A multi-dimensional protection network security server and a method of using the same

Abstract

The application belongs to the field of network security servers, and particularly relates to a multi-dimensional protection network security server, which comprises a server body, a plurality of support seats in uniform distribution are fixedly installed at the bottom of the server body, a display screen is arranged at the front end of the server body, a plurality of network sockets in uniform distribution are arranged at the front end of the server body and on the left side of the display screen, a cover plate is in contact with the top of the server body, and a plurality of supports in uniform distribution are in contact with the top of the cover plate. Through the design of the server body, network security service work can be carried out. Through the plug-in cooperation of the positioning block and the positioning groove, the cover plate can be limited to realize the connection and fixation of the cover plate and the server body. Through pulling the pull rod outward, the positioning block and the positioning groove can be separated, and then the cover plate and the server body can be separated, so that the maintenance work of the internal security server can be conveniently and quickly carried out.

Description

Technical Field

[0001] This invention relates to the field of network security server technology, and in particular to a multi-dimensional protection network security server and its usage method. Background Technology

[0002] Network security servers are core dedicated server devices that ensure the security of network environments and data information. They integrate multiple functions such as security protection, access control, behavior auditing, intrusion prevention, and data protection. They can monitor network operation status in real time, intercept malicious attacks, unauthorized access, and virus intrusions, regulate internal network access permissions, and prevent data leaks and network risks. The devices offer stable operation, flexible configuration of protection policies, strong compatibility, and easy deployment. They are widely used in enterprise offices, government agencies, campuses, and data centers, comprehensively strengthening the security barrier for network architecture and core data.

[0003] In existing technologies, the closed design of security servers makes it inconvenient to inspect and maintain their internal structure. Furthermore, current network security server protection has significant shortcomings: first, it relies on single-dimensional protection methods, which cannot cope with complex network attacks; second, traffic monitoring and intrusion prevention are disconnected, leading to delays in threat identification and interception; third, data transmission and storage lack end-to-end encryption, making them susceptible to leakage and tampering; fourth, access control is lax, resulting in frequent unauthorized access and illegal operations; fifth, there is no intelligent computing power scheduling, making it prone to resource shortages in protection modules; sixth, there is a lack of disaster recovery mechanisms, hindering rapid business recovery after failures; and seventh, security logs lack unified auditing, making it difficult to trace and locate abnormal events. Therefore, improvements are needed. Summary of the Invention

[0004] This invention provides a multi-dimensional network security server and its usage method, which solves the technical problems of inconvenient disassembly, inspection and maintenance of security servers and insufficient server security protection effect.

[0005] To address the aforementioned technical problems, this invention provides a multi-dimensional network security server, comprising a server body, with multiple evenly distributed support bases fixedly installed at the bottom of the server body, a display screen at the front end of the server body, multiple evenly distributed network ports at the front end of the server body and to the left of the display screen, a cover plate at the top of the server body, and multiple evenly distributed brackets at the top of the cover plate, the brackets being slidably connected to the server body, each bracket having a bolt slidably fitted inside, the bolts being threadedly connected to the cover plate, and an assembly mechanism being provided on the bracket.

[0006] Preferably, the assembly mechanism includes positioning slots. Two symmetrically distributed positioning slots are formed at both ends of the server body. Positioning blocks are slidably connected inside the positioning slots. A fixing seat is slidably fitted onto the outer side of each positioning block. The fixing seat contacts the server body and is fixedly connected to a bracket. A pull rod is fixedly installed on the outer side of the positioning block, passing through the fixing seat and slidably connected to it. A magnetic block is fixedly installed at the bottom of the positioning block, slidably connected to the fixing seat. A magnet is fixedly connected inside the fixing seat. This assembly mechanism facilitates the assembly and disassembly of the cover plate.

[0007] Preferably, a spring is provided on the outer side of the pull rod, one end of the spring is fixedly connected to the positioning block, and the other end of the spring is fixedly connected to the fixing seat. By designing the spring, the elastic force of the spring can be applied to the positioning block.

