All Agentic Architectures - A Comprehensive Guide to 17+ State-of-the-Art AI Agent Patterns

Posted Dec 10, 2025 Updated Dec 11, 2025

By Fodev JEO 19 min read

🤔 Curiosity: How Do We Build Production-Ready AI Agents?

After 8 years of building AI systems in game development, I’ve seen countless agent frameworks promise to revolutionize how we build intelligent systems. But here’s the question that keeps me up at night: What are the fundamental architectural patterns that actually work in production?

Most resources I’ve encountered are either too abstract (research papers) or too specific (single-use implementations). What if we had a comprehensive, hands-on guide that bridges theory and practice—showing not just what patterns exist, but how to actually implement them?

Curiosity: Can we systematically map out all the major agentic architectures and provide production-ready implementations for each?

The Core Question: The all-agentic-architectures repository claims to contain 17+ state-of-the-art agentic architectures, each implemented end-to-end. But what patterns does it cover? How do they relate to each other? And most importantly, which ones should we use in production?

📚 Retrieve: Understanding the 17 Agentic Architectures

Repository Overview

The all-agentic-architectures repository is a comprehensive, hands-on masterclass in modern AI agent design. It contains detailed implementations of 17+ state-of-the-art agentic architectures, built with LangChain and LangGraph. Each architecture is implemented end-to-end in a runnable Jupyter notebook, designed as a living textbook that bridges the gap between theoretical concepts and practical, production-ready code.

Key Characteristics:

From Theory to Tangible Code: Each architecture is not just explained but implemented end-to-end
Structured Learning Path: Notebooks are ordered to build concepts progressively
Emphasis on Evaluation: Features robust
1 LLM-as-a-Judge patterns for quantitative feedback
Real-World Scenarios: Examples grounded in practical applications (financial analysis, coding, medical triage)
Consistent Framework: Uses LangGraph as the core orchestrator for stateful, cyclical agent design

Technical Stack

Component	Purpose
Python 3.10+	Core programming language
LangChain	Foundational building blocks for LLMs and tools
LangGraph	Orchestration framework for complex, stateful workflows
Nebius AI Models	High-performance LLMs (e.g., Mixtral-8x22B-Instruct-v0.1)
Jupyter Notebooks	Interactive development and step-by-step demonstrations
Pydantic	Robust, structured data modeling
Tavily Search	Search API for research-oriented agents
Neo4j	Graph database for semantic and world-model memory
FAISS	Vector store for episodic memory through similarity search

The 17 Architectures: Complete Breakdown

Part 1: Foundational Patterns (Architectures 1-4)

These architectures cover the essential building blocks for making a single agent more powerful.

01. Reflection

graph LR
    A[Initial Output] --> B[Critique Agent]
    B --> C[Refined Output]
    C --> D{Quality Check}
    D -->|Needs Improvement| B
    D -->|Satisfactory| E[Final Output]

    style B fill:#ff6b6b,stroke:#c92a2a,stroke-width:2px,color:#fff
    style D fill:#4ecdc4,stroke:#0a9396,stroke-width:2px,color:#fff

Core Concept: Moves from a single-pass generator to a deliberate, multi-step reasoner by critiquing and refining its own work
Key Use Case: High-Quality Code Generation, Complex Summarization
Production Value: Improves output quality through self-review, critical for code generation and content creation

02. Tool Use

Core Concept: Empowers an agent to overcome knowledge cutoffs and interact with the real world by calling external APIs and functions
Key Use Case: Real-time Research Assistants, Enterprise Bots
Production Value: Enables agents to access real-time data, execute actions, and interact with external systems

03. ReAct (Reasoning + Acting)

graph TB
    A[Task] --> B[Think]
    B --> C[Act]
    C --> D[Observe]
    D --> E{Goal Reached?}
    E -->|No| B
    E -->|Yes| F[Complete]

    style B fill:#ff6b6b,stroke:#c92a2a,stroke-width:2px,color:#fff
    style C fill:#4ecdc4,stroke:#0a9396,stroke-width:2px,color:#fff
    style E fill:#ffe66d,stroke:#f4a261,stroke-width:2px,color:#000

Core Concept: Dynamically interleaves reasoning (“thought”) and action (“tool use”) in an adaptive loop to solve complex, multi-step problems
Key Use Case: Multi-hop Q&A, Web Navigation & Research
Production Value: Enables agents to reason about actions before taking them, critical for complex problem-solving

04. Planning

Core Concept: Proactively decomposes a complex task into a detailed, step-by-step plan before execution, ensuring a structured and traceable workflow
Key Use Case: Predictable Report Generation, Project Management
Production Value: Adds foresight and structure, making agent behavior predictable and debuggable

Part 2: Multi-Agent Collaboration (Architectures 5, 7, 11, 13)

These architectures explore how to make agents work together.

