Inside the Mind of Agentic AI: From Generative to Autonomous Intelligence

Parth SohaneyParth Sohaney
17 min read

“Remember Avengers? When Jarvis took over Veronica to deploy Hulk-Buster Armor? That’s Agentic AI in action—autonomous, powerful, and mission-ready.”


Why is everyone talking about Agentic AI ?

src: https://www.gsdcouncil.org/blogs/line-graph-reveals-agentic-ai-market-penetration

Market Analysis : Agentic AI adoption is rapidly rising, with 80% of Indian firms exploring autonomous agents by 2025 and 86% of global companies projected to run agentic AI by 2027. Over 70% of generative AI users are already leveraging agentic systems, showing a strong link between generative and autonomous AI evolution.

Till now we use AI Chatbots to provide responses based on a single interaction. A person makes a query and the chatbot uses natural language processing to reply .

But what if we had a personal assistant that not only does everything AI chatbots can do, but also plans and executes tasks based on a specific goal? That would be amazing, right?

Now imagine the amount of work a company could take off its employees’ shoulders and the time it could save—simply by automating everything using Agentic AI.

This is why the market is so excited about it. Honestly, who wouldn't want free assistance?


From Prompts to Purpose : The Evolution of AI models -

You'll get a general idea from the image above, but let me clarify where the confusion starts—

Difference between Workflows , AI Agents and Agentic AI —

WORKFLOWS - it is a neutral term , which can exist in both Tool Augmented AI and Agentic AI .It is a pipeline containing a series of steps you follow to complete a goal usually in specific order .These steps can be done by humans , Ai tools or both - Let me give you an example -

  • 1- You have a PDF containing all Holiday /Leave related policies of the company and the company has made a Workflow , which will provide the answer written in PDF based on the type of question

  • 2- Even ChatGPT can be a part of human-driven workflow , until it is done autonomously.

  • Answering normal questions or coding related problem are termed as Workflows (in Anthropic Paper) but AI Agents are different.

TOOL AUGMENTED AI (AI Agents) - Lets us understand this with an example of [lovable.dev] for those who don’t know it is a famous AI tool used to build frontends -

  • Now if I want to build a website with Auth and DB connection -

  • 1- First I will go to Lovable and ask it to create a frontend for me , will also provide it the UI idea and theme — it will use LLM for this

  • 2- Then if I want to use Clerk service , I will manually go and add it to my website or ask GPT for steps .

  • 3- For DB connection I will again have to manually connect AWS or any other service to it .

  • So you get the idea what I wanted to say - here you have to tell each step manually , and then LLM generates the code of give me the steps to for it .

  • If we are using a tool (like lovable or anything else ) , it will perform a function based on my input but will not plan any steps further .

  • Its like input —>LLM —> output .You are yourself a planner and a controller.

AGENTIC AI - this has autonomy and memory , this can reason , plan , decide and act over multiple steps -

  • Understanding due to same example - Now if there was an Agentic AI here , I just have to give command “Make a SAAS webapp for me with Auth and DB (AWS) and payments ” , it will automatically create a frontend , then plans and execute the Clerk Auth , and yes if clerk auth requires the changes in frontend , it will also manage it automatically and then connects the DB , will also add env variable . At last it will integrate RAZOR pay payment gateway.

  • And finally will generate you a completely running SAAS webapp.

  • Now I think you all would have gained a clear understanding , but if not I have made a table for you - below

  • Example of Agentic AI use cases -

  • 1- Booking a trip , with flight booking , cab booking , hotel booking etc.

  • 2 - Automating food ordering , or cold emailing .

