ce-agent-native-architecture

Design agent-first applications with atomic tools and system prompts.

Updated Apr 28, 2026
One-click install
npx skills add https://github.com/Zeptiny/opencode-setup --skill ce-agent-native-architecture-zeptiny
Or copy as Structured Prompt for Agent
Please help me install this Agent Skill.
Skill: ce-agent-native-architecture
Source: https://github.com/Zeptiny/opencode-setup/tree/main/skills/ce-agent-native-architecture
Command: npx skills add https://github.com/Zeptiny/opencode-setup --skill ce-agent-native-architecture-zeptiny

SYSTEM DOCUMENTATION & REQUIREMENTS

💡 This Skill includes scripts (resource) and references (resource) components.

What problem does it solve?

This Skill enables the creation of applications where agents are first-class citizens, capable of autonomously completing tasks and achieving outcomes described by users.

Core Features & Use Cases

  • Agent-First Design: Encourage building applications with agents as the primary actors, capable of executing tasks and achieving goals.
  • Parity and Granularity: Ensure agents can achieve the same outcomes as users, using atomic primitives and features defined by prompts.
  • Composability and Emergent Capability: Allow the creation of new features simply by writing new prompts, and enable agents to discover creative solutions to unforeseen tasks.
  • Context and Improvement: Maintain context across sessions, allowing applications to improve over time and adapt to user needs.

Quick Start

To design an agent-first application, define atomic tools, write behavior in the system prompt, and let the agent work in a loop to accomplish tasks.

Frequently Asked Questions about ce-agent-native-architecture

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

FAQPage Schema
What is agent-first application design and how does it work?

Agent-first application design positions agents as primary actors capable of autonomously completing tasks. It works by defining atomic tools and system prompts, letting agents work in a loop to achieve user-described outcomes through emergent capability and composability.

How do I build autonomous applications that improve over time?

You build autonomous applications that improve over time by maintaining context across sessions and using dynamic context injection. This approach allows agents to iteratively refine their behavior, adapt to changing user needs, and achieve better results through continuous feedback loops.

Can I use atomic primitives and prompts to create new features in autonomous applications?

Yes, you can create new features in autonomous applications simply by writing new prompts. Using a parity framework, agents achieve the same outcomes as users through atomic primitives, enabling composability and emergent capability without modifying core application logic.

What's the best way to ensure agents achieve the same outcomes as users?

The best way to ensure agents achieve user-equivalent outcomes is applying a parity framework with granular tool design. Defining atomic primitives and features through prompts allows agents to autonomously execute tasks and discover creative solutions to unforeseen problems.

How do I select model tiers for efficient agent execution?

You select model tiers for efficient agent execution based on task complexity and context requirements. The architecture accommodates model tier selection alongside dynamic context injection, allowing you to balance performance and cost while agents autonomously complete their assigned tasks.

When should I avoid agent-first architecture for my application?

You should avoid agent-first architecture when tasks require strict deterministic execution or when granular tool design cannot adequately decompose your workflow into atomic primitives. Applications needing rigid control flows over emergent capability are not suited for this autonomous approach.