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Concrete Properties MCP Server

MCP Server

Unified API for reinforced concrete section analysis

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Updated Jun 2, 2025

About

The Concrete Properties MCP Server exposes the Concrete‑Properties Python library via a Model Context Protocol interface, enabling AI-driven calculation of section geometry, capacities, and interaction diagrams for reinforced concrete designs.

Capabilities

Resources
Access data sources
Tools
Execute functions
Prompts
Pre-built templates
Sampling
AI model interactions

Concrete Properties MCP Server Overview

Concrete‑Properties‑MCP: A Unified AI Interface for Reinforced Concrete Analysis

Concrete‑Properties‑MCP solves a common pain point for structural engineers and developers building AI‑augmented design tools: the lack of a single, consistent API to access all the mathematical and geometric operations required for reinforced concrete section analysis. By exposing the functionality of the well‑maintained Python library through the Model Context Protocol, this server lets AI assistants calculate section properties, bending capacities, and interaction diagrams without the user writing boilerplate code or handling complex data conversions. The result is a seamless, programmable workflow that can be integrated into larger AI‑driven design assistants or cloud services.

What the Server Provides

The MCP server offers a rich set of tools that cover every stage of concrete section evaluation. It can compute basic geometric attributes—area, centroid, moments of inertia—for both rectangular and arbitrary concrete shapes. It also handles the transformation of these properties when reinforcement is added, enabling accurate stiffness and strength predictions. For reinforced concrete analysis, the server calculates axial, bending, and combined capacities, producing interaction diagrams that map allowable load combinations. Additionally, it supports the definition of multiple concrete grades and steel types, allowing users to model realistic material behavior across projects.

Key Features Explained

  • Geometric Property Calculations: Methods such as and return all necessary shape metrics in a single call, eliminating the need for manual integration of multiple libraries.
  • Capacity and Interaction Analysis: Functions like provide axial‑bending capacity values for a given axial load, while and generate full interaction diagram points.
  • Visualization: The server can produce plots of the interaction diagrams (, ), giving AI assistants instant visual feedback that can be relayed to end‑users or stored for reporting.
  • Configurable Material Parameters: Through a JSON configuration file, users can adjust mesh size, concrete stress‑block coefficients, and reinforcement properties, enabling the server to adapt to different design codes or custom material models.

Real‑World Use Cases

  • AI‑Assisted Design Review: An AI assistant can query the server to verify that a proposed section meets code requirements, automatically generating capacity tables and visual plots for inclusion in design reports.
  • Educational Tools: Instructors can build interactive tutorials where students input section dimensions and receive instant calculations and diagrams, facilitating hands‑on learning of reinforced concrete concepts.
  • Rapid Prototyping: Start‑ups developing construction software can prototype new features—such as automated rebar layout optimization—by leveraging the server’s API without reinventing core calculation logic.
  • Compliance Auditing: Compliance teams can integrate the server into audit workflows, checking thousands of sections against design codes in a fraction of the manual effort.

Integration with AI Workflows

Because Concrete‑Properties‑MCP adheres to the MCP specification, it can be invoked by any AI client that supports the protocol, such as Claude Desktop or custom GPT‑based assistants. The server’s tools are exposed as stateless functions, allowing the AI to compose complex queries: for example, first calculate section properties, then pass those results into a capacity function, and finally request a visual diagram—all within a single conversational turn. This declarative style fits naturally into AI‑driven design assistants, where the user’s intent is translated into a chain of tool calls.

Standout Advantages

  • Single Source of Truth: By centralizing concrete and reinforcement calculations, the server eliminates discrepancies that arise when developers stitch together multiple libraries.
  • Extensibility: The configuration file and modular tool design make it straightforward to add new material models or analysis methods without breaking existing integrations.
  • Performance: Leveraging the efficient backend, the server delivers results in milliseconds, ensuring that AI assistants remain responsive even when processing large sets of sections.

Concrete‑Properties‑MCP empowers developers to embed sophisticated reinforced concrete analysis into AI workflows, streamlining design processes and enhancing the accuracy of engineering decisions.