[0008] A multi-dimensional network security server further includes a service system. The service system comprises a multi-dimensional traffic monitoring module, an intrusion prevention and blocking module, a data encryption and protection module, an access control module, a system vulnerability scanning module, a security log auditing module, an anomaly alarm handling module, a computing power resource scheduling module, and a disaster recovery backup and restoration module. The multi-dimensional traffic monitoring module is connected to the intrusion prevention and blocking module, the intrusion prevention and blocking module is connected to the data encryption and protection module, the multi-dimensional traffic monitoring module is connected to the access control module, the intrusion prevention and blocking module is connected to the anomaly alarm handling module, the data encryption and protection module is connected to the security log auditing module, the anomaly alarm handling module is connected to the system vulnerability scanning module, the multi-dimensional traffic monitoring module is connected to the computing power resource scheduling module, and the computing power resource scheduling module is connected to the disaster recovery backup and restoration module.

[0009] Preferably, the multi-dimensional traffic monitoring module includes a traffic acquisition unit, an anomaly identification unit, and a situation analysis unit. The traffic acquisition unit and the anomaly identification unit are connected, and the anomaly identification unit and the situation analysis unit are connected. The traffic acquisition unit is used to collect network traffic in real time. The anomaly identification unit is used to identify abnormal traffic access behavior. The situation analysis unit is used to analyze network security situation trends. This module monitors network traffic status in all dimensions, accurately captures abnormal transmission behavior, provides real-time data support for security protection, and improves threat perception sensitivity.

[0010] Preferably, the intrusion prevention and blocking module includes a threat detection unit, an active interception unit, and a defense linkage unit. The threat detection unit and the active interception unit are connected, and the active interception unit and the defense linkage unit are connected. The threat detection unit is used to detect external intrusion attack behavior. The active interception unit is used to actively block malicious intrusion requests. The defense linkage unit is used to coordinate the various modules for collaborative defense. This module actively resists external intrusion attacks, realizes real-time interception of malicious behavior, builds a front-end protection barrier, and prevents the server from being illegally intruded.

[0011] Preferably, the data encryption protection module includes a transmission encryption unit, a storage encryption unit, and a decryption control unit. The transmission encryption unit and the storage encryption unit are connected, and the storage encryption unit and the decryption control unit are connected. The transmission encryption unit is used to encrypt data transmitted by the server; the storage encryption unit is used to encrypt data stored by the server; and the decryption control unit is used to control data decryption access permissions. This module provides end-to-end encryption protection for server data, preventing data leakage and tampering, ensuring core data security, and complying with data security regulatory requirements.

[0012] Preferably, the access control module includes an identity verification unit, a permission allocation unit, and an unauthorized access interception unit. The identity verification unit and the permission allocation unit are connected, and the permission allocation unit and the unauthorized access interception unit are connected. The identity verification unit is used to verify the visitor's identity information. The permission allocation unit is used to allocate hierarchical access operation permissions. The unauthorized access interception unit is used to intercept illegal unauthorized access behavior. This module constructs a hierarchical access control system, standardizes server access behavior, eliminates illegal access operations, and improves server access security.

[0013] A method for using a multi-dimensional network security protection server, the specific steps of which include: Step 1: The server body can be supported and placed using the support stand, and then the server body can be used. External network devices can be connected through the network port for operation. The display screen can be used to observe and monitor the operating status of the server body and protect the network security. Step Two: When it is necessary to inspect and maintain the internal structure of the server, simply pull the lever outwards. The lever will move the positioning block horizontally. The positioning block will slide along the fixed seat and press against the fixed seat. At the same time, the positioning block will move the magnetic block horizontally. After the magnetic block is attracted to the magnet, the positioning block will slide out from the inside of the positioning groove. Then the cover can be removed from the server, exposing the internal components of the server. This allows for convenient and quick inspection and maintenance of the internal structure of the server.

