Instant, Private, and
Feeless Crypto Transfers
[ FEATURES ]
A revolutionary stateless blockchain protocol.
Stateless
Architecture
Feeless Transfers
Eliminate transaction fees through our innovative stateless architecture, enabling cost-free asset transfers without compromising security or decentralization.
Enhanced Privacy
Unlinkable transactions and address rotation ensure your financial privacy while maintaining full transparency where it matters.
Sparse Merkle Trees
Efficient cryptographic proofs enable instant verification without maintaining full state copies, drastically reducing resource requirements.
DHT Distribution
Distributed Hash Tables ensure efficient proof distribution and retrieval across the network without centralized infrastructure.
Multi-Asset Support
Native support for multiple assets with our XRN token and user-generated tokens, all secured through robust SMT namespaces.
Core benefits
Feeless transfers
No miners or gas fees required - transactions propagate via an efficient gossip protocol, making every transfer completely free.
Instant finality
New state roots are adopted as soon as messages traverse the network, providing immediate transaction confirmation.
Minimal state
Nodes store only the current root and proofs for accounts they care about, drastically reducing storage requirements.
Selective privacy
Only proven accounts are revealed while unused addresses remain hidden, providing enhanced transaction privacy.
Technical architecture
VIEW REPOSITORYCore layer
State represented as a Sparse Merkle Tree over address-to-balance mappings, using Ed25519 signatures for transaction authenticity and SHA-256 for hashing.
Network layer
Libp2p Kademlia for proof storage and retrieval, with RocksDB for local proof caching and Gossipsub for broadcasting updates.
Node daemon
Tokio-based main loop handling network events, proof fetches, state updates, metrics, and JSON-RPC endpoints.
Client interfaces
CLI wallet for key management and transaction submission, with JavaScript/Python SDKs and Ethereum bridge contract for cross-chain operations.
[ COMPARISON ]
Beyond the old chain limits
Volt enables instant, private, and scalable asset transfers without fees or global state replication, using Sparse Merkle Trees and DHT-based proof distribution.
VOLT
Traditional Blockchain
Transaction speed
Instant
10 minutes (average)
Transaction speed
VOLT
Instant
TRADITIONAL BLOCKCHAIN
10 minutes (average)
Transaction fees
Zero fees
Variable (1-20 USD)
Transaction fees
VOLT
Zero fees
TRADITIONAL BLOCKCHAIN
Variable (1-20 USD)
Privacy
Selective privacy by default
Pseudonymous, public ledger
Privacy
VOLT
Selective privacy by default
TRADITIONAL BLOCKCHAIN
Pseudonymous, public ledger
Scalability
10,000+ TPS
7 TPS
Scalability
VOLT
10,000+ TPS
TRADITIONAL BLOCKCHAIN
7 TPS
Energy usage
Negligible
High (comparable to a small country)
Energy usage
VOLT
Negligible
TRADITIONAL BLOCKCHAIN
High (comparable to a small country)
Storage requirements
Minimal (32 bytes per node)
Full blockchain (400GB+)
Storage requirements
VOLT
Minimal (32 bytes per node)
TRADITIONAL BLOCKCHAIN
Full blockchain (400GB+)
Open your Volt wallet and
take back control.
Create or import your wallet and start sending feeless, private transactions in seconds.
Latest news
VIEW ALL
Stateless Indexing: The Future of Digital Transactions
An in-depth exploration of how VOLT's stateless verification system revolutionizes blockchain transactions through innovative use of Sparse Merkle Trees and DHTs.

DHT and Proof Distribution: VOLT's Distributed Indexing System
A comprehensive analysis of how VOLT leverages Distributed Hash Tables for dynamic proof distribution, enabling efficient and scalable state verification without centralized coordination.

Sparse Merkle Trees in VOLT: The Indexing Revolution
How VOLT's implementation of Sparse Merkle Trees revolutionizes blockchain state management, enabling efficient proofs and minimal storage requirements.
[ DEVELOPER RESOURCES ]
Build privacy-preserving
asset transfer solutions
[ GITHUB REPOSITORY ]
Access our Rust implementation including Sparse Merkle Trees, DHT-based proof distribution, Ed25519 signatures, and MetaMask integration components.