Chainova Whitepaper
  • 🥇ChaiNova
  • 🍾No‑Code Builder & AI Developer Suite
  • ⛓️Chainova Scanner & Analytics Suite
  • 🎗️DeFi Compatibility & Ecosystem
  • 📹Vision
  • 🎲MISSION
  • ⚒️Problem Statement
  • 🧰Solution
  • 🛎️Technical Architecture
  • ♟️How It Works
  • 📲EVM++ & Gas Economics
  • 📖Market Adoption Strategy
  • 📚Real-World Applications
  • ✍️ChaiNova's Target Audience
  • 📍Trusted Deployers & Tiered Fee Model
  • ✒️CNV Wallet & SuperApp
  • 🥇Competitive Landscape
  • 💎CNV Utility & Economic Model
  • ⏱️Roadmap
  • 💱Token Distribution & Vesting
  • 📣Call to Action
  • 🔝ChaiNova Grant Program
  • 🔏Privacy Policy
  • 🖊️Terms and Conditions
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  • 1 Hybrid Consensus Layer
  • 2 Node Architecture
  • 3 Smart‑Contract Layer (EVM++)
  • 4 Native Scalability Stack

Technical Architecture

Modular Consensus, Nodes & Execution Layers

This section consolidates the technical details previously scattered under “What is a ChaiNova?” into one coherent architecture overview.

1 Hybrid Consensus Layer

Mechanism

Parameters

Purpose

DPoS (Delegated Proof of Stake)

21 super‑nodes elected every 24 h; ≈10 000 TPS; dynamic rotation

High throughput; mitigates centralisation.

PoA (Proof of Authority)

Optional subnet with KYC/AML‑verified validators

Private/enterprise chains; regulatory compliance.

Slashing

Up to 5 % stake for downtime/malice

Security incentive.

BFT Finality

2.5 s

Fast settlement suitable for gaming & finance.

Why Hybrid DPoS + PoA?

  • Scalability & Speed – Trusted PoA subnets push block times below one second for high‑frequency enterprise or gaming workloads, while the mainnet’s DPoS layer maintains decentralisation and 10 000 TPS throughput.

  • Energy Efficiency – Both mechanisms run on Proof‑of‑Stake economics, consuming < 0.002 TWh/year combined—orders of magnitude lower than PoW chains.

  • Security & Compliance – PoA validators undergo KYC/AML checks, making private shards regulator‑ready; DPoS slashing and BFT finality secure public shards against Byzantine attacks.

  • Cost Reduction – Eliminating PoW mining cuts hardware waste and keeps average gas < $0.0001, enabling micro‑transactions.

2 Node Architecture

Node Type

Requirements

Role

Super‑node

500 000 CNV staked + 32 CPU cores, 128 GB RAM

Propose & validate blocks; maintain shard committees.

Full Node

Commodity hardware; stores assigned shards

Executes smart contracts; relays data to light clients.

Light Node

Mobile/IoT; uses Merkle proofs

Verifies transactions without full chain.

3 Smart‑Contract Layer (EVM++)

  • Ethereum compatibility for seamless migration.

  • Privacy extensions via zk‑SNARK pre‑compiles.

  • Template library: AMMs, collateralised loans, NFT collections with royalties, DAO modules (quadratic voting, community vaults).

4 Native Scalability Stack

Technique

Details

Benefit

Horizontal Sharding

64 shards × 1 500 TPS each

Linear throughput scale‑out.

Optimistic Roll‑ups

90 % fee reduction for non‑critical dApps

Cost‑efficient mass transactions.

Parallel Execution

Non‑conflicting tx processed simultaneously

Utilises multi‑core hardware; reduces latency.

With this modular setup, Chainova marries performance, security and flexibility, supporting workloads that range from real‑time gaming to enterprise ERP—all while remaining fully interoperable and carbon‑neutral.

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Last updated 10 days ago

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