Abstract Introduction Design Architecture Consensus Tokenomics Smart Contracts APIs Security Use Cases Roadmap Conclusion
210M
Max Supply (NVM)
4s
Block Time
~$0.001
Avg TX Cost
8
Rust Crates
50.7yr
Emission Period

Abstract

NovaMoney is a Layer 1 blockchain designed for speed, low cost, and full compatibility with the Ethereum ecosystem. Built from scratch in Rust using the same Ethereum Virtual Machine (revm) that powers next-generation Ethereum clients, NovaMoney offers 4-second block finality, negligible transaction fees, and seamless integration with existing Ethereum tooling — MetaMask, Solidity, Hardhat, ethers.js, and thousands of deployed smart contracts.

With a fixed maximum supply of 210,000,000 NVM and a sustainable ~50-year emission schedule, NovaMoney provides a predictable monetary policy that rewards long-term participation while maintaining network security through Proof of Stake consensus.

NovaMoney is purpose-built for real-world asset tokenization (RWA), decentralized finance (DeFi), and enterprise applications that demand Ethereum compatibility without Ethereum costs.

1. Introduction

The Problem

The blockchain industry faces a persistent trilemma: decentralization, security, and scalability. Ethereum, the dominant smart contract platform, achieves strong decentralization and security but suffers from high transaction costs ($5–50+ per transaction) and 12-second block times that limit its applicability for everyday use cases.

Alternative Layer 1 chains have emerged — BSC, Avalanche, Solana — each making different trade-offs. However, most either sacrifice decentralization for speed, use proprietary virtual machines that fragment the developer ecosystem, or carry the technical debt of rapid development without rigorous engineering.

The Solution

NovaMoney takes a different approach: start from zero, build in Rust, and get the fundamentals right.

Rather than forking an existing chain or wrapping a modified Ethereum client, NovaMoney is a clean-room implementation of an EVM-compatible blockchain. Every component — from the cryptographic primitives to the P2P networking layer — is purpose-built with modern Rust.

Transaction Cost Comparison
Ethereum
$5 - $50+
Expensive
BSC
$0.10
Moderate
Avalanche
$0.05
Low
Solana
$0.003
Very Low
NovaMoney
$0.001
Near Zero
Block Time Comparison
Bitcoin
600s
10 min
Ethereum
12s
12 sec
BSC
3s
3 sec
NovaMoney
4s
4 sec
Solana
0.4s
400 ms

2. Design Philosophy

Ethereum Compatibility First

Every design decision prioritizes compatibility with the Ethereum ecosystem. Same RLP encoding, same transaction format (EIP-155, EIP-1559, EIP-2718), same JSON-RPC API, same EVM opcodes. A developer who knows Ethereum already knows NovaMoney.

Simplicity Over Complexity

8 focused Rust crates, each with a single responsibility. No unnecessary abstractions, no plugin systems. The entire node compiles to a single 35MB binary. Simplicity reduces attack surface and accelerates auditing.

Performance Through Engineering

NovaMoney uses revm (same as Reth/Paradigm) for EVM execution, libp2p for networking, and RocksDB with Merkle Patricia Trie for state storage. Every component is production-grade.

Sustainable Economics

Designed for a 50-year horizon. No pre-mines, no inflationary surprises. 210M total supply, 0.5 NVM per block. Simple, transparent, and immutable rules.

3. Technical Architecture

3.1 System Overview

Crypto
secp256k1, keccak256, signing
Core
blocks, txs, accounts
Storage
RocksDB, MPT, pruning
VM
revm v19, EIP-1559, executor
Consensus
PoS, slashing, epochs
Network
libp2p, gossipsub, kademlia
RPC Layer
JSON-RPC (22 methods) | REST API | GraphQL | Oracle | Indexer

3.2 Crate Architecture

CrateResponsibilityDependencies
redcripto-cryptoDigital signatures, hashing, address derivationk256, sha3
redcripto-coreBlock/transaction structures, accounts, genesis, EIP-1559alloy-primitives, alloy-rlp
redcripto-storagePersistent state, Merkle Patricia Trie, state pruningrocksdb
redcripto-vmEVM execution, gas metering, staking contractrevm v19
redcripto-consensusPoS, validators, attestations, LMD-GHOST, slashing
redcripto-networkP2P networking, block/tx propagation, state synclibp2p
redcripto-rpcJSON-RPC, REST, GraphQL, Oracle, Indexerjsonrpsee, axum, async-graphql
redcripto-nodeNode binary, chain loop, block productiontokio, clap

