Propeller Turbine Mixer Design

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Propeller Turbine Mixer Design Calculator Wastewater Treatment - Mixing Solving for power requirement (laminar flow). Inputs: mixing constant (k) fluid dynamic viscosity (μ) revolution per second (n) impeller diameter (D) Share on email Share on favorites Share on print | Share on facebook Share on twitter Share on gmail Conversions: mixing constant (k) = 0 = 0 fluid dynamic viscosity (μ) = 0 = 0 newton-second/ meter^2 revolution per second (n) = 0 = 0 impeller diameter (D) = 0 = 0 meter

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Propeller Turbine Mixer Design Calculation Procedure

Transcript of Propeller Turbine Mixer Design

Page 1: Propeller Turbine Mixer Design

Propeller Turbine Mixer Design Calculator

Wastewater Treatment - Mixing

Solving for power requirement (laminar flow).

Inputs:

mixing constant (k)

fluid dynamic viscosity (μ)

revolution per second (n)

impeller diameter (D)

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Conversions:

mixing constant (k)  = 0  = 0fluid dynamic viscosity (μ) = 0  = 0 newton-second/meter^2revolution per second (n)  = 0  = 0impeller diameter (D)  = 0  = 0 meter

Solution:

power requirement (P) = HAS NOT BEEN CALCULATED

Other Units:

Change EquationSelect an equation to solve for a different unknown

Page 2: Propeller Turbine Mixer Design

propeller and turbine mixers

power requirement (laminar flow)Reynolds number < 10

mixing constant (laminar flow)

fluid dynamic viscosity

rotation speed revolutions per second (laminar flow)

impeller diameter (laminar flow)

power requirement (turbulent flow)Reynolds number >10000

mixing constant (turbulent flow)

fluid mass density

rotation speed revolutions per second (turbulent flow)

impeller diameter (turbulent flow)

Reynolds number

impeller diameter

rotation speed revolutions per second