Below you will find example sentences with "liquid phase". The examples show how this phrase is used in real sentences and which words often surround it.
Liquid Phase in a sentence
About this phrase
- Belongs to the word: liquid
Example types with liquid phase
Below, the examples are grouped by length and sentence type:
At the melting point the solid and liquid phase exist in equilibrium. (12 words)
Above the triple point, CO 2 goes through the more familiar transitions via a liquid phase. (16 words)
Most of the water is in the liquid phase, where it is held by the mutual attraction of water molecules. (20 words)
In a so-called NMR spin echo experiment this technique uses the nuclear spin precession phase, allowing to distinguish chemically and physically completely identical species e.g. in the liquid phase, as for example water molecules within liquid water. (39 words)
Even at equilibrium molecules are constantly in motion and, once in a while, a molecule in the liquid phase gains enough kinetic energy to break away from the liquid phase and enter the gas phase. (35 words)
However, because dyes are dissolved in the liquid phase, they have a tendency to soak into paper, making the ink less efficient and potentially allowing the ink to bleed at the edges of an image. (35 words)
Example sentences (20)
Another interesting though not unusual feature of the phase diagram is the point where the solid–liquid phase line meets the liquid–gas phase line.
Even at equilibrium molecules are constantly in motion and, once in a while, a molecule in the liquid phase gains enough kinetic energy to break away from the liquid phase and enter the gas phase.
In a so-called NMR spin echo experiment this technique uses the nuclear spin precession phase, allowing to distinguish chemically and physically completely identical species e.g. in the liquid phase, as for example water molecules within liquid water.
In consequence each component is retained in the liquid phase by attractive forces that are stronger than in the pure liquid so that its partial vapor pressure is lower.
Such a deviation suggests weaker intermolecular attraction than in the pure components, so that the molecules can be thought of as being "held in" the liquid phase less strongly than in the pure liquid.
While superior to the van der Waals equation of state, it performs poorly with respect to the liquid phase and thus cannot be used for accurately calculating vapor–liquid equilibria.
While the equation is definitely superior to the ideal gas law and does predict the formation of a liquid phase, the agreement with experimental data is limited for conditions where the liquid forms.
An unusual feature of the water phase diagram is that the solid–liquid phase line (illustrated by the dotted green line) has a negative slope.
The enthalpy of vaporization can be written as : It is equal to the increased internal energy of the vapor phase compared with the liquid phase, plus the work done against ambient pressure.
The picture shows the particle transition, as a result of their vapor pressure, from the liquid phase to the gas phase and converse.
Thus, the substance requires a higher temperature for its molecules to have enough energy to break out of the fixed pattern of the solid phase and enter the liquid phase.
And sublimation, by which a solid (snow) directly becomes a gas (water vapor), bypassing the liquid phase (water), plays a role as well.
The molecules in the structures are sublimable, meaning that they shift directly from a solid to a gas without passing through a liquid phase.
Above the triple point, CO 2 goes through the more familiar transitions via a liquid phase.
At the melting point the solid and liquid phase exist in equilibrium.
Ether holds the last bit of water so tenaciously that only a very powerful desiccant such as sodium metal added to the liquid phase can result in completely dry ether.
However, because dyes are dissolved in the liquid phase, they have a tendency to soak into paper, making the ink less efficient and potentially allowing the ink to bleed at the edges of an image.
If the pressure in a system remains constant ( isobaric ), a vapor at saturation temperature will begin to condense into its liquid phase as thermal energy ( heat ) is removed.
If the temperature in a system remains constant (an isothermal system), vapor at saturation pressure and temperature will begin to condense into its liquid phase as the system pressure is increased.
Most of the water is in the liquid phase, where it is held by the mutual attraction of water molecules.