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- AI Isn't Just Responding Anymore — It's Taking Action (And Why That Changes Everything)
AI Isn't Just Responding Anymore — It's Taking Action (And Why That Changes Everything)
AI isn't just responding anymore — it's acting. This week's post breaks down what makes Agentic AI so different and why it's changing everything from content creation to enterprise ops.
The shift from traditional AI to agentic systems represents the next major evolution in artificial intelligence. While traditional AI waits for your commands, agentic AI can set goals, make decisions, and take action on its own. This fundamental difference is reshaping how we build AI systems and what we can expect them to accomplish.
Read on to discover the key differences between these approaches and how you can start experimenting with agentic AI in your own projects.
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Key Differences Between Traditional AI and Agentic AI
In the rapidly evolving landscape of artificial intelligence, a significant paradigm shift is underway. While traditional AI systems have revolutionized how we process information and automate tasks, a new frontier is emerging: Agentic AI. This evolution represents not just an incremental improvement but a fundamental transformation in how AI systems operate, make decisions, and interact with the world.
The Next Major Shift: From Automation to Agency
Traditional AI has excelled at automating specific tasks based on patterns learned from historical data. These systems follow predetermined rules and respond to explicit instructions, making them powerful tools for well-defined problems. However, they remain fundamentally reactive and limited to the specific domains for which they were designed.
Agentic AI, by contrast, introduces a new dimension of autonomy and adaptability. Rather than simply responding to prompts or executing predefined workflows, agentic systems can understand objectives, formulate plans, make decisions, and take actions to achieve goals—all with minimal human intervention. This shift from passive tools to active participants represents a fundamental evolution in how we conceptualize and deploy AI technologies.
As we move deeper into 2025, understanding the distinctions between these two approaches has become essential for creators, technology leaders, and businesses seeking to leverage AI effectively. The differences extend far beyond technical specifications, influencing everything from implementation strategies to governance frameworks and ethical considerations.
This article explores the key differences between traditional and agentic AI systems, examining how these distinctions manifest across various dimensions and what they mean for organizations navigating the AI landscape. By understanding these differences, you'll be better positioned to make informed decisions about which approach best suits your specific needs and objectives.
Traditional AI vs. Agentic AI: Side-by-Side Comparison
Dimension | Traditional AI | Agentic AI |
---|---|---|
Core Function | Processes data and generates outputs based on predefined patterns and rules | Acts autonomously to achieve goals, make decisions, and adapt to changing environments |
Autonomy | Limited autonomy; requires explicit human instructions for each task | High autonomy; can initiate actions, make decisions, and pursue goals with minimal human intervention |
Decision-Making | Makes decisions based on pre-programmed rules and statistical patterns | Makes complex, contextual decisions based on goals, environmental feedback, and learned experiences |
Adaptability | Static or incrementally improved through manual updates | Dynamically adapts to new situations and learns from experiences in real-time |
Proactivity | Reactive; responds only when prompted | Proactive; can identify opportunities, anticipate needs, and initiate actions independently |
Learning Approach | Typically trained on historical data with periodic updates | Continuous learning from interactions, outcomes, and environmental feedback |
Task Complexity | Excels at narrow, well-defined tasks with clear parameters | Handles complex, multi-step tasks requiring coordination across systems and domains |
Human Interaction | Requires explicit human guidance and oversight | Collaborates with humans as partners, understanding intent and negotiating objectives |
Memory & Context | Limited or session-based memory; often stateless | Persistent memory that builds context over time and across interactions |
System Integration | Usually operates within a single system or limited integrations | Seamlessly coordinates across multiple systems, tools, and data sources |
Error Handling | Typically fails when encountering unfamiliar scenarios | Can troubleshoot, attempt alternative approaches, and learn from failures |
Scalability | Scales through replication of the same functionality | Scales through coordination of specialized agents working together toward common goals |
Real-World Application | Content generation, data analysis, pattern recognition, classification | Autonomous assistants, complex workflow automation, strategic planning, adaptive problem-solving |
Example Use Cases | • Generating text or images from prompts<br>• Analyzing data sets for insights<br>• Classifying content into categories<br>• Translating languages | • Managing end-to-end business processes<br>• Coordinating multi-step workflows across systems<br>• Adapting to unexpected situations<br>• Pursuing long-term objectives with strategic planning |
Limitations | • Cannot act beyond its training<br>• Requires human direction for each task<br>• Limited understanding of real-world context | • Requires careful goal alignment<br>• Raises complex governance questions<br>• May have unpredictable emergent behaviors |
Future Trajectory | Continued improvements in quality and efficiency within defined domains | Expanding capabilities for autonomous operation across increasingly complex and open-ended environments |
Core Differences and Their Practical Implications
The distinctions between traditional and agentic AI extend beyond technical specifications, carrying significant implications for how these technologies can be deployed and the value they deliver. Let's explore the most critical differences and what they mean for creators, technology leaders, and businesses.
