Convective Mass Transfer Coefficient in Convective Mass Transfer Formulas

Convective Mass Transfer Coefficient is the rate of mass transfer between a surface and a moving fluid, influenced by convection and diffusion processes. And is denoted by k_L. Convective Mass Transfer Coefficient is usually measured using the Meter per Second for Speed. Note that the value of Convective Mass Transfer Coefficient is always negative.

Formulas to find Convective Mass Transfer Coefficient in Convective Mass Transfer

fxConvective Mass Transfer Coefficient for Simultaneous Heat and Mass TransferGo

fxConvective Mass Transfer Coefficient through Liquid Gas InterfaceGo

Convective Mass Transfer formulas that make use of Convective Mass Transfer Coefficient

fxMass Transfer Stanton NumberGo

fxHeat Transfer Coefficient for Simultaneous Heat and Mass TransferGo

fxSpecific heat given convective heat and mass transferGo

List of variables in Convective Mass Transfer formulas

fx Heat Transfer Coefficient Go

fx Specific Heat Go

fx Density of Liquid Go

fx Lewis Number Go

fx Mass Transfer Coefficient of Medium 1 Go

fx Mass Transfer Coefficient of Medium 2 Go

fx Henry's Constant Go

FAQ

What is the Convective Mass Transfer Coefficient?

Convective Mass Transfer Coefficient is the rate of mass transfer between a surface and a moving fluid, influenced by convection and diffusion processes. Convective Mass Transfer Coefficient is usually measured using the Meter per Second for Speed. Note that the value of Convective Mass Transfer Coefficient is always negative.

Can the Convective Mass Transfer Coefficient be negative?

Yes, the Convective Mass Transfer Coefficient, measured in Speed can be negative.

What unit is used to measure Convective Mass Transfer Coefficient?

Convective Mass Transfer Coefficient is usually measured using the Meter per Second[m/s] for Speed. Meter per Minute[m/s], Meter per Hour[m/s], Kilometer per Hour[m/s] are the few other units in which Convective Mass Transfer Coefficient can be measured.

Let Others Know

✖

Facebook

Twitter

Copied!