main-process-dip-architecture

Apply Dependency Injection patterns to Electron main-process code with decorators and module structures.

Updated May 20, 2025
One-click install
npx skills add https://github.com/trae-op/electron-password-generation --skill main-process-dip-architecture
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: main-process-dip-architecture
Source: https://github.com/trae-op/electron-password-generation/tree/main/.github/skills/main-process-dip-architecture
Command: npx skills add https://github.com/trae-op/electron-password-generation --skill main-process-dip-architecture

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

This skill provides a structured approach for building modular, testable Electron main-process code using Dependency Injection patterns. It guides architects through decorators, module patterns, and provider strategies to reduce coupling and improve maintainability.

Core Features & Use Cases

  • DI-based module architecture: Defines module boundaries, providers, IPC handlers, and window managers using a consistent pattern.
  • Reusable module templates: Supplies templates for services, IPCs, and windows that promote testability and separation of concerns.
  • Use Case: A project migrating a monolithic Electron main process to DI-driven modules can adopt these patterns to decouple responsibilities and enable easier testing.

Quick Start

Create a new module directory and follow the templates in this skill's guide to implement a sample module with service, IPC, and window manager.

Frequently Asked Questions about main-process-dip-architecture

High-intent search queries and answers about installing and using this skill.

FAQPage Schema
How do I decouple a tightly coupled Electron main process for better testability?

To decouple a tightly coupled Electron main process, you can apply Dependency Injection patterns using decorators like @RgModule and @IpcHandler to define strict module boundaries and isolate services.

What is the best way to structure IPC handlers in a large Electron main process codebase?

The best way to structure IPC handlers in a large Electron main process is using a DI-centric modular architecture with decorators like @IpcHandler, which separates IPC routing logic from business logic.

How does dependency injection work for Electron window managers?

Dependency injection for Electron window managers works by applying the @WindowManager decorator, which isolates window creation and lifecycle management into testable, reusable provider templates.

Can I migrate a monolithic Electron main process to modular architecture without rewriting everything?

Yes, you can migrate a monolithic Electron main process incrementally by adopting module templates and DI provider patterns, allowing you to decouple responsibilities into distinct, testable modules over time.

When should I use decorators like @RgModule in my Electron application?

You should use decorators like @RgModule in your Electron application when you need to enforce clear module boundaries, manage provider strategies, and enable dependency injection for complex main-process features.