If material is in liquid state the solvent is the liquid portion, the solute is the material being dessolved.
Yes, in a solution, the individual parts are chemically combined to form a homogeneous mixture where the components are evenly distributed at a molecular level. This allows solutions to have consistent properties throughout.
Yes, components of a solution can separate upon standing due to differences in their densities, solubilities, or chemical interactions. This can lead to the formation of layers or precipitation within the solution.
NO
It is impossible for a monophasic solution.
A solution is mixture of two or more components.
are the components of a solution separable by chemical methods
A uniform solution is one where the components are evenly mixed and consistent throughout. A non-uniform solution would have visible variations or separations between the components.
It depends on the specific context. In chemistry, a solution is typically considered to be homogeneous, meaning the components are uniformly distributed at the molecular level. However, if the solution visibly contains multiple phases or distinct components, it may be heterogeneous.
One way to standardize a solution in one step is to multiply all the components of the solution by a constant factor that ensures the sum of all components adds up to a specific value or that the total concentration of the solution remains the same.
Gravity alone cannot make a solution separate over time. The separation of components in a solution is typically driven by differences in density, solubility, or chemical interactions between the components. However, gravity can influence the rate of separation by causing denser components to settle to the bottom of a solution, a process known as sedimentation.
A true solution consists of a minimum of two components, namely a solvent and a solute.
No. By definition a "solution" has a minimum of two components. An element is a single atomic entity. A solution cannot be an element.