이 페이지는 아직 선택하신 언어로 제공되지 않습니다. 검수를 거친 번역본을 준비하는 동안 영어 버전을 표시하고 있습니다.
개요
Users, assets and applications are spread across many networks, and few products can afford to live on just one. Going multi-chain, however, multiplies the attack surface. Every bridge, relayer and message-passing protocol becomes part of your trust model.
We help teams decide where to deploy, how to keep state consistent across chains, and which interoperability layers to rely on. Then we build abstractions that let the product add or retire networks without rewriting its core.
비즈니스 활용 분야
- 01
Chain-agnostic products
Applications deployed to several EVM networks and Solana with shared business logic, a unified API, and a frontend that handles network switching, fee differences and finality without confusing the user.
- 02
Cross-chain messaging
Contract-to-contract communication through established protocols such as Chainlink CCIP, LayerZero, Wormhole or Hyperlane, with rate limits, replay protection and pause controls on every receiving endpoint.
- 03
Unified indexing and data
Indexers that aggregate events from multiple chains into one queryable model, reconciling differing block times and reorganization behavior so analytics and support teams work from a single, consistent view.
- 04
Omnichain token deployments
Token contracts deployed across networks using burn-and-mint or lock-and-mint designs such as LayerZero OFT or Chainlink CCT, with supply accounting checks that detect discrepancies between chains.
엔지니어링 접근 방식
- 01
Network selection
We assess candidate chains against user geography, security model, fee profile, tooling maturity and ecosystem fit, and document why each network is in scope or deliberately left out.
- 02
Interoperability risk review
Each bridge or messaging layer is evaluated for its validation model, operational history and upgrade authority. We design on the assumption that any single bridge can fail.
- 03
Abstraction layer design
Chain-specific logic sits behind adapters with a common interface, so contracts, indexers and clients share one domain model while each network keeps its native behavior.
- 04
Cross-chain testing
Multi-fork local environments, testnet deployments and failure injection, including delayed messages, reorganizations and paused bridges, verify that the system degrades predictably rather than silently.
- 05
Operations and monitoring
Per-chain health checks, supply reconciliation, relayer monitoring and alerting give operators early warning of divergence, backed by runbooks for pausing affected routes.
기술 및 플랫폼
Networks
- Ethereum
- Arbitrum
- Optimism
- Base
- Polygon PoS
- Avalanche C-Chain
- Solana
Interoperability
- Chainlink CCIP
- LayerZero
- Wormhole
- Hyperlane
- Axelar
Development
- Solidity
- Rust (Anchor)
- Foundry
- viem
- wagmi
- TypeScript
Data and indexing
- The Graph
- Ponder
- Envio
- Goldsky
- PostgreSQL
기술 명칭은 각 소유자의 상표이며, 파트너십이나 보증을 의미하지 않습니다.
제공 결과물
- Network selection rationale and interoperability risk assessment
- Chain adapter architecture and shared domain model
- Contracts deployed across the agreed networks
- Multi-chain indexer and unified API
- Cross-chain failure-mode test suite
- Monitoring dashboards and route-pause runbooks
리더들이 자주 묻는 질문
Which bridge or messaging protocol do you recommend?
There is no universal answer. Protocols differ in how messages are validated, whether by oracle networks, guardian sets, light clients or optimistic proofs, and each carries different trust assumptions. We compare them against the value at risk and recommend defense in depth, such as rate limits and multiple verifiers, where appropriate.
Do we need to deploy on every chain?
Rarely. Each additional network adds operational and security overhead. We typically recommend starting where your users and partners already are, designing the architecture so expansion is straightforward, and adding networks only when there is a demonstrated need.
How do you handle differences in finality between chains?
We set per-chain confirmation thresholds based on each network's finality model, treat unconfirmed state as provisional in the interface, and design cross-chain actions so a reorganization on one chain cannot create inconsistent balances on another.