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PRIMARY DISPLAY — COMMAND CENTER ACTIVE

AGENTIC AI

MISSION CONTROL

Command Center for Autonomous AI Systems

Agentic AI systems operate autonomously. They perceive their environment, set goals, plan multi-step actions, and execute with minimal human intervention. Unlike generative AI (reactive, prompt-dependent), agentic systems are proactive. They decompose objectives into sub-tasks, invoke external tools, maintain persistent memory, and adapt in real time. This hub covers how to understand, build, secure, and govern them.

Pillars
4
Frameworks
6
Standards
6
Threat Vectors
15
PANEL 01 Systems Overview ACTIVE

What Is Agentic AI?

AI systems that operate autonomously, perceive their environment, set goals, and execute multi-step plans without waiting for human prompts. Where a generative model asks “what should I create?”, an agentic system asks “what actions must I take to achieve this goal?”

Classification Autonomous AI
Capability Full-Spectrum
Risk Level Variable
Oversight Required
Loop Type Continuous
Tool Access Enabled
PANEL 02 Comparison Matrix LOADED

Generative AI vs. Agentic AI

Generative AI creates content on demand. Agentic AI executes goals autonomously. Here's how they compare across six operational dimensions.

Generative AI
ChatGPT DALL-E Midjourney Copilot
Autonomy
Memory
Tool Use
Planning
Content
Adapt
Agentic AI
Devin Claude Code Cursor AutoGPT
Autonomy
Memory
Tool Use
Planning
Content
Adapt
PANEL 03 Systems Architecture MONITORING

The Agentic AI Loop

The core operating cycle of every AI agent. Each cycle’s outputs feed the next, enabling self-correction and continuous improvement.

📡
Perception
Converts raw inputs (queries, APIs, sensors, logs) into structured representations via NLP and computer vision.
Active
🧠
Reasoning
LLM-powered cognitive core. Decomposes objectives into sub-tasks via Chain-of-Thought, Tree-of-Thought, and ReAct frameworks.
Active
🗃
Memory
Dual-layer: short-term working memory for task context, long-term persistent memory via vector embeddings for cross-session retrieval.
Standby
Action
Executes via structured JSON tool calls: remote APIs, headless browsers, code execution, and Computer Use Agents (CUAs).
Active
Continuous feedback loop // each cycle updates context for the next iteration
LEARN PILLAR INTERACTIVE

Agent Architecture Explorer

Trace how AI agents think, choose architecture patterns, and master the agentic loop

SCENARIO
AGENTIC LOOP PERCEPTION Input + Context REASONING Plan + Decide MEMORY Store + Recall ACTION Execute + Output
ITERATION 1
PERCEPTION Step 1 of 8

Select a scenario and press Play to watch an agent think.

SOURCES: Anthropic "Building Effective Agents" (2024) | Yao et al. "ReAct" (2022) | Shinn et al. "Reflexion" (2023) | CSA MAESTRO Threat Taxonomy | OWASP Top 10 for LLM v2025 | NIST AI 100-1
PANEL 04 Sector Navigation 4 SECTORS ONLINE
SECTOR α — LEARN

Agent Architecture & Fundamentals

What is agentic AI, how does the agentic loop work, and what changed from generative to agentic paradigms.

DOCS LOADED: 7
STATUS: SYSTEM READY
What Is Agentic AI? From Chatbots to Autonomous Systems
The Agentic AI Loop: Perception, Reasoning, Memory, and Action
Generative AI vs. Agentic AI: What Changed and Why It Matters
SECTOR β — BUILD

Frameworks & Orchestration

Frameworks compared (LangChain, LangGraph, CrewAI, AutoGen), MCP deep dives, and cloud platforms (AWS Bedrock, Google ADK, Azure AI Agent Service).

DOCS LOADED: 8
STATUS: SYSTEM READY
LangChain vs. LangGraph vs. LlamaIndex: Choosing Your Agent Framework
Model Context Protocol (MCP): The Universal Agent Integration Layer
Cloud Agent Platforms: AWS Bedrock vs. Google ADK vs. Azure AI Agent Service
SECTOR γ — SECURE

Threats & Defenses

15 OWASP ASI threat categories, MITRE ATLAS adversary tactics, and CSA MAESTRO layer-based threat modeling for autonomous agent systems.

DOCS LOADED: 7
STATUS: ALERT LEVEL
The Agentic AI Threat Landscape: OWASP, MITRE ATLAS, and CSA MAESTRO
Prompt Injection in Agentic Systems: Why It's the #1 Threat
Tool Misuse, Excessive Agency, and the MCP Compositional Risk
SECTOR δ — GOVERN

Compliance & Risk

NIST AI RMF (Govern, Map, Measure, Manage), ISO 42001, EU AI Act high-risk classification, and Behavioral Bill of Materials (BBOM).

DOCS LOADED: 7
STATUS: MONITORING
The Agent Governance Stack: NIST AI RMF → ISO 42001 → EU AI Act
Behavioral Bill of Materials (BBOM): Documenting What Your Agent Can Do
EU AI Act and Agents: High-Risk Classification and Compliance Requirements
MISSION PROTOCOL — PANEL 05

Agent Blueprint Quest

5-question intake configures your deployment context. 8 levels of real agent architecture decisions. Each choice builds a live diagram. Scoring is context-adaptive: enterprise healthcare scores differently than startup prototyping. Output is a personalized deployment blueprint and printable certification.