3.3 Transaction Lifecycle

1. User signs transaction (MetaMask / ethers.js) | 2. eth_sendRawTransaction -> RLP decode -> signature recovery | 3. Validation: nonce, balance, gas limit, chain ID | 4. Transaction pool (ordered by gas price, max 4096 txs) | 5. Gossip to peers via libp2p gossipsub | 6. Block proposer collects txs from pool | 7. EVM execution (revm): state transitions, contract calls | 8. Block sealed: header + txs + receipts + state root | 9. Attestations from validators -> finality | 10. Block propagated to network -> peers import and verify

3.4 State Management

NovaMoney uses a Merkle Patricia Trie for state verification. Every block header contains three roots:

State is persisted in RocksDB with automatic pruning of historical states beyond a configurable retention window.

4. Consensus Mechanism

4.1 Proof of Stake

Validators must stake a minimum of 32 NVM to participate in block production. This eliminates the energy waste of Proof of Work, aligns validator incentives with network health, and enables faster finality.

4.2 Validator Selection

Block proposers are selected in a round-robin rotation weighted by stake. Each epoch (32 blocks, ~2 minutes) the active validator set is recalculated. If a proposer fails within 3 slots, any active validator can step in to prevent chain stall.

4.3 Attestations & Finality

A block is finalized when it receives attestations from validators representing more than 2/3 of the total staked NVM. Finalized blocks cannot be reverted, providing deterministic finality within ~8–12 seconds.

4.4 Fork Choice: LMD-GHOST

NovaMoney uses a simplified Latest Message Driven Greediest Heaviest Observed SubTree (LMD-GHOST) algorithm for resolving competing chain tips.

4.5 Slashing

OffensePenaltyDetection
Double signingStake reductionTwo blocks signed for same slot
InactivityGradual stake decayFailure to attest for extended periods

4.6 On-Chain Staking

Anyone can become a validator by depositing 32+ NVM to the staking contract at address 0x0000...0100. The contract manages validator registration, exits, the active set (max 100 in Phase 1), and epoch transitions.

5. Tokenomics

5.1 Supply Parameters

210M
Max Supply
0.5 NVM
Block Reward
10,800
Daily Emission
~3.94M
Annual Emission

5.2 Genesis Distribution

Genesis Allocation (10,000,000 NVM — 4.76% of Max Supply)
AllocationAmount% of MaxPurpose
Staking Contract1,000,000 NVM0.48%System operations
Initial Validators (x2)1,000,000 NVM0.48%Bootstrap network security
Faucet / Distribution3,000,000 NVM1.43%User onboarding, airdrops
Team / Development3,000,000 NVM1.43%Fund ongoing development
Strategic Reserve2,000,000 NVM0.95%Partnerships, listings
Total Genesis10,000,000 NVM4.76%
Available for Mining200,000,000 NVM95.24%Validator block rewards

5.3 Emission Schedule

Circulating Supply Over Time (50-Year Projection)
YearCirculating NVM% of Max SupplyMined (cumulative)
0 (Genesis)10,000,0004.76%0
113,942,0006.64%3,942,000
529,710,00014.15%19,710,000
1049,420,00023.53%39,420,000
25108,550,00051.69%98,550,000
50207,100,00098.62%197,100,000
~50.7210,000,000100%200,000,000

5.4 Daily, Monthly, Annual Estimates

NVM Production Rate
PeriodBlocksNVM Produced
Per minute157.5 NVM
Per hour900450 NVM
Per day21,60010,800 NVM
Per week151,20075,600 NVM
Per month (30d)648,000324,000 NVM
Per year7,884,0003,942,000 NVM

5.5 Transaction Fees (EIP-1559)

NovaMoney implements EIP-1559 dynamic fee pricing. Base fee adjusts automatically based on network utilization. Base fee is burned (deflationary), priority fee goes to the block proposer.

OperationGas CostFee at 20 GweiApprox. USD
NVM transfer21,0000.00042 NVM~$0.001
ERC-20 transfer~65,0000.0013 NVM~$0.003
ERC-20 deploy~1,500,0000.03 NVM~$0.06
Complex DeFi tx~500,0000.01 NVM~$0.02

6. Smart Contract Platform

6.1 Full EVM Compatibility

NovaMoney executes the exact same bytecode as Ethereum. Any contract compiled with Solidity, Vyper, Huff, or any EVM-targeting language will run identically.

