Yes, the dev mode mcp server is currently available in beta at no additional cost with Figma accounts. The beta provides full access to MCP functionality while the team gathers feedback and refines the implementation.
Figma MCP (Model Context Protocol) bridges the gap between visual design and production-ready code by enabling AI tools to understand design semantically
The Dev Mode MCP server integrates Figma with AI coding environments like VS Code, Cursor, and Claude for enhanced design-to-code workflows
MCP provides structured design context including components, variables, styling information, and Code Connect mappings to improve AI code generation accuracy
Currently in beta, the server runs locally at http://127.0.0.1:3845/sse and requires the Figma desktop app
Best practices include using semantic layer names, components, variables, and breaking down large selections for optimal results
The gap between beautiful designs and production-ready code has plagued development teams for years. Designers create pixel-perfect interfaces in Figma, but developers struggle to translate visual intent into functional components that align with existing design systems and codebases. Enter Figma MCP—a revolutionary bridge that enables AI tools to understand design semantically, transforming how teams approach design-to-code workflows.
Figma MCP leverages the Model Context Protocol to provide AI coding assistants with rich, structured context about your designs. Instead of relying on screenshots or manual handoffs, your AI tool can access components, variables, styling information, and Code Connect mappings directly from your Figma files. This comprehensive guide will walk you through everything you need to know about implementing and optimizing Figma MCP for your development workflow.
Model Context Protocol (MCP) is an open standard developed by Anthropic that enables large language models to access external tools, systems, and data sources securely. This open protocol creates a standardized way for AI applications to connect with various software platforms, providing richer context than traditional screenshot-based approaches.
Figma’s Dev Mode MCP server applies this protocol specifically to bring design context directly into AI coding tools. Rather than forcing AI assistants to guess design intent from visual inspection alone, the Figma MCP server acts as a bridge between Figma files and agentic coding environments. This creates seamless design-to-code translation workflows that understand the semantic meaning behind your designs.
The architecture consists of three key components: an MCP host (your coding environment), an mcp client that maintains connections, and the mcp server that interfaces with Figma. When you reference a specific node in your Figma file, the server provides structured data about components, variables, styles, and Code Connect mappings—giving AI tools the context they need to generate code that aligns with your design system and existing codebase patterns.
This semantic understanding represents a fundamental shift from traditional design handoff methods. Instead of manually documenting design decisions or relying on static screenshots, developers can leverage AI tools that truly comprehend design intent, component relationships, and systematic patterns within their Figma files.
Large language models excel at generating syntactically correct code, but they lack the team-specific context needed to create code that fits seamlessly into existing projects. Without understanding your design system, component library, naming conventions, and architectural patterns, even sophisticated AI tools can produce code that requires significant refactoring.
Traditional design-to-code workflows force developers to bridge this context gap manually. They examine screenshots, read design specifications, and translate visual elements into code while trying to maintain consistency with established patterns. This process is time-consuming, error-prone, and often results in inconsistent implementations that drift from design system standards.
Agentic coding tools represent a significant improvement by gathering context from multiple data sources—your codebase, documentation, and development environment. However, they still miss crucial design context that lives exclusively in your Figma files. This is where applications provide context through MCP servers becomes transformative.
The Figma dev mode mcp server fills this critical gap by surfacing design-specific context that AI models need to generate accurate, maintainable code. When your AI assistant understands component hierarchies, design tokens, responsive layouts, and interaction patterns directly from Figma, it can create code that naturally aligns with both your design intent and development standards.
Consider the difference between asking an AI tool to “create a button component” versus providing it with structured data about your existing button variants, color tokens, spacing variables, and Code Connect mappings. The latter approach yields components that integrate seamlessly with your design system rather than requiring manual adjustments to match established patterns.
The figma mcp server supplements visual data with nuanced design intent and systematic patterns, creating a comprehensive context foundation for AI-driven code generation. Unlike traditional approaches that rely solely on image analysis, MCP provides multiple types of structured information that help AI models understand not just what designs look like, but how they should function within your development ecosystem.
The server exposes several context tools that developers can configure based on their specific setup and design-to-code priorities. This flexibility allows teams to customize which context points are most valuable for their workflow, whether they’re focusing on component reuse, design token implementation, or responsive behavior patterns.
