Two forces on a body in calm water:
-- Gravitational force, equal to the weight of the body (when it's in vacuum), directed down.
-- Buoyant force, equal to the weight of the water that would occupy the volume of the body if the body were not there, directed up.
If the body is actually "suspended" ... i.e. it will stay at any depth you place it, and will not rise or sink ...then it has "neutral buoyancy". The buoyant force is exactly equal and opposite to the gravitational force, so the NET force on the body is zero.
When a body is suspended in water, it experiences two main forces: buoyant force acting in the upward direction due to the water displaced by the body, and the force of gravity acting in the downward direction. These forces determine whether the body floats, sinks, or remains suspended at a certain depth in the water.
If a body is moving with uniform motion, there is no net force acting on it. This means that the forces acting on the body are balanced, resulting in constant velocity and no acceleration.
When forces acting on a body are unbalanced, the body will experience acceleration in the direction of the net force. This acceleration causes the body to change its velocity, resulting in motion. The body will continue to accelerate until the forces acting upon it become balanced.
A body at equilibrium can still have external forces acting on it, but the net force acting on the body is zero. This means that the individual forces may cancel each other out, resulting in no acceleration or change in motion of the body.
A body can stay at rest even though forces act on it when the forces acting on the body are balanced, meaning they cancel each other out. This balance of forces results in no net force acting on the body, allowing it to remain at rest.
A body floating in water has two forces acting on it: buoyant force pushing the body up and gravity pulling it down. The buoyant force is equal to the weight of the water displaced by the body, while gravity pulls the body downward.
If a body is moving with uniform motion, there is no net force acting on it. This means that the forces acting on the body are balanced, resulting in constant velocity and no acceleration.
When forces acting on a body are unbalanced, the body will experience acceleration in the direction of the net force. This acceleration causes the body to change its velocity, resulting in motion. The body will continue to accelerate until the forces acting upon it become balanced.
The body accelerates.
The main forces acting on a water tank are the gravitational force pulling the water downwards, buoyant force acting upwards on the water due to the surrounding liquid or air, and the pressure forces exerted by the water on the walls and bottom of the tank. Depending on the situation, other forces like wind or external mechanical forces may also act on the tank.
A body at equilibrium can still have external forces acting on it, but the net force acting on the body is zero. This means that the individual forces may cancel each other out, resulting in no acceleration or change in motion of the body.
A body can stay at rest even though forces act on it when the forces acting on the body are balanced, meaning they cancel each other out. This balance of forces results in no net force acting on the body, allowing it to remain at rest.
Depe
A body floating in water has two forces acting on it: buoyant force pushing the body up and gravity pulling it down. The buoyant force is equal to the weight of the water displaced by the body, while gravity pulls the body downward.
When a body is at rest, the forces acting on it are balanced. These can include gravitational force pulling the body downward and normal force exerted by the surface supporting the body. As long as these forces are equal and opposite, the body remains at rest.
The force is said to be "equilibrant" when acting with other forces it would keep the body at rest ie in equilibrium. Hence equilibrant would be equal in magnitude but opposite in direction to the resultant of all the forces acting on the body.
Net force is the sum of all forces acting on a body. It is the overall force that influences the body's motion and determines its acceleration according to Newton's second law of motion.
zero