Current - APEX :) lol it said my answer wasn't long enough so yeah Hi
Kepler
Newton
Copernicus
B.) Kepler is the answer, it's correct
b. The object will have a decreasing moment of inertia.
c. The object will rotate with constant angular velocity.
d. The object will have an increasing moment of inertia.
e. The object will rotate with decreasing angular acceleration.
f. The object will rotate with constant angular acceleration.
Answer:
f. The object will rotate with constant angular acceleration.
Explanation:
We know that
τ = I α
τ=Torque
I=Moment of inertia of the object
α =Angular acceleration
The moment of inertia is constant for an object and it does not depends on the applied torque.
If applied torque is constant then the angular acceleration of the object will be constant because moment of inertia is constant.
If angular speed is constant then the angular acceleration will,be zero.But in this case object is having angular acceleration that is why it have varying angular speed.
Therefore option "f" is correct.
Kinetic energy, temperature, and thermal energy increase.
B.
Kinetic energy, temperature, and thermal energy decrease.
C.
Kinetic energy and temperature decrease; thermal energy increases.
D.
Kinetic energy and temperature increase; thermal energy decreases.
Answer:
The answer is A
Explanation:
Answer:
at rest because time is passing and speed is still at 0
Explanation:
The gravitational force acting on a 70.0 kg object on Earth is calculated using the formula w=mg and is equal to 686 N.
The gravitational force acting on a 70.0 kg object standing on the earth's surface can be calculated using the formula for weight (which is essentially the gravitational force on the object): w = mg, where m is the mass of the object and g is the acceleration due to gravity. On Earth, g is approximately 9.8 m/s².
Therefore, the gravitational force (weight) acting on this object can be calculated as follows: w = mg = (70.0 kg)(9.8 m/s²) = 686 N. Thus, the gravitational force on this 70.0 kg object standing on the earth's surface is 686 Newtons. It's important to understand that this force will vary if the object is moved to a location where g is different, like on the moon.
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