Es el conjunto de longitudes de onda de todas las radiaciones electromagnéticas
- Mass=m=142kg
- Acceleration=a=30m/s
- Force=F
Using Newton's second law



The power delivered is equal to the product between the voltage V and the current I:

This power is delivered for a total time of

, so the total energy delivered to the battery is
I'm not sure but I had this question on a benchmark I think its the density of the wire you need to find the density or the mass I'm not sure but i do remember this question