Answer:
<em>The drag (air resistance) it experiences along its flight to the basket, due to the shape and surface area of the socks, the size of the sock (weight), and the speed with which the socks is tossed.</em>
Explanation:
The socks, like every other particle or body travelling through air is met by a resistance that impedes its motion. <em>This resistance is due to the air molecules around, that collide with the body as it travels through them</em>. The resistance offered by this force is proportional to the surface area of the body that collides with the air molecule, so, <em>rolling the socks into a ball reduces the effect of air resistance on the socks, compared to the one tossed without rolling</em>. Air resistance is also <em>largely dependent on the relative motion of the body and the air molecules, the density of the fluid (air), and the size of the body (weight).</em>
Therefore, whether the socks lands in the basket or not is <em>affected by the drag (air resistance) it experiences along its flight to the basket, due to the shape and surface area of the socks, size of the socks (weight), and the speed with which the socks is tossed.</em>
The rate of change of d(t) at t = 2 and t = 6 is the ratio between the change of distance (difference between the distances) to the time elapsed. That is,
r = (576 - 64) / (6 - 2) = 128 ft /s
The rate of change is equal to 128 ft/s and this represents the average speed at this time interval.
Answer:
Check the explanation
Explanation:
To tackle situations like the one above, the rate of gravity of that star must be equal to the rate of power output but we don’t have radius of that star. Also temp is not mentioned. And emissivity of star is also not mentioned. So the only possible way is like Einstein mass energy relationship E=mc^2=6.5380e40
power =E/Time so this energy is transferred per sec.