Difference between revisions of "Boyle's Law"
(→Formula) |
(→About Boyle's Law) |
||
| Line 5: | Line 5: | ||
===About Boyle's Law=== | ===About Boyle's Law=== | ||
| − | * | + | *[[Boyle's Law]] is expressed mathematically as 𝑃×𝑉=constant |
| − | * | + | *[[Boyle's Law]] describes the inverse relationship between the [[pressure]] and [[Volume (Space)|volume]] of a [[gas]]. |
| − | * | + | *[[Boyle's Law]] assumes [[Ideal Gas|ideal gas]] behaviour. |
| − | * | + | *[[Boyle's Law]] applies to [[Idea Gas|ideal gases]] under constant [[temperature]] conditions. |
| + | *[[Boyle's Law]] is applicable in various real-world scenarios such as breathing and syringes. | ||
| + | *[[Boyle's Law]] is used to predict the behaviour of [[gas]]es which are modelled as [[Ideal Gas|ideal gases]]. | ||
| + | *[[Boyle's Law]] is fundamental to understanding [[gas]] laws and [[Kinetic Theory|kinetic theory]]. | ||
| + | *[[Boyle's Law]] helps in applications such as breathing mechanics and pneumatic systems. | ||
===Formula=== | ===Formula=== | ||
Revision as of 13:27, 22 May 2024
Key Stage 5
Meaning
Boyle's Law states that for a fixed mass of gas at constant temperature, the product of its pressure and volume is constant.
About Boyle's Law
- Boyle's Law is expressed mathematically as 𝑃×𝑉=constant
- Boyle's Law describes the inverse relationship between the pressure and volume of a gas.
- Boyle's Law assumes ideal gas behaviour.
- Boyle's Law applies to ideal gases under constant temperature conditions.
- Boyle's Law is applicable in various real-world scenarios such as breathing and syringes.
- Boyle's Law is used to predict the behaviour of gases which are modelled as ideal gases.
- Boyle's Law is fundamental to understanding gas laws and kinetic theory.
- Boyle's Law helps in applications such as breathing mechanics and pneumatic systems.
Formula
\(p\times𝑉=constant\)
Where:
p is pressure
and
𝑉 is volume
When there is a change of pressure and volume of a known amount of a substance at constant temperature the following formula can be used\[p_1\times𝑉_1=p_2\times𝑉_2\]
Where the number represents before and after the change.