We architect and deploy custom smart contracts that power your core business logic. Our development process is built on security-first principles, utilizing OpenZeppelin libraries, formal verification, and multi-stage audits to mitigate risk before mainnet deployment.
LABS
Services
Quantum-Resistant IoT Cryptography Consulting
Audit and future-proof your IoT device identity systems. We integrate post-quantum cryptographic algorithms for key generation and signing, protecting your DePIN infrastructure against long-term quantum computing threats.
Chainscore © 2026
overview
CORE SERVICE
Smart Contract Development
Secure, production-ready smart contracts built for scale and compliance.
- Token Standards:
ERC-20,ERC-721,ERC-1155, and custom implementations. - DeFi Protocols: Automated Market Makers (AMMs), staking pools, lending/borrowing logic.
- Enterprise Logic: Multi-signature wallets, access control, upgradeable proxy patterns.
- Full Lifecycle: From specification and
Solidity 0.8+development to testing, deployment, and monitoring.
We deliver battle-tested contracts with a focus on gas optimization, audit readiness, and long-term maintainability, reducing your time-to-market by weeks.
key-features-cards
PROTECT YOUR IOT EDGE
Our Quantum-Resistant Cryptography Services
We architect and implement post-quantum cryptographic (PQC) systems specifically for the constraints and scale of IoT environments. Our services ensure your devices remain secure against future quantum attacks, from firmware to cloud.
01
Cryptographic Agility Architecture
Design hybrid crypto-systems that integrate NIST-standardized PQC algorithms (CRYSTALS-Kyber, CRYSTALS-Dilithium) with classical cryptography, enabling seamless future migration without hardware replacement.
NIST PQC
Standard Compliant
Hybrid Mode
Backward Compatible
02
Lightweight PQC for Constrained Devices
Optimize PQC algorithms (SPHINCS+, Falcon) for microcontrollers (ARM Cortex-M, RISC-V) and LPWAN networks (LoRaWAN, NB-IoT), balancing security with power, memory, and latency budgets.
< 100KB RAM
Footprint Target
MCU Focused
ARM, RISC-V
03
Secure Key Lifecycle Management
Implement quantum-safe key generation, distribution (using QKD or PQC-KEM), rotation, and revocation protocols tailored for distributed, often offline, IoT device fleets.
HSM Integration
FIPS 140-2 Level 3
Automated Rotation
Policy-Driven
05
Post-Quantum TLS for IoT Communication
Deploy and configure PQC-enabled TLS 1.3 stacks (using Kyber for key exchange) for MQTT, CoAP, and HTTPs communication between devices, gateways, and cloud platforms.
TLS 1.3
Protocol
MQTT/CoAP
IoT Optimized
06
Cryptographic Audit & Migration Planning
Conduct a full inventory of your IoT crypto assets, assess quantum vulnerability, and create a phased migration roadmap with testing and rollback strategies.
Vulnerability Report
Deliverable
Phased Roadmap
12-36 Month Plan
benefits
THE QUANTUM THREAT IS REAL
Why Future-Proof Your IoT Cryptography Now
Classical encryption securing today's IoT devices will be broken by quantum computers within the next decade. Proactive migration is a critical business and security imperative.
01
Prevent Catastrophic Data Breaches
Quantum computers will retroactively decrypt sensitive data harvested today. We implement Post-Quantum Cryptography (PQC) standards (NIST-selected algorithms) to protect your data for its entire lifecycle.
NIST
Standard Algorithms
2030
Critical Threat Horizon
02
Avoid Costly Emergency Migrations
A reactive, forced upgrade of billions of deployed devices is exponentially more expensive. Our phased migration strategy integrates PQC into your existing development lifecycle, spreading cost and minimizing disruption.
70%
Lower Migration Cost
Phased
Deployment Strategy
03
Maintain Long-Term Regulatory Compliance
Industries like healthcare, automotive, and critical infrastructure face upcoming regulations (e.g., CNSA 2.0). We ensure your IoT stack is compliant with future mandates, preventing product recalls or market access blocks.
CNSA 2.0
Compliance Ready
Zero
Regulatory Lag
04
Build a Competitive Market Advantage
Quantum-resilience is a powerful differentiator. We help you market certified future-proof security, building trust with enterprise clients and securing long-term contracts in regulated sectors.
Key
Market Differentiator
Enterprise
Trust Signal
05
Leverage Hybrid Cryptography Transition
We deploy classical + PQC hybrid schemes, ensuring backward compatibility and operational continuity during the transition. This provides security today and quantum-resistance tomorrow without service interruption.
Zero
Downtime
Dual-Layer
Security
06
Expertise in Constrained IoT Environments
PQC algorithms demand more resources. Our engineers specialize in optimizing for MCU/constrained devices, balancing security, performance, and power consumption to meet your product's exact specifications.
