Surface tension decreases with an increase in temperature due to increased molecular motion.

For most liquids, viscosity decreases with an increase in temperature due to increased molecular motion.

The modulus of resilience is given by U = 1/2 * σ * ε, where σ is the yield stress and ε is the yield strain.

Young's modulus (E) is defined as the ratio of stress to strain.

Capillary action is primarily caused by adhesion, where the liquid molecules are attracted to the surface of the solid.

Surface tension is primarily caused by cohesive forces between liquid molecules, which create a 'skin' at the surface.

Capillarity is primarily caused by adhesion, which is the attraction between the liquid molecules and the surface of the solid.

Buoyancy is caused by the pressure difference between the top and bottom of an object submerged in a fluid.

Capillarity is primarily caused by adhesion, which is the attraction between the liquid molecules and the surface of the solid.

Viscosity arises primarily from molecular interactions within the fluid, which resist flow.

The viscosity of a gas is primarily affected by temperature; as temperature increases, viscosity also increases.

Viscosity is primarily affected by temperature; as temperature increases, viscosity generally decreases.

The formation of droplets is primarily due to surface tension, which minimizes the surface area of the liquid.

Higher molecular weight leads to increased intermolecular forces, resulting in higher viscosity.

Capillarity is primarily caused by surface tension, which allows liquids to rise or fall in narrow spaces against gravity.

Archimedes' principle states that a body submerged in a fluid experiences a buoyant force equal to the weight of the fluid displaced.

In a fluid at rest, pressure increases with depth due to the weight of the fluid above.

The relationship is given by G = E / (2(1 + ν)), where ν is Poisson's ratio.

The shear modulus (G) is related to Young's modulus (E) and Poisson's ratio (ν) by the formula G = E/2(1 + ν).

In a Newtonian fluid, shear stress is directly proportional to shear rate.

In a Newtonian fluid, shear stress is directly proportional to shear rate, which defines its viscosity.

The relationship between shear stress and shear strain is defined by the shear modulus.

Within the elastic limit, stress is directly proportional to strain, as described by Hooke's Law.

In the elastic region, stress is directly proportional to strain, as described by Hooke's Law.

Surface tension is inversely proportional to temperature for most liquids.

Due to surface tension, liquid droplets tend to minimize their surface area, resulting in a spherical shape.

For most liquids, viscosity decreases with an increase in temperature due to increased molecular motion.

In general, the viscosity of liquids decreases with an increase in temperature, making them flow more easily.

A liquid droplet takes a spherical shape because a sphere has the minimum surface area for a given volume, minimizing the energy associated with surface tension.

The SI unit of dynamic viscosity is Pascal-second (Pa·s).