Applying more force to an object will cause it to accelerate or deform depending on its properties. If the force exceeds the object's strength, it may break or undergo significant changes.
Objects sink or float in a fluid due to the balance between the weight of the object pushing down and the buoyant force pushing up. Objects that are less dense than the fluid they are in will float, while objects that are more dense will sink. This occurs because the buoyant force generated by the fluid is greater than the weight of the object in the case of floating, and vice versa for sinking.
When an object is yanked from above a rough surface, the friction between the object and the surface will resist the motion, causing the object to slow down and possibly slide or tumble. If the force applied is strong enough to overcome the friction, the object will accelerate in the direction of the force until it is released.
The buoyant force determines whether an object will float. This force is equal to the weight of the fluid displaced by the object, and if the buoyant force is greater than the object's weight, the object will float.
If the buoyant force is less than the weight of an object placed in a fluid, the object will sink. This is because the force pulling the object down (its weight) is greater than the force pushing it up (buoyant force).
A scale is a force indicator. The reading on a scale is simply telling you what force is being applied. If you try dragging an object across the floor using a spring scale, you are applying a force to the spring scale which is applying a force to the object. The spring scale cannot put more force on the object than you are putting on the scale, and it has to put all of the force that you put on it on the object you are pulling. The only other force on the object besides your pulling force is friction. If the object is traveling at a constant velocity, the forces on it are equal. That means that your pulling force has to equal the force of friction. The scale that you are using will read the amount of force you are putting on the object which will tell you how much friction is pulling backwards on the object because these forces are equal strengths.
if you put force on an object, in the opposite way it is moving. force makes an object with mass accelerate. if the force you put accelerates it enough it will stop spontaneously, or else it will stop slowly. if that first type of motion was created by force, and i mean the force is still forcing the object to move, then u have to put more force to the object in the opposite direction in order to stop it. F= m*a where F = force , m= mass , a= acceleration hope u got ur answer
Objects sink or float in a fluid due to the balance between the weight of the object pushing down and the buoyant force pushing up. Objects that are less dense than the fluid they are in will float, while objects that are more dense will sink. This occurs because the buoyant force generated by the fluid is greater than the weight of the object in the case of floating, and vice versa for sinking.
When an object is yanked from above a rough surface, the friction between the object and the surface will resist the motion, causing the object to slow down and possibly slide or tumble. If the force applied is strong enough to overcome the friction, the object will accelerate in the direction of the force until it is released.
No, it is not possible for Humans. However, some organisms, such as ants, can exert a force many times its own weight.
The buoyant force determines whether an object will float. This force is equal to the weight of the fluid displaced by the object, and if the buoyant force is greater than the object's weight, the object will float.
If the buoyant force is less than the weight of an object placed in a fluid, the object will sink. This is because the force pulling the object down (its weight) is greater than the force pushing it up (buoyant force).
The acceleration a of a body is parallel and directly proportional to the net force F acting on the body, is in the direction of the net force, and is inversely proportional to the mass m of the body, i.e., F = ma.
There would have to be an unbalanced force put an object in motion but once in motion no force is necessary for it to remain in motion
the force
no, unless you put the magnet and the object on a scale.
A scale is a force indicator. The reading on a scale is simply telling you what force is being applied. If you try dragging an object across the floor using a spring scale, you are applying a force to the spring scale which is applying a force to the object. The spring scale cannot put more force on the object than you are putting on the scale, and it has to put all of the force that you put on it on the object you are pulling. The only other force on the object besides your pulling force is friction. If the object is traveling at a constant velocity, the forces on it are equal. That means that your pulling force has to equal the force of friction. The scale that you are using will read the amount of force you are putting on the object which will tell you how much friction is pulling backwards on the object because these forces are equal strengths.
To put an object at rest in motion, a force must be applied to it. This force must overcome any opposing forces, such as friction or inertia, to initiate movement. According to Newton's first law of motion, an object will remain at rest unless acted upon by an external force. Once sufficient force is applied, the object will begin to accelerate in the direction of the applied force.