05. Multi-Agent Systems

graph TB
    A[Task] --> B[Task Decomposer]
    B --> C[Agent 1: Specialist A]
    B --> D[Agent 2: Specialist B]
    B --> E[Agent 3: Specialist C]
    C --> F[Coordinator]
    D --> F
    E --> F
    F --> G[Final Output]

    style B fill:#ff6b6b,stroke:#c92a2a,stroke-width:2px,color:#fff
    style F fill:#4ecdc4,stroke:#0a9396,stroke-width:2px,color:#fff

Core Concept: A team of specialized agents collaborates to solve a problem, dividing labor to achieve superior depth, quality, and structure
Key Use Case: Software Dev Pipelines, Creative Brainstorming
Production Value: Enables parallel processing and specialization, dramatically improving quality and speed

06. PEV (Plan, Execute, Verify)

Core Concept: A highly robust, self-correcting loop where a Verifier agent checks the outcome of each action, allowing for error detection and dynamic recovery
Key Use Case: High-Stakes Automation, Finance, Unreliable Tools
Production Value: Critical for production systems where errors are costly—automatically detects and recovers from failures

07. Blackboard Systems

Core Concept: A flexible multi-agent system where agents collaborate opportunistically via a shared central memory (the “blackboard”), guided by a dynamic controller
Key Use Case: Complex Diagnostics, Dynamic Sense-Making
Production Value: Enables emergent collaboration where agents contribute when they have relevant expertise

11. Meta-Controller

graph TD
    A[User Request] --> B{Meta-Controller};
    B -- Analyzes Request --> C{Routes to Specialist};
    C --> D[Generalist Agent];
    C --> E[Research Agent];
    C --> F[Coding Agent];
    D --> G[Final Response];
    E --> G[Final Response];
    F --> G[Final Response];

    style B fill:#ff6b6b,stroke:#c92a2a,stroke-width:2px,color:#fff
    style C fill:#4ecdc4,stroke:#0a9396,stroke-width:2px,color:#fff

Core Concept: A supervisory agent that analyzes incoming tasks and routes them to the most appropriate specialist sub-agent from a pool of experts
Key Use Case: Multi-Service AI Platforms, Adaptive Assistants
Production Value: Acts as a smart router, optimizing task allocation and improving overall system efficiency

13. Ensemble

Core Concept: Multiple independent agents analyze a problem from different perspectives, and a final “aggregator” agent synthesizes their outputs for a more robust, less biased conclusion
Key Use Case: High-Stakes Decision Support, Fact-Checking
Production Value: Reduces bias and improves robustness through diverse perspectives

Part 3: Advanced Memory & Reasoning (Architectures 8, 9, 12)

These architectures focus on how agents can think more deeply and remember what they’ve learned.

08. Episodic + Semantic Memory

graph TB
    A[Current Interaction] --> B[Episodic Memory<br/>Vector Store]
    A --> C[Semantic Memory<br/>Graph DB]
    B --> D[Retrieve Similar<br/>Past Conversations]
    C --> E[Retrieve Related<br/>Structured Facts]
    D --> F[Personalized Response]
    E --> F

    style B fill:#ff6b6b,stroke:#c92a2a,stroke-width:2px,color:#fff
    style C fill:#4ecdc4,stroke:#0a9396,stroke-width:2px,color:#fff
    style F fill:#ffe66d,stroke:#f4a261,stroke-width:2px,color:#000

Core Concept: A dual-memory system combining a vector store for past conversations (episodic) and a graph DB for structured facts (semantic) for true long-term personalization
Key Use Case: Long-Term Personal Assistants, Personalized Tutors
Production Value: Enables true personalization by remembering both conversations and learned facts

09. Tree of Thoughts (ToT)

Core Concept: Solves problems by exploring multiple reasoning paths in a tree structure, evaluating and pruning branches to systematically find the optimal solution
Key Use Case: Logic Puzzles, Constrained Planning
Production Value: Enables systematic exploration of solution spaces, critical for complex reasoning tasks

12. Graph (World-Model Memory)

Core Concept: Stores knowledge as a structured graph of entities and relationships, enabling complex, multi-hop reasoning by traversing connections
Key Use Case: Corporate Intelligence, Advanced Research
Production Value: Enables complex reasoning over interconnected knowledge, perfect for knowledge-intensive applications

Part 4: Safety, Reliability, and Real-World Interaction (Architectures 6, 10, 14, 17)

These architectures are critical for building agents that can be trusted in production.

