Nishant Sihag
Indian Institute of Technology (IIT), Delhi
Nishant Sihag has created this Calculator and 50+ more calculators!
Akshada Kulkarni
National Institute of Information Technology (NIIT), Neemrana
Akshada Kulkarni has verified this Calculator and 400+ more calculators!

6 Other formulas that you can solve using the same Inputs

Centrifugal Distortion constant using rotational energy
Centrifugal distortion constant=(Rotational energy-(rotational constant*rotational level*(rotational level+1)))/(rotational level^2)*((rotational level+1)^2) GO
Rotational energy using centrifugal distortion
Rotational energy=(rotational constant*rotational level*(rotational level+1))-(Centrifugal distortion constant*(rotational level^2)*((rotational level+1)^2)) GO
Rotational constant using energy of transitions
rotational constant=Energy of Rotational Transitions/(2*(rotational level+1)) GO
Rotational constant in terms of energy
rotational constant=Rotational energy/(rotational level*(rotational level+1)) GO
Energy of rotational transitions from J to J +1
Energy of Rotational Transitions=2*rotational constant*(rotational level+1) GO
Rotational energy using rotational constant
Rotational energy=rotational constant*rotational level*(rotational level+1) GO

1 Other formulas that calculate the same Output

Beta using rotational energy
Beta in Schrodinger Equation=2*Moment of Inertia*Rotational energy/([h-]^2) GO

Beta in terms of rotational level Formula

Beta in Schrodinger Equation=rotational level*(rotational level+1)
β=J*(J+1)
More formulas
Mass 1 of diatomic molecule GO
Mass 2 of diatomic molecule GO
Radius 1 of rotation GO
Radius 2 of rotation GO
Bond length GO
Radius 1 of rotation when bond length is given GO
Radius 2 of rotation when bond length is given GO
Radius 1 of rotation in terms of masses and bond length GO
Radius 2 of rotation in terms of masses and bond length GO
Bond length in terms of masses and radius 1 GO
Bond length in terms of masses and radius 2 GO
Kinetic energy of system GO
Velocity of particle 1 in terms of K.E GO
Velocity of particle 2 in terms of K.E GO
Velocity of particle 1 GO
Rotational frequency in terms of velocity 1 GO
Radius 1 when rotational frequency is given GO
Velocity of particle 2 GO
Rotational frequency in terms of velocity 2 GO
Radius 2 when rotational frequency is given GO
Angular velocity of diatomic molecule GO
Rotational frequency when angular frequency is given GO
Kinetic energy when angular velocity is given GO
Angular velocity when kinetic energy is given GO
Moment of inertia of diatomic molecule GO
Mass 1 when moment of inertia is given GO
Mass 2 when moment of inertia is given GO
Radius 1 when moment of inertia is given GO
Radius 2 when moment of inertia is given GO
Kinetic energy in terms of inertia and angular velocity GO
Moment of Inertia in terms of K.E and angular velocity GO
Angular velocity in terms of inertia and kinetic energy GO
Moment of inertia using masses of diatomic molecule and bond length GO
Bond length using moment of inertia GO
Reduced mass GO
Moment of inertia using reduced mass GO
Reduced mass using moment of inertia GO
Bond length using reduced mass GO
Angular momentum using moment of inertia GO
Moment of inertia using angular momentum GO
Angular velocity using angular momentum and inertia GO
Kinetic energy in terms of angular momentum GO
Angular momentum in terms of kinetic energy GO
Moment of inertia using kinetic energy and angular momentum GO
Rotational constant GO
Beta using rotational energy GO
Moment of inertia using rotational constant GO
Moment of inertia using rotational energy GO
Rotational constant in terms of energy GO
Energy of rotational transitions from J to J +1 GO
Rotational constant using energy of transitions GO
Rotational constant in terms of wave number GO
Bond length of diatomic molecule in rotational spectrum GO
Centrifugal Distortion constant using rotational energy GO

What is Rotational energy and rotational level?

The rotational spectrum of a diatomic molecule consists of a series of equally spaced absorption lines, typically in the microwave region of the electromagnetic spectrum. The energy of these lines is called rotational energy. And these equally spaced absorption lines represent rotational level.

How to Calculate Beta in terms of rotational level?

Beta in terms of rotational level calculator uses Beta in Schrodinger Equation=rotational level*(rotational level+1) to calculate the Beta in Schrodinger Equation, The Beta in terms of rotational level formula is used to get constant related to energy level which we get for solving Schrödinger Equation. Beta in Schrodinger Equation and is denoted by β symbol.

How to calculate Beta in terms of rotational level using this online calculator? To use this online calculator for Beta in terms of rotational level, enter rotational level (J) and hit the calculate button. Here is how the Beta in terms of rotational level calculation can be explained with given input values -> 2 = 1*(1+1).

FAQ

What is Beta in terms of rotational level?
The Beta in terms of rotational level formula is used to get constant related to energy level which we get for solving Schrödinger Equation and is represented as β=J*(J+1) or Beta in Schrodinger Equation=rotational level*(rotational level+1). rotational level is numerical value of level of rotational energy in Rotational Spectroscopy of Diatomic Molecules ( it takes numerical values as 0,1,2,3,4...).
How to calculate Beta in terms of rotational level?
The Beta in terms of rotational level formula is used to get constant related to energy level which we get for solving Schrödinger Equation is calculated using Beta in Schrodinger Equation=rotational level*(rotational level+1). To calculate Beta in terms of rotational level, you need rotational level (J). With our tool, you need to enter the respective value for rotational level 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 Beta in Schrodinger Equation?
In this formula, Beta in Schrodinger Equation uses rotational level. We can use 1 other way(s) to calculate the same, which is/are as follows -
  • Beta in Schrodinger Equation=2*Moment of Inertia*Rotational energy/([h-]^2)
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