Rider Impact Velocity Engine

Rider Impact Velocity Engine MCP Connector for Claude

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High-precision kinematic engine for calculating water impact profiles.

4 tools Official Updated Oct 1, 2026 Official Vinkius Partner

This MCP server provides high-precision kinematic calculations for riders falling toward water. It accounts for aerodynamic drag, gravity, and body orientation to determine the exact physical conditions at the moment of contact. Use calculate_impact_profile to find impact velocity, angle, and energy dissipation, or get_drag_coefficient_for_position to understand how different body orientations affect air resistance. It is an essential tool for analyzing descent physics and impact intensity.

physicskinematicsaerodynamicsimpactsimulation

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

calculate_energy_dissipation_by_mass

Calculate the kinetic energy dissipated upon impact based on rider mass

calculate_impact_profile

Calculate the exact physical conditions at the moment of water impact

get_drag_coefficient_for_position

Determine the aerodynamic properties of a specific body position

predict_velocity_at_height

Predict the rider speed and angle at a specific intermediate height

See how to talk to your AI agent using Rider Impact Velocity Engine.

What will be the impact velocity for a 50m fall starting at 5m/s with a tucked position?

The impact velocity for a 50m fall in a tucked position is 28.4 m/s.

How much energy is dissipated if a 75kg rider hits the water at 30m/s?

The energy dissipation for a 75kg rider at 30m/s is 33,750 Joules.

What is the drag coefficient for an extended body position?

The drag coefficient for an extended position is 1.2 with a cross-sectional area of 0.7 m².

Body position changes the drag coefficient and cross-sectional area. A 'tucked' position reduces drag, while an 'extended' position increases it, directly impacting the final `impactVelocity`.

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