Convert the rectangular coordinate equations to equations in cylindrical coordinates
33.(a) z=x^2+y^2-3x (b) x=3
34. (a) Z=3x^2+3y^2 (b) y=2
35. (a) z=x^2+5y^2 (b) x+y+z=5
36. (a) y=x^2 (b) x+5y=z

Convert the rectangular coordinate equations to equations in cylindrical coordinates 33.(a) z=x^2+y^2-3x (b) x=3 34. (a)...
Find the x-intercept and the y-intercept of each equation. 33. - 3x + 2 y = 12 34 34. 2x – 3y = 24 CHAP FUN Find the slope of the line through each pair of points. 36. (-8, 6) and (-8,-1) In ma relati types an ir 35. (-12, 3) and (-12, -7) 37. (6, -5) and (-12,-5) Find the slope of each line. 38. 3x – 2y = 3 40. x = 6 39. y = 5x +12...
Dynamic
4. Compare rectangular coordinates with polar coordinates and cylindrical coordinates. Rectangular Cylindrical Polar X, Y. Z R 5. For a circular motion, what are the normal and tangential components of the acceleration in the polar coordinates. Normal component ? Tangential component ? m
4. Compare rectangular coordinates with polar coordinates and cylindrical coordinates. Rectangular Cylindrical Polar X, Y. Z R 5. For a circular motion, what are the normal and tangential components of the acceleration in the polar coordinates....
Change from rectangular to cylindrical coordinates. (Letr> 0 and Os Os 21.) (a) (-3,3,3) (V162 , arctan( –1),3 (b) (-7,7/3,3) (4, -4,5) (-2,-2V3,4) Find the rectangular coordinates of the point, whose cylindrical coordinates are given. (a) (8, 1/4,9) (X, , 2) =( (b) (6, -/3, 1) (x, y, z) =( Write the equations in cylindrical coordinates. (a) 5z = 3x2 + 3y2 (b) 7x2 + 7y2 = 3y
3. Convert the integral from rectangular coordinates to both cylindrical an spherical coordinates, and evaluate the simplest iterated integral. 1 1-y2
3. Convert the integral from rectangular coordinates to both cylindrical an spherical coordinates, and evaluate the simplest iterated integral. 1 1-y2
1. Convert to the rectangular coordinate system a. (2,5, -5) in cylindrical b. (1,5,7) in spherical c. z= r sin 0
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3. Using the change of coordinate formulas" find the partial derivatives of x, y, and z with respect to the cylindrical coordinates r, 0, z. 4 Using change of coordinate for
3. Using the change of coordinate formulas" find the partial derivatives of x, y, and z with respect to the cylindrical coordinates r, 0, z. 4 Using change of coordinate for
1. Convert the point ( 215 7.) from cylindrical to spherical coordinates. 2. Set up a triple integral, but do NOT evaluate, to find the volume of the solid in the first octant bounded by the coordinate planes and the plane 3x + 6y + 4z = 12. 1 3. Locate all relative maxima, relative minima, and saddle points of f(x,y) = x2 + 2y2 – x?y.
F. Change the coordinates shown as follows: 1. Rectangular (1,3,-1) to cylindrical equation. 2. Rectangular (4,1,-3) to spherical equation. 3. cylindrical (417) to rectangular equation. G. Change the following rectangular equations as follows 1. -3x2 + 2y2 -z 0 to cylindrical equation. 2. x2 + 3y2-22-1 to spherical equation
3. Polar Coordinates. (a) Given a rectangular coordinate point (x, y), how do you compute the equivalent polar coordinates: (r, 0)? (b) Given a polar coordinate (r, o), how do you compute the equivalent rectangular coordinate: (x, y)? (c) Consider the drawing in Figure 1. Compute the coordinate of each small circle. (d) What if the circle is centered at the point (cx, cy) (and not the origin). How does the formula change?
3. Write the following systems of linear equations using augmented matrix form a. 6x+7y= -9 X-y= 5 b. 2x-5y= 4 4x+3y= 5 C. x+y+z= 4 2x-y-z= 2 -x+2y+3z= 5 4. Solve the following Systems of linear equations using Cramer's Rule a. 6x-3y=-3 8x-4y= -4 b. 2x-5y= -4 4x+3y= 5 c. 2x-3y+z= 5 X+2y+z= -3 x-3y+2z= 1