1. From Reactive to Proactive: The Autonomy Revolution
The Difference: Traditional AI systems wait for instructions before taking action. They're like sophisticated tools that require a human operator to define each task and initiate each process. Agentic AI, however, can identify needs, set goals, and take initiative without constant human direction.
Practical Implications:
For Creators: Agentic AI can serve as a true creative partner, suggesting new directions, identifying opportunities, and even initiating projects based on market trends or audience feedback.
For Tech Leaders: Implementation shifts from building task-specific automations to designing goal-oriented systems with appropriate guardrails and oversight mechanisms.
For Businesses: Resources previously dedicated to managing AI systems can be redirected toward strategic initiatives, as agentic systems handle routine decision-making and process management autonomously.
Real-World Example: A traditional AI content management system might analyze performance metrics when asked and generate recommendations for improvement. An agentic system would proactively monitor performance, identify concerning trends, develop and test new content strategies, and implement the most effective approaches—all while keeping humans informed of its actions and reasoning.
2. Beyond Single Tasks: Handling Complex, Multi-Step Workflows
The Difference: Traditional AI excels at discrete, well-defined tasks but struggles with complex processes requiring coordination across multiple domains. Agentic AI can manage end-to-end workflows, coordinating across systems and adapting to changing circumstances.
Practical Implications:
For Creators: Complex production workflows that previously required multiple specialized tools and human coordination can be managed by a single agentic system that understands the entire process.
For Tech Leaders: System architecture evolves from collections of specialized AI tools toward integrated ecosystems of collaborative agents with complementary capabilities.
For Businesses: Process automation extends beyond simple tasks to complex workflows involving judgment calls, exceptions handling, and cross-functional coordination.
Real-World Example: A traditional AI might help schedule social media posts based on predefined parameters. An agentic system could manage the entire content marketing lifecycle—researching trends, generating content ideas, creating drafts, coordinating with human reviewers, scheduling publication, monitoring performance, and iteratively improving strategies based on results.
3. Continuous Learning and Adaptation
The Difference: Traditional AI systems typically improve through periodic retraining with new data, requiring human intervention to evolve. Agentic AI continuously learns from interactions, outcomes, and feedback, becoming more effective over time without explicit updates.
Practical Implications:
For Creators: Tools become increasingly personalized to individual workflows and preferences, requiring less customization and configuration over time.
For Tech Leaders: The focus shifts from model training and deployment cycles to designing effective feedback mechanisms and learning frameworks.
For Businesses: AI investments deliver increasing returns as systems become more aligned with specific business contexts and objectives through continuous learning.
Real-World Example: A traditional AI customer service system might require periodic retraining with new support tickets and solutions. An agentic system would continuously refine its understanding of customer issues, develop new solution approaches based on outcomes, and adapt its communication style based on customer responses—all without scheduled retraining cycles.
4. Human-AI Collaboration Models
The Difference: Traditional AI serves as a tool directed by humans, with clear boundaries between human and machine responsibilities. Agentic AI functions more as a partner, understanding intent, negotiating objectives, and collaborating toward shared goals.
Practical Implications:
For Creators: The relationship with AI evolves from tool usage to collaborative partnership, with systems that understand creative intent and contribute meaningfully to the creative process.
For Tech Leaders: Human-AI interaction design becomes more sophisticated, focusing on effective collaboration models rather than simple command interfaces.
