Kinematics & Ballistics

Elevated Tower & Cliff Projectile Motion Simulator

Solve asymmetric trajectories launched from initial height h₀ > 0 and discover why optimal range angle drops below 45°.

Real-Time RK4 Kinematic / Dynamical Waveform Recorder

Physical Principles & Mathematical Derivation

t_flight = [ vy0 + √(vy0² + 2·g·h0) ] / g

When launching from a cliff or tower of height h₀ > 0, extra fall distance favors higher horizontal velocity vx₀, shifting the maximum-range angle θ_opt = arcsin(v₀ / √(2v₀² + 2gh₀)) below 45°.

Questions & Concepts

What physical equation governs Elevated Tower & Cliff Projectile Motion Simulator?

t_flight = [ vy0 + √(vy0² + 2·g·h0) ] / g — When launching from a cliff or tower of height h₀ > 0, extra fall distance favors higher horizontal velocity vx₀, shifting the maximum-range angle θ_opt = arcsin(v₀ / √(2v₀² + 2gh₀)) below 45°.

How are the equations of motion integrated in this simulation?

Nonlinear differential equations are integrated at 240–300 Hz substeps using classical 4th-order Runge-Kutta (RK4) to maintain strict Hamiltonian energy accuracy.

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