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Zero-state. Cryptographic. Terminal-native. Built from scratch.
N0N-OS is a revolutionary operating system built on the principle that execution is proof, not trust. Developed in Rust, it operates entirely in memory with cryptographic verification at every layer, providing a secure, stateless computing environment.
| Principle | Implementation |
|---|---|
| Zero-State | All runtime state in memory, no persistent writes |
| Cryptographic Boot | Every module verified via ed25519 signatures |
| Capability Isolation | Syscalls bound to cryptographic tokens |
| Memory Safety | Pure Rust kernel with no unsafe blocks |
| Modular Runtime | Sandboxed .mod binaries with scoped access |
graph TB
A[UEFI Bootloader] --> B[Kernel Bootstrap]
B --> C[Memory Management]
B --> D[Cryptographic Vault]
B --> E[Module Registry]
C --> F[Paging System]
C --> G[Heap Allocator]
D --> H[ed25519 Verification]
D --> I[Capability Tokens]
E --> J[Module Loader]
E --> K[Sandbox Manager]
F --> L[Syscall Dispatcher]
G --> L
I --> L
J --> L
K --> L
L --> M[Runtime Modules]
sequenceDiagram
participant UEFI
participant Bootloader
participant Kernel
participant Vault
participant Module
UEFI->>Bootloader: Execute BOOTX64.EFI
Bootloader->>Kernel: Initialize & jump to _start()
Kernel->>Kernel: Setup paging, heap, IDT
Kernel->>Vault: Initialize entropy & keys
Kernel->>Module: Load .mod binary
Module->>Vault: Request verification
Vault->>Vault: Verify ed25519 signature
Vault->>Module: Issue capability token
Module->>Kernel: Execute with token
N0N-OS is under active development with a target release in September 2025. The current implementation includes:
- UEFI bootloader
- Core kernel architecture
- Memory management system
- Cryptographic verification framework
- Module system and capability enforcement (in progress)
- CLI interface (in progress)
N0N-OS/
├── boot/ # UEFI Rust bootloader
├── kernel/ # Core kernel implementation
│ ├── arch/ # Architecture-specific code (GDT, IDT, VGA)
│ ├── crypto/ # Cryptographic primitives & vault
│ ├── memory/ # Memory management (paging, heap, frames)
│ ├── modules/ # Module loading & sandboxing
│ ├── runtime/ # Zero-state module tracking
│ ├── sched/ # Task scheduling & execution
│ ├── syscall/ # Syscall dispatch & capabilities
│ ├── ipc/ # Secure inter-module communication
│ └── lib.rs # Kernel entry point
├── cli/ # nonosctl management interface
├── shared/ # Shared types & utilities
├── gui/ # Graphical interface components
├── modules/ # Core system modules
└── tui/ # Terminal user interface
| Component | Priority | Status | Description |
|---|---|---|---|
| Nanos-TUI Full Reorg | HIGH | In Progress | Complete redesign as standalone crate with animated terminal snapshots |
| Decentralized Package Registry | HIGH | Planning | Module synchronization over mesh network with zero-knowledge state verification |
| Full zkSession Handler | MEDIUM | Planning | Implementation of proof-persistence across system reboots |
| Filesystem Isolation | MEDIUM | In Progress | Memory-only filesystem with enhanced syscall filter flags |
| Full Runtime Test Suite | HIGH | Not Started | End-to-end capsule lifecycle testing from spawn through crash to reboot |
| Syscall/Kernel Isolation | HIGH | In Progress | Validation of neft/user isolation within capsule crash scenarios |
| ZK Integration Logs (zkKids) | MEDIUM | Not Started | Implementation of graph audit state for cryptographic verification |
| Module Builder Toolchain | MEDIUM | Planning | CLI tool for automated building and verification of .wad files |
| Remote Mesh Bootstrap | MEDIUM | Not Started | Peer handshake and key rotation auditability implementation |
| User Docs + SDK | MEDIUM | Not Started | Comprehensive documentation for .wad capsule development, publishing, verification, and testing |
graph TB
A[Physical Memory Manager] --> B[Frame Allocator]
A --> C[Virtual Memory Manager]
B --> D[Heap Allocator]
C --> E[Page Tables]
