agent-native-architecture

Standardize agent-native architectures by separating prompts from atomic tools.

3|1|Updated Jan 15, 2026
One-click install
npx skills add https://github.com/i3ringit/antigravity-cortex --skill agent-native-architecture-i3ringit
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: agent-native-architecture
Source: https://github.com/i3ringit/antigravity-cortex/tree/main/.agent/skills/agent-native-architecture
Command: npx skills add https://github.com/i3ringit/antigravity-cortex --skill agent-native-architecture-i3ringit

SYSTEM DOCUMENTATION & REQUIREMENTS

What problem does it solve?

This skill standardizes how to build agent-native architectures where prompts govern behavior and tools perform atomic actions, enabling parity between user actions and agent capabilities.

Core Features & Use Cases

  • Parity-driven design: ensure every user action has a corresponding agent tool, enabling predictable, trustable automation.
  • Granularity and composability: promote atomic primitives and prompt-defined outcomes to compose new capabilities without code changes.
  • Context-aware workflows: support dynamic context injection, persistent state, and resilient completion loops for long-running tasks.

Quick Start

  1. Start with atomic tools (read_file, write_file, list_files, bash) and a clear system prompt that describes intent.
  2. Describe a feature as a prompt section; do not bake complex logic into tools.
  3. Iterate by observing user requests, adding domain prompts or new tools as needed, then test with open-ended tasks.

Frequently Asked Questions about agent-native-architecture

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

FAQPage Schema
How do I architect an agent-native system with prompt-driven decision logic?

Agent-native architecture separates decision logic in prompts from atomic tool actions, enabling agents to behave with parity to user capabilities. Start with a system prompt describing intent, atomic tools (read_file, write_file, list_files, bash), and explicit completion signaling via a complete_task tool to govern agent behavior end-to-end.

What's the difference between prompt-native and agent-native design?

Prompt-native design embeds logic in prompts alone; agent-native design pairs prompts with atomic tool primitives and explicit completion signals. This achieves parity—every user action maps to an agent tool—enabling predictable, composable automation without baking complex logic into tools.

How do I manage context and state across long-running agent loops?

Agent-native architecture supports dynamic context injection and persistent state through structured frontmatter (name and description) and atomic primitives. Use read_file and write_file to maintain state, and rely on prompt governance to orchestrate context across loop iterations and completion signals.

Can I add domain-specific tools without rewriting my agent architecture?

Yes. Agent-native design promotes composability by separating governance (prompts) from actions (tools). Add optional domain prompts or new tools incrementally by observing user requests, then test with open-ended tasks—no code changes to core architecture required.

What role does explicit completion signaling play in agent workflows?

Explicit completion signaling via a complete_task tool is mandatory in agent-native architecture. It governs lifecycle management, resilience, and edge-case handling in long-running agent loops, ensuring predictable task termination and state finality.

How do I ensure agent capabilities achieve parity with user actions?

Parity-driven design mandates that every user action have a corresponding agent tool. Map user workflows to atomic primitives (read_file, write_file, list_files, bash), define outcomes in prompts, then iterate by adding domain tools or prompt sections as new use cases emerge.