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Calc Exam 2

Esther Mun English 126 cards

Calc Exam 2

Cards in this deck (126)

  1. 1—Elliptic ParaboloidElliptic Paraboloid
  2. 2—EllipsoidEllipsoid
  3. 3—Hyperboloid of 2 sheetsHyperboloid of 2 sheets
  4. 412Parallel to y-axis1212
  5. 515Ellipsoid
    xy-circle
    yz-ellipse
    xz-ellipse
    15
  6. 618hyperbolic paraloid
    xy-line
    xz-parabola
    yz-parabola
    18
  7. 7292929
  8. 8323232
  9. 9333333
  10. 10454545
  11. 111one1
  12. 124xz plane4
  13. 13777
  14. 14999
  15. 15111111
  16. 16151515
  17. 17212121
  18. 18232323
  19. 19252525
  20. 2038All real except t=1, -238
  21. 21410≤t≤241
  22. 229<-sint, 2t, cost>9
  23. 23131313
  24. 2417r'(t) = <1,6,3>17
  25. 2523<(2/3), (2/3), (1/3)>23
  26. 26252525
  27. 27313131
  28. 28494949
  29. 29505050
  30. 30606060
  31. 31626262
  32. 3273i hat73
  33. 3374<0.608, 0, 2>74
  34. 349v(t)=<6t, 8t>
    speed=10t
    a(t)=<6,8>
    9
  35. 3513a. 8
    b. <-8sint, -8cost>
    13
  36. 36161616
  37. 3721a. [0, 1]
    b. r'(t) = <1, 2t>
    R'(t) = <2, 8t>
    2121
  38. 3824a. [1, 10]
    b. r'(t) = <-e^t, e^-t>
    R'(t) = <-1, t^-2>
    2424
  39. 3935v(t) = <2, t+3>
    r(t) = <2t, 0.5t^2 + 3t>
    35
  40. 40363636
  41. 41383838
  42. 4241a. v(t) = <30, 6-9.8t>
    r(t) = <30t, 6t-4.9t^2>
    c. t = 1.22s
    deltax = 36.73m
    ymax = 1.84m
    41
  43. 4344a. v(t) = <132, -32t>
    r(t) = <132t, -16t^2+10>
    c. t=0.79s
    deltax=104.36ft
    d. 10ft
    44
  44. 4451a. v(t) = <200, 200, -9.8t>
    r(t) = <200t, 200t, -4.9t^2+1>
    c. t=0.45s
    range=127.78m
    d. 1m
    5151
  45. 4554a. v(t) = <30, 30+5t, 80-32t>
    r(t) = <30t, 30t+2.5t^2, 80t-16t^2+3>
    c. t=5.037s
    range=262.43ft
    d.103ft
    5454
  46. 46—v(t)=
    r(t)=
    theta=27.38 degrees, 62.62 degrees
    v(t)= r(t)= theta=27.38 degrees, 62.62 degrees
  47. 47—a. v(t)=<-asint, bcost>
    |v(t)|=sqrt (a^2sin^2t + b^2cos^2t)
    c. yes, more curved=slower it moves
    d. b/a & a/b
    a. v(t)=&lt;-asint, bcost&gt; |v(t)|=sqrt (a^2sin^2t + b^2cos^2t) c. yes, more curved=slower it moves d. b/a &amp; a/ba. v(t)=&lt;-asint, bcost&gt; |v(t)|=sqrt (a^2sin^2t + b^2cos^2t) c. yes, more curved=slower it moves d. b/a &amp; a/b
  48. 485. An object moves on a trajectory given by r(t)=<10cos2t, 10sin2t> for 0≤t≤pi. h how far does it travel?20pi
  49. 498. Is the curve r(t)= parameterized by its arc length? Explain.yes, r(t) is para by its arc length bc s(t)=t: para t also measure arch length s.
  50. 50959
  51. 51128pi12
  52. 52155sqrt3415
  53. 5318418
  54. 54213/221
  55. 552426t
    52
    24
  56. 5626e^t (sqrt3)
    sqrt3
    26
  57. 5733yes s(t)=t33
  58. 5836No36
  59. 5912t-hat=<-sint, -cost>
    k=1/2
    12
  60. 60151515
  61. 61181818
  62. 62211/321
  63. 63223/2522
  64. 64232323
  65. 65241/224
  66. 6627T-hat=
    N-hat=<-sint, -cost>
    =0
    27
  67. 67303030
  68. 68333333
  69. 6936aT=0
    aN=10
    36
  70. 70393939
  71. 71—
  72. 723{(x,y): x≠0 and y≠0}3
  73. 734{(x,y): y≤x}4
  74. 74—a. 1300ft
    b. katie experiences greater elevation change. she is 100ft higher than zeke
    a. 1300ft b. katie experiences greater elevation change. she is 100ft higher than zeke
  75. 75—circles of different radi along the z-axiscircles of different radi along the z-axis
