The kinetic energy of the launch vehicle is 1.41Γ—10131.41\times 10^{13}1.41Γ—1013 joules.

Quick Scoop πŸš€

We use the kinetic energy formula for a moving object:

KE=12mv2KE=\tfrac{1}{2}mv^2KE=21​mv2

where mmm is mass and vvv is velocity. This is the standard expression for translational kinetic energy in physics and is widely used in textbooks and learning resources.

Given:

  • Mass m=500,000textkgm=500{,}000\\text{kg}m=500,000textkg
  • Velocity v=7,500textm/sv=7{,}500\\text{m/s}v=7,500textm/s

Step-by-step:

  1. Square the velocity:

v2=7,5002=56,250,000v^2=7{,}500^2=56{,}250{,}000v2=7,5002=56,250,000

  1. Multiply by the mass:

mv2=500,000Γ—56,250,000=2.8125Γ—1013mv^2=500{,}000\times 56{,}250{,}000=2.8125\times 10^{13}mv2=500,000Γ—56,250,000=2.8125Γ—1013

  1. Take half of that:

KE=12Γ—2.8125Γ—1013=1.40625Γ—1013textJKE=\tfrac{1}{2}\times 2.8125\times 10^{13}=1.40625\times 10^{13}\\text{J}KE=21​×2.8125Γ—1013=1.40625Γ—1013textJ

Rounded to three significant figures:

Kinetic energy β‰ˆ 1.41Γ—1013textJ1.41\times 10^{13}\\text{J}1.41Γ—1013textJ

That’s about 14 trillion joules of kinetic energy β€” an enormous amount, reflecting just how energetic orbital-class rockets are.

Information gathered from public forums or data available on the internet and portrayed here.