Nielson form of Lagranges Equations

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In summary, the Nielson form of Lagrange's Equations is a set of equations that describe the motion of a system in terms of its generalized coordinates and velocities. It is advantageous because it reduces the number of equations that need to be solved and is commonly used for systems with constraints or a large number of degrees of freedom. The Nielson form can be derived by transforming the standard form using a transformation matrix and has applications in various fields such as physics and engineering.
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SeReNiTy
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Could someone point me in the correct direction from deriving Nielson's form from Lagranges equations?
 
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There is a nice exercise about that in Goldstein
 
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arildno said:
There is a nice exercise about that in Goldstein
That is where i got it from...
 
  • #4
I think this can help you, :)
http://en.wikipedia.org/wiki/Nielsen_form
 
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FAQ: Nielson form of Lagranges Equations

1. What is the Nielson form of Lagrange's Equations?

The Nielson form of Lagrange's Equations is a set of equations that are used to describe the motion of a system in terms of its generalized coordinates and velocities. It is an alternative form of Lagrange's Equations that can be derived from the standard form using a transformation matrix.

2. What is the advantage of using the Nielson form over the standard form of Lagrange's Equations?

The Nielson form is advantageous because it reduces the number of equations that need to be solved. In the standard form, there is one equation for each generalized coordinate, whereas in the Nielson form, there is only one equation for each degree of freedom.

3. How do you derive the Nielson form of Lagrange's Equations?

To derive the Nielson form, you first need to determine the transformation matrix for your system. This matrix is then used to transform the standard form of Lagrange's Equations into the Nielson form. This process involves taking the partial derivatives of the transformation matrix with respect to the generalized coordinates and velocities.

4. When is it appropriate to use the Nielson form of Lagrange's Equations?

The Nielson form is most commonly used when dealing with systems that have constraints, such as systems with fixed joints or rigid bodies. It is also useful for systems with a large number of degrees of freedom, as it simplifies the equations that need to be solved.

5. What are some applications of the Nielson form of Lagrange's Equations?

The Nielson form has many applications in physics and engineering. It is often used in the analysis of mechanical systems, such as robots and vehicles. It can also be applied to systems in thermodynamics, electromagnetics, and other fields where the motion of a system can be described by generalized coordinates and velocities.

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