It does - but they're weak.
Don't forget, its the gravitational attraction of gasses that made the sun.
(and eventually caused the particles to get close enough for fusion to start).
it is co2 acctive
gravity, no jk
In a gas, the attractive forces between particles are generally weak and have minimal impact on their behavior. As gas particles move rapidly and are far apart, these forces are often negligible compared to the kinetic energy of the particles. When gas is compressed or cooled, the attractive forces can become more significant, potentially leading to condensation into a liquid. However, under normal conditions, the particles in a gas largely interact through brief collisions rather than sustained attractions.
Ideal gases are considered to have no volume and no intermolecular attractive forces. This assumption allows for simplified mathematical relationships in gas laws. In reality, no gas perfectly fits the ideal gas model, but ideal gases are a useful theoretical concept for understanding gas behavior.
Gases consist of freely moving particles due to their high kinetic energy. The distance between gas particles is typically large, and the attractive forces between them are usually negligible. In the gas phase, the kinetic energy of the particles overcomes any weak intermolecular forces that may exist.
D. Particles exert attractive forces. In real gases, the particles do not always move in the same direction, have the same kinetic energy, or have difficulty diffusing due to interactions between the particles leading to attractive forces that are not present in ideal gases.
The gas molecules interact with one another
Gas
In a gas, the particles are typically moving at high speeds and are far apart, so the forces of attraction between them are negligible. Interactions between gas particles are more controlled by collisions than by attractive forces.
To boil water, the attractive forces within the liquid water molecules (hydrogen bonding) must be overcome to convert water from a liquid to a gas. This requires input of energy to increase the kinetic energy of the water molecules so they can break free from each other and escape into the gas phase.
The intermolecular forces that must be overcome to convert H2Se (hydrogen selenide) to gas are London dispersion forces and dipole-dipole interactions. These forces hold the H2Se molecules together in the liquid state. As energy is added to the system, these intermolecular forces weaken, allowing the molecules to overcome the attractive forces and transition into the gaseous state.
Cohesive force is the attractive force between like molecules. Cohesive forces are also known as intermolecular forces and can also be repulsion forces.