FPGA Security Controller for Trusted Traffic Packet Switching
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Solution Overview
Problem
Existing cybersecurity systems lack integrated security solutions for containerization and virtualization, leading to inefficiencies in securing traditional IT architectures and systems, particularly in compact platforms.
Innovation Solution
A hardware security controller (HSC) and software security controller (SSC) integrated into a field programmable gate array (FPGA) system, which manages traffic packets by inspecting and comparing application component features with stored inventories to perform operations such as routing, rerouting, and authorization, utilizing decision-making modules for trusted switching and encryption.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If security functions are performed individually in traditional IT architectures, then each security component can be implemented with dedicated hardware, but the system becomes complex and difficult to integrate in compact platforms
Solution Approach 1:
The patent combines multiple individual security functions (intrusion detection, encryption, authentication, firewall) into a single integrated security controller device. This consolidation reduces system complexity in compact platforms while maintaining the reliability of each security function through dedicated hardware implementation within the unified device.
Solution Approach 2:
The security controller is designed as a universal device that performs multiple security functions simultaneously - intrusion detection, encryption/decryption, authentication verification, and firewall operations. This multi-functional approach eliminates the need for separate dedicated hardware for each security function, reducing overall system complexity while maintaining comprehensive security coverage.
2Reliability
If multiple individual security solutions are deployed, then comprehensive security coverage is achieved, but the system size increases and becomes unsuitable for compact platforms
Solution Approach 1:
Multiple security functions are merged into a single physical security controller device, achieving comprehensive security coverage without increasing system volume. The device integrates intrusion detection, encryption, authentication, and firewall capabilities in one compact unit suitable for modern platform constraints.
Solution Approach 2:
The security controller employs a nested architecture where multiple security function modules are contained within a single controller device. Each security function (intrusion detection module, encryption module, authentication module) is nested within the unified controller structure, achieving comprehensive coverage in a compact form factor.
3Device complexity
If security functions are integrated into a single controller, then system complexity is reduced for compact platforms, but the controller must handle multiple security operations simultaneously increasing processing demands
Solution Approach 1:
The security controller is segmented into distinct functional modules - intrusion detection module, encryption module, authentication module, and firewall module. Each module handles specific security operations independently, reducing the processing burden on any single component while maintaining comprehensive security functionality within the unified controller.
Solution Approach 2:
The security controller acts as an intermediary device between the network interface and the system core, handling all security operations at a single point. This mediator approach consolidates processing demands in one location rather than distributing security checks throughout the system, reducing overall complexity while managing processing requirements centrally.
Data Source
AI summary
Embodiments provide a system for managing traffic packets of application components. The system includes a security controller. The security controller may be coupled to a plurality of application components. The security controller includes one or more memories and a plurality of processors. The one or more memories are operable to store a set of application components features of each application component of the plurality of application components. The processors may be coupled with the memories and a processor may be configured to perform one or more steps. The processor receives traffic packets from a set of the plurality of application components coupled to the security controller. The processor receives traffic packets from a set of the plurality of application components coupled to the security controller.