Security management and control method based on hardware-level full-area physical isolation

Abstract

The application discloses a security management and control method based on hardware-level full-area physical isolation, relies on a multi-directory tree core architecture, divides a management and control area through hardware global isolation, links a special multi-layer firewall composed of user input, an AI input door and an AI output mute door, and a multi-directory atomic jump, triggers physical layer hardware blocking in an abnormal situation, constructs an enterprise-level AI dead-angle-free security protection system, and is suitable for intelligent body and data management and control scenes with high compliance requirements.

Description

Technical Field

[0001] This invention relates to the field of enterprise-level AI data security and multi-directory tree physical isolation management technology, specifically a hardware-level full-area physical isolation AI multi-directory security management method. Background Technology

[0002] Existing data isolation methods mostly employ software-based logical isolation, without building a multi-directory tree hardware isolation system. The isolation mechanism is disconnected from multi-directory atomic jumps and dedicated multi-layer firewall architectures, with no physical layer linkage between multiple directories. This makes it unable to resist hardware-level attacks and cannot meet the needs of high-compliance scenarios such as finance and government. Summary of the Invention

[0003] We construct a hardware-level, full-domain security isolation system with multiple directory trees to achieve the linkage of physical isolation of multiple directories, dedicated multi-layer firewalls, and atomic jumps, thus solving the core problems of insufficient security of traditional software isolation and lack of unified management of multi-directory architecture. Technical solution

[0004] A security management method, based on a multi-directory tree architecture, employs hardware-level full-area physical isolation to divide security management zones; after verification by a dedicated multi-layer firewall, atomic jumps between multiple directories are performed; in the event of an anomaly, a physical layer global hardware block is triggered. The specific implementation of the dedicated multi-layer firewall in this invention is as follows: a user input-side firewall, an AI input gateway firewall, and an AI output gateway silent firewall; after verification, data is returned to the user. Beneficial effects

[0005] 1. Multiple directories and multiple layers of physical hardware isolation provide a high level of security protection; 2. Physical layer hardware blocking can effectively prevent unauthorized access between multiple directories; 3. The entire chain architecture is interconnected, adapting to the needs of AI agents and enterprise-level compliance. Detailed Implementation

[0006] The financial group uses a multi-directory tree architecture to divide security control zones into multiple hardware isolation zones. Searches within the same zone do not break the isolation boundary, while cross-zone searches are verified by a dedicated multi-layer firewall consisting of a user input side firewall, an AI input door firewall, and an AI output door silent firewall before performing atomic jumps to multiple directories. In case of an anomaly, the physical channel is cut off through a hardware relay to meet the relevant compliance requirements of the information security level protection system.

Claims

1. A safety management and control method, characterized in that, include: The security control zone is divided using hardware-level physical isolation across the entire area; After verification by a dedicated multi-layer firewall, an atomic jump across zones is executed; When an anomaly occurs, a global hardware block is triggered at the physical layer.

2. The method according to claim 1, characterized in that: The hardware-level full-area physical isolation includes multiple independent isolations of physical storage, power supply, computing power, and network.

3. The method according to claim 1, characterized in that: Within each security control zone, the atomic-level directory partition physical layer has no resource reuse and no data exchange channel.

4. The method according to claim 1, characterized in that: Searching within the same area does not exceed the physical boundary of the security control zone.

5. The method according to claim 1, characterized in that: The global hardware blocking refers to the physical layer channel cutoff executed by the dedicated hardware relay of the control zone.

6. The method according to claim 1, characterized in that: If a cross-region atomic jump fails, the entire process will be rolled back without disrupting the physical isolation state.