StandardSupportUse Case
ERC-20FullFungible tokens, stablecoins
ERC-721FullNFTs, unique assets
ERC-1155FullMulti-token (gaming, collectibles)
ERC-4626FullTokenized vaults (DeFi)

6.2 Developer Tooling

Every Ethereum development tool works out of the box:

MetaMask

Wallet & signing

Hardhat

Test & deploy

Foundry

Fast testing

ethers.js

JS/TS integration

OpenZeppelin

Audited libraries

7. API & Developer Experience

NovaMoney provides five API layers for maximum flexibility:

APIPortProtocolUse Case
JSON-RPC8545JSON-RPC 2.0MetaMask, ethers.js, standard Ethereum tooling
REST8546HTTP GET/POSTWeb/mobile apps, simple integrations
GraphQL8546GraphQLComplex queries, batch data fetching
Oracle8546HTTPPrice feeds for smart contracts
Indexer8546HTTPEvent search, token tracking, contract discovery
// Connect to NovaMoney with ethers.js const provider = new ethers.JsonRpcProvider('https://rpc.novamoney.site'); const balance = await provider.getBalance('0xAddress...'); console.log('Balance:', ethers.formatEther(balance), 'NVM');

8. Security

8.1 Language-Level Safety (Rust)

No Buffer Overflows

Bounds checking at compile time

No Use-After-Free

Ownership and borrowing system

No Data Races

Thread safety by the compiler

No Null Pointers

Option type instead of null

8.2 Protocol-Level Security

MechanismProtection
PoS slashingPenalizes malicious validators
Nonce validationPrevents transaction replay
EIP-155 chain IDPrevents cross-chain replay
Gas limitsPrevents computational DoS
Merkle proofsEnables state verification
libp2p noise protocolEncrypted P2P communication

9. Use Cases

Real-World Assets (RWA)

  • Fractional property ownership (ERC-20)
  • On-chain bonds and securities
  • Commodity-backed tokens
  • Invoice factoring

DeFi

  • DEX (Uniswap-style AMMs)
  • Lending & borrowing
  • Stablecoin protocols
  • Yield aggregators

Enterprise

  • Supply chain tracking
  • Digital identity
  • Voting & governance
  • Cross-border payments

Gaming & NFTs

  • In-game currencies (ERC-20)
  • NFT items (ERC-721)
  • Multi-token economies (ERC-1155)
  • On-chain game logic

10. Roadmap

Phase 1 — Foundation COMPLETED

  • Core blockchain (8 Rust crates)
  • EVM execution via revm v19
  • Proof of Stake with attestations and finality
  • P2P networking (libp2p gossipsub + kademlia)
  • JSON-RPC server (22 methods, MetaMask compatible)
  • On-chain staking contract
  • Block explorer and API dashboard
  • REST, GraphQL, Oracle, and Indexer APIs

Phase 2 — Testnet IN PROGRESS

  • Public testnet with multiple validators
  • Faucet web application
  • External security audit
  • Performance benchmarking (target: 1000+ TPS)
  • Documentation portal

Phase 3 — Mainnet PLANNED

  • Genesis ceremony with founding validators
  • Mainnet launch
  • Exchange listings
  • Bridge to Ethereum (wNVM <-> NVM)

Phase 4 — Ecosystem PLANNED

  • Developer grants program
  • DeFi protocol partnerships
  • RWA pilot projects
  • Mobile wallet

Phase 5 — Scale PLANNED

  • Validator set expansion beyond 100
  • Cross-chain bridges (Solana, Polkadot)
  • Light client implementation
  • EIP-4844 blob support for rollups

11. Conclusion

NovaMoney is not another Ethereum fork with a new logo. It is a ground-up implementation of an EVM-compatible blockchain, engineered in Rust for performance, security, and long-term sustainability.

With 210 million tokens distributed over 50 years, a Proof of Stake consensus that rewards honest participation, and full compatibility with the world's largest smart contract ecosystem, NovaMoney provides the infrastructure for the next generation of decentralized applications.

The code is open. The rules are transparent. The network is ready.

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