# Knowledge Base Welcome to NaoX Protocol's knowledge base. Here you can find all the informations about our protocol and how it will change Cyber Security as we know it. ## Quick links {% content-ref url="/pages/4m3t3FQpaeDJEytVAacj" %} [Introduction](/naoris-protocol/introduction/what-is-naox-protocol) {% endcontent-ref %} {% content-ref url="/pages/LWOf9w5mZe1Y1yY8eSc7" %} [Testnets](/naoris-protocol/testnets/post-quantum-depin-testnet) {% endcontent-ref %} {% content-ref url="/pages/XtJxT9gJ0jrmwuIcrnYB" %} [Technical Guide](/naoris-protocol/technical-guide/how-does-naox-protocol-work) {% endcontent-ref %} {% content-ref url="/pages/XT38xpzLWavJX4OydyON" %} [Supports](/naoris-protocol/supports/terms-and-conditions) {% endcontent-ref %} ### Separateness notice NDSE Cyber Ltd, the operator of this website and issuer of the $NAORIS token, and Naoris Quantum Protocol Inc. are separate and independent legal entities. This website, the $NAORIS token, and the products and services offered on it are provided by NDSE Cyber Ltd, and not by Naoris Quantum Protocol Inc. The $NAORIS token is not a security of, and is not offered or sold by, Naoris Quantum Protocol Inc., and nothing on this website constitutes an offer of any securities of Naoris Quantum Protocol Inc. # What is NaoX Protocol? ## Decentralized Post-Quantum Infrastructure ## Mission NaoX Protocol’s mission is to secure global digital systems through provable trust, quantum-resilient infrastructure, and real-time validation, building a foundation for a decentralized, secure and scalable Internet. ## About NaoX Protocol NaoX Protocol is the world’s first Decentralized Post-Quantum Infrastructure, designed to secure digital trust from the ground up, across Web2 and Web3. It operates at the Sub-Zero Layer, beneath traditional blockchain layers (L0, L1, L2), acting as the trust and security fabric for the modern internet. The architecture integrates with — not competes with — existing blockchains, cloud infrastructure, and devices, providing real-time validation and cyber-integrity for every transaction, node, and system. At its core, NaoX Protocol unifies: * Post-Quantum Cryptography which is aligned with [NIST](https://www.nist.gov/news-events/news/2024/08/nist-releases-first-3-finalized-post-quantum-encryption-standards), [NATO](https://www.nato.int/cps/en/natohq/news_221601.htm), & [ETSI](https://www.etsi.org/newsroom/news/1981-2021-10-etsi-releases-two-technical-reports-to-support-us-nist-standards-for-post-quantum-cryptography) standards * Proof of Security consensus: A custom built decentralized consensus that validates the cyber-health of devices and transactions Together, these components power a Decentralized Trust Mesh — a global "security hive mind" where every connected device becomes a self-defending validator node, incentivized and rewarded for contributing to collective trust and cybersecurity. ## Why NaoX Protocol? Traditional cybersecurity solutions are failing to keep up with the complexity of our hyper-connected digital world, which currently stands at over [50 billion online devices](https://www.researchgate.net/figure/The-Internet-of-Things-users-in-billions-Info-graphic-The-Connectives-based-on-Cisco_fig1_335136634). NaoX Protocol enables the transition from traditional enterprise based isolated castles to incentivized community computing models, that provide a new cybersecurity paradigm, designed to scale and secure the digital world of the future. The current risk of systemic cybersecurity failure cannot be solved by a traditionally framed company, as the company itself could become a single point of failure. Here are some key reasons to choose NaoX Protocol. ### Unstoppable It is always on, devices and networks can adopt it or abandon it, but it carries on. ### Permissionless Users and builders cannot be de-platformed, it's censorship resistant and accessible by anyone. ### Minimally Extractive Near zero fees reducing costs for validation and real time audits, creating new opportunities to measure any asset. ### Valuable Audited assets are more valuable than unaudited assets. Always on, continuous validation of the environment means all associated assets are producing high quality data. ### Expansive It has built-in incentives for users to behave fairly and for builders to build on top of it. ### Positive Sum The more users, the more valuable the results, a win-win for all participants. Network effects contribute dramatically to the value of measured assets and the higher quality data they produce. # 🚀 Post-Quantum DePIN Testnet Growth A New Benchmark in Decentralized Security ### A Quantum-Ready Testnet, Live and Scaling On January 31, 2025, NaoX Protocol launched the world’s first Post-Quantum DePIN Testnet — a live, production-grade infrastructure designed to secure the digital world at scale. Built from the ground up with quantum-resilient architecture, the testnet serves as a real-world validation of NaoX Protocol’s SubZero Layer and Proof of Security consensus — each contributing to its security mesh’s self-healing, real-time cyber defense model. The testnet isn’t theoretical. It’s operational, and its numbers reflect unprecedented traction across security, decentralization, and performance. ### Testnet Stats after 30 Days In one month, the testnet achieved: * **14M+ Post-Quantum Transactions Processed**\ – NaoX is the first blockchain to process PQ transactions at scale.
* **1.1M+ Wallets Created**\ – A rate outpacing what most major chains achieved in their first year.
* **440K+ Security Nodes Activated**\ – The largest decentralized security mesh launched to date.
* **133M+ \*Threats Mitigated**\ – Outpacing traditional centralized cybersecurity providers in detection volume.\ \ \&#xNAN;*\*Decentralized Browser Security Node Use Case - Malware, Ads, Trackers, Browser Threats & Vulnerabilities* These results are not simulations. They are on-chain, measurable, and reflect operational resilience under real-world conditions. ### A First-Mover Advantage Compared to traditional Web3 and cybersecurity players, NaoX Protocol is demonstrating production-level performance with an architecture fundamentally different from legacy models. For instance, while Microsoft mitigated \~90M threats in the same timeframe, NaoX more than doubled that — all through decentralized mechanisms. No other blockchain currently processes post-quantum transactions, giving NaoX Protocol a clear lead in post-quantum readiness ahead of Q-Day. ### How the Protocol Enables Scale These performance benchmarks are enabled by NaoX Protocol’s native innovations: * [SubZero Layer](https://knowledgebase.naorisprotocol.com/naoris-protocol/introduction/what-is-a-post-quantum-sub-zero-blockchain): A foundational layer below L0 for real-time, cross-infrastructure trust. * [Proof of Security consensus](https://knowledgebase.naorisprotocol.com/naoris-protocol/technical-guide/dposec-consensus-mechanism): Every node must prove its own integrity — not just validate blocks. This architecture is designed not only for blockchain compatibility, but also to integrate with enterprise Web2 infrastructure — forming a single mesh of decentralized trust. ### Why This Matters As quantum computing advances and centralized systems continue to fail at scale, NaoX Protocol’s testnet demonstrates a viable, production-grade alternative. It offers enterprise-ready, blockchain-native cybersecurity that works now — with no need for hard forks, wallet migrations, or degraded performance. ### Explore the Testnet * [View Testnet Website](https://naorisprotocol.network/testnet) * [View Testnet Explorer](https://naorisprotocol.network/explorer/) * [Visit NaorisProtocol.com](https://www.naorisprotocol.com/)
# What is a Post-Quantum, Sub Zero Blockchain? ### The Sub-Zero Layer: The Invisible Bedrock of Digital Trust NaoX Protocol’s Post-Quantum, Sub-Zero Blockchain introduces a foundational layer of trust and security designed to operate beneath and across traditional blockchain layers (L0, L1, L2) while also extending into Web2 systems like cloud, edge, and IoT infrastructure. It’s not a Layer 1. It’s not a Layer 0. It’s below and beside both — a pioneering, decentralized infrastructure that integrates seamlessly into existing stacks without competing or replacing them. This Sub-Zero Layer reinforces the entire digital architecture by embedding real-time, post-quantum, and decentralized trust validation at the base of every system. ### A New Infrastructure Category The Sub-Zero Layer is NaoX Protocol’s response to a rapidly evolving threat landscape — quantum computing, AI-driven cyberattacks, and Web2/Web3 architectural flaws. It’s defined by three core design principles: * Quantum-Resilient by Design\ Built with Dilithium signatures and Key Encapsulation Mechanisms (KEMs) aligned with NIST, NATO, and ETSI standards — ready for Q-Day. * Proof of Security Consensus\ A Decentralized Proof-of-Security system that continuously audits device health and cyber integrity across all participating nodes. * Scalable, Positive-Sum Infrastructure\ Capable of 1M+ TPS, the Sub-Zero Layer is a modular, composable trust layer — a “positive-sum” addition to L0/L1 ecosystems, not a rival. #### Underpinning Layer 0 and Layer 1 Chains The Sub-Zero Layer enhances existing blockchain layers without disrupting their functionality: * Layer 0 (e.g. Cosmos, Polkadot)\ NaoX fortifies interoperability networks by ensuring connected chains are validated in real time against quantum-era threats. * Layer 1 (e.g. Ethereum, Bitcoin)\ The protocol overlays additional quantum-secure validation onto nodes, bridges, and smart contracts — without requiring forks or downtime. This means both interoperability (L0) and transactional integrity (L1) benefit from continuous cyber-validation, ensuring systemic security at every level.

NaoX Protocol Sub-Zero Layer

### For Web3: Trust Infrastructure, Not a Competitor The Sub-Zero Layer acts as quantum-secure middleware for Web3: * Instantly integrates with EVM-compatible chains * Offers quantum-safe signing, validator scoring, and compliance verification * Secures DEXes, bridges, oracles, and smart contracts * Incentivizes participation with the $NAORIS token — each node is rewarded for passing real-time security checks Web3 builders don’t need to modify their consensus or migrate wallets — they can simply adopt NaoX Protocol to gain future-proof security, without compromising composability or performance. ### For Web2: Security Mesh at Scale The Sub-Zero Layer transforms traditional “castle wall” cybersecurity models into distributed trust systems, flipping centralized defense on its head. * IoT, 5G, cloud APIs, and devices are continuously validated * Every endpoint becomes a security node * Threat detection and response becomes autonomous and real-time * Compliance, privacy, and uptime are enforced cryptographically, not through policy This model allows enterprises to adopt a zero-trust architecture by design — without replacing legacy infrastructure.
# What Problems Does It Solve? As traditional cybersecurity can no longer maintain parity in the endless arms race between defenders and attackers, enterprise operations need to move outside the castle walls to a community model of computing. NaoX Protocol is purpose built for this transition; designed to strengthen cyber-trust in digital systems by flipping the model on its head through its innovative post-quantum blockchain & decentralized AI based solution. that directly and address the key issues. ### Quantum Computing & Q-Day Quantum computers pose a significant threat to current cryptographic algorithms and standard encryption methods, particularly asymmetric public key cryptography, due to their ability to solve complex mathematical problems much faster than classical computers. * This capability could render existing encryption methods vulnerable to being broken * Potential security compromise of sensitive global data and communications Solution NaoX Protocol utilizes quantum-resistant keys that make it possible to safeguard blockchains and networks against quantum computing threats, ensuring long-term data protection and maintaining the integrity of digital security infrastructures. ### Blockchain Transactions and Hard Forks Legacy blockchains face a looming crisis: the cryptographic algorithms securing their transactions are vulnerable to quantum attacks. Upgrading to quantum-safe cryptography sounds simple — but in reality, it’s one of the most disruptive things a chain can attempt. That’s because cryptography is hardcoded into every layer of a blockchain — from wallets to consensus. Implementing quantum-resistant algorithms like Dilithium-5 requires a complete overhaul, usually through a hard fork. This kind of disruption doesn’t just risk fragmentation — it breaks liquidity, creates wrapped asset chaos, splits governance, and leaves DeFi protocols exposed during the transition. It’s why no major blockchain today has implemented post-quantum protections, despite the clear and present danger posed by emerging quantum computing capabilities. Solution **NaoX Protocol solves this by eliminating the need for hard forks entirely.** Instead of modifying the base layer of existing chains, it introduces Post-Quantum Signed Transactions (PQST) at the Layer 2 level — seamlessly processing and re-signing transactions using quantum-safe cryptography before returning them to the original chain. This “bolt-on” upgrade can be deployed on EVM-compatible chains in as little as 48 hours, securing transactions without disrupting wallets, smart contracts, or token liquidity. The NaoX Sub-Zero Layer acts as a post-quantum trust foundation, upgrading the entire ecosystem without forcing a painful chain split. As a result, blockchains can future-proof their infrastructure, avoid technical debt, and strengthen institutional trust — all while keeping existing apps and users fully operational. For a post-quantum world, NaoX provides the only upgrade path that protects by design, not disruption. ### Centralized Devices and Networks #### **Untrusted Devices & Networks** There is currently no way to trust centralized devices and networks that operate within other parties cybersecurity solutions. * Cybersecurity solutions are owned and governed by a single centralised entity. * There is no way to measure or prove that these devices and networks are operating the way they should or providing that high quality data to other systems and parties outside central control. Solution With NaoX Protocol all device and network operations are measured, validated and assured under the Proof of Security trust consensus mechanism, providing provable and trusted cybersecurity results that can be shared between multiple relying parties in real time e.g. ecosystem partners, regulators, auditors and government agencies #### **Single Points of Failure** Centralized cybersecurity solutions organize devices to act as siloed single points of failure\*\*\*\* * Devices are vulnerable to attacks and breaches by multiple adversaries * Centralized cloud services concentrate risk in one place that can be compromised * Centralized systems have weak endpoint detection and response to threats Solution Under Proof of Security consensus all devices become cyber-trusted decentralized validator nodes that validate each other against cyber risk in real time. This decentralized validator network eliminates the need to trust a single entity. NaoX Protocol is a zero trust data architecture tha is always validated, always measured, producing high quality data from known devices #### **Static 40-year-old Approach** Static and siloed defense mechanisms struggle to keep pace with global complexity and changes outside the enterprise security perimeter * Castle walls are crumbling old models do not meet the community computing needs. * Existing systems remain reactive rather than proactive lacking adaptability and scalability * Systems aren’t fast enough to meet diverse cyber threats & attack methods Solution Real-time secure validation of devices means threats are detected in milliseconds, reducing cyber unknowns by an order of magnitude. NaoX Protocol’s unique hybrid consensus mechanism combines proof-of-stake, verifiable computation, and state-of-the-art validator nodes to assure networks against attacks while maintaining efficiency and scalability. Devices and systems can now share data outside the enterprise perimeter because devices are known and measured #### **Long Breach Detection Time** As we move out beyond enterprise castle perimeters to operate anywhere, current centralized systems are too slow to react to breaches. It only takes one compromised device, where the attacker can change log files behind them, to traverse across the entire enterprise. * Current systems are too slow to cope with widely distributed 3rd party supplier systems * Attackers can operate undetected for a median of 21 days before detection * Breach detection can take lengthy periods to contain, average impact 277 days (IBM) Solution NaoX Protocol detects threats and cyber risks in real time, reducing cyber unknowns by an order of magnitude. Because NaoX Protocol is decentralized, always on and a continually validating zero trust architecture for computing resources, even if the entity NaoX Protocol fails, the integrity of the protocol continues. #### **Privacy Issues** There’s a lack of privacy safeguards for individuals and enterprises within current cybersecurity systems * Centralized cybersecurity systems store massive amounts of sensitive data making them prime targets for cyberattacks * Single point of failures if breached expose all data for individuals and businesses * Regional and global privacy regulations and compliance challenges become complex due to centralized systems Solution NaoX Protocol's decentralized nature means that it operates by default as an integrated confidentiality infrastructure that assures privacy and anonymity for individuals and corporate entities. Device identity and operations are assured in real time under blockchain consensus, providing provable and trusted assurance. meaning all data is protected and its source is known and validated #### IoT & Complexity The rise of IoT and the expansion of the enterprise to third parties outside the perimeter exceeds the capabilities of traditional security. * Organizations struggle to secure complex and disparate devices and multi vendor environments * Expanded attack surfaces as mobile and cloud move outside the single security perimeter * Loss of asset control and visibility by relying on multiple 3rd party security solutions * Security risks in shared environments due to complex third-party networks creating fragmented security Solution NaoX’s Decentralized Trust Mesh devices operate as decentralized, validated cyber trusted nodes under blockchain consensus, 24/7 always on. Providing each system with the assurance data needed to rely on services outside of the perimeter. Directly solving the problem of operating beyond traditional enterprise perimeters as castles become communities ### **Real Time Trust Between Multi Parties** Within ever growing global digital complexity, there is currently no way to validate the digital health of my 3rd party data sources, services or networks in real time * Lack of visibility into device-level security posture enables vulnerabilities * No way to continuously monitor device behavior and trust status * Mismanaged and poorly configured devices are easily compromised * Compromised devices create footholds for attackers to further infiltrate * Multiple relying parties need shared realtime trusted data. Solution NaoX Protocol provides provable immutable records of the digital health and integrity of the devices that create and consume data. Multiple partners can share access to provable digital health records from validated devices increasing information and asset value through digital proof and forensic evidence. When system health is known, information can be trusted. ### **Shared Compliance For Multi Parties** Multiple parties rely on critical security data from modern digital systems, but today’s cybersecurity systems are designed for internal audit only, not sharing compliance results * Centralized model insufficient for complex cloud & multi-party dependencies * No real time trust validation within a partner ecosystems * No real time shared proof of compliance between enterprise and regulators Solution NaoX Protocol’s always on, always operational, proof of trust system built on blockchain immutability, validates that devices and networks are operating as intended, producing high quality digital evidence for shared Proof of Compliance within IoT, AI, Zero Trust Systems, & Always On environments ### **Web3 Problems Inherited From Web2** #### **Issues From Web3** Web3 is built on a foundation of identity, shared services, reliance on API data from others and multiple technology stacks. The Web2 security paradigm of centralized access control within a secure perimeter does not fit this new paradigm. * Information on operational status and cybersecurity anomalies is hard to detect and even harder to share. * Web 3 adoption requires a new approach to deliver high quality data. As the perimeter melts away the tools used to secure acccess control and the perimeter no longer keep the enterprise safe and the reliability and quality of the data declines. Solution NaoX’s decentralized nature shifts physical infrastructure from centralized access models to decentralized identity structures, reducing dependence on singular authorities, enhancing resilience. Sharing of Cyber security results is powered by blockchain and the community economics of Token incentives to motivate individuals and companies to build the physical community infrastructure. NaoX Protocol is a leader in the Decentralized Physical Infrastructure (DePIN) sector #### **Web3 Device Threats Inherited From Web2** The current physical infrastructure that blockchains use as nodes is not known to be trusted. As we can't measure them , no-one knows if the node has been hacked, or if it is colluding with other nodes. Layer 1 blockchains use cryptographic principles for their security and protection, NaoX Protocol extends those principals to the devices themselves to create a dedicated and scalable DePIN for cybersecurity and trust. Currently, a majority of Web3 nodes operate on Web2 device architecture using centralized cybersecurity solutions, with no way to validate the cyber integrity of those devices. If AWS tomorrow said, we don't want Ethereum anymore, Ethereum would cease to exist. Here’s a list of device threats inherited by Web3: * Account Hijacking risks at the node, user, and exchange levels * API tampering risks * DOS/DDOS * Data corruption or tampering with oracles * Internal threats in exchanges, oracles, protocols, bridges * Update poisoning * Advanced Persistent Threat risks * Sniffing attacks, Key-logging attacks against wallets and servers of any kind * Evil maid attack through hardware or firmware tampering * Identity and Access Management vulnerabilities on nodes, users, oracles, bridges, servers * Malicious browser extensions * Service provider attacks on oracles, nodes, users Solution NaoX protocol secures the cyber integrity of all devices under blockchain consensus so Web3 devices can operate and communicate securely and safely, within a Decentalized Mesh. producing known data from known devices to any third party. NaoX Protocol assures that devices have decentalized identities are secure to communicate, and data can be relied on. ### Generative AI Models As with any powerful technology, Generative AI can be exploited by malicious actors to automate and advance their attacks. Generative AI could produce hyper-realistic content, AI-fabricated identities can bypass secure checks, forged legal or corporate documents and counterfeit digital signatures can be used for unauthorized transactions, posing a new risk to the cybersecurity landscape * Generative AI could be used to develop malware that can adapt its behavior on-the-fly to evade detection * Generative AI could craft highly customized spear-phishing emails that mimic legitimate communication, tricking the recipient to share sensitive info or clicking on a malicious link. * AI could be utilized to create botnets that can autonomously identify and attack targets, as well as adapt to defenses. This could make botnets even more resilient and harder to dismantle. * Generative AI can be used to create deep fake audio and video, impersonating trusted individuals to manipulate targets, trick facial recognition systems, or spread disinformation "As Generative AI becomes the skilled forger of the digital age, we stand on the precipice of an authenticity crisis. Our survival will hinge not on our ability to decipher these illusions, but on creating systems immune to their charm." David Holtzman, Former CTO of IBM, Creator of the DNS System and Chief of Strategy of NaoX Protocol Solution Unlike traditional Generative AI that often requires data centralization, NaoX Protocol is fully decentralized validating the hardware, device drivers, and processes that generate output. Therefore under the Proof of Security trust consensus, data can stay decentralized as the environment where AI consumes and creates data is fully measured and verifiable for its operational health. ### **Societal Problem** #### **Societal Problem: The Scale** Recent major cyberattacks have hit nuclear plants, hospitals, Infrastructure, energy, supply chains, IT, financial, crypto exchanges, government and military systems via partner systems. * Hacking on a corporate scale with hacking groups contracting independent actors * Insufficient Regulation/Compliance standards, adding to vulnerabilities * Geopolitical and National Security Implications implications of cyber threats * Most organizations fail at basic partner security management Solution NaoX Protocol’s mission is to restore cyber-trust in digital systems and data quality using Blockchain & AI validation methodologies to trust and verify devices and networks in real time reducing cyber unknowns by an order of magnitude #### **Financial Damage Problem** By 2025, yearly cybercrime damages will cost $10.5 trillion, up from $3 trillion in 2015, representing about 7% of forecasted global GDP * By 2025 the world’s cybercrime damages will be [$10 Trillion](https://cybersecurityventures.com/cybercrime-damage-costs-10-trillion-by-2025/) * The average cost of a data breach [$4.25 million](https://www.ibm.com/security/digital-assets/cost-data-breach-report/1Cost%20of%20a%20Data%20Breach%20Report%202020.pdf) * Global cybersecurity spend will be [$1.75 trillion](https://cybersecurityventures.com/cybersecurity-spending-2021-2025/) cumulatively for 2021 to 2025 * The Solar Winds hack will cost [$100 Billion](https://rollcall.com/2021/01/11/cleaning-up-solarwinds-hack-may-cost-as-much-as-100-billion/) to clean up * 2017 Equifax hack compromised private data of \[50% of the US population]\([https://www.cnet.com/tech/services-and-software/equifax-data-leak-hits-nearly-half-of-the-us-population/#:\~:text=Equifax said Thursday that thieves,US population of 323 million.)](https://www.cnet.com/tech/services-and-software/equifax-data-leak-hits-nearly-half-of-the-us-population/#:~:text=Equifax%20said%20Thursday%20that%20thieves,US%20population%20of%20323%20million.\)) * Username and password attacks increased [450% up from 2019](https://www.securitymagazine.com/gdpr-policy?url=https%3A%2F%2Fwww.securitymagazine.com%2Farticles%2F95403-surge-in-security-breaches-containing-usernames-and-passwords) * Total number of connected devices is set to exceed [50 billion](https://www.juniperresearch.com/press/iot-connections-to-grow-140pc-to-50-billion-2022) by 2022 * Axie Infinity’s Ronin suffers a [$625 Million](https://www.coindesk.com/tech/2022/03/29/axie-infinitys-ronin-network-suffers-625m-exploit/) hack * Current detection time for a reported breach is [280 days on average](https://securityboulevard.com/2021/03/280-days-to-fix-a-vulnerability-in-production/) * Data Visualization for the World’s [Largest Data Breaches](https://www.informationisbeautiful.net/visualizations/worlds-biggest-data-breaches-hacks/) Solution NaoX Protocol’s Decentralised Trust Mesh uses blockchain consensus to reduce cyber unknowns from partner infrastructure by an order of magnitude through real time, provable device status validation, reversing the current model. The growing Web3 DePIN sector will decentralize all digital architecture and services to address this problem. # Post-Quantum Security for Blockchain Transactions: Overview ### What Is NaoX Protocol and Why It Matters NaoX Protocol introduces **Post-Quantum Signed Transactions (PQST)** to protect blockchain systems from future quantum computing threats. Traditional cryptographic signatures like ECDSA (used in Ethereum and Bitcoin) could eventually be broken by quantum computers, making transactions vulnerable to forgery and theft. NaoX solves this by integrating **quantum-resistant cryptography (e.g., Dilithium-5)** through a **Layer 2 bolt-on upgrade** that requires no hard forks or disruption to liquidity or applications. Its **Sub-Zero Layer** operates beneath Layer 0 consensus to create a foundational security infrastructure. Once integrated at this level, **all upper layers (L1, L2, L3)** inherit its protection—securing everything from validator nodes and smart contracts to cross-chain bridges and DeFi apps. ### Key Benefits and Capabilities \- **Rapid Integration:** For EVM-compatible chains, NaoX offers 48-hour integration with minimal code changes. \- **No Hard Forks Required:** PQST is a “bolt-on” security upgrade that avoids the complexity and risk of forking. \- **Cross-Chain Flexibility:** While initially EVM-focused, SDKs for Rust (e.g., Solana) and Script (Bitcoin) are on the roadmap. \- **Comprehensive Protection:** Secures both transaction signatures and underlying infrastructure components using decentralized validation. \- **Performance Gains:** Adoption increases speed and resilience through distributed validator networks and efficient consensus. \- **Quantum Resilience as a Market Advantage:** Early adopters gain trust, regulatory readiness, and long-term institutional viability. ### Use Cases and Strategic Implications- \- **DeFi Security:** Protocols like AAVE can integrate PQST quickly, protecting smart contracts and financial transactions from quantum risks. **- Institutional Adoption:** NaoX eliminates a major blocker for institutions wary of blockchain’s long-term security. \- **Modular and Cross-Sector Integration:** Fits within modular blockchain stacks, enhances interoperability, and extends to Web2 infrastructure (e.g., IoT). \- **Investor ROI:** Drives demand for the native token through mandatory usage, fee generation, and cross-chain adoption incentives. **- Strategic Moat:** Provides a market moat via quantum security differentiation, much like TLS did for the internet. ### Bottom Line NaoX Protocol is a foundational security layer for the quantum age—scalable, fast, and ready now. # Protocol Quantum-Secure Blockchain Transactions FAQs Post-Quantum Cryptographic (PQC) Blockchain Transaction Integration FAQs ### What does "securing blockchains with PQST" mean in simple language? Post-Quantum Signed Transactions (PQST) provides a fundamental security layer that protects blockchain transactions against quantum computing threats. In simple terms, it means upgrading the cryptographic signatures that verify blockchain transactions to use algorithms that are resistant to attacks from quantum computers. Currently, most blockchains use cryptographic algorithms (like ECDSA in Bitcoin and Ethereum) that could be broken by sufficiently powerful quantum computers in the future. When a transaction occurs on a blockchain using PQST, it gets signed with post-quantum cryptographic algorithms (like Dilithium-5) that are designed to withstand quantum attacks. This provides a critical layer of protection, as transactions are the most vulnerable element in blockchain architecture - they're publicly visible on the ledger and their hash signatures could be broken by future quantum computers, potentially allowing attackers to forge transactions or steal assets. PQST doesn't just add security; it does so without disrupting the existing blockchain's operations or requiring a complete overhaul (hard fork) of the underlying system. It functions as a security enhancement layer that can be integrated with minimal friction. 🧠 TLDR: PQST means upgrading blockchain transaction signatures to use quantum-resistant cryptography, protecting the most vulnerable element of blockchain systems from future quantum computing attacks without disrupting the existing systems. ### Which chains (L1, L2, app layers) are the most realistic PQST adopters in the next 6-12 months? The most realistic adopters of Post-Quantum Signed Transactions in the near term (6-12 months) are EVM-compatible chains. From the conversation, Solana was specifically mentioned as a potential early adopter, as they're already conducting research in this direction. EVM-compatible chains present the path of least resistance for integration because: 1. The NaoX Protocol is already designed to work seamlessly with EVM architecture 2. Integration requires minimal modifications to existing infrastructure 3. These chains can leverage the ready-made integration tools that NaoX has developed While Polygon was mentioned in the conversation as an example, it's important to note that it might not be an actual target since Polygon itself is a Layer 2 solution that might compete with aspects of NaoX Protocol's functionality. For non-EVM chains like Solana or Bitcoin, adoption would be more complex and likely take longer, requiring the development of specific SDKs and libraries that support their native languages (like Rust). 🧠 TLDR: EVM-compatible chains are the most realistic near-term adopters, with Solana specifically mentioned as already working in this direction. The integration path is much clearer for EVM chains than for non-EVM architectures like Bitcoin. ### Prove that NaoX Protocol can be adopted without a hard fork or breaking liquidity? NaoX Protocol can be adopted without requiring a hard fork or breaking liquidity because it's designed as a layer that works alongside existing blockchain infrastructure rather than replacing it. This can be proven through: 1. Technical Architecture: NaoX functions as a Layer 2 solution for existing chains, processing transactions with post-quantum security and then returning them to the main chain. This "bolt-on" approach doesn't require fundamental changes to the underlying blockchain. 2. Test Results: Results from testnet implementations demonstrate that NaoX can be integrated with minimal disruption to existing operations. These tests show that transactions can be processed, signed with quantum-resistant cryptography, and returned to the main chain without breaking compatibility. 3. Seamless Wallet Integration: The protocol modifies how wallet signatures work by implementing Dilithium keys, but this happens at the application layer rather than requiring protocol-level changes to the blockchain itself. 4. Transaction Processing Flow: When integrated, transactions are sent to NaoX Protocol's L2, processed with post-quantum signatures, and then returned to the original chain's L1. This maintains the continuity of the original chain while adding security benefits. This approach ensures that existing liquidity pools, smart contracts, and assets continue to function normally while gaining the added security of post-quantum protection. 🧠 TLDR: NaoX Protocol operates as a complementary Layer 2 solution that processes transactions with quantum-resistant signatures without requiring changes to the underlying blockchain architecture, as demonstrated through testnet results and its transaction flow design. ### Explain the Sub-Zero Layer — and whether its security benefits are inherited by upper layers? The Sub-Zero Layer in NaoX Protocol serves as a foundational security infrastructure that underpins blockchain networks. Think of it as operating beneath the traditional Layer 0 (consensus layer) of blockchain architecture, hence "Sub-Zero." This layer provides decentralized trust and post-quantum cryptographic security that extends vertically through the entire blockchain stack: 1. Foundational Security: By securing the most fundamental level of blockchain operations with post-quantum cryptography, the Sub-Zero Layer creates a security substrate that supports all activities above it. 2. Vertical Integration: When a blockchain adopts NaoX Protocol's Sub-Zero Layer, all the layers above it (L1 consensus, L2 scaling solutions, L3 applications) inherit its security properties. This creates an end-to-end security model. 3. Infrastructure Protection: Beyond just transaction security, the Sub-Zero Layer secures the broader infrastructure, including nodes, validators, and physical network components using decentralized cybersecurity approaches. 