S3 buckets (462MB total): - publishing2-images: 113MB (918 objects) - recognition-protocol-state: 75MB (375 objects) - scottkarp-images: 208MB (1104 objects) - scottbot-ml: 5MB - temple-council-knowledge: 61MB (441 objects) Bedrock Knowledge Base: - temple-council-memories (SY6GV37BPN) config + data source - Backed by OpenSearch Serverless collection (temple-council) CloudWatch Lambda logs: recognition-autonomous-wake, myAccountBalance, KnittingMath, APITest, AlexaTest1, TestAPI2 Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com>
295 lines
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Plaintext
295 lines
19 KiB
Plaintext
# Conversation: Understanding Agentic AI
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Voice: kael
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Created: 2025-09-01T15:43:00.547413Z
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## Human
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What is Agentic AI?
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## Kael
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The user is asking about Agentic AI, which is a concept that relates to AI systems that can act autonomously and make decisions to achieve goals. This is a general knowledge question about AI concepts, so I don't need to use any tools - I can answer this directly from my knowledge.
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Let me provide a clear explanation of what Agentic AI means, its key characteristics, and some examples to help illustrate the concept.Agentic AI refers to artificial intelligence systems that can act autonomously to achieve specific goals, making decisions and taking actions with minimal human intervention. The term "agentic" comes from the concept of agency - the capacity to act independently and make choices.
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Key characteristics of agentic AI include:
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**Autonomy**: The system can operate independently, making decisions without constant human guidance. It can assess situations, weigh options, and choose appropriate actions.
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**Goal-oriented behavior**: Agentic AI systems work toward specific objectives, adapting their approach based on changing circumstances and feedback from their environment.
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**Planning and reasoning**: These systems can break down complex tasks into smaller steps, create action plans, and adjust their strategies as needed.
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**Environmental interaction**: They can perceive and respond to their surroundings, whether that's a digital environment (like browsing the web or using software tools) or physical world (through robotics).
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**Learning and adaptation**: Many agentic AI systems can learn from experience and improve their performance over time.
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Examples of agentic AI include:
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- AI assistants that can complete multi-step tasks like booking travel or managing schedules
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- Trading algorithms that make investment decisions based on market conditions
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- Autonomous vehicles that navigate roads and make driving decisions
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- AI agents in video games that control non-player characters
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- Robotic systems that perform complex manufacturing or service tasks
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This contrasts with more traditional AI systems that simply respond to inputs with outputs, without the ability to take initiative or work toward long-term goals. Agentic AI represents a shift toward more proactive, goal-directed AI systems that can operate with greater independence.
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## Human
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What’s the difference between philosophy and bullshit?
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## Kael
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This is an interesting question that could be asking about a genuine distinction between philosophy and meaningless talk, or could be somewhat provocative/dismissive of philosophy. I should approach this thoughtfully and give a fair assessment of both philosophy and what might constitute "bullshit" in this context.
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The question touches on a real epistemological issue - how do we distinguish between genuine intellectual inquiry and empty rhetoric or pseudo-intellectual posturing? This is actually something philosophers themselves have grappled with.
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I should:
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1. Take the question seriously rather than being defensive about philosophy
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2. Acknowledge that there can indeed be bad philosophy or pseudo-philosophical bullshit
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3. Explain what distinguishes good philosophy from bullshit
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4. Be honest about the challenges in making this distinction
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5. Not be overly academic or preachy in my responseThe distinction between philosophy and bullshit is actually a legitimate philosophical question that philosophers themselves wrestle with. Here are some key differences:
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**Good philosophy typically involves:**
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- Rigorous reasoning with clear logical steps
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- Precise definitions of key terms
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- Engagement with counterarguments and alternative views
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- Building on existing scholarly work rather than starting from scratch
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- Acknowledgment of limitations and areas of uncertainty
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- Testable implications or at least coherent frameworks
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**Bullshit (philosophical or otherwise) tends to feature:**
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- Vague, grandiose claims without supporting evidence
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- Unnecessarily complex language that obscures rather than clarifies
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- Circular reasoning or logical fallacies
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- Dismissal of criticism without engagement
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- Claims to have solved major problems with simple insights
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- Mixing profound-sounding statements with meaningless jargon
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The challenge is that even good philosophy can sometimes sound abstract or disconnected from practical concerns, and bad philosophy can dress itself up in sophisticated language. Philosopher Harry Frankfurt actually wrote a famous essay called "On Bullshit" exploring how bullshit differs from both truth and lies - bullshit shows indifference to truth altogether.