For Businesses: Workforce strategies evolve to emphasize human-AI teams, with humans focusing on areas requiring creativity, ethical judgment, and strategic thinking.
Real-World Example: A traditional AI writing assistant might suggest edits or generate text based on specific prompts. An agentic writing collaborator would understand project goals, contribute ideas, adapt to feedback about tone and style, and even challenge assumptions or suggest alternative approaches when appropriate.
5. Scalability Through Specialization and Coordination
The Difference: Traditional AI scales through replication of the same functionality across more instances or domains. Agentic AI scales through coordination of specialized agents working together toward common goals, similar to human organizations.
Practical Implications:
For Creators: Access to ecosystems of specialized AI capabilities that can be orchestrated to support complex creative projects without managing multiple disconnected tools.
For Tech Leaders: Architecture decisions focus on agent communication protocols, coordination mechanisms, and specialization boundaries rather than monolithic model scaling.
For Businesses: AI capabilities can scale to address increasingly complex business challenges through composition rather than building larger, more general models.
Real-World Example: A traditional AI approach to market research might involve separate tools for data collection, analysis, visualization, and reporting. An agentic approach would coordinate specialized agents for each function, with a lead agent managing the overall process, ensuring consistency, and adapting the research strategy based on emerging insights.
Why This Shift Matters in 2025 and Beyond
The transition from traditional to agentic AI represents more than a technical evolution—it fundamentally changes how we interact with and benefit from artificial intelligence. As we move through 2025 and beyond, several key implications emerge:
1. Democratization of Complex Capabilities
Agentic AI makes sophisticated capabilities accessible to non-technical users by handling the complexity of coordination and execution. This democratization enables creators, small businesses, and individuals to leverage AI for tasks that previously required specialized expertise or significant resources.
2. Shifting Value from Data to Goals and Intent
While traditional AI's effectiveness depends heavily on training data quality and quantity, agentic AI shifts the focus toward clearly articulated goals and intentions. Organizations that can effectively communicate their objectives and provide meaningful feedback will derive the most value from agentic systems, regardless of their data assets.
3. New Governance and Ethical Frameworks
The autonomy of agentic AI necessitates new approaches to governance, accountability, and ethical oversight. Organizations must develop frameworks that balance the benefits of autonomous operation with appropriate safeguards, transparency, and human oversight.
4. Competitive Advantage Through AI Orchestration
As individual AI capabilities become more widely available, competitive advantage shifts from access to specific models toward effective orchestration of AI systems. Organizations that excel at defining goals, designing agent ecosystems, and managing human-AI collaboration will outperform those focused solely on implementing the latest models.
5. Preparing for Emergent Capabilities
Agentic AI systems often develop emergent capabilities—behaviors and competencies that weren't explicitly programmed but arise from the interaction of multiple components and learning processes. Organizations must develop approaches for identifying, evaluating, and harnessing these emergent capabilities responsibly.
Conclusion: Navigating the Transition
The shift from traditional to agentic AI doesn't mean abandoning existing approaches entirely. Both paradigms have their place in a comprehensive AI strategy, with traditional AI remaining valuable for well-defined, discrete tasks where predictability and control are paramount.
The most successful organizations will develop hybrid approaches that leverage traditional AI for appropriate use cases while strategically implementing agentic systems where their autonomy, adaptability, and coordination capabilities deliver the most value. This balanced approach requires thoughtful assessment of business needs, risk tolerance, and governance capabilities.
As we continue through 2025, the distinction between these paradigms will become increasingly important for strategic decision-making. By understanding the fundamental differences between traditional and agentic AI—across autonomy, adaptability, decision-making, proactivity, scalability, and real-world application—organizations can make informed choices about which approach best serves their specific objectives and constraints.
The future belongs not to those who simply adopt the latest AI technologies, but to those who thoughtfully integrate these technologies into their operations, culture, and strategy in ways that amplify human capabilities and advance organizational goals.
