Artificial intelligence is changing quickly from simple chatbots to more capable autonomous agents that exhibit reasoning, coordination, and execution of complex tasks. Microsoft has recently made Agent Framework publicly available in public preview as an open-source SDK and runtime to ease the orchestration of multi-agent systems, an important step forward for enterprises adopting agentic AI to alleviate fragmentation in tooling while now providing a bridge between experimenting and production.-grade deployment.
The Microsoft Agent Framework solves a key developer dilemma: choosing between cutting-edge AI research and stable, production-ready tools. It unifies two frameworks:

This merger creates a unique platform where you can build a working AI agent in under 20 lines of code without sacrificing the ability to create complex, multi-agent workflows for commercial use.
The core architecture of this framework is comprised of four foundational elements:
The Microsoft Agent Framework is built on a principle of open standards and interoperability, ensuring agents can communicate across different platforms and integrate seamlessly into existing enterprise systems. It supports emerging protocols to facilitate collaboration and easy tool integration.
Key Features
This approach allows developers to plug AI agents directly into their current technology stack, bridging the gap between innovative AI and established enterprise architecture.
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The framework provides a powerful research-to-production pipeline, combining AutoGen’s advanced orchestration patterns with the reliability required for enterprise use. This enables developers to manage complex, multi-step business processes through a structured and stateful workflow layer, which is essential for lengthy operations.
This makes the framework ideal for transforming complex business processes into automated, multi-agent workflows.
Microsoft Agent Framework offers a modular architecture that supports agent configuration by using both declarative and programmatic styles. Developers may define agents in YAML or JSON format so existing versioning and collaborative development workflows employ novel DevOps practices in defining agents. Declaring agent definitions allows teams to manage agent definitions in version control alongside application code within GitHub or Azure DevOps repositories.
Pluggable memory modules also allow a developer to store context and recall information through multiple back-end stores. Whether developers use in-memory storage for prototypes, Redis for scenarios with distributed agents, or some form of proprietary vector database for semantic search, the framework works to provide context regardless of architecture.
The framework is engineered for enterprise adoption, integrating critical production-grade capabilities for observability, security, and lifecycle management directly into its core.
Key Production Features:

This built-in focus on governance and operational excellence ensures that multi-agent systems can be trusted, managed, and scaled effectively within a real-world business environment.
For Python developers, installation is straightforward:
pip install agent-framework --pre
For .NET developers:
dotnet add package Microsoft.Agents.AI
Let’s examine how to create a functional agent that can interact with tools. Here’s a Python example that demonstrates the framework’s simplicity:
import asyncio
from agent_framework.azure import AzureOpenAIResponsesClient
from azure.identity import AzureCliCredential
# Define a custom tool function
def calculate_discount(price: float, discount_percent: float) -> float:
"""Calculate discounted price"""
return price * (1 - discount_percent / 100)
async def main():
# Initialize agent with Azure OpenAI
agent = AzureOpenAIResponsesClient(
credential=AzureCliCredential()
).create_agent(
name="ShoppingAssistant",
instructions="You help customers calculate prices and discounts.",
tools=[calculate_discount] # Register the tool
)
# Agent can now use the tool automatically
response = await agent.run(
"If a laptop costs $1200 and has a 15% discount, what's the final price?"
)
print(response)
asyncio.run(main())
The equivalent .NET implementation showcases similar elegance:
using Azure.AI.OpenAI;
using Azure.Identity;
using Microsoft.Agents.AI;
// Define a tool as a method
static double CalculateDiscount(double price, double discountPercent)
{
return price * (1 - discountPercent / 100);
}
var agent = new AzureOpenAIClient(
new Uri(Environment.GetEnvironmentVariable("AZURE_OPENAI_ENDPOINT")!),
new AzureCliCredential())
.GetOpenAIResponseClient("gpt-4")
.CreateAIAgent(
name: "ShoppingAssistant",
instructions: "You help customers calculate prices and discounts.",
tools: [CalculateDiscount]);
Console.WriteLine(await agent.RunAsync(
"If a laptop costs $1200 and has a 15% discount, what's the final price?"));
For more complex scenarios, the framework supports orchestrating multiple specialized agents. Here’s a workflow that coordinates research and writing agents:
from agent_framework.workflows import Workflow, WorkflowStep
from agent_framework.azure import AzureOpenAIResponsesClient
# Create specialized agents
researcher = client.create_agent(
name="Researcher",
instructions="You research topics and provide factual information."
)
writer = client.create_agent(
name="Writer",
instructions="You write engaging articles based on research."
)
# Define workflow
workflow = Workflow(
steps=[
WorkflowStep(
name="research",
agent=researcher,
output_variable="research_data"
),
WorkflowStep(
name="write",
agent=writer,
input_from="research_data",
output_variable="article"
)
]
)
# Execute workflow
result = await workflow.run(
input_data={"topic": "Future of Quantum Computing"}
)
print(result["article"])
This workflow illustrates how the framework manages state among agents, passing the researcher’s output as context to the writer automatically. An inherent checkpoint system manages elapsed time to ensure the workflow can resume if anything fails without restarting and losing what was previously done.
Several leading organizations are already using the Microsoft Agent Framework in real-world scenarios. Here are a few examples:
The Voice Live API is now generally available. It offers a unified, real-time speech-to-speech interface that combines:
This low-latency stream supports voice-initiated and voice-concluded multi-agent workflows, creating a more natural user experience.
Organizations using Voice Live API include:
These examples highlight how the framework supports multi-modal agent experiences, extending beyond text-based interactions.
As AI adoption increases, enterprises are placing greater emphasis on responsible and compliant use of intelligent agents. According to McKinsey’s 2025 Global AI Trust Survey, the biggest barrier to AI adoption is the absence of effective governance and risk-management tools.

An industry study shows that 50% of developers lose over ten hours per week due to fragmented tools and inefficient workflows. This productivity drain affects delivery timelines and developer morale. The Microsoft Agent Framework addresses this challenge by offering a unified development experience that minimizes context switching and streamlines agent creation, testing, and deployment.
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The Microsoft Agent Framework is shaping the future of enterprise AI by merging innovation with governance, multi-modal capabilities, and developer-first tooling. It transforms experimentation into scalable, compliant solutions. As intelligent agents become central to business workflows, this framework offers a reliable foundation.
What are your thoughts on adopting agentic AI in your organization using this framework? Let me know in the comment section below!