agent-native-architecture

Guide designing agent-native applications with architecture patterns and tool design.

Updated Aug 23, 2026
One-click install
npx skills add https://github.com/TrendpilotAI/invesco-demo --skill agent-native-architecture-trendpilotai
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: agent-native-architecture
Source: https://github.com/TrendpilotAI/invesco-demo/tree/main/skills/compound-engineering/skills/agent-native-architecture
Command: npx skills add https://github.com/TrendpilotAI/invesco-demo --skill agent-native-architecture-trendpilotai

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes references (resource) components.

What problem does it solve?

This Skill provides a comprehensive framework for designing and building agent-native applications, enabling you to create software where agents are first-class citizens, leading to more autonomous, adaptable, and intelligent systems.

Core Features & Use Cases

  • Agent-Native Design Principles: Understand and apply core principles like Parity, Granularity, Composability, Emergent Capability, and Improvement Over Time.
  • Architecture Patterns: Explore event-driven architectures, Git-based self-modification, and unified agent orchestrators.
  • Tool Design: Learn to design atomic primitive tools and implement dynamic capability discovery.
  • Testing & Refactoring: Discover strategies for testing agent-native applications and refactoring existing codebases.
  • Use Case: Building autonomous agents, creating MCP tools, implementing self-modifying systems, or designing applications where features are outcomes achieved by agents operating in a loop.

Quick Start

Use the agent-native-architecture skill to learn about designing applications where agents are first-class citizens.

Frequently Asked Questions about agent-native-architecture

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

FAQPage Schema
What is agent-native architecture and how does it differ from traditional application design?

Agent-native architecture is a design approach where autonomous agents are first-class citizens, driving system outcomes through primitive tools and iterative loops. It differs by emphasizing emergent capability, composability, and agent-driven outcomes over rigid predefined logic.

How do I design atomic primitive tools for autonomous LLM systems?

To design atomic primitive tools for autonomous LLM systems, you create highly granular, single-purpose functions that agents can dynamically discover and compose. This enables emergent capabilities and adaptable system behavior without hardcoding complex workflows.

What are the best patterns for building a unified agent orchestrator?

The best patterns for a unified agent orchestrator include event-driven architectures and Git-based self-modification. These patterns allow autonomous agents to manage their own workflows, dynamically discover capabilities, and iteratively improve their performance over time.

When should I use agent-driven loops instead of standard prompt engineering?

You should use agent-driven loops instead of standard prompt engineering when your application requires autonomous, adaptable execution and emergent capabilities. Agent-native design is ideal for systems where features are outcomes achieved by agents operating iteratively rather than static responses.

How do I test and refactor an existing codebase into an agent-native application?

To test and refactor an existing codebase into an agent-native application, you apply specific testing strategies for autonomous systems and gradually shift features toward agent-driven outcomes. This involves implementing dynamic capability discovery and adopting design principles like parity and granularity.

Can I implement self-modifying autonomous systems using these architecture patterns?

Yes, you can implement self-modifying autonomous systems using architecture patterns like Git-based self-modification. This approach allows agents to iteratively improve their own code and capabilities over time, creating highly adaptable and intelligent systems.