  • The most famous agentic AI tools is n8n ,and Zapier

Here is the table for better understanding -

AspectTool-Augmented AIAgentic AIWorkflow
InitiationYou prompt: "Build my frontend"You say: "Make me a full-stack SaaS app"You use multiple tools in a pipeline
LLM UsageSingle-shot per action (e.g., generate HTML)Multiple times at each decision point (e.g., "Should I use Clerk?")Human coordinates LLM tools per step
Frontend (Lovable.dev)You run Lovable manuallyAgent runs Lovable itselfYou manually run it in workflow
Auth (Clerk)You ask ChatGPT, then add ClerkAgent decides to add Clerk automaticallyYou manually add Clerk
DB (AWS)You ask ChatGPT to integrate itAgent chooses AWS, sets up DB, handles credentialsYou run a script or tool to do it
Reasoning & PlanningYou decide each stepAI plans all steps with subgoalsYou plan each step and tools execute
Error HandlingYou retry manuallyAgent retries or changes tools on its ownYou intervene and rerun
Goal-Oriented?No — task-basedYes — understands final goalPartially — human defines and manages
AutonomyNoneHighLow to moderate
Who’s in Control?YouThe AgentYou

Why ‘Just Talking’ Isn’t Enough Anymore: Enter Agentic AI —

“Sure, ChatGPT can write your essay. But can it file your tax return end-to-end?”

I know we’re too good at explaining things to AI, but AI is not just meant for chit-chat. One of the main goals of evolving AI was to increase productivity and reduce time spent on work that can easily be done by us humans.

So now, we need a solution that not only talks, but also plans, executes, updates, and stores. Let me draw a clear line between the old Generative AI and the new Agentic AI —

Generative AI :

  • Trained on huge datasets to generate content (text, images, code)

  • Has no persistent memory (can only remember within the same session, and forgets everything once the chat ends)

  • No planning. No execution.

  • Reactive in nature.

  • Example: “Write a blog about Japan.”

Agentic AI :

  • Built on LLMs but empowered with tools, persistent memory, goal-setting, and multi-step orchestration.

  • Learns from feedback and adapts.

  • Executes actions across systems.

  • Example: “Plan a Japan trip, check visa rules, create my itinerary, and book hotels.”

Think: ChatGPT vs. AutoGPT.

A good resource to read about this topic : Link

Comparison Table (from Sapkota et al., 2025 and Publicis Sapient)

FeatureGenerative AIAgentic AI
InputPromptGoal / Intent
OutputSingle responseMulti-step plans and actions
MemoryStateless or session-limitedPersistent, contextual memory
AutonomyNoneAutonomous and proactive
Tool UsePlugins or external tools (limited)Deep integration with APIs and tools
PlanningNoneTask decomposition and stepwise planning
LearningStatic (pretrained)Continuous via feedback loops and environment signals
CollaborationNoneCan coordinate with other agents
Use CaseContent creation, summarization, Q&ADecision support, workflow execution, research agents
ExamplesChatGPT, DALL·E, BardAutoGen, LangGraph agents, TaskMatrix.AI

Why the Difference Matters :

  • Generative AI is transformative for creativity, content, and conversational UX.

  • But it doesn’t solve for goal completion, task orchestration, or agent-level cognition.

  • As Publicis Sapient puts it:

    “Generative AI helps create... Agentic AI helps get things done.”

In Summary :

  • Agentic AI builds on the foundation of generative models.

  • But it pushes beyond: it’s intelligent, tool-integrated, memory-augmented, and autonomous.

  • This marks a shift from prompt engineering to autonomous agent design.

This shift is at the heart of the paradigm explored by Sapkota et al. in their paper: AI Agents vs. Agentic AI (arXiv:2505.10468).


Agents, But Not Intelligent: The Limitations of Old-School AI —

Before we talk about the revolution of Agentic AI, we need to understand what we’re moving away from—and why traditional AI agents weren’t enough.

What Were "AI Agents" Before?

The term “AI Agent” has been around for decades. It typically referred to:

  • A standalone software module that could sense its environment, make decisions, and take action.

