MCP For Claude Marketplace
Kicker Transition Radius Calculator

Kicker Transition Radius Calculator MCP Connector for Claude

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Calculate optimal jump geometry and rider forces based on speed, weight, and snow conditions.

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

This MCP server provides precise engineering calculations for snow sports enthusiasts and jump builders. It connects AI agents to physics-based models to determine the ideal transition radius, takeoff angles, and landing distances. Users can use calculate_transition_geometry to plan jump dimensions, analyze_rider_forces to predict G-forces, adjust_for_snow_conditions to account for powder or hard-pack surfaces, and get_safety_profile to evaluate jump safety. It is compatible with Cursor, VS Code, Claude Desktop, and Windsurf via Vinkius Edge.

snowboardingskiingjump-buildingphysics-calculatorsnow-sports

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

adjust_for_snow_conditions

Modifies the theoretical geometry and force calculations based on the real-world surface

analyze_rider_forces

Calculates the physical impact and intensity of the transition on the rider

calculate_transition_geometry

Determines the primary geometric properties required to hit a specific landing distance

get_safety_profile

Evaluates if a specific kicker design is safe for a given rider and speed

See how to talk to your AI agent using Kicker Transition Radius Calculator.

Calculate the jump geometry for an approach speed of 10 m/s, a rider weight of 75 kg, a target landing distance of 15 meters, and a takeoff angle of 30 degrees.

The calculated transition radius is 8.45 meters with a flight time of 1.2 seconds.

What are the expected G-forces for a transition with a radius of 5 meters at 12 m/s for a 70 kg rider?

The peak G-force is 3.89 Gs with a total force of 261.5 Newtons.

Is a jump with a 4.5 G-force safe for a 80 kg rider with a 6 meter radius?

The risk level is High. It is advised to increase the transition radius to reduce peak G-forces.

You can use the `adjust_for_snow_conditions` tool to modify your theoretical radius based on whether you are riding on powder, hard-pack, or slush.

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