um .... its the kinetic energy which helps to move the molecules when the thing is hot then the kinetic energy helps the molecules move faster and when things are some what cold then the kinetic energy moves slower . the thing may be food or etc ...... .
atoms and molecules are always moving
Kinetic energy best describes the motion of the particles in a piece of steel.
you need the molecules to make the tissue.
In the liquid phase, pentane molecules exhibit a dynamic motion characterized by frequent collisions and interactions with neighboring molecules. They have enough kinetic energy to move past one another, allowing them to flow while maintaining a relatively close arrangement. The motion is influenced by intermolecular forces, primarily van der Waals forces, which keep the molecules in proximity while enabling them to slide around each other. Overall, the motion is more constrained compared to that of gas molecules, but it remains fluid and continuous.
The motion of very small particles, such as atoms and molecules, is described by Brownian motion. This is a random movement caused by collisions with surrounding molecules. Brownian motion is a key concept in understanding phenomena like diffusion and the behavior of gases.
atoms and molecules are always moving
Kinetic energy best describes the motion of the particles in a piece of steel.
entropy
a sweeping motion
Brownian motion describes the disorder of random molecular motion, which is caused by the collision of molecules in a fluid. This phenomenon was first observed by botanist Robert Brown in 1827.
Diffusion is the term that describes the movement of atoms or molecules within an object due to their constant random motion.
The phrase "some molecules pass" best describes the property of selective permeability.
Induced dipole best describes why molecules like CF3CF3 are soluble in liquid CO2.
Motion.
you need the molecules to make the tissue.
In the liquid phase, pentane molecules exhibit a dynamic motion characterized by frequent collisions and interactions with neighboring molecules. They have enough kinetic energy to move past one another, allowing them to flow while maintaining a relatively close arrangement. The motion is influenced by intermolecular forces, primarily van der Waals forces, which keep the molecules in proximity while enabling them to slide around each other. Overall, the motion is more constrained compared to that of gas molecules, but it remains fluid and continuous.
Rotation