10. Mental Loop (Simulator)

Core Concept: An agent tests its actions in an internal “mental model” or simulator to predict outcomes and assess risk before acting in the real world
Key Use Case: Robotics, Financial Trading, Safety-Critical Systems
Production Value: Allows agents to “think before acting,” critical for high-stakes applications

14. Dry-Run Harness

graph LR
    A[Agent Proposes Action] --> B[Dry Run Simulation]
    B --> C{Human/Checker<br/>Approval}
    C -->|Approved| D[Live Execution]
    C -->|Rejected| E[Revise Action]
    E --> B

    style B fill:#ff6b6b,stroke:#c92a2a,stroke-width:2px,color:#fff
    style C fill:#4ecdc4,stroke:#0a9396,stroke-width:2px,color:#fff

Core Concept: A safety-critical pattern where an agent’s proposed action is first simulated (dry run) and must be approved (by a human or checker) before live execution
Key Use Case: Production Agent Deployment, Debugging
Production Value: Provides crucial human-in-the-loop safety layer for production systems

17. Reflexive Metacognitive

Core Concept: An agent with a “self-model” that reasons about its own capabilities and limitations, choosing to act, use a tool, or escalate to a human to ensure safety
Key Use Case: High-Stakes Advisory (Medical, Legal, Finance)
Production Value: Understands its own limitations—key to safe operation in high-stakes domains

Part 5: Learning and Adaptation (Architectures 15, 16)

The final section explores how agents can improve over time and solve problems in novel ways.

15. RLHF (Self-Improvement)

Core Concept: An agent’s output is critiqued by an “editor” agent, and the feedback is used to iteratively revise the work. High-quality outputs are saved to improve future performance
Key Use Case: High-Quality Content Generation, Continual Learning
Production Value: Creates a mechanism for agents to learn from feedback, improving over time

16. Cellular Automata

Core Concept: A system of many simple, decentralized grid-based agents whose local interactions produce complex, emergent global behavior like optimal pathfinding
Key Use Case: Spatial Reasoning, Logistics, Complex System Simulation
Production Value: Showcases how complex global behavior can emerge from simple, local rules

Architecture Comparison Matrix

Architecture	Complexity	Use Case	Production Readiness	Key Innovation
Reflection	⭐ Low	Code generation	✅ High	Self-critique loop
Tool Use	⭐ Low	Research assistants	✅ High	External API integration
ReAct	⭐⭐ Medium	Multi-step problems	✅ High	Reasoning + action loop
Planning	⭐⭐ Medium	Project management	✅ High	Pre-execution planning
Multi-Agent	⭐⭐⭐ High	Software pipelines	✅ High	Specialized teams
PEV	⭐⭐⭐ High	High-stakes automation	✅ High	Self-correcting loop
Blackboard	⭐⭐⭐ High	Complex diagnostics	⚠️ Medium	Opportunistic collaboration
Episodic+Semantic	⭐⭐⭐ High	Personal assistants	✅ High	Dual memory system
Tree of Thoughts	⭐⭐⭐⭐ Very High	Logic puzzles	⚠️ Medium	Multi-path exploration
Mental Loop	⭐⭐⭐ High	Safety-critical	✅ High	Internal simulation
Meta-Controller	⭐⭐⭐ High	Multi-service platforms	✅ High	Smart routing
Graph Memory	⭐⭐⭐ High	Knowledge systems	✅ High	Structured reasoning
Ensemble	⭐⭐⭐ High	Decision support	✅ High	Multi-perspective analysis
Dry-Run	⭐⭐ Medium	Production deployment	✅ High	Safety harness
RLHF	⭐⭐⭐ High	Content generation	⚠️ Medium	Self-improvement
Cellular Automata	⭐⭐⭐⭐ Very High	Spatial reasoning	⚠️ Medium	Emergent behavior
Metacognitive	⭐⭐⭐⭐ Very High	High-stakes advisory	⚠️ Medium	Self-awareness