[0014] When the system is working, Step S101: The system completes power-on initialization, intelligently allocates equipment operating resources, and ensures that each protection unit starts stably and enters normal working state; Step S102: Collect network transmission traffic data in real time and analyze traffic characteristics to accurately identify potential threat behaviors such as abnormal transmission and unauthorized access; Step S103: Detect external network intrusion and attack behaviors, proactively intercept malicious requests, and coordinate with various protection units to build a collaborative defense system; Step S104: Verify the identity information of the access subject and assign corresponding operation permissions, and intercept and handle unauthorized access in real time; Step S105: Implement end-to-end encryption for data transmission and storage, strictly control data decryption permissions, and prevent the risk of data leakage and tampering; Step S106: Regularly scan the system for security vulnerabilities, locate potential risk points, automatically generate risk assessment results, and push them to the handling unit; Step S107: Record the entire process of equipment operation and safety protection logs to achieve queryable and traceable management of all safety-related behaviors; Step S108: Monitor safety anomalies and equipment malfunctions in real time, quickly trigger alarms and execute automated handling to reduce losses from safety incidents; Step S109: Perform data and system backup operations regularly, and activate the recovery mechanism in case of equipment failure to ensure the continuous and stable operation of server services.

[0015] Compared with related technologies, the multi-dimensional protection network security server provided by this invention has the following beneficial effects: This invention provides a multi-dimensional network security server. By designing the server body, it can perform network security services. Through the interlocking of the positioning block and the positioning slot, the cover plate can be limited to achieve the connection and fixation between the cover plate and the server body. By pulling the lever outward, the positioning block and the positioning slot can be separated, and the cover plate can be separated from the server body, which can facilitate convenient and quick inspection and maintenance of the internal security server.

[0016] This invention provides a multi-dimensional network security server that comprehensively defends against network threats by constructing a multi-dimensional collaborative protection system. Multi-dimensional traffic monitoring, intrusion prevention, data encryption, and access control modules work in tandem to achieve end-to-end protection, covering all security risk scenarios, including traffic monitoring, intrusion interception, data protection, and access control.

[0017] This invention provides a multi-dimensional network security server that enhances server stability and security. Intelligent computing power scheduling ensures efficient operation of the protection module, disaster recovery and backup module handles sudden failures, and log auditing and anomaly alarms enable risk traceability and controllability, comprehensively ensuring the continuous and secure operation of the server. Attached Figure Description

[0018] Figure 1 This is a perspective view of the overall structure of the present invention; Figure 2 For the present invention Figure 1 A three-dimensional sectional view of a partial structure of the support frame; Figure 3 For the present invention Figure 2 Enlarged view of point A; Figure 4 This is a system schematic diagram of the present invention; Figure 5 For the present invention Figure 4 Schematic diagram of the multi-dimensional flow monitoring module in the middle; Figure 6 For the present invention Figure 4 Schematic diagram of the intrusion prevention and blocking module in the system; Figure 7 For the present invention Figure 4 Schematic diagram of the data encryption protection module in the middle; Figure 8 For the present invention Figure 4 Schematic diagram of the access control module in [the system / platform]. Figure 9 This is a diagram illustrating the system operation steps of the present invention.

[0019] Numbering on the map: 10. Server body; 11. Support base; 12. Display screen; 13. Network port; 14. Cover plate; 15. Bracket; 16. Bolt; 17. Assembly mechanism; 171. Positioning slot; 172. Positioning block; 173. Fixing base; 174. Pull rod; 175. Spring; 176. Magnetic block; 177. Magnet; 1. Multi-dimensional traffic monitoring module; 2. Intrusion prevention and blocking module; 3. Data encryption and protection module; 4. Access control module; 5. System vulnerability scanning module; 6. Security day 7. Auditing Module; 8. Anomaly Alarm Handling Module; 9. Computing Resource Scheduling Module; 10. Disaster Recovery and Backup Module; 111. Traffic Acquisition Unit; 112. Anomaly Identification Unit; 113. Situation Analysis Unit; 221. Threat Detection Unit; 222. Proactive Interception Unit; 223. Defense Linkage Unit; 331. Transmission Encryption Unit; 332. Storage Encryption Unit; 333. Decryption Control Unit; 441. Identity Verification Unit; 442. Permission Allocation Unit; 443. Unauthorized Access Interception Unit. Detailed Implementation