TOP AI NEWS THIS WEEK
OpenAI Introduces "Autonomous Mode" for GPT-5
OpenAI has unveiled a new "Autonomous Mode" for GPT-5 that allows the model to operate with significantly greater independence. This feature enables GPT-5 to break down complex goals into manageable steps, execute those steps across multiple systems, and adapt its approach based on results—all with minimal human oversight. Early access partners report 70% reductions in human intervention for complex tasks like market research, content production, and data analysis. The feature includes configurable guardrails and detailed activity logs to address safety and transparency concerns.
Google DeepMind Launches AgentSphere for Multi-Agent Collaboration
Google DeepMind has released AgentSphere, an open-source framework for developing and deploying collaborative AI agent systems. The platform enables multiple specialized AI agents to work together on complex tasks, with built-in mechanisms for coordination, conflict resolution, and collective learning. AgentSphere includes pre-built agents for common functions like research, writing, coding, and data analysis, along with tools for creating custom agents. The framework is designed to make agentic AI more accessible to developers without expertise in multi-agent systems.
Microsoft Integrates Agentic Capabilities Across Office 365
Microsoft has announced the integration of agentic AI capabilities across its Office 365 suite, moving beyond the current Copilot features. The new "Copilot Agents" can manage entire workflows spanning multiple applications, such as researching topics in Edge, creating presentations in PowerPoint, drafting documents in Word, and scheduling follow-ups in Outlook—all from a single instruction. The system maintains context across applications and can adapt to user feedback in real-time. Microsoft emphasizes that these agents are designed to augment human work rather than replace it, focusing on reducing administrative burden.
Anthropic Releases Claude 4 with Enhanced Agentic Capabilities
Anthropic has launched Claude 4, featuring significantly enhanced agentic capabilities compared to previous versions. The new model demonstrates improved planning abilities, better reasoning about constraints, and more effective tool use across diverse domains. Claude 4 can maintain goals over extended interactions, adapt strategies based on feedback, and coordinate multiple sub-tasks to achieve complex objectives. Anthropic has also introduced a new evaluation framework specifically designed to assess agentic capabilities, which they're releasing to help standardize benchmarks in this emerging field.
EU Proposes New Regulatory Framework for Autonomous AI Systems
The European Union has proposed a new regulatory framework specifically addressing autonomous AI systems with agentic capabilities. The framework extends the existing EU AI Act with additional requirements for systems that can act independently, including mandatory human oversight mechanisms, detailed logging of autonomous decisions, and regular audits of system behavior. The proposal also introduces a classification system for different levels of AI autonomy, with escalating requirements based on the degree of independence and potential impact. Industry stakeholders have until September to provide feedback before the framework moves to the next stage of the legislative process.
HIGHLIGHTS: Most Striking Differences Between Traditional and Agentic AI
1. From Reactive to Proactive
Traditional AI waits for your commands, like a sophisticated tool that needs an operator for every task. Agentic AI identifies opportunities and takes initiative without constant direction—it can spot a problem in your workflow and fix it before you even notice.
Why it matters: This shift fundamentally changes how we interact with AI. Instead of spending time managing AI tools, you can focus on higher-level strategy while agentic systems handle execution. For creators, this means AI that doesn't just help with requested tasks but proactively suggests new ideas, identifies content gaps, and even starts drafts based on your publishing calendar.
2. Handling Complex, Multi-Step Workflows
Traditional AI excels at discrete tasks but struggles with complex processes requiring coordination. Agentic AI manages end-to-end workflows across multiple systems, adapting to changing circumstances along the way.
Why it matters: This capability extends automation beyond simple tasks to complex workflows that previously required human coordination. For example, rather than using separate AI tools for research, writing, editing, and publishing, an agentic system can manage your entire content production pipeline—coordinating across platforms, handling exceptions, and ensuring consistency throughout.
3. Continuous Learning Without Retraining
Traditional AI improves through periodic retraining with new data, requiring human intervention to evolve. Agentic AI learns continuously from interactions and feedback, becoming more effective over time without explicit updates.
Why it matters: Your AI tools become increasingly personalized to your specific needs and preferences without constant configuration. They adapt to your feedback, learn from mistakes, and refine their understanding of your goals—creating a virtuous cycle of improvement that doesn't depend on the developer releasing new versions.
4. True Human-AI Collaboration
Traditional AI serves as a tool directed by humans, with clear boundaries between human and machine responsibilities. Agentic AI functions more as a partner, understanding intent, negotiating objectives, and collaborating toward shared goals.
