When a system is in isostasy, gravitational force pulling down on the higher density material of the crust is balanced by buoyancy force pushing up on the lower density material of the mantle, resulting in equilibrium. This balance allows the Earth's crust to float on the denser material beneath it.
You say that the two forces are in equilibrium.
What two forces? If two forces go in opposite directions, and have the same magnitude, they will be balanced. Otherwise they wont'.
If the forces are balanced, then by definition the sum of the forces is zero.
The types of balanced forces include two equal forces acting in opposite directions, two forces acting perpendicular to each other, and multiple forces that result in a net force of zero. Balanced forces result in an object maintaining its current state of motion or rest.
Balanced forces occur when two forces acting on an object are equal in size and opposite in direction, causing no change in the object's motion. Unbalanced forces occur when the two forces are unequal in size, causing the object to accelerate in the direction of the larger force.
You say that the two forces are in equilibrium.
What two forces? If two forces go in opposite directions, and have the same magnitude, they will be balanced. Otherwise they wont'.
If the forces are balanced, then by definition the sum of the forces is zero.
Yes. Two forces that are equal in magnitude but opposite in direction would be balanced.
When two forces are balanced, their vector sum is zero.
Balanced forces
Balanced forces
Balanced forces
Balanced forces
Balanced
The types of balanced forces include two equal forces acting in opposite directions, two forces acting perpendicular to each other, and multiple forces that result in a net force of zero. Balanced forces result in an object maintaining its current state of motion or rest.
Balanced forces occur when two forces acting on an object are equal in size and opposite in direction, causing no change in the object's motion. Unbalanced forces occur when the two forces are unequal in size, causing the object to accelerate in the direction of the larger force.