1Fuel Whitepaper
  • 📖 Executive Summary
    • 📝Mission Statement
    • 💎Unique Selling Proposition (USP)
  • 👨‍🏫 Introduction
    • 🔍Problem Statement
    • 💡Solution Overview
    • 🌐Insights into How 1FUEL’s Unique Features Set It Apart
  • 📊 Market Analysis
    • 🎯Target Audience
    • ⚔️Competitive Analysis
  • 🔄🚀 One-Click Cross-Chain Transactions
    • ⚙️Real-World Value
    • 🛠️Problems Solved
    • 🏗️Technical Architecture
    • 📐Mathematical Modeling
    • 📜Coding Example
    • 📖Explanation and Details
    • 📈Optimization and Extension
  • 💻 Peer-to-Peer (P2P) Exchange
    • ⚙️Real-World Value
    • 🛠️Problems Solved
    • 🏗️Technical Architecture
    • 📐Mathematical Modeling
    • 📜Coding Example
    • 📖Explanation and Details
    • 📈Optimization and Extension
  • 💳 1FUEL Debit and Credit Cards
    • ⚙️Real-World Value
    • 🛠️Problems Solved
    • 🏗️Technical Architecture
    • 📐Mathematical Modeling
    • 📜Coding Example
    • 📖Explanation and Details
    • 📈Optimization and Extension
  • 💾 Cold Storage Solutions
    • ⚙️Real-World Value
    • 🛠️Problems Solved
    • 🏗️Technical Architecture
    • 📐Mathematical Modeling
    • 📜Coding Example
    • 📖Explanation and Details
    • 📈Optimization and Extension
  • ⭐ AI-Powered Features
    • ⚙️Real-World Value
    • 🛠️Problems Solved
    • 🏗️Technical Architecture
    • 📐Mathematical Modeling
    • 📜Coding Example
    • 📖Explanation and Details
    • 📈Optimization and Extension
  • 🛡️ Security and Compliance
    • 🔑Security Protocols
    • 🔐Compliance and Privacy
    • 📐Mathematical Modeling
    • 📜Coding Example
    • 📖Explanation and Details
    • 📈Optimization and Extension
  • 💰 Tokenomics
  • 🛣️ Roadmap
  • 💼 Team and Advisors
  • ✅ Conclusion
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  1. 💾 Cold Storage Solutions

📐Mathematical Modeling

The security of multi-signature setups and secure element chips can be modeled mathematically to ensure robustness:

Multi-Signature Security Model

The security of a multi-signature system can be expressed as:

P(Transaction)=∏i=1nP(Signaturei)P(\text{Transaction}) = \prod_{i=1}^{n} P(\text{Signature}_i) P(Transaction)=i=1∏n​P(Signaturei​)

Where:

P(Signature_i) represents the probability that each individual keyholder signs the transaction.

For a transaction to be executed, all required signatures must be provided, reducing the risk of unauthorized transactions.

Secure Element Tamper Resistance

The probability of a successful attack on the secure element can be modeled as:

P(Attack Success)=1−∏i=1mP(Failurei)P(\text{Attack Success}) = 1 - \prod_{i=1}^{m} P(\text{Failure}_i) P(Attack Success)=1−i=1∏m​P(Failurei​)

Where:

P(Failure_i) represents the probability that each tamper-resistance mechanism within the secure element will resist an attack.

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Last updated 7 months ago