Why it matters: This evolution transforms how we work with AI from tool usage to collaborative partnership. Agentic systems can understand the "why" behind requests, suggest alternative approaches when appropriate, and adapt their behavior based on your working style—creating a more natural and productive relationship that amplifies human creativity rather than just executing commands.
AI TUTORIAL: Getting Started with Agentic AI Using OpenAI Assistants API
What You'll Build:
A simple but powerful agentic AI system that can research topics, generate content, and manage your content calendar with minimal oversight.
Prerequisites:
OpenAI API account (with access to Assistants API)
Basic understanding of API usage
Python installed on your computer
Step 1: Set Up Your Environment (5 minutes)
Create a new directory for your project:
bash
mkdir agentic-assistant
cd agentic-assistant
Create a virtual environment and activate it:
bash
python -m venv venv
source venv/bin/activate # On Windows: venv\Scripts\activate
Install required packages:
bash
pip install openai python-dotenv
Create a
.env
file to store your API key:
bash
touch .env
Add your OpenAI API key to the
.env
file:
OPENAI_API_KEY=your_api_key_here
Step 2: Create Your Agentic Assistant (10 minutes)
Create a file named create_assistant.py
with the following code:
python
import os
from openai import OpenAI
from dotenv import load_dotenv
# Load environment variables
load_dotenv()
# Initialize OpenAI client
client = OpenAI(api_key=os.getenv("OPENAI_API_KEY"))
# Create an assistant
assistant = client.beta.assistants.create(
name="Content Strategy Agent",
instructions="""
You are an agentic AI assistant specialized in content strategy and creation.
Your capabilities include:
1. Researching topics and identifying key insights
2. Generating content outlines and drafts
3. Managing content calendars and suggesting optimal posting schedules
4. Adapting content for different platforms and audiences
You should be proactive in your assistance, anticipating needs and suggesting improvements.
When given a goal, break it down into manageable steps and execute them systematically.
Maintain context across interactions and learn from feedback to improve your assistance.
Always prioritize quality and strategic alignment over quantity.
""",
model="gpt-4-turbo",
tools=[{"type": "retrieval"}]
)
# Print the assistant ID (save this for future use)
print(f"Assistant created with ID: {assistant.id}")
Run this script to create your assistant:
bash
python create_assistant.py
Save the assistant ID that's printed—you'll need it for the next step.
Step 3: Create a Thread for Ongoing Conversation (5 minutes)
Create a file named create_thread.py
:
python
import os
from openai import OpenAI
from dotenv import load_dotenv
# Load environment variables
load_dotenv()
# Initialize OpenAI client
client = OpenAI(api_key=os.getenv("OPENAI_API_KEY"))
# Create a thread
thread = client.beta.threads.create()
# Print the thread ID (save this for future use)
print(f"Thread created with ID: {thread.id}")
Run this script to create a thread:
bash
python create_thread.py
Save the thread ID—you'll use it to maintain context across interactions.
Step 4: Interact with Your Agentic Assistant (10 minutes)
Create a file named interact.py
:
python
import os
import time
from openai import OpenAI
from dotenv import load_dotenv
# Load environment variables
load_dotenv()
# Initialize OpenAI client
client = OpenAI(api_key=os.getenv("OPENAI_API_KEY"))
# Replace with your actual IDs
ASSISTANT_ID = "your_assistant_id_here"
THREAD_ID = "your_thread_id_here"
def send_message(message_content):
"""Send a message to the assistant and get the response"""
# Add the user message to the thread
client.beta.threads.messages.create(
thread_id=THREAD_ID,
role="user",
content=message_content
)
# Run the assistant on the thread
run = client.beta.threads.runs.create(
thread_id=THREAD_ID,
assistant_id=ASSISTANT_ID
)
# Wait for the run to complete
while True:
run_status = client.beta.threads.runs.retrieve(
thread_id=THREAD_ID,
run_id=run.id
)
if run_status.status == "completed":
break
time.sleep(1)
# Get the assistant's messages
messages = client.beta.threads.messages.list(
thread_id=THREAD_ID
)
# Return the latest assistant message
for message in messages.data:
if message.role == "assistant":
return message.content[0].text.value
return "No response received."
