force = mass x accelerationThat is Newton's Second Law.
All three of Newton's laws apply in all cases.
Its a matter of being scientifically rigorous. You can not claim the 2nd law as a law unless you first establish the first law.
Newton's first law, the law of inertia, states that an object will remain at rest or in uniform motion unless acted upon by an external force. It applies to objects in both motion and at rest.
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.
Newton's Third Law applies everywhere.
force = mass x accelerationThat is Newton's Second Law.
Newtons third law says that the action and reaction forces in any situation will always be equal.
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.
law of comparative advantage
Newton's Second law involves acceleration which is changing the velocity. Velocity can be changed in two ways, direction or speed, so Newton's Law applies to both.
Its a matter of being scientifically rigorous. You can not claim the 2nd law as a law unless you first establish the first law.
It states newtons law of gravitation
Yes. The U.S. Constitution applies as the supreme law in ANY place that the U.S. has jurisdiction, regardless of whether military or civilian law applies. Now, the exact details of how the Constitution applies in specific cases can vary, depending on the situation. In addition, military law applies over civilian law when on a U.S. military base, rather than a U.S. territory (where only civilian law applies).
Newton's first law, the law of inertia, states that an object will remain at rest or in uniform motion unless acted upon by an external force. It applies to objects in both motion and at rest.