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According to the Kinetic Molecular Theory, pressure is the result of gas molecules colliding with the walls of the container. As the volume of the gas sample decreases, the frequency of collisions increases, leading to an increase in pressure. Conversely, as the volume increases, the frequency of collisions decreases, leading to a decrease in pressure.
Inter-atomic or inter-molecular collisions.
Increasing the number of molecules in a fixed volume will result in an increase in pressure due to more frequent collisions between molecules. This relationship is described by the ideal gas law, where pressure is directly proportional to the number of molecules and temperature, and inversely proportional to volume.
an increase in the object's kinetic energy due to the transfer of momentum from the gas particles to the object. This can cause the object to gain speed or heat up, depending on the nature of the collisions and the object's characteristics.
If the frequency of collisions between particles increases, the pressure of the gas will also increase, as pressure is a result of the force exerted by gas particles during collisions with the walls of the container. This would lead to an increase in the overall kinetic energy of the gas particles.
C, the pressure on the inside walls of a balloon, demonstrates the collisions of gas molecules. The gas molecules inside the balloon are constantly moving and colliding with each other and the walls of the balloon, creating pressure. This pressure is a direct result of the kinetic energy and frequency of these molecular collisions.
If molecular collisions were not elastic, then some of the kinetic energy would be lost in each collision, leading to an overall loss of energy in the gas. This would result in a decrease in temperature and pressure of the gas over time as the molecules lose energy.
As the temperature of a gas in a container increases, the molecules in the gas gain kinetic energy and move faster, leading to more frequent and forceful collisions with the walls of the container. This increased frequency and force of collisions result in higher pressure on the walls of the container.
Yes, when gas particles bump into something, they exert a force on that object. This creates pressure, which is the amount of force exerted per unit area. More collisions result in higher pressure.
Yes, the pressure exerted by a gas is a result of the ideal gas law, which describes the relationship between pressure, volume, temperature, and amount of gas molecules. The formula PV = nRT represents the ideal gas law, where P is pressure, V is volume, n is the number of moles of gas, R is the gas constant, and T is temperature.
On an atomic scale, atoms are constantly vibrating. This vibration along with the electronic orbitals of the atom limit the minimum distance between two atoms. With increase in temperature the amplitude of this vibration increases. This leads to an increase in the minimum distance. This increase in the minimum distance manifests itself as an increase in the volume at a macroscopic scale.