Space Time of Mixed Flow Reactor with Weight of Catalyst Solution

STEP 0: Pre-Calculation Summary
Formula Used
Space Time for Reaction for Weight of Catalyst = (Reactant Conversion*(1+Fractional Volume Change*Reactant Conversion))/((1-Reactant Conversion)*Rate Const. based on Weight of Catalyst)
𝛕' = (XA,out*(1+ε*XA,out))/((1-XA,out)*k ')
This formula uses 4 Variables
Variables Used
Space Time for Reaction for Weight of Catalyst - (Measured in Second) - Space Time for Reaction for Weight of Catalyst is Space Time calculated when Catalyst is present.
Reactant Conversion - Reactant conversion is a measure of the extent to which a reactant has been transformed into products in a chemical reaction.
Fractional Volume Change - Fractional Volume Change is the ratio of the change in volume and the initial volume.
Rate Const. based on Weight of Catalyst - (Measured in 1 Per Second) - Rate Const. based on Weight of Catalyst is constant for Rate of Reaction, for Solid Catalyzed Reactions.
STEP 1: Convert Input(s) to Base Unit
Reactant Conversion: 0.7 --> No Conversion Required
Fractional Volume Change: 0.22 --> No Conversion Required
Rate Const. based on Weight of Catalyst: 0.987 1 Per Second --> 0.987 1 Per Second No Conversion Required
STEP 2: Evaluate Formula
Substituting Input Values in Formula
𝛕' = (XA,out*(1+ε*XA,out))/((1-XA,out)*k ') --> (0.7*(1+0.22*0.7))/((1-0.7)*0.987)
Evaluating ... ...
𝛕' = 2.72813238770686
STEP 3: Convert Result to Output's Unit
2.72813238770686 Second --> No Conversion Required
FINAL ANSWER
2.72813238770686 2.728132 Second <-- Space Time for Reaction for Weight of Catalyst
(Calculation completed in 00.004 seconds)

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Mass Transfer Coefficient of Fluid passing through Single Particle
​ Go Overall Gas Phase Mass Transfer Coefficient = (2+0.6*(((Density*Velocity in Tube*Diameter of Tube)/Dynamic Viscosity of Liquid)^(1/2))*((Dynamic Viscosity of Liquid/(Density*Diffusivity of Flow))^(1/3)))*(Diffusivity of Flow/Diameter of Tube)
Initial Reactant Concentration for Rxn Containing Batch of Catalysts and Batch of Gas at 1st Order
​ Go Initial Concentration of Reactant = Reactant Concentration*(exp((Reaction Rate based on Volume of Catalyst Pellets*Solid Fraction*Height of Catalyst Bed)/Superficial Gas Velocity))
Rate Constant for Mixed Flow Reactor with Weight of Catalyst
​ Go Rate Const. based on Weight of Catalyst = (Reactant Conversion*(1+Fractional Volume Change*Reactant Conversion))/((1-Reactant Conversion)*Space Time for Reaction for Weight of Catalyst)
Space Time of Mixed Flow Reactor with Weight of Catalyst
​ Go Space Time for Reaction for Weight of Catalyst = (Reactant Conversion*(1+Fractional Volume Change*Reactant Conversion))/((1-Reactant Conversion)*Rate Const. based on Weight of Catalyst)
Rate Constant for Mixed Flow Reactor with Volume of Catalyst
​ Go Rate Const. on Volume of Pellets = (Reactant Conversion*(1+Fractional Volume Change*Reactant Conversion))/((1-Reactant Conversion)*Space Time based on Volume of Catalyst)
Space Time of Mixed Flow Reactor with Volume of Catalyst
​ Go Space Time based on Volume of Catalyst = (Reactant Conversion*(1+Fractional Volume Change*Reactant Conversion))/((1-Reactant Conversion)*Rate Const. on Volume of Pellets)
Mass Transfer Coefficient of Fluid passing through Packed Bed of Particles
​ Go Overall Gas Phase Mass Transfer Coefficient = (2+1.8*((Reynolds Number)^(1/2)*(Schimdt Number)^(1/3)))*(Diffusivity of Flow/Diameter of Tube)
Rate of Reaction in Mixed Flow Reactor Containing Catalyst
​ Go Rate of Reaction on Weight of Catalyst Pellets = ((Molar Feed Rate of Reactant*Reactant Conversion)/Weight of Catalyst)
Thiele Modulus
​ Go Thiele Modulus = Length of Catalyst Pore*sqrt(Rate Constant/Diffusion Coefficient)
Effectiveness Factor at First Order
​ Go Effectiveness Factor = tanh(Thiele Modulus)/Thiele Modulus

