Kite Maneuverability Physics

Kite Maneuverability Physics MCP Connector for Claude

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Calculate kite turning radius, angular velocity, and power spikes.

4 tools Official Updated Oct 1, 2026 Official Vinkius Partner

This MCP server provides physics-driven calculations for kite maneuverability. It allows AI agents to determine the turning radius, angular velocity, and power surge characteristics of different kite designs. Use calculate_turning_metrics to get primary maneuverability data, compare_design_maneuverability to evaluate agility between two designs, get_stability_impact to see how bridle configurations change flight behavior, and estimate_power_surge_envelope to predict power spikes across steering speed ranges.

kitephysicsaerodynamicsmaneuverabilitywind-sports

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

calculate_turning_metrics

Calculates the primary maneuverability metrics for a single kite configuration

compare_design_maneuverability

Compares two different kite designs to determine which is more agile

estimate_power_surge_envelope

Predicts the range of the power spike based on different steering speeds

get_stability_impact

Determines how different bridle configurations affect the turning radius

See how to talk to your AI agent using Kite Maneuverability Physics.

What is the turning radius for a C-kite with a 7m wingspan and 25m lines at a steering speed of 2m/s?

The calculated turning radius for that C-kite configuration is 12.45 meters.

Which is more agile: a C-kite with 6m wingspan or a Bow-kite with 6m wingspan?

The C-kite is more agile due to its smaller turning radius.

Predict the power spike range for a Bow-kite (5m wingspan, 20m lines) between 1m/s and 3m/s steering speed.

The predicted power spike range is between 45.2N and 115.8N, with an average of 78.5N.

You can use the `calculate_turning_metrics` tool by providing the wingspan, line length, steering input speed, and the kite design (C-kite or Bow-kite).

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