The equal movement of molecules would be describing an "isotonic" state, where concentration gradients are equal, and a state of equilibrium is created.
Diffusion is the movement of molecules from an area of high concentration to an area of low concentration, driven by random thermal motion. This process results in the equal distribution of molecules in a given space over time.
That would be stability. A quasi-static situation. The solution has evenly dispersed the added chemical and is at rest. Not changing any more in color or density. Net movement is low. There is still a lot of action going on.
The movement of sucrose molecules is called diffusion, which is the process of molecules spreading out from an area of high concentration to an area of low concentration. This movement occurs until equilibrium is reached.
Yes, the energy generated by the movement of molecules is called heat energy. This movement causes the molecules to vibrate and collide, which produces thermal energy that we perceive as heat.
That is called thermal energy, which refers to the vibration and movement of atoms and molecules within substances.
It is a state of equilibrium when there is no net movement of molecules, meaning that the concentrations of molecules are equal on both sides of a barrier. This can occur in a closed system where the rate of molecules moving in one direction is equal to the rate of molecules moving in the opposite direction.
Diffusion - which aims to create equilibrium (equal concentrations in both areas).
it is called passive transport
Random Motion
The movement of molecules from great concentration to lesser concentration is called diffusion. However when dealing water molecules it is referred to as osmosis.
At equilibrium, the movement of molecules reaches a state of balance where the rate of forward and reverse reactions are equal. This means that the molecules continue to move, but their overall distribution remains constant.
When molecules reach equilibrium, diffusion stops. This occurs when there is an equal concentration of molecules on both sides of the membrane and no net movement.