Pattern metadata provides the foundation for semantic design understanding. The mcp server surfaces information about components, variables, and styles in a structured format that reduces token usage in AI prompts while improving code precision. Instead of describing visual elements in natural language, the server provides direct references to design system elements that AI models can map to code constructs.
This metadata leverages existing design systems to guide AI tools toward correct implementation patterns. When the server identifies a button component with specific color and radius variables, it can direct the AI model to use corresponding design tokens rather than hardcoded values. This approach prevents the generation of irrelevant code that doesn’t align with established design patterns.
Code Connect integration represents a particularly powerful aspect of pattern metadata. By sharing exact file paths for components that have been connected to your codebase, the server enables agentic search capabilities that dramatically improve design-code alignment. AI tools can reference existing component implementations, understand established patterns, and generate code that follows proven architectural decisions.
Variables with code syntax defined in Figma can be directly provided to AI models, creating seamless integration between design tokens and development implementation. This direct mapping eliminates the manual translation step between design specifications and code, reducing errors and improving consistency across your application.
While structured metadata provides semantic understanding, visual screenshots offer essential context for interactive content and layout relationships that metadata alone cannot fully communicate. High-level screenshots help AI models understand overall design flow, spatial relationships between sections, and responsive layout behavior.
The image tool fetches visual representations that support design intent rather than encouraging pixel-perfect replication. When combined with Figma’s structured outputs, screenshots provide AI models with both the semantic understanding and visual context needed to generate appropriate code implementations.
This dual approach—structured data plus visual context—yields significantly better results than using either method in isolation. AI models can understand component hierarchies through metadata while using visual information to make informed decisions about layout, spacing, and responsive behavior.
Visual screenshots prove particularly valuable when working with complex layouts, custom illustrations, or unique design patterns that may not be fully captured in component metadata. The get_image tool ensures that AI models have access to complete design context, even for elements that don’t fit standard component patterns.
Pseudocode representations offer AI models clearer understanding of design behavior than metadata inspection alone, especially when connected to existing codebase patterns. The server can provide sample code that describes encapsulated functionality, UI sequences, and stateful component behavior.
When combined with Code Connect mappings and variable definitions, pseudocode context becomes even more effective. AI models can understand not just what interactions should occur, but how they should be implemented within your specific development framework and component architecture.
This behavioral context helps AI tools focus on functional differences rather than isolated visual elements. Instead of generating generic interaction code, models can create implementations that align with your established patterns for state management, event handling, and component communication.
Interactive behavior context proves especially valuable for complex components like forms, navigation elements, and data visualization interfaces where the design intent extends far beyond visual appearance.
Placeholder content within Figma files—including text, SVGs, images, layer names, and annotations—provides valuable context about how interfaces should be populated with real data. This content context helps AI models infer appropriate data models, content structures, and dynamic behavior patterns on the code side.
Layer names and annotations offer insights into designer intent that might not be captured in formal component specifications. Well-structured layer naming can communicate semantic meaning, content hierarchy, and functional relationships that inform code generation decisions.
Content context proves particularly valuable when generating interfaces that need to handle dynamic data, such as user profiles, product listings, or dashboard components. AI models can understand expected content patterns and generate appropriate data handling logic rather than creating static implementations.
This comprehensive context—combining metadata, visuals, behavior, and content—creates a rich foundation for AI-driven code generation that truly understands design intent rather than simply replicating visual appearance.
Getting started with the figma mcp server requires updating to the latest version of the Figma desktop app and configuring your preferred code editor to connect with the local mcp server. The setup process involves enabling the server in Figma’s preferences and configuring your AI coding environment to access available tools through the Model Context Protocol.
The dev mode mcp server runs locally at http://127.0.0.1:3845/sse and requires the desktop app to remain running for functionality. This local architecture ensures low latency and maintains privacy for your design data while providing real-time access to design context.
Currently supported code editors include VS Code, Cursor, Windsurf, and Claude Desktop. Each editor requires specific configuration steps, but the general process involves pointing your MCP client to the local server URL and enabling the connection through your editor’s settings interface.
