DeMedic
  • 📚Executive Summary
  • 📖Introduction
  • 🕶️The DeMedic Vision
  • 📀Core Features
    • Patient Data Ownership & Consent Control
    • DMEDI Token Utility
    • Peer-to-Peer Marketplace Architecture
    • Incentivized Participation Model
    • Researcher Access & Analytics Tools
    • Privacy, Encryption, and Compliance Standards
  • 🔧How It Works
    • Patient Onboarding and Data Contribution
    • Researcher Access Workflow
    • Data Privacy and Integrity Mechanisms
    • Ecosystem Flow: Data → Consent → Token → Utility
    • Incentive Alignment & Feedback Loop
  • 💰Tokenomics
    • Token Overview
    • Token Utility
    • Token Distribution
    • Economic Design Principles
    • Future Staking & DAO Features
  • 🖱️Use Cases
    • Clinical Research Acceleration
    • Real-World Evidence (RWE) for Drug Development
    • Public Health Surveillance & Crisis Response
    • AI Training for Health Diagnostics
    • Personalized Health Insights for Users
    • Ethical Monetization of Health Data
    • Medical Crowdsourcing & Patient-Led Research
  • 🏠Community & Governance
    • A Collaborative Community
    • Governance Model
    • Engagement Incentives
    • Open Ecosystem Philosophy
  • 🔐Security, Privacy & Compliance
    • Privacy by Design
    • End-to-End Encryption
    • Zero-Knowledge Proofs (ZKPs)
    • Differential Privacy
    • Identity & Access Management
    • Smart Contract Security
    • Data Sovereignty and User Controls
    • Regulatory Compliance
  • 🛣️Roadmap
    • Phase 1: Foundation & MVP (Q2 2025)
    • Phase 2: Early Ecosystem & Onboarding (Q3 2025)
    • Phase 3: Growth & Monetization (Q4 2025)
    • Phase 4: Decentralization & DAO Transition (Q1–Q2 2026)
    • Phase 5: Global Rollout & Institutional Adoption (Mid–Late 2026)
    • Ongoing: Innovation & Resilience
  • 📑Conclusion
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  1. Security, Privacy & Compliance

End-to-End Encryption

All data on DeMedic is protected through multiple layers of encryption:

  • Data-at-Rest Encryption: All stored data—whether on IPFS, user devices, or decentralized vaults—is encrypted using AES-256 or stronger algorithms.

  • Data-in-Transit Encryption: All communications between users, researchers, and smart contracts are protected using TLS and secure messaging protocols.

  • Client-Side Encryption: Data is encrypted before it even leaves a user’s browser or device—meaning even the platform cannot access it.

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Last updated 1 month ago

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