Heat transfer analysis in entropy optimized Sutterby nanofluid flow over
a porous medium
Abstract
In present communication irreversibility analysis in Sutterby nanofluid
flow towards stretching permeable surface is analyzed. Dissipation, heat
flux, heat source/sink and Joule heating impacts are scrutinized in
energy expression. Physical description of irreversibility analysis is
deliberated through second law of thermodynamics. Thermophoresis and
random movement characteristics are also accounted. Furthermore first
order binary chemical reaction is scrutinized. Ordinary differential
system are obtained through similarity transformation. To get convergent
series solution we employed ND-solve method. Prominent effect of
involved variables on velocity filed, entropy optimization, temperature
distribution, Bejan number and concentration are discussed. Skin
friction coefficient, gradient of temperature and Sherwood number are
numerically analyzed through tables. An increment in velocity field is
noted for Reynold and Deborah number. An opposite behavior for velocity
and temperature is noticed through magnetic parameter. Larger Schmidt
number reduces the concentration distribution. Entropy generation is
improved against Reynold and Brinkman numbers. An reverse trend is
observed for Bejan number and entropy rate through magnetic parameter