We architect, develop, and deploy custom smart contracts that power your Web3 product. Our focus is on security-first development, gas optimization, and maintainable code.
LABS
Services
Quantum-Resistant Randomness Solutions
Develop future-proof random number generation systems using post-quantum cryptographic algorithms. Protect long-term applications like asset distribution and governance from potential quantum computer threats.
Chainscore © 2026
overview
CORE SERVICE
Smart Contract Development
Secure, production-ready smart contracts built to your exact specifications.
Deliver a secure, auditable, and scalable foundation for your token, DeFi protocol, or NFT platform in as little as 2-4 weeks.
- Custom Logic: Build on
ERC-20,ERC-721,ERC-1155, or bespoke standards with complex business rules. - Security Audits: Code follows OpenZeppelin patterns and is prepared for third-party audits from firms like CertiK or Quantstamp.
- Full Lifecycle: From specification and development to deployment on
EVMchains (Ethereum, Polygon, Arbitrum) and ongoing maintenance.
key-features-cards
ENTERPRISE-GRADE SECURITY
Core Capabilities of Our Quantum-Safe RNG
Our post-quantum cryptography (PQC) random number generator provides the verifiable, unpredictable entropy required for secure Web3 applications. Built on lattice-based and hash-based algorithms, it is designed to withstand attacks from both classical and quantum computers.
02
On-Chain Verifiability & Transparency
Every random output is accompanied by a cryptographic proof, enabling anyone to verify its integrity and fairness on-chain. Eliminates trust assumptions and provides audit trails for regulatory compliance.
Public Proofs
Transparency
On-Chain
Verification
03
High-Performance, Low-Latency API
Access quantum-safe entropy via a REST API with sub-100ms latency and 99.99% uptime SLA. Designed for high-throughput applications like NFT minting, gaming, and on-chain lotteries.
< 100ms
Latency
99.99%
Uptime SLA
04
Custom Entropy Source Integration
Tailor the RNG to your security model. We support integration with hardware security modules (HSMs), beacon chains, and multi-party computation (MPC) ceremonies for enhanced source diversity.
HSM/MPC
Sources
Custom
Architecture
06
Rapid Integration & Developer Support
Get production-ready in under 2 weeks with our SDKs for Solidity, Rust, and JavaScript. Includes 24/7 technical support and documentation for seamless integration into your existing stack.
< 2 weeks
Deployment
24/7
Support
benefits
STRATEGIC IMPERATIVE
Why Build Quantum-Resistant Randomness Now
Quantum computing is a future threat with present-day consequences. Proactively securing your on-chain randomness is a critical investment in protocol longevity, user trust, and regulatory compliance.
02
Mitigate Regulatory & Audit Risk
Demonstrate proactive security to auditors and regulators. Our quantum-resistant VRF solutions provide verifiable proof of forward-looking security practices, a key differentiator for institutional adoption.
Audit-Ready
Security Reports
Compliance
Proactive Framework
03
Secure High-Value Applications
Protect lottery draws, NFT minting, gaming outcomes, and DeFi liquidations where predictable randomness leads to catastrophic financial loss. Our solution guarantees unbiasable entropy.
Unbiasable
Entropy Source
On-Chain
Verifiable Proof
04
Maintain Competitive Advantage
As quantum threats become mainstream, early adopters of quantum-resistant infrastructure will be seen as security leaders, attracting more users and capital by building unshakeable trust.
First-Mover
Advantage
Trust Signal
For Users & VCs
05
Avoid Costly Post-Breach Migrations
Retrofitting cryptographic systems after a quantum breach is exponentially more expensive and disruptive than building with resilience from day one. Save on future redevelopment costs.
