© 2025 NØNOS. True sovereignty starts with self owned infrastructure.
0x0a26c80Be4E060e688d7C23aDdB92cBb5D2C9eCA
NØNOS is the world’s first zero-trust operating system built entirely in Rust, engineered for absolute privacy and resilience. Unlike traditional systems that store traces of user activity on disks, NØNOS runs entirely in memory, leaving no residual data once powered off - meaning nothing can be recovered, tracked, or exploited later.
Built on a memory-safe Rust core, it eliminates entire categories of vulnerabilities common in C- and C++-based operating systems - the same weaknesses responsible for most critical exploits today. Every component is isolated and verified, following a zero-trust architecture where no process, application, or network connection is inherently trusted.
This makes NØNOS fundamentally different from Windows, macOS, and Linux, which rely on decades-old codebases and complex permission layers that attackers routinely exploit. Instead, NØNOS is minimal, verifiable, and secure by design - a fresh foundation for computing in a world where privacy, control, and trust can no longer be assumed.
Your operating system is often the weakest link. Every year, thousands of new vulnerabilities are found - giving attackers fresh ways in.
Even with antivirus or VPNs, your protection is only as strong as the operating system underneath.
1,360 vulnerabilities
529 vulnerabilities
up 30% year-over-year
NØNOS tackles this problem at its core by being built entirely in Rust, a memory-safe language purpose-built to prevent the vulnerabilities that plague traditional operating systems.
This aligns with a global movement toward safer software, with even the U.S. government calling for a transition to memory-safe development practices. You can read more about this below:
By leveraging Rust’s strict compile-time checks and memory-safe architecture, NØNOS eliminates entire classes of memory-related exploits responsible for roughly 70% of modern system vulnerabilities. 
The result is an operating system that’s secure by design, not by constant patching - a cleaner, safer foundation for the next era of computing.
A pure Rust microkernel means no unsafe code and far fewer memory bugs - closing the door on entire classes of exploits. 
NONOS enforces a zero-trust, capability-based model at the very core, making the OS itself your strongest defense, not your weakest link.
Runs entirely in RAM with zero trace or telemetry written to disk. 
Nothing persistent means nothing left behind for attackers or prying eyes.
(Optional encrypted storage is available, but privacy is the default.)
Comes with built-in encrypted mesh networking - an onion-routed peer-to-peer network that replaces reliance on centralized ISPs or DNS. 
Your NONOS device joins a sovereign mesh where traffic is private and censorship-resistant by design.
Web3 features are baked in. NONOS includes an integrated Ethereum wallet (cold-wallet secure) and uses zero-knowledge authentication (“zkAuth”) for identity-less login. 
It’s ready for blockchain and DeFi out-of-the-box, empowering you to use crypto safely on a verifiable OS.
A native token (SNOX) underpins a decentralized economy where users can earn rewards for contributing computing power, bandwidth, or storage. 
This aligns incentives to grow a self-sustaining, user-owned platform rather than one controlled by Big Tech.
An OS where security, privacy, and freedom aren’t optional addons, but the very foundation. Follow us on X or join our community telegram to learn more and start your journey towards sovereign computing today.
A key root cause of vulnerabilities is memory-unsafe programming. Languages like C/C++ allow dangerous memory manipulations that lead to buffer overflows, use-after-free errors, and other bugs attackers love. 
Rust was chosen for NONOS precisely because it guarantees memory safety and thread safety at compile time. By writing the OS in Rust, NONOS prevents an entire category of exploits from ever occurring. 
NONOS (short for “No-OS” as in no legacy OS baggage) is a from-scratch operating system built to be “zero-trust” and privacy-centric at its core. Here’s how NONOS reimagines the OS stack:
NONOS uses a custom microkernel written entirely in Rust, with no unsafe code. This small trusted kernel enforces strict isolation between processes and has a minimal attack surface. 
The memory safety of Rust means common vulnerabilities like buffer overruns are virtually eliminated, and every driver or service runs with least privilege. 
End-to-end, there are no gaps in the security chain - from kernel to application, memory safety and verifiability are baked in.
The OS runs entirely from RAM (memory), not from a writable disk. By default, NONOS is stateless and leaves zero trace once powered off. 
All system data, user sessions, and even the kernel itself execute in memory; nothing is written to local storage unless the user opts in. This means if someone seizes your device or if malware tries to persist, there’s simply nothing on disk to find or infect. 
