most efficiently gaseous matter is ideal.
The physical state of matter depends mostly on the intermolecular forces between its particles. Strong intermolecular forces result in a solid state, moderate forces lead to a liquid state, and weak forces cause a gas state. Temperature and pressure also play a role in determining the physical state of matter.
Solid state
Forces hold matter together.
An ideal gas is not a real thing, just an idea. The definition of an ideal gas is one where there are no forces between the particles. If there are no forces, there is nothing to bring the particles together into a liquid. In a real gas of course there are forces of attraction which keep the particles together when they are moving sufficiently slowly.
Matter would be in an inert state if nothing is operating within it.
The state of matter with weak intermolecular forces is typically the gas state. In gases, the particles are far apart and move independently, resulting in minimal attraction between them. This allows gases to expand and fill their containers easily. In contrast, liquids and solids have stronger intermolecular forces that hold their particles closer together.
In the gaseous state of matter, the molecules of a substance are most free to move about as there is little attractive forces between the neighboring molecules.
To turn a state of matter into a gas, we must overcome the intermolecular forces holding the particles together in that state. Gas particles have the highest energy out of all states of matter because they are not bound by these intermolecular forces, allowing them to move freely and independently from one another. This requires the input of the most energy to break these forces and transform the state into a gas.
A solid is a state of matter in which particles are held firmly in place in a fixed arrangement due to strong intermolecular forces.
The state of matter in an object is determined by the balance between the intermolecular forces of attraction and the thermal energy of the particles within the object. When thermal energy overcomes the intermolecular forces, the object transitions from solid to liquid to gas. The state of matter can also be influenced by factors like pressure and temperature.
Energy is related to random and nonrandom states of matter in that all matter and energy tend toward a random state. Nonrandom energy can be directed to keep matter into a desired state, but will ultimately fail.
The chief factor that determines the physical state of a sample of matter is the intermolecular forces present between its particles. These forces determine how closely the particles are packed together and how they move, leading to the distinctive properties of solids, liquids, and gases.