Before beginning setup, ensure you have access to Figma files in your workspace and that your team has appropriate permissions for the designs you’ll be working with. The server provides context for any Figma file you can access, but structured files with well-organized components and variables will yield the best results.
In VS Code, access the MCP configuration through Code → Settings → Settings or by pressing ⌘, and searching for “MCP” to edit your settings.json file. Add the required configuration pointing to the local server URL, ensuring the connection is properly established between your editor and the Figma server.
For Cursor, navigate to cursor settings and locate the MCP server configuration section. Input the server endpoint details and save your configuration file. The process is similar across supported editors, with each providing specific UI for managing MCP server connections.
After configuring the server connection, restart both your Figma desktop app and code editor to ensure proper initialization. Open the chat toolbar (⌥⌘B in most editors) and switch to agent mode to access MCP tools. You should see indicators that the figma mcp server connection is active and available tools are loaded.
If tools don’t appear initially, verify that the Figma MCP server is enabled in your desktop app preferences and that your editor’s MCP client is properly configured. A successful connection is typically indicated by status badges in both Figma and your code editor, confirming that the server and client can communicate effectively.
The link-based workflow represents the primary method for referencing specific design sections when using figma mcp. Copy links to design sections by right-clicking frames in Figma and selecting “Copy link to section.” These URLs contain node-ids that the mcp server uses to identify and fetch relevant design data without requiring navigation to the actual Figma interface.
Paste Figma design links into your AI coding assistant’s input field along with clear, intentional prompts that specify your desired output. The AI assistant will use the dev mode mcp server to fetch design context, images, and variable definitions automatically, providing comprehensive information about the referenced design elements.
The server provides three primary tools for code generation: design context (structured metadata about components, variables, and styles), images (visual screenshots for layout understanding), and variable definitions (direct access to design tokens and systematic values). These tools work together to give AI models complete understanding of design intent and implementation requirements.
Server settings allow customization of code output types, including interactive React components, Tailwind implementations, and framework-specific patterns. You can configure which context points are most relevant for your development setup and adjust the level of detail provided to AI models based on your specific needs.
MCP clients extract node-ids from Figma URLs automatically, enabling seamless reference to specific design objects without manual configuration. When you provide a Figma link in your prompt, the client uses these identifiers to fetch relevant design data, making the integration between design tools and AI coding environments completely transparent.
This URL-based approach eliminates the need to manually specify design elements or navigate between applications. Simply reference the design section you want to implement, and the mcp server handles the complexity of extracting and structuring the appropriate context for your AI assistant.
The node-id extraction process is essential for accurate design information retrieval. Each design element in Figma has a unique identifier that allows the server to return precise context about components, their relationships, and associated design system elements. This granular access enables fine-tuned code generation that reflects specific design decisions and systematic patterns.
The seamless integration between Figma links and AI coding environments represents a fundamental shift in design-to-code workflows, eliminating traditional handoff friction and enabling real-time collaboration between design and development teams.
Structuring Figma files with semantic layer names and reusable components creates the foundation for effective MCP-driven code generation. Use descriptive, consistent naming conventions for layers, components, and variables that clearly communicate design intent and functional relationships. This semantic structure helps AI models understand component hierarchies and generate appropriate code architectures.
Link components to your codebase via Code Connect whenever possible to establish clear relationships between design elements and existing code implementations. This connection enables AI tools to reference proven patterns, maintain consistency with established architectures, and generate code that integrates seamlessly with your current development workflow.
Implement design variables for spacing, color, radius, and typography to provide clear design token context that AI models can map directly to code. Well-structured variable systems enable automatic propagation of design changes and ensure that generated code follows systematic patterns rather than using hardcoded values.
Employ Auto layout and annotations to communicate responsive design intent and interactive behavior clearly. These Figma features provide additional context that helps AI models understand how interfaces should adapt to different screen sizes and user interactions.
Write clear, intentional prompts that act like detailed briefs to teammates, providing specific context about desired output, framework preferences, and implementation requirements. Avoid vague requests and instead specify exactly what you want the AI tool to create, including component structure, styling approach, and integration points.
When AI results don’t match expectations, explicitly request specific tools in your prompts. For example, ask for design tokens instead of raw CSS values, or request component metadata when you need to understand structural relationships. This explicit guidance helps ensure that the AI assistant uses the most appropriate context for your specific needs.
