The Ideal Gas Law is written as ( PV = nRT ). This formula tries to explain how gases behave, but it has some important limits:
Basic Assumptions: It assumes that gas particles have no size and don’t affect each other. This isn’t true when the pressure is very high or the temperature is very low.
Real Gases: Real gases don’t always act like the Ideal Gas Law says they should. This makes it hard to predict their behavior accurately.
Even with these challenges, we can use corrections to help us understand real gases better. One example is the Van der Waals equation. It considers the size of gas particles and how they interact with each other.
So, while the Ideal Gas Law can be helpful, we need to be careful when applying it to real-life situations.
The Ideal Gas Law is written as ( PV = nRT ). This formula tries to explain how gases behave, but it has some important limits:
Basic Assumptions: It assumes that gas particles have no size and don’t affect each other. This isn’t true when the pressure is very high or the temperature is very low.
Real Gases: Real gases don’t always act like the Ideal Gas Law says they should. This makes it hard to predict their behavior accurately.
Even with these challenges, we can use corrections to help us understand real gases better. One example is the Van der Waals equation. It considers the size of gas particles and how they interact with each other.
So, while the Ideal Gas Law can be helpful, we need to be careful when applying it to real-life situations.