KRNL Platform Guidebook
KRNL Platformkrnl.xyz
  • Introduction
    • Introduction
    • How Does kOS Work?
  • Setup
    • Getting Started with KRNL
    • Quick Start (CLI)
    • Quick Start (Online IDE)
      • Quick Start (Remix IDE)
      • Quick Start (Atlas IDE)
    • create-krnl-app
    • Platform Registration
  • Kernel
    • What are Kernels?
    • Kernel Registration
      • Kernel Registration (on-chain)
      • Kernel Registration (off-chain)
    • Supported OpenAPI (Off-chain Kernel)
    • Staking
  • Smart Contract
    • Steps for Smart Contract Developers
    • Choosing Kernel(s)
    • Token Authority
      • What is a Token Authority?
      • How to Build a Token Authority?
      • Generic Token Authority
      • How to Deploy a Token Authority on Oasis?
    • Decoding Kernel Responses in Solidity
    • How to Integrate Your Smart Contract with kOS?
    • Smart Contract Registration
  • DApp
    • dApp Registration
    • KRNL SDK Installation
    • Usage
    • KRNL Node RPC
  • Miscellaneous
    • Overview
    • What is the KRNL Platform?
    • What are You Trying to BUIDL?
    • Smart Contract Fundamentals
      • Why Do I Have to Register a Smart Contract?
      • How to Deploy a Smart Contract?
    • Recommended Kernels List
  • Helpful Resources
    • New to Web3?
    • Dictionary
    • Testnet Faucets
    • How to Get Etherscan API Key?
  • Litepaper
    • Litepaper
      • Overview
      • Problem Statement
      • Current State Does Not Solve the Problem
      • Introducing Kernels
      • Ecosystem of Kernels
      • The KRNL Operating System (kOS)
      • Decentralization and Security Considerations
      • Use Cases for KRNL
  • Appendices
    • FAQ
    • Bounty Program
    • Social Medias
    • Thank You
  • Workshop
    • KRNL Workshop
    • Speed's Workshop
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  1. Litepaper
  2. Litepaper

Problem Statement

KRNL is not solving isolated issues within the blockchain space but redefining the very infrastructure of decentralized computing with the aim of resolving many fundamental challenges.

Fragmentation: The proliferation of Layer 1 and Layer 2 solutions has created isolated silos, obstructing seamless interaction between dApps and smart contracts across different ecosystems, thus undermining the core principle of composability in decentralized systems.

Scalability Constraints: Ethereum continues to struggle with network congestion and high gas fees, which discourage widespread dApp adoption and degrade user experience.

Cross-Chain Friction: Achieving interoperability between Ethereum and other blockchains often requires complex, bespoke integrations. The lack of standardized cross-chain communication protocols exacerbates development complexity, hindering innovation and efficiency.

Security Vulnerabilities: Ensuring transaction integrity, provenance, and security in a decentralized manner remains challenging. The rise of bridges and interoperability solutions introduces new attack vectors, increasing security risks.

To address these challenges, KRNL redefines the execution paradigm by introducing "kernels"—community-built, permissionless, monetizable, and composable execution shards for Web3. The KRNL protocol serves as an orchestration and verification engine, allowing smart contracts to integrate these execution shards, enriching the logic and state management of traditional smart contract operations without requiring custom infrastructure. This proposal positions KRNL as an essential tool for the development of cross-chain applications.

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Last updated 5 months ago

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