[0020] Example 1: Please see Figures 1-3 A multi-dimensional network security server includes a server body 10. Multiple evenly distributed support bases 11 are fixedly installed at the bottom of the server body 10. A display screen 12 is located at the front end of the server body 10. Multiple evenly distributed network ports 13 are located at the front end of the server body 10 and to the left of the display screen 12. A cover plate 14 contacts the top of the server body 10. Multiple evenly distributed brackets 15 are contacted at the top of the cover plate 14. The brackets 15 are slidably connected to the server body 10. Each bracket 15 has a bolt 16 slidably fitted inside. The bolt 16 is threadedly connected to the cover plate 14. A combination mechanism 17 is provided on the bracket 15.

[0021] The assembly mechanism 17 includes positioning slots 171. Two symmetrically distributed positioning slots 171 are formed at each of the left and right ends of the server body 10. Positioning blocks 172 are slidably connected inside the positioning slots 171. Fixing seats 173 are slidably fitted onto the outer sides of the positioning blocks 172. The fixing seats 173 contact the server body 10 and are fixedly connected to the bracket 15. A pull rod 174 is fixedly installed on the outer side of the positioning blocks 172, passing through and slidably connecting with the fixing seats 173. A spring 175 is provided on the outer side of the pull rod 174. One end of the spring 175 is fixedly connected to the positioning block 172, and the other end of the spring 175 is fixedly connected to the fixing seat 173. By designing the spring 175, the elastic force of the spring 175 can act on the positioning block 172. A magnetic block 176 is fixedly installed at the bottom of the positioning block 172. The magnetic block 176 is slidably connected to the fixing seat 173. A magnet 177 is fixedly connected inside the fixing seat 173. By designing the combination mechanism 17, it is convenient to disassemble and assemble the cover plate 14.

[0022] A method for using a multi-dimensional network security protection server, the specific steps of which include: Step 1: The server body 10 can be supported and placed using the support base 11, and then the server body 10 can be used. External network devices can be connected through the network port 13 for operation. The operating status of the server body 10 can be observed and monitored through the display screen 12, and network security can be protected. Step 2: When it is necessary to inspect and maintain the internal structure of the server body 10, pull the lever 174 outwards. The lever 174 drives the positioning block 172 to move horizontally. The positioning block 172 slides along the fixed seat 173 and squeezes the fixed seat 173. At the same time, the positioning block 172 drives the magnetic block 176 to move horizontally. When the magnetic block 176 is attracted to the magnet 177, the positioning block 172 will slide out from the inside of the positioning groove 171. Then the cover plate 14 can be removed from the server body 10, so that the internal components of the server body 10 are exposed. Then the internal structure of the server body 10 can be inspected and maintained conveniently and quickly.

[0023] Example 2: Please see Figures 4-9 A multi-dimensional protection network security server, applied to the aforementioned multi-dimensional protection network security server, further includes a multi-dimensional traffic monitoring module 1, an intrusion prevention and blocking module 2, a data encryption and protection module 3, an access control module 4, a system vulnerability scanning module 5, a security log auditing module 6, an anomaly alarm handling module 7, a computing power resource scheduling module 8, and a disaster recovery backup and recovery module 9. The multi-dimensional traffic monitoring module 1 and the intrusion prevention and blocking module 2 are connected; the intrusion prevention and blocking module 2 and the data encryption and protection module 3 are connected; the multi-dimensional traffic monitoring module 1 and the access control module 4 are connected; the intrusion prevention and blocking module 2 and the anomaly alarm handling module 7 are connected; the data encryption and protection module 3 and the security log auditing module 6 are connected; the anomaly alarm handling module 7 and the system vulnerability scanning module 5 are connected; the multi-dimensional traffic monitoring module 1 and the computing power resource scheduling module 8 are connected; and the computing power resource scheduling module 8 and the disaster recovery backup and recovery module 9 are connected.