4. Cross-Layer Verification: The security model allows for verification of integrity across different layers of the stack, ensuring that vulnerabilities in one layer don't compromise the security of the entire system. When a chain adopts NaoX at the infrastructure level (rather than just for transaction signing), all of its upper layers automatically benefit from this security foundation. This means dApps, DeFi protocols, and user applications gain post-quantum security without having to individually implement it. 🧠 TLDR: The Sub-Zero Layer operates beneath traditional blockchain architecture, providing foundational post-quantum security that automatically extends to all upper layers (L1, L2, L3) when adopted. This creates a comprehensive security model that protects the entire blockchain stack. ### What happens in the most bullish scenario — if Ethereum, Solana, Chainlink, etc., all adopt NaoX? In the most bullish scenario where major blockchain platforms like Ethereum, Solana, and Chainlink all adopt NaoX Protocol, we would see a fundamental transformation of the blockchain ecosystem's security posture and capabilities. The key outcomes would include: 1. Quantum-Resistant Ecosystem: The entire blockchain space would become resilient against quantum computing threats, removing one of the major existential risks facing cryptocurrency and blockchain technology. 2. Cross-Chain Security Standard: NaoX would establish itself as the de facto security standard across multiple blockchains, creating a unified security layer across otherwise fragmented ecosystems. 3. Token Value Growth: The NaoX token would see significant demand growth, as all transactions across these major networks would require the token for operation, leading to substantial price appreciation. 4. Enhanced Validator Network: The scale and distribution of the NaoX validator network would expand dramatically, further strengthening the security model while increasing decentralization. 5. Accelerated Innovation: With quantum security concerns addressed, the broader blockchain ecosystem could focus on innovation in other areas like scalability, user experience, and new applications. 6. Institutional Adoption Catalyst: The removal of quantum security concerns would likely accelerate enterprise and institutional adoption of blockchain technology across multiple sectors. 7. Network Effect: As more chains adopt the protocol, it becomes increasingly valuable for other chains to join, creating a powerful network effect that reinforces NaoX Protocol's position. This scenario would represent not just a business success for NaoX, but a critical advancement for the entire blockchain industry's security model and long-term viability. 🧠 TLDR: If major blockchains adopt NaoX, we'd see the emergence of a quantum-resistant blockchain ecosystem with NaoX as the security standard, driving token value, expanding the validator network, accelerating institutional adoption, and creating a powerful network effect that strengthens the entire blockchain industry. ### Which EVM chains or protocols should will be targeted first for PQST integration? Based on the conversation, the most strategic EVM-compatible chains to target first for Post-Quantum Signed Transactions integration are: 1. Polygon: Mentioned specifically in the conversation as a potential candidate due to its widespread adoption and EVM compatibility. However, there's recognition that as a Layer 2 solution itself, there could be competitive overlap. 2. Other EVM-Compatible L1 Chains: Chains that use the Ethereum Virtual Machine but aren't direct competitors to NaoX Protocol's Layer 2 functionality would be ideal first targets. 3. DeFi-Focused Chains: Given the conversation's emphasis on protecting financial protocols (with AAVE mentioned specifically), EVM chains with significant DeFi ecosystems should be prioritized. The targeting strategy should consider: * Technical Compatibility: How easily the integration can be accomplished with minimal changes * Security Needs: Chains handling higher value transactions have more urgent security requirements * Growth Potential: Emerging chains that could benefit from post-quantum security as a competitive advantage * Implementation Timeline: Chains that can integrate quickly (within the "48 hours" timeframe mentioned for compatible chains) The approach would involve creating "ready-made plugs" for shortlisted chains, allowing for rapid integration within 48 hours for the most compatible ones, and customization options for others with integration timelines of 2-3 weeks. 🧠 TLDR: Target EVM-compatible L1 chains first, especially those with significant DeFi ecosystems. Create ready-made integration packages for the most compatible chains allowing for 48-hour deployment, while offering customization options for others with slightly longer timelines.\
### Why is securing transactions more urgent than securing wallets? Securing transactions is more urgent than securing wallets for several fundamental reasons: 1. Public Exposure: Transactions are publicly visible on the blockchain, while wallet private keys are (ideally) never exposed. This public nature makes transactions inherently more vulnerable to analysis and attacks. 2. Hash Vulnerability: Transaction signatures use cryptographic hashes that are theoretically vulnerable to quantum computing attacks. If these hashes are broken, the entire transaction history is compromised. 3. Replay Attack Risk: Without quantum-resistant signatures, attackers could potentially replay or forge transactions without needing access to the original wallet's private key. 4. Transaction Malleability: Vulnerable transaction signatures could allow attackers to modify transactions in transit, causing significant disruption even without compromising wallets. 5. Systemic Impact: Compromised transaction security affects the entire blockchain system and all its users simultaneously, whereas wallet compromises affect individual users. In the conversation, it was noted that transactions don't have the protection of private keys that wallets do. Transactions rely solely on their cryptographic signatures for security, making them the more vulnerable point in the system. Additionally, if transaction signatures are compromised, attackers could potentially repeat or alter transactions throughout the network, causing widespread disruption, even if individual wallets remain secure. 🧠 TLDR: Transactions are more urgent to secure because they're publicly exposed on the blockchain, rely solely on potentially vulnerable cryptographic signatures, and if compromised would affect the entire system simultaneously. Wallets have an additional layer of protection through private key security. ### Can PQST be described as a "bolt-on" upgrade — or does it require deeper integration? Based on the conversation, Post-Quantum Signed Transactions (PQST) can indeed be described as a "bolt-on" upgrade for EVM-compatible chains, though with some nuance: For EVM-compatible chains: 1. NaoX Protocol becomes an L2 layer that processes transactions with post-quantum security 2. The existing chain offloads transaction processing to NaoX Protocol's L2 3. Transactions return to the original chain with post-quantum signatures 4. This requires minimal changes to the core blockchain architecture 5. The integration can be accomplished quickly (mentioned as 48 hours for fully compatible chains) As stated in the conversation: "If they want to use us and they are EVM compliant, we will allow them to use our 3K path where we can provide them. So we will become an L2 for them." For non-EVM chains: * More substantial work is required * Custom SDKs need to be developed (particularly for Rust-based chains) * This is not a simple "bolt-on" process and requires deeper integration efforts The integration process depends on the level of compatibility: * For "shortlisted" (fully compatible) chains: 48-hour integration possible * For partially compatible chains: 2-3 week customization timeline * For non-compatible chains: longer development cycles with custom SDKs 🧠 TLDR: For EVM-compatible chains, PQST can accurately be described as a "bolt-on" upgrade that requires minimal changes to core architecture and can be implemented quickly. For non-EVM chains, deeper integration with custom SDK development is necessary, making it less of a simple "bolt-on" solution. ### What does a "seamless adoption" of NaoX Protocol by another chain actually look like? A "seamless adoption" of NaoX Protocol by another blockchain has different implementation paths depending on the chain's compatibility level: For Fully Compatible Chains (EVM-compatible with inbuilt support): 1. Rapid Integration: Implementation within 48 hours using ready-made integration packages 2. Wallet Adaptation: Wallets begin using Dilithium-5 keys for transaction signing 3. Transaction Flow: Transactions are sent to NaoX L2, processed with post-quantum signatures, and returned to the original chain 4. Validator Integration: The chain's validators are configured to recognize and verify post-quantum signatures 5. Minimal End-User Impact: Users continue using the same applications with enhanced security, noticing little to no change in their experience For Chains Requiring Customization: 1. 2-3 Week Integration: A customization period where NaoX adapts its protocols to the chain's specific architecture 2. Small Code Extensions: Addition of small code extensions to the chain's Virtual Machine 3. Custom Integration Points: Development of specific connectors between the chain and NaoX Protocol For Developer-Heavy Integrations: * More substantial development work in partnership with the chain's team * Custom SDK creation for non-EVM architectures * Timeline of months rather than days or weeks As mentioned in the transcript: "At pointer one we will say that for inbuilt chain support... we will be giving this inbuilt support from day one. That can make it run together, say in... 48 hours or so. Because that means we are giving them the readymade plug for some of the team... Second, if we can, on the same level we can customize it for others within the duration of few weeks." 🧠 TLDR: Seamless adoption varies by compatibility level - fully compatible chains can integrate within 48 hours using ready-made solutions, chains requiring customization need 2-3 weeks for adaptations, and chains needing deep integration require longer development cycles. The most seamless path is for EVM-compatible chains using NaoX's pre-built integration packages. ### How will it be shown that adopting NaoX is easier than doing a hard fork? Demonstrating that adopting NaoX Protocol is easier than performing a hard fork involves highlighting several key advantages: 1. Preservation of Continuity: Integrating with NaoX maintains the chain's existing operations, transactions, and assets, avoiding the disruption and potential community splits that hard forks often cause. 2. Speed of Implementation: For compatible chains, integration can be completed in as little as 48 hours, compared to hard forks which typically require months of planning, testing, and coordination. 3. Risk Reduction: Hard forks create significant technical and community risks, including the possibility of bugs, exploits, and chain splits. NaoX integration is an additive process that doesn't touch the existing codebase. 4. Comprehensive Solution: As mentioned in the conversation, NaoX provides "the capabilities of everything, including security" in a single umbrella solution, rather than requiring chains to develop multiple features independently. 5. Development Resources: Implementing post-quantum security through a hard fork would require "years" of development work, as mentioned in the transcript, whereas NaoX has already built this technology. 6. Ecosystem Stability: Hard forks can disrupt DeFi protocols, wrapped assets, and cross-chain bridges, while NaoX integration maintains compatibility with the existing ecosystem. 7. Future-Proofing: The modular approach of NaoX allows for ongoing cryptographic updates without further hard forks, as mentioned: "People can use whatever they want. They can in fact scale it up according to their need." 🧠 TLDR: Adopting NaoX is easier than a hard fork because it preserves continuity, can be implemented in days rather than months, reduces technical risks, provides a comprehensive security solution, saves years of development work, maintains ecosystem stability, and future-proofs the blockchain against evolving cryptographic requirements. ### How does NaoX help solve the blockchain trilemma (scalability, speed, security)? NaoX Protocol helps blockchains address the traditional trilemma of scalability, speed, and security through several innovative approaches: Enhanced Security Without Sacrificing Performance: * Implements post-quantum cryptography without adding significant transaction overhead * Uses efficient proof-of-stake consensus that "requires least number of users to actually validate" * Employs "view shift" mechanisms to ensure rapid finalization while maintaining security Scalability Improvements: * Functions as a Layer 2 solution that can process transactions off the main chain, reducing congestion * Distributes validation across a diverse network of devices, from IoT to servers * Can scale horizontally as more validators join the network, actually improving performance with adoption Speed Optimization: * As mentioned in the conversation: "It will increase the speed... it will help to speed up the whole finalization process" * The random selection of validators ensures efficient processing without bottlenecks * Offloading cryptographic operations to the NaoX Layer 2 reduces computational burden on the main chain Addressing the Trilemma Through Architecture: * The sub-zero layer approach allows security to be handled at a foundational level, freeing up upper layers to focus on scalability and speed * "Proof of Security" consensus provides security guarantees with minimal overhead * Community-based expansion model ensures that growth in adoption actually strengthens security rather than weakening it The transcript specifically mentions that increased adoption "will help to be more resilient to bomb that side and it will help to speed up the whole finalization process" - indicating that unlike traditional blockchains where growth creates scaling problems, NaoX actually improves in performance as adoption increases. 🧠 TLDR: NaoX helps solve the blockchain trilemma by enhancing security through post-quantum cryptography while using efficient consensus mechanisms that improve speed and scalability. Its architecture separates security concerns to a foundational layer, and uniquely, the system becomes faster and more resilient as adoption increases rather than facing scaling challenges.
### How does PQST adoption affect DeFi protocols — and what's the risk of not adopting it? PQST adoption significantly impacts DeFi protocols in several ways, with considerable risks for those that don't adopt: Impacts on DeFi Protocols: 1. Enhanced Transaction Security: DeFi protocols process high-value financial transactions that become secured against quantum attacks, protecting users' assets and protocol treasuries. 2. Smart Contract Execution Protection: The integrity of smart contract execution is strengthened against potential cryptographic vulnerabilities that could be exploited by quantum computers. 3. Operational Continuity: Integration can be achieved without disrupting existing liquidity pools or lending positions, allowing protocols to upgrade security while maintaining operations. 4. Competitive Advantage: Early adopters gain a security-based market advantage that can attract security-conscious users and institutional capital. Risks of Non-Adoption: 1. Existential Security Threat: Without quantum-resistant signatures, DeFi protocols face an existential risk as quantum computing advances could potentially break their cryptographic foundations. 2. Asset Vulnerability: As mentioned in the transcript, "You are open to, you know, attacks and all those things that can exist there" - specifically putting user assets and protocol funds at risk. 3. Infrastructure Weakness: The transcript notes that "your infrastructure is also weak. And cryptographically you're also weak" - meaning both the blockchain and application layers are vulnerable. 4. Trust Erosion: "You cannot trust your operations" - suggesting that without quantum security, the fundamental trustworthiness of DeFi operations comes into question. 5. Potential Regulatory Concerns: As quantum computing advances, regulatory bodies may begin requiring quantum-resistant security for financial applications, putting non-compliant protocols at regulatory risk. 6. Capital Flight: As quantum computing progress accelerates, users may rapidly move assets from vulnerable protocols to secured ones, potentially causing liquidity crises. 🧠 TLDR: PQST adoption provides DeFi protocols with essential protection against quantum attacks without disrupting operations, while offering competitive advantages. Non-adoption exposes protocols to existential security threats, asset vulnerabilities, infrastructure weaknesses, trust erosion, potential regulatory issues, and the risk of sudden capital flight as quantum computing advances. ### What happens to DeFi lending, liquidity pools, and wrapped assets if a legacy chain hard forks? A hard fork of a legacy chain creates significant disruptions and complications for DeFi lending, liquidity pools, and wrapped assets: Impact on DeFi Lending: 1. Loan Fragmentation: Outstanding loans could be duplicated across both chains, creating confusion about which loans are valid 2. Collateral Uncertainty: Collateral assets might have different values on each chain, potentially leading to unexpected liquidations or solvency issues 3. Interest Rate Disruption: Oracle and interest rate mechanisms could function differently on each chain, causing unpredictable borrowing costs Impact on Liquidity Pools: 1. Split Liquidity: Total liquidity would be divided between the two chains, reducing market efficiency and increasing slippage 2. LP Token Complications: Liquidity provider tokens might not be recognized equally on both chains 3. Protocol Revenue Division: Fee collection mechanisms could be duplicated or broken, affecting protocol sustainability Impact on Wrapped Assets: 1. Peg Disruption: Wrapped assets could lose their peg to the underlying asset as verification mechanisms diverge 2. Cross-Chain Confusion: Assets wrapped on one chain might not be recognized or properly valued on the forked chain 3. Bridge Vulnerabilities: Cross-chain bridges would need to account for both versions of the chain, creating security vulnerabilities Broader Ecosystem Effects: * Smart Contract Divergence: Deployed contracts may behave differently on each chain * Oracle Inconsistencies: Price feeds and other oracle data might diverge between chains * Governance Splits: Protocol governance could split, leading to conflicting development paths By contrast, adopting NaoX Protocol avoids these issues by providing the security benefits that might motivate a hard fork, without actually requiring the fork itself. This maintains the continuity of all DeFi operations while enhancing their security posture. 🧠 TLDR: A legacy chain hard fork would cause severe disruption to DeFi ecosystems, including loan fragmentation, split liquidity, broken pegs for wrapped assets, and divided governance. These complications would threaten the stability and function of the entire DeFi ecosystem built on that chain, making NaoX Protocol's non-fork approach to quantum security significantly less disruptive. ### How does NaoX fit within the modular narrative — are we beneath, alongside, or beyond it? NaoX Protocol transcends the traditional modular blockchain narrative by operating at multiple levels of the stack: Understanding the Modular Narrative: The modular narrative refers to breaking blockchain architecture into specialized components (execution, settlement, consensus, data availability) rather than handling everything in a monolithic chain. This approach aims to optimize each component separately for better scalability and performance. NaoX in Relation to Modularity: 1. Beneath the Modular Stack: * NaoX operates at a "Sub-Zero" layer that underpins traditional blockchain architecture * It provides fundamental security infrastructure for other modular components * It creates a security foundation that supports all higher layers 2. Alongside the Modular Stack: * NaoX can secure individual modular components like execution layers, settlement layers, and data availability layers * It acts as a complementary security layer for any component of the modular ecosystem * It provides cross-component validation and verification
3. Beyond the Modular Narrative: * NaoX extends security beyond just blockchain components to physical infrastructure, IoT devices, and traditional systems * It introduces "decentralized cybersecurity as consensus" which is a paradigm shift rather than just another modular component * It creates security composability between blockchain and non-blockchain systems
As the transcript indicates when discussing infrastructure: "When you go and pitch them very first thing you need to understand is what they are compatible with." This highlights how NaoX adapts to work with various system architectures rather than being limited to a specific place in the modular stack. The most accurate positioning is that NaoX transcends the modular narrative - it's a meta-layer that can operate beneath, alongside, and beyond traditional modular blockchain architecture, providing comprehensive security across all components. 🧠 TLDR: NaoX Protocol exists beyond the traditional modular blockchain narrative by functioning as a meta-security layer that can operate beneath modular architecture (as a foundational substrate), alongside it (securing individual components), and beyond it (extending to non-blockchain systems). It represents a paradigm shift in how security is implemented across all systems rather than just fitting into the existing modular taxonomy. Technical Implementation for AAVE Integration The technical implementation process for integrating NaoX Protocol's post-quantum security layer with AAVE's existing smart contract infrastructure would follow these key steps:
1. **Wallet Integration:** * Modify AAVE's wallet connection interfaces to support Dilithium-5 keys * Wallet integrations would begin using post-quantum cryptographic key pairs for transaction signing * Users would still experience the same interface but with enhanced security underneath
2. **Transaction Processing Pipeline:** * Transactions initiated on AAVE would be routed to NaoX Protocol's L2 for processing * The L2 would apply post-quantum signatures to these transactions * Signed transactions would be returned to Ethereum (AAVE's underlying chain)
3. Smart Contract Adaptation: * Implement small extensions to AAVE's smart contracts to recognize and verify post-quantum signatures * Ensure that signature verification functions are compatible with the Dilithium-5 algorithm * Maintain backward compatibility with existing transactions
4. **Validator Configuration:** * Configure validators to validate transactions using the post-quantum cryptographic proofs * Implement the verification keys needed to authenticate these signatures
5. **Integration Timeline:** * For an EVM-compatible platform like AAVE, integration could be completed in approximately 48 hours using ready-made integration tools * Custom adaptations would add 2-3 weeks if needed for specific AAVE requirements As mentioned in the conversation: "When the wallets are connected, they use these public and private keys and then they sign this transaction... These transactions are sent to L2 where it will get processed and then submit back to L1." 🧠 TLDR: Integrating NaoX with AAVE would involve modifying wallet interfaces to support Dilithium-5 keys, routing transactions through NaoX L2 for post-quantum signing, adapting smart contracts to verify these signatures, and configuring validators accordingly. For an EVM-compatible platform like AAVE, this could be completed in as little as 48 hours using ready-made integration tools. ### How would real-time validation mechanisms protect against quantum-vulnerable cryptographic attacks while maintaining transaction throughput? NaoX Protocol's real-time validation mechanisms protect against quantum-vulnerable cryptographic attacks while maintaining transaction throughput through a sophisticated multi-layered approach:
1. **Post-Quantum Cryptographic Signatures:** * Transactions are signed using Dilithium-5 quantum-resistant algorithms * As explained in the transcript: "When you have the post quantum key attached to a transmission... the encryption that you are viewing on the screen is actually signed under that" * This makes it practically impossible to forge transactions even with quantum computing power
2. **Merkle Tree Protection:** * The transcript explains that "all merkle tree is generated using these keys. And if you need to compromise, then you need to compromise all the merkle tree that is composed of Dilithium five keys" * This creates a multi-layered cryptographic defense that requires breaking multiple signatures simultaneously 3. **Distributed Validation Architecture:** * Random selection of validators processes each transaction * The distributed nature means no single point of failure exists in the validation process * Increasing adoption actually improves performance rather than degrading it 4. Efficient Consensus Mechanism: * Uses a proof-of-stake variant that "requires least number of users to actually validate" * Employs view-shift technology to ensure finalization happens quickly * This maintains high throughput while preserving security guarantees 5. L2 Offloading: * By processing transactions on a Layer 2, NaoX reduces congestion on the main chain * This architectural approach maintains high throughput even with the additional cryptographic security The combination of these approaches ensures that even as post-quantum security is added to transactions, the validation process remains efficient enough to maintain high transaction throughput. 🧠 TLDR: NaoX protects against quantum attacks while maintaining throughput by using Dilithium-5 post-quantum signatures structured in Merkle trees, employing distributed validation across randomly selected validators, implementing efficient consensus mechanisms, and offloading processing to Layer 2. This multi-layered approach ensures strong security without sacrificing performance. ### How does NaoX Protocol's chain maintain performance when simultaneously securing multiple blockchains, apps, ecosystems as well as Web2 infrastructure? NaoX Protocol maintains high performance while securing multiple systems through several architectural innovations: 1. Distributed Processing Architecture: * Workload is distributed across a diverse network of validators * Random selection of validators prevents bottlenecks * As mentioned in the transcript: "Random selection of people" contributes to efficiency
2. Efficient Consensus Mechanism: * Uses a proof-of-stake variant that "requires \[the] least number of users to actually validate" * Employs "view shift" technology to ensure rapid finalization * This minimizes computational overhead while maintaining security
3. Scalable Validator Network: * Can run on diverse hardware from IoT devices to servers * Broad device compatibility allows for massive scaling of the validator network * "Community expansion" model means more users strengthen rather than strain the system
4. Adoption-Enhanced Performance: * Unlike traditional systems that slow down with increased usage, NaoX improves with adoption * As stated in the transcript: "It will increase the speed... it will help to speed up the whole finalization process" * More validators create greater redundancy and processing capacity
5. Layer 2 Optimization: * Operating as a Layer 2 solution allows for efficient processing outside main chains * Parallel processing capabilities handle multiple chains simultaneously * Specialized for cryptographic operations without other computational burdens This architecture ensures that as more blockchains, applications, and Web2 systems integrate with NaoX Protocol, the network actually becomes more robust and efficient rather than experiencing degraded performance. 🧠 TLDR: NaoX maintains performance across multiple systems through distributed processing across random validators, an efficient proof-of-stake consensus mechanism, a highly scalable and diverse validator network, performance that improves rather than degrades with adoption, and Layer 2 optimizations that enable parallel processing. This architecture allows it to secure many systems simultaneously with increasing efficiency. ### Is there a chance that NaoX Protocol itself becomes a centralization risk if other blockchains adopt it? NaoX Protocol is designed specifically to avoid becoming a centralization risk even with widespread adoption, and is much more analogous to TLS as a security standard than a centralized point of failure: 1. Decentralized Validator Network: * The protocol runs on a distributed network of validators across diverse hardware * As mentioned in the transcript: "It will never become the decentralized risk because it is based upon, you know, community expansion" * The validator network becomes more decentralized as adoption increases
2. Device Diversity: * The transcript mentions NaoX can run on "browsers, on IoT devices, on whatever and hardware and software" * This diversity prevents centralization around specific types of hardware or operators
3. Security Layer vs. Control Layer: * Like TLS for HTTP, NaoX provides standardized security without centralizing control * It secures transactions and infrastructure without taking governance authority
4. Cryptographic Diversity: * The "bring your own cryptography" approach mentioned in the transcript allows chains to customize their security approach * This prevents dependency on a single cryptographic implementation
5. Strengthening with Scale: * The transcript states: "Having the chain come together will also allow NaoX to expand its capability into all directions... it will become the strong point" * The system is designed to become more resilient as more chains adopt it The architecture ensures that even if many chains adopt NaoX Protocol, it functions as a security standard and infrastructure rather than a centralized control point, maintaining the autonomy and decentralization of individual chains while providing enhanced security. 🧠 TLDR: NaoX Protocol avoids becoming a centralization risk through its distributed validator network, device diversity, functioning as a security layer rather than control layer, cryptographic flexibility, and a design that becomes stronger and more decentralized with adoption. It's analogous to how TLS secures the web without centralizing control.\
### What impact from a capacity point of view is there as adoption increases? From a capacity perspective, NaoX Protocol is designed to scale positively as adoption increases, with several key aspects that enhance rather than constrain capacity: 1. Enhanced Processing Capacity: * As more users and systems adopt the protocol, the validator network expands * The transcript states that increased adoption "will increase the speed... it will help to speed up the whole finalization process" * More validators create greater redundancy and distributed processing power
2. Resilience to Network Stress: * The transcript mentions adoption will "help to be more resilient to bomb that side" * This suggests improved resistance to network congestion or attack vectors as the network grow 3. Distributed Load Balancing: * Random selection of validators ensures processing load is evenly distributed * No single point becomes a bottleneck even as transaction volume increases
4. Horizontal Scaling: * The architecture allows for linear scaling as more validators join the network * Unlike traditional blockchain systems that face scalability challenges with growth
5. Multi-Device Support: * The ability to run validators on diverse hardware (from IoT to servers) enables massive scaling potential * This creates virtually unlimited capacity for growth without centralization This inverse relationship between adoption and performance constraints is a fundamental design advantage of NaoX Protocol, ensuring that it becomes more capable rather than less as adoption increases across multiple chains and ecosystems. 🧠 TLDR: As adoption of NaoX Protocol increases, capacity actually improves rather than degrades, with enhanced processing speed, greater resilience to network stress, better load balancing, horizontal scaling capabilities, and multi-device support creating a system that becomes stronger and faster with wider usage.\
### Cross Chain Compatibility: What specific technical adaptations would be required for implementing NaoX Protocol's post-quantum security layer on non-EVM chains like Bitcoin or Solana? Implementing NaoX Protocol's post-quantum security layer on non-EVM chains like Bitcoin or Solana requires specific technical adaptations due to their distinct architectures: 1. Language-Specific SDKs: * The transcript specifically mentions: "We will be releasing... libraries to make the integration easy. But for now we are actually only compatible with EVM chains for quick adaptation" * For Solana and other Rust-based chains, Rust SDKs would need to be developed * For Bitcoin, adaptation for its Script language would be required
2. Signature Verification Mechanisms: * Each chain has unique approaches to transaction signature verification * Implementation would require adapting Dilithium-5 verification to work within these frameworks * Custom signature schemes compatible with each chain's consensus rules
3. Virtual Machine Integration: * Non-EVM chains have different virtual machines or execution environments * The protocol would need custom connectors for these environments * For example, Solana's SVM would require specific adaptations different from Bitcoin's approach
4. Consensus Protocol Adaptation: * Each chain has unique consensus mechanisms * NaoX would need to develop interfaces specific to these consensus mechanisms * Ensuring post-quantum signed transactions are properly validated within each chain's rules
5. Development Timeline: * As implied in the transcript, these adaptations would take longer than EVM integrations * Custom SDK development would be part of the longer-term roadmap * EVM chains remain the focus for "quick adaptation" in the near term The transcript makes clear that while technically feasible, non-EVM chain integration requires significant additional development: "If we want to operate on... on Rust, we need to have the Rust SDK exist for them." 🧠 TLDR: Implementing NaoX Protocol on non-EVM chains requires developing language-specific SDKs (particularly Rust for Solana), adapting signature verification mechanisms to each chain's architecture, creating custom integrations for different virtual machines, adapting to diverse consensus protocols, and following a longer development timeline than EVM integrations. ### Are there fundamental blockchain architectures that cannot currently integrate with your technology, and what roadmap exists for expanding cross-chain compatibility? There are certain blockchain architectures that cannot currently integrate with NaoX Protocol, with a clear roadmap for expanding compatibility: Currently Incompatible Architectures: 1. Legacy Go Implementations: * The transcript states: "Somebody who is actually using the legacy GO architectures will not use this" * Specifically, "old legacy chain running with go the early versions" are identified as permanently incompatible * These obsolete or never-updated implementations lack the necessary flexibility for integration
2. Rust-Based Chains: * Currently incompatible but planned for future support * "Anything that is exposed with Rust currently we are not compatible to them" * This includes chains like Solana that primarily use Rust\
3. Non-EVM Compatible Chains: * "If you are not EVM teams, you cannot... you are not comfortable with us currently" * This represents a current limitation rather than a permanent one
Roadmap for Expanding Compatibility: 1. SDK Development: * Development of language-specific SDKs is the primary strategy for expansion * "We can extend \[other chains] using SDKs" including Rust and other languages
2. Tiered Approach: * Focus on EVM chains first for "quick adaptation" * Next phase targeting Rust-based chains like Solana * Final phase addressing other architectures
3. Collaboration Model: * For chains without direct SDK support: "If like there are chains who can actually state the chain says okay, we can we are good to integrate your golang versions, then yes, they can integrate with us" * This suggests a collaborative development approach for non-standard architectures
