Yes.
An unbalanced force occurs when the net force acting on an object is not zero, causing a change in the object's motion or position. This can happen when forces are unequal in magnitude or opposite in direction, leading to acceleration or deceleration of the object.
it takes an unbalanced force to change an object's state of motion
It depends what the situation is. If an object is falling, the weight of the object, which is determined by the object's mass and the gravity, is the force causing it to accelerate. If you're talking about a box being pushed, you could have a person pushing it, which causes it to accelerate, but you also must take into account the force of friction combatting the applied force.
It causes it to accelerate, according to the equation, Force = mass * acceleration. Force should be thought of as the Rate of Change of Momentum of an object. Specifically F=dP/dt. Take the equation F= ma = mdV/dt = d(mV)/dt =dP/dt
change_direction,_speed_up,_and_accelerate">change direction, speed up, and change directionby Hamna IlyasEDITED BY AMIEE
Newton's secong law indicates that an object accelerates in the presence of a net force on it. But it doesn't mean that an object should accelerate when two forces act on it. It depends more on the orientation or direction of force. Say if 2 forces act in opposite directions then the net force would be 0 and thus no acceleration is caused. Hence take NET FORCE, not just force acting into consideration.
The amount of stress or force that an object can take.
The amount of stress or force that an object can take.
Perhaps you are thinking that the velocity should be proportional to the force, or something like that. That's not the way it works. It is the acceleration, not the velocity, that is proportional to the force, but it may take a while to change the velocity. If an object is moving in one direction and there is a force in the opposite direction, it may simply take a while for the velocity to change enough, so that it also moves in the direction of the force. For example, if you throw an object upwards, once you let it go, basically the only force acting on the object is gravity - which basically pulls it downward. Depending on the object's speed, it may take a while for the object to "turn around".
Mass does not depend on gravity. At zero gravity the object will have the same mass as at a higher gravity. What changes is the object's weight. The fact that the object still has mass can be ascertained from its inertia - it will take a force to make it move, or to stop it.Mass does not depend on gravity. At zero gravity the object will have the same mass as at a higher gravity. What changes is the object's weight. The fact that the object still has mass can be ascertained from its inertia - it will take a force to make it move, or to stop it.Mass does not depend on gravity. At zero gravity the object will have the same mass as at a higher gravity. What changes is the object's weight. The fact that the object still has mass can be ascertained from its inertia - it will take a force to make it move, or to stop it.Mass does not depend on gravity. At zero gravity the object will have the same mass as at a higher gravity. What changes is the object's weight. The fact that the object still has mass can be ascertained from its inertia - it will take a force to make it move, or to stop it.
it means like...... take a pen and put it in your hand you might not feel this but your hand is pushing against the pen if you keep the pen in the same place the forces are balanced but if you raise the pen the forces are unbalanced
Any force acting in the direction opposite to that of the motion. It could be a braking force, or drag (resistance from the fluid in which the body is moving), or friction (resistance from the body along which it is moving)