# Example interaction
if __name__ == "__main__":
# Replace with your actual goal
goal = """
I want to create a content strategy for my tech blog focused on AI tools for small businesses.
Help me develop a 3-month content plan with specific article ideas, posting schedule, and promotion strategy.
"""
response = send_message(goal)
print("\nAssistant Response:\n")
print(response)
Update the ASSISTANT_ID
and THREAD_ID
variables with the values you saved earlier.
Run the script to interact with your assistant:
bash
python interact.py
Step 5: Make Your Assistant More Agentic (15 minutes)
To enhance the agentic capabilities of your assistant, let's add function calling to allow it to take specific actions. Create a file named agentic_assistant.py
:
python
import os
import time
import json
from datetime import datetime, timedelta
from openai import OpenAI
from dotenv import load_dotenv
# Load environment variables
load_dotenv()
# Initialize OpenAI client
client = OpenAI(api_key=os.getenv("OPENAI_API_KEY"))
# Replace with your actual IDs
ASSISTANT_ID = "your_assistant_id_here"
THREAD_ID = "your_thread_id_here"
# Define available tools
tools = [
{
"type": "function",
"function": {
"name": "search_topics",
"description": "Search for trending topics related to a specific domain",
"parameters": {
"type": "object",
"properties": {
"domain": {
"type": "string",
"description": "The domain or industry to search for trending topics"
},
"limit": {
"type": "integer",
"description": "The maximum number of topics to return"
}
},
"required": ["domain"]
}
}
},
{
"type": "function",
"function": {
"name": "generate_content_calendar",
"description": "Generate a content calendar for a specified time period",
"parameters": {
"type": "object",
"properties": {
"start_date": {
"type": "string",
"description": "The start date for the calendar (YYYY-MM-DD)"
},
"end_date": {
"type": "string",
"description": "The end date for the calendar (YYYY-MM-DD)"
},
"frequency": {
"type": "string",
"description": "How often to post content (daily, weekly, bi-weekly, monthly)"
},
"topics": {
"type": "array",
"items": {
"type": "string"
},
"description": "List of topics to include in the calendar"
}
},
"required": ["start_date", "end_date", "frequency"]
}
}
}
]
# Update the assistant with tools
client.beta.assistants.update(
assistant_id=ASSISTANT_ID,
tools=tools
)
# Function implementations
def search_topics(domain, limit=5):
"""Simulate searching for trending topics"""
# In a real implementation, this would call an external API or database
trending_topics = {
"ai": [
"Agentic AI applications in small business",
"AI-powered customer service automation",
"Low-code AI tools for non-technical users",
"ROI measurement for AI implementations",
"Privacy-preserving AI for sensitive data",
"AI integration with legacy systems",
"Vertical-specific AI solutions"
],
"small business": [
"Digital transformation for small retailers",
"Automation tools for solopreneurs",
"AI-powered marketing on a budget",
"Customer data platforms for small businesses",
"Subscription models for service businesses",
"Remote team management tools",
"Local SEO strategies for 2025"
]
}
# Get topics for the requested domain or return a default message
topics = trending_topics.get(domain.lower(), ["No trending topics found for this domain"])
return topics[:limit]
def generate_content_calendar(start_date, end_date, frequency, topics=None):
"""Generate a content calendar based on parameters"""
# Parse dates
start = datetime.strptime(start_date, "%Y-%m-%d")
end = datetime.strptime(end_date, "%Y-%m-%d")
# Determine posting interval
if frequency == "daily":
interval = timedelta(days=1)
elif frequency == "weekly":
interval = timedelta(weeks=1)
elif frequency == "bi-weekly":
interval = timedelta(weeks=2)
else: # monthly
interval = timedelta(days=30)
# Generate calendar
calendar = []
current_date = start
topic_index = 0
while current_date <= end:
if topics and len(topics) > 0:
topic = topics[topic_index % len(topics)]
topic_index += 1
else:
topic = "TBD"
calendar.append({
"date": current_date.strftime("%Y-%m-%d"),
"topic": topic,
"status": "Planned"
})
current_date += interval
return calendar
def process_tool_calls(tool_calls):
"""Process tool calls from the assistant"""
results = []
for tool_call in tool_calls:
function_name = tool_call.function.name
function_args = json.loads(tool_call.function.arguments)