4. Permanent Exclusions: * Only "backward compatible chains" and "obsolete" implementations that have never been updated are permanently incompatible * All modern, maintained chains have potential integration paths 🧠 TLDR: Currently, NaoX Protocol cannot integrate with legacy Go implementations that have never been updated (permanent incompatibility) and Rust-based chains like Solana (temporary limitation). The roadmap for expanding compatibility focuses on developing language-specific SDKs, following a tiered approach that prioritizes EVM chains first, then Rust chains, and finally other architectures through collaborative development.\
### When NaoX Protocol refers to 'adoption' by a given blockchain, how should we interpret that in practical terms? When NaoX Protocol refers to "adoption" by a blockchain, it can be interpreted in two distinct but complementary ways, each with different practical implementations: Adoption at the Infrastructure Level (Sub-Zero Layer): 1. This represents deeper integration where NaoX secures the chain's fundamental infrastructure 2. It provides decentralized trust and security at the foundation of the blockchain 3. This approach secures nodes, validators, and the physical network components 4. As mentioned in the conversation: "You can integrate with us at your infrastructure level" 5. This implementation offers comprehensive security throughout the entire stack Adoption at the Transaction Level: 1. This more focused implementation secures transactions with post-quantum signatures 2. The chain offloads transaction processing to NaoX Protocol's L2 3. Transactions are returned with quantum-resistant signatures 4. This requires less modification to the existing chain 5. As stated in the transcript: "When we make us integrated with them then their wallets... will be using public and private key which is Dilithium-5 keys" Practical Implementation Path: The approach depends on the chain's compatibility and needs: * For EVM-compatible chains: both options are available with relatively straightforward implementation * For non-EVM chains: transaction-level adoption may be more feasible initially * As noted in the transcript: "When you go and pitch them very first thing you need to understand is what they are compatible with" Importantly, these approaches are not mutually exclusive. A chain can adopt both aspects, beginning with transaction security and later expanding to infrastructure-level protection, or implementing both simultaneously. 🧠 TLDR: "Adoption" can mean either infrastructure-level integration (Sub-Zero Layer) providing comprehensive security across the entire stack, transaction-level integration focusing on post-quantum signatures, or both. The practical implementation depends on the chain's compatibility, with EVM chains having simpler paths to adoption than non-EVM chains. Both approaches can be implemented separately or together.\
### Once a chain has adopted NaoX Protocol, what are the tangible benefits for the chain itself, and do these security or performance gains extend throughout the ecosystem? Once a blockchain adopts NaoX Protocol, it receives several tangible benefits that extend throughout its ecosystem: Tangible Benefits for the Chain: 1. Post-Quantum Security: * The most direct benefit is quantum-resistant security * As stated in the transcript: "They become post quantum enable\[d]" * This protects against both current and future quantum computing threats
2. Infrastructure Resilience: * The chain gains enhanced resilience against attacks and failures * The transcript confirms: "The infrastructure also will become more resilient, decentralized" * This reduces the risk of network outages or security breaches 3. Decentralization Enhancement: * The validator network becomes more distributed * Security decisions are no longer centralized with a few major validators * This improves the chain's overall decentralization profile
4. Performance Improvements: * Transaction processing becomes more efficient * The transcript notes adoption "will increase the speed... it will help to speed up the whole finalization process" * This improves user experience and network capacity
5. Cryptographic Flexibility: * The chain gains the ability to update cryptographic approaches without hard forks * As mentioned: "People can use whatever they want. They can in fact scale it up according to their need" * This future-proofs the blockchain against cryptographic advances
Extension Throughout the Ecosystem: When asked if security extends throughout the ecosystem, the transcript confirms: "If they opt as an infrastructure. Absolutely." This means: 1. Layer 2 solutions built on the chain inherit the same security benefits 2. Applications at Layer 3 gain quantum resistance without individual implementation 3. All ecosystem participants (DeFi protocols, dApps, users) benefit from the underlying security 4. Cross-chain bridges connected to the secured chain have enhanced security properties The vertical integration of security from the foundational layer upward ensures that the entire ecosystem built on the chain receives consistent protection. 🧠 TLDR: A chain adopting NaoX Protocol gains post-quantum security, infrastructure resilience, enhanced decentralization, performance improvements, and cryptographic flexibility. These benefits extend vertically throughout the entire ecosystem, including L2 networks, applications, and cross-chain bridges, creating comprehensive protection for all participants without requiring individual implementation at each level. ### What's the narrative to VCs who say, "Ethereum is already secure — why PQ now?" When VCs claim "Ethereum is already secure — why post-quantum now?", the most compelling narrative focuses on future-proofing essential infrastructure against imminent threats: Ethereum's Own Post-Quantum Research: * The transcript directly contradicts the premise: "That's not true. Ethereum is itself doing the research to be \[post-quantum]" * Ethereum's own research initiatives acknowledge the quantum threat, validating the need for solutions * This represents an opportunity to provide what Ethereum itself recognizes as necessary Timing and Implementation Advantage: * While quantum computers capable of breaking current cryptography aren't commercially available yet, the timeline is accelerating * Waiting until the threat is imminent creates vulnerability during the transition period * As cryptographic standards change, early movers gain both security and market advantages * "Store now, decrypt later" attacks mean sensitive data is already at risk Technical Superiority: * Ethereum's approach is more limited than NaoX Protocol's solution * The transcript notes: "Ethereum is actually trying to bring it from the perspective where they can only resolve the problem of the Dilithium. But what the way NaoX is approaching it is not bringing it as buy your own cryptography that make it possible to opt as you go" * This flexibility provides superior future-proofing compared to Ethereum's more rigid approach Critical Infrastructure Protection: * Ethereum increasingly supports essential financial and institutional systems * The risk profile of these applications demands proactive rather than reactive security * As Ethereum's importance grows, so does the incentive for sophisticated attackers Y2K Parallel: * The transcript suggests using the Y2K comparison: "A problem that is bigger than Y2K" * Like Y2K, addressing quantum vulnerability requires advance preparation * Unlike Y2K, the quantum threat is more fundamental to blockchain's core security model 🧠 TLDR: The narrative for VCs should emphasize that Ethereum itself is researching post-quantum solutions (acknowledging the threat), NaoX offers a timing and implementation advantage, provides technically superior flexibility through its "bring your own cryptography" approach, protects increasingly critical infrastructure before attacks occur, and represents a fundamental security challenge comparable to Y2K but with higher stakes. ### Can we frame quantum resilience as a market moat and not just a technical feature? Quantum resilience can indeed be framed as a significant market moat rather than merely a technical feature, creating sustainable competitive advantages: First-Mover Advantage in Quantum Security: * Early adopters gain reputation as security leaders * This positioning attracts security-conscious users and institutions * The market increasingly recognizes quantum resilience as a necessary feature Trust Premium in Financial Applications: * DeFi protocols and financial applications with quantum security can command premium valuations * Institutional investors will preferentially allocate capital to quantum-secured platforms * Consumer trust translates directly to higher TVL (Total Value Locked) Regulatory Compliance Positioning: * As quantum computing advances, regulatory requirements will likely emerge * Early adopters will be ahead of compliance curves * This reduces regulatory risk and associated costs Network Effects Through Security Standards: * As adoption increases, NaoX Protocol can establish de facto security standards * This creates significant barriers to entry for competitors * The value of the security network increases with each additional participant Technical Debt Avoidance: * Chains without quantum resilience accumulate security technical debt * The cost and complexity of implementation increases over time * Early movers avoid disruptive transitions later Insurance Against Catastrophic Risk: * Quantum security acts as insurance against existential threats * This risk management approach appeals to institutional investors * It represents responsible governance rather than just technical enhancement Competitive Differentiation: * In an increasingly crowded blockchain market, security becomes a key differentiator * Marketing quantum resilience creates clear positioning against competitors * The narrative shifts from performance metrics to fundamental security assurances The transcript suggests using this as a market term, indicating that quantum security should be presented as a strategic business advantage rather than merely a technical improvement. 🧠 TLDR: Quantum resilience creates a market moat through first-mover advantage, trust premium in financial applications, regulatory compliance positioning, network effects through security standards, technical debt avoidance, insurance against catastrophic risk, and clear competitive differentiation. These advantages translate to sustainable business value beyond the technical implementation. ### What's the investor ROI story to tell for protocols that adopt PQST early? The ROI story for early adopters of Post-Quantum Signed Transactions presents compelling value propositions across multiple dimensions: Short-Term ROI Elements: 1. Market Differentiation Premium: * Early adopters gain immediate differentiation in a crowded blockchain market * This translates to increased visibility, user adoption, and potential token value appreciation * Security-focused marketing attracts institutional interest previously hesitant about blockchain adoption
2. Institutional Adoption Acceleration: * The transcript notes: "Everybody needs it. Starting from critical infrastructure to supply chain management" * Early adoption opens doors to institutional partnerships previously blocked by security concerns * This brings larger capital flows and user bases to the protocol
3. Avoided Implementation Costs: * Implementing now is less expensive than emergency implementation later * Gradual integration is less disruptive than forced migration under threat * This represents significant cost savings compared to delayed adoption
Long-Term ROI Elements: 1. Market Share Protection: * When quantum threats materialize, users will rapidly migrate to secure protocols * Early adopters maintain their user base while potentially gaining refugees from vulnerable protocols * This protects existing market share while creating opportunities for expansion
2. Regulatory Compliance Advantage: * Future regulatory requirements for quantum security are likely * Early adopters will face lower compliance costs and disruption * This regulatory readiness translates to business continuity and avoided penalties
3. Technical Debt Avoidance: * Quantum-vulnerable protocols accumulate security technical debt * Early adopters avoid the "interest payments" on this debt through crisis management and emergency updates * This represents significant resource savings over time
4. Token Utility Enhancement: * For protocols integrating with NaoX, increased transaction volume increases token utility * As noted in the transcript, "If they opted as infrastructure or they operate as integration Both the level we have the token burning \[utilization]... it's a direct ROI" * This creates fundamental token value rather than speculative appreciation The ROI timeline can be presented as having both immediate benefits through differentiation and institutional adoption, and long-term protection against catastrophic risks that threaten unprepared protocols. 🧠 TLDR: Early adopters of PQST gain short-term ROI through market differentiation premium, institutional adoption acceleration, and avoided implementation costs. Long-term ROI comes from market share protection during quantum transitions, regulatory compliance advantages, technical debt avoidance, and fundamental token utility enhancement. This creates both ### What's the best visual/analogy to make the value of PQST adoption instantly click with non-technical audiences? The best visual/analogy to communicate the value of PQST adoption to non-technical audiences draws on the Y2K parallel suggested in the transcript, but with enhanced clarity and urgency: The Quantum Deadbolt Analogy: "Imagine your blockchain is a house where you store all your valuable assets. Current blockchain security is like having a standard door lock—it works fine against conventional threats. But quantum computing is like a master key being developed that will eventually open any standard lock. Post-Quantum Signed Transactions are like installing a completely new deadbolt system that's immune to these master keys. The critical part is this: you need to install this deadbolt before the master keys become available on the black market. Those who wait until master keys are circulating will face a dangerous scenario—trying to change their locks while thieves are actively attempting to break in. Those who upgrade now can do so methodically, without the pressure of an imminent threat." The Digital Banking Vault Upgrade: "Think of blockchain security like bank vaults. When banks were first built, their vaults were considered unbreakable. Over time, criminal tools evolved, and banks had to continuously upgrade their security. Current blockchain cryptography is like a vault designed in the early digital age—strong against tools from that era, but not designed for quantum computing tools being developed now. Adopting PQST is like upgrading to a vault designed specifically to resist these next-generation tools before they become available. Banks that wait until new safecracking tools are on the market will be vulnerable during their upgrade process." The Y2K 2.0 Comparison: Building on the transcript's suggestion: "Y2K required massive infrastructure updates before a specific deadline. Companies that prepared early managed the transition smoothly, while those that waited faced higher costs and risks. Quantum computing presents a similar deadline-driven challenge, but with higher stakes. With Y2K, systems might fail; with quantum vulnerability, systems could be actively exploited. And unlike Y2K's fixed date, the quantum threat has an uncertain timeline—creating an even stronger case for early preparation." 🧠 TLDR: The most effective analogy for non-technical audiences is comparing PQST adoption to installing quantum-resistant deadbolts before master keys become available, upgrading bank vaults before new safecracking tools hit the market, or preparing for a Y2K-like deadline but with higher stakes and an uncertain timeline. These analogies emphasize the importance of proactive implementation before threats materialize.\
### How does NaoX's approach compare to Ethereum's or Solana's post-quantum roadmaps? NaoX Protocol's approach to post-quantum security differs significantly from Ethereum's and Solana's roadmaps in several key aspects: Fundamental Architectural Differences: 1. Cryptographic Flexibility vs. Fixed Solutions: * As highlighted in the transcript: "Ethereum is actually trying to bring it from the perspective where they can only resolve the problem of the Dilithium. But what the way NaoX is approaching it is not bringing it as buy your own cryptography" * NaoX offers cryptographic flexibility where "People can use whatever they want. They can in fact scale it up according to their need" * This allows adaptation to evolving threats without requiring additional hard forks
2. Implementation Approach: * Ethereum and Solana are pursuing internal development requiring eventual hard forks * NaoX offers an integration layer that doesn't require disrupting the existing blockchain * This represents a fundamental difference in implementation philosophy 3. Comprehensive Security vs. Signature Focus: * Ethereum and Solana focus primarily on transaction signatures * NaoX provides both transaction security and infrastructure protection through its Sub-Zero layer * This comprehensive approach addresses more attack vectors
Timeline and Readiness Differences: 1. Immediate Availability vs. Research Phase: * NaoX Protocol offers immediate integration capabilities * Ethereum and Solana are still in research and development phases * This creates a significant time-to-market advantage
2. Integration Speed * NaoX offers 48-hour implementation for compatible chains * Ethereum and Solana would require months of testing and a coordinated hard fork * This difference in deployment speed represents a critical advantage in responding to emerging threats
Ecosystem Impact: 1. Backward Compatibility: * NaoX ensures all existing smart contracts and DApps continue functioning * Hard fork approaches risk ecosystem fragmentation * This minimizes disruption to existing protocol operations
2. Cross-Chain Support: * NaoX can secure multiple chains simultaneously * Ethereum and Solana are developing solutions only for their own ecosystems * This creates efficiency for projects operating across multiple chains 🧠 TLDR: NaoX Protocol differs from Ethereum's and Solana's post-quantum approaches through its cryptographic flexibility ("bring your own cryptography"), non-disruptive integration without hard forks, comprehensive security beyond just signatures, immediate availability versus research stage, rapid 48-hour implementation versus months-long hard fork processes, guaranteed backward compatibility, and cross-chain support. These differences represent significant advantages in implementation speed, flexibility, and ecosystem protection.\
### What objections will builders or investors raise — and how to answer them? Based on the transcript, the primary objections from builders and investors will focus on implementation complexity and adoption barriers, with clear answers for each: Objection 1: Training and Understanding Barriers * As noted in the transcript: "Training. Training and understanding" are the biggest challenges * This reflects concerns about the learning curve for developers and users Answer: "We recognize this is new technology, which is why we've developed comprehensive onboarding resources. Our team provides direct implementation support, working alongside your developers to ensure smooth integration. We've designed the system to require minimal changes to your existing architecture, and created documentation specifically for different technical backgrounds. Most importantly, the user experience remains unchanged—all the complexity is handled behind the scenes." Objection 2: Integration Complexity * Implicit concern about how difficult integration would be, particularly for non-EVM chains Answer: "For EVM-compatible chains, integration can be completed in as little as 48 hours using our ready-made integration tools. For customized requirements, our typical timeline is 2-3 weeks. We've intentionally designed our system to minimize disruption to your existing operations. The majority of the complexity is managed within our Layer 2, requiring only small extensions to your existing architecture. For non-EVM chains, we're developing specific SDKs to simplify integration." Objection 3: Premature Solution (Why Now?) * Skepticism about the timing and urgency of quantum security Answer: "Quantum computing progress is accelerating faster than predicted. While quantum computers capable of breaking current cryptography aren't commercially available yet, 'harvest now, decrypt later' attacks mean sensitive data transacted today could be compromised in the future. Additionally, implementation becomes significantly more complex and risky once threats are imminent. Ethereum itself is already investing in post-quantum research, recognizing this isn't a theoretical concern but a practical necessity for long-term viability." Objection 4: Cost-Benefit Ratio * Questions about whether the investment justifies the protection Answer: "The cost of implementation now is a fraction of the cost of emergency implementation under threat. Moreover, early adoption provides immediate business advantages through market differentiation, institutional trust, and regulatory readiness. When quantum threats materialize, there will be a rush to secure systems, creating capacity constraints and significantly higher costs. This is both insurance against existential risk and a strategic market advantage with clear ROI." 🧠 TLDR: Builders and investors will primarily object based on training/understanding barriers, integration complexity, perceived premature timing, and cost-benefit concerns. The answers focus on comprehensive support and documentation, simplified integration processes, the accelerating quantum threat timeline, and the dual value of security investment as both risk insurance and market advantage with clear ROI considerations.\
### How does NaoX show this is a big market opportunity — not just a technical feature? To demonstrate that post-quantum security represents a major market opportunity rather than merely a technical feature, we can frame it in terms of fundamental infrastructure needs and market dynamics: Existential Security Need, Not Optional Feature: * As noted in the transcript: "This is not technical. This is truth" and "Every algo that exists there till now is easy to break" * This positions quantum security as fundamental infrastructure rather than a feature enhancement * Similar to SSL/TLS for web security—not optional but essential infrastructure Parallels to Major Technology Transitions: * The Y2K comparison from the transcript highlights the scale of the opportunity * Like Y2K, this represents a mandatory upgrade across the entire ecosystem * Unlike Y2K, it offers ongoing security benefits rather than just crisis avoidance\
Total Addressable Market Dimensions: 1. All Existing Blockchain Protocols: * Every blockchain will eventually need quantum-resistant security * First-mover advantage in securing this market
2. Critical Infrastructure Protection: * The transcript mentions applications "starting from defense till banking" * Government, financial, and critical infrastructure sectors represent massive markets
3. Supply Chain Security: * The transcript specifically mentions "supply chain management" * Global supply chains increasingly rely on blockchain technology
4. Cross-Industry Applications: * "All DeFi applications DAP applications can adopt from day one" * This spans finance, healthcare, legal, governance, and numerous other sectors
Market Growth Drivers: 1. Institutional Adoption Blockers Removed: * Quantum security concerns have hindered institutional blockchain adoption * Solving this creates access to trillion-dollar institutional markets 2. Regulatory Requirements: * Future regulations will likely mandate quantum-resistant security * This creates a compliance-driven market beyond voluntary adoption
3. Insurance Requirements: * Financial and critical systems will face insurance mandates for quantum security * This creates another non-optional adoption driver 🧠 TLDR: This represents a major market opportunity because it's an existential security need rather than an optional feature, parallels major technological transitions like Y2K, addresses a total addressable market encompassing all blockchain protocols plus critical infrastructure and supply chain applications, and is driven by institutional adoption barriers, regulatory requirements, and insurance mandates—creating mandatory rather than optional demand.\
### What's the investor ROI story for PQST adoption by other chains? The investor ROI story for Post-Quantum Signed Transactions adoption by other chains centers on token economics, network effects, and market positioning: Direct Token Value Drivers: 1. Transaction Fee Generation: * As noted in the transcript: "Every transition that come to the chain on our side will... utilize knowledge token" * Each transaction processed through NaoX generates fees in the native token * This creates direct, measurable value accrual to token holders
2. Required Token Holdings: * "If you do want to do a transaction, you need to hold not a spoken" * This creates fundamental demand for the token beyond speculation * Increased adoption directly increases token demand
3. Network Growth Mechanism: * "If it comes from integration environment there is a swap that does this. If it is directly on our chain, it is direct token that they are holding in their wallet" * Both integration approaches drive token utilization
Indirect Value Creation: 1. Network Effect Acceleration: * Each new chain adoption increases the value proposition for subsequent chains * This creates exponential rather than linear growth potential * Network effects create sustainable competitive advantages
2. First-Mover Market Premium: * Early establishment as the quantum security standard creates brand premium * This positioning translates to valuation multiples beyond utility value 3. Cross-Chain Positioning: * Securing multiple chains creates unique market positioning * This cross-ecosystem presence represents strategic value beyond any single chain
Long-Term Value Stability: 1. Essential Infrastructure Status: * Post-quantum security becomes mandatory rather than optional * This creates stable, predictable demand unlike speculative use cases
2. Crisis-Resistant Utility: * During quantum computing advances or security crises, demand increases * This counter-cyclical value proposition protects against market downturns
3. Regulatory Compliance Driver: * Future regulations will likely mandate quantum security * This creates non-optional adoption drivers independent of market conditions The investor story combines immediate revenue generation through transaction fees, medium-term value appreciation through network effects and market positioning, and long-term stability through essential infrastructure positioning. 🧠 TLDR: The investor ROI story combines direct token value from transaction fees and required token holdings, indirect value creation through network effects and first-mover advantage, and long-term value stability through essential infrastructure status, crisis-resistant utility, and regulatory compliance drivers. This creates both immediate revenue and sustainable long-term value appreciation as adoption expands across multiple chains.\
### What capability / use cases will NaoX Protocol provide on day 1? On day one, NaoX Protocol will provide a comprehensive set of capabilities and use cases spanning multiple sectors: Core Blockchain Security Capabilities: 1. Post-Quantum Transaction Signing: * Immediate ability to secure blockchain transactions against quantum attacks * Full implementation of Dilithium-5 cryptographic signatures * Transaction validation through quantum-resistant algorithms
2. EVM Chain Integration: * Ready-made integration packages for EVM-compatible chains * 48-hour implementation timeline for compatible systems * Seamless wallet connection with post-quantum keys 3. Layer 2 Processing: * Efficient transaction processing on NaoX Protocol's L2 * Return of signed transactions to original chains * Minimal gas fees for transaction processing
Sector-Specific Use Cases: 1. DeFi Applications: * As stated in the transcript: "All DeFi applications DAP applications can adopt from day one" * Specific protection for high-value financial transactions * Secure lending, borrowing, and yield generation
2. Defense Applications: * The transcript specifically mentions "defense" as a day one use case * Secured communications and transaction systems * Critical infrastructure protection
3. Banking Integration: * Financial services security for blockchain-based banking * Protection of customer transaction data * Compliance-ready security framework
4. Supply Chain Management: * Quantum-resistant tracking and verification * Secure provenance records * Protected supply chain transaction records\
Infrastructure Security: 1. Sub-Zero Layer Protection: * Foundational security for blockchain infrastructure * Protection of validator nodes and network components * Distributed security validation
2. Cross-Chain Security: * Initial capabilities for securing interactions between different blockchains * Protection of bridge transactions and wrapped assets * Consistent security across ecosystem boundaries The day one capabilities represent both the core post-quantum signature functionality and the application-specific implementations across multiple high-value sectors, providing immediate utility across a diverse range of use cases. 🧠 TLDR: On day one, NaoX Protocol will provide post-quantum transaction signing, EVM chain integration with 48-hour implementation, and efficient L2 processing as core capabilities. Sector-specific use cases include DeFi applications, defense systems, banking integration, and supply chain management. Infrastructure security features include Sub-Zero Layer protection and cross-chain security capabilities. This represents a comprehensive solution ready for immediate adoption across multiple sectors. # What is DePIN?: Decentralized Physical Infrastructure ## What is DePIN? Decentralized Physical Infrastructure Networks (DePIN) is a transformative blockchain-based approach that decentralizes the physical infrastructure in the real world across all sectors such as transport, health, energy, wireless connectivity and cyber security. DePINs provide the reliable and decentralized physical infrastructure elements including network nodes, servers, and data centers necessary for blockchain protocols to operate. Unlike traditional blockchain applications centered on financial transactions or digital collectibles, DePIN applies to the decentralization of the internet and computing services, such as servers, cloud computing, and web services. Because DePINs distribute physical devices across multiple geographical locations, they enhance infrastructure security and resilience by reducing the risk of cyber attacks and downtime. DePINs provide the decentralized physical building blocks that empower blockchain protocols, directly supporting consensus mechanisms, data storage, and transaction processing. DePINs align with the ethos of Web 3.0 to enable a decentralized identity based model of the internet to be user-owned, supporting systems built by multiple parties. The sector projects explosive growth, potentially reaching between $800 billion to $3 trillion by 2028. The promise of DePINs lie in its ability to offer decentralized identity based alternatives (instead of centralized access based solutions) for various web services, including cybersecurity, cloud computing, data storage, file sharing, content delivery networks (CDN), video streaming, and wireless infrastructure. The core idea behind DePINs is to leverage blockchain technology and token incentives to encourage participation in building and maintaining infrastructure in the physical world via a community compute model. This model promotes a community-economic approach to infrastructure development, reducing reliance on centralized entities and fostering a more resilient and inclusive ecosystems. By incentivizing contributions through tokens and employing smart contracts for coordination, DePINs aims to democratize the development and operation of physical infrastructure, paving the way for innovative, efficient, and accessible services across various sectors. ## **How do DePINs work?** * Operates on blockchain technology, leveraging smart contracts and tokens to coordinate efforts and incentivize participation. * Employs a decentralized network of nodes, each contributing resources like computing power or storage, replacing centralized service providers. * Incentive mechanisms reward contributors with tokens, encouraging the provision of resources and reliable services. ## DePINs by sectors Projects like NaoX Protocol, AOS, Golem, AIOZ, Flux, Arweave, Filecoin, Storj, Fleek, Livepeer, Helium Network, and Render Network etc exemplify the diverse applications of DePINs, each contributing to a specific niche within the decentralized infrastructure ecosystem. * Covers a wide range of applications, from cloud computing and cybersecurity to wireless infrastructure, file storage and video streaming. * Promotes a shift towards decentralized services, challenging traditional centralized models and fostering competition. * Showcases significant growth potential, with numerous projects contributing to various aspects of decentralized infrastructure, highlighting the sector's dynamic expansion and its role in powering new use cases. Overall, DePINs represents a paradigm shift in infrastructure development that aligns with the blockchain and Web 3 ethos. By leveraging token incentives, identity and decentralization, DePIN projects can crowdsource resources and reduce reliance on centralized structures and investment models. With applications across many sectors, DePINs signal a potential to disrupt multiple markets. # 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. # What is the $NAORIS Token used for? ### Overview NaoX Protocol is driven by a device-to-device 'proof of trust' community economic model which incetivizes the security of the Decentralization Post-Qunatum Infrastructure It rewards users with $NAORIS for participating in the successful validation of mesh devices and for contributing compute to the mesh. Tokens and their transactions provide indisputable 'proof of trust', proving secure operations both within and between devices and between relying parties. Mesh participants share real-time proof of trusted operations and record forensic evidence of compliance within a reliable and trusted ecosystem. The $NAORIS token fosters secure and transparent collaboration between users, enterprises, and governments. The more networks and devices that integrate with the protocol the stronger and more robust the mesh becomes. ### Utility #### Overview The $NAORIS token provides an always on solution that validates trust and security across devices, networks and systems. * Token operations validate cyber-secure systems over time, transferring value between devices to compensate for services under the Proof of Security consensus protocol. * $NAORIS provides the foundations for a unique record of provable results that are immutably secured by the blockchain. #### **Trusted Security Validation** The Proof of Security consensus ensures measurement and proof of device and software operations that enable cyber-assured trusted networks to produce high quality data * Devices are rewarded with $NAORIS as proof that it has been successfully validated. * $NAORIS is continuously used and transferred between devices as part of trusted operations. * As more devices are added, the network's power, value and trustworthiness grows. * NaoX Protocol enforces continual validation of underlying devices, applications and infrastructure that power a network. #### **Decentralized Trust Mesh** NaoX Protocol transforms centralized and untrusted devices to act as validator nodes that use $NAORIS * Under Proof of Security consensus devices validate each other for trusted behavior within millisecond blocktimes. * Creating a distributed cyber-secure mesh that enforces trust globally. * Recorded $NAORIS transactions provides proof that high quality data produced by a device is operating as intended. * The value of maintaining provable cybersecurity grows exponentially as the number of nodes and measurement quality increases. * $NAORIS secures device, validator integrity and cross-chain trust relays * It backs economic incentives and penalties * $NAORIS enables PQ-secure transactions at scale Every bonded token represents economic commitment to a global trust economy.
