Question
Question: An object experiences a net zero external unbalanced force, is it possible for the object to be trav...
An object experiences a net zero external unbalanced force, is it possible for the object to be travelling with a non-zero velocity? If yes, state the conditions that must be placed on the magnitude and direction of the velocity. If no, provide a reason. When a cornet is beaten with a stick, dust comes out of it. Explain.
Solution
Newton's first law: An object at rest remains at rest, or if in motion, remains in motion at a constant velocity unless acted on by a net external force
Complete step by step answer:
Newton's first moving rule is also claimed that, until an unequalled power has taken action, an object at rest remains at rest and a moving object remains in flight at the same pace and in the same direction.
The object moves at a non-null speed when an extra unbalanced net zero force is applied to the body. In reality, the object will stay in motion if an object moves and the movement is not rejected by any external force. The target must pass in a certain direction at a steady pace. The first law of Newton states that any object will remain in a straight line or in uniform motion until the external force causes force is obligated to change its condition. Normally, this is taken as an inertia term. The main point here is that if there is no net force due to unequal forces that operate on one object (when all external forces balance each other out), the object holds constant pace. If a tapestry is pounded with a hammer, it will come into effect suddenly, whilst the pores of the tapestry tend to be standing so that they sit safely in their place.
Note: Newton's laws of movement, the interaction between corporeal powers and body movement, first established by Sir Isaac Newton. The blood rushes from your head to your feet and stops rapidly on a down lift. You can tighten a hammer head against the wooden handle by tightening the bottom of the handle against a hard surface etc are few applications of Newton’s First law.