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Friday, 12 June 2026

Agentic AI vs Generative AI – What’s the Difference?

 

🚀 Introduction

Many people confuse Agentic AI with Generative AI.

👉 But they are fundamentally different.




⚖️ Key Differences

FeatureGenerative AIAgentic AI
RoleContent generationTask execution
InteractionPrompt-basedGoal-based
ActionNo real-world actionsExecutes actions
AutonomyLowHigh

🔄 Example

Generative AI

👉 “What is best flight?”
➡️ Gives answer

Agentic AI

👉 “Book me the cheapest flight”
➡️ Searches → compares → books


🧠 Core Difference

👉
Generative AI responds
👉
Agentic AI acts and completes tasks 


🎯 Conclusion

Agentic AI builds on generative AI but adds: ✅ Planning
✅ Execution
✅ Feedback loop


💻 ✅ Code Example: Generative AI vs Agentic AI
# Generative AI → responds to prompt

def generative_ai(question):
    if "flight" in question.lower():
        return "The cheapest flight is $300 with Airline B"
    else:
        return "Here is your answer"

# Example usage
result = generative_ai("What is the best flight?")
print("Generative AI Output:", result)

👉 Output:

Generative AI Output: The cheapest flight is $300 with Airline B

✅ Behavior:

  • Takes input
  • Returns answer
  • ❌ No action performed

🤖 2. Agentic AI (Thinks + Acts)
# Agentic AI → completes the full task

def agentic_ai(goal):
    print("Goal:", goal)

    # Step 1: Search (Perceive)
    flights = [
        {"price": 500, "airline": "A"},
        {"price": 300, "airline": "B"},
        {"price": 400, "airline": "C"}
    ]
    print("Searching flights...")

    # Step 2: Compare (Reason)
    cheapest = min(flights, key=lambda x: x["price"])
    print("Comparing options... Best found:", cheapest)

    # Step 3: Book (Act)
    print(f"✅ Booking flight with {cheapest['airline']} for ${cheapest['price']}")

    return "Flight booked successfully"

# Example usage
result = agentic_ai("Book me the cheapest flight")
print("Agent Output:", result)

👉 Output:

Goal: Book me the cheapest flight
Searching flights...
Comparing options...
✅ Booking flight with B for $300
Agent Output: Flight booked successfully

✅ Behavior:

  • Finds data
  • Makes decision
  • Executes action
  • Completes task

🔁 3. Add Feedback Loop (Agent Learning)
# Adding learning capability

def learn(success=True):
    if success:
        print("✅ Learning: Task completed successfully")
    else:
        print("❌ Learning: Improve next time")

# Example
learn(success=True)

📊 4. Compare Both Systems in Code
def compare_ai():
    print("\n--- Generative AI ---")
    print(generative_ai("What is best flight?"))

    print("\n--- Agentic AI ---")
    agentic_ai("Book me cheapest flight")

compare_ai()

🧠 What This Code Shows

FeatureGenerative AIAgentic AI
InputPromptGoal
OutputAnswerAction
Execution
AutonomyLowHigh

Agentic AI – The Next Evolution of Artificial Intelligence

 

🚀 Introduction

Artificial Intelligence has evolved rapidly—from rule-based systems to machine learning, and then to generative AI.
Now, we are entering a new era:

👉 Agentic AI

Unlike traditional AI systems that simply respond to inputs, Agentic AI focuses on autonomous action and goal completion.





🧠 What is Agentic AI?

Agentic AI refers to artificial intelligence systems that can:

  • Set goals
  • Plan actions
  • Execute tasks
  • Adapt based on feedback

👉 All with minimal human intervention 


🔑 Key Idea

👉
“Generative AI = Thinks”
👉
“Agentic AI = Thinks + Acts”


⚙️ Core Characteristics

  • ✅ Autonomy (works independently)
  • ✅ Goal-oriented behavior
  • ✅ Adaptability (learns over time)
  • ✅ Proactive decision-making
  • ✅ Tool usage (APIs, databases, apps)

🔄 How Agentic AI Works (Simplified Loop)

Perceive → Reason → Plan → Act → Learn

👉 This continuous loop allows AI agents to improve and adapt automatically 


🎯 Conclusion

Agentic AI represents a shift from passive AI tools to active digital workers, capable of handling complex, multi-step tasks.


Perceive → Reason → Plan → Act → Learn
🚀 1. Define the Goal (Agent Behavior)
# Define the goal for the agent
goal = "Find cheapest flight and book ticket"
print("Goal:", goal)

👁️ 2. Perception (Collect Data)
# Perceive environment (simulate data gathering)

def perceive():
    data = {
        "flights": [
            {"price": 500, "airline": "A"},
            {"price": 300, "airline": "B"},
            {"price": 400, "airline": "C"}
        ]
    }
    print("Perception: Collected flight data")
    return data

🧠 3. Reasoning (Analyze Data)
# Reasoning step (analyze options)

def reason(data):
    cheapest = min(data["flights"], key=lambda x: x["price"])
    print("Reasoning: Cheapest flight selected →", cheapest)
    return cheapest