  • Often used in:

    • Expert systems

    • Robotic controllers

    • Chatbots

    • Rule-based assistants (think: Clippy)

In the modern LLM era, these became tool-augmented AI agents: LLMs with access to:

  • Search APIs

  • Function calls

  • External data sources

Examples include:

  • LangChain agents calling web APIs

  • AutoGPT following instructions across tools

  • ChatGPT with plugins

These systems simulate goal-seeking, but they suffer from major limitations.


The Problem With Traditional AI Agents :

Based on the research paper : Sapkota et al. (2025), old-school agents even those powered by LLMs—fail to achieve true autonomy, reasoning, and coordination .

Let’s break down the core limitations:

1. Stateless or Short-Term Memory Only

  • Most traditional agents forget everything once the task ends.

  • No cross-task memory, learning from mistakes, or long-term personalization.

  • Example: A tool-augmented bot can't recall how it solved a similar problem last week.

2. No True Collaboration or Coordination

  • They don’t work with other agents or humans in a coordinated way.

  • No shared goals, no role awareness, no distributed decision-making.

Anthropic notes: "Traditional agents are often locked in fixed workflows and can’t delegate or collaborate."

3. Rigid or Shallow Planning

  • Most rely on prompt chains or static instructions.

  • They can't self-reflect, re-plan, or simulate alternatives.

Agent planning is hard-coded, not emergent or adaptive.

4. Limited Causality or Intent Modeling

  • They don’t understand why they're doing something.

  • There’s no causal reasoning or long-term impact estimation.

Sapkota: “They lack models of environment dynamics and can't predict how actions will unfold over time.”

5. High Fragility and Brittleness

  • One tool-call failure breaks the flow.

  • Agents often hallucinate tool names, pass wrong formats, or retry incorrectly.

Anthropic: “Agents can fail catastrophically if error-handling isn't explicitly designed.”

6. Lack of Evaluator and Feedback Loops

  • There's no mechanism to assess success or revise strategies.

  • Agents don’t learn from their outputs unless wrapped in complex external loops.

📉 Performance often degrades with task complexity or iteration depth.


Inside the Brain: How Agentic AI Makes Autonomous Decisions :

Agentic AI isn’t just about making large language models smarter , it’s about engineering entire systems that think, plan, act, and adapt.

As described by both Anthropic and Markovate, an agentic architecture is a symphony of modular, intercommunicating layers, combining LLMs with tool-use, orchestration logic, and long-term memory to solve dynamic, real-world tasks autonomously.

Core components of an Agentic AI System :

1. Perception Layer

2. Planning and Reasoning Engine

  • Role: Converts input into a sequence of actionable steps.

  • Inspired by: ReAct, Tree of Thoughts, and Anthropic’s “transparent planner” principle.

  • Key Behaviors:

    • Goal decomposition

    • Step validation

    • Error recovery and replanning

  • How it works: Uses LLMs to simulate multiple plans and select the optimal path.

  • Anthropic Prompt Chaining :

3. Routing and Specialization -

  • Anthropic Workflow: Routing

    “The planner selects the most appropriate specialized sub-agent for each step.”

Example:

  • Travel planner agent

  • Budget checker agent

  • HR policy enforcer agent

4. Tool Use Interface

  • Role: Executes actions by interacting with external tools, APIs, or databases.

  • Anthropic Note: Tools should have “clean, well-documented interfaces” to reduce reasoning errors.

  • Anthropic Workflow : Parallelization

  • Examples:

    • Web search API

    • Notion/GDocs editor

    • Database query engine

    • Code executor

5. Memory Stack

  • Role: Tracks past actions, task state, and long-term user preferences.

  • Markovate Categorization:

    • Episodic Memory (task-specific)

    • Semantic Memory (domain knowledge)

    • Procedural Memory (how-to knowledge)

  • Technologies Used:

    • Vector databases (e.g., Pinecone, Weaviate)

    • Contextual retrievers

    • LangChain Memory modules

6. Orchestrator / Control Flow

  • Role: Oversees task lifecycle and coordinates between components.

