It is impossible to 'attract' any boiling point (whatever that may mean):
Boiling point is a physical property of a particular liquid compound depending on pressure.
This depends on the pressure.
At room temperature cyclohexane is a liquid. According to the Wikipedia article on cyclohexane, it's melting point is 6.47 degrees C and it's boiling point is 80.74 degrees C.
Boiling is dependent on pressure because the pressure affects the boiling point of a substance. When the pressure is higher, the boiling point of a substance is also higher, and when the pressure is lower, the boiling point is lower. This is because pressure affects the vapor pressure of the substance, which needs to equal the atmospheric pressure for boiling to occur.
Boiling and freezing points of a substance are affected by pressure. An increase in pressure raises the boiling point and lowers the freezing point of a substance. Melting point is not significantly affected by pressure.
Increasing pressure raises the boiling point of gold. Gold has a high boiling point, and as pressure increases, the intermolecular forces between gold atoms become stronger, requiring more energy to overcome them and thus raising the boiling point.
The vapor pressure of cyclohexane at its normal boiling point of 81.0 degrees Celsius is 101.3 kPa.
This depends on the pressure.
The boiloing point of toluene at atmospheric pressure of 760 mm (torr) is 110.5 deg C. Reducing the pressure lowers the boiling point. The boiling point of toluene at 600 mm (torr) is 104.0 deg C.
The vapor pressure of anything at its boiling point is 1 atmosphere. That is the definition of boiling point, the vapor pressure is just enough to overcome atmospheric pressure. It could also be stated as: 760 mmHg (torr), 29.92 inHg, 14.696 PSI, 1013.25 millibars, or 0 PSIG.ImprovedThe problem to answer this Q. correctly, is that the atmosferic pressure is NOT the same as one atmosphere: On sea level and under normal, average weather conditions it is most of the time true, so then the A. is correct.But high in the mountains cyclohexane will boil at a lower temperature (than 810C) because of the lower (than 1 ATM.) atmosferic pressure.The above definition of boiling point is CORRECT, but the first statement (The vapor pressure of anything at its boiling point is 1 atmosphere) is NOT
At room temperature cyclohexane is a liquid. According to the Wikipedia article on cyclohexane, it's melting point is 6.47 degrees C and it's boiling point is 80.74 degrees C.
Boiling point is when the liquids pressure equals the pressure of the atmosphere.
Boiling is dependent on pressure because the pressure affects the boiling point of a substance. When the pressure is higher, the boiling point of a substance is also higher, and when the pressure is lower, the boiling point is lower. This is because pressure affects the vapor pressure of the substance, which needs to equal the atmospheric pressure for boiling to occur.
The phase diagram of cyclohexane shows how the compound transitions between solid, liquid, and gas phases at different temperature and pressure conditions. It typically includes a solid-liquid equilibrium line (melting point) and a liquid-gas equilibrium line (boiling point). By analyzing the diagram, one can understand how cyclohexane behaves under different environmental conditions.
The boiling point of a liquid depends on the pressure applied to it: higher pressure raises the boiling point and lower pressure decreases it. By reporting the boiling point along with the pressure, it allows for accurate comparison and reproducibility of experimental results, as different pressure conditions can affect the boiling point.
At low pressure the boiling point is lowered and inverse.
Yes, the boiling point of a substance increases with an increase in pressure.
An increase in pressure raises the boiling point of a liquid because it takes more energy for the liquid molecules to escape the higher atmospheric pressure above them. Conversely, decreasing the pressure lowers the boiling point as it requires less energy for the molecules to overcome the reduced atmospheric pressure.