#### **Incentivized Participation** The network is built on the foundations of a device-to-device community economy. * Rewards users for participating giving opportunities to offset security costs and contribute to global security. * $NAORIS facilitates a new model of risk and reward incentivized investment to build a decentralized network enforcing best practices and security. * A community model for security requires a new approach to operations, risks and investment * $NAORIS provides an always on, unstoppable solution to how value is moved, consumed and realized. $NAORIS is designed for infrastructure, not speculation. Its value comes from the security work performed by the network. **-Security incentives**\ Nodes earn rewards for validating devices, detecting anomalies, and contributing trust signals. **- Bonding requirements**\ Devices, enterprise nodes, and validators bond $NAORIS to participate in Proof of Security consensus and generate trust proofs.\ Higher bonding increases responsibility, authority, and rewards. **- Slashing**\ Malicious, compromised, or low-health nodes automatically lose a portion of their bonded tokens. **-Post-quantum secure operations**\ All network transactions use Dilithium-5 post-quantum signatures, ensuring long-term resilience across Web3, enterprise, and sovereign systems. **- Cross-chain trust**\ $NAORIS is used to generate trust proofs that secure asset transfers and contract interactions across EVM, Cosmos, Move, and other ecosystems. **- Smart contract protection**\ Proof of Security consensus rewards early detection of reentrancy attacks, flash-loan anomalies, oracle manipulation, and other runtime threats
### Staking & Rewards Full Validator Nodes are nodes jointly selected by all $NAORIS holders to maintain and develop the Proof of Security consensus network. The majority of nodes with the most votes will become alternative nodes, from which a core of validators will be randomly selected to participate in the management of the entire Proof of Security consensus network. Validators that are full nodes (like a master node) require locking tokens, making it highly capable. A full node will also have the ability to connect wallets. The responsibilities of a validator are: 1\. Maintaining node and the network operations 2\. Produce and validate blocks 3\. Proposal voting and decision-making Minimum staking of a set amount of $NAORIS tokens is required for a staking account, locked or unlocked. If the actual stake is less than the minimum staking amount due to penalties or any other reason, the node will disappear from the listing of possible node candidates. There are also checks that entail the enforcement of the availability of recommended hardware levels, software, and infrastructure requirements for the node. ### Token Economy Overview Token flow\ • Nodes bond tokens\ • Nodes perform security work\ • Verified trust events generate rewards\ • Malicious behavior is slashed\ • TrustMesh strengthens through economic reinforcement\ • Treasury and incentives support long-term global adoption ### Exchanges and Availability Where can you buy $NAORIS ? The token is available on major cryptocurrency exchanges, including:\ • Binance\ • KuCoin\ • Bybit\ • Gate.io\ • MEXC\

# Who Uses NaoX Protocol? ## **Individual Users** Individual users' devices act as nodes in an intelligent decentralized mesh network, rather than act as a single point of failure within a siloed system. Devices are secured by the mesh in real time and can also be rewarded for contributing compute to the mesh. NaoX Protocol is releasing testnets for individuals to participate in and also earn tokens as part of an airdrop programme. Users will download the test agent to provide real-time threat information and intelligence from the software agent present on their device. Users will also be able to act as a validator node to establish a decentralized global validator node network. As the testnet programme matures the mesh becomes stronger and more intelligent due growing participation and the computational capacity they is contributing to secure the mesh in a decentralized manner Users’ devices will also benefit from real time cyber-trusted network validations, distributed by a global decentralized threat mitigation supercomputer that is constantly learning and correlating threats and malicious behaviors to mitigate risk. Employing a Post-Quantum Layer-1 Blockchain fully scalable Proof of Security trust consensus that unifies devices and enforces the highest level of cybersecurity, individuals can protect their devices and earn tokens as part of a global trust mesh network that creates sharable evidence others can easily rely on to validate the cyber status of any user's device. NaoX Protocol provides access to a global threat mitigation environment, where every participant benefits - from a single mobile user to a global enterprise. ## Enterprise NaoX Protocol’s Decentralised Trust Mesh Architecture is designed to bring trust to enterprise networks and systems, significantly increasing the cybersecurity and integrity of any enterprise and the entire Web2/Web3 technology stack. Enterprise attack surfaces are increasing under more cyber threats than existing centralized cybersecurity solutions can combat. The decentralized nature of NaoX Protocol leverages the complexity of the enterprise infrastructure by converting it into a cyber-secure mesh of protective validator nodes, eliminating single points of failure. Leveraging the power of advanced Blockchain, NaoX Protocol records real-time immutable proof of security for every device’s status, identifying and mitigating threats in real time ensuring a trusted and cyber-assured baseline for enterprise systems to operate, and the safe and secure sharing of provable and validated data ### Automation * Enterprise attack surface is transformed into the first line of a defense mesh * The mesh responds to breaches with real-time countermeasures * Proactive isolation of compromised devices * Decentralized command & control system ### Visibility * Centralized and isolated devices are converted into an army of cyber-trusted endpoints responding to breaches in milliseconds * Real time monitoring of endpoint behavior under mesh architecture * Real-time detection of infrastructure breaches under distributed consensus * Every device protects and audits your whole network ### Endpoints, IoT & OT * Decentralized and cooperative endpoint Detection, Protection & Response * Bigger attack surfaces become easier to defend using distributed user & entity behavior analytics (UEBA) * Endpoints security and detection is significantly boosted by the collaborative mesh architecture ### Compliance * Real time shared Proof of Compliance between multiple parties from * Assuring DORA & NIS2 regulatory requirements * Adheres to ISO:27001 standards * GDPR compliant * Privacy assured for enterprise via the Mesh’s integrated confidentiality infrastructure ### Verge Clusters NaoX Protocol allows for pseudo-partitioning, in a shard-like manner, so the entire state of the network can be distributed and maintained in partitions known as **Verge Clusters.** * Enterprise level scalability and security under Proof of Security blockchain * Support up to 1M TPS * Can be deployed independently, with enterprise-specific security and compliance logic * Off-chain networks act like on-chain solutions for enhanced security * Compromised devices are quickly identified and removed from the network * Can function as a private chain, locally updating threat definitions * Widespread adoption benefits all network participants, improving overall security ## Regulators & Auditors NaoX Protocol creates provable and immutable records of the digital health and integrity of the devices and processes that create and consume data. Enterprise and businesses can share validated cyber results and data with regulators, auditors, & governments in real time which is provably trusted through on-chain consensus The system creates a digital proof of compliance and trust as forensic evidence for 3rd parties who need to audit devices, processes and transactions in real time Regulatory Compliance * Helps regulators enforce DORA (Digital Operational Resilience Act) and NIST (National Institute of Standards and Technology) compliance more effectively. * Facilitates seamless real time auditing by providing a transparent and tamper-proof blockchain-based ecosystem for sharing results between all operating parties. Improved Transparency * Provides a transparent and immutable ledger, enabling auditors to verify transactional environments and the data they created and consumed with confidence. * Enhances the ability to identify and mitigate suspicious activities. NaoX Protocol’s global Decentralized CyberSecurity Mesh is relevant for international regulators and auditors, contributing to a more secure and interconnected financial landscape When system health is known, information can be trusted. # Use Cases [Web3 & DePINS](/naoris-protocol/introduction/use-cases/web3-and-depins) # Web3 & DePINs ### **Overview** In the advancing landscape of Web3 and recently, Decentralized Physical Infrastructure Networks (DePINs), where the transition from a centralized to a decentralized framework is crucial, cybersecurity stands as the cornerstone for secure and reliable physical device operations. Web3 and DePINs represent the next generation of internet infrastructure, aiming to deliver decentralized control and enhanced privacy. The complexity of these systems operating within centralized Web2 infrastructure, opens them to a variety of cybersecurity threats. Web3 and blockchain protocols have evolved to provide almost unbreakable on-chain security backed by advanced cryptography, but there is one core problem: the infrastructure upon which blockchains and Web3 operates is still based on centralized Web2 infrastructure. This means the devices which act as nodes that validate on-chain processes inherit all Web2 weaknesses, devices and data are not secure, and cannot be trusted. We don’t know moment to moment if a device acting as a node has been breached, or is colluding with other nodes. As the growing DePIN sector is decentralizing the physical infrastructure across enterprise and industrial sectors like cloud, storage, wireless, smart vehicles using blockchain technology, it still requires a decentralized cybersecurity layer for the physical infrastructure it is decentralizing. NaoX Protocol introduces a decentralized trust mesh that uses the same cryptographic principles that make blockchains so secure, but applies it to the physical infrastructure, so the devices that support blockchain protocols are validated in real time under a post-quantum layer-1, Proof of Security trust consensus and decentralized AI, safeguarding against a myriad of cyber threats that Web3 currently inherits from Web2 centralized infrastructures. ### **Problems** #### Web3 Node Vulnerabilities Using Web2 Infrastructure DePINs will form the backbone of Web3, yet are still vulnerable to cyber threats, potentially crippling essential services and operational continuity #### Interconnectedness & Interoperability Risks The inherent interconnectedness of Web3 components heightens the risk of systemic failures due to cyber attacks. #### Data In Transit Security As Web3 relies on shared data across multiple nodes, ensuring the confidentiality and integrity of this data is paramount. #### Regulatory Challenges The decentralized nature of Web3 and DePINs presents challenges in compliance with traditional cybersecurity regulations. #### Q-Day & Advanced Threat Landscapes The sophistication of cyber threats, including quantum computing risks, necessitates a future-proof security solution. #### Smart Contract Code Vulnerabilities On the back of $Billions in losses due to exploits, ensuring smart contract security is paramount. Deploying poorly & unaudited contracts carries substantial risks, as flaws are easily exploited. #### Smart Contract Risks in the Live Environment Identifying transaction irregularities that can lead to ’rug pulls’ and malicious transactions when interacting with client contracts is crucial to the adoption of Web3 ### **Solutions** * NaoX Protocol is the Post-Quantum and DePIN fundamental layer for Blockchain infrastructure health and security. Also known as the Sub-Zero layer, it enhances the infrastructure of all chains, including L1 blockchains, L2 scaling solutions, L0 protocols, DEXes, bridges, validators, and DePINs. * Our post-quantum secure infrastructure and assurance, guarantees optimal network health, ensuring the normal operation of all ecosystem components - the entire blockchain stack gains unparalleled transparency, trust, and security for a post-quantum future * Post-quantum cryptography & the Proof of Security trust consensus, creates a tamper-proof, decentralized ledger, ensuring the integrity and traceability of operations across the network. * Post-Quantum Cryptography, prepares Web3 and DePINs for Q-Day and future threats by implementing algorithms resistant to quantum attacks. * Decentralized Governance, ensures no single point of failure, distributing trust and improving resilience. * Regulatory Adaptation, facilitates a real time sharing of proof of trust within a dynamic regulatory framework and ecosystem that aligns with the decentralized and open nature of Web3 and DePINs. * NaoX Protocol offers continuous smart contract analysis using sophisticated proprietary self-learning AI algorithms, identifying new attacks and potential vulnerabilities, enhancing capabilities for future detection. * Continuous live monitoring of deployed contracts for irregular transaction anomalies that can lead to rug pulls etc comprehensively assures all areas of smart contract lifecycles ### **Conclusion** Blockchain protocols have attained incredible levels of data security and protection using advanced cryptography and encryption principles, yet the physical environment in which they operate is based upon centralized Web2 infrastructure. NaoX Protocol extends the same principles to the devices themselves to create a dedicated and highly scalable DePIN for cybersecurity and digital trust. The integration of decentralized cybersecurity strategies combined with the use of a post-quantum powered, fundamental or sub-zero layer offers a robust solution for the security concerns of the devices and networks that support Web3 and DePINs. This approach not only fortifies against current cyber threats but also equips the network against the emergent risks posed by quantum computing. By adopting these strategies, Web3 and DePINs can ensure secure, autonomous, and resilient digital infrastructure for future generations. # Telecommunications ### Overview Telcos operate complex global networks built on an infrastructure of distributed devices and applications. Networks are constantly under threat from cyber attacks, including data breaches, ransomware, and insider threats. These challenges are compounded by the need for regulatory compliance with ever-evolving data protection laws and securing a sprawling IoT and supply chain ecosystem. NaoX Protocol offers a cutting-edge solution by leveraging post-quantum blockchain, Proof of Security trust consensus and distributed AI to validate widely distributed devices and secure networks for all telecom standards, from 3G to 5G and home internet. Its real-time detection capabilities significantly reduce cyber threats across the board. Simplifying supply chain security and ensuring immutable on-chain recording and proof of device operations means that multiple vendor sub-networks can share proof of trusted operations across a decentralized network enhancing trust, security, and compliance in the telecom industry. ### Problems #### Data Breaches Data breaches expose customers to identity theft, financial fraud, and significant reputational damage for telecom companies. Protecting customer data against unauthorized access is crucial. proof of the status of encryption and identity across the network is challenging. #### Network Security Telecom companies must secure large and complex networks against cyber attacks that can disrupt operations, steal data, and compromise user privacy, emphasizing the need for robust network security measures. #### IoT Security IoT devices in telecom, like smart homes and connected cars, are often poorly secured, making them targets for hackers to exploit and access the network, highlighting the need for comprehensive IoT security. Knowing the health of remote devices is critical to data quality. #### Insider Threats Telcos face threats from within, as employees with access to large amounts of sensitive data can result in theft or sabotage, requiring robust internal checks and security protocols. #### Advanced Persistent Threats (APTs) APTs pose significant risks to telecoms through long-term, targeted attacks by highly skilled attackers, aiming to steal valuable data or disrupt critical infrastructure. Verifiable integrity of devices, applications, and firmware from birth to current assuring known compute capabilities. #### Regulatory Compliance Compliance with data protection and privacy laws & regulations presents significant challenges for telecoms, especially in a changing threat landscape that requires adaptive security practices. More than log files but proof of validation process and data. #### Supply Chain Security Telecom supply chain's complexity enables vulnerabilities that attackers can exploit, necessitating comprehensive security measures to protect systems and data. Using identity, reference Measurment signatures, and validation solutions to assure devices are what they say they are. #### Ransomware Attack Vectors Ransomware poses a significant threat to telecommunication companies by encrypting critical data and demanding ransom payments for decryption keys. Once ransomware infects a telcos systems attackers may also threaten to publish or delete sensitive data if their demands are not met, pressuring telecom companies into compliance to protect customer data and maintain service integrity. ### Solutions * NaoX Protocol provides the foundations for delivering higher data quality and increasing the value of data produced. Post-quantum backed proof of a measured network and measured devices assures the data produced is from known devices in a known condition. * Validation of devices under post quantum blockchain, Proof of Security trust consensus and distributed AI creates robust Telco Network Security, through provable trust & resilience for 3G, 4G, LTE, 5G & Home Internet * Real time detection of cyber threats means data breaches, advanced persistent threats, insider threats, Ransomware and cyber unknowns are reduced by an order of magnitude * NaoX Protocol reduces complexity within Telco supply chains, as all ecosystem partners operate on the same decentralized network sharing proof of trust when consuming or creating sensitive data with API connections secured in real-time. * Immutable recording of device operations, processes and overall health is secured on-chain. Proof of security, trust and operations can be shared at any time to any prescribed party, making real time proof of compliance and trust a reality. ### Conclusion NaoX Protocol offers a transformative cybersecurity and trust approach for the telecom sector, in being able to tackle complex challenges from data breaches to compliance. By utilizing post-quantum blockchain and decentralized AI, it not only enhances network security and detects threats in real time but also streamlines supply chain security through real time shared proof of operations and compliance. This innovation marks a significant step forward in securing telecom networks, ensuring a safer, trusted and more compliant future for the industry. # Banking & Fintech ### Overview In the dynamic world of digital banking, online partnerships and financial service API’s where operational efficiency and cybersecurity are paramount, NaoX Protocol emerges as a revolutionary solution. Leveraging post-quantum cryptography and decentralized AI to create a self-validating Decentralized Trust Mesh, it incentivized devices to actively monitor threats in real-time. By establishing cryptographic proof of trust between devices, NaoX significantly reduces cyber threats while providing real-time shared cyber status. In addition, validated third-party API connections, establishes ecosystem trust and data quality. This enhances banking operational trust and efficiency, business resilience, and real-time regulatory compliance for banking services that are increasingly interconnected and vulnerable. Transcending traditional perimeter limitations to validate partner and microservices data and connections as environments expand, banks are empowered to embrace the emerging collaborative computing model, making systems stronger through network growth. ### Problems #### Vulnerable API Ecosystems Untrusted API connections between banks and vendors like Visa, and Mastercard create vulnerabilities, enabling potential data breaches, unauthorized access, and reduced accountability which undermines trust in the financial system. Device Integrity Outside Security Perimeter Verifying the integrity & security of banking devices outside the security perimeter is near impossible, enabling unpreventable fraudulent transactions from breached or unstable devices #### Data Quality From Unverified Data Sources Reliance in the Banking sector on unverified third-party data of unknown quality or security jeopardizes the integrity of banking operations. #### Integrity of Client-Side Applications Validation of data and processing from client applications protecting data privacy and data integrity. #### Real Time Shared Proof of Compliance Current manual auditing processes lag behind as bank audits cannot provide real-time proof of compliance to regulators, instead relying on outdated paper summaries ### Solutions * Post-quantum blockchain-validated device and API operations under the Proof of Security trust consensus that validates device operations and API connections in real time, strengthening the security and trust fabric. * Real-time threat identification that adapts to threats instantaneously, updating and informing the network. * Zero Trust architecture verification for trustworthiness of devices and data sources outside traditional security boundaries, if a device, data source of process is not verified then transactions cannot take place * Real-time shared proof of audit and compliance between multiple parties and regulators for immediate compliance evidence of audit trails and compliance status. ### Additional Benefits/ Value Add NaoX Protocol offers additional operational efficiency, innovative customer service solutions, and strengthens the overall business leveraging our extensive cutting-edge technology solutions like blockchain and various nascent technologies. * Driving Innovation and Efficiency with Blockchain Technology * Supporting the future of Banking and Fintech with Frontier Scalable Technologies ### Conclusion NaoX Protocol is a keystone in securing and fortifying the banking and fintech landscapes. It assures post-quantum cryptographic trust among devices, offers real-time monitoring of threats, and ensures the validity of data and transaction flows. Simultaneously, it delivers instantaneous, shared proof of compliance. This multi-faceted approach not only enhances operational efficiency and resilience but also fortifies regulatory compliance for an increasingly interconnected banking ecosystem. Through this innovative model, banks can confidently step into a new era of collaborative computing, invigorated by the trust and flexibility afforded by decentralized cybersecurity. # Healthcare & Smart Devices ### **Overview** The healthcare sector and smart device ecosystem are increasingly intertwined, creating a network of connected health devices ranging from wearable fitness trackers to hospital-based electronic health records (EHRs) and telemedicine. These devices collect and transmit sensitive health data, meaning the attack surface for cyber threats has expanded significantly making them prime targets for cyber threats such as data breaches, malware attacks, and unauthorized access. Cybercriminals are actively targeting healthcare organizations and smart device manufacturers, seeking to exploit vulnerabilities and gain unauthorized access to sensitive medical data, intellectual property, and personal information. The consequences of such breaches can be devastating, ranging from compromised patient privacy and safety to financial losses and reputational damage. Additionally, the need for compliance with health data protection regulations and securing a complex supply chain of medical device manufacturers and healthcare providers further complicates the cybersecurity landscape NaoX Protocol offers a cutting-edge solution by leveraging post-quantum cryptography , Proof of Security trust consensus and distributed AI to validate the integrity of medical devices, smart home appliances, and wearable technologies. Real-time threat significantly reduces cyber threats across the entire healthcare and smart device ecosystem. By ensuring immutable on-chain recording and proof of device operations, NaoX Protocol enables multiple stakeholders, including healthcare providers, device manufacturers, and patients, to share proof of trusted operations across a decentralized network, enhancing trust, security, and compliance in these critical industries. ### **Problems** #### Medical Data Breaches The healthcare industry and smart device manufacturers are prime targets for data breaches, as they possess vast amounts of sensitive personal and medical information. Unauthorized access to this data can lead to identity theft, financial fraud, and compromised patient privacy. Protecting this data from unauthorized access is of utmost importance, but proving the status of encryption and identity across the network remains a significant challenge. #### Healthcare Network Security Healthcare organizations and smart device ecosystems operate complex networks connecting various systems, devices, and applications. Securing these networks against cyber attacks that can disrupt operations, steal data, and compromise user privacy is a pressing concern, necessitating robust network security measures. #### Smart Device & IoT Security The proliferation of Internet of Things (IoT) devices in healthcare, such as connected medical devices, wearables, and smart home appliances, often lack adequate security measures, making them vulnerable to exploitation by hackers. Ensuring the security of these devices is crucial, as they serve as potential entry points to access sensitive data and networks. Knowing the health and integrity of remote devices is critical to maintaining data quality and security. #### Insider Threats Both healthcare organizations and smart device manufacturers face threats from insiders, as employees with access to sensitive data can intentionally or unintentionally cause data theft or sabotage. Implementing robust internal security protocols and checks is essential to mitigate these risks. #### Advanced Persistent Threats (APTs) APTs pose significant risks to the healthcare and smart device industries through long-term, targeted attacks by highly skilled attackers, aiming to steal valuable intellectual property, medical data, or disrupt critical systems. Verifying the integrity of devices, applications, and firmware from their initial deployment to their current state is crucial to assuring known compute capabilities and detecting APTs. #### Health Based Regulatory Compliance Compliance with data protection and privacy laws & regulations, such as HIPAA and GDPR, presents significant challenges for healthcare organizations and smart device manufacturers, especially in a rapidly evolving threat landscape that requires adaptive security practices. Providing proof of the validation process and data integrity is essential for demonstrating compliance. #### Supply Chain Security The complex supply chains involved in the production and distribution of medical devices and smart home appliances enable vulnerabilities that attackers can exploit, necessitating comprehensive security measures to protect systems and data. Utilizing identity, reference measurement signatures, and validation solutions to assure devices are what they claim to be is crucial. #### Ransomware Attack Vectors Ransomware poses a severe threat to healthcare organizations and smart device manufacturers by encrypting critical data and demanding ransom payments for decryption keys. Once ransomware infects these systems, attackers may also threaten to publish or delete sensitive data if their demands are not met, pressuring these organizations into compliance to protect patient data, intellectual property, and maintain service integrity. ### **Solutions** * Enhanced Medical Data Protection: By validating device and user identities under a post-quantum blockchain it protects sensitive information against emerging cyber threats, ensuring long-term health data is securely encrypted and accessed only by authorized parties. * Robust Device and Network Security: Real-time threat detection capabilities reduce the risk of cyber attacks on healthcare networks, ensuring the continuous operation of critical medical services. This enhances trust, security and operations across networks. * Secure Smart Device Ecosystem: NaoX Protocol secures connected health devices through immutable on-chain recording of device operations and health, providing transparent and verifiable proof of device integrity. * Real-time Threat Detection: Distributed AI rapidly identifies cyber threats, reducing risks of ransomware, data breaches, insider threats and APTs. * Regulatory Compliance Assurance: The protocol facilitates compliance with health data protection regulations by providing real time immutable and verifiable records of security practices and data transactions to regulatory bodies. * Supply Chain Security Simplification: NaoX Protocol reduces the complexity of securing the healthcare supply chain, providing real-time validation of device origins and specifications, enabling secure and trusted transactions between manufacturers, providers, and patients.r\\ * Immutable On-chain Recording: Establishes transparent proof of device operations, facilitating auditability and compliance. ### **Conclusion** NaoX Protocol's decentralized cybersecurity solution, with its post-quantum cryptography and AI-driven threat detection, addresses the pressing cybersecurity challenges in healthcare and smart devices. It ensures the protection of sensitive data, supports compliance with regulatory standards, and safeguards against a wide array of cyber threats. This protocol enables a secure and trusted digital healthcare environment, promoting patient safety and data privacy, and demonstrates a compelling use case for the integration of decentralized government strategies in the healthcare sector. # Smart Vehicles & Drones ### Overview The rapidly evolving landscape of smart vehicles and drones presents significant cybersecurity challenges. As these technologies become increasingly interconnected and autonomous, the potential for cyber threats escalates. Hackers and malicious actors are actively seeking ways to exploit vulnerabilities in these systems, which could lead to catastrophic consequences, including loss of control, data theft, and compromised safety. The implications extend beyond individual vehicles or drones, as widespread incidents could disrupt transportation networks, supply chains, and critical infrastructure. NaoX Protocol offers a cutting-edge solution by leveraging blockchain consensus and distributed AI to validate the integrity of smart vehicles, drones, and their associated systems. Its real-time detection and mitigation capabilities significantly reduce cyber threats across the entire smart mobility ecosystem. By ensuring immutable on-chain recording and proof of device operations, NaoX Protocol enables multiple stakeholders, including manufacturers, fleet operators, and regulatory bodies, to share proof of trusted operations across a decentralized network, enhancing trust, security, and compliance in these critical industries. ### Problems #### Data Breaches Smart vehicles and drones are prime targets for data breaches, as they possess vast amounts of sensitive data, including personal information, location data, and proprietary technology. Unauthorized access to this data can lead to identity theft, privacy violations, and intellectual property theft. Protecting this data from unauthorized access is crucial, but proving the status of encryption and identity across the network remains a significant challenge. #### Vehicle and Drone Hijacking Unauthorized access and control over smart vehicles and drones can lead to severe safety incidents and privacy breaches. Ensuring secure operation controls is critical. #### Network Security Smart mobility systems operate complex networks connecting various components, sensors, and applications. Securing these networks against cyber attacks that can disrupt operations, steal data, and compromise user safety is a pressing concern, necessitating robust network security measures. #### IoT Security The proliferation of Internet of Things (IoT) devices in smart vehicles and drones, such as sensors, cameras, and communication modules, often lack adequate security measures, making them vulnerable to exploitation by hackers. Ensuring the security of these devices is crucial, as they serve as potential entry points to access sensitive data and systems. Knowing the health and integrity of remote devices is critical to maintaining data quality and security. #### Insider Threats Both vehicle manufacturers and drone operators face threats from insiders, as employees with access to sensitive data can intentionally or unintentionally cause data theft or sabotage. Implementing robust internal security protocols and checks is essential to mitigate these