Radius 1 given Rotational Frequency Solution

STEP 0: Pre-Calculation Summary
Formula Used
Mass 2 of Diatomic Molecule = Velocity of Particle with Mass m1/(2*pi*Rotational Frequency)
md2 = v1/(2*pi*νrot)
This formula uses 1 Constants, 3 Variables
Constants Used
pi - Archimedes' constant Value Taken As 3.14159265358979323846264338327950288
Variables Used
Mass 2 of Diatomic Molecule - (Measured in Kilogram) - Mass 2 of Diatomic Molecule is the quantity of matter in a body 1 regardless of its volume or of any forces acting on it.
Velocity of Particle with Mass m1 - (Measured in Meter per Second) - Velocity of particle with mass m1 is the rate at which particle (of mass m1) moves.
Rotational Frequency - (Measured in Hertz) - Rotational Frequency is defined as the number of rotations per unit time or reciprocal of the time period of one complete rotation.
STEP 1: Convert Input(s) to Base Unit
Velocity of Particle with Mass m1: 1.6 Meter per Second --> 1.6 Meter per Second No Conversion Required
Rotational Frequency: 10 Hertz --> 10 Hertz No Conversion Required
STEP 2: Evaluate Formula
Substituting Input Values in Formula
md2 = v1/(2*pi*νrot) --> 1.6/(2*pi*10)
Evaluating ... ...
md2 = 0.0254647908947033
STEP 3: Convert Result to Output's Unit
0.0254647908947033 Kilogram --> No Conversion Required
FINAL ANSWER
0.0254647908947033 0.025465 Kilogram <-- Mass 2 of Diatomic Molecule
(Calculation completed in 00.004 seconds)

Credits

Created by Nishant Sihag
Indian Institute of Technology (IIT), Delhi
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National Institute of Information Technology (NIIT), Neemrana
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13 Reduced Mass and Radius of Diatomic Molecule Calculators

Radius 2 given Moment of Inertia
Go Radius 2 given Moment of Inertia = sqrt((Moment of Inertia-(Mass 1*Radius of Mass 1^2))/Mass 2)
Radius 1 given Moment of Inertia
Go Mass 2 of Diatomic Molecule = sqrt((Moment of Inertia-(Mass 2*Radius of Mass 2^2))/Mass 1)
Mass 2 given Moment of Inertia
Go Mass 2 given Moment of Inertia = (Moment of Inertia-(Mass 1*Radius of Mass 1^2))/Radius of Mass 2^2
Mass 1 given Moment of Inertia
Go Mass2 of object1 = (Moment of Inertia-(Mass 2*Radius of Mass 2^2))/Radius of Mass 1^2
Radius 1 given Rotational Frequency
Go Mass 2 of Diatomic Molecule = Velocity of Particle with Mass m1/(2*pi*Rotational Frequency)
Radius 1 of Rotation given Masses and Bond Length
Go Radius 1 of Rotation = Mass 2*Bond Length/(Mass 1+Mass 2)
Radius 2 of Rotation given Masses and Bond Length
Go Radius of Mass 2 = Mass 1*Bond Length/(Mass 1+Mass 2)
Radius 2 given Rotational Frequency
Go Radius of Mass 2 = Velocity of Particle with Mass m2/(2*pi*Rotational Frequency)
Reduced Mass
Go Reduced Mass = ((Mass 1*Mass 2)/(Mass 1+Mass 2))
Mass 1 of Diatomic Molecule
Go Mass 1 of Diatomic Molecule = Mass 2*Radius of Mass 2/Radius of Mass 1
Mass 2 of Diatomic Molecule
Go Mass 2 of Diatomic Molecule = Mass 1*Radius of Mass 1/Radius of Mass 2
Radius 2 of Rotation
Go Radius 1 given Rotational Frequency = Mass 1*Radius of Mass 1/Mass 2
Radius 1 of Rotation
Go Radius 1 of Rotation = Mass 2*Radius of Mass 2/Mass 1