Break down large Figma screens into smaller, logical components for better processing and more accurate results. The MCP server can handle complex designs, but focused requests typically yield higher-quality code that’s easier to review and integrate into your project.
Set project-level rules and conventions to maintain consistent MCP output across your team. Document preferred frameworks, naming conventions, and architectural patterns so that AI-generated code follows established team standards without requiring manual adjustments.
When encountering errors with the ‘get_code’ tool, the issue typically indicates that Cursor or your code editor cannot access referenced Figma components, often due to permission restrictions or server connectivity problems. This error commonly occurs when design content is hidden or when the MCP client loses connection to the figma mcp server.
Fix connection issues by restarting the Figma MCP Server through the desktop app preferences. Toggle the “Enable Dev Mode MCP Server” setting OFF then ON to reset the server connection. Additionally, restart your MCP Client by toggling the Figma server connection in your editor’s MCP settings to reestablish proper communication.
A green badge in Figma indicates a successful connection with your coding environment, confirming that the server is running and accessible to your AI tools. If this badge is missing or shows an error state, check that both the desktop app and your code editor are properly configured and running.
Verify that your configuration file includes the correct server URL (http://127.0.0.1:3845/sse) and that no firewall or security settings are blocking the local connection. Most connectivity issues stem from basic configuration problems or temporary server states that resolve with a simple restart.
The get_image tool can timeout when processing large design areas, particularly complex screens with many components or high-resolution assets. When encountering timeout errors, break down your design selection into smaller sections and process them iteratively to avoid overwhelming the server.
Image tool instability has been reported with certain AI models, including Claude-4-sonnet and Gemini 2.5-pro. If you experience frequent timeouts or errors with image processing, consider disabling these specific models in your coding environment settings or using alternative AI models that work fine with the current MCP implementation.
The image tool fetches embedded images and visual context but may struggle with very large or complex design files. Optimize your workflow by focusing on specific components or sections rather than attempting to process entire design systems at once. This approach provides better results and reduces the likelihood of timeout errors.
When image processing fails, fall back to using design context and variable definition tools to maintain productivity. The structured metadata often provides sufficient information for code generation, with visual context serving as supplementary rather than essential information for most development tasks.
Upcoming updates will include remote server capabilities that eliminate dependence on the desktop app, enabling cloud-based integrations and broader accessibility for distributed teams. This evolution will make Figma MCP more flexible and reduce the technical setup requirements for organizations adopting the protocol.
Deeper codebase integrations are planned to streamline setup processes and lower technical barriers for adoption. Future versions will likely include automated configuration, enhanced framework support, and more sophisticated Code Connect capabilities that further reduce manual setup requirements.
Enhanced support for annotations and Grid features will provide even richer design context for AI-driven code generation. These additions will enable more nuanced understanding of layout intent, responsive behavior, and design system relationships.
As the beta progresses, expect continued improvements to accuracy, performance, and developer experience based on user feedback and real-world usage patterns. The open standard nature of MCP ensures that community contributions and competitive tooling will drive rapid advancement in design-to-code automation capabilities.
Yes, the dev mode mcp server is currently available in beta at no additional cost with Figma accounts. The beta provides full access to MCP functionality while the team gathers feedback and refines the implementation.
VS Code, Cursor, Windsurf, and Claude Desktop currently support mcp servers. Each editor requires specific configuration, but all provide access to the same core MCP tools and functionality.
Yes, the mcp server currently requires the Figma desktop app to be running locally. Future updates will include remote server capabilities that eliminate this dependency.
The server works with any figma file you have access to, but structured files with well-organized components and variables provide the best results. Clean, systematic design organization significantly improves AI code generation quality.
Since the server runs locally, internet connectivity primarily affects syncing with Figma cloud rather than local MCP functionality. Most operations work fine with limited connectivity once your design files are locally cached.
The figma mcp represents a fundamental shift in how design intent translates into production code. By providing semantic context directly from design tools to AI coding environments, teams can automate significant portions of their design-to-code workflow while maintaining quality and consistency standards. As this technology matures, expect even greater integration between design systems and development workflows, ultimately enabling more efficient and accurate translation of creative vision into functional software.