MCP For Claude Marketplace
Diaphragm Wall Design

Diaphragm Wall Design MCP Connector for Claude

A+

Simulate staged excavation and calculate structural demands for diaphragm walls.

4 tools Official Updated Oct 1, 2026 Official Vinkius Partner
More Details Connect to Claude

This MCP server provides specialized engineering tools for designing diaphragm walls in deep excavations. It simulates the staged excavation process to calculate critical structural responses, including wall moment and shear diagrams. Engineers can use analyze_wall_stability to determine maximum forces, calculate_strut_loads to find axial compressive loads on support systems, and determine_embedment_requirement to ensure stability against sliding or kicking out. It also allows querying specific soil properties at any depth using get_soil_properties_at_depth.

geotechnicalexcavationstructural-analysissoil-mechanicsdiaphragm-wall

4 tools expose this connector's capabilities to your AI agent.

calculate_strut_loads

Determines the compressive forces acting on each installed strut

determine_embedment_requirement

Calculates the minimum depth the wall must be embedded below the excavation base to ensure stability

get_soil_properties_at_depth

Retrieves the specific physical properties of the soil at a requested vertical coordinate

analyze_wall_stability

Calculates the primary structural responses of the wall throughout the excavation process

See how to talk to your AI agent using Diaphragm Wall Design.

Calculate the stability of a 15m excavation with a 0.8m thick wall and a water table at 3m.

The analysis shows a maximum bending moment of 450 kNm/m and a maximum shear force of 120 kN/m for the specified excavation depth and soil profile.

What are the forces on struts installed at 5m and 10m for this excavation?

The strut at 5m is experiencing a compressive force of 250 kN, and the strut at 10m is experiencing 310 kN.

How deep must the wall be embedded for a 20m excavation?

The minimum required embedment depth to ensure stability is 6.5 meters.

The tool accounts for hydrostatic pressure by using the provided groundwater level to calculate the additional lateral pressure acting on the wall and the soil.

Related Connectors

Ground Freezing Design

Ground Freezing Design MCP

4 tools Official

Engineering tool for calculating freeze-wall formation parameters for shaft and tunnel excavations.

A+ View details →
Concrete Crack Width Analyzer

Concrete Crack Width Analyzer MCP

4 tools Official

Calculate and verify concrete crack widths based on structural reinforcement and environmental exposure.

A+ View details →
Column Sizing Estimator

Column Sizing Estimator MCP

4 tools Official

Preliminary sizing for reinforced concrete and steel columns based on vertical load accumulation.

A+ View details →
Eiffel Structural Prover

Eiffel Structural Prover MCP

1 tools Official

Peak season. 18,000 failed fulfillments in 23 minutes. Processing center collapsed at 4x normal volume. Plan said 'additional staff will handle it.' Nobody calculated the load. Nobody tested what happens when sorting exhausts while staging overflows while delivery schedules expire simultaneously. Eiffel calculated wind force at every height — 7 tons/m² at the summit. He manufactured 18,038 iron pieces to 0.1mm tolerance, tested each individually. This tool forces structural rigor: quantify loads, modularize components, account for environmental forces, prove with math, align stakeholders.

A+ View details →