  • Architectures Used:

    • LangGraph (graph-based flow control)

    • CrewAI (role-based agent teams)

    • AutoGen (hierarchical orchestration)

  • Responsibilities:

    • Looping over steps until task is done

    • Managing retries, role-switches, or collaboration

    • Executing evaluator-optimizer feedback cycles

7. Feedback and Evaluation Layer

  • Role: Ensures quality, monitors progress, and improves agent behavior over time.

  • Pattern: Anthropic’s Evaluator-Optimizer loop

  • Includes:

    • Output scoring

    • Self-reflection modules

    • External human-in-the-loop review

    • Logging and observability

Nvidia Blog : Defining Structure of Agentic AI


Full Flow Example :

Command : “Plan a company offsite for 10 people within budget.”

  1. Perception Layer: Understands the task, attendees, and constraints

  2. Planner (Prompt Chaining): Breaks into venue search, travel options, food preferences, and cost checking

  3. Router: Assigns HR agent, travel agent, and finance agent

  4. Tool Layer (Parallelization): Queries APIs and books multiple services

  5. Memory: Stores past location preferences and budgets

  6. Orchestrator-Worker: Supervises team agents, resolves failures

  7. Evaluator-Optimizer: Reviews final plan, cost, and satisfaction score; learns from failure modes

Key Design Principles (Anthropic and Markovate Papers ) :

  1. Start simple: Use as few modules as needed to deliver value.

  2. Expose planning logic: Let agents narrate their decisions.

  3. Design clean interfaces: Better tools = better tool use.

  4. Use workflows first, agents second: Not all tasks need full autonomy.

  5. Test in sandbox mode: Always validate before deploying agents in production.


The Power of Many: When AI Agents Team Up

  • If traditional agents were lone freelancers, Agentic AI is the enterprise team—collaborating, sharing knowledge, and aligning toward a single mission.

    This shift—from single-agent workflows to multi-agent systems (MAS)—is central to the rise of truly autonomous intelligence.

    As Sapkota et al. (2025) point out:

    “Agentic AI is not merely an enhanced AI Agent—it is a coordinated collective of agents, each with distinct capabilities, operating under a unified goal.”

    Q-Why Single Agents Aren’t Enough

    Single agents—even if powerful—struggle with:

    • Task breadth: One agent can't specialize in all domains.

    • Scalability: Bottlenecks emerge when a single LLM handles all decisions.

    • Modularity: Maintenance and debugging become difficult without role separation.

Thus, modern systems are evolving into agent collectives, where:

  • Agents act as specialists (planner, executor, memory retriever, evaluator)

  • Each agent can have its own prompt, tools, and memory

  • Orchestration logic governs communication and conflict resolution

Architecture: Multi-Agent Systems in Practice

Agentic AI systems can be configured using multiple collaborating agents with:

RoleDescription
Planner AgentDecomposes the high-level goal into tasks
Worker AgentsExecute individual subtasks (e.g., call APIs, summarize docs)
Retriever AgentFetches external knowledge or memory documents
Evaluator AgentReviews results and gives feedback
Coordinator AgentMaintains order, resolves conflicts, tracks goal status

Frameworks That Enable Multi-Agent Systems

Several modern tools support multi-agent orchestration:

  • LangGraph: Flow-based multi-agent graph execution

  • AutoGen: Hierarchical agent design with task delegation

  • CrewAI: Define teams with roles and workflows

  • TaskMatrix.AI: Scalable, plugin-based agent collaboration system

Challenges of Multi-Agent System :

ChallengeImpact
MisalignmentAgents may pursue conflicting subgoals
Looping / DeadlockPoor control flow can cause infinite loops or stalling
Error PropagationFaulty data from one agent may affect others
Latency & CostMore agents = more API calls = slower & expensive inference

LangGraph: Multi-Agent Workflows

Building One Yourself? Here’s What You’ll Need

LayerTools / Frameworks
LLMOpenAI GPT, Claude, Mistral, Llama
Planning / LogicLangGraph, AutoGen, CrewAI
Tool IntegrationLangChain Tools, REST APIs, Node-based wrappers
MemoryPinecone, Weaviate, Redis, Supabase
UI / InterfaceNext.js, React, Tauri (for agents with GUI)
OrchestrationCrewAI, LangGraph, Node-based agents