Space Time of Mixed Flow Reactor with Weight of Catalyst Formula

Space Time for Reaction for Weight of Catalyst = (Reactant Conversion*(1+Fractional Volume Change*Reactant Conversion))/((1-Reactant Conversion)*Rate Const. based on Weight of Catalyst)
𝛕' = (XA,out*(1+ε*XA,out))/((1-XA,out)*k ')

What is 𝛕' ?

𝛕' is Space Time, time required to process one reactor, calculated when the Weight of Catalyst Pellets is considered in the Chemical Reaction.

What is ε ?

The effectiveness factor (ε ) is a dimensionless parameter that quantifies how efficiently a catalyst is utilized in a chemical reaction. It is particularly relevant in reactions involving porous catalysts, where the reaction takes place on the surface of the catalyst particles.

How to Calculate Space Time of Mixed Flow Reactor with Weight of Catalyst?

Space Time of Mixed Flow Reactor with Weight of Catalyst calculator uses Space Time for Reaction for Weight of Catalyst = (Reactant Conversion*(1+Fractional Volume Change*Reactant Conversion))/((1-Reactant Conversion)*Rate Const. based on Weight of Catalyst) to calculate the Space Time for Reaction for Weight of Catalyst, The Space Time of Mixed Flow Reactor with Weight of Catalyst formula is defined as, Space Time Calculated using Rectant conversion, Fractional Conversion and Rate of reaction Calculated when Weight of Catalyst is considered. Space Time for Reaction for Weight of Catalyst is denoted by 𝛕' symbol.

How to calculate Space Time of Mixed Flow Reactor with Weight of Catalyst using this online calculator? To use this online calculator for Space Time of Mixed Flow Reactor with Weight of Catalyst, enter Reactant Conversion (XA,out), Fractional Volume Change (ε) & Rate Const. based on Weight of Catalyst (k ') and hit the calculate button. Here is how the Space Time of Mixed Flow Reactor with Weight of Catalyst calculation can be explained with given input values -> 2.725371 = (0.7*(1+0.22*0.7))/((1-0.7)*0.987).

FAQ

What is Space Time of Mixed Flow Reactor with Weight of Catalyst?
The Space Time of Mixed Flow Reactor with Weight of Catalyst formula is defined as, Space Time Calculated using Rectant conversion, Fractional Conversion and Rate of reaction Calculated when Weight of Catalyst is considered and is represented as 𝛕' = (XA,out*(1+ε*XA,out))/((1-XA,out)*k ') or Space Time for Reaction for Weight of Catalyst = (Reactant Conversion*(1+Fractional Volume Change*Reactant Conversion))/((1-Reactant Conversion)*Rate Const. based on Weight of Catalyst). Reactant conversion is a measure of the extent to which a reactant has been transformed into products in a chemical reaction, Fractional Volume Change is the ratio of the change in volume and the initial volume & Rate Const. based on Weight of Catalyst is constant for Rate of Reaction, for Solid Catalyzed Reactions.
How to calculate Space Time of Mixed Flow Reactor with Weight of Catalyst?
The Space Time of Mixed Flow Reactor with Weight of Catalyst formula is defined as, Space Time Calculated using Rectant conversion, Fractional Conversion and Rate of reaction Calculated when Weight of Catalyst is considered is calculated using Space Time for Reaction for Weight of Catalyst = (Reactant Conversion*(1+Fractional Volume Change*Reactant Conversion))/((1-Reactant Conversion)*Rate Const. based on Weight of Catalyst). To calculate Space Time of Mixed Flow Reactor with Weight of Catalyst, you need Reactant Conversion (XA,out), Fractional Volume Change (ε) & Rate Const. based on Weight of Catalyst (k '). With our tool, you need to enter the respective value for Reactant Conversion, Fractional Volume Change & Rate Const. based on Weight of Catalyst and hit the calculate button. You can also select the units (if any) for Input(s) and the Output as well.
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