risks. #### Advanced Persistent Threats (APTs) APTs pose significant risks to the smart mobility industry through long-term, targeted attacks by highly skilled attackers, aiming to steal valuable intellectual property, disrupt operations, or gain control over vehicles and drones. Verifying the integrity of devices, applications, and firmware from their initial deployment to their current state is crucial to assuring known compute capabilities and mitigating APTs. #### Regulatory Compliance Compliance with data protection and privacy laws & regulations, as well as safety and security standards, presents significant challenges for smart vehicle and drone manufacturers and operators, especially in a rapidly evolving threat landscape that requires adaptive security practices. Providing proof of the validation process and data integrity is essential for demonstrating compliance. #### Supply Chain Security The complex supply chains involved in the production and distribution of smart vehicles and drones enable vulnerabilities that attackers can exploit, necessitating comprehensive security measures to protect systems and data. Utilizing identity, reference measurement signatures, and validation solutions to assure devices are what they claim to be is crucial. #### Ransomware Attack Vectors Ransomware poses a severe threat to smart mobility systems by encrypting critical data and demanding ransom payments for decryption keys. Once ransomware infects these systems, attackers may also threaten to publish or delete sensitive data if their demands are not met, pressuring manufacturers and operators into compliance to protect intellectual property, user data, and maintain service integrity. ### Solutions * NaoX Protocol provides the foundations for delivering higher data quality and increasing the value of data produced by smart vehicle and drone systems. Proof of a measured network and measured devices assures that the data produced is from known devices in a known condition. * Validation of smart vehicles, drones, and their associated systems under blockchain consensus and distributed AI creates robust Smart Mobility Security, through provable trust & resilience for these critical technologies. * Real-time detection and mitigation of cyber threats mean data breaches, advanced persistent threats, insider threats, ransomware, and other cyber unknowns are reduced by an order of magnitude in the smart mobility ecosystem. * NaoX Protocol reduces complexity within the supply chains of smart vehicles and drones, as all ecosystem partners operate on the same decentralized network, sharing proof of trust when consuming or creating sensitive data with API connections secured in real-time. * Immutable recording of device operations, processes, and overall health is secured on-chain. Proof of security, trust, and operations can be shared at any time with any prescribed party, making real-time Proof of Compliance a reality. ### Conclusion NaoX Protocol offers a transformative cybersecurity approach for the smart mobility industry by tackling complex challenges from data breaches to compliance. By utilizing blockchain and AI, it not only enhances network security and mitigates threats in real-time but also streamlines supply chain security through real-time shared proof of operations and compliance. This innovation marks a significant step forward in securing smart vehicles, drones, and their associated systems, ensuring a safer, more compliant, and trustworthy future for these critical technologies. # IoT, SCADA & Industry ### Overview The integration of IIoT devices, Industrial control systems (ICS) and Supervisory Control and Data Acquisition (SCADA) systems are critical components of modern industrial operations, controlling and monitoring various processes in sectors such as energy, manufacturing, transportation, and critical infrastructure. However, these systems are increasingly vulnerable to cyber threats due to their interconnectedness with other IT systems and the internet. These systems are often targets for cyber attacks, including industrial espionage, sabotage through ransomware, and data breaches. Additionally, the complexity of regulatory compliance in different industries and the need for securing a diverse and sprawling supply chain further exacerbate these challenges. NaoX Protocol offers a robust solution by leveraging a post-quantum layer-1 blockchain, Proof of Security trust consensus and distributed AI to validate Industrial IoT (IIoT) devices, secure industrial networks, and ensure the integrity of ICS/SCADA systems. Its real-time detection capabilities significantly reduce cyber threats across the industrial landscape, enhancing operational resilience and safety. By enabling immutable on-chain recording and proof of device operations, the NaoX Protocol facilitates trust and security across multi-vendor IIoT ecosystems, streamlining compliance and enhancing the overall cybersecurity posture of industrial environments. ### Problems #### Critical Infrastructure Attacks Cyber attacks on critical infrastructure, such as power grids, water treatment facilities, and transportation systems, can have severe consequences, including disruption of essential services, environmental disasters, and potential loss of life. Ensuring the security and integrity of ICS/SCADA systems is paramount. #### Malware and Ransomware Threats Malware and ransomware attacks on industrial control systems can disrupt operations, compromise data, and demand ransom payments, leading to significant financial losses and operational downtime. #### Insider Threats Insiders with privileged access to ICS/SCADA systems pose a significant risk, as they can intentionally or unintentionally cause system disruptions, data breaches, or sabotage. #### Legacy System Vulnerabilities Many industrial control systems are based on legacy technologies that lack robust security features, making them vulnerable to cyber threats and in need of security upgrades or replacements. #### Supply Chain Risks The complex supply chain of IIoT devices and components introduces potential vulnerabilities that can be exploited by threat actors, necessitating comprehensive supply chain security measures. #### Regulatory Compliance Industrial organizations must comply with various cybersecurity regulations and standards, such as NERC CIP, IEC 62443, and NIST SP 800-82, which can be challenging and resource-intensive. #### Advanced Persistent Threats (APTs) Sophisticated and well-funded adversaries, such as nation-states or advanced cybercriminal groups, can launch targeted and sustained attacks against industrial control systems, posing significant risks to operations and safety. ### **Solutions** The NaoX Protocol addresses these challenges by providing the following solutions: * Enhanced protection against espionage and breaches via post-quantum blockchain consensus and distributed AI validates IIoT devices, ensuring their integrity and trustworthiness within industrial networks and secure industrial data, ensuring its confidentiality and integrity. * Real-time threat detection through continuous monitoring and analysis, the protocol enables real-time detection of cyber threats, including malware, ransomware, and advanced persistent threats (APTs), minimizing the impact of attacks on industrial operations. * Immutable Record of Device Operations The NaoX Protocol secures an immutable record of device operations, processes, and overall health on the blockchain, providing an auditable trail for compliance and forensic analysis. * Streamlined Supply Chain Security By operating on a decentralized network and sharing proof of trust among ecosystem partners, the protocol simplifies supply chain security, enabling secure data exchange and API connections in real-time. * Regulatory Compliance Facilitation The immutable record of device operations and security measures implemented by the NaoX Protocol aids in demonstrating compliance with various cybersecurity regulations and standards applicable to industrial environments. ### **Conclusion** The NaoX Protocol offers a transformative approach to cybersecurity in industrial environments, addressing the unique challenges posed by ICS/SCADA systems and the Industrial Internet of Things (IIoT) and from espionage to compliance. By leveraging post-quantum cryptography and distributed AI technologies, it enhances the security and resilience of industrial networks, detecting cyber threats in real-time, and streamlines compliance efforts. This innovative solution marks a significant step forward in securing critical infrastructure, ensuring operational continuity, and safeguarding industrial environments from cyber threats. # Regulators & Auditors ### Overview In the evolving landscape of enterprise compliance and auditing, the integration of decentralized cybersecurity mechanisms, especially those utilizing post-quantum cryptography, offers a transformative approach for regulators and auditors overseeing devices, networks, and data. This methodology aligns with and exceeds the stringent demands of regulatory frameworks such as DORA, MiCA, NIST, and ISO 27001, ensuring unparalleled security and compliance through real-time validation and shared proof of compliance within a blockchain-backed trust ecosystem. Enterprises today navigate a complex web of regulatory requirements, from ISO 9001's product quality standards to the SEC's cybersecurity mandates. Traditional compliance architectures, often bespoke and internally generated, struggle under the dual pressures of evolving cyber threats and the need for constant, reliable verification. The NaoX Protocol introduces a paradigm shift—leveraging blockchain technology and post-quantum cryptography to automate, secure, and verify compliance operations across all levels of enterprise infrastructure. ### Problems #### Manual Verification Processes The traditional annual or quarterly audits are not only costly but also lag behind the real-time evolution of cyber threats. #### Internal Policies and Procedures Customized compliance frameworks, while necessary, create a heterogeneous environment that complicates universal verification and audit standards. #### Historical Insecurities Instances of dual record-keeping, data falsification, and document destruction undermine trust in enterprise compliance. #### Regulatory Diversification Adhering to multiple, sometimes overlapping standards (e.g., DORA, MiCA, NIST, ISO 27001) strains enterprise resources and complicates audit processes. ### Solutions * Blockchain-Backed Immutable Records: Utilize blockchain to create unalterable compliance logs, ensuring data integrity and facilitating trust among stakeholders. * Post-Quantum Cryptography: Safeguard sensitive compliance data against emerging cyber threats, including quantum computing attacks. * Decentralized Compliance Verification: Enable real-time, automated verification of compliance across devices, networks, and data, significantly reducing the cost and complexity of audits. * Shared Proof of Compliance: Foster a transparent ecosystem where compliance data is readily available to regulators, partners, and customers through a blockchain network. ### Conclusion Decentralized cybersecurity, specifically the integration of post-quantum cryptography within the NaoX Protocol, represents the future of enterprise compliance and audit. By addressing the core challenges of manual verification, internal policy diversity, and historical insecurities, this approach not only meets but exceeds the requirements of leading regulatory frameworks. It provides a scalable, secure, and universally verifiable method of demonstrating compliance, thereby enhancing trust, reducing audit costs, and laying the foundation for a new era of digital assurance in the enterprise sector. The NaoX Protocol's application of decentralized technologies ensures continuous monitoring, real-time validation, and shared proof of compliance, revolutionizing how enterprises achieve and demonstrate regulatory adherence in the digital age. # Defense & Critical Infrastructure ### Overview Defense and critical infrastructure sectors are vital to national security, encompassing military operations, power grids, water supply systems, and more. These systems are constantly under threat from sophisticated cyber attacks, including nation-state actors, advanced persistent threats (APTs), and insider threats. Given the network complexity and the imperative for regulatory compliance, these sectors require an innovative cybersecurity approach. NaoX Protocol offers a cutting-edge solution backed by post-quantum layer-1 blockchain and dedicated Proof of Security trust consensus and distributed AI to validate critical systems, secure networks, and ensure the integrity of defense and infrastructure operations. This decentralized approach ensures continuous operation of critical services and facilitates trust and security across multi-agency and multi-vendor ecosystems, streamlining compliance and enhancing the overall cybersecurity posture of defense and critical infrastructure environments. ### Problems #### Cyber Espionage and Data Breaches Nation-states and state-sponsored groups pose significant threats to sensitive national security information like defense and critical infrastructure, employing advanced cyber capabilities to conduct espionage, disrupt operations, and potentially cause physical damage. #### Network Security for Critical Infrastructure Ensuring the integrity and availability of networks controlling critical infrastructure is paramount to prevent disruptions that could lead to catastrophic disruptions. #### Advanced Persistent Threats (APTs) Sophisticated and well-funded adversaries, such as nation-states or advanced cybercriminal groups, can launch targeted and sustained attacks against critical systems, posing significant #### Insider Threats Individuals within these sectors with access to sensitive information or critical systems pose a significant risk if their credentials are misused or if they act maliciously. #### Ransomware Attacks on Essential Services Compromising critical systems through ransomware could disrupt essential services, threatening public safety and national security. #### Supply Chain Vulnerabilities The complex supply chains of defense and critical infrastructure systems introduce potential vulnerabilities that can be exploited by threat actors, necessitating comprehensive supply chain security measures. #### Legacy System Vulnerabilities Many critical systems are based on legacy technologies that lack robust security features, making them vulnerable to cyber threats and in need of security upgrades or replacements. #### Operational Resilience and Continuity Cyber attacks on critical systems can disrupt operations, compromise sensitive data, and potentially endanger lives, necessitating robust measures to ensure operational resilience and continuity. ### Solutions The NaoX Protocol addresses these challenges by providing the following solutions: * Post-Quantum cryptography and Proof of Security trust consensus protects sensitive data against cyber espionage ensuring that data remains confidential and tamper-proof, safeguarding sensitive information. * Critical infrastructure network security and trust. Distributed AI enables real-time, adaptive threat detection enhancing network security capabilities to protect from cyber attacks, ensuring the continuous operation of essential services. * Real-time threat detection through continuous monitoring and analysis of cyber threats, including APTs, malware, and insider threats, minimizing the impact of attacks on critical operations. * Resilience to ransomware threats through secure backups and real-time threat detection limit the impact of ransomware, ensuring the resilience of essential services. * Streamlined supply chain security by operating on a decentralized network and sharing proof of trust among ecosystem partners, the protocol simplifies supply chain security, enabling secure data exchange and API connections in real-time. * Immutable record of system operations. NaoX Protocol secures immutable records of system operations, processes, and overall device health on-chain, providing an auditable trail for compliance, forensic analysis, and information assurance. * Upgrading legacy systems via NaoX Protocol’s Decentralized Trust Mesh modernizes critical infrastructure using Web3 principals and post-quantum cryptography to secure and future proof legacy architecture with advanced security features. * Operational resilience and continuity assurance through real-time threat detection capabilities, coupled with an immutable record of system operations, enhance operational resilience, trust and continuity, ensuring critical functions are maintained even in the face of cyber attacks. ### Conclusion NaoX Protocol, with its decentralized approach, offers a robust security and trusted solution for defense and critical infrastructure environments. It addresses the unique challenges posed by nation-state threats, advanced persistent threats, and the need for operational resilience and continuity. By leveraging post-quantum cryptography and a decentralized proof of security trust consensus, it provides real-time threat detection, enhances operational resilience, and fortifies supply chain integrity. This innovative solution marks a significant step forward in securing national security assets, safeguarding critical infrastructure and public welfare, while ensuring the continuity of essential operations. # Supply Chains ### Overview Supply chains are integral to global commerce, involving intricate processes that span from production to delivery. As digital transformation permeates this sector, so do the associated cybersecurity risks. Supply chains, being complex and multifaceted, face unique challenges that centralized cybersecurity measures are often ill-equipped to handle. Ensuring the security and integrity of supply chain operations is crucial for businesses to protect their assets, maintain operational continuity, and preserve customer trust. NaoX Protocol’s decentralized cybersecurity presents a paradigm shift backed by post-quantum cryptography and distributed AI to validate and secure the devices, networks and data that underpin the global supply chain. Its real-time detection capabilities significantly reduce cyber threats, while also allowing various stakeholders in the supply chain to share proof of trusted operations across a decentralized network. This boosts trust, security, and compliance throughout the ecosystem enhancing supply chain resilience and trust among stakeholders. ### Problems #### Supply Chain Data Breaches Unauthorized access to supply chain information such as intellectual property, trade secrets, or customer data can lead to significant financial loss, operational disruption, and reputational damage. Ensuring the security of sensitive data against breaches is critical. #### Network Security Across the Supply Chain The interconnected nature of supply chain networks requires robust security measures to guard against cyberattacks that could disrupt operations and compromise data integrity. #### IoT Security in the Supply Chain IoT devices used within supply chains are often vulnerable, presenting opportunities for cybercriminals to infiltrate and compromise supply chain operations. #### Ransomware and Cyber Extortion Ransomware attacks can cripple supply chain operations by encrypting critical data and systems, leading to costly downtime and potential data loss or exposure. #### Insider Threats Insiders with privileged access to supply chain systems and data pose a significant risk, as they can intentionally or unintentionally pose a risk of theft, cause disruptions, data breaches, or sabotage #### Supply Chain Visibility and Traceability Lack of end-to-end visibility and traceability in supply chains can hinder the ability to identify and alert for security risks and vulnerabilities. The complexity and global nature of supply chains can also introduce security vulnerabilities that can be exploited to infiltrate and disrupt operations. #### Regulatory Compliance Navigating the complex web of international and industry-specific regulations related to data protection and privacy is a constant challenge for supply chains. Supply chain organizations must comply with various cybersecurity regulations and standards, such as NIST SP 800-161 and ISO 28000, which can be challenging and resource-intensive. ### Solutions NaoX Protocol addresses these challenges with a suite of advanced solutions designed for the supply chain sector: * Enhanced data breach protection using post-quantum layer-1 blockchain, Proof of Security trust consensus and distributed AI to validate and secure data exchanges within the supply chain, ensuring data integrity, trust and confidentiality. * Robust network security with real-time detection of cyber threats protects supply chain networks from disruptions and unauthorized access. * IoT device security is enhanced through immutable recording of IoT device operations on-chain that provides transparent proof of device integrity and operational health, securing IoT devices against exploitation. * Real-time threat detection through continuous monitoring and analysis, including data breaches, ransomware, and insider threats, minimizes the impact on supply chain operations creating deeper trust between participants * Insider threat mitigation implemented access controls and continuous monitoring detects and prevents unauthorized actions by insiders, enhancing internal security measures. * Enhanced supply chain visibility and traceability through an immutable record of operations and product provenance enables end-to-end supply chain visibility and traceability, reducing the risk of counterfeit or tampered products. * Regulatory compliance facilitation via immutable record of operations and security measures implemented by NaoX Protocol aids in demonstrating compliance with various cybersecurity regulations and standards applicable to supply chain environments. ### Conclusion NaoX Protocol offers a transformative approach to cybersecurity in supply chain environments, addressing the unique challenges posed by data breaches, ransomware attacks, and the need for trust and transparency among stakeholders. This post-quantum backed innovative solution marks a significant advancement in protecting global supply chains and their integrated data assets, ensuring a more secure, trusted and compliant future for the sector. # Space Tech ### Overview The space industry operates complex systems and infrastructure involving satellites, rockets, ground stations, and various other components. These systems are vulnerable to cyber threats, including data breaches, supply chain attacks, and potential interference from adversarial nations or actors. Ensuring the security, resilience, and trustworthiness of space assets is crucial for successful missions and maintaining a strategic advantage. NaoX Protocol offers a cutting-edge solution by leveraging blockchain consensus and distributed AI to validate the integrity of space systems and secure operations across the entire space ecosystem. Its real-time detection and mitigation capabilities significantly reduce cyber risks and enhance the overall security posture of space missions. By enabling immutable on-chain recording and proof of component operations, NaoX Protocol facilitates trust, transparency, and collaboration among multiple stakeholders in the space industry, enhancing security and ensuring compliance with relevant regulations. ### Problems #### Satellite Cyber Vulnerabilities Satellites are susceptible to cyber attacks that can disrupt operations, compromise data integrity, or even lead to the loss of control, highlighting the need for robust satellite cybersecurity measures and the ability to verify the integrity of satellite systems. #### Supply Chain Risks The space supply chain involves numerous vendors and components, creating potential vulnerabilities that adversaries could exploit to introduce malicious hardware or software, necessitating comprehensive supply chain security measures and the ability to validate the provenance and trustworthiness of space systems. #### Data Integrity and Confidentiality Space missions often handle sensitive data, including classified information, intellectual property, and scientific data, which must be protected against unauthorized access, tampering, or theft, emphasizing the importance of data integrity and confidentiality. #### Advanced Persistent Threats (APTs) Nation-state actors or sophisticated threat groups may launch APTs to gain unauthorized access to space systems, steal valuable data, or disrupt critical infrastructure, requiring advanced cybersecurity measures and the ability to detect and mitigate such threats in real-time. #### Regulatory Compliance Space operations must comply with various national and international regulations, including export controls, data protection laws, and treaties governing space activities, necessitating robust compliance mechanisms and the ability to provide auditable proof of adherence to these regulations. #### Counter-Space Threats Adversarial nations or actors may attempt to disrupt, degrade, or deny the use of space assets through various means, such as jamming, spoofing, or kinetic attacks, requiring resilient systems and the ability to detect and mitigate such threats. ### Solutions * NaoX Protocol provides the foundations for delivering higher data quality and increasing the trustworthiness of space systems by enabling: * Validation of space components and systems under blockchain consensus and distributed AI, creating robust space asset security through provable trust and resilience. * Real-time detection and mitigation of cyber threats, reducing the risks of data breaches, advanced persistent threats, supply chain attacks, and counter-space threats. * Immutable on-chain recording of component operations, processes, and system health, enabling real-time proof of compliance and facilitating collaboration among stakeholders. * Streamlined supply chain security by allowing ecosystem partners to operate on the same decentralized network, sharing proof of trust when consuming or creating sensitive data. ### Conclusion NaoX Protocol offers a transformative cybersecurity approach for the space industry, tackling complex challenges from satellite cyber vulnerabilities to regulatory compliance. By utilizing blockchain and AI, it not only enhances the security and resilience of space systems but also streamlines supply chain security and enables real-time proof of compliance. This innovation represents a significant step forward in securing space operations, ensuring a safer and more trustworthy space environment for critical missions and strategic activities. # NaoX Protocol Tokenomics
# NaoX Mainnet: How It Works NaoX Mainnet activates the protocol as live, production-grade infrastructure. It enables real building, real economic utility, and real enforcement of post-quantum security across Web3. ### 1. Real Building and Integration via SDKs NaoX Mainnet enables developers, enterprises, institutions, and blockchain ecosystems to build trust-native systems secured at a post-quantum level. Through the NaoX SDK, builders can: * Build directly on the NaoX Post-Quantum Chain * Embed post-quantum security into applications, APIs, AI systems, and infrastructure * Connect devices and systems to continuous validation and trust enforcement * Consume Proof of Health and trust signals programmatically Mainnet turns NaoX from a research network into an integration layer that developers can rely on in production. ### **2. Real Utility for the $NAORIS Token** On Mainnet, $NAORIS becomes the economic engine of the network. The token is actively used to: * Power validation, and reward cycles * Secure Proof of Health checks and trust verifications * Enable validator and provider participation * More rewards for validators through automated slashing\
Every security action—device validation, trust proof generation, or anomaly detection—consumes and redistributes $NAORIS. Honest behavior is rewarded; malicious or compromised behavior is penalized. *** ### 3. The Sub-Zero Layer as Live Infrastructure Mainnet activates the Sub-Zero Layer as an enforcing security layer beneath blockchains, applications, and systems. The Sub-Zero Layer: * Validates device and node integrity before signing, routing, or execution * Operates without requiring hard forks or protocol rewrites * Integrates beneath existing stacks rather than replacing them\
On Mainnet, the Sub-Zero Layer moves from passive validation to active, real-time enforcement, making trust a prerequisite for participation. *** ### 4. The Decentralized Trust Mesh Mainnet activates the Decentralized Trust Mesh, formed by verified devices, validators, and Sentinel agents. The mesh functions as the intelligence Alert system by: * Correlating behavior across devices, validators, and contracts * Detecting anomalies and coordinated threats * Enabling fast collective decisions via consensus Flash Votes * Triggering automated mitigation and isolation\
Security intelligence is decentralized, continuous, and improves as the network grows. ### Core Solutions Activated at Mainnet Mainnet enables a modular set of security solutions that apply across Web3 and Web2 infrastructure. #### Validator Shield Real-time integrity and availability protection for validators, sequencers, and prover machines.\ Continuously verifies infrastructure health to help operators remain secure, online, and safe. #### Smart Contract Firewall A live protection layer that monitors execution behavior and trust signals to block malicious or exploitative transactions before finalization. #### DePIN Device Verification Hardware attestation for physical devices, ensuring only authentic and uncompromised hardware participates in DePIN and physical infrastructure networks. #### Quantum-Proof Everything A post-quantum transactions that protects identities, signatures, and state transitions against future quantum attacks. #### Cross-Chain Trust Relay Propagates verified trust, risk, and security metadata across chains and bridges to reduce cross-chain exploits and improve interoperability safety. ### Who NaoX Mainnet Is For NaoX Mainnet secures infrastructure across both Web3 and Web2 environments, including: * Validator and node operators * Layer 1s, Layer 2s, rollups, and app chains * DeFi protocols and decentralized exchanges * Centralized exchanges and custodians * Wallets and signing systems * Bridges and cross-chain infrastructure * Oracle networks and off-chain compute * DePIN networks and physical infrastructure * Enterprises requiring quantum-safe security
### Why Mainnet Matters NaoX Mainnet transforms the protocol into critical infrastructure—an operating system for trust in the quantum era. It enables decentralized, post-quantum security to function as live infrastructure that others can build on, integrate with, and depend on. \
# Technical Upgrades: Testnet → Mainnet This article summarizes the key protocol and infrastructure upgrades that are implemented as part of the Mainnet readiness milestone. NaoX Protocol Mainnet represents the transition from a benchmark-driven Testnet environment into a production-grade network designed for stability, validator scalability, improved performance, and hardened security. Overview of What Changes on Mainnet Mainnet upgrades focus on four core areas: * Execution Layer performance and flexibility * Gas efficiency and execution upgrades * Consensus layer stability and validator scalability * Operational reliability: automation, monitoring, and security hardening The result is a cleaner, more scalable, and more observable network suitable for long-term operation and ecosystem integration. *** ### 1) Execution Layer Enhancements #### Crypto Modularity Implementation Mainnet introduces enhanced cryptographic flexibility through crypto modularity, allowing the system to integrate multiple algorithms and remain adaptable as security standards evolve. This improves long-term maintainability and supports future-proof security decisions at the execution layer. #### Naoris Denomination System (Currency Rebranding) A comprehensive denomination and currency rebranding is completed across system components to ensure consistent monetary representation. This ensures user interfaces, tooling, and protocol-level denomination rules remain aligned and consistent. #### CLI Rebranding The command-line interface is unified under NaoX standards, improving developer ergonomics and operational consistency for node operators. #### StateDB Optimization Mainnet includes key StateDB optimizations that reduce state access latency. Migrating slashing database to PebbleDB, leveraging LSM-tree architecture to improve write performance. Why this matters: faster state access improves block processing efficiency, overall throughput, and responsiveness under load. *** ### 2) Gas Efficiency & Execution Upgrades #### EIP-2930 Access List Optimization Mainnet implements EIP-2930 access list transactions, reducing gas costs by approximately 10–20% for complex smart contract interactions by improving predictive state access patterns. Impact: lower costs for advanced contract execution and improved performance for sophisticated onchain applications. #### Gas Pool Subsidy (Enterprise Transactions) A Gas Pool Subsidy feature is introduced, allowing private chain operators to subsidize transaction costs and enable zero-cost transactions for enterprise end users. Predictable costs and user friendliness are great advantages for enterprises, making NaoX an attractive tool to use. #### Performance Impact: Faster Block Validation Combined execution optimizations result in \~35% faster block validation, improving synchronization and throughput. #### Execution Upgrade: Fusaka v1.16.7 The execution layer is upgraded to Fusaka v1.16.7, improving baseline performance and aligning the network with the latest execution upgrade version referenced in the documentation.
