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It seems doubtful whether we can expect to understand fully the instability of fluid flow without obtaining a mathematical representa­ tion of the motion of a fluid in some particular case in which instability can actually be ob­ served, so that a detailed comparison can be made between the results of analysis and those of experiment. - G.l. Taylor (1923) Though the equations of fluid dynamics are quite complicated, there are configurations which allow simple flow patterns as stationary solutions (e.g. flows between parallel plates or between rotating cylinders). These flow patterns can be obtained only in certain parameter regimes. For parameter values not in these regimes they cannot be obtained, mainly for two different reasons: • The mathematical existence of the solutions is parameter dependent; or • the solutions exist mathematically, but they are not stable. For finding stable steady states, two steps are required: the steady states have to be found and their stability has to be determined.

Viscous flow. --- Taylor vortices. --- Rayleigh-Benard convection. --- Pattern formation (Physical sciences) --- Rayleigh-Bénard convection --- Taylor vortices --- Viscous flow --- Fluid dynamics --- Viscosity --- Taylor-Couette flow --- Taylor vortex flow --- Vortices, Taylor --- Vortex-motion --- Heat --- Bénard cells --- Chaotic behavior in systems --- Convection --- Continuum physics. --- Mathematical models. --- Physics. --- Classical and Continuum Physics. --- Mathematical Modeling and Industrial Mathematics. --- Physics, general. --- Models, Mathematical --- Simulation methods --- Classical field theory --- Continuum physics --- Physics --- Continuum mechanics --- Natural philosophy --- Philosophy, Natural --- Physical sciences --- Dynamics

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