Newton's first Law (The velocity of an object remains constant unless...) does apply to rotating objects, but the fact that an object is rotating is not specially relevant to application of the First Law.
Yes. Newtons three laws of physics apply to everything in our universe. Only when you study molecular structure and the early formation of the universe do you have to use Einstein's Theories.
Yes, Newton's first law of motion applies to bicycling. It states that an object in motion will stay in motion unless acted upon by an external force. When you're riding a bike, you will keep moving forward at a constant speed unless you apply the brakes or encounter obstacles that cause you to stop.
Tell us the situation, and we'll apply Newton's Laws.
Newton's First Law of Inertia applies to objects at rest staying at rest and objects in motion staying in motion unless acted upon by an external force. It describes the concept of inertia, which is the tendency of an object to resist changes in its motion.
All three of Newton's laws apply in all cases.
it applies to the earth and moon because their two objects in the universe that attract each other.
it applies to the earth and moon because their two objects in the universe that attract each other.
it applies to the earth and moon because their two objects in the universe that attract each other.
All objects, whether moving or not.
A capstan. It is a rotating machine used to apply force to ropes or cables, typically to lift heavy objects or tension lines. By rotating the capstan, the force applied to the rope or cable can be adjusted as needed.
Yes.
Yes
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Yes.
Yes. Newtons three laws of physics apply to everything in our universe. Only when you study molecular structure and the early formation of the universe do you have to use Einstein's Theories.
Newton's Third Law applies everywhere.
Yes, Newton's first law of motion applies to bicycling. It states that an object in motion will stay in motion unless acted upon by an external force. When you're riding a bike, you will keep moving forward at a constant speed unless you apply the brakes or encounter obstacles that cause you to stop.