13 Reduced Mass and Radius of Diatomic Molecule Calculators

Radius 2 given Moment of Inertia
Go Radius 2 given Moment of Inertia = sqrt((Moment of Inertia-(Mass 1*Radius of Mass 1^2))/Mass 2)
Radius 1 given Moment of Inertia
Go Mass 2 of Diatomic Molecule = sqrt((Moment of Inertia-(Mass 2*Radius of Mass 2^2))/Mass 1)
Mass 2 given Moment of Inertia
Go Mass 2 given Moment of Inertia = (Moment of Inertia-(Mass 1*Radius of Mass 1^2))/Radius of Mass 2^2
Mass 1 given Moment of Inertia
Go Mass2 of object1 = (Moment of Inertia-(Mass 2*Radius of Mass 2^2))/Radius of Mass 1^2
Radius 1 given Rotational Frequency
Go Mass 2 of Diatomic Molecule = Velocity of Particle with Mass m1/(2*pi*Rotational Frequency)
Radius 1 of Rotation given Masses and Bond Length
Go Radius 1 of Rotation = Mass 2*Bond Length/(Mass 1+Mass 2)
Radius 2 of Rotation given Masses and Bond Length
Go Radius of Mass 2 = Mass 1*Bond Length/(Mass 1+Mass 2)
Radius 2 given Rotational Frequency
Go Radius of Mass 2 = Velocity of Particle with Mass m2/(2*pi*Rotational Frequency)
Reduced Mass
Go Reduced Mass = ((Mass 1*Mass 2)/(Mass 1+Mass 2))
Mass 1 of Diatomic Molecule
Go Mass 1 of Diatomic Molecule = Mass 2*Radius of Mass 2/Radius of Mass 1
Mass 2 of Diatomic Molecule
Go Mass 2 of Diatomic Molecule = Mass 1*Radius of Mass 1/Radius of Mass 2
Radius 2 of Rotation
Go Radius 1 given Rotational Frequency = Mass 1*Radius of Mass 1/Mass 2
Radius 1 of Rotation
Go Radius 1 of Rotation = Mass 2*Radius of Mass 2/Mass 1

Radius 1 given Rotational Frequency Formula

Mass 2 of Diatomic Molecule = Velocity of Particle with Mass m1/(2*pi*Rotational Frequency)
md2 = v1/(2*pi*νrot)

How to get Radius 1 when rotational frequency is given?

We know linear velocity (v) is radius(r) times the angular velocity (ω) {i.e. v=r*ω} ,and angular velocity (ω) is equal to the product of the rotational frequency (f) and the constant 2pi {ω= 2*pi* f} . So considering these two relations give us a simple relation of radius {i.e. r= velocity/(2*pi*f) } and thus we obtain Radius 1.

How to Calculate Radius 1 given Rotational Frequency?

Radius 1 given Rotational Frequency calculator uses Mass 2 of Diatomic Molecule = Velocity of Particle with Mass m1/(2*pi*Rotational Frequency) to calculate the Mass 2 of Diatomic Molecule, The Radius 1 given rotational frequency formula is defined to relate radius with velocity and rotational frequency. The linear velocity is the radius times the angular velocity and further the relation of angular velocity with frequency (angular velocity = 2*pi* frequency). So by these equations, the radius is velocity divided by (2 * pi times Rotational frequency). Mass 2 of Diatomic Molecule is denoted by md2 symbol.

How to calculate Radius 1 given Rotational Frequency using this online calculator? To use this online calculator for Radius 1 given Rotational Frequency, enter Velocity of Particle with Mass m1 (v1) & Rotational Frequency rot) and hit the calculate button. Here is how the Radius 1 given Rotational Frequency calculation can be explained with given input values -> 0.025465 = 1.6/(2*pi*10).

FAQ

What is Radius 1 given Rotational Frequency?
The Radius 1 given rotational frequency formula is defined to relate radius with velocity and rotational frequency. The linear velocity is the radius times the angular velocity and further the relation of angular velocity with frequency (angular velocity = 2*pi* frequency). So by these equations, the radius is velocity divided by (2 * pi times Rotational frequency) and is represented as md2 = v1/(2*pi*νrot) or Mass 2 of Diatomic Molecule = Velocity of Particle with Mass m1/(2*pi*Rotational Frequency). Velocity of particle with mass m1 is the rate at which particle (of mass m1) moves & Rotational Frequency is defined as the number of rotations per unit time or reciprocal of the time period of one complete rotation.
How to calculate Radius 1 given Rotational Frequency?
The Radius 1 given rotational frequency formula is defined to relate radius with velocity and rotational frequency. The linear velocity is the radius times the angular velocity and further the relation of angular velocity with frequency (angular velocity = 2*pi* frequency). So by these equations, the radius is velocity divided by (2 * pi times Rotational frequency) is calculated using Mass 2 of Diatomic Molecule = Velocity of Particle with Mass m1/(2*pi*Rotational Frequency). To calculate Radius 1 given Rotational Frequency, you need Velocity of Particle with Mass m1 (v1) & Rotational Frequency rot). With our tool, you need to enter the respective value for Velocity of Particle with Mass m1 & Rotational Frequency 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 Mass 2 of Diatomic Molecule?
In this formula, Mass 2 of Diatomic Molecule uses Velocity of Particle with Mass m1 & Rotational Frequency. We can use 4 other way(s) to calculate the same, which is/are as follows -
  • Mass 2 of Diatomic Molecule = Mass 1*Radius of Mass 1/Radius of Mass 2
  • Mass 2 of Diatomic Molecule = sqrt((Moment of Inertia-(Mass 2*Radius of Mass 2^2))/Mass 1)
  • Mass 2 of Diatomic Molecule = Mass 1*Radius of Mass 1/Radius of Mass 2
  • Mass 2 of Diatomic Molecule = sqrt((Moment of Inertia-(Mass 2*Radius of Mass 2^2))/Mass 1)
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