Chapter 13: Q7CC (page 830)
State Green’s Theorem.
Short Answer
Green’s Theorem, \(\int_C {Pdx + Qdy = \iint_D {\left( {\frac{{\partial Q}}{{\partial x}} - \frac{{\partial P}}{{\partial y}}} \right)}} dA\)
Chapter 13: Q7CC (page 830)
State Green’s Theorem.
Green’s Theorem, \(\int_C {Pdx + Qdy = \iint_D {\left( {\frac{{\partial Q}}{{\partial x}} - \frac{{\partial P}}{{\partial y}}} \right)}} dA\)
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Get started for free(a) Sketch the vector field \(F(x,y) = xi - yj\), several approximated flow lines and flow line equations.
(b) Solve the differential equations to find the flow line that passes through the point \((1,1)\).
Show that the line integral is independent of path and evaluate the integral.
\(\int_C 2 x{e^{ - y}}dx + \left( {2y - {x^2}{e^{ - y}}} \right)dy\), \(C\) is any path from \((1,0)\) to \((2,1)\)
To verify: The formula \(A = 2\pi \int_a^b f (x)\sqrt {1 + {{\left( {{f^\prime }(x)} \right)}^2}} dx\) by using in the definition 6 and the parametric equations for a surface of revolution.
Determine whether of not \({\bf{F}}\) is a conservative vector field. If it is, find a function \(f\) such that\({\bf{F}} = \nabla f\).
\({\bf{F}}(x,y) = \left( {\ln y + 2x{y^2}} \right){\bf{i}} + \left( {3{x^2}{y^2} + x/y} \right){\bf{j}}\)
To find: The approximate value of\(\iint_{S}{{{e}^{-0.1(x+y+z)}}}dS \)
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