[0024] The multi-dimensional traffic monitoring module 1 includes a traffic acquisition unit 111, an anomaly identification unit 112, and a situation analysis unit 113. The traffic acquisition unit 111 and the anomaly identification unit 112 are connected, and the anomaly identification unit 112 and the situation analysis unit 113 are connected. The traffic acquisition unit 111 is used to collect the network traffic in real time. The anomaly identification unit 112 is used to identify abnormal traffic access behavior. The situation analysis unit 113 is used to analyze the network security situation trend. This module monitors the network traffic status in all dimensions, accurately captures abnormal transmission behavior, provides real-time data support for security protection, and improves the sensitivity of threat perception.

[0025] The intrusion prevention and blocking module 2 includes a threat detection unit 221, an active interception unit 222, and a defense linkage unit 223. The threat detection unit 221 and the active interception unit 222 are connected, and the active interception unit 222 and the defense linkage unit 223 are connected. The threat detection unit 221 is used to detect external intrusion attack behavior; the active interception unit 222 is used to actively block malicious intrusion requests; and the defense linkage unit 223 is used to coordinate the various modules for collaborative defense. This module actively resists external intrusion attacks, realizes real-time interception of malicious behavior, builds a front-end protection barrier, and prevents the server from being illegally intruded.

[0026] The data encryption protection module 3 includes a transmission encryption unit 331, a storage encryption unit 332, and a decryption control unit 333. The transmission encryption unit 331 and the storage encryption unit 332 are connected, and the storage encryption unit 332 and the decryption control unit 333 are connected. The transmission encryption unit 331 is used to encrypt data transmitted by the server; the storage encryption unit 332 is used to encrypt data stored by the server; and the decryption control unit 333 is used to control data decryption access permissions. This module provides end-to-end encryption protection for server data, preventing data leakage and tampering, ensuring core data security, and meeting data security regulatory requirements.

[0027] The access control module 4 includes an identity verification unit 441, a permission allocation unit 442, and an unauthorized access interception unit 443. The identity verification unit 441 and the permission allocation unit 442 are connected, and the permission allocation unit 442 and the unauthorized access interception unit 443 are connected. The identity verification unit 441 is used to verify the visitor's identity information; the permission allocation unit 442 is used to allocate hierarchical access operation permissions; and the unauthorized access interception unit 443 is used to intercept illegal unauthorized access behavior. This module constructs a hierarchical permission control system, standardizes server access behavior, eliminates illegal access operations, and improves server access security.

[0028] A method for using a multi-dimensional network security protection server, the specific steps of which include: Step S101: The system completes power-on initialization, intelligently allocates equipment operating resources, and ensures that each protection unit starts stably and enters normal working state; Step S102: Collect network transmission traffic data in real time and analyze traffic characteristics to accurately identify potential threat behaviors such as abnormal transmission and unauthorized access; Step S103: Detect external network intrusion and attack behaviors, proactively intercept malicious requests, and coordinate with various protection units to build a collaborative defense system; Step S104: Verify the identity information of the access subject and assign corresponding operation permissions, and intercept and handle unauthorized access in real time; Step S105: Implement end-to-end encryption for data transmission and storage, strictly control data decryption permissions, and prevent the risk of data leakage and tampering; Step S106: Regularly scan the system for security vulnerabilities, locate potential risk points, automatically generate risk assessment results, and push them to the handling unit; Step S107: Record the entire process of equipment operation and safety protection logs to achieve queryable and traceable management of all safety-related behaviors; Step S108: Monitor safety anomalies and equipment malfunctions in real time, quickly trigger alarms and execute automated handling to reduce losses from safety incidents; Step S109: Perform data and system backup operations regularly, and activate the recovery mechanism in case of equipment failure to ensure the continuous and stable operation of server services.

