engineering-system-decomposition

Analyze physical or engineering systems with a five-phase design-thinking workflow.

Updated Mar 29, 2026
One-click install
npx skills add https://github.com/gokuno1/research-agent-mcp --skill engineering-system-decomposition
Or copy as Structured Prompt for Agent
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Skill: engineering-system-decomposition
Source: https://github.com/gokuno1/research-agent-mcp/tree/main/engineering-system-decomposition
Command: npx skills add https://github.com/gokuno1/research-agent-mcp --skill engineering-system-decomposition

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

Decompose and study any physical/engineering system — SMPS, turbofan, ABS, PID controller, hydraulic press, PCB layout, etc. — from a design-thinking perspective to reveal architecture, subsystems, design choices, and reusable principles. This framework supports electronics, mechanical, aerospace, automotive, control, power, and thermal domains, helping users study or understand a system's design philosophy rather than just its specifications.

Core Features & Use Cases

  • Structured five-phase workflow (Problem Space → Architecture Map → Design Decisions → Principle Extraction → Validation) to organize system study.
  • Generate a subsystem/architecture map, trace energy/signal flows, and identify critical vs control vs support paths.
  • Extract transferable engineering principles and build a cross-domain principle library for design thinking.

Quick Start

Begin by selecting a physical engineering system and apply the five-phase workflow to build a structured study note.

Frequently Asked Questions about engineering-system-decomposition

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

FAQPage Schema
How do I analyze an engineering system's architecture using design thinking?

Analyze an engineering system's architecture by applying a five-phase design-thinking workflow that captures the problem space, architecture map, design decisions, principles, and validation to build a transferable mental model.

Can I use system decomposition to study both electronic and mechanical systems?

Yes, system decomposition supports cross-domain study for electronics, mechanical, aerospace, automotive, control, power, and thermal systems, allowing you to analyze anything from SMPS and PCB layouts to turbofans and hydraulic presses.

What is the best way to extract transferable engineering principles from a physical system?

Extract transferable engineering principles by tracing energy and signal flows through a subsystem architecture map, identifying critical, control, and support paths to build a cross-domain principle library for design thinking.

How do I map subsystems and trace signal flows in a complex engineering design?

Map subsystems and trace signal flows by decomposing the physical system during the architecture mapping phase, which reveals the underlying design philosophy rather than just the technical specifications.

Does this system decomposition workflow require specific CAD or simulation software?

No specific CAD or simulation software is required; the workflow is a framework that produces structured study notes and a cross-domain principle library to inform your design thinking using any physical or engineering system.

Why should I study a physical system's design philosophy instead of just reading its specifications?

Studying a physical system's design philosophy reveals architecture, subsystems, and design choices, enabling you to extract reusable principles for future cross-domain engineering work rather than merely memorizing static specifications.