We architect and deploy battle-tested smart contracts that form the immutable foundation of your protocol. Our development process integrates security-first principles from day one, ensuring your core logic is resilient against exploits and operates at 99.9% uptime.
MPC in Insurance Smart Contract Pools
Smart Contract Development
Secure, production-ready smart contracts built by certified auditors for your Web3 application.
- Custom Logic: Tailored
Solidity/Rustcontracts for DeFi, NFTs, DAOs, and enterprise use cases. - Security by Design: Built with
OpenZeppelinstandards and internal audits before deployment. - Gas Optimization: Expert-level code to reduce user transaction costs by up to 40%.
- Full Lifecycle: From specification and development to deployment on
EVM/Solana/Cosmosand ongoing maintenance.
Move from concept to a live, audited mainnet contract in as little as 3 weeks. We provide the technical rigor so you can launch with confidence.
Core Technical Capabilities We Deliver
We architect and deploy secure, compliant smart contract pools for parametric insurance, powered by Multi-Party Computation (MPC) for institutional-grade key management and claims automation.
Custom Insurance Pool Smart Contracts
Tailored Solidity contracts for parametric triggers, premium calculations, and automated claims payouts. Built with OpenZeppelin security patterns and gas optimization for on-chain efficiency.
MPC-Based Key Management & Signing
Decentralized, non-custodial signing infrastructure for pool governance and claims approval. Eliminates single points of failure and meets institutional security requirements for fund custody.
Oracle Integration & Data Feeds
Secure integration with Chainlink, Pyth, and custom oracles for reliable, tamper-proof external data (weather, flight, IoT) to trigger parametric insurance contracts automatically.
Regulatory Compliance & Audit Trail
Full transaction immutability and transparent audit logs built into the protocol. Facilitates compliance with financial regulations and simplifies reporting for auditors and regulators.
Scalable Pool Architecture
Modular design supporting thousands of concurrent policies and claims. Engineered for horizontal scaling on Ethereum L2s (Arbitrum, Optimism) and other EVM-compatible chains.
Incident Response & Security Monitoring
24/7 smart contract monitoring with automated alerts for anomalous activity. Includes emergency pause mechanisms and upgradeability patterns for rapid incident response.
Business Outcomes for Insurance Providers
Chainscore's MPC-powered smart contract pools deliver measurable improvements in operational efficiency, risk management, and capital deployment for insurance carriers, reinsurers, and MGAs.
Automated Claims Settlement
Reduce claims processing from weeks to minutes with self-executing smart contracts. Payouts are triggered automatically by verified oracles, eliminating manual review bottlenecks and improving customer satisfaction.
Enhanced Capital Efficiency
Deploy capital on-chain into diversified risk pools with real-time transparency. Our MPC infrastructure enables secure, multi-party fund management, increasing yield on float and unlocking new investment strategies.
Fraud & Risk Mitigation
Leverage immutable audit trails and cryptographic proof to prevent double-dipping and fraudulent claims. Smart contract logic enforces policy terms precisely, reducing loss ratios and operational risk.
Regulatory Compliance & Reporting
Built-in compliance modules for KYC/AML and regulatory reporting. Generate automated, tamper-proof reports for regulators, streamlining audits and reducing compliance overhead.
New Product Velocity
Rapidly prototype and launch parametric, micro, or peer-to-peer insurance products. Our modular smart contract framework cuts development time, allowing you to test and iterate in-market faster.
Secure Multi-Party Governance
Enterprise-grade MPC (Multi-Party Computation) secures pool treasury management. No single point of failure for fund movements, requiring consensus among authorized parties for critical actions.
MPC Protocol vs. Alternative Insurance Models
A detailed comparison of Multi-Party Computation (MPC) for insurance smart contract pools against traditional and other on-chain models, highlighting key operational, security, and cost factors for CTOs and technical founders.
| Key Factor | Traditional Reinsurance | On-Chain Parametric | Chainscore MPC Protocol |
|---|---|---|---|
Underlying Technology | Legacy Systems & Manual Processes | Basic Smart Contracts (Oracle-dependent) | Threshold Signature Scheme (TSS) MPC Wallets |
Claim Settlement Time | 30-90 days | 7-14 days (oracle latency) | < 24 hours (automated) |
Capital Efficiency | Low (locked capital) | Medium (pooled but static) | High (dynamic, on-demand allocation) |
Counterparty Risk | High (reinsurer default) | Medium (smart contract bug, oracle failure) | Low (non-custodial, distributed signing) |
Fraud & Dispute Handling | Manual arbitration, lengthy | Binary payout, disputes difficult | Programmable governance, transparent audit trail |
Integration Complexity | High (legal, operational) | Medium (oracle integration, contract dev) | Low (API-first, SDKs for Ethereum/Polygon/Arbitrum) |
Typical Implementation Timeline | 6-12 months | 3-6 months | 4-8 weeks |
Security Posture | Opaque, centralized points of failure | Public code, single contract risk | Audited contracts + cryptographic secret distribution |
Operational Cost (Year 1 Est.) | $500K+ | $150K - $300K | $50K - $150K + gas optimization |
Our Development & Integration Process
A structured, security-first approach to building and integrating MPC-secured smart contract pools for insurance. We deliver production-ready infrastructure, not just prototypes.
Architecture & Protocol Design
We design the MPC architecture and smart contract logic for your specific insurance pool use case (e.g., parametric triggers, claims adjudication). This includes selecting the optimal MPC threshold scheme (t-of-n) and defining the on-chain/off-chain data flow.
Smart Contract Development & Auditing
Our engineers develop the core pool smart contracts in Solidity/Vyper, implementing the designed logic. Every contract undergoes rigorous internal review and is prepared for external security audits by firms like CertiK or Quantstamp.
MPC Node Deployment & Configuration
We provision, secure, and configure the distributed MPC nodes that will manage the pool's private keys. This includes setting up secure enclaves (e.g., AWS Nitro), network peering, and the signing ceremony for key generation.
Staging Environment & Testing
We deploy the entire stack (contracts + MPC nodes + API) to a staging environment that mirrors mainnet. We execute comprehensive integration tests, including failure scenarios and load testing under simulated claim events.
Production Launch & Monitoring
We manage the mainnet deployment and go-live process. Post-launch, we provide 24/7 monitoring of contract events, node health, and API performance, with alerts for any anomalies in the pool's operation.
Smart Contract Development
Production-ready smart contracts built with enterprise-grade security and gas optimization.
We architect, develop, and deploy secure smart contracts for ERC-20, ERC-721, ERC-1155, and custom protocols. Every contract undergoes rigorous security audits and formal verification to protect your assets and users.
Deliver a secure, gas-efficient, and upgradeable smart contract system in 2-4 weeks.
- Security-First Development: Built on
Solidity 0.8+usingOpenZeppelinlibraries and battle-tested patterns. - Gas Optimization: Expert-level tuning to minimize transaction costs for your users.
- Full Lifecycle Support: From initial architecture and development to deployment, monitoring, and maintenance.
Frequently Asked Questions
Get clear answers on how we implement secure, compliant Multi-Party Computation for on-chain insurance protocols.
MPC eliminates single points of failure for private keys, which is critical for managing pooled capital. Instead of one vulnerable key, signing authority is distributed across multiple, independently operated nodes. This means no single entity can unilaterally move funds, requiring a pre-defined threshold of participants to authorize claims payouts or treasury actions. We implement this using audited libraries like tss-lib (ECDSA/EdDSA) with secure enclaves, ensuring your pool's governance and capital are protected from both external attacks and internal collusion.
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Our experts will offer a free quote and a 30min call to discuss your project.