Claims

1. A multi-dimensional network security protection server, comprising a server body (10), characterized in that: The bottom of the server body (10) is fixedly equipped with multiple evenly distributed support bases (11). The front end of the server body (10) is provided with a display screen (12). The front end of the server body (10) and the left side of the display screen (12) are provided with multiple evenly distributed network ports (13). The top of the server body (10) is in contact with a cover plate (14). The top of the cover plate (14) is in contact with multiple evenly distributed brackets (15). The brackets (15) are slidably connected to the server body (10). Each bracket (15) is slidably fitted with a bolt (16). The bolts (16) are connected to the cover plate (14) by threads. The brackets (15) are provided with a combination mechanism (17).

2. The multi-dimensional protection network security server according to claim 1, characterized in that: The combined mechanism (17) includes a positioning groove (171). Two symmetrically distributed positioning grooves (171) are opened at both ends of the server body (10). A positioning block (172) is slidably connected inside the positioning groove (171). A fixed seat (173) is slidably sleeved on the outside of the positioning block (172). The fixed seat (173) is in contact with the server body (10). The fixed seat (173) is fixedly connected to the bracket (15). A pull rod (174) is fixedly installed on the outside of the positioning block (172). The pull rod (174) passes through the fixed seat (173) and is slidably connected to the fixed seat (173). A magnetic block (176) is fixedly installed at the bottom of the positioning block (172). The magnetic block (176) is slidably connected to the fixed seat (173). A magnet (177) is fixedly connected inside the fixed seat (173).

3. A multi-dimensional protection network security server according to claim 2, characterized in that: A spring (175) is provided on the outside of the pull rod (174). One end of the spring (175) is fixedly connected to the positioning block (172), and the other end of the spring (175) is fixedly connected to the fixing seat (173).

4. A multi-dimensional network security server according to claim 1, characterized in that: It also includes a service system, which includes a multi-dimensional traffic monitoring module (1), an intrusion prevention and blocking module (2), a data encryption and protection module (3), an access control module (4), a system vulnerability scanning module (5), a security log auditing module (6), an abnormal alarm handling module (7), a computing power resource scheduling module (8), and a disaster recovery backup and recovery module (9). The multi-dimensional traffic monitoring module (1) and the intrusion prevention and blocking module (2) are connected. The intrusion prevention and blocking module (2) and the data encryption and protection module (3) are connected. The multi-dimensional traffic monitoring module (1) and the access control module (4) are connected. The intrusion prevention and blocking module (2) and the abnormal alarm handling module (7) are connected. The data encryption and protection module (3) and the security log auditing module (6) are connected. The abnormal alarm handling module (7) and the system vulnerability scanning module (5) are connected. The multi-dimensional traffic monitoring module (1) and the computing power resource scheduling module (8) are connected. The computing power resource scheduling module (8) and the disaster recovery backup and recovery module (9) are connected.

5. A multi-dimensional network security server according to claim 4, characterized in that: The multi-dimensional traffic monitoring module (1) includes a traffic acquisition unit (111), an anomaly identification unit (112), and a situation analysis unit (113). The traffic acquisition unit (111) and the anomaly identification unit (112) are connected, and the anomaly identification unit (112) and the situation analysis unit (113) are connected. The traffic acquisition unit (111) is used to collect the network traffic in real time. The anomaly identification unit (112) is used to identify abnormal traffic access behavior. The situation analysis unit (113) is used to analyze the network security situation trend. This module monitors the network traffic status in all dimensions, accurately captures abnormal transmission behavior, provides real-time data support for security protection, and improves the sensitivity of threat perception.