🧱 4. Planning
# Plan actions

def plan(flight):
    steps = [
        "Check availability",
        "Reserve seat",
        "Make payment"
    ]
    print("Planning: Steps created →", steps)
    return steps

⚡ 5. Action (Execute Task)
# Execute actions

def act(steps, flight):
    for step in steps:
        print(f"Executing: {step}")
   
    print(f"✅ Flight booked with {flight['airline']} for ${flight['price']}")

🔄 6. Learning (Feedback Loop)
# Learning from feedback

def learn(success=True):
    if success:
        print("Learning: Strategy successful ✅")
    else:
        print("Learning: Adjust strategy ❌")


🔁 7. Full Agentic Loop (Core System)
def agentic_ai():
    data = perceive()              # Perceive
    best_option = reason(data)     # Reason
    steps = plan(best_option)      # Plan
    act(steps, best_option)        # Act
    learn(success=True)            # Learn

# Run the agent
agentic_ai()

🏗️ 🧠 What This Code Represents

StepReal Agentic AI Equivalent
perceive()Data collection (APIs, tools)
reason()LLM / decision engine
plan()Task breakdown
act()API calls / automation
learn()Feedback / reinforcement learning

Dynamics 365 Modules & Architecture (Deep Dive)

 🚀 Introduction

Dynamics 365 is built on a modular architecture, allowing businesses to select only the components they need.




🧱 Core Modules


✅ Sales Module

  • Lead management
  • Opportunity tracking

✅ Customer Service Module

  • Case management
  • Omnichannel support

✅ Marketing Module

  • Campaign automation
  • Customer journey tracking

✅ Field Service

  • Scheduling
  • Asset management

👉 These modules form the CRM side of Dynamics 365 


🏗️ Architecture Overview

Users → Applications (Sales/Service/etc)
        ↓
Dataverse (Central Data Layer)
        ↓
Power Platform + Azure Cloud

👉 Built on Azure + Dataverse + Power Platform 


🔄 End-to-End Workflow

Lead → Opportunity → Sale → Support → Insights

✅ Benefits of Modular Architecture

  • Flexibility (choose only needed apps)
  • Scalability (add modules later)
  • Integration (shared data across modules) 

🎯 Conclusion

Dynamics 365’s modular architecture enables: 👉 Scalable, flexible, and integrated business solutions


🚀 1. Define Modules (CRM + ERP)
# Define modules in Dynamics 365 (logical representation)

CRM_Apps = ["Sales", "Customer Service", "Marketing", "Field Service"]
ERP_Apps = ["Finance", "Supply Chain", "Operations", "HR"]

print("CRM Modules:", CRM_Apps)
print("ERP Modules:", ERP_Apps)

🧱 2. Dataverse (Central Data Layer)
# Central storage concept (Dataverse simulation)

Dataverse = {
    "Leads": [],
    "Opportunities": [],
    "Orders": [],
    "Cases": []
}

print("Dataverse initialized:", Dataverse.keys())

🔄 3. End-to-End Workflow (Lead → Insight)
# Step 1: Create Lead (Sales module)

lead = {
    "name": "John Doe",
    "email": "john@email.com",
    "status": "New"
}

Dataverse["Leads"].append(lead)
print("Lead Created:", lead)


# Step 2: Convert to Opportunity

opportunity = {
    "customer": lead["name"],
    "value": 5000,
    "status": "In Progress"
}

Dataverse["Opportunities"].append(opportunity)
print("Opportunity Created:", opportunity)


# Step 3: Create Order (ERP integration)

order = {
    "customer": opportunity["customer"],
    "amount": opportunity["value"],
    "status": "Confirmed"
}

Dataverse["Orders"].append(order)
print("Order Created:", order)


# Step 4: Service Case (Customer Service)

case = {
    "customer": order["customer"],
    "issue": "Support Required",
    "status": "Open"
}

Dataverse["Cases"].append(case)
print("Case Created:", case)
``

4. Insights (Power BI / Analytics Layer)
# Generate simple insights

total_leads = len(Dataverse["Leads"])
total_orders = len(Dataverse["Orders"])
total_cases = len(Dataverse["Cases"])

print("Insights:")
print("Leads:", total_leads)
print("Orders:", total_orders)
print("Support Cases:", total_cases)


🏗️ 5. Architecture Flow in Code
# Architecture flow representation

def dynamics365_flow():
    data_sources = "Web, Apps, APIs"
    dataverse = "Central Data Layer"
    applications = "Sales + Service + ERP"
    insights = "Power BI / AI"
    cloud = "Azure Cloud"

    print(f"{data_sources} → {dataverse} → {applications} → {insights} → {cloud}")

dynamics365_flow()


⚙️ 6. Automation (Power Automate Concept)

# Example automation trigger (concept)

def on_new_order(order):
    print(f"Trigger: New order for {order['customer']}")
    print("Action: Send email + Generate invoice + Notify team")

# Trigger automation
on_new_order(order)


Modules → Dataverse → Apps → Automation → Insights
LayerReal Tool
Data LayerDataverse
CRM AppsSales, Service
ERP AppsFinance, Supply Chain
AutomationPower Automate
AnalyticsPower BI
CloudAzure