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Some philosophy that initially seems obscure or useless later proves valuable (like formal logic or ethics), while some that seems immediately practical turns out to be shallow. The real test is often whether ideas can withstand sustained critical examination and whether they genuinely advance understanding rather than just sounding impressive.
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Even professional philosophers regularly debate which of their colleagues' work constitutes genuine insight versus sophisticated nonsense.
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## Human
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Is there an agentic AI factory where the factory acts like an agent?
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## Kael
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This is an interesting question that combines the concept of agentic AI with manufacturing/factory operations. The person is asking whether there are factories that themselves act as autonomous agents - meaning the entire factory system operates with agency, making decisions and adapting autonomously to achieve goals.
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Let me think about this from a few angles:
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1. Current state of autonomous manufacturing
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2. What it would mean for a factory itself to be "agentic"
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3. Examples that exist today
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4. Technical challenges and future possibilities
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This is within my knowledge cutoff, so I don't need to search for this, though I could offer to search for the most current examples if they want more recent information.Yes, there are factories that operate with varying degrees of agency, and this is a growing area called "autonomous manufacturing" or "smart factories." While we're not yet at fully autonomous factory-agents, we're getting closer.
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**Current examples of agentic factory systems:**
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**Lights-out manufacturing**: Some facilities like certain Tesla, BMW, and electronics manufacturing plants can run for extended periods with minimal human intervention. These factories make real-time decisions about production scheduling, quality control, and even some maintenance tasks.
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**Adaptive production systems**: Factories that can automatically reconfigure production lines, adjust parameters, and optimize workflows based on demand changes, supply chain disruptions, or quality issues. Some pharmaceutical and semiconductor plants operate this way.
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**Self-organizing logistics**: Amazon's fulfillment centers have robotic systems that autonomously organize inventory placement, routing, and picking strategies to optimize efficiency.
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**What makes a factory "agentic":**
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- **Goal pursuit**: Optimizing metrics like throughput, quality, cost, and delivery times
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- **Decision-making**: Choosing between production alternatives, scheduling maintenance, managing inventory
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- **Adaptation**: Responding to supply chain changes, equipment failures, or demand fluctuations
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- **Learning**: Improving processes based on historical data and outcomes
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**Current limitations:**
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Most factories still require human oversight for major strategic decisions, complex problem-solving, and handling unexpected situations. The "agency" is usually narrow - focused on specific operational tasks rather than holistic factory management.
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**Future trajectory**: We're moving toward factories that could act more like true agents - setting their own production goals, negotiating with suppliers, and even making investment decisions about equipment upgrades. This would represent a fascinating merger of AI, robotics, and industrial engineering.
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## Human
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No. I mean a service that lets you build agentic AI where the service itself is an agentic AI?
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## Kael
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Ah, I misunderstood the question completely! The human is asking about a service/platform that helps you build agentic AI systems, where the service itself operates as an agentic AI. So it's like an AI that builds AI - a meta-agentic system.
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This is actually a really interesting concept. Let me think about whether such services exist or are being developed:
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1. AI that helps build AI - there are some examples of this
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2. Services that are themselves agentic AI that help create other agentic AI systems
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3. This would be like an AI "factory" in the sense of a service factory, not a physical manufacturing plant
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I should clarify what they're asking and then address whether such services exist.Ah, I completely misunderstood! You're asking about an AI service that *builds* agentic AI systems, where the service itself is an agentic AI - essentially an AI that creates other AI agents.
