Answer:
1.54 m/s²
Explanation:
The free-fall acceleration is calculated as
g = w²r
Where w is the angular velocity of the satellite and r is the radius of the moon.
The angular velocity can be calculated as

Where T is the period, so
T = 110 min = 110 x 60 s = 6600 s
Then,

Finally, the radius of the moon is r = 1.7 x 10⁶ m, so the free-fall acceleration is

Therefore, the answer is 1.54 m/s²
Answer:
The correct one is that the force on B is half of the force on A
Explanation:
Because radius for the inside of the curve is half the radius for the outside and Car A travels on the inside while car B, travels at equal speed on the outside of the curve. Thus force on B will be half on A
Answer with Explanation:
We are given that
Mass of person,M=80 kg
Radius,r=3.5 m
Moment of inertia of merry,I=
Angular velocity of platform=
1.Law of conservation of angular momentum

Where
Substitute the values


Angular velocity when the person reaches the edge =0.418 rad/s
2.Rotational kinetic energy of the system before the person's walk

3.Rotational kinetic energy of the system after the person's walk


"White dwarf" is the one among the following choices given in the question that is <span>the most likely end for a star that is small to average in size. The correct option among all the options that are given in the question is the last option or option "D". I hope that this is the answer that has actually helped you.</span>
Answer:
Magnitude of induced emf will be 87.5 volt
Direction of induced emf will be clockwise
Explanation:
We have given number of turns in the coil N = 50
Initial area 
Time is given dt = 0.1 sec
Magnetic field B = 1.25 T
From Faraday's law of electromagnetic induction
n

So magnitude of induced emf is 87.5 volt
Direction of induced emf will be clockwise