages of high energy density, low self-discharge rate, and long service life. In the intelligent shooting range management system, the lithium battery provides stable direct current power for each power-consuming module (such as the positioning module 201, the electronic lock 103, the Internet of Things transmission module 104, etc.) in the entire system, ensuring that each module can work normally. For example, the GPS positioning unit and the satellite signal sending unit in the positioning module 201 are powered, enabling them to continuously acquire and send the position information of the shooting device 2. The display unit is set as a liquid crystal display, which displays the data information transmitted by the relevant modules (such as the control unit, the satellite signal receiving unit, etc.) in the remote server in the form of intuitive images and text. For example, the opening and closing lock state of each safe 101 is displayed, and different icons or colors are used to distinguish whether the safe 101 is in an open or closed state; the GPS positioning of each shooting device 2 is displayed, and the position of the shooting device 2 is displayed on the map with a specific marker, facilitating the management personnel to real-time understand the state and position of the shooting device 2 in the shooting range.

[0035] As shown in Figs. 1-2 The Internet of Things transmission module 104 is equipped with an AES encryption algorithm or an RSA encryption algorithm to encrypt the transmission data. When each module (such as the electronic lock 103, the pressure sensor 301, the positioning module 201, etc.) in the system generates data that needs to be transmitted (such as the opening lock record, the alarm signal, the shooting device 2 position information, etc.), the Internet of Things transmission module 104 will encrypt these data. Taking the AES encryption algorithm as an example, it uses a symmetric key to encrypt the data, and converts the original data into ciphertext form through a series of complex mathematical operations; the RSA encryption algorithm uses a pair of public and private keys, the sender uses the receiver's public key to encrypt the data, and only the receiver can decrypt the data using the corresponding private key. The encrypted data is transmitted to the remote server through the Internet of Things network. After receiving the ciphertext data, the remote server decrypts the ciphertext according to the encryption algorithm used and restores the original data using the corresponding key. In this way, even if the data is intercepted by a third party during transmission, the third party cannot obtain the true content of the data without the correct key, thereby ensuring the security and confidentiality of the data during transmission and preventing sensitive information from being leaked.

[0036] Second embodiment

[0037] As shown in Fig. 3 The safe 101 is provided with a tray 303 on the pressure sensor 301, the tray 303 is provided with a wireless charging transmitting coil 304 in the inner cavity, the positioning module 201 includes a wireless charging receiving coil matched with the wireless charging transmitting coil 304, and the wireless charging receiving coil charges the power supply unit through the power supply controller.

[0038] A tray 303 is arranged on the pressure sensor 301 of the safe 101, and a wireless charging transmitting coil 304 is arranged in the inner cavity of the tray 303. When the shooting device 2 is placed on the tray 303, the wireless charging transmitting coil 304 is connected to a power supply (a shooting range power supply system), and at this time, the transmitting coil generates an alternating magnetic field. A wireless charging receiving coil that is matched with the wireless charging transmitting coil 304 is arranged in the positioning module 201. When the shooting device 2 is placed on the tray 303, and the receiving coil is in the alternating magnetic field generated by the transmitting coil, according to the principle of electromagnetic induction, an induced electromotive force is generated in the receiving coil, and then an induced current is generated. The induced current generated by the wireless charging receiving coil is processed by a power supply controller. The power supply controller can perform voltage stabilization, rectification and other operations on the current, convert unstable alternating current into stable direct current, and control the voltage and current size of the charging, so as to meet the charging requirements of the power supply unit (such as a lithium battery), thereby charging the power supply unit and ensuring that the positioning module 201 can work continuously and stably.

[0039] As shown in Fig. 3 The positioning module 201 is embedded in the shooting device 2, and a plurality of through holes are arranged in the shooting device 2 at the positioning module 201. Embedding the positioning module 201 in the shooting device 2 can make the positioning module 201 and the shooting device 2 better combined as a whole, reduce the risk of collision and damage of the positioning module 201 in the use process of the shooting device 2, and improve the stability and reliability of the positioning module 201. The shooting device 2 is provided with a plurality of through holes at the positioning module 201. On the one hand, the through holes are helpful for the positioning module 201 to interact with the outside. For example, the GPS positioning unit in the positioning module 201 needs to receive GPS satellite signals, and the through holes can reduce the obstruction of the satellite signals by the shell of the shooting device 2, ensure that the signals can smoothly enter the positioning module 201, and improve the accuracy of positioning. On the other hand, the through holes are also conducive to the heat dissipation of the positioning module 201. The positioning module 201 will generate a certain amount of heat during work, and the through holes can increase air circulation to help heat dissipation, prevent the positioning module 201 from being affected in performance or damaged due to overheating.

