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The next step in AI automation: Model Context Protocol (MCP)

Discover the basics of Model Context Protocol MCP, how it works in AI systems, and why developers are using it to link models with real-time tools and data.

Different types of AI models, from large language models to computer vision systems, are capable of supporting a wide range of tasks, including generating text, analyzing images, detecting patterns, and making predictions. However, connecting these models to real-world computer systems in a seamless, scalable way has typically required complex integration efforts.

While a model might perform well on its own, deploying it in practical environments often requires access to external tools, live data, or domain-specific context. Stitching these elements together usually involves custom code, manual setup, and limited reusability.

Recently, the concept of a Model Context Protocol (MCP) has been gaining attention in the AI community. MCP is an open standard that allows AI systems to exchange information with tools, files, and databases using a shared, structured format. Instead of building integrations for every use case, developers can use MCP to streamline how models access and interact with the context they need.

You can think of MCP as a universal adapter. Just like a travel adapter lets your devices plug into different power outlets around the world, MCP lets AI models plug into various systems, tools, and data sources without needing a custom setup for each one.

In this article, we’ll take a closer look at what MCP is, how it works, and the role it plays in making AI more effective in real-world applications. We’ll also explore some real-world examples of where MCP is being used.

What is Model Context Protocol?

Model Context Protocol (MCP) is an open standard created by Anthropic, an AI safety and research company known for building advanced language models. It gives AI models a clear way to connect with tools, files, or databases. 

Most AI assistants today rely on large language models to answer questions or complete tasks. However, those models often need extra data to respond well. Without a shared system, each connection must be built from scratch. 

For example, a chatbot designed to help with IT support might need to pull information from a company’s internal ticketing system. Without MCP, this would require a custom integration, making the setup time-consuming and difficult to maintain.

MCP solves that problem by acting as a common port for all tools and models. It doesn’t belong to any one company or model - rather, it’s a new concept for how AI systems can connect with external data and services.

Fig 1. MCP is like a common port for all tools and models.

Any developer can use MCP to build assistants that work with live information. This reduces setup time and avoids confusion when switching between tools or platforms. 

The origin and adoption of Model Context Protocol

Anthropic introduced the idea of Model Context Protocol (MCP) in November 2024. It started as an open-source project to improve how language models interact with tools and data. 

Since then, MCP has gained a lot of attention. It started with developers building internal tools for things like document search and code assistance. That early interest quickly grew, with larger companies beginning to use MCP in their production systems.

Fig 2. MCP vs. traditional AI integration.

By early 2025, support for MCP started spreading across the tech industry. OpenAI and Google DeepMind, two leading AI research labs, announced that their systems would work with the protocol.

Around the same time, Microsoft released tools to help developers use MCP more easily, including support for its popular products like Copilot Studio, which helps businesses build AI assistants, and Visual Studio Code, a widely used code editor.

Key components of Model Context Protocol

At the heart of MCP are three main parts: clients, servers, and a shared set of rules called the protocol. Think of it like a conversation between two sides: one asking for information and the other providing it.

In this setup, the AI system plays the role of the client. When it needs something, like a file, a database entry, or a tool to perform an action, it sends a request. On the other side, the server receives that request, grabs the needed information from the right place, and sends it back in a way the AI can understand.

This structure means developers don’t have to build a custom connection whenever they want an AI model to work with a new tool or data source. MCP helps standardize the process, making everything faster, simpler, and more reliable.

An overview of how MCP works

Here’s a walkthrough of how MCP connects an AI assistant with external data or tools:

  • The assistant checks what it knows: When a user asks something, the assistant first checks if it already has the answer. If it doesn’t, it decides to get help from another system.
  • It builds a request: Acting as an MCP client, the assistant creates a request. This includes what data it needs and why.
  • The request reaches the server: The request is sent to a server that’s connected to a tool, app, or database. The server can understand and handle the request using MCP’s rules.
  • The server does the work: It might search for data, run a query, update a file, or perform another action in the connected tool - whatever the assistant requested.
  • The server replies: The data is packaged in MCP format and sent back to the assistant. This helps the model understand it right away.
  • The assistant answers: With the updated context, the assistant uses the new information to complete its response. The user gets an answer that’s accurate, relevant, and based on real-time data.
Fig 3. How MCP works in AI applications.