Users can optionally use an encrypted USB for persistence of files or settings, but even that is under user control and remains encrypted unless unlocked. Ephemeral operation is the default, providing Tails-like amnesia with a more secure architecture.
NONOS devices don’t rely on the traditional centralized internet infrastructure. Instead, they connect to a sovereign mesh network - a fully decentralized, peer-to-peer network where every node communicates through onion-routed, encrypted channels. 
There are no hardcoded servers or authorities on this network (no central DNS or Big Tech cloud); nodes discover each other P2P and form an “overlay” that can run over Wi-Fi, Ethernet, or even alternative radio links. 
This mesh is resilient - even if the broader internet is censored or cut off, NONOS nodes within range can continue to communicate. All traffic is onion-encrypted (similar to Tor) which prevents observers from seeing who is talking to whom. 
This privacy-by-default networking ensures that not only is your device secure, but your communications are as well. It’s a network built for censorship resistance and local sovereignty.
Unlike traditional OSes, NONOS is built with blockchain and zero-knowledge technologies in mind from the start. It comes with a built-in Ethereum wallet (no need to install one - your OS itself can secure your keys offline) and supports zkAuth, a zero-knowledge authentication mechanism. 
That means you can log in or prove identity without ever revealing sensitive data - only cryptographic proofs. 
NONOS is Web3-ready: it treats crypto as a first-class citizen, making it easy to run decentralized apps, manage crypto assets securely, and even use decentralized identity solutions. The OS can generate and verify zk-Proofs at the kernel level, enabling what we call “post-identity” applications - apps that authenticate users by proofs, not by personal accounts. 
This paves the way for services where you prove you have certain credentials or rights without disclosing your identity. It’s a fundamental shift toward provable computing.
Applications on NONOS are deployed as signed modules or “capsules” rather than traditional install packages. Each capsule carries a digital signature and a policy describing what it’s allowed to do. When a capsule runs, the OS can produce a Proof-of-Execution (using zero-knowledge proofs and attestation) that the code ran correctly on genuine NONOS hardware.
 This concept of proof-bound execution means that any computation can be verified by a third party without exposing the data involved. It’s like having a built-in audit log for your apps that doesn’t violate privacy. This capability is crucial in distributed or blockchain contexts, enabling trustless interactions - for instance, proving to a smart contract that you performed a certain computation off-chain. 
NONOS is pioneering this proof-native approach to computing, which is especially important for edge AI and DePIN (Decentralized Physical Infrastructure Networks) use cases. 
NONOS provides an extra layer of security for both consumers and industries by neutralizing common cyberattacks that traditional systems fail to prevent. Here are a few prevalent threat scenarios that NONOS OS helps defend against:
Even hardware wallets like Trezor or Ledger can be undermined if your PC is infected. Malware called clipboard hijackers monitors for crypto addresses in your clipboard and swaps in the attacker’s address - causing you to unknowingly send funds to thieves. 
One such fake app campaign infected 15,000+ users across 52 countries and stole an estimated $400,000 in cryptocurrency in just a few months . 
(Another malware author made over $560,000 using similar copy-paste hijack tricks .) By running entirely in a secure, ephemeral environment, NONOS blocks these silent parasites that traditional OSes often miss.
Conventional PCs are vulnerable to malware that logs keystrokes or injects code to steal passwords. 
For example, the infamous Zeus Trojan once stole $70+ million from U.S. bank accounts by secretly recording logins . Such malware has infected millions of computers worldwide , hitting both individuals and enterprises. 
NONOS’s zero-trust design thwarts these attacks - untrusted programs can’t persist or spy on your typing, keeping online banking and sensitive data safe.
Many “tech support” scams trick victims (often seniors or employees) into installing remote desktop tools like AnyDesk or TeamViewer, letting hackers watch the screen and take over. 
The results are devastating - in 2024, tech support fraud (remote PC takeover) cost victims nearly $1.46 billion in reported losses . 
NONOS shuts this door: unauthorized remote-control apps simply can’t run, so scammers can’t secretly observe or siphon your money when you’re banking or working online.
Modern malware doesn’t just steal data - it often deploys ransomware or backdoors into corporate networks. 
A single infected machine can lead to a company-wide crisis. Qakbot, for instance, infected over 700,000 computers and helped ransomware gangs cause “hundreds of millions of dollars” in damage globally . 
These attacks hit banks, hospitals, utilities - any critical industry . 
By being RAM-resident and wiping data on shutdown, NONOS effectively immunizes systems against such persistent threats. 
