Mean Velocity Gradient given Power Requirement for Rapid Mixing Operations Calculator

✖Power Requirement refers to the amount of energy needed to operate various processes, systems, or equipment involved in environmental management.ⓘ Power Requirement [P]			+10% -10%
✖Dynamic Viscosity refers to a measure of a fluid's resistance to flow under an applied force or shear stress.ⓘ Dynamic Viscosity [μ_viscosity]			+10% -10%
✖Volume of Tank refers to the total capacity or size of a tank used for storing liquids, such as water, chemicals, or wastewater.ⓘ Volume of Tank [V]			+10% -10%

✖Mean Velocity Gradient refers to the rate of change of velocity within a fluid over a specified distance or depth.ⓘ Mean Velocity Gradient given Power Requirement for Rapid Mixing Operations [G]

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Formula

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Mean Velocity Gradient given Power Requirement for Rapid Mixing Operations

Formula

`"G" = sqrt("P"/("μ"_{"viscosity"}*"V"))`

Example

`"2.000004s⁻¹"=sqrt("3kJ/s"/("833.33P"*"9m³"))`

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Mean Velocity Gradient given Power Requirement for Rapid Mixing Operations Solution

STEP 0: Pre-Calculation Summary

Formula Used

Mean Velocity Gradient = sqrt(Power Requirement/(Dynamic Viscosity*Volume of Tank))
G = sqrt(P/(μ_viscosity*V))
This formula uses 1 Functions, 4 Variables

Functions Used

sqrt - A square root function is a function that takes a non-negative number as an input and returns the square root of the given input number., sqrt(Number)

Variables Used

Mean Velocity Gradient - (Measured in 1 Per Second) - Mean Velocity Gradient refers to the rate of change of velocity within a fluid over a specified distance or depth.
Power Requirement - (Measured in Watt) - Power Requirement refers to the amount of energy needed to operate various processes, systems, or equipment involved in environmental management.
Dynamic Viscosity - (Measured in Pascal Second) - Dynamic Viscosity refers to a measure of a fluid's resistance to flow under an applied force or shear stress.
Volume of Tank - (Measured in Cubic Meter) - Volume of Tank refers to the total capacity or size of a tank used for storing liquids, such as water, chemicals, or wastewater.

STEP 1: Convert Input(s) to Base Unit

Power Requirement: 3 Kilojoule per Second --> 3000 Watt (Check conversion here)
Dynamic Viscosity: 833.33 Poise --> 83.333 Pascal Second (Check conversion here)
Volume of Tank: 9 Cubic Meter --> 9 Cubic Meter No Conversion Required

STEP 2: Evaluate Formula

Substituting Input Values in Formula

G = sqrt(P/(μ_viscosity*V)) --> sqrt(3000/(83.333*9))

Evaluating ... ...

G = 2.000004000012

STEP 3: Convert Result to Output's Unit

2.000004000012 1 Per Second --> No Conversion Required

FINAL ANSWER

2.000004000012 ≈ 2.000004 1 Per Second <-- Mean Velocity Gradient

(Calculation completed in 00.004 seconds)

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Home » Engineering » Civil » Environmental Engineering » Design of Rapid Mix Basin and Flocculation Basin » Mean Velocity Gradient given Power Requirement for Rapid Mixing Operations

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Birsa Institute of Technology (BIT), Sindri

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< 19 Design of Rapid Mix Basin and Flocculation Basin Calculators

Mean Velocity Gradient given Power Requirement for Rapid Mixing Operations

Go Mean Velocity Gradient = sqrt(Power Requirement/(Dynamic Viscosity*Volume of Tank))

Mean Velocity Gradient given Power Requirement for Flocculation

Go Mean Velocity Gradient = sqrt(Power Requirement/(Dynamic Viscosity*Volume of Tank))

Mean Velocity Gradient given Power Requirement

Go Mean Velocity Gradient = sqrt(Power Requirement/(Dynamic Viscosity*Volume of Tank))

Flow Rate of Secondary Effluent given Volume of Flocculation Basin

Go Flow Rate of Secondary Effluent = (Volume of Tank*Time in Min Per Day)/Retention Time

Time in Minutes Per Day given Volume of Flocculation Basin

Go Time in Min Per Day = (Retention Time*Flow Rate of Secondary Effluent)/Volume of Tank

Retention Time given Volume of Flocculation Basin

Go Retention Time = (Volume of Tank*Time in Min Per Day)/Flow Rate of Secondary Effluent

Required Volume of Flocculation Basin

Go Volume of Tank = (Retention Time*Flow Rate of Secondary Effluent)/Time in Min Per Day

Volume of Mixing Tank given Power Requirement for Rapid Mixing Operations

Go Volume of Tank = (Power Requirement/((Mean Velocity Gradient)^2*Dynamic Viscosity))

Dynamic Viscosity given Power Requirement for Rapid Mixing Operations

Go Dynamic Viscosity = (Power Requirement/((Mean Velocity Gradient)^2*Volume of Tank))

Volume of Flocculation Basin given Power Requirement for Flocculation

Go Volume of Tank = (Power Requirement/((Mean Velocity Gradient)^2*Dynamic Viscosity))

