What is the Generalized Stokes' Theorem and its Applications?

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Stokes' Theorem, also known as the Generalized Stokes' Theorem, relates the integration of differential forms over an orientable manifold to the integration over its boundary. It states that the integral of the exterior derivative of a differential form equals the integral of the form itself over the boundary of the manifold. This theorem generalizes several fundamental results in calculus, including the Fundamental Theorem of Calculus, the Divergence Theorem, and Green's Theorem. By framing these classical theorems within the context of Stokes' Theorem, their relationships and applications in differential geometry become clearer. Overall, Stokes' Theorem serves as a crucial bridge between various mathematical concepts in analysis and geometry.
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Definition/Summary

Stokes' Theorem (sometimes called the "Generalized Stokes' Theorem") is a theorem pertaining to integration of differential forms in differential geometry that vastly generalizes several theorems in analysis and calculus. Simply stated, it says that the integral of the exterior derivative of a differential form over an orientable manifold is equivalent to the integral of the differential form over the boundary of that manifold.


Equations

Let ##\alpha## be a differential form on an orientable manifold ##M##. Then,
$$\int\limits_M \, d\alpha = \int\limits_{\partial M} \alpha .$$

Extended explanation

Many theorems from calculus and analysis are actually specific cases of Stokes' Theorem. For example, consider the Fundamental Theorem of Calculus, in the form ##\int_{a}^{b}f^\prime(x) \, dx = f(b)-f(a)##. If we write it in the form ##\int\limits_{[a,b]} \, df = \int\limits_{\partial[a,b]}f##, the relation clearly becomes a special case of Stokes' Theorem.

The Divergence Theorem and Green's Theorem are also special cases.

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