Explore mass conversions, invariant physical inertia, relativistic Einstein energy equivalence (E = mc²), and celestial body weights across the solar system.
| Body | Surface Gravity | Gravitational Force | Earth Scale Equivalent |
|---|---|---|---|
| 🌍 Earth | 9.80665 m/s² | 686.47 N | 154.32 lbs (70 kg) |
| 🌙 Moon | 1.62 m/s² | 113.4 N | 25.49 lbs (11.55 kg) |
| 🪐 Mars | 3.72 m/s² | 260.4 N | 58.54 lbs (26.53 kg) |
| 🟠 Jupiter | 24.79 m/s² | 1,735.3 N | 390.11 lbs (176.96 kg) |
| 🟡 Venus | 8.87 m/s² | 620.9 N | 139.58 lbs (63.28 kg) |
| ☀️ Sun | 274 m/s² | 19,180 N | 4311.84 lbs (1953 kg) |
| 🪐 Saturn | 10.44 m/s² | 730.8 N | 164.29 lbs (74.55 kg) |
| 🌑 Mercury | 3.7 m/s² | 259 N | 58.23 lbs (26.39 kg) |
| ❄️ Pluto | 0.62 m/s² | 43.4 N | 9.76 lbs (4.41 kg) |
Understanding your calculation
Mass can be calculated from density and volume using mass = density × volume. Use a density appropriate to the selected material and conditions.
A density of 2 g/cm³ and a volume of 100 cm³ correspond to a mass of 200 g.
Mass is distinct from weight as a force. Approximate material densities and incomplete volume measurements can dominate the uncertainty.