6. A multi-dimensional network security server according to claim 4, characterized in that: The intrusion prevention and blocking module (2) includes a threat detection unit (221), an active interception unit (222), and a defense linkage unit (223). The threat detection unit (221) and the active interception unit (222) are connected, and the active interception unit (222) and the defense linkage unit (223) are connected. The threat detection unit (221) is used to detect external intrusion attack behavior. The active interception unit (222) is used to actively block malicious intrusion requests. The defense linkage unit (223) is used to link the various modules for collaborative defense. This module actively resists external intrusion attacks, realizes real-time interception of malicious behavior, builds a front-end protection barrier, and prevents the server from being illegally intruded.

7. A multi-dimensional network security server according to claim 4, characterized in that: The data encryption protection module (3) includes a transmission encryption unit (331), a storage encryption unit (332), and a decryption control unit (333). The transmission encryption unit (331) and the storage encryption unit (332) are connected, and the storage encryption unit (332) and the decryption control unit (333) are connected. The transmission encryption unit (331) is used to encrypt data transmitted by the server. The storage encryption unit (332) is used to encrypt data stored by the server. The decryption control unit (333) is used to control the data decryption access permissions. This module provides full-process encryption protection for server data, prevents data leakage and tampering, ensures the security of core data, and meets the data security supervision requirements.

8. A multi-dimensional network security server according to claim 4, characterized in that: The access control module (4) includes an identity verification unit (441), a permission allocation unit (442), and an unauthorized access interception unit (443). The identity verification unit (441) and the permission allocation unit (442) are connected, and the permission allocation unit (442) and the unauthorized access interception unit (443) are connected. The identity verification unit (441) is used to verify the identity information of the visitor. The permission allocation unit (442) is used to allocate hierarchical access operation permissions. The unauthorized access interception unit (443) is used to intercept illegal unauthorized access behavior. This module constructs a hierarchical permission control system, standardizes server access behavior, eliminates illegal access operations, and improves server access security.

9. A method for using a multi-dimensional network security server according to any one of claims 1-8, characterized in that: The specific steps include: Step 1: The server body (10) can be supported and placed by the support base (11), and then the server body (10) can be used. The network port (13) can be used to connect external network devices. The display screen (12) can be used to observe and monitor the operating status of the server body (10) and protect the network security. Step 2: When it is necessary to inspect and maintain the inside of the server body (10), pull the lever (174) directly outward. The lever (174) drives the positioning block (172) to move horizontally. The positioning block (172) slides along the fixed seat (173) and squeezes the fixed seat (173). At the same time, the positioning block (172) drives the magnetic block (176) to move horizontally. When the magnetic block (176) is attracted to the magnet (177), the positioning block (172) will slide out from the inside of the positioning groove (171). Then the cover plate (14) can be removed from the server body (10), so that the internal components of the server body (10) are exposed. Then the internal structure of the server body (10) can be inspected and maintained conveniently and quickly. When the system is working, Step S101: The system completes power-on initialization, intelligently allocates equipment operating resources, and ensures that each protection unit starts stably and enters normal working state; Step S102: Collect network transmission traffic data in real time and analyze traffic characteristics to accurately identify potential threat behaviors such as abnormal transmission and unauthorized access; Step S103: Detect external network intrusion and attack behaviors, proactively intercept malicious requests, and coordinate with various protection units to build a collaborative defense system; Step S104: Verify the identity information of the access subject and assign corresponding operation permissions, and intercept and handle unauthorized access in real time; Step S105: Implement end-to-end encryption for data transmission and storage, strictly control data decryption permissions, and prevent the risk of data leakage and tampering; Step S106: Regularly scan the system for security vulnerabilities, locate potential risk points, automatically generate risk assessment results, and push them to the handling unit; Step S107: Record the entire process of equipment operation and safety protection logs to achieve queryable and traceable management of all safety-related behaviors; Step S108: Monitor safety anomalies and equipment malfunctions in real time, quickly trigger alarms and execute automated handling to reduce losses from safety incidents; Step S109: Perform data and system backup operations regularly, and activate the recovery mechanism in case of equipment failure to ensure the continuous and stable operation of server services.

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