DiscoverThe APsolute RecAP: Chemistry EditionThe APsolute RecAP: Chemistry Edition - Episode 52: Deviation From Ideal Gas Law
The APsolute RecAP: Chemistry Edition - Episode 52: Deviation From Ideal Gas Law

The APsolute RecAP: Chemistry Edition - Episode 52: Deviation From Ideal Gas Law

Update: 2021-10-18
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Teachers wish students would always behave ideal, but in reality life happens and it gets messy (0:32 ). The same is true for gases: There is a difference between real and ideal gases (1:12 ). The Ideal Gas Law assumes that particles don’t experience intermolecular forces nor that they take up volume (1:34 ). But real gases do and this leads to deviations from the Ideal Gas Law, especially under high pressure and close to condensing (2:00 ). Under low temperatures, intermolecular forces become more and more significant (2:41 ), leading to a lower pressure of a real gas compared to an ideal gas (3:30 ). This is enhanced by the strength of intermolecular forces and therefore their polarity (4:36 ). Because particles do have volume, the usable space is less in a real gas than an ideal gas (5:12 ). Therefore at high pressures the volume of a real gas is larger than the volume of ideal gases (5:32 ).

Which molecule would have the least deviation from the Ideal Gas Law?

A. CH4 B. Ne C. H2O D. Cl2

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The APsolute RecAP: Chemistry Edition - Episode 52: Deviation From Ideal Gas Law

The APsolute RecAP: Chemistry Edition - Episode 52: Deviation From Ideal Gas Law

Sarah Rayder, Brad Kingett, Melanie Kingett, Zach Caruso