Kite Pull Mechanics Engine

Kite Pull Mechanics Engine MCP Connector for Claude

A+

Physics-based calculations for kite pull angle, force distribution, and rider stability.

4 tools Official Updated Oct 1, 2026 Official Vinkius Partner

This MCP server provides high-precision physics calculations for kite surfers and aeronautical enthusiasts. It allows AI agents to determine the exact pull angle and the resulting horizontal and vertical force split using calculate_pull_mechanics. Users can assess rider stability via calculate_force_stability, evaluate how harness positioning affects control with get_leverage_impact, or find the ideal kite position for specific driving forces using analyze_wind_window_position.

kiteboardingphysicsvector-mechanicswind-dynamicsaerodynamics

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

analyze_wind_window_position

Determines the optimal kite position to optimize the pull

calculate_force_stability

Determines how stable the rider is given the current force split

calculate_pull_mechanics

Calculates the fundamental pull angle and how the force is distributed

get_leverage_impact

Calculates how much the harness position affects the rider's control

See how to talk to your AI agent using Kite Pull Mechanics Engine.

What is the pull angle and force split for a kite at 45 degrees, with 15 m/s wind, 25m lines, and a 1.8m rider?

The pull angle is 32.5 degrees, with a horizontal force of 450N and a vertical force of 310N, resulting in a leverage ratio of 0.75.

How stable will I be with a horizontal force of 500N and a vertical force of 200N?

Your stability index is 0.85, which falls into the High stability category.

Where should I position the kite to get 300N of horizontal force with 20m lines and 12 m/s wind?

The optimal kite position angle is 35 degrees, which results in an estimated pull angle of 28 degrees.

You can use the `calculate_pull_mechanics` tool, providing the kite position angle, wind speed, line length, and rider height.

Related Connectors