💡 Innovation: Production Applications and Best Practices

Learning Path: From Simple to Sophisticated

The repository is structured as a progressive learning journey:

graph TB
    subgraph "Part 1: Foundational Patterns"
        A1[Reflection] --> A2[Tool Use]
        A2 --> A3[ReAct]
        A3 --> A4[Planning]
    end

    subgraph "Part 2: Multi-Agent Collaboration"
        B1[Multi-Agent] --> B2[PEV]
        B2 --> B3[Blackboard]
        B3 --> B4[Meta-Controller]
        B4 --> B5[Ensemble]
    end

    subgraph "Part 3: Advanced Memory & Reasoning"
        C1[Episodic+Semantic] --> C2[Tree of Thoughts]
        C2 --> C3[Graph Memory]
    end

    subgraph "Part 4: Safety & Reliability"
        D1[Mental Loop] --> D2[Dry-Run]
        D2 --> D3[Metacognitive]
    end

    subgraph "Part 5: Learning & Adaptation"
        E1[RLHF] --> E2[Cellular Automata]
    end

    A4 --> B1
    B5 --> C1
    C3 --> D1
    D3 --> E1

    style A1 fill:#ff6b6b,stroke:#c92a2a,stroke-width:2px,color:#fff
    style B1 fill:#4ecdc4,stroke:#0a9396,stroke-width:2px,color:#fff
    style C1 fill:#ffe66d,stroke:#f4a261,stroke-width:2px,color:#000
    style D1 fill:#95e1d3,stroke:#2d3436,stroke-width:2px,color:#000
    style E1 fill:#a29bfe,stroke:#6c5ce7,stroke-width:2px,color:#fff

Production Architecture Selection Guide

For Code Generation:

Start with Reflection for quality improvement
Add Tool Use for code execution and testing
Consider Multi-Agent for complex refactoring tasks

For Research & Information Gathering:

Use ReAct for multi-hop reasoning
Add Tool Use for web search and API access
Consider Graph Memory for knowledge accumulation

For High-Stakes Applications:

Implement PEV for error detection
Add Dry-Run Harness for safety
Use Metacognitive for self-awareness

For Long-Term Personalization:

Implement Episodic + Semantic Memory
Use Graph Memory for structured knowledge
Consider RLHF for continuous improvement

Evaluation Framework: LLM-as-a-Judge

One of the repository’s key innovations is the emphasis on evaluation. Most notebooks feature a robust

1	LLM-as-a-Judge

pattern:

  
# Simplified LLM-as-a-Judge pattern
class AgentEvaluator:
    """
    Evaluates agent performance using LLM-as-a-Judge
    Provides quantitative, objective feedback
    """

    def evaluate(self, agent_output: str, task: str, criteria: List[str]) -> Dict:
        """
        Evaluates agent output against criteria

        Args:
            agent_output: The agent's generated output
            task: The original task description
            criteria: List of evaluation criteria

        Returns:
            Dictionary with scores and feedback
        """
        prompt = f"""
        Evaluate the following agent output:

        Task: {task}
        Output: {agent_output}

        Criteria:
        {chr(10).join(f"- {c}" for c in criteria)}

        Provide:
        1. Score (0-10) for each criterion
        2. Overall score
        3. Detailed feedback
        """

        evaluation = self.llm.generate(prompt)
        return self._parse_evaluation(evaluation)

Benefits:

Quantitative feedback: Objective scores instead of subjective assessment
Scalable: Can evaluate thousands of outputs automatically
Consistent: Same criteria applied across all evaluations
Production-ready: Critical skill for production AI systems

Real-World Application Examples

Financial Analysis Agent:

Architecture: Multi-Agent + Planning + PEV
Agents: Data Collector, Analyst, Risk Assessor, Report Generator
Safety: PEV verifies calculations, Dry-Run for trades

Medical Triage System:

Architecture: Metacognitive + Dry-Run + Graph Memory
Features: Self-awareness of limitations, human escalation, structured medical knowledge

Code Refactoring Agent:

Architecture: Reflection + Multi-Agent + Tool Use
Agents: Code Analyzer, Refactoring Planner, Test Generator, Code Reviewer

Research Assistant:

Architecture: ReAct + Tool Use + Episodic Memory
Features: Multi-hop reasoning, web search, conversation history

Production Considerations

What Works Well:

