I know the fact that as inter-molecular increases it decreases the vapor pressure. Anyone can explain to me the concept here😕😕😕
I know the fact that as inter-molecular increases it decreases the vapor pressure. Anyone can explain to me the concept here😕😕😕
think of intermolecular (inter is between objects not within them) forces as people holding hands in a pool. this pool has a volcano underneath it. as the volcano heats up you really want to get out of that pool, but if a lot of people in the pool are holding your hands really hard you cant get out of the pool. if you are in a pool with a bunch of toddlers they can't hold your hands very hard and you can break free and escape.
a bunch of body builders in a pool(strong hand holding) would be a low vapor pressure solution.
think of vapor pressure as the ease of getting out of the pool. high vapor pressure means you really want to get out of the pool (liquid to gas), and can do so due to poor hand holding (weak intermolecular forces)
low vapor pressure would be really strong hand holding, you want to get out (its hot and entropy yada yada) but strong hand holding (ionic attractions, dipole, h-bonding) are keeping you in the pool.
i hope this convoluted hand holding rant helped.
hahthis will forever be how i explain IMF and VP
does this analogy have another part for atmospheric pressure? one that helps explain that a liquid boils when VP = atmospheric P (or is it when VP >= atmospheric P? can VP be > atmospheric P?)
I know the fact that as inter-molecular increases it decreases the vapor pressure. Anyone can explain to me the concept here😕😕😕
atmospheric pressure would be the people drinking rum and cokes on the deck around the pool.
now, if you are in the pool and there are just a few babes on the deck(low atmospheric pressure), you will be able to get out and you are gonna want to stay out of the pool and chat a bit.