Kinematics & Ballistics

Planetary Gravity Ballistics: Earth, Moon, Mars & Jupiter Lab

Compare ballistic flight time, apex height, and horizontal range across Lunar (1.62 m/s²), Martian (3.72 m/s²), Earth, and Jovian gravity.

Real-Time RK4 Kinematic / Dynamical Waveform Recorder

Physical Principles & Mathematical Derivation

R ∝ 1 / g ⇒ R_Moon ≈ 6.05 × R_Earth

Because both horizontal range and maximum apex height scale inversely with gravitational acceleration g, an astronaut launching a ball at 22 m/s on the Moon (g = 1.62 m/s²) achieves over six times the distance and flight duration seen on Earth!

Questions & Concepts

What physical equation governs Planetary Gravity Ballistics: Earth, Moon, Mars & Jupiter Lab?

R ∝ 1 / g ⇒ R_Moon ≈ 6.05 × R_Earth — Because both horizontal range and maximum apex height scale inversely with gravitational acceleration g, an astronaut launching a ball at 22 m/s on the Moon (g = 1.62 m/s²) achieves over six times the distance and flight duration seen on Earth!

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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