Exploring real-world applications of MCP

Nowadays, MCP is already being used across a variety of tools and platforms that rely on real-time context. Here are some examples of how companies are using the protocol to connect language models with live systems and structured data:

  • Software development: Coding assistants are more helpful when they know what you’re working on. Tools like Zed (a fast, collaborative code editor) and Replit (an online platform for writing and running code) use MCP so their assistants can read open files and follow your changes as you code.

  • Enterprise assistants: Many companies use internal tools like wikis, help desks, or Customer Relationship Management (CRM) systems. Businesses like Apollo (a platform for sales teams) use MCP to let their assistants find information across these systems - without making users switch between apps.

  • Multi-tool agents: Some tasks span multiple systems. With MCP, assistants can search documents and send updates or messages smoothly.

  • Desktop assistants: Assistants that run on your computer sometimes need to access local files. The Claude desktop app, built by Anthropic as part of its family of AI assistants, uses MCP to handle these requests safely, keeping your data on your device rather than sending it to the cloud.
Fig 4. An example of how MCP handles data across multiple systems.

Using MCP to drive computer vision applications

Next, let’s take a closer look at a branch of AI where MCP is just beginning to emerge: computer vision.

While computer vision models like Ultralytics YOLO11 are great at identifying patterns and objects in images, their insights can become even more impactful when combined with the right context. 

In real-world applications, especially in healthcare, adding context like patient history, lab results, or clinical notes can significantly enhance the usefulness of model predictions, leading to more informed and meaningful outcomes.

That’s where the Model Context Protocol (MCP) comes in. While it isn’t widely used yet and is still a developing approach being explored by researchers and engineers, it shows a lot of potential. 

Enhancing medical imaging with context-aware AI and MCP

For instance, in the diagnosis of diabetic retinopathy, a condition that can cause vision loss in people with diabetes, an AI assistant can use MCP to coordinate multiple specialized tools. It might start by retrieving patient records from a database and assessing diabetes risk using a predictive model. 

Then, a computer vision model analyzes retinal images for signs of damage, such as bleeding or swelling, that indicate the presence or severity of retinopathy. Finally, the assistant can search for relevant clinical trials based on the patient’s profile. 

MCP enables all of these tools to communicate through a shared protocol, allowing the assistant to bring together image analysis and structured data in one seamless workflow.

Fig 5. A retinal image processed by an AI assistant using MCP.

Each tool is accessed through an MCP server, which enables the assistant to send structured requests and receive standardized responses. This eliminates the need for custom integrations and enables the assistant to combine image analysis with critical patient data in one smooth, efficient workflow. Although MCP is still new, there’s already a lot of research and ongoing work aimed at making use cases like this practically possible.

Pros and cons of Model Context Protocol

Here are some of the key advantages that MCP offers:

  • Consistent and standardized communication: The protocol ensures uniform request/response structures, making debugging and logging more manageable.

  • Improved modularity: Systems become more modular, allowing different components (models, tools, databases) to evolve independently.

  • Facilitates autonomy in Agentic AI: AI agents can reason and act across multiple tools without human-defined workflows, enabling more flexible, autonomous behavior.

On the other hand, here are a few limitations to keep in mind when it comes to MCP:

  • Initial setup complexity: Setting up MCP-compliant servers and hosts for existing systems requires engineering effort and potentially rethinking current architectures.

  • Performance overhead: Adding a protocol layer can introduce latency, especially if tools are distributed or accessed over networks.

  • Learning curve: Development teams need to understand MCP architecture (hosts, clients, servers) and how to design for it, which may slow down adoption.

Key takeaways

AI models are becoming more capable, but they still rely on access to the right data. The Model Context Protocol (MCP) offers developers a consistent and standardized way to establish those connections. Instead of building each integration from scratch, teams can follow a shared format that works across different tools and systems.

As adoption grows, MCP has the potential to become a standard part of how AI assistants are designed and deployed. It helps streamline setup, improve data flow, and bring structure to real-world model interactions. 

Join our growing community. Visit our GitHub repository to learn more about AI and explore our licensing options to get started with Vision AI. Want to see how it’s used in real life? Check out applications of AI in healthcare and computer vision in retail on our solutions page.

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