Luckaton Whitepaper
  • 👋Welcome
  • ⏰Presale and ICO
    • 🧱Staking During Presale
      • First Purchase - Buy and Stake
      • Claim & Stake During Presale
  • 🔓Tokenomics
    • 📈Long-term growth strategy
  • 🏦Staking 101
    • 📥Rules
    • 🪛Staking dApp
      • Staking dApp Dashboard
      • Components
    • Staking & Betting
    • APY
    • STAKING $LUKT
    • Withdrawing From Staking
    • Claiming Rewards
  • ⚡Luckaton Game
    • 🧙Game Character
    • 🏆Champions League
      • Luckaton Grand Finale
      • Champions
  • 🛣️Roadmap
    • Wall Of Luck
  • 🤖Technicals
    • Technical Architecture
    • Randomization Framework
      • Games Smart Contracts
      • Random
    • Game Features
    • Betting
  • 🔬Luckaton & Science
    • Luckaton Framework
    • Luck Index
    • Measurements
      • Rock-Paper-Scissors
      • Dice
      • Coin Flip
    • Researchers
  • 💬Marketing and Community
  • 🌻Conclusion
  • ℹ️Disclaimer
  • 🌎Luckaton Links
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On this page
  • Enhancing Games Integrity with Smart Contract Technology
  • Utilizing Smart Contracts for RNG
  • Blockchain Characteristics Leveraging for RNG
  • Security and Fairness Measures
  • Practical Application
  1. Technicals
  2. Randomization Framework

Games Smart Contracts

Blockchain implementation in Luckaton mechanics

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Last updated 1 year ago

Enhancing Games Integrity with Smart Contract Technology

In the Luckaton , blockchain technology plays a pivotal role in achieving secure and transparent random number generation (RNG), crucial for ensuring fairness in games like Dice and Coin Flip. Here's how this sophisticated use of blockchain technology is applied within Luckaton ecosystem:

Utilizing Smart Contracts for RNG

Luckaton leverages Ethereum smart contracts, programmed to execute RNG in a deterministic yet secure environment. These contracts are designed to interact with various blockchain features and external systems to generate randomness.

Smart Contract Execution

For each game that requires RNG, a dedicated smart contract is deployed. This contract contains the logic to either generate randomness internally or to call external sources for random values.

Verifiable Random Functions (VRFs)

Luckaton employs VRFs within its smart contracts. These cryptographic functions not only generate a random number but also provide a verifiable proof that the number is random. This proof can be checked by any participant, ensuring the RNG process is tamper-proof and transparent.

Blockchain Characteristics Leveraging for RNG

Block Hashes as RNG Source

Luckaton smart contracts occasionally use the hash of a newly mined block as a random seed. This method capitalizes on the unpredictability of block hashes, derived from block content and miners' work.

Commit-Reveal Schemes for Player Interaction

In multiplayer games, Luckaton implements a commit-reveal scheme. Players submit encrypted hashes of their random inputs (commit phase) and later reveal these inputs (reveal phase). The aggregated inputs are used to generate a final random outcome, ensuring no single player can influence the result.

Security and Fairness Measures

Luckaton's framework is meticulously designed to uphold security and fairness:

Security Against Manipulation

By combining VRFs, and commit-reveal schemes, Luckaton minimizes the risks of RNG manipulation, ensuring all participants have equal chances.

Transparency and Verifiability

Every step of the RNG process, from generation to final outcome, is recorded on the blockchain. This transparency allows anyone to verify the fairness of the game outcomes.

Practical Application

In a Luckaton Dice game, for instance, the smart contract initiates an RNG request which combine VRF-generated numbers with randomness derived from participant-contributed seeds. The final dice roll outcome is then determined in a manner that is both unpredictable and verifiable, ensuring each roll is fair and the game's integrity is maintained.

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Randomization Framework