[0040] The shell of the safe cabinet 1 is made of high-strength alloy material. The high-strength alloy material has high strength and hardness, and can withstand large external force impact and damage. In the target field environment, there may be various unexpected situations, such as collision of shooting equipment 2, malicious damage of external force, etc. The high-strength alloy material shell can effectively protect the safe box 101, shooting equipment 2 and related electronic equipment (such as electronic lock 103, Internet of Things transmission module 104, etc.) inside the safe cabinet 1 from being damaged, and ensure the normal operation of the intelligent target field management system. The surface of the safe cabinet 1 is coated with a wear-resistant coating. In the daily use process of the target field, the safe cabinet 1 may be subjected to various friction and wear, such as personnel touch, equipment handling, etc. The wear-resistant coating can increase the wear resistance of the surface of the safe cabinet 1, reduce the surface wear and scratches, maintain the appearance of the safe cabinet 1, and also prolong the service life of the safe cabinet 1 and reduce the maintenance cost.

[0041] The above are only specific embodiments of the present application, but the technical features of the present application are not limited thereto. Any simple change, equivalent replacement or modification made on the basis of the present application to solve the basically same technical problem and realize the basically same technical effect is covered by the protection scope of the present application.

Claims

1. An Internet of Things-based smart range management system, characterized in that: Including the safe (1) is arranged in the target field, the safe (1) includes multiple safes (101), the shooting equipment (2) is placed in the safe (101), the safe (101) one side is hinged with the safe door (102), the safe door (102) and the safe (101) between setting up electronic lock (103), the electronic lock (103) is connected with the remote server with networking function through the internet of things transmission module (104); The internet of things transmission module (104) is used for data interaction and real-time uploading of opening record to remote server; The shooting equipment (2) shell is fixedly provided with a positioning module (201), the positioning module (201) includes a GPS positioning unit, a satellite signal sending unit and a power supply unit, the power supply unit is used for power supply for the GPS positioning unit and the satellite signal sending unit, the GPS positioning unit sends geographical information to the GPS satellite through the satellite sending unit; The remote server is provided with a control unit, a display unit, a satellite signal receiving unit and a data storage unit, the control unit is signal connected with the electronic lock (103) through the internet of things transmission module (104), to realize remote opening, locking control, after the control unit receives the opening record in real time, the data storage unit stores the opening record, the satellite signal receiving unit is used for receiving the signal of GPS satellite, and the display unit is used for displaying the opening and closing state of each safe (101) and the GPS positioning of each shooting equipment (2). 2.The smart shooting range management system based on the Internet of Things according to claim 1, characterized in that: The bottom of the safe (101) is provided with a pressure sensor (301), the pressure sensor (301) is connected with a timer (302), when the pressure detected by the pressure sensor (301) is lower than the preset pressure, the timer (302) starts timing, when the timer (302) timing reaches the preset alarm time, the timer (302) transmits alarm signal to the remote server through the internet of things transmission module (104). 3.The smart range management system based on the Internet of Things according to claim 2, characterized in that: The safe (101) is provided with a tray (303) on the pressure sensor (301), the inner cavity of the tray (303) is provided with a wireless charging transmitting coil (304), the positioning module (201) includes a wireless charging receiving coil matched with the wireless charging transmitting coil (304), and the wireless charging receiving coil charges the power supply unit through a power supply controller.

4. The smart range management system based on the Internet of Things according to claim 3, characterized in that: The positioning module (201) is embedded in the shooting equipment (2), and a plurality of through holes are formed in the shooting equipment (2) at the positioning module (201).

5. The smart range management system based on the Internet of Things according to claim 1, characterized in that: The power supply unit is a lithium battery, and the display unit is a liquid crystal display. 6.The smart range management system based on the Internet of Things according to claim 1, characterized in that: The shell of the safe (1) is made of high-strength alloy material, and the surface of the safe (1) is coated with a wear-resistant coating.

7. The smart range management system based on the Internet of Things according to claim 1, characterized in that: The internet of things transmission module (104) is provided with AES encryption algorithm or RSA encryption algorithm to encrypt the transmission data.

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