Forces are exerted on a submerged object due to water pressure not being balanced due to buoyancy. This is when the pressure at the bottom of the submerged object is greater than the fluid on the top of the object, thus projecting the object upward.
The pressure on your hand is balanced by the opposing forces acting on it. When you press your hand against a surface, the surface exerts an equal and opposite force back on your hand, balancing the pressure. This balance of forces prevents your hand from moving further into the surface or being pushed away.
If the freezer is stationary, the forces acting on it are likely balanced. The gravitational force pulling it downward is likely balanced by the normal force exerted by the floor, as well as any frictional forces that may oppose its motion. If the freezer is accelerating or moving, the forces may not be balanced.
Balanced forces act on an object when the forces pushing or pulling it cancel each other out, resulting in no motion. For example, when a book is resting on a table, the downward force of gravity is balanced by the upward force exerted by the table, keeping the book stationary.
The two balanced forces acting on the ball are the force of gravity pulling the ball downward and the normal force exerted by your hand upward to support the ball's weight.
An object sitting on a table without moving demonstrates balanced forces. The gravitational force pulling the object downward is balanced by the normal force exerted by the table upward. The object remains stationary because the forces cancel each other out.
When air pressure acts equally on an object from all directions, it results in balanced forces that cancel each other out. This balanced pressure is what allows objects to maintain their shape and not be crushed by the surrounding air pressure.
un-accelerated
The pressure on your hand is balanced by the opposing forces acting on it. When you press your hand against a surface, the surface exerts an equal and opposite force back on your hand, balancing the pressure. This balance of forces prevents your hand from moving further into the surface or being pushed away.
All of the forces exerted by the individual particles in a fluid combine to make up the pressure exerted by the fluid.
If the freezer is stationary, the forces acting on it are likely balanced. The gravitational force pulling it downward is likely balanced by the normal force exerted by the floor, as well as any frictional forces that may oppose its motion. If the freezer is accelerating or moving, the forces may not be balanced.
That is usually called pressure. For forces within solids, it may also refer to the stress.
Balanced forces act on an object when the forces pushing or pulling it cancel each other out, resulting in no motion. For example, when a book is resting on a table, the downward force of gravity is balanced by the upward force exerted by the table, keeping the book stationary.
The two balanced forces acting on the ball are the force of gravity pulling the ball downward and the normal force exerted by your hand upward to support the ball's weight.
An object sitting on a table without moving demonstrates balanced forces. The gravitational force pulling the object downward is balanced by the normal force exerted by the table upward. The object remains stationary because the forces cancel each other out.
The forces are called action-reaction forces according to Newton's third law of motion. For every action force, there is an equal and opposite reaction force.
Forces are balanced in a standing aeroplane. The force of gravity acting downward is counteracted by the normal force exerted by the ground, resulting in equilibrium. This allows the plane to remain stationary on the ground.
When an object is at rest, the forces acting upon it are balanced - there are no unbalanced forces.