ORBION DOCS
WebsiteWhitepaper
  • 🔹Introduction
  • 🔹Core Architecture
  • 🔹Why Modular
  • 🔹Governance
  • 🔹Fee Model & Token Utility
  • 🔹Architecture Overview
  • Core Team
  • 🔹FAQ
  • Network
    • 🔹Overview
    • 🔹Public RPC Endpoints
    • 🔹Explorer & Faucet
    • 🔹Validator Setup
    • 🔹Network Parameters
  • Developer Guide
    • 🔹How to Connect with MetaMask
    • 🔹Deploy Smart Contracts on Orbion
    • 🔹Using the Testnet Faucet
    • 🔹Validator Setup Guide
  • RPC Access
    • 🔹Public RPC Specs
    • 🔹Rate Limits & Best Practices
    • 🔹Running a Node
  • for user
    • 🔹Tokenomics
    • 🔹Orbion Roadmap
  • Ecosystem
    • 🔹Orb Coin
    • 🔹Orbion Finance
    • 🔹Orbion Bridge
    • 🔹Orbion Tools (Telegram Bot Suite)
    • 🔹Orbion Locker
    • 🔹Orbion Explorer
    • 🔹Orbion SDK & API
    • 🔹Third-Party Integrations
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Core Architecture

Orbion’s core architecture is designed around the principle of modularity without fragmentation — a structure that allows flexibility, upgradability, and scalability without compromising the integrity of consensus or the coherence of state.

At a high level, the architecture is composed of three distinct layers that work in tandem:


1. Consensus Layer

The consensus layer handles block production, finality, and validator rotation. Orbion implements a Proof-of-Stake (PoS) mechanism optimized for liveness, fairness, and economic alignment. Finality is deterministic, and slashing is applied for both equivocation and downtime. Validator selection is governed by a dynamic staking marketplace that emphasizes decentralization and operational performance.

This layer ensures that the protocol’s security assumptions remain verifiable, auditable, and grounded in economic reality.


2. Execution Layer

Orbion's execution environment is EVM-compatible, supporting smart contracts written in Solidity and Vyper, while enabling parallel execution paths and future runtime modularity. This layer is responsible for executing state transitions, managing gas pricing, and optimizing throughput without fragmenting user experience.

It includes:

  • Full support for Ethereum tools (Hardhat, Remix, MetaMask, etc.)

  • Deterministic execution via ordered transaction sets

  • Room for expansion into alternative virtual machines (e.g., WASM or zkVM)

Modularity at the execution layer allows developers to choose the right environment for their application without compromising on network coherence.


3. System Layer

The system layer governs native protocol components such as staking, governance, fee markets, and on-chain registries. It provides built-in mechanisms for:

  • Validator onboarding and slashing

  • Network parameter changes via governance

  • Protocol upgrades without hard forks

  • Future modules like liquid staking, native bridges, or zk-rollup integration

Unlike application-layer logic, the system layer is tightly coupled to consensus and maintained through audited upgrade processes. This ensures forward-compatibility and resistance to governance capture.


🧠 Architectural Advantages

  • Separation of Concerns Each layer has a focused responsibility, reducing complexity and increasing upgrade agility.

  • Composable Infrastructure Developers can compose system features (like staking, fee split, governance hooks) without building them from scratch.

  • Neutrality by Design Orbion doesn’t favor specific dApps, token standards, or identities. The base protocol treats all participants equally under shared rules.


Orbion’s architecture is intentionally minimalist at its core and extensible at its edges allowing the protocol to remain adaptable in the face of changing technical landscapes while holding firm to its principles of neutrality, scalability, and sovereignty.

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Last updated 6 days ago

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