> For the complete documentation index, see [llms.txt](https://docs.naoxprotocol.com/llms.txt). Markdown versions of documentation pages are available by appending `.md` to page URLs; this page is available as [Markdown](https://docs.naoxprotocol.com/introduction/what-is-decentralized-trust-mesh.md). # What is Decentralized Trust Mesh? ## What Is A Decentralized CyberSecurity Trust Mesh? NaoX Protocol leverages Post Quantum cryptography and the Proof of Security consensus mechanism to create the world's first self-validating Decentralised CyberSecurity Mesh. The mesh protects digital devices, API connections, processes, operations and systems from cyber threats in real time, and enables shared proof of security information, restoring trust in digital systems and data quality from outside the classic perimeter.\ \ The always-on, self-learning mesh leverages the collective power of user, enterprise and government computer devices & networks that continuously validate the health, trust and integrity of every participating device and its operations, detecting cyber threats in real time under Proof of Security consensus. The mesh enables the secure and transparent exchange of cybersecurity data and proof of trust between multiple parties using advanced cryptography while preserving confidentiality, integrity and availability under zero-trust principles. Designed to significantly increase the cybersecurity and integrity of any enterprise, it enhances the classic security perimeter infrastructure, transforming it into a mesh of protective validator nodes that work in harmony to ensure a trusted and cyber-secure baseline for the whole multi party enterprise. Adopting a contrarian p2p design pattern to achieve higher levels of cybersecurity, NaoX Protocol converts centralized and untrusted single points of failure devices into decentralized cyber-trusted multiple points of defense that monitor, validate and report security posture data under blockchain consensus, in real-time making networks stronger as they grow instead of weaker. Reducing cyber unknowns by an order of magnitude, NaoX Protocol’s Decentralized Trust Mesh is designed to protect legacy Web2 networks as well as the entire multi-party Web3 stack.\ \ A revolutionary approach that provides provable and validated cyber-status information across multiple sharing environments for e.g. enterprise ecosystems, multi-partners networks, regulators, governments and auditors.\ \ Why Decentralized CyberSecurity Mesh?\ \ In 2022 Gartner identified the Cybersecurity Mesh as a top strategic technology moving forward“Cybersecurity mesh is a flexible, composable architecture that integrates widely distributed and disparate security services. Cybersecurity mesh enables best-of-breed, stand-alone security solutions to work together to improve overall security while moving control points closer to the assets they’re designed to protect. It can quickly and reliably verify identity, context and policy adherence across cloud and non cloud environments.\ \ NaoX Protocol’s Decentralized TrustMesh Architecture (dTMA) offers the flexibility to work with distributed enterprise and complex third-party working environments (like enterprise cloud operations) with the ability to share validated cyber-status that’s required to operate reliably.\ \ The mesh extends the zero trust architecture from access control, to assuring the data that enterprises rely is produced by measured and healthy systems. Today’s cybersecurity systems are designed for internal audit only and not for sharing proof of security and trust between ecosystem partners. NaoX Protocol’s Decentralized Trust Mesh powers multiple party environments: * Verifying devices complex privacy and security status * Validating critical security data from complex digital systems * Sharing the digital health proof between 3rd parties * Producing assured digital evidence for compliance and regulations Here are some key benefits of Decentralized CyberSecurity Mesh Architecture (dCSMA) **Reduces Cyber Risk by an Order of Magnitude** All device operations are secured under Proof of Security consensus and Decentralized AI in real time, protecting all Web2 & Web3 networks. **Complementary** Operates on an independent decentralized layer where cyber tools & solutions operate freely without competing with NaoX Protocol **Highly Scalable** Employing a Post-Quantum Layer-1 Blockchain and custom-built Proof of Security consensus, NaoX Protocol can record up to 1M TPS enabling a highly secure and truly scalable DePIN for cybersecurity and digital trust. **Increases Efficiencies** Automated architecture uses smart contracts and AI to detect cyber threats, not humans **Shared Proof of Compliance** Immutable shared proof of compliance ensures realtime alignment with global regulations like DORA & NIS2, GDPR, and ISO:27001 **Real Time Device Validation** NaoX Protocol monitors and detects vulnerabilities and risks on every device in real time, so my system is known and measured and my partner & ecosystem is known and measured **Security Blockchain for Web3** While blockchains are immutable, we don't know if data written to the chain was intended or correct at inception. In addition there is currently no way to know if a device that supports a blockchain node has been hacked or if the node is colluding with other nodes. NaoX Protocol provides real-time validated on-chain evidence of the quality of the transaction environment at the point data is created or consumed and the digital health of the devices serving the blockchain. **Reduces Costs** Negates cyber unknowns by an order of magnitude saving $B’s annually & reduces cost of audits to zero. --- # Agent Instructions This documentation is published with GitBook. GitBook is the documentation platform designed so that both humans and AI agents can read, navigate, and reason over technical content effectively. Learn more at gitbook.com. ## Querying This Documentation If you need additional information that is not directly available in this page, you can query the documentation dynamically by asking a question. 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