Gas particles are so small in relation to the distances between them that their individual volumes can be assumed to be insignificant. The large relative distances between the gas particles means that there is considerable empty space between the particles. This assumption that gas particles are far apart explains the important property of gas compressibility: A gas is easily compressed because of the space between the particles. Therefore, the energy of a collision is absorbed when the gas particles are forced closer together.
The second property of gas particles assumed by the kinetic theory is that no attractive or repulsive forces exist between the particles. As a result, gases are free to move inside their containers. In fact, a gas expands until it takes the shape and volume of its container.
The third assumption is that gas particles move rapidly in constant random motion. The particles travel in straight paths and move independently of each other. Only when a particle collides with another particle or object does it deviate from its straight line path. Kinetic theory assumes further that these collisions between gas particles are perfectly elastic, which means that during a collision the total amount of kinetic energy remains constant and that the kinetic energy is transferred without loss from one particle to another. You should also recall that the average kinetic energy of a collection of gas particles in directly proportional to the Kelvin temperature of the gas.
Heat and pressure. the more pressure we put on a gaseous substance the greater the heat. the greater the heat the more kinetic energy it has.
This is the permanent motion of molecules and depends on temperature.
temperature
No. In gases, 'Absolute temperature' is proportionally related to the kinetic energy of the particles. Therefore, increase in temperature results in increase in the kinetic energy of the particles.
You calculate the new kinetic energy, you calculate the old kinetic energy, then you subtract.
Kinetic and potential energy are types of mechanical energy.
The kinetic energy comes from potential energy, which he got from ATP energy, which is produced through food. Potential energy is converted to kinetic energy after the muscles contract and relax. Sources: School science
Kinetic energy effects changes of state because it is when energy that has been held up inside the object (aka potential energy), is finally released. For example: On a roller coaster, the cart goes up a hill. At the top of the hill, right before it is about to go down another hill, it has potential energy, or stored up energy. Then whe it is going down the hill, all the energy is released and now the energy is in the form of kinetic. Another example: A marble is attached onto the end of a string. You pull the marble back. While being held back, the marble has potential energy. When you let the marble go, that energy turns into potential energy, because it is in motion. Defintions: Potential energy: Energy that is stored up Kinetic energy: Energy in motion
Gases have the highest kinetic energy, followed by liquids, and then solids. -apex
Solids have the lowers and gases the highest kinetic energy. Liquids are in the middle.
The kinetic energy is lowest in solids, higher in liquids, and highest in gases.
Gases
All gases have same kinetic energy of molecules at same conditions.
In gases their kinetic energy rises
Gases
They are all monoportic gases, which all have the same average kinetic energy.
The kinetic energy is lowest in solids, higher in liquids, and highest in gases.
kinetic energy
Less kinetic energy to move around so they stay liquid. With more energy they would be gases.
When a gas is compressed, its temperature tends to increase. That means that the average kinetic energy per particle also increases.