Aspect	Benefit	Example
LangGraph Framework	Consistent, stateful workflows	All architectures use same orchestration
Evaluation Built-in	LLM-as-a-Judge pattern	Quantitative feedback on performance
Progressive Complexity	Structured learning path	Builds from simple to sophisticated
Real-World Examples	Practical applications	Financial, medical, coding scenarios

Challenges and Tradeoffs:

Challenge	Impact	Mitigation
Complexity Scaling	Advanced architectures are harder to debug	Start with foundational patterns
Cost	Multiple agents increase API costs	Use smaller models for simple tasks
Latency	Multi-agent systems slower	Parallelize where possible
State Management	LangGraph state can be complex	Use clear state schemas

Integration with Existing Systems

LangChain Integration:

  
from langchain.agents import AgentExecutor
from langgraph.graph import StateGraph

# Example: Combining Reflection with Tool Use
def create_reflective_agent():
    # Base agent with tools
    base_agent = create_tool_use_agent()

    # Add reflection layer
    reflection_agent = create_reflection_agent(base_agent)

    # Build graph
    graph = StateGraph(AgentState)
    graph.add_node("generate", base_agent)
    graph.add_node("reflect", reflection_agent)
    graph.add_edge("generate", "reflect")
    graph.add_conditional_edges("reflect", should_continue)

    return graph.compile()

Production Deployment:

  
# Example: Production-ready agent with safety
class ProductionAgent:
    def __init__(self):
        self.agent = create_multi_agent_system()
        self.verifier = create_pev_verifier()
        self.dry_run = create_dry_run_harness()

    async def execute(self, task: str) -> Dict:
        # 1. Plan
        plan = await self.agent.plan(task)

        # 2. Dry run
        simulation_result = await self.dry_run.simulate(plan)
        if not simulation_result.approved:
            return {"error": "Action rejected in dry run"}

        # 3. Execute
        result = await self.agent.execute(plan)

        # 4. Verify
        verification = await self.verifier.verify(result)
        if not verification.passed:
            # Retry with corrections
            return await self.execute(task)

        return result

🎯 Key Takeaways

17 distinct architectures cover the full spectrum from foundational patterns to sophisticated multi-agent systems
Progressive learning path builds from simple (Reflection) to complex (Metacognitive) architectures
Production-ready implementations with evaluation built-in using LLM-as-a-Judge patterns
LangGraph as unifying framework provides consistent, stateful orchestration across all architectures
Real-world applications demonstrate practical use cases in finance, medicine, coding, and research

Architecture Selection Guide

Start Here (Foundational):

Reflection: Improve output quality
Tool Use: Enable real-world interaction
ReAct: Combine reasoning and action

Scale Up (Multi-Agent):

Multi-Agent Systems: Parallel processing
Meta-Controller: Smart routing
Ensemble: Diverse perspectives

Add Safety (Production):

PEV: Error detection and recovery
Dry-Run Harness: Human-in-the-loop safety
Metacognitive: Self-awareness

Enable Learning (Advanced):

Episodic + Semantic Memory: Long-term personalization
RLHF: Continuous improvement
Graph Memory: Structured knowledge

🤔 New Questions This Raises

How do we combine multiple architectures? Can we use Reflection + Multi-Agent + PEV together?
What’s the performance overhead? How do these architectures compare in latency and cost?
How do we evaluate multi-agent systems? What metrics matter beyond LLM-as-a-Judge?
What’s the production deployment story? How do we scale these architectures to handle millions of requests?
Can we fine-tune these patterns? How do we adapt architectures to specific domains?

Next steps: I’m planning to evaluate these architectures on game development tasks (NPC behavior, procedural content generation) and compare their performance in production scenarios.

References

Repository Resources:

Framework Documentation:

Core Technologies:

Research Papers & Concepts:

Related Agent Frameworks:

Evaluation Resources:

Production Resources:

📋 Summary / 요약

English Summary

All Agentic Architectures - A Comprehensive Guide explores the all-agentic-architectures repository, which contains detailed implementations of 17+ state-of-the-art agentic AI patterns built with LangChain and LangGraph.

