TheTRUSTLanguage

A programming language designed for secure distributed computing. TRUST puts computation first, with blockchain as a feature—not the other way around.

Key Differentiators

Experience secure distributed computing with blockchain as a feature.

Hardware-anchored Security

Native integration with secure enclaves and trusted execution environments

Unified Computational Model

Computation-first architecture with blockchain as a feature

Multi-layer Architecture

Native support for local, regional, and global computation

ML Integration

Built-in support for distributed machine learning workflows

Beyond Traditional Blockchain

See how TRUST reimagines blockchain development with hardware-anchored security and simplified programming.

Traditional Blockchain

•Network-wide consensus required
•High latency for finality
•Energy-intensive mining/validation
•Network congestion affects all transactions

// Ethereum Smart Contract
contract Transaction {
    // Wait for network consensus
    function transfer(address to, uint256 amount) public {
        require(balances[msg.sender] >= amount);
        // Transaction pending network validation
        balances[msg.sender] -= amount;
        balances[to] += amount;
        // Must wait for block confirmation
    }
}

TRUST Architecture

•Instant local hardware validation
•Immediate transaction finality
•Energy-efficient TEE verification
•Local transactions unaffected by network

// TRUST Contract
contract LocalTransfer {
    fn transfer(
        from: Identity,
        to: Address,
        amount: Asset
    ) -> Result<Transfer> {
        // Instant hardware verification
        verify_hardware!(from)?;
        
        // Immediate local execution
        execute_transfer(from, to, amount)
    }
}

Sub-second Finality

Instant local validation with hardware verification

Hardware Security

TEE-backed validation vs. software-only verification

Simplified Development

Built-in security primitives and hardware integration

Language Architecture

Built for secure distributed computing with unique capabilities.

Core Language Structure

Built on Rust with zero-cost abstractions and compile-time safety guarantees

Security Runtime

Hardware-anchored verification with secure enclaves and TEE integration

Network Layer

Advanced distributed computing primitives with dynamic routing

Storage Module

Content-addressable storage with automatic replication and encryption

Security Architecture

TRUST provides comprehensive security through hardware integration and advanced verification mechanisms.

Secure Enclaves
Hardware-isolated execution environment
TEE Integration
Trusted Execution Environment support

Security Example

// Hardware-anchored verification primitive
fn verify_transaction<T: Transaction>(
    transaction: T,
    hardware_context: HardwareContext
) -> Result<VerifiedTransaction, SecurityError> {
    hardware_verify!(
        transaction,
        method: HardwareVerificationMethod::SecureEnclave
    )
}