  76. 7615D=R^215
  77. 7718D={(x,y): x^2+y^2>25}18
  78. 7821{(x,y): x^2>y}21
  79. 7927D=R^2
    R=R
    Hyperbolic paraboloid
    27
  80. 8030{(x,y): -x^2-y^2≤1}
    R=[0, 1]
    Half an ellipsoid
    3030
  81. 8133{(x,y): -2≤x≤2, -inf3333
  82. 82—a. A
    b. D
    c. B
    d. C
    a. A b. D c. B d. C
  83. 83363636
  84. 84404040
  85. 85—a. ERA=0.964
    b. 7.2
    c. i=3e. i has to be 3e to get an ERA of 3
    a. ERA=0.964 b. 7.2 c. i=3e. i has to be 3e to get an ERA of 3
  86. 86—
  87. 873polynomials of n-values are continuous on all of R^n, limits of polynomials can be evaluated with direct substitution3
  88. 885If the function is discontinuous and the left differs from the right, the limit DNE5
  89. 89121≠-112
  90. 90152715
  91. 9118ln(2e)18
  92. 9221621
  93. 93291≠-129
  94. 94332≠033
  95. 9536R^236
  96. 9639{(x,y): x≠0}39
  97. 9745R^245
  98. 9848R^248
  99. 993a. negative
    b. negative
    c. negative
    d. positive
    3
  100. 1004fx(x,y)=12x^5 + 2y
    fy(x,y)=8y^7 + 2x
    4
  101. 1015fx(x,y)=6xy
    fy(x,y)=3x^2
    5
  102. 1027fxy=0=fyx7
  103. 1038fxy=e^y=fyx8
  104. 10416fx(x,y)=12x^2 y^2 + 6xy^3
    fy(x,y)=8x^3y + 9x^2y^2
    16
  105. 105191919
  106. 10622d2222
  107. 10726f2626
  108. 108—a. Vh=pi*h(2r-h)
    Vr=pi*h^2
    b. h=0.8r
    c. h=sqrt(1/pi)
    d. h=2r
    a. Vh=pi*h(2r-h) Vr=pi*h^2 b. h=0.8r c. h=sqrt(1/pi) d. h=2r
  109. 10973Ut=-16e^(-4t) cos(2x)=Uxx73
  110. 11074Ut=-10e^-t sinx=Uxx74
  111. 11175Ut=-a^2 Ae^(-1^2 t) cos(ax)=Uxx75
  112. 112—a. Zx=1/y^2
    Zy=(-2x)/y^3
    c. as x increases, z increases
    d. as y increases, z decreases when y>0
    as y increases, z increases when y<0
    z is undefined @ y=0
    a. Zx=1/y^2 Zy=(-2x)/y^3 c. as x increases, z increases d. as y increases, z decreases when y&gt;0 as y increases, z increases when y&lt;...
  113. 11392tsin(4t^3)+12t^4 cos(4t^3)9
  114. 11411-sin(t)sin(3t^4) + 12t^3 cos(t)cos(3t^4)11
  115. 11512012
  116. 11616f1616
  117. 11722Zs=cos(s+t)cos(2s-2t)-2sin(s+t)sin(2s-2t)
    Zt=cos(s+t)cos(2s-2t)+2sin(s+t)sin(2s-2t)
    22
  118. 11824Zs=2(s+t)^10 stcos(s^2 t(s+t)^10)) + 10(s+t)^9(s^2 t)cos(s^2 t(s+t)^10)
    Zt=s^2 (s+t)^10 cos(s^2 t(s+t)^10)) + 10(s+t)^9(s^2 t)cos(s^2 t(s+t)^10)
    24
  119. 119—a. 2pi*r(t) h(t) r'(t) + pi(r(t))^2 h'(t)
    b. 0
    c. As t increases, volume remains constant
    a. 2pi*r(t) h(t) r'(t) + pi(r(t))^2 h'(t) b. 0 c. As t increases, volume remains constant
  120. 12043fss=2(3s+t)
    fst=2(s-t)
    ftt=-2(s+3t)
    43
  121. 12146fss=2(2s^2+1)e^(s^2 -3t^2)
    fst=-12ste^(s^2 -3t^2)
    ftt=-6(-6t^2 +1)e^(s^2 -3t^2)
    46
  122. 12251051
  123. 12353-z^2 /x^253
  124. 124—E'(t)= mx'(t)x''(t) + my'(t)y''(t) + mgy'(t)
    0
    The rate of change of energy of the projectile is constant
    E'(t)= mx'(t)x''(t) + my'(t)y''(t) + mgy'(t) 0 The rate of change of energy of the projectile is constant
  125. 125—a. ax^(a-1) y^(1-a)
    (1-a) (x^a /y^a)
    b. (-ay)/((1-a)x)
    c. -1
    a. ax^(a-1) y^(1-a) (1-a) (x^a /y^a) b. (-ay)/((1-a)x) c. -1
  126. 126—

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Flashcards on Calc Exam 2, created by Esther Mun on 08/03/2022.
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Esther Mun
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