>10x
Cost to Retrofit
Preventative
Cost Savings
Future-Proofing Your Randomness
Quantum-Resistant RNG vs. Traditional VRF
A technical comparison of our post-quantum secure randomness solution against conventional Verifiable Random Function (VRF) implementations, highlighting key security, performance, and operational differences.
| Feature / Specification | Traditional VRF (e.g., Chainlink) | Chainscore Quantum-Resistant RNG |
|---|---|---|
Cryptographic Foundation | Elliptic Curve (ECDSA, EdDSA) | Post-Quantum Lattice-Based |
Quantum Attack Resistance | Vulnerable to Shor's Algorithm | Secure against known quantum attacks |
Verifiability | On-chain proof of fairness | On-chain proof with quantum-safe signatures |
Latency (Request to Fulfillment) | 3-5 block confirmations | 1-2 block confirmations |
Supported Blockchains | EVM chains, Solana | EVM chains, Solana, with extensible adapters |
Integration Complexity | Moderate (oracle node setup) | Low (API & smart contract library) |
Audit Status | Third-party (protocol level) | Third-party + formal verification of core algorithms |
Cost Model | Per-request LINK fee + gas | Predictable subscription or custom enterprise SLA |
Time to Production Deployment | 2-4 weeks (oracle config) | < 1 week (library integration) |
Long-Term Viability (Post-Quantum) | Requires migration | Designed for cryptographic agility & longevity |
how-we-deliver
PROVEN METHODOLOGY
Our Development Process
A structured, security-first approach to integrating quantum-resistant randomness into your Web3 applications. We focus on delivering auditable, reliable, and performant solutions that meet your specific use case requirements.
01
Architecture & Threat Modeling
We begin by analyzing your application's specific randomness requirements and threat model. This includes defining entropy sources, identifying potential quantum attack vectors, and designing a hybrid cryptographic architecture that balances security with performance.
1-2 days
Design Sprint
NIST SP 800-90B
Compliance
02
Cryptographic Implementation
Our engineers implement post-quantum algorithms (e.g., CRYSTALS-Dilithium, Falcon) and hybrid schemes alongside traditional VRF/VRF. We ensure proper key management, secure multi-party computation (MPC) for threshold signing, and integration with your existing blockchain stack (EVM, Solana, etc.).
Open Quantum Safe
Libraries
FIPS 140-3
Standards
03
Security Audits & Formal Verification
Every component undergoes rigorous security review. This includes automated analysis, manual code review by our in-house experts, and formal verification of critical cryptographic properties. We provide a comprehensive audit report detailing findings and mitigations.
3rd Party Audits
Optional
100% Coverage
Critical Logic
04
Integration & Testing
We deploy the randomness solution into your staging environment and execute extensive integration testing. This includes load testing under high-throughput conditions, failure mode analysis, and verification of on-chain proof generation and verification.
< 2 sec
Avg. Response
10k+ TPS
Load Tested
05
Production Deployment & Monitoring
We manage the secure rollout to your mainnet, including key ceremony facilitation for MPC setups. We implement real-time monitoring for entropy health, latency, and proof validity, with alerts for any deviation from expected behavior.
99.95%
Uptime SLA
24/7
Monitoring
security
CORE SERVICE
Smart Contract Development
Secure, production-ready smart contracts built by Web3-native engineers.
We architect and deploy custom smart contracts that form the backbone of your decentralized application. Our development process is built on security-first principles and a deep understanding of protocol economics.
- Full-Stack Development: From
ERC-20tokens andERC-721NFTs to complex DeFi protocols and DAO governance systems. - Security & Audits: Code written with
OpenZeppelinpatterns, followed by third-party audits from firms like CertiK or Quantstamp. - Gas Optimization: Every contract is optimized for minimum gas consumption, reducing user transaction fees by up to 40%.
- Time-to-Market: Go from spec to mainnet deployment in as little as 2-4 weeks.
We don't just write code; we engineer the financial and governance logic that powers your product's trust layer.
Technical & Commercial Details
Quantum-Resistant Randomness FAQ
Get clear answers on how our post-quantum secure RNG solutions are built, deployed, and priced for Web3 applications.
We implement a hybrid approach combining verifiable random functions (VRFs) with post-quantum cryptography (PQC). The core uses lattice-based signatures (e.g., CRYSTALS-Dilithium) to generate and verify randomness, making it secure against attacks from both classical and quantum computers. The randomness is generated off-chain in a secure enclave, signed with a PQC key, and verified on-chain via a lightweight smart contract. This ensures cryptographic proof of integrity and unpredictability for applications like NFT minting, gaming, and on-chain lotteries.
ENQUIRY
Get In Touch
today.
Our experts will offer a free quote and a 30min call to discuss your project.
NDA Protected
Confidentiality24h Response
Time to ValueDirectly to Engineering Team
No Sales Fluff10+
Protocols Shipped
$20M+
TVL Overall