Board Carve Radius Engine

Board Carve Radius Engine MCP Connector for Claude

A+

Physics-driven engine for calculating surfboard turning mechanics, G-forces, and spray patterns.

4 tools Official Updated Oct 1, 2026 Official Vinkius Partner

This MCP server provides high-fidelity physics calculations for surfboard performance. It allows AI agents to determine the precise turning mechanics of a planing hull. Use calculate_carve_radius to find the turning path, calculate_turn_gforce to measure physical load, simulate_spray_trajectory to predict water displacement, and get_optimized_configuration to find the best equipment setup for specific maneuvers.

surfphysicsfluid-dynamicshydrodynamicsperformance

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

calculate_carve_radius

Determines the primary turning radius of the board based on rider input and board geometry

calculate_turn_gforce

Calculates the physical gravitational load experienced by the rider during the carve

get_optimized_configuration

Recommends the ideal fin setup or rocker for a target radius

simulate_spray_trajectory

Predicts the visual pattern and direction of the water spray kicked up by the rail

See how to talk to your AI agent using Board Carve Radius Engine.

What is the turning radius for a 180cm board at 5m/s with a 30 degree edge angle and a thruster fin setup?

The calculated turning radius is 3.45 meters with a stability score of 0.82.

How much G-force will I feel if I carve at 6m/s with a 2.5 meter radius and a total mass of 85kg?

You will experience a G-force of 1.48, which is categorized as moderate load intensity.

Predict the spray pattern for a hard rail at 4m/s with a high rocker profile and 45 degree edge angle.

The spray will reach a height of 0.85 meters at a 35 degree angle with high volume intensity.

The `calculate_carve_radius` tool uses fluid dynamics models to estimate the path based on edge angle, speed, and fin configuration.

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