KUGO
KUGO
  • KIROKUGO
    • Origins & Vision
    • Dashboard
    • Technical Architecture
    • Tokenomics & Utility
    • Development Roadmap
    • Integration and API
    • Compliance & Risk Disclosures
    • Community
Powered by GitBook
On this page
  • Platform Overview
  • Technical Stack
  • Smart Contract Architecture
  • Dashboard Components
  • Development Guidelines
  1. KIROKUGO

Technical Architecture

Infrastructure powering the future of decentralized finance.

PreviousDashboardNextTokenomics & Utility

Last updated 6 months ago

This section details the technical foundation of the KIROKUGO ecosystem, including our infrastructure, smart contracts, and integration capabilities.

Platform Overview

Backend
    [Google Cloud] --> [API Gateway]
        -->[Blockchain Indexer]
        --> [Price Oracle]

Blockchain
    [Smart Contracts] --> [KIRO Token]
        --> [KUGO Token]
        --> [Staking]
        --> [Farming]

Technical Stack

Core Framework

// Next.js Configuration
export const config = {
  runtime: 'edge',
  regions: ['iad1', 'sfo1', 'hnd1'], // US East, US West, Japan
}

Key Components

  • Next.js 14+: Server-side rendering and static generation

  • React 18+: UI components and hooks

  • TypeScript 5.0+: Type-safe development

  • TailwindCSS: Styling and theming

  • ethers.js: Blockchain interaction

  • WebGL/Three.js: 3D visualizations

Performance Metrics

Metric
Target
Current

First Load

< 2s

1.8s

Time to Interactive

< 3s

2.7s

API Response

< 200ms

180ms

Web3 Configuration

Web3Config {
  networks: {
    ethereum: {
      rpc: string[];
      chainId: number;
      contracts: Record<string, string>;
    };
    // Additional networks...
  };
  fallbackProviders: string[];
  cacheStrategy: 'memory' | 'redis';
}

Deployment Architecture

[Load Balancer] --> [Cloud Run]
  --> [Cloud Functions]
  --> [Firestore]
  --> [Blockchain Node]

Google Cloud Platform

yamlCopyservices:
  - cloud-run:
      memory: 2Gi
      cpu: 2
      scaling:
        minInstances: 2
        maxInstances: 10
  - cloud-functions:
      runtime: nodejs18
      region: multiple
  - firestore:
      collection: metrics
      indexes: true

Smart Contract Architecture

// SPDX-License-Identifier: MIT
pragma solidity ^0.8.0;

import "@openzeppelin/contracts/token/ERC20/ERC20.sol";
import "@openzeppelin/contracts/access/Ownable.sol";
import "@openzeppelin/contracts/security/ReentrancyGuard.sol";

contract KUGO is ERC20, Ownable, ReentrancyGuard {
    uint256 public constant TOTAL_SUPPLY = 100_000_000 * 10**18;
    uint256 public constant TRANSACTION_FEE = 5;
    
    mapping(address => bool) public isExcludedFromFees;
    
    event FeeDistributed(
        uint256 treasuryAmount,
        uint256 rewardsAmount,
        uint256 burnAmount
    );
    
    constructor() ERC20("KUGO", "KUGO") {
        _mint(msg.sender, TOTAL_SUPPLY);
    }
}

KUGOStaking is ReentrancyGuard {
    struct StakingPosition {
        uint256 amount;
        uint256 timestamp;
        uint256 lockPeriod;
        uint256 rewardDebt;
    }
    
    mapping(address => StakingPosition[]) public stakingPositions;
}
contract KUGOFarming {
    struct FarmingPool {
        IERC20 rewardToken;
        uint256 rewardPerBlock;
        uint256 lastRewardBlock;
        uint256 accRewardPerShare;
    }
}

Security Measures

Dashboard Components

Real-Time Data Processing

interface PriceData {
  timestamp: number;
  price: number;
  volume24h: number;
  priceChange24h: number;
}

class PriceFeed {
  private websocket: WebSocket;
  private priceCache: Map<string, PriceData>;
  
  constructor() {
    this.initializeWebSocket();
    this.setupHeartbeat();
  }
}

Development Guidelines

Code Standards

  • Follow TypeScript strict mode

  • Use functional components in React

  • Implement proper error boundaries

  • Maintain comprehensive test coverage

  • Regular security audits

  • Penetration testing

  • Code review requirements

  • Automated vulnerability scanning

1

Environment Setup

  • Configure development environment

  • Install dependencies

  • Set up local blockchain

2

Smart Contract Development

  • Write contract code

  • Create test suite

  • Perform security audit

3

Frontend Integration

  • Implement Web3 connections

  • Create UI components

  • Set up state management

4

Testing and Deployment

  • Run integration tests

  • Perform stress testing

  • Deploy to production

This concludes the technical architecture section.

TokenVelocity=24h VolumeMarket Cap{Token Velocity} = \frac{\text{24h Volume}}{\text{Market Cap}}TokenVelocity=Market Cap24h Volume​
Holder Return=Staking APY+Farming APY2∗Time Held\text{Holder Return} = \frac{\text{Staking APY} + \text{Farming APY}}{2} * \text{Time Held} Holder Return=2Staking APY+Farming APY​∗Time Held

Multi-Signature Control

Critical protocol parameters require multiple signatures for modification

Time Locks

Changes to protocol parameters are subject to time delays

Emergency Controls

Circuit breakers and pause mechanisms for emergency situations