Key Highlights:

17 Architectures Covered: The repository systematically maps out major agentic patterns from foundational (Reflection, Tool Use, ReAct, Planning) to advanced (Multi-Agent, PEV, Metacognitive, RLHF)
Progressive Learning Path: Architectures are organized into 5 parts: Foundational Patterns → Multi-Agent Collaboration → Advanced Memory & Reasoning → Safety & Reliability → Learning & Adaptation
Production-Ready Implementations: Each architecture is implemented end-to-end in runnable Jupyter notebooks with real-world examples (financial analysis, coding, medical triage, research)
Evaluation Built-In: Most notebooks feature LLM-as-a-Judge patterns for quantitative, objective feedback on agent performance—critical for production AI systems
Consistent Framework: All architectures use LangGraph as the core orchestrator, providing a unified, stateful, cyclical approach to agent design

Architecture Categories:

Foundational Patterns (1-4): Reflection, Tool Use, ReAct, Planning—essential building blocks for single agents
Multi-Agent Collaboration (5, 7, 11, 13): Multi-Agent Systems, PEV, Blackboard, Meta-Controller, Ensemble—enabling agent teams
Advanced Memory & Reasoning (8, 9, 12): Episodic+Semantic Memory, Tree of Thoughts, Graph Memory—deep thinking and memory
Safety & Reliability (6, 10, 14, 17): PEV, Mental Loop, Dry-Run Harness, Metacognitive—production trust and safety
Learning & Adaptation (15, 16): RLHF, Cellular Automata—continuous improvement and emergent behavior

Production Applications:

Code Generation: Reflection + Tool Use + Multi-Agent for quality code generation
Research: ReAct + Tool Use + Episodic Memory for information gathering
High-Stakes: PEV + Dry-Run + Metacognitive for safety-critical applications
Personalization: Episodic+Semantic Memory + Graph Memory for long-term personalization

Technical Stack: Python 3.10+, LangChain, LangGraph, Nebius AI Models, Jupyter Notebooks, Pydantic, Tavily Search, Neo4j, FAISS

한국어 요약

모든 에이전트 아키텍처 - 종합 가이드는 LangChain과 LangGraph로 구축된 17개 이상의 최신 에이전트 AI 패턴의 상세 구현을 포함하는 all-agentic-architectures 저장소를 탐구합니다.

주요 하이라이트:

17개 아키텍처 포함: 저장소는 기초 패턴(Reflection, Tool Use, ReAct, Planning)부터 고급 패턴(Multi-Agent, PEV, Metacognitive, RLHF)까지 주요 에이전트 패턴을 체계적으로 매핑
점진적 학습 경로: 아키텍처는 5개 부분으로 구성: 기초 패턴 → 멀티 에이전트 협업 → 고급 메모리 및 추론 → 안전성 및 신뢰성 → 학습 및 적응
프로덕션 준비 구현: 각 아키텍처는 실제 사례(금융 분석, 코딩, 의료 분류, 연구)와 함께 실행 가능한 Jupyter 노트북에서 엔드투엔드로 구현됨
평가 내장: 대부분의 노트북은 에이전트 성능에 대한 정량적이고 객관적인 피드백을 제공하는 LLM-as-a-Judge 패턴을 특징으로 함—프로덕션 AI 시스템에 중요
일관된 프레임워크: 모든 아키텍처는 LangGraph를 핵심 오케스트레이터로 사용하여 통합된 상태 기반 순환 에이전트 설계 접근 방식 제공

아키텍처 카테고리:

기초 패턴 (1-4): Reflection, Tool Use, ReAct, Planning—단일 에이전트를 위한 필수 구성 요소
멀티 에이전트 협업 (5, 7, 11, 13): Multi-Agent Systems, PEV, Blackboard, Meta-Controller, Ensemble—에이전트 팀 활성화
고급 메모리 및 추론 (8, 9, 12): Episodic+Semantic Memory, Tree of Thoughts, Graph Memory—깊은 사고와 메모리
안전성 및 신뢰성 (6, 10, 14, 17): PEV, Mental Loop, Dry-Run Harness, Metacognitive—프로덕션 신뢰 및 안전
학습 및 적응 (15, 16): RLHF, Cellular Automata—지속적인 개선 및 창발적 행동

프로덕션 애플리케이션:

코드 생성: Reflection + Tool Use + Multi-Agent로 고품질 코드 생성
연구: ReAct + Tool Use + Episodic Memory로 정보 수집
고위험: PEV + Dry-Run + Metacognitive로 안전 중요 애플리케이션
개인화: Episodic+Semantic Memory + Graph Memory로 장기 개인화

기술 스택: Python 3.10+, LangChain, LangGraph, Nebius AI Models, Jupyter Notebooks, Pydantic, Tavily Search, Neo4j, FAISS

AI, Agents

This post is licensed under CC BY 4.0 by the author.