Ill answer it, yes because mud would keep it from mixing and dissolving
When the dissolving rate equals the rate at which molecules come out of solution, the solution is in a state of dynamic equilibrium. This means that the amount of solute dissolving is equal to the amount of solute precipitating out of solution, resulting in a stable concentration of solute.
Higher water temperature typically increases the rate of dissolving a solute in a solvent because it increases the kinetic energy of the molecules, allowing them to move and interact more rapidly. This leads to more collisions between solvent and solute molecules, facilitating the dissolving process.
I think it would increase the desolving rate
The state where the rate of dissolving is equal to the rate of precipitation is called equilibrium. This means that the amount of solute being dissolved is equal to the amount being deposited back as a solid.
Increasing the temperature of a solvent can generally increase the rate of dissolving by providing more energy for the solute particles to interact with the solvent molecules, breaking down their attractions more easily. However, this effect can vary depending on the specific solute and solvent involved.
Stirring and increasing temperature increase the dissolving rate.
colour is a physical property that has no effect on the rate of dissolving
it makes it faster to dissolve
The polarity of solute and solvent, the concentration, the temperature.
increases
Yes, in fact stirring does increase the rate of dissolving [or dissolution] of solids.
When the dissolving rate equals the rate at which molecules comes out of solution the solution is in 'equilibrium'.
equalibrium
How do the following factors affect the rate of dissolving for temperature change
This is called equilibrium.
In a basic form sun light produces heat, heat act's as a catalyst which speed's up chemical reaction. SO in a nut shell sunlight makes the dissolving process occur more rapidly.
When the dissolving rate equals the rate at which molecules come out of solution, the solution is in a state of dynamic equilibrium. This means that the amount of solute dissolving is equal to the amount of solute precipitating out of solution, resulting in a stable concentration of solute.