Firstly, an ideal gas is one consisting of identical particles with no volume. These particles feel no intermolecular forces and undergo perfectly elastic collisions with the all of the container. It is important to note that real gases do not exhibit these characteristics and that it merely provides an approximation. Though the heading "Ideal Gas" can be separated into two board sections, the classical thermodynamic ideal gas and the ideal quantum Boltzmann gas; from the question wording I'll assume it's the former we're dealing with (both are essentially the same, except that the classical thermodyamic ideal gas is based on classical thermodynamics alone). The classical ideal gas pressure, p, and its volume, V, are related in the following way: pV=nRT where n is the amount of gas in moles , R is the gas constant, 8.314J•K-1mol-1 (Joule Kelvin per mole) and T is the absolute temperature in Kelvin. Put simply : the relationship between pressure and volume is the that the change in pressure is inversly proportional to the volume. p= a/Vwhere a is a constant; in this case (nRT).
For an ideal gas you can use the ideal gas law PV=nRT where P is the pressure, V the volume, n is the amount of the gas, R is a constant and T the temperature. For a non ideal gas you can use the van der waals equation.
They are proportional... when pressure increases, volume decreases. Think of taking an inflated balloon to the bottom of the pool. The deeper you go, the more pressure on the balloon, making it smaller.
The ideal gas law is:
PV = nRT, where P = pressure, V = volume, n= number of moles, R = ideal gas constant, T = Temperature in K.
Read more: What_is_the_direct_relationship_between_volume_and_temperature_of_an_ideal_gas_sample
inverse relation according to boyle's law- p1v1=p2v2
If the gas remains at the same temperature and the same amount of gas, then volume and pressure are inversely proportional; the smaller the volume, the higher the pressure.
The relationship is PV=RT where R is the gas constant.
speed
They have an inverse relationship.
Boyle found that when the pressure of a gas at constant temperature is increased the volume of the gas decreases.When the pressure is decreased the volume increases.
At constant temperature, the product of pressure and volume is a constant, or pressure is inversely proportional to volume, is known as Boyle's Law.
When the pressure is constant, the law describing the relationship between volume and temperature is known as Charles' Law: V1/T1 = V2/T2
The relationship between pressure and volume (apex)
In the relationship between volume and pressure when volume increases pressure decreases and when volume decreases pressure increases.
Indirect. As the volume of a gas is decreased, the pressure increases.
As the volume decreases, the pressure increases, and as the volume increases, the pressure decreases, which constitutes an inverse relationship
speed
They have an inverse relationship.
Boyle found that when the pressure of a gas at constant temperature is increased the volume of the gas decreases.When the pressure is decreased the volume increases.
"When the pressure of a gas at constant temperature is increased, the volume of the gas decreases. When the pressure is decreased, the volume increases." More precisely, pressure is inversely proportional to volume.
Boyle's Law is the inverse relationship between pressure and volume.
At constant temperature, the product of pressure and volume is a constant, or pressure is inversely proportional to volume, is known as Boyle's Law.
As temperature increases so does volume as long as pressure remains constant.
The relationship between absolute temperature and volume of an ideal gas at constant pressure.