In that instance, the dominant intermolecular force will be dipole-dipole interactions. That’s because it is a stronger type of intermolecular force than the alternatives of ionic bonding (there are no ions) and hydrogen bonding (the only stronger intermolecular force) are not applicable for chloroform.
In that instance, the dominant intermolecular force will be dipole-dipole interactions. That’s because it is a stronger type of intermolecular force than the alternatives of ionic bonding (there are no ions) and hydrogen bonding (the only stronger intermolecular force) are not applicable for chloroform.
Chloroform has a distinct dipole moment. See Chloroform (data page) - Wikipedia.
In that instance, the dominant intermolecular force will be dipole-dipole interactions. That’s because it is a stronger type of intermolecular force than the alternatives of ionic bonding (there are no ions) and hydrogen bonding (the only stronger intermolecular force) are not applicable for chloroform.
The Four Intermolecular Forces and How They Affect Boiling Points
Chloroform has a distinct dipole moment. See Chloroform (data page) - Wikipedia.
In that instance, the dominant intermolecular force will be dipole-dipole interactions. That’s because it is a stronger type of intermolecular force than the alternatives of ionic bonding (there are no ions) and hydrogen bonding (the only stronger intermolecular force) are not applicable for chloroform.
The Four Intermolecular Forces and How They Affect Boiling Points
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