When certain types of fluids are increased in heat such as honey, the molecules would expand or loosen up because they are being subject to heat. The molecules loosen up in this form in order to decrease the temperature internally in the fluid. If the fluid or ''honey'' is being subject to cold temperatures than the viscosity of the fluid would increase. This form of molecules would act in such a way to maintain the inner heat of the fluid. Thus making the the viscosity of the fluid at a much higher rate.
The particle theory of matter explains viscosity through the interactions and movement of particles within a fluid. According to this theory, the particles in a liquid are in constant motion, and their intermolecular forces affect how easily they slide past one another. Higher viscosity occurs when these intermolecular forces are stronger, causing more resistance to flow, while lower viscosity results from weaker forces that allow particles to move more freely. Thus, the arrangement and interactions of particles directly influence a fluid's viscosity.
The viscosity of a dilute dispersion of silica particles in water would depend on factors such as the particle size, concentration, and surface chemistry of the silica particles. In general, the addition of solid particles to a liquid can increase viscosity due to the particles disrupting the flow of the liquid. The viscosity can be measured experimentally using viscometers.
The viscosity of magma is primarily determined by its composition and temperature. Higher silica content increases viscosity, making the magma thicker, while lower temperatures also contribute to greater viscosity. Conversely, magma with lower silica content and higher temperatures tends to be more fluid. Additionally, the presence of dissolved gases can influence viscosity by reducing inter-particle friction.
The repulsion is between valence electrons.
One factor affecting the kinetic energy of a particle (or body) in is the viscosity of the medium through which that particle moves
High viscosity lead to a low flow rate and inverse.
Viscosity refers to a fluid's resistance to flow. In terms of particle theory, viscosity is related to the friction between particles as they attempt to slide past one another. A higher viscosity indicates stronger intermolecular forces and thus a thicker, less easily flowing fluid.
Centrepoise is a measurement of viscosity. The higher the number, the more viscous (thick) the liquid is. At "room temperature", water has a nominal viscosity of 1.0
Sorry we can not answer your question because there is no such English words as "develuped" or "teory" and your question is therefore meaningless.
Hmmm.. what is "stokes law graph" ? If Stokes Force = Fs, r=radius of a tube, v=velocity of a particle The formula of viscosity is Fs=6.pi.viscosity.r.v Then viscosity= Fs/(6.pi.r.v)
They don't have anything incommom
The speed of moving pigments is determined by two properties: the viscosity of the fluid they are in and the size of the pigment particles. Higher viscosity and larger particle size typically result in slower pigment movement, while lower viscosity and smaller particle size lead to faster movement.
as the temperature goes up the speed of the particle goes up
The viscosity of a dilute dispersion of silica particles in water would depend on factors such as the particle size, concentration, and surface chemistry of the silica particles. In general, the addition of solid particles to a liquid can increase viscosity due to the particles disrupting the flow of the liquid. The viscosity can be measured experimentally using viscometers.
The viscosity of magma is primarily determined by its composition and temperature. Higher silica content increases viscosity, making the magma thicker, while lower temperatures also contribute to greater viscosity. Conversely, magma with lower silica content and higher temperatures tends to be more fluid. Additionally, the presence of dissolved gases can influence viscosity by reducing inter-particle friction.
that living things come from other living things
Theory. It's. No.