Yes - and if no external forces act upon the system - the center of mass of the system remains constant
Because the particles are further apart (look up the particle model) :)
the particle arrangements of a liquid is that the particles and atoms are a bit separated from each other. In a solid, they are closely packed together. In a gas they have no particular particle arrangement and are very far apart.
In an ideal gas, particles are assumed to be point masses with no volume and no intermolecular forces acting between them. Therefore, the motion of one particle is independent of the motion of the other particles because they do not interact with each other. Each particle moves freely and randomly in all directions without influencing the motion of other particles.
The phases of matter in order from least particle motion to greatest particle motion are: solid, liquid, gas, and plasma. In a solid, particles are tightly packed and vibrate in place. In a liquid, the particles are more free to move around but still relatively close together. In a gas, particles move freely and rapidly, while in a plasma, particles are highly energized and move even more rapidly.
In solid phase, particles vibrate in fixed positions. In liquid phase, particles are more free to move around each other but still relatively close together. In gas phase, particles move freely and are far apart from each other.
During the particle era, quarks were confined within particles such as protons and neutrons. They did not exist freely as individual particles.
Because the particles are further apart (look up the particle model) :)
Because the particles are further apart (look up the particle model) :)
Particle soluble salts are salts that can dissolve in water to form individual particles or ions. These particles can move freely in solution, allowing for the salt to be transported and react chemically with other substances. Examples of particle soluble salts include sodium chloride (table salt) and potassium nitrate.
the particle arrangements of a liquid is that the particles and atoms are a bit separated from each other. In a solid, they are closely packed together. In a gas they have no particular particle arrangement and are very far apart.
In an ideal gas, particles are assumed to be point masses with no volume and no intermolecular forces acting between them. Therefore, the motion of one particle is independent of the motion of the other particles because they do not interact with each other. Each particle moves freely and randomly in all directions without influencing the motion of other particles.
The states of matter from least particle movement to most are solid, liquid, gas, and plasma. In a solid, particles vibrate in fixed positions; in a liquid, particles move more freely but still have some cohesion; in a gas, particles move more rapidly and have no fixed shape or volume; in a plasma, particles are highly energized and move independently of one another.
Gas particles move independently because they have high kinetic energy that allows them to move freely and collide with one another. The movement of one gas particle is not influenced by neighboring particles because gases are in constant random motion due to collisions with other particles and the walls of their container. This randomness leads to a lack of long-range order in the motion of gas particles.
The phases of matter in order from least particle motion to greatest particle motion are: solid, liquid, gas, and plasma. In a solid, particles are tightly packed and vibrate in place. In a liquid, the particles are more free to move around but still relatively close together. In a gas, particles move freely and rapidly, while in a plasma, particles are highly energized and move even more rapidly.
an electron.
Particle in a solid, are soooo squeezed together, they cannot roam around freely. I remember that they vibrate. Although, particles in a liquid and gas, are separated and move quicker and further away from each other.
During the particle era, quarks were confined within particles such as protons and neutrons. As the universe cooled and expanded, quarks combined to form these stable hadrons. Today, quarks are always found bound within larger particles due to a property known as color confinement.