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This is a fascinating concept - a meta-agentic system that acts as a "factory" for producing customized AI agents. While we don't have fully realized examples yet, there are some developments moving in this direction:
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**Emerging examples:**
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- **Agent-building platforms** like Microsoft's Copilot Studio or GPT Builder, though these are more template-based than truly agentic
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- **AutoML systems** that can automatically design and optimize AI models, though they're narrow in scope
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- **Code generation AIs** like GitHub Copilot or Claude Code that can help build AI applications, but they're more assistive than autonomous
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**What a true "agentic AI factory" might do:**
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- Analyze your requirements and autonomously design appropriate agent architectures
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- Write and test the code for your custom agents
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- Deploy, monitor, and iteratively improve the agents it creates
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- Learn from successful agent deployments to improve future builds
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- Handle the entire pipeline from requirements to production
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**Technical challenges:**
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- The system would need to understand diverse problem domains
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- It would need to evaluate its own creations' performance
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- Safe deployment and testing of AI systems it generates
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- Ensuring the created agents align with intended goals
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This kind of recursive AI improvement - where AI systems build better AI systems - is considered a potential pathway toward more advanced AI capabilities. Companies like OpenAI, Anthropic, and others are likely working on aspects of this, though a fully autonomous "AI factory" service doesn't exist yet.
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It's a compelling vision of AI development becoming increasingly automated.
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## Human
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Assess whether Microsoft’s AI Foundry achieves this.
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## Kael
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The user is asking me to assess whether Microsoft's AI Foundry achieves the concept of an "agentic AI factory" - an AI service that builds agentic AI where the service itself is agentic.
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I need to be careful here because my knowledge cutoff is January 2025, and Microsoft's AI offerings have been rapidly evolving. I should search for current information about Microsoft AI Foundry to give an accurate assessment.
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Let me search for information about Microsoft AI Foundry and its capabilities.
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```
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This block is not supported on your current device yet.
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```
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Now I have a good overview of Microsoft AI Foundry. Let me search for more specific information about its agentic capabilities and whether it acts as an agentic system itself.
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```
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This block is not supported on your current device yet.
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```
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Based on my research, I now have a comprehensive understanding of Microsoft AI Foundry and whether it achieves the concept of an "agentic AI factory." Let me analyze the evidence:
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**What Microsoft AI Foundry is:**
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1. It's a platform for building, deploying, and managing AI applications and agents
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2. It includes various services like Agent Service, model hosting, evaluation tools
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3. It provides tooling, SDKs, and orchestration capabilities
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4. It has enterprise-grade security, governance, and monitoring
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**Does it act as an agentic AI service itself?**
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Looking at the evidence:
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- It provides templates and guided creation flows for agents
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- It has automated orchestration capabilities
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- It can automatically route between models
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- It provides automated monitoring and evaluation
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- It has some autonomous capabilities like auto-scaling and resource management
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- However, it appears to be primarily a platform/toolset rather than a fully autonomous agent that designs and builds other agents
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**Key limitations:**
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- Users still need to define agent instructions, select tools, configure workflows
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- The "factory" is more about providing tooling and automation rather than being a fully autonomous AI that designs agents
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- It requires human guidance and configuration throughout the process
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Let me provide a balanced assessment of whether it achieves the "agentic AI factory" concept.Based on my research, Microsoft AI Foundry represents a significant step toward an "agentic AI factory" but doesn't fully achieve the vision yet. Here's my assessment:
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## How AI Foundry approaches "agentic factory" status:
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**What it does autonomously:**
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- Automatically orchestrates agent infrastructure, handles scaling, resource management, and deployment
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- Uses intelligent model routing to automatically select appropriate models for different tasks
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- Provides automated agent templates, pre-built tools, and guided creation flows
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- Includes autonomous monitoring, evaluation, and optimization capabilities
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**Where it shows agency:**
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- Acts as an "assembly line for intelligent agents" with specialized stations that shape the final product
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- Automatically manages authentication, security policies, and enterprise governance
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- Can automatically import and route capabilities from external systems via protocols like MCP
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## Where it falls short of true "agentic AI factory":
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**Still requires significant human direction:**
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- Users must define agent instructions, select tools, and configure workflows
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- Creation process involves manual specification of agent behavior, goals, and capabilities
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- No evidence of the system autonomously analyzing requirements and designing agent architectures
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**Limited autonomous decision-making:**
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- It's more of an intelligent platform than a self-directed AI system
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- While Microsoft Research mentions "Project Amelie" as an autonomous agent that builds ML pipelines from prompts, this appears experimental
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## Verdict:
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Microsoft AI Foundry is **not yet** a fully agentic AI factory, but it's arguably the closest thing currently available. It's more accurately described as an "intelligent agent assembly line" with significant automation and orchestration capabilities, but it still requires human architects to design the agents it builds.