*** ### 3) Consensus Layer & Validator Infrastructure Upgrades #### Full Geth Integration Mainnet readiness includes completion of base code setup and full execution with Geth (Go implementation for Etherum), ensuring stable coordination between the execution and consensus layers. Why this matters: the execution and consensus layers need to work smoothly together, so validators can produce blocks reliably and the whole network stays in sync. #### Fusaka Consensus Upgrade v7.0.0 The consensus layer upgrades to Fusaka v7.0.0, implementing enhanced fork choice algorithms and improved reward mechanisms.
#### Validator Monitoring Improvements Validator telemetry is expanded to track: * attestation effectiveness * proposal success rates * sync committee participation\
Operational metrics shown in the document include: * 64 active validators * 100% participation rate * PebbleDB database backend * consensus version v7.0.0\
*** ### 4) Performance Optimization for Mainnet Scale #### PebbleDB Integration (Slashing DB) The slashing database migrates to PebbleDB, leveraging LSM-tree architecture to improve write performance by 3–5x, which is critical for maintaining validator accountability under high load. #### Parallel Epoch Processing Mainnet includes parallel precomputation for epoch transitions, reducing processing time and improving stability during epoch changes. \ The documentation highlights epoch processing time below 500ms, reduced from 2–3 seconds. #### Scalability Foundation Performance upgrades establish a foundation supporting 10,000+ validators without degrading consensus speed or reliability.
*** ### 5) Automation, Monitoring, and Explorer Readiness #### Automated Setup Scripts Mainnet deployment workflow includes automation scripts for single-node and multi-node setups, reducing setup time and improving configuration consistency. #### Chain Monitoring Stack (Prometheus + Grafana) The monitoring stack integrates Prometheus and Grafana for real-time visibility into: * chain health * validator performance * system resources\
#### Unified Storage Support for Tools & Backups PebbleDB support extends into ExploreDB tools and backup systems, unifying storage layers for improved performance and operational consistency.
#### Blockchain Explorer Deployment Mainnet readiness includes deployment and configuration of a fully featured explorer for transaction tracking and network analysis. \ The document also references active node count, block height, and propagation monitoring as part of system health reporting. *** ### 6) Cloud Infrastructure & Security Hardening #### Centralized Cloud Node Configuration A unified cloud node configuration hosts monitoring and explorer services at a single strategic location to streamline operations and management. #### Security & Vulnerability Assessment Mainnet includes a systematic security audit across execution and consensus layers to identify potential attack vectors. Hardening work includes: * fixes for network layer attacks * mitigations for consensus manipulation * protections against state corruption risks\
Security scanning is also integrated into CI/CD for continuous monitoring. \ The documentation notes 12 vulnerabilities remediated and 100% critical fixes deployed. *** ### 7) Slashing, Incentives, and Parameter Tuning #### Slashing Mechanism Study Mainnet readiness includes research-driven refinement of slashing mechanics to balance: * strict enforcement for security * validator retention and network participation #### Incentive Model Enhancement Reward distribution is redesigned to encourage honest validator behavior while maintaining robust network security. #### Slasher Operator Rewards Mainnet implements proportional rewards for users enabling the --slasher flag, incentivizing decentralized monitoring and malicious behavior detection. #### Geth Parameter Fine-Tuning Mainnet tuning includes optimized gas limits, block times, and network parameters based on extensive testing. \ This tuning results in a reported 25% increase in transaction throughput. *** ### 8) Gas Model & Testing Improvements #### EIP-1559 Enhancement Research Mainnet preparation includes research into base fee adjustment improvements to reduce fee volatility in private chain environments. \ The documentation highlights a proposed 40% reduction in base fee fluctuation while maintaining congestion control. #### Property-Based Testing An automated property-based testing framework validates gas model invariants across millions of randomized transaction scenarios. \ Testing coverage is reported at 95%.
*** ### Summary: What Mainnet Represents Technically Compared to Testnet, NaoX Mainnet introduces: * Faster execution through StateDB optimization and EIP-2930 enhancements * Improved throughput and block validation performance (\~35% faster validation) * Stronger consensus stability via Geth integration and Fusaka consensus upgrades * Validator scalability foundations supporting 10,000+ validators * Production-grade operations with automation, monitoring, and explorer deployment * Security hardening with remediated vulnerabilities and continuous scanning * Improved incentive alignment via slashing, rewards refinement, and slasher operator rewards * Stronger testing guarantees through property-based testing and gas model research\
These upgrades position NaoX for long-term Mainnet reliability, operator confidence, and ecosystem integration.
# Post-Quantum DePIN Testnet The Post-Quantum DePIN Testnet lets anyone run a browser based node, contribute real time threat information, and earn rewards. The guides below cover everything from installation to points. * Post-Quantum DePIN Testnet Installation Guide * A Guide To The Dashboard * User Guide To Functions & Features * User Guide To Points & Referrals * DePIN Testnet FAQs # DePIN Testnet FAQs ## GeneralTestnet FAQs **What is the NaoX Protocol Post-Quantum DePIN Testnet?** The Post-Quantum DePIN Testnet is an experimental version of the NaoX Protocol network where users can test various security functions as part of a Browser Security Node Extension. This allows the NaoX Protocol team to test the network live with global users, and for users to participate in a secure ecosystem and earn Testnet points, that will later be converted into [$NAORIS tokens](https://www.naorisprotocol.com/naoris-token) during the community airdrop at the Token Generation Event (TGE). **How do I participate in the DePIN Testnet?** To participate, visit the official [NaoX Protocol Testnet Website](https://naorisprotocol.network/testnet), navigate to the ‘How It Works’Testnet section, and select the appropriate download process for the Wallet and Browser Security Node software, install it on your computer, and start running the node. You'll earn Testnet points for your participation straight away. You can get further information about the DePIN Testnet in the [Documents and Guides](https://taplink.cc/naorisprotocol) **What is NaoX Protocol’s purpose?** NaoX Protocol enhances the security and integrity of Web2 & Web3 infrastructure, systems and data via its Post-Quantum native Decentralized Security Layer that incentivizes cyber-secure validator nodes operating under the [Proof of Security consensus mechanism](https://www.naorisprotocol.com/what-is-naoris-protocol#dPoSec) to collaborate together across participating networks. **What value do I get by being part of the network?** Improved cybersecurity, enhanced privacy and potential rewards. **What kind of support is available during the Testnet?** NaoX Protocol provides comprehensive support through its official documentation, community forums, and support channels. You can also reach out to the support team for technical assistance through our dedicated [support channel.](https://naorisprotocolhelp.zendesk.com/hc/en-gb)
**Can I participate if I am new to blockchain technology?** Absolutely! The NaoX Protocol Testnet is designed to be user-friendly, and the official [NaoX Protocol Testnet Website](https://naorisprotocol.network/testnet) provides step-by-step guides to help new users get started.
## Technical FAQs **What is the Browser Security Node?** The Browser security node is a component of the NaoX Protocol network that helps maintain security standards on your browser interactions online and validate transactions. By running a Browser Security Node, users contribute to the network’s Decentralized CyberSecurity & Trust Mesh and earnTestnet points.
**What security features does the Browser Security Node have?** The Browser Security Node provides the following features. * Malware blocker * Ad Blocker * Tracking blocker * Safe Search * HTTPS ensured **How secure is the NaoX Protocol Wallet?** The NaoX Protocol wallet is designed following best practice, with advanced security features, including post-quantum encryption and secure key storage, to ensure the safety of your funds and data.
**What should I do if I encounter issues while running my security node?** If you encounter any issues, refer to the official documentation or seek help in the NaoX Protocol community forums. For persistent issues, reach out to the support team for technical assistance through our dedicated [support channel.](https://naorisprotocolhelp.zendesk.com/hc/en-gb)
**Can I run multiple security nodes?** Yes, you can run multiple browser security nodes.
**Is this a post-quantum Testnet?** Yes, there are post-quantum elements embedded in thisTestnet.
**Will this Testnet be available on Mobile?** No, it's desktop only, supporting Linux, Windows and Mac operating systems
**What am I protected against with the Browser Security Node?** You are protected against malicious websites, malware, malicious add ons, online trackers, unwanted ads, and de-anonymization scripts. This metadata is shared across the mesh for risk mitigation and sharing.
**What are the benefits of downloading and installing the node?** Enhanced security, improved privacy online, real-time threat detection, and mitigation against a number of key risks. Additionally, you gain participation in a decentralized security network.
**Who defines the 'secure configuration' for me as a solo user?** NaoX Protocol ensures a secure configuration.
**What value does my laptop bring to the network running the node?** It enhances the network’s security and resilience by threat intelligence, contributing processing power and data verification.
**What data is shared upon agent install and how is privacy/anonymity protected?** No private data is collected or shared; only necessary metadata is shared for the needed security.
**What happens when a threat is detected?** It is automatically mitigated and this information will be shared with others.
**Where can I submit feedback during the testing phase?** Feedback can be submitted through the official NaoX Protocol Testnet [support channel.](https://naorisprotocolhelp.zendesk.com/hc/en-gb)
**Is it secure and safe on my device?** Yes, it enhances security without compromising device safety.
**Are there any privacy concerns?** No private data is collected or shared.
**What info from my device is shared?** No data about the device itself is collected.
**How is this useful to the blockchain?** It tests the chain from various perspectives that are critical to the advancement of the project, ensuring security, scalability, and privacy.
## Points & Token FAQs **What are Testnet points?** Testnet points are rewards earned by users for participating in the NaoX ProtocolTestnet. These points will be converted into [$NAORIS tokens](https://www.naorisprotocol.com/naoris-token) during the community airdrop at the TGE.
**How do I earn Testnet points?** You can earn Testnet points by downloading and running the NaoX Protocol Wallet and Browser Security Node on your computer. Points are awarded based on the duration and effectiveness of your node’s operation.
**What happens to my Testnet points at TGE?** At TGE, your accumulated Testnet points will be converted into NaoX Protocol tokens, which you can use within the ecosystem or trade on supported exchanges.
**Is there a limit to the number of Testnet points I can earn?** There is no explicit limit to the number of Testnet points you can earn. However, points are awarded based on your node's performance and the duration of its operation.
**Can I withdraw my Testnet points?** No, Testnet points cannot be withdrawn. They are virtual points that will be converted into tokens at the TGE.
**Are Testnet points transferable?** No, Testnet points are non-transferable and can only be earned through participation in the NaoX Protocol Testnet.
**How do I check my Testnet points balance?** You can check your Testnet points balance within the NaoX Wallet interface or Browser Security Node Dashboard. It will display your accumulated points and other relevant information.
**Are there any rewards for early participants?** Yes, early participants in the Testnet may receive additional bonuses or multipliers on theirTestnet points as a reward for their early involvement.
# Post-Quantum DePIN Testnet Installation Guide *Please note: This Testnet works with Chrome/Chromium based browsers and services only — i.e. Gmail, emails served by Google Admin and Chromium based browsers.*\ \ [*https://www.naorisprotocol.com/blog/naoris-protocol-post-quantum-depin-testnet-installation-guide*](https://www.naorisprotocol.com/blog/naoris-protocol-post-quantum-depin-testnet-installation-guide) # User Guide To Points & Referrals Legal Disclaimer: OFAC sanctioned countries are excluded from taking part in this Airdrop and are not eligible for $NAORIS tokens as part of this Testnet. OFAC sanctioned countries\ \ # A Guide To The Dashboard The Browser Security Node Dashboard offers a user-friendly interface where you can: * Visualize your nodes, your referred nodes and total global number of nodes. * Monitor ads blocked, trackers blocked, time saved, websites browsed. * Track your current and total points. * View points earned from referrals. * View your progress across the Tiers * Understand the airdrop period you are in. This transparency ensures users stay informed and incentivized throughout their participation. # User Guide To Functions & Features How will the DePIN Testnet work when I’m browsing & with my computer? In this article we will dive into some of the Browser Security Node functions and features and how they work when you are browsing and how it works with your computer. # How Does NaoX Protocol Work? ### **NaoX Protocol: The Post-Quantum, Sub-Zero Blockchain Layer for CyberSecurity & Digital Trust in Web2 and Web3** NaoX Protocol's Post-Quantum Sub-Zero Blockchain Layer enhances the infrastructure across all blockchain layers, including L0, L1, L2, as well as DEXes, bridges, and validators in a positive-sum, non-competitive way for Web2 and Web3. The DePIN (Decentralized Physical Infrastructure Network) is fortified with post-quantum security, ensuring cyber-resilience and network health across both Web2 and Web3 ecosystems. NaoX introduces a new standard in transparency, trust, and security, preparing the entire blockchain stack for a post-quantum future.
## **Introduction: The Necessity of Decentralized Post-Quantum Cybersecurity in the Digital Age** In today's rapidly evolving digital landscape, the importance of robust, adaptive, and future-proof cybersecurity measures cannot be overstated. As our reliance on technology continues to grow, so too does the frequency and sophistication of cyber threats. Traditional, centralized security solutions are no longer sufficient to protect against the ever-changing tactics employed by malicious actors, especially in light of the impending threat of quantum computing. The current state of cybersecurity is characterized by a number of significant risks and challenges: 1. **Quantum Computing Risks**: With the advent of quantum computing, many of the cryptographic algorithms used in current security systems will become vulnerable to attack. This poses a significant threat to the long-term security of sensitive data and infrastructure across both Web2 and Web3 ecosystems. 2. **Centralized Vulnerabilities**: Centralized security systems often present single points of failure, making them vulnerable to targeted attacks. If an attacker successfully compromises a central authority, they can gain control over the entire network, leading to widespread damage and loss of trust. 3. **Lack of Transparency**: Centralized systems often lack transparency, making it difficult for users to verify the integrity of the security measures in place. This lack of transparency can erode trust and leave users uncertain about the safety of their data. 4. **Slow Response Times**: In a centralized system, the detection and response to security threats can be slow, as all data must be processed and analyzed by a single entity. This delay can allow attackers to cause significant damage before they are detected and stopped. 5. **Scalability Limitations**: As the number of connected devices continues to grow, centralized security solutions may struggle to keep pace. The sheer volume of data generated by these devices can overwhelm traditional security architectures, leading to performance issues and increased vulnerability. To address these challenges and ensure the security of our digital future, a new approach to cybersecurity is needed. This is where the concept of decentralized post-quantum cybersecurity, as exemplified by NaoX Protocol, comes into play. Decentralized post-quantum cybersecurity offers a paradigm shift in how we approach the protection of our digital assets and infrastructure. By distributing the responsibility for security across a network of nodes and employing advanced cryptographic techniques like post-quantum algorithms, decentralized systems eliminate single points of failure and ensure that the compromise of any one node does not jeopardize the entire network. Furthermore, decentralized systems provide unprecedented levels of transparency, allowing users to verify the integrity of the security measures in place. This transparency helps to build trust and ensures that all participants can hold each other accountable for maintaining the security of the network. The use of advanced technologies, such as blockchain and post-quantum cryptography, enables decentralized cybersecurity solutions to scale effectively and remain secure in the face of emerging threats. By harnessing the power of collective intelligence and adapting in real-time to new challenges, decentralized systems offer a level of resilience and adaptability that is simply not possible with traditional, centralized approaches. As we move forward into an increasingly interconnected and technology-dependent world, the adoption of decentralized post-quantum cybersecurity solutions like the NaoX Protocol will be essential to ensuring the safety, privacy, and integrity of our digital lives across both Web2 and Web3 ecosystems. By embracing this new paradigm, we can build a more secure, transparent, and resilient foundation for the digital age, one that is capable of withstanding the challenges posed by quantum computing and other emerging threats. ### **Decentralised Trust Mesh Architecture (dTMA)** NaoX Protocol's Decentralised Trust Mesh Architecture (dTMA) effectively addresses the core challenges around secure and trusted information sharing between organisations, while adhering to zero-trust principles. Utilising a custom-built Proof of Security blockchain and cryptography, the system focuses on Confidentiality, Integrity, and Availability (CIA) assurance for data quality and security. Devices become trusted validator nodes operating under consensus, detecting real-time anomalies to bring validated decentralized trust to untrusted and centralized processes, operations, devices and networks. ### **No More Centralized Silos** Under NaoX Protocol, devices behave as they're designed to and are no longer required to operate in centralized silos, but are measured and are active security contributors under consensus to a new layer of decentralized trust and assurance mesh. NaoX Protocol deploys a software agent onto any device or service that enables the continuous real-time reporting of its cybersecurity and operational status under Proof of Security consensus, creating a network of validators that provably assure infrastructure security. Every device becomes a cyber-trusted validator node that constantly monitors every other device in real time. Detection of cyber unknowns within complex networks happens in milliseconds, under the collective intelligence of the network that monitors, identifies and responds to cyber risks quicker than any single entity can. Trust is strengthened by creating a collaborative environment where agents work together to validate and secure each other and to locate and map threats against known threat models. NaoX Protocol secures the device and operational baseline through decentralized unified governance across all devices, creating an intelligent network of trust. In effect, NaoX Protocol ensures secure validated data quality and exchange, redefining TRUST, while shaping future security standards. ### **Key Components of the Decentralized Cybersecurity Framework** #### **Agents** Agents are autonomous software programs that operate independently or on behalf of users within the decentralized cybersecurity framework. There are two main types of agents: * **Validators:** Distributed nodes responsible for performing multi-level integrity checks to validate transactions and ensure blockchain integrity. * **DataScan:** Agents that scan logs in real-time, applying thousands of rules to detect known malicious patterns and activities. #### **Proof of Security consensus mechanism** NaoX Protocol employs a custom-built consensus mechanism called Proof of Security. Proof of Security consensus combines elements of Proof of Stake (PoS) and Byzantine Fault Tolerance (BFT) to achieve energy efficiency, resilience against faults, and protection from malicious nodes. The Oracle for Chain Health component continuously monitors node health and security. #### **Advanced Security Measures** * **Quantum Resistance:** Integration of Key Encapsulation Mechanism (KEM) and quantum-resistant signatures like Dilithium to protect against potential quantum computing attacks. * **Blockchain Bridges:** Enables secure transfer of data/assets between different blockchains or layers, allowing seamless integration with external systems. #### **Blockchain Ecosystem** The ecosystem includes a user-friendly blockchain explorer for transparency and auditing, and IPFS for secure decentralized data backup and storage. ### **Unique Features of NaoX Protocol** * **Sub-Zero Layer:** NaoX Protocol's Post-Quantum Sub-Zero Blockchain Layer enhances the infrastructure across all blockchain layers, including L0, L1, L2, as well as DEXes, bridges, and validators in a positive-sum, non-competitive way. * **High Scalability:** Can process over 1 million transactions per second (1M+ TPS), enabling large-scale applications. * **Proof of Security consensus:** Custom security consensus mechanism achieving decentralised consensus, preventing cyber attacks and preserving blockchain integrity. * **Decentralised Security by Design:** Users interact with the blockchain while their data remains secure, guarding against breaches and ensuring protection. # Overall Architecture ### **NaoX Protocol: The Post-Quantum, Sub-Zero Blockchain Layer for CyberSecurity & Digital Trust in Web2 and Web3** NaoX Protocol's Post-Quantum Sub-Zero Blockchain Layer enhances the infrastructure across all blockchain layers, including L0, L1, L2, as well as DEXes, bridges, and validators in a positive-sum, non-competitive way in Web2 and Web3. The DePIN (Decentralized Physical Infrastructure) infrastructure is fortified with post-quantum security, ensuring cyber-resilience and network health across both Web2 and Web3 ecosystems. NaoX introduces a new standard in transparency, trust, and security, preparing the entire blockchain stack for a post-quantum future. ### **Decentralized Trust Mesh Architecture (dTMA)** NaoX Protocol is a self-validating secure network leveraging Blockchain that harnesses the collective power of participating and incentivised devices, creating a Decentralized Trust Mesh Architecture (dTMA). It enables the secure and transparent exchange of high-quality data through advanced cryptography while preserving confidentiality, integrity, and availability under zero-trust principles.