if function_name == "search_topics":
domain = function_args.get("domain")
limit = function_args.get("limit", 5)
result = search_topics(domain, limit)
elif function_name == "generate_content_calendar":
start_date = function_args.get("start_date")
end_date = function_args.get("end_date")
frequency = function_args.get("frequency")
topics = function_args.get("topics", [])
result = generate_content_calendar(start_date, end_date, frequency, topics)
else:
result = {"error": f"Unknown function: {function_name}"}
# Submit the tool outputs
client.beta.threads.runs.submit_tool_outputs(
thread_id=THREAD_ID,
run_id=tool_call.id,
tool_outputs=[
{
"tool_call_id": tool_call.id,
"output": json.dumps(result)
}
]
)
results.append({
"function": function_name,
"result": result
})
return results
def interact_with_assistant(message_content):
"""Send a message to the assistant and handle the complete interaction"""
# Add the user message to the thread
client.beta.threads.messages.create(
thread_id=THREAD_ID,
role="user",
content=message_content
)
# Run the assistant on the thread
run = client.beta.threads.runs.create(
thread_id=THREAD_ID,
assistant_id=ASSISTANT_ID
)
# Wait for the run to complete or require action
while True:
run_status = client.beta.threads.runs.retrieve(
thread_id=THREAD_ID,
run_id=run.id
)
if run_status.status == "completed":
break
elif run_status.status == "requires_action":
# Process required actions (tool calls)
tool_calls = run_status.required_action.submit_tool_outputs.tool_calls
process_tool_calls(tool_calls)
elif run_status.status in ["failed", "cancelled", "expired"]:
return f"Run ended with status: {run_status.status}"
time.sleep(1)
# Get the assistant's messages
messages = client.beta.threads.messages.list(
thread_id=THREAD_ID
)
# Return the latest assistant message
for message in messages.data:
if message.role == "assistant":
return message.content[0].text.value
return "No response received."
# Example interaction
if __name__ == "__main__":
# Example goal that will trigger agentic behavior
goal = """
I need a content strategy for my AI tools blog.
First, find trending topics in the AI space.
Then, create a content calendar for the next 2 months with weekly posts.
Finally, suggest how I should promote this content.
"""
print("Sending request to agentic assistant...\n")
response = interact_with_assistant(goal)
print("\nAssistant Response:\n")
print(response)
Update the ASSISTANT_ID
and THREAD_ID
variables with your values and run:
bash
python agentic_assistant.py
Step 6: Observe Agentic Behavior in Action
Notice how the assistant:
Breaks down your goal into manageable steps
Proactively calls functions to gather information and create resources
Makes decisions about what information is relevant
Synthesizes a complete strategy based on the collected information
Maintains context throughout the interaction
This demonstrates the key differences between traditional and agentic AI:
It's proactive rather than reactive
It handles a multi-step workflow without explicit instructions for each step
It makes decisions about what tools to use and when
It adapts its response based on the information it gathers
Taking It Further:
To make your assistant even more agentic, consider:
Adding more tools: Expand functionality with tools for content analysis, SEO research, or social media posting.
Implementing feedback loops: Allow the assistant to learn from the success of its recommendations.
Creating agent specialization: Develop multiple assistants with different specialties that can collaborate.
Adding memory persistence: Store important information in a database for long-term reference.
Implementing scheduled runs: Have your assistant proactively check for new information or perform regular tasks.
The key to effective agentic AI is giving it clear goals while allowing flexibility in how it achieves them. As you experiment, focus on defining what success looks like rather than prescribing exact steps—this allows the agentic capabilities to shine.
WHAT'S NEXT
Next week, we'll explore "Building Multi-Agent Systems for Content Creation" – a deep dive into how multiple specialized AI agents can work together to transform your creative workflow.
Until then, experiment with the OpenAI Assistants API tutorial and let us know what you build!
john
Founder, Tech4SSD
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