Stages
8
Scenarios
24
Scoring
Adaptive
Output
Blueprint
01 Model Selection READY
02 Framework Selection READY
03 Memory Architecture READY
04 Tool Integration READY
05 Orchestration Pattern READY
06 Security Controls READY
07 Governance Layer READY
08 Deployment Strategy READY
PANEL 06 Deployment Scenarios 6 OPS
MISSION-001
Customer Support Ops
Multi-turn resolution agents with CRM integration and escalation protocols.
MISSION-002
Code Generation Wing
Autonomous coding agents that plan, implement, test, and iterate with human-in-the-loop review.
MISSION-003
Research Division
Deep research agents that synthesize across document collections and produce structured reports.
MISSION-004
Workflow Command
Automated approvals, cross-system data sync, and multi-agent delegation chains.
MISSION-005
Data Analysis Corps
Autonomous pipeline agents that ingest, clean, analyze, and surface insights from structured and unstructured data.
MISSION-006
Security Operations Center
Threat detection and response agents with SIEM integration, automated triage, and remediation playbooks.
PANEL 07 Threat Assessment ALERT

Threat Frameworks Monitored

Three agentic-specific security frameworks. The focus shifts from data protection to identity and access control.

OWASP ASI
15 Agentic Threat Categories (T1–T15)
MITRE ATLAS
ATT&CK-Style Tactics & Techniques for AI/ML
CSA MAESTRO
Layer-Based STRIDE Extension for Agents
Compliance Standards
NIST AI RMF
Govern • Map • Measure • Manage
ISO 42001
Certifiable AI Management System (2023)
EU AI Act
4-Tier Risk Classification (2024)

Agents operate as autonomous actors using Non-Human Identities (NHIs) with inherited permissions. OWASP ASI identifies 15 threat categories including memory poisoning, tool misuse, privilege compromise, and cascading hallucinations. These risks don’t exist in traditional LLM deployments.

PANEL 08 Armory — Agent Frameworks 6 LOADED

Six production-grade frameworks for building and orchestrating agentic systems. Different strengths for different deployment contexts.

LangChain
Python / TypeScript
Production Rapid Prototyping
LangGraph
Python / TypeScript
Production Stateful Graphs
CrewAI
Python
Production Role-Based Crews
AutoGen
Python
Experimental Microsoft
Semantic Kernel
C# / Python
Active Enterprise
Claude Agent SDK
Python / TypeScript
Emerging Anthropic
PANEL 09 Intelligence Brief 8 QUERIES
Generative AI creates content reactively. It waits for a prompt, produces output, and stops. Agentic AI pursues goals proactively. It decomposes objectives into sub-tasks, invokes external tools, maintains persistent memory, and adapts in real time. Generative AI is a “brilliant artist.” Agentic AI is an “autonomous project manager.”
Four interconnected subsystems running in a continuous cycle. Perception converts environmental data into structured representations. Reasoning decomposes goals into sub-tasks via CoT, ToT, and ReAct frameworks. Memory provides short-term task context and long-term persistent storage via vector embeddings. Action executes via JSON tool calls, APIs, or direct computer control. Each cycle feeds the next.
OWASP ASI identifies 15 threat categories: memory poisoning, tool misuse, privilege compromise, cascading hallucinations, goal manipulation, rogue agents, and more. The key difference from traditional LLM risks: a successful attack on an agentic system doesn't just produce bad text. It triggers autonomous cascading actions across enterprise systems.
LangChain for rapid prototyping (simple agent in under 10 lines). LangGraph for production (stateful graphs, durable execution, human-in-the-loop). CrewAI for role-based multi-agent crews. AutoGen for conversational collaboration (explicitly “not production ready” per Microsoft). Semantic Kernel for Microsoft enterprise stacks (C#/Python). Claude Agent SDK from Anthropic, emerging with Constitutional AI safety focus.
Open-source standard from Anthropic that solves the M×N integration problem. Instead of custom connectors for every model-tool pair, MCP provides a single protocol (the “USB port for AI”). Three components: Host (your AI app), Client (translates LLM intent to JSON-RPC 2.0 requests), and Servers (lightweight adapters for databases, file systems, APIs). Enables dynamic tool discovery and secure credential management.
Four risk tiers: unacceptable (banned), high-risk (heavily regulated), limited risk (transparency obligations), minimal risk (no special rules). Most agentic deployments land in high-risk because they operate autonomously in critical domains. That triggers mandatory requirements for risk management, data governance, human oversight, and cybersecurity. NIST AI RMF (Govern, Map, Measure, Manage) provides a complementary voluntary framework to operationalize compliance.
A documentation standard that catalogs everything an agent can do: tools, permissions, data access, decision boundaries, escalation rules, failure modes. Inspired by SBOMs in cybersecurity. When an agent is compromised, the BBOM defines the blast radius. Core question it answers: “What is this agent authorized to do, and what happens when it exceeds those boundaries?”
Interactive 8-level protocol where you make real agent architecture decisions. A 5-question intake sets your context (industry, scale, risk, team, compliance). Across 8 levels you choose between 3 options. Scoring is context-adaptive: what's optimal for enterprise healthcare differs from startup prototyping. Output is a personalized deployment blueprint and printable certification. Different intakes produce different paths.