Consider the rollercoaster drawn below that includes a circular loop. ignore friction.
(a) calculate the difference in your apparent weight at the top of the loop and the bottom of the loop. (
b) show also that as long as your speed is above the minimum needed, this answer doesn’t depend on the size of the loop or how fast you go through it
(c) in what direction is your apparent weight in the bottom of the loop (theta = 0°)?
(d) in what direction is your apparent weight at the top of the loop (theta = 180°)?
(e) on the side of the loop (theta = 90°)?
(f) what is the difference between your apparent weight at the bottom of the loop (theta = 0°) and your weight at the side of the loop (theta = 90°)

0.11 m/s and 0.28 m/s should be correct

this is an example of "committed" time.

committed time, as contracted time, takes need over essential and available time since it is seen as profitable work. it alludes to the time allotted to keep up a home and family. at the point when a man is commuting using committed time this individual may feel that the drive is an obligation to family, for example, strolling youngsters to class or driving a mate to work. contracted and committed time clients may feel that their commute could really compare to the commute of important or leisure time clients on the grounds that their commute is profitable work. in this manner, they might be more disposed to pick a mechanized method of movement.  

in order to follow the instructions and complete the statements, i need to use data from table c of your student guide. can you think of a way to let me see your student guide for a while ? i can't answer the question without the data in table c.