Internal friction in a liquid refers to the resistance encountered by the liquid molecules as they flow past each other. It is a measure of how easily the liquid can respond to external forces and deformations. Internal friction affects the viscosity of the liquid, with higher internal friction leading to higher viscosity.
Viscosity is the term that refers to the internal friction of a liquid, which describes its resistance to flow.
yes
The size and shape of particles can affect internal friction by influencing how easily they can slide past each other. Smaller, round particles have less friction due to their smoother surfaces, while larger, irregular particles can create more friction as they interlock and resist movement. Different sizes and shapes of particles can result in varying degrees of internal friction within a material.
Internal friction refers to the resistance to motion within a material or between parts of a material. It is the force that opposes the relative motion of elements in a solid or fluid due to interactions at the molecular level. Internal friction can affect the material's ability to deform and may result in energy dissipation as heat.
Friction in a gas state is called viscosity. It is a measure of a gas's resistance to flow and is caused by the internal friction of gas molecules as they move past each other.
Yes. Internal friction exists.
Internal friction in a liquid refers to the resistance encountered by the liquid molecules as they flow past each other. It is a measure of how easily the liquid can respond to external forces and deformations. Internal friction affects the viscosity of the liquid, with higher internal friction leading to higher viscosity.
No; friction decreases gas mileage.
yes
Viscosity is the term that refers to the internal friction of a liquid, which describes its resistance to flow.
Viscosity is the term defined as the resistance of gas or liquid to flow. It describes the internal friction of a moving fluid and determines how easily it flows.
pie
34 degrees
yes
The size and shape of particles can affect internal friction by influencing how easily they can slide past each other. Smaller, round particles have less friction due to their smoother surfaces, while larger, irregular particles can create more friction as they interlock and resist movement. Different sizes and shapes of particles can result in varying degrees of internal friction within a material.
yes