Problem #2: Evaluate the following by changing to polar coordinates. 81 - y2 81 - y2...
Evaluate the integral by changing to cylindrical coordinates. 13 /9-x² 89-x² - y2 x2 + y2 dz dy dx Jo
10. Evaluate the given integral by changing to polar coordinates. JJR x2 + y2" where R is the region that lies between the circles x2 + y2 = a2 and x2 + y2 = 62 with 0 <a<b.
Evaluate the following integral in cylindrical coordinates. 6 213 16x2 SS S -x2 - y2 dy dx dz e 0 0 X 6 213 16-X2 S ,-x2 - y2 dy dx dz = 0 0 x (Simplify your answer. Type an exact answer, using a as needed.)
11. Use polar coordinates to evaluate the integral 1,8-2V(+ y2)<dy dx
Evaluate the iterated integral by converting to polar coordinates. pV 32 – v2 V22 + y2 dx dy
(1 point) Evaluate the integral by changing to cylindrical coordinates. 2 ,2 (a2 +y2)32 dz dy dz 2L,2 (1 point) Evaluate the integral by changing to cylindrical coordinates. 2 ,2 (a2 +y2)32 dz dy dz 2L,2
The answer is already there Please show WORK thank you 16) Sketch the region of integration and evaluate by changing to 2x-x 1 2-In(1+ 2) polar coordinates. dy dx 16) Sketch the region of integration and evaluate by changing to 2x-x 1 2-In(1+ 2) polar coordinates. dy dx
Evaluate the following integral, ∫ ∫ S z dS, where S is the part of the sphere x2 + y2 + z2 = 16 that lies above the cone z = √ 3 √ x2 + y2 . Problem #6: Evaluate the following integral where S is the part of the sphere x2+y2 + z -y2 16 that lies above the cone z = 3Vx+ Enter your answer symbolically, as in these examples pi/4 Problem #6: Problem #6: Evaluate the...
Evaluate the given integral by changing to polar coordinates. ∫∫R(4x − y) dA, where R is the region in the first quadrant enclosed by the circle x2 + y2 = 4 and the lines x = 0 and y = x.
3. Evaluate the integral by changing to polar coordinates: SS (x+y) da R Where R is the region in quadrant 2 above the line y=-x and inside the circle x2 + y2 = 2.