Linked from

The 100 pages that link to Viscosity, each with the reason it gives.

• Reynolds numberRelated: Dynamic viscosity appears in the denominator of the standard Reynolds number.

• AerodynamicsRelated: It creates skin friction and controls boundary-layer development.

• Starch gelatinizationRelated: Released polymers and swollen granules raise the mixture's resistance to flow.

• Glass transitionRelated: Its steep rise near the transition makes a supercooled liquid appear rigid.

• TurbulenceRelated: It dissipates turbulent motion, especially at the smallest scales.

• HydrodynamicsRelated: It determines how strongly neighboring layers of liquid resist sliding.

• Fluid mechanicsRelated: Viscosity determines how momentum diffuses and how strongly neighboring fluid layers resist sliding.

• Intermolecular forceRelated: Cohesive molecular attractions can impede the motion of neighboring molecules.

• Shield volcanoRelated: Low lava viscosity allows shield-building flows to spread widely.

• GlassRelated: Rising viscosity slows atomic rearrangement as a glass-forming melt cools.

• Lift (force)Related: Viscosity shapes near-surface airflow and influences separation and stall.

• PermeabilityRelated: Viscosity affects observed flow, but is distinct from the porous material’s intrinsic permeability.

• Laminar flowRelated: Viscous forces damp disturbances between neighboring layers.

• London dispersion forceRelated: Dispersion contributes to cohesive attractions that can increase liquid viscosity.

• CentrifugationRelated: Higher viscosity increases drag and slows particle migration through a centrifuge tube.

• Shear stressRelated: Viscosity links shear stress to the velocity gradient in flowing fluids.

• Earth's mantleRelated: Mantle viscosity governs how quickly rock deforms and convects.

• Fluid dynamicsRelated: It determines how strongly neighboring layers of fluid resist sliding past one another.

• VitrificationRelated: When viscosity reaches roughly ten to the thirteen poise, the liquid acts as a solid glass.

• Lava tubeRelated: Lava viscosity affects how readily a flow advances beneath a solidifying crust.

• Dipole–dipole interactionRelated: Dipolar attractions can influence how readily neighboring molecules move past one another.

• Aerodynamic dragRelated: Viscosity creates skin friction and affects the boundary layer.

• DragRelated: Viscosity governs frictional stresses that contribute to drag.

• LavaRelated: Lava viscosity governs whether it spreads readily or piles up near its vent.

• TribologyRelated: It helps determine whether a lubricant can sustain a separating film.

• Venturi effectRelated: Viscous losses make real pressure changes depart from ideal Bernoulli predictions.

• Hermann StaudingerRelated: Solution viscosity became a practical way to investigate polymer size and shape.

• Irreversible processRelated: Viscous dissipation produces entropy in flowing fluids.

• No-slip conditionRelated: Viscosity transmits the surface’s motion into the adjacent fluid.

• CentrifugeRelated: Higher viscosity increases drag and can slow separation inside a centrifuge.

• LubricationRelated: Viscosity affects film thickness and friction in fluid-lubricated contacts.

• Atmospheric dragRelated: Viscous stresses contribute to drag, especially near an object's surface.

• Diffusion coefficientRelated: Greater viscosity usually slows particle motion and lowers diffusion in liquids.

• Fluctuation–dissipation theoremRelated: Green–Kubo theory obtains viscosity from equilibrium stress fluctuations.

• Gravity separationRelated: Fluid viscosity controls drag and therefore the speed at which particles settle.

• SiphonRelated: Viscosity creates frictional losses that reduce a siphon’s flow rate.

• Supercritical fluidRelated: Supercritical fluids often flow more readily than liquids, aiding transport through porous materials.

• ExtrusionRelated: Viscosity affects pressure requirements, throughput, and flow uniformity.

• Hydraulic fluidRelated: It governs leakage, lubrication, and energy loss as hydraulic fluid moves.

• Lord RayleighRelated: Viscous resistance opposes the buoyant motion whose onset Rayleigh analyzed.

• Rayleigh–Bénard convectionRelated: Viscous resistance suppresses the motion driven by buoyancy.

• HemodynamicsRelated: Blood viscosity changes the resistance encountered within vessels.

• Sour creamRelated: It describes the thick, spoonable consistency of sour cream.

• StreamliningRelated: It affects surface friction and the flow regime around a body.

• HydraulicsRelated: Viscosity governs frictional resistance and influences hydraulic energy losses.

• Pipe flowRelated: Viscosity controls the strength of frictional effects and the laminar velocity profile.

• Volcanic glassRelated: Silica-rich lava's high viscosity can hinder bubbles escaping as glass forms.

• Ballpoint penRelated: Ink viscosity balances steady transfer against leakage and smearing.

• Beta-glucanRelated: Dissolved beta-glucan can thicken intestinal contents, slowing nutrient transport.

• Liquid waterRelated: Molecular interactions influence how readily liquid water flows, though its viscosity is modest.