Dynamic Viscosity given Power Requirement for Flocculation

Go Dynamic Viscosity = (Power Requirement/((Mean Velocity Gradient)^2*Volume of Tank))

Volume of Mixing Tank given Mean Velocity Gradient

Go Volume of Tank = (Power Requirement/((Mean Velocity Gradient)^2*Dynamic Viscosity))

Dynamic Viscosity given Mean Velocity Gradient

Go Dynamic Viscosity = (Power Requirement/((Mean Velocity Gradient)^2*Volume of Tank))

Power Requirement for Rapid Mixing Operations in Wastewater Treatment

Go Power Requirement = (Mean Velocity Gradient)^2*Dynamic Viscosity*Volume of Tank

Power Requirement for Flocculation in Direct Filtration Process

Go Power Requirement = (Mean Velocity Gradient)^2*Dynamic Viscosity*Volume of Tank

Power Requirement given Mean Velocity Gradient

Go Power Requirement = (Mean Velocity Gradient)^2*Dynamic Viscosity*Volume of Tank

Hydraulic Retention Time given Volume of Rapid Mix Basin

Go Hydraulic Retention Time = Volume of Rapid Mix Basin/Waste Water Flow

Wastewater Flow given Volume of Rapid Mix Basin

Go Waste Water Flow = Volume of Rapid Mix Basin/Hydraulic Retention Time

Volume of Rapid Mix Basin

Go Volume of Rapid Mix Basin = Hydraulic Retention Time*Waste Water Flow

Mean Velocity Gradient given Power Requirement for Rapid Mixing Operations Formula

Mean Velocity Gradient = sqrt(Power Requirement/(Dynamic Viscosity*Volume of Tank))
G = sqrt(P/(μ_viscosity*V))

What is Mean Velocity Gradient?

In systems of stirring, the velocity of the fluid varies both spatially (from point to point) and temporally (from time to time). The spatial changes in velocity are identified by a velocity gradient, G.

How to Calculate Mean Velocity Gradient given Power Requirement for Rapid Mixing Operations?

Mean Velocity Gradient given Power Requirement for Rapid Mixing Operations calculator uses Mean Velocity Gradient = sqrt(Power Requirement/(Dynamic Viscosity*Volume of Tank)) to calculate the Mean Velocity Gradient, The Mean Velocity Gradient given Power Requirement for Rapid Mixing Operations is defined as the the rate of energy dissipation within the system, influencing the formation and stability of flocs, when we have the prior information about the power required for the rapid mixing. Mean Velocity Gradient is denoted by G symbol.

How to calculate Mean Velocity Gradient given Power Requirement for Rapid Mixing Operations using this online calculator? To use this online calculator for Mean Velocity Gradient given Power Requirement for Rapid Mixing Operations, enter Power Requirement (P), Dynamic Viscosity (μ_viscosity) & Volume of Tank (V) and hit the calculate button. Here is how the Mean Velocity Gradient given Power Requirement for Rapid Mixing Operations calculation can be explained with given input values -> 18.07754 = sqrt(3000/(83.333*9)).

FAQ

What is Mean Velocity Gradient given Power Requirement for Rapid Mixing Operations?

The Mean Velocity Gradient given Power Requirement for Rapid Mixing Operations is defined as the the rate of energy dissipation within the system, influencing the formation and stability of flocs, when we have the prior information about the power required for the rapid mixing and is represented as G = sqrt(P/(μ_viscosity*V)) or Mean Velocity Gradient = sqrt(Power Requirement/(Dynamic Viscosity*Volume of Tank)). Power Requirement refers to the amount of energy needed to operate various processes, systems, or equipment involved in environmental management, Dynamic Viscosity refers to a measure of a fluid's resistance to flow under an applied force or shear stress & Volume of Tank refers to the total capacity or size of a tank used for storing liquids, such as water, chemicals, or wastewater.

How to calculate Mean Velocity Gradient given Power Requirement for Rapid Mixing Operations?

The Mean Velocity Gradient given Power Requirement for Rapid Mixing Operations is defined as the the rate of energy dissipation within the system, influencing the formation and stability of flocs, when we have the prior information about the power required for the rapid mixing is calculated using Mean Velocity Gradient = sqrt(Power Requirement/(Dynamic Viscosity*Volume of Tank)). To calculate Mean Velocity Gradient given Power Requirement for Rapid Mixing Operations, you need Power Requirement (P), Dynamic Viscosity (μ_viscosity) & Volume of Tank (V). With our tool, you need to enter the respective value for Power Requirement, Dynamic Viscosity & Volume of Tank and hit the calculate button. You can also select the units (if any) for Input(s) and the Output as well.

How many ways are there to calculate Mean Velocity Gradient?

In this formula, Mean Velocity Gradient uses Power Requirement, Dynamic Viscosity & Volume of Tank. We can use 2 other way(s) to calculate the same, which is/are as follows -

Mean Velocity Gradient = sqrt(Power Requirement/(Dynamic Viscosity*Volume of Tank))
Mean Velocity Gradient = sqrt(Power Requirement/(Dynamic Viscosity*Volume of Tank))

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