Ratio of Two Maximum Rate of Biomolecular Reaction Solution

STEP 0: Pre-Calculation Summary
Formula Used
Ratio of Two Maximum Rate of Biomolecular Reaction = (Temperature 1/Temperature 2)^1/2
rmax12ratio = (T1/T2)^1/2
This formula uses 3 Variables
Variables Used
Ratio of Two Maximum Rate of Biomolecular Reaction - Ratio of Two Maximum Rate of Biomolecular Reaction is defined as the ratio of two rate constant which directly proportional to the square root of the temperature.
Temperature 1 - (Measured in Kelvin) - Temperature 1 is defined as lower temperature at which chemical reaction proceed.
Temperature 2 - (Measured in Kelvin) - Temperature 2 is the higher temperature at which reaction proceeds in chemical kinetics.
STEP 1: Convert Input(s) to Base Unit
Temperature 1: 350 Kelvin --> 350 Kelvin No Conversion Required
Temperature 2: 450 Kelvin --> 450 Kelvin No Conversion Required
STEP 2: Evaluate Formula
Substituting Input Values in Formula
rmax12ratio = (T1/T2)^1/2 --> (350/450)^1/2
Evaluating ... ...
rmax12ratio = 0.388888888888889
STEP 3: Convert Result to Output's Unit
0.388888888888889 --> No Conversion Required
FINAL ANSWER
0.388888888888889 0.388889 <-- Ratio of Two Maximum Rate of Biomolecular Reaction
(Calculation completed in 00.004 seconds)

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4 Collision Theory Calculators

Number of Collision per Unit Volume per Unit Time between A and B
Go Number of Collision between A and B = (pi*((Closeness of Approach for Collision)^2)*Molecular Collision per Unit Volume per Unit Time*(((8*[BoltZ]*Temperature_Kinetics)/(pi*Reduced Mass))^1/2))
Ratio of Pre-Exponential Factor
Go Ratio of Pre Exponential Factor = (((Collision Diameter 1)^2)*(sqrt(Reduced Mass 2)))/(((Collision Diameter 2)^2)*(sqrt(Reduced Mass 1)))
Number of Collision per Unit Volume per Unit Time between Same Molecule
Go Molecular Collision = (1*pi*((Diameter of Molecule A)^2)*Average Speed of Gas*((Number of A Molecules Per Unit Volume of Vessel)^2))/1.414
Ratio of Two Maximum Rate of Biomolecular Reaction
Go Ratio of Two Maximum Rate of Biomolecular Reaction = (Temperature 1/Temperature 2)^1/2

8 Collision Theory and Chain Reactions Calculators

Concentration of Radical in Non-Stationary Chain Reactions
Go Concentration of Radical given nonCR = (Reaction Rate Constant for Initiation Step*Concentration of Reactant A)/(-Reaction Rate Constant for Propagation Step*(No. of Radicals Formed-1)*Concentration of Reactant A+(Rate Constant at Wall+Rate Constant within Gaseous Phase))
Concentration of Radical formed during Chain Propagation Step given kw and kg
Go Concentration of Radical given CP = (Reaction Rate Constant for Initiation Step*Concentration of Reactant A)/(Reaction Rate Constant for Propagation Step*(1-No. of Radicals Formed)*Concentration of Reactant A+(Rate Constant at Wall+Rate Constant within Gaseous Phase))
Concentration of Radical formed in Chain Reaction
Go Concentration of Radical given CR = (Reaction Rate Constant for Initiation Step*Concentration of Reactant A)/(Reaction Rate Constant for Propagation Step*(1-No. of Radicals Formed)*Concentration of Reactant A+Reaction Rate Constant for Termination Step)
Number of Collision per Unit Volume per Unit Time between A and B
Go Number of Collision between A and B = (pi*((Closeness of Approach for Collision)^2)*Molecular Collision per Unit Volume per Unit Time*(((8*[BoltZ]*Temperature_Kinetics)/(pi*Reduced Mass))^1/2))
Ratio of Pre-Exponential Factor
Go Ratio of Pre Exponential Factor = (((Collision Diameter 1)^2)*(sqrt(Reduced Mass 2)))/(((Collision Diameter 2)^2)*(sqrt(Reduced Mass 1)))
Concentration of Radical in Stationary Chain Reactions
Go Concentration of Radical given SCR = (Reaction Rate Constant for Initiation Step*Concentration of Reactant A)/(Rate Constant at Wall+Rate Constant within Gaseous Phase)
Number of Collision per Unit Volume per Unit Time between Same Molecule
Go Molecular Collision = (1*pi*((Diameter of Molecule A)^2)*Average Speed of Gas*((Number of A Molecules Per Unit Volume of Vessel)^2))/1.414
Ratio of Two Maximum Rate of Biomolecular Reaction
Go Ratio of Two Maximum Rate of Biomolecular Reaction = (Temperature 1/Temperature 2)^1/2

Ratio of Two Maximum Rate of Biomolecular Reaction Formula

Ratio of Two Maximum Rate of Biomolecular Reaction = (Temperature 1/Temperature 2)^1/2
rmax12ratio = (T1/T2)^1/2

What is Collison Theory of Biomolecular Reaction ?

Rate Constant Using Collision Theory is defined as the rate constant for bimolecular gas-phase reactions which is equal to the rate of successful collisions.

How to Calculate Ratio of Two Maximum Rate of Biomolecular Reaction?

Ratio of Two Maximum Rate of Biomolecular Reaction calculator uses Ratio of Two Maximum Rate of Biomolecular Reaction = (Temperature 1/Temperature 2)^1/2 to calculate the Ratio of Two Maximum Rate of Biomolecular Reaction, Ratio of Two Maximum Rate of Biomolecular Reaction is defined as the ratio of two rate constant which directly proportional to the square root of the temperature. Ratio of Two Maximum Rate of Biomolecular Reaction is denoted by rmax12ratio symbol.

How to calculate Ratio of Two Maximum Rate of Biomolecular Reaction using this online calculator? To use this online calculator for Ratio of Two Maximum Rate of Biomolecular Reaction, enter Temperature 1 (T1) & Temperature 2 (T2) and hit the calculate button. Here is how the Ratio of Two Maximum Rate of Biomolecular Reaction calculation can be explained with given input values -> 0.388889 = (350/450)^1/2.

FAQ

What is Ratio of Two Maximum Rate of Biomolecular Reaction?
Ratio of Two Maximum Rate of Biomolecular Reaction is defined as the ratio of two rate constant which directly proportional to the square root of the temperature and is represented as rmax12ratio = (T1/T2)^1/2 or Ratio of Two Maximum Rate of Biomolecular Reaction = (Temperature 1/Temperature 2)^1/2. Temperature 1 is defined as lower temperature at which chemical reaction proceed & Temperature 2 is the higher temperature at which reaction proceeds in chemical kinetics.
How to calculate Ratio of Two Maximum Rate of Biomolecular Reaction?
Ratio of Two Maximum Rate of Biomolecular Reaction is defined as the ratio of two rate constant which directly proportional to the square root of the temperature is calculated using Ratio of Two Maximum Rate of Biomolecular Reaction = (Temperature 1/Temperature 2)^1/2. To calculate Ratio of Two Maximum Rate of Biomolecular Reaction, you need Temperature 1 (T1) & Temperature 2 (T2). With our tool, you need to enter the respective value for Temperature 1 & Temperature 2 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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