# Audityzer Plugin System Architecture ## Overview This document outlines the plugin system architecture for Audityzer, enabling external developers to create and contribute new test types, wallet integrations, and reporting modules. The plugin system follows a modular design with standardized interfaces to ensure compatibility and extensibility. ## Core Design Principles 1. **Modularity**: Each plugin is a self-contained module that can be developed, tested, and deployed independently. 2. **Standardized Interfaces**: All plugins adhere to defined interfaces to ensure compatibility with the core framework. 3. **Discovery Mechanism**: Automatic discovery and registration of plugins at runtime. 4. **Configuration Management**: Unified approach for managing plugin configurations. 5. **Versioning**: Support for versioning to manage plugin compatibility. 6. **Documentation**: Required documentation for each plugin to facilitate usage. ## Plugin Types The Audityzer plugin system supports the following types of plugins: ### 1. Test Type Plugins Test type plugins define new security test categories or methodologies. **Interface Requirements:** - Test initialization function - Test execution function - Result reporting function - Configuration schema ### 2. Wallet Integration Plugins Plugins that add support for new wallet providers or wallet interaction patterns. **Interface Requirements:** - Wallet connection method - Transaction signing method - State management functions - Error handling ### 3. Reporting Plugins Plugins that provide new formats for reporting test results. **Interface Requirements:** - Report generation function - Templating support - Export functionality ### 4. Chain/Network Plugins Plugins that add support for specific blockchain networks or L2 solutions. **Interface Requirements:** - Network configuration - RPC interaction methods - Chain-specific utilities ## Plugin Structure Each plugin should have the following structure: ``` plugin-name/ ├── index.js # Main entry point ├── package.json # Plugin metadata and dependencies ├── README.md # Documentation ├── src/ # Source code │ ├── main.js # Core plugin functionality │ └── utils/ # Helper utilities ├── config/ # Default configurations │ └── schema.json # JSON Schema for configuration validation └── test/ # Plugin tests ``` ## Plugin Registration Plugins are registered using a manifest file that defines: ```json { "name": "my-custom-test-plugin", "version": "1.0.0", "type": "test", "description": "Custom security test for XYZ vulnerability", "entryPoint": "./index.js", "configSchema": "./config/schema.json", "dependencies": { "Audityzer": "^1.0.0" }, "author": "Developer Name", "license": "MIT" } ``` ## Plugin Lifecycle Hooks Each plugin can implement the following lifecycle hooks: 1. `init`: Called when the plugin is first loaded 2. `configure`: Called when configuration is provided 3. `beforeTest`: Called before a test execution 4. `afterTest`: Called after a test execution 5. `cleanup`: Called during test teardown 6. `reportGeneration`: Called during report generation ## Integration with Core Framework ### Plugin Manager The core framework includes a Plugin Manager that handles: 1. Discovering available plugins 2. Loading plugins based on configuration 3. Validating plugin compatibility 4. Managing plugin lifecycle 5. Providing plugin APIs to the core framework ```javascript // Example Plugin Manager usage const pluginManager = new PluginManager(); await pluginManager.loadPlugins(); const testPlugins = pluginManager.getPluginsByType('test'); ``` ### Plugin API The core framework exposes a Plugin API that allows plugins to: 1. Access core functionality 2. Register new commands 3. Extend the UI (if applicable) 4. Access shared services ```javascript // Example Plugin API usage in a plugin module.exports = api => { // Register a new test type api.registerTestType('front-running-detection', { name: 'Front-Running Detection', description: 'Detects front-running vulnerabilities in DeFi contracts', execute: async config => { // Implementation... }, }); // Register a new reporter api.registerReporter('custom-pdf', { name: 'Custom PDF Report', generate: async (results, config) => { // Implementation... }, }); }; ``` ## Plugin Configuration Plugins are configured through a unified configuration system that supports: 1. Default configurations 2. User overrides 3. Environment-specific configurations 4. Command-line overrides Configuration example: ```javascript // Audityzer.config.js module.exports = { plugins: { 'front-running-detection': { enabled: true, slippageTolerance: 0.5, gasMultiplier: 1.5, }, 'custom-pdf-reporter': { enabled: true, template: './templates/custom-report.hbs', outputDir: './reports', }, }, }; ``` ## Plugin Development Workflow 1. **Create**: Initialize a new plugin using the plugin template ```bash npx Audityzer create-plugin my-plugin --type test ``` 2. **Develop**: Implement the plugin functionality following the interface requirements 3. **Test**: Test the plugin locally ```bash npx Audityzer test-plugin ./my-plugin ``` 4. **Package**: Package the plugin for distribution ```bash npx Audityzer package-plugin ./my-plugin ``` 5. **Publish**: Publish to the plugin registry ```bash npx Audityzer publish-plugin ./my-plugin.tgz ``` ## Installation and Usage Users can install plugins from the plugin registry: ```bash npx Audityzer install-plugin front-running-detection ``` Or directly from a GitHub repository: ```bash npx Audityzer install-plugin github:username/front-running-plugin ``` Plugins can be used in tests with minimal configuration: ```javascript // test-config.js module.exports = { plugins: ['front-running-detection'], tests: [ { type: 'front-running-detection', target: 'https://my-dapp.com', config: { slippageTolerance: 0.1, }, }, ], }; ``` ## Example Plugin Implementation Here's a simplified example of a test plugin implementation: ```javascript // index.js module.exports = api => { api.registerTestType('custom-security-test', { name: 'Custom Security Test', description: 'Tests for custom security vulnerabilities', async execute(config, context) { // Setup test environment const { page } = await context.browser.newPage(); // Initialize wallet if needed const wallet = await context.getWallet(config.wallet); await wallet.connect(page); // Execute test logic const results = await runCustomSecurityChecks(page, config); // Return results in standardized format return { success: results.vulnerabilities.length === 0, vulnerabilities: results.vulnerabilities, details: results.details, logs: results.logs, }; }, }); function runCustomSecurityChecks(page, config) { // Custom security test implementation // ... } }; ``` ## Plugin Directory Structure The overall plugin system is organized as follows: ``` Audityzer/ ├── src/ │ ├── core/ │ │ ├── plugin-manager.js │ │ └── plugin-api.js │ └── plugins/ # Built-in plugins │ ├── test-types/ │ ├── wallets/ │ └── reporters/ ├── plugins/ # User-installed plugins └── node_modules/ # Plugin dependencies ``` ## Security Considerations 1. **Sandboxing**: Plugins run in a controlled environment with limited access to system resources 2. **Permissions**: Plugins request specific permissions which must be approved by the user 3. **Verification**: The plugin registry performs basic verification of submitted plugins 4. **Auditing**: Automated and manual auditing of official plugins ## Future Extensions 1. **Plugin Marketplace**: A centralized repository for discovering and installing plugins 2. **Visual Plugin Builder**: A GUI for creating and configuring plugins 3. **Plugin Analytics**: Usage statistics and performance metrics for plugins 4. **Collaborative Development**: Tools for collaborative plugin development ## Conclusion This plugin system architecture enables Audityzer to be extended with new test types, wallet integrations, and reporting capabilities. By following standardized interfaces and lifecycle hooks, developers can create plugins that seamlessly integrate with the core framework, enhancing its functionality and enabling the community to contribute to the security testing ecosystem.