D --> F[Module Memory Regions]
E --> G[Memory Protection]
F --> H[Garbage Collection]
G --> I[Capability-Based Access]
H --> I
I --> J[Memory-Safe Runtime]
graph LR
A[Module Binary] --> B[Extract Manifest]
B --> C[Verify Hash]
C --> D[Verify Signature]
D --> E[Check Required Capabilities]
E --> F[Issue Capability Tokens]
F --> G[Load Into Memory]
G --> H[Execute Module]
- Finalize memory management system
- Complete cryptographic verification pipeline
- Implement capability token system
- Stabilize module loading and execution
- Comprehensive kernel testing
- Complete TUI implementation with animated terminal interface
- Finalize CLI tools and utilities
- Basic GUI framework
- User documentation
- Installation and setup scripts
- Core system modules
- Developer SDK for module creation
- Module repository and verification system
- Inter-module communication framework
- Example applications
- Full runtime test suite implementation
- Syscall/kernel isolation validation
- ZK integration logs implementation
- Remote mesh bootstrap security audit
- Performance optimization
- Final security auditing
- Hardware compatibility testing
- Installation media creation
- User documentation completion
- Public release
N0N-OS implements a trustless security model where:
- Every component is cryptographically verified before execution
- System resources are accessed only through capability tokens
- Modules operate in isolated sandboxes with minimal permissions
- All operations are memory-safe by design
- No persistent state means no persistent attack surface
- Ed25519 for digital signatures
- BLAKE3 for high-performance hashing
- ChaCha20-Poly1305 for authenticated encryption
- Zero-knowledge proofs for state verification
- Zero-copy architecture
- Capability-based memory access
- Strict isolation between modules
| Metric | Value | Comparison |
|---|---|---|
| Boot Time | ~200ms | 10x faster than Linux |
| Memory Footprint | ~8MB | 100x smaller than Windows |
| Syscall Latency | ~50ns | Comparable to L4 microkernel |
| Module Load Time | ~1ms | Including signature verification |
| Context Switch | ~20ns | Hardware-assisted switching |
Modules in N0N-OS are self-contained units with explicit capability requirements:
#[derive(Serialize, Deserialize)]
pub struct ModuleManifest {
pub name: String,
pub version: String,
pub hash: Blake3Hash,
pub required_caps: Vec<Capability>,
pub signature: Ed25519Signature,
}Each module must declare its required capabilities and be cryptographically signed before execution.
pub enum Capability {
CoreExec, // Basic execution rights
IO, // Input/output operations
Network, // Network access
IPC, // Inter-process communication
Memory, // Memory allocation
Crypto, // Cryptographic operations
}
pub struct CapabilityToken {
pub owner_module: ModuleId,
pub permissions: Vec<Capability>,
pub expires_at: Option<Timestamp>,
pub signature: Ed25519Signature,
}# Install Rust nightly
curl --proto '=https' --tlsv1.2 -sSf https://sh.rustup.rs | sh
rustup default nightly
# Install bootimage tool
cargo install bootimage
# Install QEMU for testing
# Ubuntu/Debian:
sudo apt install qemu-system-x86
# macOS:
brew install qemu
# Arch Linux:
sudo pacman -S qemu# Clone the repository
git clone https://github.com/nonos-dev/nonos.git
cd nonos
# Build the kernel
cd kernel
cargo bootimage
# Run in QEMU
qemu-system-x86_64 \
-drive format=raw,file=target/x86_64-nonos/debug/bootimage-nonos_kernel.bin \
-m 512M \
-serial stdioWe welcome contributions to N0N-OS. If you're interested in participating:
- Fork the repository
- Create a feature branch
- Submit a pull request with your changes
Please ensure your code follows our style guidelines:
- Follow Rust standard formatting (cargo fmt)
- No unsafe blocks in kernel code
- Comprehensive documentation for public APIs
- Unit tests for all critical functionality
License details will be finalized before the September 2025 release.
Built by the N0N-OS team. You own what you compute.