Even if ransomware or spyware somehow lands in a NONOS session, it vanishes on reboot, dramatically limiting its impact.
NONOS tackles the most common cyber threats head-on - from stealthy crypto theft and keylogging to remote takeover and ransomware - keeping both everyday users (“mums and dads”) and industry players safe. 
It bridges the gaps left by standard security tools, ensuring peace of mind in a time when cybercrime costs billions annually.
NONOS OS employs a multi-faceted commercialization strategy that targets several key market segments, ensuring both broad user adoption and diverse revenue streams. With hundreds of millions of PCs sold globally each year and growing demand for privacy and security solutions, NONOS has a vast market to capture.
The company’s revenue trajectory is projected to climb rapidly over the next few years, reaching tens of millions of dollars in annual revenue within its first 5 years (based on internal projections). Below is a breakdown of each segment of NONOS’s commercial model - from individual users to enterprise partners - detailing the offering, target audience, revenue model, and growth potential for each.
A unified interface that seamlessly integrates cloud orchestration with bare-metal ZeroState control.
Kernel
Memory
Network
Security
Memory-safe kernel with capability-authenticated syscalls and zero unsafe code blocks.
Complete diskless operation with all system state maintained exclusively in memory.
Privacy-first communication through Onion encrypted mesh infrastructure.
Join the next generation of operating systems with privacy, security, and modularity at its core.
Real-time view of NØNOS development milestones and technical achievements
Rust microkernel & syscall isolation
RAM-resident execution framework
Sandboxed components & IPC
Secure REPL & commands
Privacy protocol integration
UEFI bootloader & cryptographic
provenance pipeline
Comprehensive research phase with prototype testing and architecture validation.
Modular kernel prototype
Security model validation
Performance benchmarking
Architecture stress testing
Research documentation
Foundational Rust microkernel with memory-safe architecture and syscall isolation.
Rust microkernel architecture
Memory-safe syscall dispatcher
Capability-based security model
RAM-resident execution framework
Cryptographic root of trust
Complete bootable OS w/ UEFI bootloader, cryptographic provenance pipeline, and diskless operation.
EFI bootloader implementation
Full ZeroState OS
Diskless operation
Persistent crypto state
Zero-trust verification
Advanced sandboxed kernel modules with secure inter-process communication.
Modular kernel components
Secure IPC channels
Module verification system
Isolated execution contexts
Advanced CLI interface
Anonymous networking and identity verification through Onion Mesh.
Onion Mesh integration
Anonymous mesh networking
zkProof identity system
Privacy-first communication
Web3-native features
First public release with core functionality and community testing program.
Public release
Community testing
Performance optimization
Security audits
Developer documentation
Be part of the dual-architecture revolution combining cloud-native platform with ZeroState bootable OS
Live on Ethereum • ETH Intergration Coming Q4 2025
Professional tokenomics powering the world's first cryptographically-verified OS with transparent governance, ETH integration, and proven team involved in technical development.
Strategic deployment ensuring transparent distribution and institutional-grade tokenomics across Ethereum.
NØNOS live on ETH with transparent tokenomics & active trading
Current Supply
800,000,000 N0NOS
Network
ETH Mainnet
Contract
0x0a26c80Be4E060e688d7C23aDdB92cBb5D2C9eCA
Status
Live & Trading
Supply
Deflationary
ETH deployment for institutional DeFi integration.
Intergation Type
Native
Launch Date
Q4 2025
Target
Institutional DeFi
OS Infrastructure
Development
Memory Safety
Deflationary Supply
$N0NOS is backed by active development, validated team & revolutionary OS technology.
Codebase →Institutional-grade token economics designed for sustainable growth, DeFi integration, and enterprise adoption.
Multi-signature governance with time-locks
Vesting schedules for all reserve allocations
Cross-chain bridge compatibility
Compute resource pricing integration
Uniswap V3 liquidity pools
Yield farming opportunities
Institutional custody support
Stake $N0NOS to host encrypted relay infrastructure
Publish verified CLI modules to public registry
Launch permissionless encrypted applications
Vote on protocol upgrades and parameters
Propose new features and integrations
Treasury allocation decisions
Annual fees for enterprise-grade builds of NØNOS
Tailoring NØNOS to mission-specific requirements
Certifying staff in the use of NØNOS
Micro-fees on transactions through the built-in wallet
Usage fees for maintaining ANON hidden services
Offering opt-in paid features inside NØNOS (obfuscation)