#### **Key Components of the Decentralized Cybersecurity FrameworkPost-Quantum Cryptography - Securing the Future** * NaoX Protocol integrates post-quantum cryptographic algorithms, such as Key Encapsulation Mechanism (KEM) and Dilithium signatures * Post-quantum cryptography ensures the security of the decentralized cybersecurity framework against potential quantum computing attacks * By employing quantum-resistant algorithms, NaoX Protocol future-proofs the security of digital assets and sensitive information * The integration of post-quantum cryptography positions NaoX Protocol as a leader in secure, forward-thinking blockchain solutions #### **Sub-Zero Layer - Enhancing Infrastructure Across All Blockchain Layers** * NaoX Protocol's Sub-Zero Layer is a fundamental infrastructure layer that enhances security and performance across all blockchain layers, including L0, L1, L2, DEXes, bridges, and validators * The Sub-Zero Layer operates in a positive-sum, non-competitive manner, providing benefits to the entire blockchain ecosystem * By fortifying the DePIN (Decentralized Physical Infrastructure) with post-quantum security, the Sub-Zero Layer ensures cyber-resilience and network health across both Web2 and Web3 ecosystems * The Sub-Zero Layer introduces a new standard in transparency, trust, and security, preparing the entire blockchain stack for a post-quantum future #### **Agent - The Power of Continuous Interrogation** * A special software "agent" is installed on each device (mobile, PC, server, IoT devices, etc.) across Web2 and Web3 ecosystems * Agents collect real-time operations and security data about each device, enabling continuous monitoring and validation #### **Dedicated Validator Node Network - The Power of Decentralisation** * Information from agents is evaluated by a decentralised network of validators using the Proof of Security consensus mechanism * A few validators are randomly selected from a global validator network to perform multi-level integrity checks * Validators form consensus on whether the information is good or bad, ensuring the integrity of the blockchain * Evidence is recorded as a permanent, tamper-proof record on the blockchain * The decentralised validator network eliminates the need to trust a single entity, enhancing security and resilience * Every device is a potential validator, making it nearly impossible for hackers to compromise the entire system * Validators are rewarded with $NAORIS tokens for honest evaluations, driving the quality of results and integrity #### **Proof of Security blockchain - The Power of Proof** * Validation results are recorded as immutable events on the Post-Quantum Sub-Zero Blockchain Layer * Permanent, tamper-proof records are shared with all parties as a reference, ensuring transparency and auditability * Records prove that the agent performed its job, verifying device integrity, operations, and its own integrity * By proving that cybersecurity controls were performed, NaoX Protocol reduces customers' risk and liability * NaoX Protocol uses this shared truth to maintain and upgrade security across the entire network, including Web2 and Web3 ecosystems #### **Outcomes & Benefits** * Real-time secure validation of devices across Web2 and Web3 ecosystems * Decentralised system converts every device from a potential weakness to a strength, enhancing overall security * Threats are detected in milliseconds, reducing cyber threats by an order of magnitude * Enterprises leverage network size to their benefit for security and resilience, benefiting from the collective intelligence of the decentralised system * Evidence proves that cybersecurity controls have been applied, which can be shared with all parties, ensuring transparency and compliance * Compared to a centralised system where one company controls everything, NaoX Protocol produces a shared truth from a decentralised system that is always on and cannot be interrupted, providing unparalleled security and trust. # Post-Quantum Blockchain Infrastructure: NaoX Protocol ## **Introduction: The Necessity of Post-Quantum Blockchain Infrastructure in the Digital Age** The advent of quantum computing poses a significant threat to the security of traditional blockchain infrastructures. As quantum computers become more powerful and accessible, they have the potential to break the cryptographic algorithms that currently secure most blockchain networks, putting digital assets and sensitive information at risk. The current state of blockchain security faces several challenges in light of the impending quantum computing revolution: 1. **Quantum Vulnerability**: Many of the cryptographic algorithms used in blockchain infrastructures, such as elliptic curve cryptography (ECC) and RSA, are vulnerable to quantum attacks. Once quantum computers reach a sufficient level of development, they could be used to break these algorithms, compromising the security of the entire blockchain network. 2. **Lack of Quantum Resistance**: Most existing blockchain infrastructures have not been designed with quantum resistance in mind. As a result, they are not equipped to withstand the potential threats posed by quantum computing, leaving them exposed to future attacks. 3. **Long-Term Security Risks**: Given the rapid pace of development in quantum computing, the threat of quantum attacks on blockchain infrastructures is not a distant future but a near-term risk. The lack of quantum-resistant measures in current blockchain networks could have severe consequences for the security and integrity of digital assets and transactions in the coming years. 4. **Insufficient Infrastructure Upgrades**: Upgrading existing blockchain infrastructures to incorporate quantum-resistant cryptography is a complex and time-consuming process. Many blockchain projects may struggle to implement the necessary changes in a timely manner, leaving them vulnerable to quantum attacks. To address these challenges and ensure the long-term security and resilience of blockchain infrastructures, the adoption of post-quantum cryptography and advanced infrastructure solutions is crucial. This is where the NaoX Protocol comes into play, offering a comprehensive and forward-thinking approach to post-quantum blockchain infrastructure security. The NaoX Protocol leverages state-of-the-art post-quantum cryptographic algorithms, such as Key Encapsulation Mechanism (KEM) and Dilithium signatures, to fortify its blockchain infrastructure against potential quantum computing attacks. By integrating these quantum-resistant measures into its foundational Post-Quantum Sub-Zero Layer, NaoX Protocol ensures the long-term security and resilience of digital assets and sensitive information. Furthermore, the protocol's Decentralized Trust Mesh Architecture (dTMA) infrastructure harnesses the power of decentralization and collective intelligence to provide an unparalleled level of security and trust. The combination of post-quantum cryptography and a decentralized infrastructure creates a robust and adaptive security framework that can withstand the challenges posed by quantum computing and other emerging threats. As the digital world continues to evolve and quantum computing advances, the adoption of post-quantum blockchain infrastructure solutions like the NaoX Protocol will be essential to protect the integrity and security of digital assets and transactions. By embracing this innovative approach, the blockchain industry can future-proof itself against the risks posed by quantum attacks and ensure the long-term sustainability and growth of the ecosystem. ### **Overview** NaoX Protocol is a decentralized cybersecurity solution that leverages post-quantum cryptography to secure its blockchain infrastructure against potential quantum computing attacks. By integrating quantum-resistant algorithms, such as Key Encapsulation Mechanism (KEM) and Dilithium signatures, NaoX Protocol future-proofs the security of digital assets and sensitive information, positioning itself as a leader in secure, forward-thinking blockchain infrastructure solutions. ### **Post-Quantum Sub-Zero Layer Infrastructure** NaoX Protocol's Post-Quantum Sub-Zero Layer is a fundamental infrastructure layer that enhances security and performance across all blockchain infrastructure layers, including L0, L1, L2, DEXes, bridges, and validators. This layer operates in a positive-sum, non-competitive manner, providing benefits to the entire blockchain ecosystem. The Sub-Zero Layer fortifies the DePIN (Decentralized Physical Infrastructure) with post-quantum security, ensuring cyber-resilience and network health across both Web2 and Web3 ecosystems. By introducing a new standard in transparency, trust, and security, the Sub-Zero Layer prepares the entire blockchain infrastructure stack for a post-quantum future. ### **Infrastructure Benefits** * Real-time secure validation of devices across Web2 and Web3 ecosystems, ensuring a robust and secure infrastructure * Decentralized system that enhances overall security by converting every device from a potential weakness to a strength within the infrastructure * Rapid threat detection, reducing cyber threats to the infrastructure by an order of magnitude * Enterprises benefit from the collective intelligence of the decentralized system, leveraging network size for infrastructure security and resilience * Tamper-proof evidence of applied cybersecurity controls, ensuring infrastructure transparency and compliance * Unparalleled infrastructure security and trust through a decentralized, always-on system that cannot be interrupted By combining post-quantum cryptography with a decentralized trust mesh architecture, NaoX Protocol establishes itself as a pioneering force in the development of secure, quantum-resistant blockchain infrastructure solutions. The protocol's focus on infrastructure security and resilience positions it as a key player in the future of blockchain technology. **Infrastructure Components** #### **Post-Quantum Cryptographic Infrastructure** NaoX Protocol integrates post-quantum cryptographic algorithms into its infrastructure to secure its decentralized cybersecurity framework: * Key Encapsulation Mechanism (KEM): A quantum-resistant algorithm used for secure key exchange and encryption, ensuring the confidentiality of data within the infrastructure. * Dilithium Signatures: A post-quantum digital signature scheme that ensures the integrity and authenticity of transactions and data within the infrastructure. These quantum-resistant algorithms protect the NaoX Protocol blockchain infrastructure against potential attacks from quantum computers, ensuring the long-term security of the network. #### **Decentralized Trust Mesh Architecture (dTMA) Infrastructure** NaoX Protocol's dCSMA infrastructure is a self-validating secure network that harnesses the collective power of participating and incentivized devices. It enables the secure and transparent exchange of high-quality data through advanced cryptography while preserving confidentiality, integrity, and availability under zero-trust principles. #### **Agent Infrastructure** Agents are autonomous software programs installed on devices across Web2 and Web3 ecosystems. They collect real-time operations and security data, enabling continuous monitoring and validation of the infrastructure. #### **Dedicated Validator Node Network Infrastructure** Information from agents is evaluated by a decentralized network of validators using the Proof of Security consensus mechanism. Validators are randomly selected to perform multi-level integrity checks and evaluate information against known cyber threats using quantum-resistant cryptography, ensuring the security and integrity of the infrastructure. #### **Proof of Security blockchain Infrastructure** Validation results are recorded as immutable events on the Post-Quantum Sub-Zero Blockchain Layer infrastructure. Tamper-proof records are shared with all parties, ensuring transparency and auditability. NaoX Protocol uses this shared truth to maintain and upgrade security across the entire network infrastructure. # Agent ## Decentralized Agent (Daemon) in NaoX Protocol Introduction: The Necessity of Decentralized Cybersecurity in the Digital Age As the digital landscape rapidly evolves, the importance of robust and adaptive cybersecurity measures cannot be overstated. As our reliance on technology continues to grow, so too does the frequency and sophistication of cyber threats. Traditional, centralized security solutions are no longer sufficient to protect against the ever-changing tactics employed by malicious actors. The current state of cybersecurity is characterized by a number of significant risks and challenges: 1. Single Points of Failure: Centralized security systems often present single points of failure, making them vulnerable to targeted attacks. If an attacker successfully compromises a central authority, they can gain control over the entire network. 2. Lack of Transparency: Centralized systems often lack transparency, making it difficult for users to verify the integrity of the security measures in place. This lack of transparency can erode trust and leave users uncertain about the safety of their data. 3. Slow Response Times: In a centralized system, the detection and response to security threats can be slow, as all data must be processed and analyzed by a single entity. This delay can allow attackers to cause significant damage before they are detected and stopped. 4. Scalability Limitations: As the number of connected devices continues to grow, centralized security solutions may struggle to keep pace. The sheer volume of data generated by these devices can overwhelm traditional security architectures, leading to performance issues and increased vulnerability. 5. Quantum Computing Risks: With the advent of quantum computing, many of the cryptographic algorithms used in current security systems will become vulnerable to attack. This poses a significant threat to the long-term security of sensitive data and infrastructure. To address these challenges and ensure the security of our digital future, a new approach to cybersecurity is needed. This is where the concept of decentralized cybersecurity, as exemplified by the NaoX Protocol, comes into play. Decentralized cybersecurity offers a paradigm shift in how we approach the protection of our digital assets and infrastructure. By distributing the responsibility for security across a network of nodes, decentralized systems eliminate single points of failure and ensure that the compromise of any one node does not jeopardize the entire network. Furthermore, decentralized systems provide unprecedented levels of transparency, allowing users to verify the integrity of the security measures in place. This transparency helps to build trust and ensures that all participants can hold each other accountable for maintaining the security of the network. The use of advanced technologies, such as blockchain and post-quantum cryptography, enables decentralized cybersecurity solutions to scale effectively and remain secure in the face of emerging threats. By harnessing the power of collective intelligence and adapting in real-time to new challenges, decentralized systems offer a level of resilience and adaptability that is simply not possible with traditional, centralized approaches. As we move forward into an increasingly interconnected and technology-dependent world, the adoption of decentralized cybersecurity solutions like the NaoX Protocol will be essential to ensuring the safety, privacy, and integrity of our digital lives. By embracing this new paradigm, we can build a more secure, transparent, and resilient foundation for the digital age. ### **Overview** In the NaoX Protocol, the decentralized agent, also known as a daemon, is a critical component of the decentralized trust mesh architecture (dTMA). These autonomous software programs are installed on devices across Web2 and Web3 ecosystems, enabling continuous monitoring, data collection, and validation of the device's security and operational status. The decentralized agent plays a vital role in ensuring the security, transparency, and integrity of the NaoX Protocol infrastructure by facilitating the real-time exchange of high-quality data between devices and the blockchain network. ### **Benefits** * Enables real-time, continuous monitoring of devices across Web2 and Web3 ecosystems * Provides high-quality, granular data for security analysis and threat detection * Contributes to the decentralization and resilience of the NaoX Protocol infrastructure * Ensures data confidentiality, integrity, and authenticity through advanced cryptography The decentralized agent is a foundational element of the NaoX Protocol, enabling the decentralized trust mesh architecture to provide unparalleled security, transparency, and trust to its users. By continuously monitoring and reporting on the state of devices within the network, the agent plays a crucial role in maintaining the overall health and resilience of the NaoX Protocol infrastructure. ### **Key Functions** #### **Data Collection** The primary function of the decentralized agent is to collect real-time operations and security data from the device on which it is installed. This data includes: * System logs * Network traffic * Resource utilization (CPU, memory, storage) * Running processes and applications * Security events and alerts By continuously gathering this data, the agent enables the NaoX Protocol to maintain an up-to-date understanding of the device's state and behavior. #### **Data Reporting** Once the decentralized agent has collected the relevant data, it securely transmits this information to the NaoX Protocol network for further analysis and validation. The data is sent to a randomly selected group of validator nodes, which form part of the dedicated validator node network. The agent employs advanced cryptography, including post-quantum algorithms like Key Encapsulation Mechanism (KEM) and Dilithium signatures, to ensure the confidentiality, integrity, and authenticity of the transmitted data. #### **Continuous Monitoring** The decentralized agent operates continuously, providing a constant stream of real-time data to the NaoX Protocol network. This ongoing monitoring allows the network to quickly detect and respond to potential security threats or anomalies in the device's behavior. By maintaining a persistent connection to the blockchain network, the agent contributes to the overall security and resilience of the NaoX Protocol infrastructure. # Consensus Mechanism ### **Overview** The Proof of Security consensus mechanism is a core component of the NaoX Protocol, a decentralized cybersecurity solution designed to address the challenges of securing digital assets and infrastructure in the face of emerging threats, including quantum computing. Proof of Security consensus is a custom-built consensus mechanism that combines elements of Proof of Stake (PoS) and Byzantine Fault Tolerance (BFT) to achieve energy efficiency, resilience against faults, and protection from malicious nodes. ### **Key Features** #### **Proof of Stake (PoS) Elements** Proof of Security consensus incorporates elements of the Proof of Stake consensus mechanism, which requires validators to stake a certain amount of the protocol's native cryptocurrency to participate in the consensus process. This approach offers several benefits: 1. **Energy Efficiency**: PoS is significantly more energy-efficient than the traditional Proof of Work (PoW) consensus mechanism, reducing the environmental impact of the NaoX Protocol. 2. **Scalability**: PoS allows for faster transaction processing and higher throughput, enabling the NaoX Protocol to scale more effectively to meet the demands of large-scale applications. 3. **Security**: The staking requirement incentivizes validators to act honestly and maintain the network's security, as they risk losing their staked funds if they engage in malicious behavior. #### **Byzantine Fault Tolerance (BFT) Elements** In addition to PoS, Proof of Security consensus incorporates principles of Byzantine Fault Tolerance to further enhance the security and resilience of the consensus mechanism. BFT ensures that the network can continue to function correctly and reach consensus even in the presence of a certain number of faulty or malicious nodes. The integration of BFT provides: 1. **Fault Tolerance**: The Proof of Security consensus mechanism can tolerate a certain percentage of faulty or malicious nodes, maintaining the overall integrity of the blockchain. 2. **Consensus Finality**: BFT algorithms provide stronger consensus finality, ensuring that once a transaction is committed, it cannot be reversed or modified. 3. **Attack Resistance**: The combination of PoS and BFT makes Proof of Security consensus more resilient against various attack vectors, such as the 51% attack, compared to standalone PoS or PoW systems. #### **Oracle for Chain Health** The Oracle for Chain Health is a critical component of the Proof of Security consensus mechanism, responsible for monitoring the health and security of the network nodes and continuously assessing their integrity and performance. The Oracle assigns a health grade to each node based on various metrics, such as uptime, latency, resource utilization, and security event logs. The Oracle's continuous monitoring and grading system helps prevent significant attacks, such as the 51% attack, by detecting sudden changes or abnormalities that may indicate a potential attack. When a threat is detected, the Oracle can trigger various mitigation actions, such as alerting the network and adjusting the consensus validators to increase the difficulty of a successful attack. ### **Validator Selection and Rewards** Under the Proof of Security consensus mechanism, validators are randomly selected from a global validator network to perform multi-level integrity checks and evaluate information against known cyber threats using quantum-resistant cryptography. This random selection process ensures that the network remains decentralized and resilient against attacks. Validators are rewarded with the protocol's native cryptocurrency, $NAORIS, for their honest participation in the consensus process and for contributing to the overall security and integrity of the network. These rewards incentivize validators to act in the best interest of the network and maintain high standards of performance and security. ### **Decentralized Device Identity Assurance for Enhanced Data Quality & Security** The Proof of Security mechanism validates identities, instilling decentralised trust across the architecture and forming a fortified defence. In a dynamic digital landscape, securing real-time data quality & integrity, privacy, and compliance is paramount, yet challenges arise from volume, processing, and formats. NaoX Protocol's innovative dual-consensus framework builds decentralised trust to provide robust security and data quality through enhanced end-to-end encryption, traceability, and integrity verification, from origin to delivery. ### **How Does Proof of Security consensus Work?** Proof of Security consensus merges Proof of Stake, Byzantine Fault Tolerance, Verifiable Computation, and State-of-the-Art Nodes to achieve consensus. Nodes are chosen based on criteria like uptime, stability, and integrity to ensure trusted behaviour. It guards against attacks with incentives and penalties, promoting honest actions and blockchain integrity. The process ensures proper verifications before block actions. Verifiable computation validates the correctness of computations by participant nodes. Decentralised state-of-the-art nodes prevent malpractice. Proof of Security consensus conquers Web2 issues, enhancing efficiency and scalability. ### **The Power of Verifiable Computation** Verifiable Computation allows offloading complex computations to third parties while preserving integrity and confidentiality without exposing sensitive data. It boosts the efficiency of heavy computational applications like AI, data analysis, and simulations. For NaoX Protocol, this adds scalability, privacy, and trust. Users can verify computations without verifying every step, reducing computation burden while enhancing security and scalability. ### **NaoX Protocol's Byzantine Fault Tolerance (BFT)** BFT is vital for secure transactions, curbing malicious actions, making it ideal for apps that require real-time interactions and high-throughput. The redundancy and fault tolerance nature of BFT enhances scalability, allowing many transactions to be processed simultaneously without sacrificing security or performance. BFT promotes decentralisation, ensuring consensus even with Byzantine faults, preventing network monopoly from any single entity. ### **Proof of Security consensus: A Deeper Dive** The Proof of Security consensus algorithm was developed with the goal of simplifying the operation of the blockchain network during communication and increasing the amount of work that can be done in a given amount of time. It intends to function in a highly secure mode while also scaling itself towards a Phase-3 solution, which will make it a significant step forward in the field of blockchain consensus algorithms. Proof of Security consensus combines the most beneficial aspects of the Proof of Stake (PoS) protocol and the Byzantine Fault Tolerance (BFT) protocol to provide a blockchain solution that is both quick and scalable. It incorporates advanced security measures that are based on trust establishment among nodes to ensure a fast, scalable, and secure network operation. It is a significant improvement over traditional consensus algorithms and represents a significant step forward in the evolution of consensus algorithms. Proof of Security consensus is built on the Ethereum Virtual Machine (EVM), allowing it to execute all smart contracts and offer a flexible platform for the development of decentralised applications. One of the most significant benefits is that it offers full support for all types of smart contracts, enabling developers to build a diverse set of decentralised applications on the platform. This makes it a flexible solution that can be implemented in a variety of fields, including healthcare, finance, and others. In addition to its robust security features, Proof of Security consensus provides on-demand privacy and efficient peer-to-peer discovery, making it a well-rounded and versatile platform. The algorithm's architecture makes use of sophisticated blockchain primitives to improve both its performance and its efficiency. These primitives result in benefits such as reduced transaction processing time and increased scalability. As an on-demand privacy platform, Proof of Security consensus allows users to protect the confidentiality of their data and take advantage of the privacy benefits that come with using the service. Users have full control over their data and can choose which information they want to share and with whom. The peer-to-peer discovery feature makes it easy for nodes to find each other and establish connections, lowering the network's latency and increasing its overall efficiency. Proof of Security consensus employs a unique validator selection process to overcome the requirement for high coordination and communication between nodes, which can slow down the network and increase the risk of failure. Validators are chosen using criteria such as the amount of stake they hold, their reputation, and their performance to maintain the reliability and safety of the network. To ensure the network's integrity and thwart attempts by malicious actors to compromise it, Proof of Security consensus uses an advanced reward mechanism for validators. This incentivizes good behaviour and punishes malicious actors, helping to maintain the network's security. The algorithm also eliminates the danger of "nothing at stake" attacks by penalising malicious validators. Proof of Security consensus uses advanced security measures, including cryptographic signatures and consensus algorithms, to increase trust in the running nodes. This ensures that the network is protected against various attacks, including those that exploit vulnerabilities in the consensus algorithm, and maintains the network's integrity even if one or more nodes are breached. Designed with a focus on security, efficiency, and scalability, Proof of Security consensus caters to the requirements of a wide range of sectors and assists those sectors in maximising the potential of blockchain technology. The algorithm is extremely adaptable and can be tailored to the particular requirements of each sector, enabling it to function as a solution that is both versatile and scalable. For instance, it can be used in the financial sector to ensure the safety and efficacy of payment transactions, and in the healthcare sector to secure and manage electronic medical records. Proof of Security consensus is compatible with both public and private blockchains, and the NaoX Protocol, which utilizes this consensus mechanism, is a hybrid public-private blockchain designed to meet the specific needs of its users. ### **Conclusion** The Proof of Security consensus mechanism is a cutting-edge solution that combines the benefits of Proof of Stake, Byzantine Fault Tolerance, and an Oracle for Chain Health to create a secure, resilient, and efficient consensus protocol for the NaoX Protocol. By incorporating these elements, Proof of Security consensus ensures that the NaoX Protocol can provide unparalleled security and trust to its users, while also enabling high scalability and energy efficiency. As the backbone of the NaoX Protocol's decentralized cybersecurity framework, Proof of Security consensus plays a critical role in protecting digital assets and infrastructure against the challenges posed by quantum computing and other emerging threats. # Validator Node Network ### **Overview** The Validator Node Network is a critical component of NaoX Protocol, a decentralized cybersecurity solution that leverages the power of blockchain technology and post-quantum cryptography to ensure the security, integrity, and resilience of digital systems and networks. The Validator Node Network comprises a diverse range of nodes and validators, each playing a specific role in maintaining the overall health, security, and consensus of the network. ## **Introduction: The Future of Trust Validation - Decentralized vs. Traditional Approaches** In an increasingly digital and interconnected world, the concept of trust has become more critical than ever before. As we rely more heavily on technology for various aspects of our lives, from financial transactions to personal communication and data storage, ensuring the trustworthiness and integrity of the systems and entities we interact with is paramount. However, traditional approaches to trust validation, which often rely on centralized authorities and single points of failure, are becoming increasingly inadequate in the face of evolving threats, growing complexity, and the need for greater transparency and accountability. Decentralized trust validation, on the other hand, represents a paradigm shift in how we establish, verify, and maintain trust in the digital age. By leveraging the power of distributed networks, cryptography, and consensus mechanisms, decentralized trust validation offers a more secure, resilient, and adaptable alternative to traditional centralized models. ### **The Limitations of Traditional Trust Validation** Traditional trust validation approaches, such as those based on centralized authorities (e.g., certificate authorities, financial institutions, or government bodies), suffer from several inherent limitations: 1. **Single Points of Failure**: Centralized trust validation systems are vulnerable to single points of failure, where the compromise of a central authority can undermine the trust and security of the entire system. 