< 100KB
Memory Footprint
Hardware
Acceleration
Our Structured Engagement Model
Project Phases & Deliverables
A transparent breakdown of our quantum-resistant IoT cryptography consulting process, from initial assessment to production deployment and ongoing support.
| Phase & Key Activities | Core Deliverables | Timeline | Your Commitment |
|---|---|---|---|
Phase 1: Architecture & Threat Assessment | Post-Quantum Crypto (PQC) strategy document, IoT threat model, cryptographic library selection matrix | 2-3 weeks | Provide system architecture diagrams, access to key technical stakeholders |
Phase 2: Prototype & Algorithm Integration | Working proof-of-concept, benchmark report (latency, power, memory), integration guide for chosen PQC algorithm (e.g., CRYSTALS-Kyber/Dilithium) | 4-6 weeks | Allocate sandbox/dev environment, assign embedded developer for knowledge transfer |
Phase 3: Implementation & Code Audit | Production-ready cryptographic modules, full security audit report, key lifecycle management design | 6-8 weeks | Review and approve audit findings, provision final target hardware |
Phase 4: Deployment & Validation | Deployment playbook, performance validation suite, incident response runbook for crypto-related events | 2-3 weeks | Execute staging deployment, participate in validation testing |
Phase 5: Ongoing Support (Optional SLA) | Priority support, quarterly security reviews, cryptographic agility roadmap for future standards (NIST PQC) | Ongoing | Annual retainer, maintain communication channel for critical updates |
Total Project Investment (Phases 1-4) | End-to-end quantum-ready IoT cryptography system | 14-20 weeks | Dedicated project manager, timely feedback on deliverables |
Strategic Decision Analysis
Build vs. Buy: Quantum-Resistant Cryptography Implementation
A detailed comparison of the time, cost, and risk involved in developing quantum-resistant cryptography for IoT in-house versus leveraging Chainscore Labs' specialized consulting service.
| Implementation Factor | Build In-House | Buy with Chainscore |
|---|---|---|
Time to Secure Production | 9-18 months | 8-12 weeks |
Initial Development Cost | $300K - $750K+ | $80K - $200K |
Cryptographic Expertise Required | PhD-level specialists | Our team (included) |
Security Audit & Certification | External cost + 3-6 months | Included with NIST compliance review |
Ongoing Algorithm Maintenance | High (your team tracks NIST PQC standards) | Managed via optional SLA |
Integration with Existing IoT Stack | High risk, custom work | Guaranteed, with existing SDKs for AWS IoT, Azure |
Post-Quantum Key Management | Build from scratch | Pre-built, FIPS-140-2 aligned modules |
Total Year 1 Cost (Est.) | $450K - $1M+ | $120K - $250K |
Risk Profile | High (unaudited, talent gap) | Low (audited, expert-led) |
process-walkthrough
FULL-STACK BUILD
Custom Blockchain Development
End-to-end development of custom blockchains, layer-2 solutions, and protocol infrastructure.
We architect and deploy purpose-built blockchain networks tailored to your specific use case. Our team delivers production-ready mainnets, sidechains, and rollups with custom consensus, tokenomics, and governance models. From PoA networks for enterprise consortia to high-throughput EVM-compatible chains, we handle the full stack.
Deploy a custom, secure blockchain in under 8 weeks, not 8 months.
- Core Protocol Development: Custom
Substrate/Cosmos SDKmodules,EVM-compatible execution layers (Polygon Edge,Arbitrum Nitro). - Infrastructure & Tooling: Block explorers, RPC endpoints, indexers, and cross-chain bridges.
- Security & Consensus: Implementation of
Tendermint,IBFT, or custom BFT consensus with formal verification. - Production Deployment: Node orchestration, validator set management, and ongoing protocol upgrades.
Your Questions, Answered
Quantum-Resistant IoT Cryptography FAQ
Get clarity on our consulting process, timelines, and how we secure your IoT ecosystem against future quantum threats.
Our engagement follows a structured 4-phase methodology:
- Discovery & Assessment (1-2 weeks): We analyze your current IoT architecture, data flows, and threat model to identify cryptographic vulnerabilities.
- Design & Planning (2-3 weeks): We design a tailored migration roadmap, selecting appropriate PQC algorithms (e.g., CRYSTALS-Kyber, CRYSTALS-Dilithium) and defining integration points.
- Implementation & Integration (4-8 weeks): Our engineers implement the cryptographic libraries and integrate them with your IoT firmware/backend, following secure development practices.
- Testing & Validation (2-3 weeks): We conduct rigorous penetration testing and formal verification to ensure the solution meets security and performance SLAs before deployment.
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