The table lists the values of the constants used to calculate the electrical force and the gravitational force. which best explains how the constants affect the electrical and gravitational forces? a) the electrical force is much smaller than the gravitational force because 8.99 is much greater than 6.67. b) the electrical force is much larger than the gravitational force because 8.99 is much greater than 6.67. c) the electrical force is much smaller than the gravitational force because 109 is much greater than 10–11. d) the electrical force is much larger than the gravitational force because 109 is much greater than 10–11.

The answer that best explains how the constants affect the electrical and gravitational forces is: D) The electrical force is much larger than the gravitational force because 109 is much greater than 10-11.

Both electric force and gravitational force are conservative and obey inverse square law.

The electric force between two charges  q and q' separated by a distance r is calculated as-

Here K is the proportionality constant whose value is  

The gravitational force between two masses m and m' separated by a distance r is given as -

Here K' is the proportionality constant whose value is G .

G is called gravitational force constant and its value is given  

The electric force is a stronger force and gravitational force is a weaker force.

It is obvious that the value of constant for electric force is much larger than the gravitational force constant.

Out of the four options given in the question the the option four is the correct answer i.e D) The electrical force is much larger than the gravitational force because 10^9 is much greater than 10–11.

the skeletons of most mammals reach a certain size and then stop growing. however, many animals, including some mammals, keep growing throughout their lives. kangaroos, for example, just keep growing and growing until they die. also, the longer an animal lives the greater the chance it might catch some deadly disease.

it's when something is going so fast it makes a loud noise, breaking the sound barrier, for example: a jet makes a loud noise, not only cause of the jet but because they reached a point where they went so fast that you can year the noise from various parts, kinda like a police car, lets say the car was going   so fast that you hear the siren of the cop car right next to you, but the car is probably a mile a way, it's cos the siren was next to you a few seconds if you understand me