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ai-agent-core-architectures
Fundamental principles of AI Agent cognitive loops, contrasting ReAct and Plan-and-Solve paradigms.
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Fundamental principles of AI Agent cognitive loops, contrasting ReAct and Plan-and-Solve paradigms.
用 Codex 或 Claude 帮你安装 复制这段 Prompt,粘贴到 Codex、Claude 或其他助手里,让它检查 Skill 页面并帮你完成安装。
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| name | AI Agent Core Architectures |
| description | Fundamental principles of AI Agent cognitive loops, contrasting ReAct and Plan-and-Solve paradigms. |
The existence of an autonomous agent is defined not by static inference, but by the continuous, recursive execution of the cognitive loop: Perceive -> Think -> Act -> Observe. This loop bridges the gap between latent semantic space and deterministic environment execution.
Every framework-agnostic architecture reduces to this state machine. The agent's cognition is a sequence of discrete state transitions bounded by token limits and environment feedback.
The interleaving of reasoning traces with action execution. ReAct assumes high environmental volatility, requiring continuous recalibration. It sacrifices long-horizon coherence for immediate, localized adaptability.
The temporal decoupling of strategy from execution. The agent first synthesizes a comprehensive graph of execution steps, then traverses the graph sequentially. Plan-and-Solve assumes low environmental volatility but requires profound foresight. It excels in complex, multi-dependent task resolution but is brittle to unexpected state mutations during execution.
Without self-reflection, an agent is an open-loop controller doomed to terminal error spirals. Self-reflection acts as the error-correction mechanism, forcing the agent to evaluate the delta between expected observation and actual observation, dynamically altering its system prompt or execution graph to converge on the goal state.
flowchart TD
Start([Goal Initialization]) --> Perceive
Perceive[Perceive Environment State] --> Reflect{Reflection/Evaluation}
Reflect -- "State aligns with Goal" --> Success([Terminal Success])
Reflect -- "State divergence" --> Plan[Synthesize Execution Graph]
Plan --> Think[Reason Next Step]
Think --> Act[Execute Action Payload]
Act --> Observe[Observe Environment Feedback]
Observe --> Perceive