To verify Green's Theorem, evaluate both integrals. For the line integral, parametrize the curve C and perform the integration. For the double integral, calculate the partial derivatives and integrate over the region R . If the results are equal, Green's Theorem is verified for the given vector field

Green's Theorem relates a line integral over a closed curve C to a double integral over the region R enclosed by C .
The theorem is given by:
![\[ \int_C (M \,dx + N \,dy) = \iint_R \left((\partial N)/(\partial x) - (\partial M)/(\partial y)\right) \,dA \]](https://img.qammunity.org/2024/formulas/mathematics/college/969kcor0ta57ulxxqd0q5u7wvnl0oeos7n.png)
In your case, the line integral is
, and the corresponding double integral is

To verify Green's Theorem, evaluate both integrals.
For the line integral, parametrize the curve C and perform the integration.
For the double integral, calculate the partial derivatives and integrate over the region R .
If the results are equal, Green's Theorem is verified for the given vector field

The probable question may be:
Verify Green’s Theorem by evaluating both integrals. how would the integrals be written??
\int\limits_C {xe^y} \, dx +e^x dy=\int\limits_R {\frac{\delta N-\delta M}{\delta x-\delta y} } \, dA