Stokes' Theorem:
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Stokes' Theorem relates a surface integral of the curl of a vector field to a line integral of the vector field around the boundary of the surface. It generalizes Green's theorem to higher dimensions.
The calculator uses Stokes' Theorem:
Where:
Explanation: The theorem converts a line integral around a closed curve into a surface integral of the curl over any surface bounded by that curve.
Details: Stokes' Theorem is fundamental in vector calculus with applications in fluid dynamics, electromagnetism, and differential geometry. It connects local properties (curl) with global behavior (boundary integrals).
Tips: Enter the vector field components (P, Q, R), the boundary curve equation, and the surface equation. The calculator will verify Stokes' Theorem by computing both integrals.
Q1: What's the difference between Stokes' and Green's Theorem?
A: Green's Theorem is the 2D special case of Stokes' Theorem, relating a line integral around a plane curve to a double integral over the region it encloses.
Q2: What are typical applications of Stokes' Theorem?
A: Applications include calculating work done by a force field, analyzing fluid flow circulation, and solving problems in electromagnetism.
Q3: What orientation should the surface have?
A: The surface normal should follow the right-hand rule relative to the curve's orientation.
Q4: Can Stokes' Theorem be applied to any surface?
A: The surface must be piecewise smooth and oriented, with the curve as its boundary.
Q5: How is this related to the Divergence Theorem?
A: Both are fundamental theorems of calculus. The Divergence Theorem relates volume integrals to surface integrals, while Stokes' relates surface integrals to line integrals.