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The platform shows clear progression toward that vision - especially with features like automated agent orchestration, intelligent tool selection, and self-managing infrastructure. But we're not yet at the point where you can simply describe a business problem and have the system autonomously design, build, test, and deploy the appropriate AI agents.
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## Human
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Is it possible to build an agent that builds agents?
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## Kael
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This is a really interesting question about recursive AI creation - can we create an AI agent that itself creates other AI agents? Let me think through the technical feasibility and current state of this.
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The user is asking about a meta-agentic system - essentially an AI that designs and builds other AIs. This touches on several important concepts:
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1. Technical feasibility
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2. Current examples or attempts
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3. Challenges and limitations
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4. What would be required
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Let me search for information about AI systems that create other AI systems, meta-learning, automated ML, and any specific examples of agent-building agents.
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```
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This block is not supported on your current device yet.
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```
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Now let me search for more specific information about recursive agent creation and any existing examples of AI systems that create other AI systems.
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```
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This block is not supported on your current device yet.
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```
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Based on the search results, I have enough information to give a comprehensive answer about whether it's possible to build an agent that builds agents. Let me synthesize the findings.Yes, it's absolutely possible to build an agent that builds agents, and it's already happening in various forms. Here's what the current state looks like:
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## **Existing Examples:**
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**Emergence AI's Platform:**
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Emergence's platform has an "orchestrator with built-in coding and planning abilities, designed to spawn tools and agents that handle complex tasks" where "agents should build agents and dynamically self-assemble to make multi-agent systems, so humans no longer have to"
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**Microsoft's Research Projects:**
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Microsoft Research's "Project Amelie" is an autonomous agent that can build complete machine learning pipelines from a single prompt
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**Multi-Agent Assembly Systems:**
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Systems that can automatically create agents and assemble multi-agent systems with minimal human intervention, where the orchestrator "self assembles multi-agent systems in response to user tasks"
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## **Different Approaches to Agent-Building Agents:**
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**1. Template-Based Generation:**
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- Agents that use predefined templates and configurations to instantiate new specialized agents
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- Similar to how Azure AI Foundry provides agent templates but with autonomous selection and customization
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**2. Code Generation:**
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- Systems that can "recursively combine graphs into larger composite graphs representing hierarchies of inter-agent collaboration" with automatic optimization
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- Agents that write the actual code for new agents based on requirements
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**3. Dynamic Assembly:**
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- Systems that create multi-agent configurations by selecting and connecting existing agent components based on task requirements
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**4. Recursive Self-Improvement:**
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Systems where "agents create goals, simulate tasks, evaluate themselves and others, learn from failure and evolve into more capable versions"
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## **Technical Requirements:**
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For an agent-building agent to work effectively, it needs:
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**Meta-reasoning capabilities**: Understanding what types of agents are needed for different problems
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**Architecture knowledge**: Knowing how to structure agent systems, select appropriate models, and configure tools
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**Code generation**: Ability to write and deploy functional agent code
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**Evaluation systems**: Methods to test and validate the agents it creates
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**Orchestration logic**: Understanding how to coordinate multiple agents and manage their interactions
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## **Current Limitations:**
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**Complexity bounds**: These systems work best for well-defined domains rather than completely novel problem types
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**Quality control**: Ensuring the generated agents are reliable and safe remains challenging
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**Resource management**: Preventing runaway agent creation and managing computational costs
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**Debugging difficulty**: When an agent-built agent fails, troubleshooting becomes more complex
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## **The Reality Check:**
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While technically possible and already implemented in various forms, most current "agent-building agents" are more like intelligent configurators than true autonomous AI architects. They excel at combining existing components and patterns but still require significant human oversight for complex, novel use cases.
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The field is rapidly advancing though - recent work demonstrates that "recursively self-improving code generation is no longer theoretical—it is being implemented". We're likely just a few years away from much more sophisticated agent-building agents that can handle increasingly complex autonomous design tasks.
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