Force is the space derivative of Energy. Energy and spac e are four dimensional quaternions. So Energy is E=Er + Ev where Er is the real energy and Ev is the vector (3) energy.
Force F=( d/dr + Del) (er + Ev) = (dEr/dr - Del.Ev) + (dEv/dr + Del Er + DelxEv)
So here you see there are five forces.
The first two forces are real forces dEr/dr is the centripetal force and Del.Ev is the centrifugal force. For gravity Er = -mGM/r and Ev=mcV.
Thre remaining three forces are vectors. dEv/dr is the Tangential (Hypotenuse) force;
Del Er is the Normal Force ( for gravity muR/r^3); the last force DelxEv is the transverse force that causes rotation.
When energy is conserved, the force is zero or in equilibrium. Here the centripetal force is equal the centrifugal force and the sum of the three vector forces is zero.
No, forces can be added together on the same object if they are acting in different directions. The net force on the object is the sum of all the individual forces acting on it.
Balanced forces acting on an object do not change the object's position.
Forces acting on an object are unbalanced when the individual forces do not cancel each other out. This can happen when the forces have different magnitudes or directions, causing a net force on the object. As a result, the object will accelerate in the direction of the net force.
Two forces acting in opposite directions are called balanced forces. When balanced forces act on an object, the object's motion remains constant or remains at rest.
Some examples of forces acting in opposite directions include tension and gravity on a hanging object, friction and applied force on a sliding object, and thrust and drag on an airplane in flight.
No, forces can be added together on the same object if they are acting in different directions. The net force on the object is the sum of all the individual forces acting on it.
Balanced forces acting on an object do not change the object's position.
Depending on the scenario the forces act on the object when there is actually a force being acted on it? Gravity is always acting on objects (unless space) Friction acts on object as long as object is moving on a surface with friction There are a bunch of other forces but these are just examples
Forces acting on an object are unbalanced when the individual forces do not cancel each other out. This can happen when the forces have different magnitudes or directions, causing a net force on the object. As a result, the object will accelerate in the direction of the net force.
Two forces acting in opposite directions are called balanced forces. When balanced forces act on an object, the object's motion remains constant or remains at rest.
Some examples of forces acting in opposite directions include tension and gravity on a hanging object, friction and applied force on a sliding object, and thrust and drag on an airplane in flight.
No, resultant forces acting in different directions are not equal. The resultant force is the net force that results from combining all the individual forces acting on an object, taking into account their direction and magnitude.
Yes, it is possible for an object to not be in motion and still have forces acting on it. This situation could occur if the forces acting on the object are balanced, resulting in a state of equilibrium where there is no net force causing motion.
False. Balanced forces acting on an object will not change the object's velocity. When forces are balanced, there is no change in the object's velocity as there is no net force acting on the object.
If the forces acting on an object do not cancel out, it will result in a net force exerted on the object. This net force will cause the object to accelerate in the direction of the larger force. Examples of forces that do not cancel out include unbalanced forces like gravity, friction, and tension.
If there are two or more unequal forces acting on an object then the object will be acting on the forces. ^_^
An object with balanced forces acting on it is still. An object with unbalanced forces acting on them moves at an non constant velocity. It is possible for an object to have balanced forces acting on it and yet move in a vacuum.