Here is the best video to get started : What are AI agents.Let’s build one


Hallucinations, Conflicts & Chaos: Challenges of Agentic AI :

1. Hallucinations at Scale

While LLMs hallucinating facts is well-known, agentic systems amplify the risk:

  • Agents may invent:

    • API endpoints

    • Tool names

    • Output formats

    • Entire subtasks that were never requested

  • Hallucinated decisions propagate through memory and planner loops.

Anthropic warns: “Agents that use tools without constraints can hallucinate commands that break downstream logic.”

2. Error Propagation

One wrong decision doesn’t stay isolated—it spreads:

  • Faulty memory → Misleading retrieval

  • Incorrect tool output → Bad planning

  • Inconsistent state → Wasted loops or retries

And the worst part? It’s hard to debug due to:

  • Asynchronous planning

  • Multiple tool interactions

  • Autonomous reasoning layers

3. Inter-Agent Conflict

In multi-agent setups:

  • Agents might disagree on facts

  • Retry each other's failed tasks

  • Override or ignore outputs from peer agents

Without a strong orchestrator, agents may enter deadlocks, infinite loops, or regressions.

4. Inconsistent Memory Handling

Agentic systems depend on memory for:

  • Task tracking

  • Preference retention

  • State transitions

But poorly managed memory can cause:

  • Feedback loops of misinformation

  • Contradictory context from past interactions

  • Slow degradation of task quality

    Sapkota: “Memory consistency and lifecycle management remain under-researched and high-risk.”

5. Lack of Ground Truth or Evaluation

How do you know if the agent did the job well?

  • There’s often no clear success metric

  • LLMs may claim success even when failing

  • Auto-evaluation is hard, especially in dynamic tasks

Anthropic’s Evaluator-Optimizer loop tries to fix this, but most systems still lack robust agent-level QA.

6. Latency, Cost, and Compute Explosion

  • Multi-agent systems can get expensive:

    • 5 agents calling GPT-4 → 💸💸💸

    • Dozens of tool calls per iteration

    • Retry loops and memory fetches

Without optimization, your “smart agent” may be:

  • Slow

  • Expensive

  • Unscalable

7. Security, Trust & Abuse Risk

Agentic AI that controls:

  • File systems

  • Browsers

  • Payment tools

  • Critical operations

…can be a huge security liability if not properly sandboxed.

Key risks:

  • Prompt injection → Unauthorized tool use

  • Memory poisoning → Long-term behavioral shifts

  • Model exploits → Bypassing intended safeguards

Anthropic and OpenAI both recommend extensive sandbox testing, strong permissions, and audit logging.


Vaults of Resources for Agentic AI Builders :

Credits and References :

Articles:

Videos:

Repos:


Final Words :

Agentic AI is not the future—it’s the now. Build it. Break it. Blog about it.

Project Ideas I got from here :

I will build one stop solutions from many long tasks such as —

1- Building End_to_End_Trip_Planner (Booking tickets + booking hotels + Marking destinations on map + Planning the entire trip + option to extend the trip to visit nearby city + etc)

2-Building Event_Planner (Taking details of event from you (kind+date+venue) to setting up the menu + sending the request or message to all the nearby caterers/Home chefs for quotation + Deciding the best offer based on rating and price + etc)

3- Building SaaS through a single command from building frontend from lovable and adding auth from Supabase and connecting DB to directly deploying it on either vercel or anything .

Let’s see which is more challenging and excites me…

💬 Got questions or want help building your first agent? Drop a comment below or DM me!-

10
Subscribe to my newsletter

Read articles from Parth Sohaney directly inside your inbox. Subscribe to the newsletter, and don't miss out.

Written by

Parth Sohaney
Parth Sohaney