2. **Lack of Transparency**: Centralized systems often lack transparency, making it difficult for users to verify the integrity of the trust validation process and the actions of the central authority. 3. **Concentration of Power**: Traditional trust validation models concentrate power in the hands of a few entities, creating the potential for abuse, corruption, or censorship. 4. **Limited Scalability**: Centralized systems can struggle to scale effectively as the number of participants and transactions grows, leading to bottlenecks, inefficiencies, and increased costs. 5. **Slow Adaptation to Change**: Traditional trust validation approaches often have difficulty adapting quickly to new technologies, evolving threats, or changing user requirements, hindering innovation and leaving users exposed to emerging risks. ### **The Advantages of Decentralized Trust Validation** Decentralized trust validation, as exemplified by blockchain-based solutions like NaoX Protocol, addresses the limitations of traditional approaches by offering a range of compelling advantages: 1. **Distributed Security**: Decentralized trust validation distributes the responsibility for maintaining the integrity and security of the system across a network of nodes, eliminating single points of failure and making the system more resilient to attacks or failures. 2. **Transparency and Auditability**: Decentralized systems, particularly those based on blockchain technology, provide a high degree of transparency and auditability, allowing participants to verify the integrity of the trust validation process and the actions of other participants. 3. **Democratization of Trust**: Decentralized trust validation democratizes the process of establishing and maintaining trust, empowering users to participate actively in the network and reducing the concentration of power in the hands of a few entities. 4. **Scalability and Efficiency**: Decentralized systems are designed to scale more effectively than centralized alternatives, leveraging the collective resources of the network to handle increasing volumes of transactions and data without compromising performance or security. 5. **Adaptability and Future-Proofing**: Decentralized trust validation systems are inherently more adaptable and future-proof than traditional approaches, as they can incorporate new technologies, consensus mechanisms, and security measures more easily, ensuring that the system remains relevant and secure in the face of evolving challenges. 6. **Enhanced Privacy and User Control**: Decentralized trust validation often prioritizes user privacy and control, enabling participants to manage their personal data and digital identities more securely and selectively, reducing the risk of unauthorized access or misuse. ### **The Way Forward** As the digital landscape continues to evolve and the demands for secure, transparent, and reliable trust validation grow, the shift towards decentralized approaches appears inevitable. Platforms like NaoX Protocol, which leverage the power of blockchain technology, post-quantum cryptography, and decentralized consensus mechanisms, are at the forefront of this transition, offering a comprehensive and future-proof solution for trust validation in the digital age. By embracing decentralized trust validation, we can build a more secure, transparent, and equitable digital future, one in which the integrity and trustworthiness of our systems and interactions are ensured through the collective efforts and consensus of the network, rather than relying on the fallible and opaque actions of centralized authorities. As we navigate the challenges and opportunities of an increasingly interconnected world, decentralized trust validation will play a pivotal role in shaping the future of digital trust and security. ### **Types of Nodes** NaoX Protocol's Validator Node Network consists of several types of nodes, each with distinct functions and responsibilities: 1. **Validator Nodes**: These nodes are responsible for validating transactions, creating new blocks, and maintaining the integrity of the blockchain. Validator nodes participate in the consensus process, ensuring that all transactions are legitimate and that the network remains secure. 2. **DataScan Nodes**: DataScan nodes are responsible for collecting and analyzing data from various sources, such as IoT devices, servers, and other connected systems. They scan logs in real-time and apply complex rule sets to detect anomalies, potential threats, or malicious activities. 3. **Post-Quantum Nodes**: Post-Quantum nodes are equipped with advanced post-quantum cryptographic algorithms, such as lattice-based cryptography or hash-based signatures, to ensure the long-term security of the network against potential threats posed by quantum computers. 4. **Bridge Nodes**: Bridge nodes facilitate the interoperability between NaoX Protocol and other blockchain networks or external systems. These nodes enable the secure transfer of data, assets, and value across different platforms, expanding the reach and utility of NaoX Protocol. 5. **Storage Nodes**: Storage nodes are responsible for storing and maintaining the data and state of the blockchain. They ensure that all transactions and blocks are permanently recorded and accessible to the network participants. ### **Validator Selection and Consensus** NaoX Protocol employs a unique validator selection process and consensus mechanism to ensure the security, fairness, and efficiency of the network. 1. **Proof of Security consensus**: NaoX Protocol utilizes a custom-built consensus mechanism called Proof of Security, which combines elements of Proof of Stake (PoS), Byzantine Fault Tolerance (BFT), and Verifiable Random Function (VRF) to achieve fast, secure, and energy-efficient consensus. 2. **Validator Selection**: Validators are selected based on a combination of factors, including their stake in the network (PoS), their reputation and past performance (BFT), and a random selection process (VRF). This multi-faceted approach ensures that the network maintains a diverse and representative set of validators, mitigating the risk of centralization or malicious actors gaining control. 3. **Incentives and Penalties**: NaoX Protocol incorporates a system of incentives and penalties to encourage good behavior among validators and discourage malicious or negligent actions. Validators who consistently perform their duties effectively and contribute to the network's security are rewarded with native tokens, while those who engage in malicious activities or fail to meet their obligations may face penalties or expulsion from the network. ### **Post-Quantum Security** One of the key features of NaoX Protocol's Validator Node Network is its incorporation of post-quantum cryptography to ensure the long-term security and resilience of the network. 1. **Post-Quantum Cryptographic Algorithms**: NaoX Protocol integrates advanced post-quantum cryptographic algorithms, such as lattice-based cryptography (e.g., NTRU, LWE) or hash-based signatures (e.g., SPHINCS+), which are designed to withstand potential attacks by quantum computers. 2. **Quantum-Resistant Key Encapsulation Mechanism (KEM)**: The network employs a quantum-resistant key encapsulation mechanism to secure communication between nodes and protect sensitive data from potential quantum-based attacks. 3. **Quantum-Safe Hybrid Cryptosystem**: NaoX Protocol implements a hybrid cryptosystem that combines both classical and post-quantum algorithms, ensuring a smooth transition to quantum-resistant security while maintaining compatibility with existing systems. ### **Benefits of the Validator Node Network** The Validator Node Network offers several key benefits to NaoX Protocol and its users: 1. **Decentralized Security**: By distributing the responsibility for network security and consensus across a diverse set of nodes and validators, NaoX Protocol ensures a high level of decentralization, resilience, and fault tolerance. 2. **Scalability and Efficiency**: The Validator Node Network is designed to scale seamlessly as the network grows, accommodating an increasing number of nodes, transactions, and data points while maintaining high levels of performance and efficiency. 3. **Quantum-Resistant Future-Proofing**: By incorporating post-quantum cryptography and quantum-resistant security measures, NaoX Protocol's Validator Node Network is well-positioned to withstand potential threats posed by quantum computers, ensuring the long-term security and viability of the network. 4. **Interoperability and Extensibility**: The inclusion of Bridge Nodes enables NaoX Protocol to interact seamlessly with other blockchain networks and external systems, expanding the potential use cases and applications of the protocol and fostering a more interconnected and collaborative ecosystem. 5. **Continuous Improvement and Adaptation**: The Validator Node Network is designed to evolve and adapt continuously, incorporating new technologies, consensus mechanisms, and security measures as they emerge, ensuring that NaoX Protocol remains at the forefront of decentralized cybersecurity solutions. ### **Conclusion** The Validator Node Network is a vital component of NaoX Protocol, providing a decentralized, secure, and quantum-resistant foundation for the protocol's cybersecurity capabilities. By leveraging a diverse range of nodes, a robust consensus mechanism, and advanced post-quantum cryptography, the Validator Node Network ensures the long-term security, resilience, and adaptability of NaoX Protocol in the face of evolving threats and technological advancements. As the world moves towards an increasingly interconnected and quantum-capable future, NaoX Protocol's Validator Node Network stands as a bulwark against potential security risks, offering a comprehensive and future-proof solution for decentralized cybersecurity. # Terms & Conditions These Terms and Conditions govern your use of this knowledge base. By using the site you accept them. ### Who we are This knowledge base is operated by NDSE Cyber Ltd, a company organized under the laws of the Commonwealth of The Bahamas and the issuer of the $NAORIS token. ### Separateness notice NDSE Cyber Ltd, the operator of this website and issuer of the $NAORIS token, and Naoris Quantum Protocol Inc. are separate and independent legal entities. This website, the $NAORIS token, and the products and services offered on this website are provided by NDSE Cyber Ltd, and not by Naoris Quantum Protocol Inc. The $NAORIS token is not a security of, and is not offered or sold by, Naoris Quantum Protocol Inc., and nothing on this website constitutes an offer of any securities of Naoris Quantum Protocol Inc. ### Informational purposes only Everything on this site is provided for general information about the NaoX ecosystem and the $NAORIS token. 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The current version is always the one published on this page, with material changes reflected in the text. Last updated: July 17, 2026. # What Is A Decentralized Trust Mesh? NaoX Protocol leverages Post Quantum cryptography and the Proof of Security consensus mechanism to create the world's first self-validating Decentralised Trust 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 Trust 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 Trust Mesh 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 Trust Mesh Architecture #### 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. # Naoris Protocol Price History and Historical Data | CoinMarketCap [Back to Naoris Protocol](https://coinmarketcap.com/currencies/naoris-protocol/) ## Naoris Protocol — Price History Daily | Weekly | Monthly 12/2/2025 - 2/3/2026 [Download CSV](#) Access data via API: [CoinMarketCap API](https://coinmarketcap.com/api/) | Date | Open\* | High | Low | Close\*\* | Volume | Market Cap | | ------------ | -------- | -------- | --------- | --------- | ----------- | ----------- | | Feb 02, 2026 | $0.02228 | $0.02388 | $0.02095 | $0.02373 | $1,452,963 | $14,224,057 | | Feb 01, 2026 | $0.02278 | $0.02463 | $0.02228 | $0.02228 | $1,009,009 | $13,354,058 | | Jan 31, 2026 | $0.02503 | $0.0254 | $0.02158 | $0.02278 | $2,603,008 | $13,652,016 | | Jan 30, 2026 | $0.02616 | $0.02703 | $0.02442 | $0.02503 | $2,313,575 | $14,998,493 | | Jan 29, 2026 | $0.02771 | $0.02948 | $0.02582 | $0.02616 | $2,538,713 | $15,675,766 | | Jan 28, 2026 | $0.02786 | $0.02926 | $0.02673 | $0.02772 | $1,874,304 | $16,609,686 | | Jan 27, 2026 | $0.026 | $0.02925 | $0.02514 | $0.02786 | $1,358,367 | $16,695,634 | | Jan 26, 2026 | $0.0249 | $0.02668 | $0.02479 | $0.026 | $1,339,901 | $15,582,744 | | Jan 25, 2026 | $0.02468 | $0.02678 | $0.02401 | $0.02492 | $1,868,901 | $14,919,444 | | Jan 24, 2026 | $0.02751 | $0.02751 | $0.02438 | $0.02469 | $2,072,996 | $14,790,235 | | Jan 23, 2026 | $0.03218 | $0.03403 | $0.02674 | $0.02751 | $3,796,295 | $16,483,253 | | Jan 22, 2026 | $0.03021 | $0.037 | $0.02859 | $0.03218 | $12,779,066 | $19,282,729 | | Jan 21, 2026 | $0.03595 | $0.05992 | $0.02402 | $0.03035 | $38,779,024 | $18,105,123 | | Jan 20, 2026 | $0.024 | $0.03595 | $0.02267 | $0.03594 | $3,369,010 | $21,536,285 | | Jan 19, 2026 | $0.02632 | $0.02632 | $0.02328 | $0.02399 | $1,064,770 | $14,374,992 | | Jan 18, 2026 | $0.02832 | $0.02839 | $0.02541 | $0.02632 | $900,034 | $15,769,581 | | Jan 17, 2026 | $0.02882 | $0.03003 | $0.02618 | $0.02832 | $1,200,755 | $16,972,455 | | Jan 16, 2026 | $0.03664 | $0.0368 | $0.02707 | $0.02882 | $1,657,591 | $17,270,517 | | Jan 15, 2026 | $0.03449 | $0.03693 | $0.03392 | $0.03664 | $920,912 | $21,954,184 | | Jan 14, 2026 | $0.03544 | $0.03658 | $0.03262 | $0.03449 | $1,503,590 | $20,667,166 | | Jan 13, 2026 | $0.03477 | $0.03583 | $0.03445 | $0.03545 | $912,271 | $21,244,754 | | Jan 12, 2026 | $0.03443 | $0.03521 | $0.03406 | $0.03476 | $880,586 | $20,832,254 | | Jan 11, 2026 | $0.03308 | $0.03444 | $0.03303 | $0.03443 | $759,802 | $20,631,749 | | Jan 10, 2026 | $0.03505 | $0.03506 | $0.03258 | $0.03308 | $919,571 | $19,822,929 | | Jan 09, 2026 | $0.0371 | $0.03792 | $0.03395 | $0.03505 | $998,459 | $21,005,663 | | Jan 08, 2026 | $0.03851 | $0.03971 | $0.0296 | $0.0371 | $2,065,206 | $22,231,962 | | Jan 07, 2026 | $0.03569 | $0.03897 | $0.03561 | $0.03851 | $1,074,988 | $23,074,662 | | Jan 06, 2026 | $0.03514 | $0.03603 | $0.03439 | $0.03569 | $877,425 | $21,388,172 | | Jan 05, 2026 | $0.03544 | $0.03605 | $0.03513 | $0.03514 | $824,654 | $21,056,462 | | Jan 04, 2026 | $0.03608 | $0.03855 | $0.03456 | $0.03544 | $1,488,816 | $21,239,555 | | Jan 03, 2026 | $0.03501 | $0.03763 | $0.0344 | $0.03608 | $1,121,864 | $21,620,724 | | Jan 02, 2026 | $0.0396 | $0.0396 | $0.03481 | $0.03502 | $1,092,210 | $20,977,961 | | Jan 01, 2026 | $0.03795 | $0.04302 | $0.03474 | $0.03958 | $1,749,390 | $23,728,147 | | Dec 31, 2025 | $0.03516 | $0.03891 | $0.03484 | $0.03795 | $914,720 | $22,743,205 | | Dec 30, 2025 | $0.03541 | $0.03626 | $0.03316 | $0.03516 | $887,516 | $21,069,604 | | Dec 29, 2025 | $0.03556 | $0.03695 | $0.03499 | $0.03539 | $992,774 | $21,217,582 | | Dec 28, 2025 | $0.03736 | $0.03969 | $0.03549 | $0.03556 | $1,245,560 | $21,308,042 | | Dec 27, 2025 | $0.03735 | $0.03804 | $0.03627 | $0.03736 | $900,022 | $22,386,182 | | Dec 26, 2025 | $0.0381 | $0.03895 | $0.03721 | $0.03734 | $958,496 | $22,385,008 | | Dec 25, 2025 | $0.03828 | $0.04073 | $0.03742 | $0.0381 | $1,195,852 | $22,829,469 | | Dec 24, 2025 | $0.03799 | $0.03972 | $0.03602 | $0.03828 | $1,292,328 | $22,941,344 | | Dec 23, 2025 | $0.03553 | $0.03817 | $0.03486 | $0.038 | $991,777 | $22,769,145 | | Dec 22, 2025 | $0.03555 | $0.03599 | $0.03483 | $0.03554 | $957,962 | $21,291,936 | | Dec 21, 2025 | $0.03483 | $0.03723 | $0.03482 | $0.03555 | $1,096,495 | $21,303,267 | | Dec 20, 2025 | $0.0363 | $0.03698 | $0.03474 | $0.03483 | $926,769 | $20,869,676 | | Dec 19, 2025 | $0.03373 | $0.03656 | $0.03196 | $0.0363 | $1,222,642 | $21,756,032 | | Dec 18, 2025 | $0.03416 | $0.03605 | $0.03199 | $0.03373 | $1,373,212 | $20,211,198 | | Dec 17, 2025 | $0.0352 | $0.0406 | $0.03349 | $0.03416 | $2,539,499 | $20,468,403 | | Dec 16, 2025 | $0.03167 | $0.03662 | $0.03136 | $0.0352 | $2,055,413 | $21,095,535 | | Dec 15, 2025 | $0.03365 | $0.03561 | $0.0306 | $0.03165 | $1,523,095 | $18,978,973 | | Dec 14, 2025 | $0.02992 | $0.03461 | $0.02942 | $0.03362 | $1,930,029 | $20,163,129 | | Dec 13, 2025 | $0.02859 | $0.03132 | $0.02781 | $0.02992 | $1,047,986 | $17,927,899 | | Dec 12, 2025 | $0.02935 | $0.02964 | $0.02817 | $0.02859 | $1,237,476 | $17,132,241 | | Dec 11, 2025 | $0.02904 | $0.03144 | $0.02782 | $0.02935 | $1,648,640 | $17,586,127 | | Dec 10, 2025 | $0.02838 | $0.0318 | $0.0272 | $0.02903 | $2,010,839 | $17,399,559 | | Dec 09, 2025 | $0.02689 | $0.03074 | $0.02627 | $0.02838 | $1,892,010 | $17,006,880 | | Dec 08, 2025 | $0.02697 | $0.02857 | $0.02646 | $0.02689 | $2,231,296 | $16,111,176 | | Dec 07, 2025 | $0.02622 | $0.02819 | $0.02514 | $0.02697 | $1,436,496 | $16,164,587 | | Dec 06, 2025 | $0.02759 | $0.02804 | $0.02594 | $0.02623 | $1,234,207 | $15,714,228 | | Dec 05, 2025 | $0.02801 | $0.02952 | $0.02602 | $0.02759 | $1,735,755 | $16,531,354 | | Dec 04, 2025 | $0.02718 | $0.02905 | $0.02614 | $0.02801 | $2,367,786 | $16,788,138 | | Dec 03, 2025 | $0.02751 | $0.03091 | $0.02305 | $0.02718 | $3,010,512 | $16,289,542 | | Dec 02, 2025 | $0.02063 | $0.02795 | $0.01959 | $0.0275 | $2,660,529 | $16,484,281 | | Dec 01, 2025 | $0.02571 | $0.02581 | $0.02052 | $0.02061 | $2,139,915 | $12,359,788 | | Nov 30, 2025 | $0.0257 | $0.03146 | $0.02464 | $0.02571 | $2,211,988 | $15,409,585 | | Nov 29, 2025 | $0.0268 | $0.02683 | $0.02539 | $0.02571 | $1,318,220 | $15,403,813 | | Nov 28, 2025 | $0.0258 | $0.02717 | $0.02525 | $0.02619 | $1,635,994 | $15,697,254 | | Nov 27, 2025 | $0.02925 | $0.02929 | $0.02527 | $0.0258 | $1,898,891 | $15,462,431 | | Nov 26, 2025 | $0.02967 | $0.03381 | $0.02811 | $0.02926 | $3,522,388 | $17,528,232 | | Nov 25, 2025 | $0.02734 | $0.03025 | $0.02637 | $0.02968 | $2,015,853 | $17,784,571 | | Nov 24, 2025 | $0.02242 | $0.02993 | $0.02185 | $0.02736 | $2,627,552 | $16,393,963 | | Nov 23, 2025 | $0.0223 | $0.02367 | $0.02188 | $0.02242 | $1,239,081 | $13,433,085 | | Nov 22, 2025 | $0.0215 | $0.02273 | $0.021 | $0.0223 | $1,320,833 | $13,361,730 | | Nov 21, 2025 | $0.0264 | $0.02692 | $0.02066 | $0.0215 | $2,085,041 | $12,885,485 | | Nov 20, 2025 | $0.02604 | $0.02755 | $0.02482 | $0.02641 | $1,796,056 | $15,823,431 | | Nov 19, 2025 | $0.02539 | $0.02632 | $0.0239 | $0.02606 | $1,526,300 | $15,617,002 | | Nov 18, 2025 | $0.02654 | $0.0274 | $0.02387 | $0.02539 | $2,068,098 | $15,217,372 | | Nov 17, 2025 | $0.0249 | $0.02848 | $0.02331 | $0.02654 | $2,286,524 | $15,901,851 | | Nov 16, 2025 | $0.02673 | $0.02679 | $0.02464 | $0.0249 | $1,873,134 | $14,923,253 | | Nov 15, 2025 | $0.02427 | $0.02703 | $0.02405 | $0.02674 | $1,519,191 | $16,019,206 | | Nov 14, 2025 | $0.02662 | $0.02795 | $0.02406 | $0.02427 | $1,705,190 | $14,544,143 | | Nov 13, 2025 | $0.02939 | $0.03015 | $0.02499 | $0.02662 | $1,722,367 | $15,949,465 | | Nov 12, 2025 | $0.0297 | $0.03071 | $0.02909 | $0.02943 | $1,340,075 | $17,636,317 | | Nov 11, 2025 | $0.03242 | $0.03242 | $0.02936 | $0.0297 | $1,835,816 | $17,799,881 | | Nov 10, 2025 | $0.0312 | $0.03346 | $0.03055 | $0.03241 | $1,855,374 | $19,424,196 | | Nov 09, 2025 | $0.03048 | $0.0326 | $0.02789 | $0.0312 | $1,847,762 | $18,697,312 | | Nov 08, 2025 | $0.03271 | $0.03271 | $0.02906 | $0.0305 | $1,603,252 | $18,263,844 | | Nov 07, 2025 | $0.03389 | $0.03434 | $0.03102 | $0.03271 | $1,778,648 | $19,599,717 | | Nov 06, 2025 | $0.03281 | $0.03558 | $0.03187 | $0.03389 | $2,211,452 | $20,307,841 | | Nov 05, 2025 | $0.04189 | $0.04189 | $0.03196 | $0.03281 | $4,591,169 | $19,661,843 | | Nov 04, 2025 | $0.05111 | $0.06677 | $0.04116 | $0.0419 | $8,828,877 | $25,100,850 | | Nov 03, 2025 | $0.0464 | $0.05473 | $0.04355 | $0.05117 | $4,791,666 | $30,664,054 | | Nov 02, 2025 | $0.04777 | $0.04777 | $0.04447 | $0.0464 | $1,587,025 | $27,803,505 | | Nov 01, 2025 | $0.0475 | $0.04936 | $0.04735 | $0.04776 | $2,049,093 | $28,624,762 | | Oct 31, 2025 | $0.04704 | $0.04843 | $0.04624 | $0.0475 | $1,496,199 | $28,464,116 | | Oct 30, 2025 | $0.05013 | $0.0511 | $0.0455 | $0.04703 | $1,834,251 | $28,189,786 | | Oct 29, 2025 | $0.05111 | $0.05202 | $0.04733 | $0.05012 | $2,048,034 | $30,038,171 | | Oct 28, 2025 | $0.05152 | $0.05204 | $0.04991 | $0.05111 | $3,876,909 | $30,629,256 | | Oct 27, 2025 | $0.05292 | $0.05437 | $0.04976 | $0.05152 | $2,270,042 | $30,873,779 | | Oct 26, 2025 | $0.05441 | $0.05626 | $0.0499 | $0.05292 | $4,428,200 | $31,710,196 | | Oct 25, 2025 | $0.04434 | $0.05473 | $0.04434 | $0.05442 | $2,362,214 | $32,609,475 | | Oct 24, 2025 | $0.04841 | $0.04971 | $0.04253 | $0.04434 | $2,736,261 | $26,568,977 | | Oct 23, 2025 | $0.04466 | $0.0526 | $0.04456 | $0.04841 | $3,254,352 | $29,011,609 | | Oct 22, 2025 | $0.04828 | $0.04855 | $0.04181 | $0.04467 | $2,467,488 | $26,762,106 | | Oct 21, 2025 | $0.04965 | $0.0503 | $0.04599 | $0.04826 | $2,320,711 | $28,933,455 | | Oct 20, 2025 | $0.04898 | $0.05264 | $0.04892 | $0.04964 | $2,466,122 | $29,745,081 | | Oct 19, 2025 | $0.04954 | $0.05416 | $0.04816 | $0.04897 | $2,141,130 | $29,353,826 | | Oct 18, 2025 | $0.05367 | $0.05376 | $0.04806 | $0.04954 | $2,682,758 | $29,689,094 | | Oct 17, 2025 | $0.04776 | $0.05371 | $0.0467 | $0.05367 | $5,523,065 | $32,162,682 | | Oct 16, 2025 | $0.05437 | $0.05788 | $0.04702 | $0.04771 | $8,920,040 | $28,618,683 | | Oct 15, 2025 | $0.04988 | $0.06338 | $0.04711 | $0.05436 | $11,023,976 | $32,581,621 | | Oct 14, 2025 | $0.05772 | $0.06212 | $0.04843 | $0.0499 | $10,587,571 | $29,888,348 | | Oct 13, 2025 | $0.08695 | $0.1353 | $0.04827 | $0.05775 | $38,128,770 | $34,592,143 | | Oct 12, 2025 | $0.05387 | $0.09371 | $0.05387 | $0.08695 | $10,430,660 | $52,107,541 | | Oct 11, 2025 | $0.05185 | $0.06814 | $0.05037 | $0.05387 | $11,224,653 | $32,279,478 | | Oct 10, 2025 | $0.08392 | $0.09296 | $0.008353 | $0.05174 | $12,383,662 | $31,004,086 | | Oct 09, 2025 | $0.08819 | $0.08939 | $0.07569 | $0.0839 | $8,511,992 | $50,278,497 | | Oct 08, 2025 | $0.07975 | $0.09786 | $0.07226 | $0.08818 | $9,238,726 | $52,849,399 | | Oct 07, 2025 | $0.09324 | $0.09399 | $0.07505 | $0.07974 | $10,917,767 | $47,791,686 | | Oct 06, 2025 | $0.06021 | $0.09531 | $0.05898 | $0.09325 | $22,676,065 | $55,882,846 | | Oct 05, 2025 | $0.05973 | $0.06192 | $0.05841 | $0.06021 | $2,414,434 | $36,081,023 | | Oct 04, 2025 | $0.06017 | $0.06234 | $0.05742 | $0.05973 | $3,905,586 | $35,796,163 | | Oct 03, 2025 | $0.0692 | $0.07204 | $0.05484 | $0.06017 | $8,648,822 | $36,059,936 | | Oct 02, 2025 | $0.05436 | $0.07254 | $0.05329 | $0.06917 | $8,083,398 | $41,466,390 | | Oct 01, 2025 | $0.05737 | $0.05813 | $0.05314 | $0.05436 | $2,490,841 | $32,572,962 | | Sep 30, 2025 | $0.05598 | $0.05738 | $0.05066 | $0.05738 | $3,710,262 | $34,383,139 | | Sep 29, 2025 | $0.06172 | $0.06201 | $0.05563 | $0.05598 | $2,366,544 | $33,545,132 | | Sep 28, 2025 | $0.0579 | $0.06278 | $0.05509 | $0.06172 | $4,928,553 | $36,984,218 | | Sep 27, 2025 | $0.0595 | $0.05988 | $0.05598 | $0.0579 | $1,867,544 | $34,699,632 | | Sep 26, 2025 | $0.05622 | $0.06024 | $0.05409 | $0.05944 | $3,088,341 | $35,621,603 | | Sep 25, 2025 | $0.06172 | $0.06384 | $0.05441 | $0.05622 | $4,397,233 | $33,692,686 | | Sep 24, 2025 | $0.06165 | $0.06504 | $0.05917 | $0.06172 | $2,956,359 | $36,988,663 | | Sep 23, 2025 | $0.06092 | $0.06898 | $0.05913 | $0.06163 | $6,842,513 | $36,931,866 | | Sep 22, 2025 | $0.07044 | $0.07108 | $0.05737 | $0.06092 | $5,957,088 | $36,507,898 | | Sep 21, 2025 | $0.07084 | $0.07571 | $0.06892 | $0.07044 | $6,017,989 | $42,211,082 | | Sep 20, 2025 | $0.07149 | $0.07304 | $0.06819 | $0.07084 | $5,481,778 | $42,453,642 | | Sep 19, 2025 | $0.08083 | $0.08307 | $0.06841 | $0.0715 | $8,064,127 | $42,842,240 | | Sep 18, 2025 | $0.05821 | $0.1062 | $0.05707 | $0.08094 | $32,308,025 | $48,438,990 | | Sep 17, 2025 | $0.0602 | $0.06037 | $0.05565 | $0.05822 | $4,790,725 | $34,882,065 | | Sep 16, 2025 | $0.06704 | $0.06968 | $0.05543 | $0.0602 | $6,365,895 | $36,077,986 | | Sep 15, 2025 | $0.08493 | $0.0909 | $0.06277 | $0.06695 | $8,294,207 | $40,119,364 | | Sep 14, 2025 | $0.09469 | $0.09925 | $0.08204 | $0.08488 | $12,271,385 | $50,895,678 | | Sep 13, 2025 | $0.08485 | $0.09809 | $0.07229 | $0.09466 | $27,038,682 | $56,743,534 | | Sep 12, 2025 | $0.07252 | $0.1569 | $0.07252 | $0.08477 | $53,678,640 | $50,799,369 | | Sep 11, 2025 | $0.0834 | $0.1108 | $0.0634 | $0.07252 | $52,325,311 | $43,458,133 | | Sep 10, 2025 | $0.0345 | $0.1311 | $0.03388 | $0.08308 | $57,541,891 | $49,980,945 | | Sep 09, 2025 | $0.03171 | $0.04319 | $0.03155 | $0.03448 | $11,857,169 | $20,663,725 | | Sep 08, 2025 | $0.0329 | $0.03599 | $0.0306 | $0.03171 | $10,198,535 | $19,000,962 | | Sep 07, 2025 | $0.02521 | $0.03377 | $0.02486 | $0.0329 | $7,505,775 | $19,716,583 | | Sep 06, 2025 | $0.02414 | $0.02529 | $0.02395 | $0.02521 | $4,423,976 | $15,105,027 | | Sep 05, 2025 | $0.02308 | $0.0247 | $0.02308 | $0.02414 | $4,481,349 | $14,467,943 | | Sep 04, 2025 | $0.02401 | $0.02432 | $0.02281 | $0.02308 | $4,041,655 | $13,829,620 | | Sep 03, 2025 | $0.02371 | $0.02445 | $0.02337 | $0.02401 | $4,432,659 | $14,388,442 | | Sep 02, 2025 | $0.02274 | $0.024 | $0.02265 | $0.02371 | $4,120,037 | $14,206,809 | | Sep 01, 2025 | $0.02482 | $0.02522 | $0.02225 | $0.02274 | $4,432,578 | $13,624,566 | | Aug 31, 2025 | $0.0266 | $0.02707 | $0.02483 | $0.02483 | $4,095,365 | $14,875,739 | | Aug 30, 2025 | $0.02651 | $0.0305 | $0.02583 | $0.02661 | $6,678,805 | $15,942,746 | | Aug 29, 2025 | $0.02687 | $0.02699 | $0.02405 | $0.02651 | $5,230,049 | $15,888,752 | | Aug 28, 2025 | $0.02543 | $0.02712 | $0.02503 | $0.02687 | $5,009,690 | $16,101,635 | | Aug 27, 2025 | $0.02508 | $0.02746 | $0.02465 | $0.02543 | $5,274,160 | $15,241,563 | | Aug 26, 2025 | $0.0237 | $0.02565 | $0.02346 | $0.02508 | $4,390,659 | $15,026,498 | | Aug 25, 2025 | $0.02558 | $0.026 | $0.0231 | $0.0237 | $4,312,182 | $14,203,231 | | Aug 24, 2025 | $0.02685 | $0.0284 | $0.02505 | $0.02558 | $4,738,162 | $15,331,457 | | Aug 23, 2025 | $0.02609 | $0.02752 | $0.02547 | $0.02684 | $3,889,570 | $16,088,609 | | Aug 22, 2025 | $0.02346 | $0.02642 | $0.02335 | $0.02609 | $3,885,051 | $15,636,685 | | Aug 21, 2025 | $0.02555 | $0.02556 | $0.02328 | $0.02346 | $3,129,464 | $14,057,402 | | Aug 20, 2025 | $0.02375 | $0.02607 | $0.02363 | $0.02555 | $3,421,394 | $15,310,623 | | Aug 19, 2025 | $0.02682 | $0.02726 | $0.02371 | $0.02375 | $3,609,489 | $14,232,378 | | Aug 18, 2025 | $0.02677 | $0.02735 | $0.02529 | $0.02682 | $4,146,085 | $16,071,863 | | Aug 17, 2025 | $0.02751 | $0.02795 | $0.02619 | $0.02677 | $4,286,549 | $16,041,388 | | Aug 16, 2025 | $0.02599 | $0.02772 | $0.02526 | $0.02752 | $5,539,054 | $16,487,821 | | Aug 15, 2025 | $0.02517 | $0.0267 | $0.02439 | $0.02599 | $5,735,670 | $15,576,777 | | Aug 14, 2025 | $0.03171 | $0.03229 | $0.02475 | $0.02517 | $11,207,010 | $15,084,012 | | Aug 13, 2025 | $0.0323 | $0.03315 | $0.03078 | $0.0317 | $10,467,047 | $19,000,144 | | Aug 12, 2025 | $0.03095 | $0.03285 | $0.02889 | $0.0323 | $13,396,252 | $19,358,922 | | Aug 11, 2025 | $0.03628 | $0.03847 | $0.02956 | $0.03096 | $18,299,076 | $18,549,863 | | Aug 10, 2025 | $0.03591 | $0.03768 | $0.03522 | $0.03628 | $19,047,481 | $21,739,156 | | Aug 09, 2025 | $0.03198 | $0.03655 | $0.03141 | $0.03591 | $22,333,339 | $21,521,422 | | Aug 08, 2025 | $0.03309 | $0.03526 | $0.03097 | $0.03198 | $18,674,462 | $19,165,944 | | Aug 07, 2025 | $0.03241 | $0.03793 | $0.03074 | $0.03308 | $44,100,016 | $19,825,965 | | Aug 06, 2025 | $0.02958 | $0.03247 | $0.02812 | $0.03241 | $17,674,546 | $19,423,365 | | Aug 05, 2025 | $0.03798 | $0.03843 | $0.02884 | $0.02954 | $12,682,716 | $17,724,909 | | Aug 04, 2025 | $0.04016 | $0.04096 | $0.0359 | $0.03797 | $12,662,420 | $22,756,273 | | Aug 03, 2025 | $0.03493 | $0.04356 | $0.03435 | $0.04012 | $17,763,124 | $24,068,291 | | Aug 02, 2025 | $0.0415 | $0.0415 | $0.03378 | $0.03493 | $19,395,397 | $20,932,644 | | Aug 01, 2025 | $0.05452 | $0.05468 | $0.04042 | $0.04151 | $20,664,848 | $24,869,775 | | Jul 31, 2025 | $0.1512 | $0.1861 | $0.04835 | $0.05445 | $32,571,331 | $32,631,065 | * \*Earliest data in range (UTC time) \*\*Latest data in range (UTC time) Load more (on the original site) CrossDomain Storage Center