Average Functionality Factor Solution

STEP 0: Pre-Calculation Summary
Formula Used
Average Functional Factor = (Mole of each Reactant*Functionality)/Total Number of Moles
favg = (M*f)/NT
This formula uses 4 Variables
Variables Used
Average Functional Factor - The Average Functional Factor is the average number of functional groups present per reactive molecule.
Mole of each Reactant - (Measured in Mole) - A Mole of each Reactant can be defined as the number of moles present in each reactant.
Functionality - Functionality is the number of active functional groups in a molecule.
Total Number of Moles - (Measured in Mole) - Total Number of Moles is the total number of moles present in the system.
STEP 1: Convert Input(s) to Base Unit
Mole of each Reactant: 14 Mole --> 14 Mole No Conversion Required
Functionality: 5 --> No Conversion Required
Total Number of Moles: 8 Mole --> 8 Mole No Conversion Required
STEP 2: Evaluate Formula
Substituting Input Values in Formula
favg = (M*f)/NT --> (14*5)/8
Evaluating ... ...
favg = 8.75
STEP 3: Convert Result to Output's Unit
8.75 --> No Conversion Required
FINAL ANSWER
8.75 <-- Average Functional Factor
(Calculation completed in 00.020 seconds)

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15 Polymers Calculators

Sedimentation Coefficient given Dynamic Viscosity
​ Go Sedimentation Coefficient = Mass of Particle/(6*pi*Dynamic Viscosity*Radius of Spherical Particle)
Sedimentation Coefficient given Radius of Particle
​ Go Sedimentation Coefficient = Sedimentation Speed/((Radius of Spherical Particle)*(Angular Velocity)^2)
Viscosity Number
​ Go Viscosity Number = (Flow Time of Polymer Solution/(Flow Time of Solvent-1))/Polymer Concentration
Average Functionality Factor
​ Go Average Functional Factor = (Mole of each Reactant*Functionality)/Total Number of Moles
Rate of Polycondensation
​ Go Rate of Polycondensation = Rate Constant*(Diacid Concentration)^2*Diol Concentration
Number-Average Molecular Weight
​ Go Number-Average Molecular Weight = Molecular Weight of Repeating Unit/(1-Probability of Finding Repeating Unit AB)
Weight-Average Molecular Weight in General Step Reaction Polymerization
​ Go Weight-Average Molecular Weight = Number-Average Molecular Weight*(1+Probability of Finding Repeating Unit AB)
Number-Average Degree of Polymerization
​ Go Number-Average Degree of Polymerization = Number of Original Molecules/Number of Molecules at Specific Time
Activation Energy for Propagation
​ Go Activation Energy for Propagation = Heat of Polymerization+Activation Energy for Depolymerization
Compressive Strength of Material
​ Go Compressive Strength of Material = Force Applied on Material/Cross Sectional Area of Polymer
Polydispersity Index for Step-Reaction Polymers
​ Go Polydispersity Index = Weight-Average Molecular Weight/Number-Average Molecular Weight
Tensile Strength given Cross-Sectional Area
​ Go Tensile Strength = Force Applied on Material/Cross Sectional Area of Polymer
Sedimentation Coefficient of Particle
​ Go Sedimentation Coefficient = Sedimentation Speed/Applied Acceleration
Contour Length of Macromolecule
​ Go Contour Length = Number of Monomers*Length of Monomer Unit
Deborah Number
​ Go Deborah Number = Time of Relaxation/Observation Time

11 Important Formulas of Polymers Calculators

Viscosity Number
​ Go Viscosity Number = (Flow Time of Polymer Solution/(Flow Time of Solvent-1))/Polymer Concentration
Average Functionality Factor
​ Go Average Functional Factor = (Mole of each Reactant*Functionality)/Total Number of Moles
Rate of Polycondensation
​ Go Rate of Polycondensation = Rate Constant*(Diacid Concentration)^2*Diol Concentration
Number-Average Molecular Weight
​ Go Number-Average Molecular Weight = Molecular Weight of Repeating Unit/(1-Probability of Finding Repeating Unit AB)
Weight-Average Molecular Weight in General Step Reaction Polymerization
​ Go Weight-Average Molecular Weight = Number-Average Molecular Weight*(1+Probability of Finding Repeating Unit AB)
Number-Average Degree of Polymerization
​ Go Number-Average Degree of Polymerization = Number of Original Molecules/Number of Molecules at Specific Time
Compressive Strength of Material
​ Go Compressive Strength of Material = Force Applied on Material/Cross Sectional Area of Polymer
Polydispersity Index for Step-Reaction Polymers
​ Go Polydispersity Index = Weight-Average Molecular Weight/Number-Average Molecular Weight
Tensile Strength given Cross-Sectional Area
​ Go Tensile Strength = Force Applied on Material/Cross Sectional Area of Polymer
Sedimentation Coefficient of Particle
​ Go Sedimentation Coefficient = Sedimentation Speed/Applied Acceleration
Contour Length of Macromolecule
​ Go Contour Length = Number of Monomers*Length of Monomer Unit

Average Functionality Factor Formula

Average Functional Factor = (Mole of each Reactant*Functionality)/Total Number of Moles
favg = (M*f)/NT

What is Polymerization?

In polymer chemistry, polymerization is a process of reacting monomer molecules together in a chemical reaction to form polymer chains or three-dimensional networks. In chemical compounds, polymerization can occur via a variety of reaction mechanisms that vary in complexity due to the functional groups present in the reactants and their inherent steric effects.

How to Calculate Average Functionality Factor?

Average Functionality Factor calculator uses Average Functional Factor = (Mole of each Reactant*Functionality)/Total Number of Moles to calculate the Average Functional Factor, The Average Functionality Factor formula is defined as the average number of functional groups present per reactive molecule in a mixture of reactants. Average Functional Factor is denoted by favg symbol.

How to calculate Average Functionality Factor using this online calculator? To use this online calculator for Average Functionality Factor, enter Mole of each Reactant (M), Functionality (f) & Total Number of Moles (NT) and hit the calculate button. Here is how the Average Functionality Factor calculation can be explained with given input values -> 8.75 = (14*5)/8.

FAQ

What is Average Functionality Factor?
The Average Functionality Factor formula is defined as the average number of functional groups present per reactive molecule in a mixture of reactants and is represented as favg = (M*f)/NT or Average Functional Factor = (Mole of each Reactant*Functionality)/Total Number of Moles. A Mole of each Reactant can be defined as the number of moles present in each reactant, Functionality is the number of active functional groups in a molecule & Total Number of Moles is the total number of moles present in the system.
How to calculate Average Functionality Factor?
The Average Functionality Factor formula is defined as the average number of functional groups present per reactive molecule in a mixture of reactants is calculated using Average Functional Factor = (Mole of each Reactant*Functionality)/Total Number of Moles. To calculate Average Functionality Factor, you need Mole of each Reactant (M), Functionality (f) & Total Number of Moles (NT). With our tool, you need to enter the respective value for Mole of each Reactant, Functionality & Total Number of Moles 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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