Hexane has stronger intermolecular forces of attraction compared to pentane due to its larger molecular size and greater surface area, which enhances van der Waals forces (London dispersion forces). The increased number of electrons in hexane leads to stronger temporary dipoles, resulting in greater attraction between molecules. Consequently, hexane exhibits higher boiling and melting points than pentane.
Glycerol has a higher surface tension compared to hexane. This is because glycerol is more polar than hexane, leading to stronger intermolecular forces between glycerol molecules which results in a higher surface tension.
pentane, hexane, benzene, toluene, and octane
The boiling point of any compound is determined by how much energy it takes to break apart the intermolecular bonds. C6H14 has very low intramolecular forces compared to the polar bonds of another compound, such as water.
4-methylcyclohexanol is soluble in hexane because it is a nonpolar molecule, similar to hexane. Nonpolar solutes tend to be soluble in nonpolar solvents like hexane due to similar intermolecular forces.
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The boiling point of hexane is higher than that of pentane because hexane has a larger molecular mass and stronger London dispersion forces between its molecules. These stronger intermolecular forces require more energy to overcome, resulting in a higher boiling point for hexane compared to pentane.
Pentane and hexane are both nonpolar molecules with similar molecular structures, so they have similar intermolecular forces (London dispersion forces). This allows them to mix together in all proportions because the attractive forces between molecules of the same kind (hexane-hexane, pentane-pentane) and between different kinds (hexane-pentane) are relatively similar in strength.
Pentane and hexane are both nonpolar molecules with similar intermolecular forces (London dispersion forces). As a result, they have a similar polarity and can easily mix and dissolve in each other.
Glycerol has a higher surface tension compared to hexane. This is because glycerol is more polar than hexane, leading to stronger intermolecular forces between glycerol molecules which results in a higher surface tension.
Hexane and pentane can be separated using fractional distillation because they have different boiling points. Hexane has a higher boiling point (68.7°C) than pentane (36.1°C), so by heating the mixture, the pentane will vaporize first and can be collected and condensed separately from the hexane.
Octane. The boiling point of straight-chain alkanes increases within its homologous series (meaning methane has a lower boiling point than ethane, which is lower than propane, etc). Hexane : Boiling Point 69 o C Octane : Boiling Point 125.5 o C
Butane is a smaller molecule, so the London Dispersion forces between molecules of butane hold the molecule together better than the London Dispersion forces of a hexane molecule. In short, it requires more energy to separate butane molecules from each other than hexane molecules.
pentane, hexane, benzene, toluene, and octane
To calculate the volume percent concentration of hexane in the solution, you need to determine the total volume of the solution first. Mixing 50.0 mL of hexane with 1.0 L of pentane gives a total volume of 1.05 L (1000 mL + 50 mL). The volume percent concentration of hexane can be calculated as (volume of hexane / total volume) x 100. This gives (50 mL / 1050 mL) x 100 = 4.76% volume percent of hexane in the solution.
Ethane has very weak London dispersion forces because it doesn't have very many electrons. Hexane, however, has far more electrons, and therefore stronger dispersion forces, allowing more attraction between hexane molecules.
pentane, hexane, benzene, toluene, and octane
Hexane is held together by London dispersion forces, which are the weakest intermolecular forces. These forces arise from temporary fluctuations in electron distribution that create temporary dipoles in neighboring molecules.