Skip to content

Problem Statement

Building blockchain applications today presents developers with an impossible choice: specialize in one chain and limit market reach, or invest enormous resources duplicating work across multiple chains.

Each blockchain has its own:

  • Programming languages (Solidity, Rust, Move, ink!)
  • SDKs and tooling (incompatible APIs and patterns)
  • Security models (different cryptographic primitives)
  • Best practices (chain-specific conventions)

Result: Teams must maintain separate expertise for each chain.

Building the same feature across multiple chains requires:

flowchart TB
    F["Feature X Development"]
    F --> H["Hedera Implementation"]
    F --> X["XRPL Implementation"]
    F --> P["Polkadot Implementation"]
    F --> S["Solana Implementation"]
    F --> I["Integration Testing"]
    H --> T["The same work, repeated for every chain"]
    X --> T
    P --> T
    S --> T
    I --> T

Result: development cost grows with every chain added.

Running multi-chain applications requires:

  • Separate infrastructure per chain
  • Chain-specific monitoring and alerting
  • Multiple node operators or RPC providers
  • Distinct deployment pipelines

Result: Linear cost scaling with each additional chain.

Adding chains one after another delays product launches: each new chain waits for its own integration, testing and audit.

Result: Competitors capture market share during extended development cycles.

Users face challenges managing:

  • Multiple wallet applications
  • Different private key formats
  • Chain-specific account systems
  • Separate gas/fee tokens

Result: Poor user experience and adoption barriers.

Different security models across chains create:

  • Varying trust assumptions
  • Inconsistent key management
  • Chain-specific vulnerability surfaces
  • Fragmented audit requirements

Result: Security gaps and increased audit costs.

Current cross-chain solutions rely on bridges, which introduce:

Single points of failure

Bridge hacks have caused large losses.

Centralization

Most bridges use federated validators.

Latency

Cross-chain operations take minutes to hours.

Limited functionality

Bridges typically only support token transfers.

Smart Engines takes a different approach: it acts on each chain natively, through that chain’s own multisig, so using a chain does not require a bridge.

The multi-chain development challenge affects:

  • Time goes into chain-specific code instead of core features
  • Each new chain is a new integration project
  • Tooling is not unified across chains
  • Multi-chain complexity delays blockchain adoption
  • A multi-chain proof-of-concept is expensive
  • Production systems need chain-agnostic solutions
  • Applications that need several wallets lose users
  • Users manage separate wallets for separate chains
  • Complexity is a barrier to adoption

An effective multi-chain infrastructure must provide:

Unified Development Experience

Single SDK for all chains.

Security Without Compromise

TSS/MPC key management.

No Bridge Dependencies

Native chain operations.

Chain-Agnostic Abstractions

High-level APIs.

Separate Infrastructure Tiers

Validators, hosts and gateways run as separate tiers.

Economic Alignment

Incentives for all stakeholders.

Smart Engines V3 is designed to meet all six requirements. Today it is live on Hedera and XRPL, on a testnet operated by HSuite.