Advanced Calculus - Multivariable Calculus

Advanced Calculus - Multivariable Calculus

Dr Juan Klopper via YouTube Direct link

1_1 Exponential Growth and Decay.flv

1 of 101

1 of 101

1_1 Exponential Growth and Decay.flv

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Advanced Calculus - Multivariable Calculus

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  1. 1 1_1 Exponential Growth and Decay.flv
  2. 2 1_2 Exponential Growth and Decay.flv
  3. 3 1_3 Exponential Growth and Decay.flv
  4. 4 1_4 Exponential Growth and Decay
  5. 5 1_5 Euler Method
  6. 6 1_6 Euler Method
  7. 7 2_1 Sequences
  8. 8 2_2 Sequences
  9. 9 2_3 Sequences
  10. 10 2_4 Sequences
  11. 11 3_1 Introduction to Series
  12. 12 3_1_1 Introduction to Series
  13. 13 3_2 The Geometric Series
  14. 14 3_3 The Harmonic Series
  15. 15 3_4 Example Problems Involving Series
  16. 16 3_5_1 The Integral Test and Comparison Tests
  17. 17 3_5_2 The Integral Test and Comparison Tests
  18. 18 3_5_3 The Integral Test and Comaprison Tests
  19. 19 3_5_4 The Integral Test and Comparison Tests
  20. 20 3_6_2 Alternating Series
  21. 21 3_6_3 Alternating Series
  22. 22 3_7_1 Absolute Value Test
  23. 23 3_7_2 Ratio and Root Tests.flv
  24. 24 4_1_1 Power Series
  25. 25 4_1_2 Power Series
  26. 26 10_1_1 Vector Function Differentiation
  27. 27 10_1_2 Examples of Vector Function Differentiation
  28. 28 10_1_3 Examples of Vector Function Differentiation
  29. 29 11_1_1 Introduction to the Differentiation of Multivariable Functions
  30. 30 11_1_2 Example Problems on Partial Derivative of a Multivariable Function
  31. 31 11_2_1 The Geomtery of a Multivariable Function
  32. 32 11_3_1 The Gradient of a Multivariable Function
  33. 33 11_3_2 Working towards an equation for a tangent plane to a multivariable point
  34. 34 11_3_4 Working towards an equation for a tangent plane to a multivariable function
  35. 35 11_3_5 When is a multivariable function continuous
  36. 36 11_3_6 Continuity and Differentiablility
  37. 37 11_3_7 A Smooth Function
  38. 38 11_3_8 Example problem calculating a tangent hyperplane
  39. 39 11_4_1 The Derivative of the Composition of Functions
  40. 40 11_4_2 The Derivative of the Composition of Functions
  41. 41 11_5_1 Directional Derivative of a Multivariable Function Part 1
  42. 42 11_5_2 Directional Derivative of a Multivariable Function Part 2
  43. 43 11_6_1 Contours and Tangents to Contours Part 1
  44. 44 11_6_2 Contours and Tangents to Contours Part 2
  45. 45 11_6_3 Contours and Tangents to Contrours Part 3
  46. 46 11_7_1 Potential Function of a Vector Field Part 1
  47. 47 11_7_2 Potential Function of a Vector Field Part 2
  48. 48 11_7_3 Potential Function of a Vector Field Part 3
  49. 49 11_8_1 Higher Order Partial Derivatives Part 1
  50. 50 11_9_1 Derivative of Vector Field Functions
  51. 51 11_9_2 Conservative Vector Fields
  52. 52 12_1_1 Introduction to Taylor Polynomials
  53. 53 12_1_2 An Introduction to Taylor Polynomials
  54. 54 12_1_3 Example problem creating a Taylor Polynomial
  55. 55 12_2_1 Taylor Polynomials of Multivariable Functions
  56. 56 12_2_2 Taylor Theorem for Multivariable Polynomials
  57. 57 13_1 An Introduction to Optimization in Multivariable Functions
  58. 58 13_2 Optimization with Constraints
  59. 59 14_1 The Double Integral
  60. 60 14_2 The Type I Region
  61. 61 14_3 Type II Region with Solved Example Problem
  62. 62 14_4 Some Fun with the Volume of a Cylinder
  63. 63 14_5 The double integral calculated with polar coordinates
  64. 64 14_6 Changing between Type I and II Regions
  65. 65 14_7 Translation of Axes
  66. 66 14_8 The Volume of a Cylinder Revisited
  67. 67 14_9 The Volume between Two Functions
  68. 68 14_10 The Triple Integral by way of an Example Problem
  69. 69 14_11 The Translation of Axes in Triple Integrals
  70. 70 14_12 Translation to Cylindrical Coordinates
  71. 71 15_1 An Introduction to Line Integrals
  72. 72 15_2_1 Example Problem Explaining the Line Integral with Respect to Arc Length
  73. 73 15_2_2 Another Example Problem Solving a Line Integral
  74. 74 15_2_3 Another example problem without using a parametrized curve
  75. 75 15_3_1 Line integrals with respect to coordinate variables
  76. 76 15_3_2 Example problem with line integrals with respect to coordinate variables
  77. 77 15_3_3 Continuation of previous problem
  78. 78 15_4_1 Example problem with the line integral of a multivariable functions
  79. 79 15_4_2 Example problem with the line integral of a multivariable functions
  80. 80 15_4_3 Example problem with the line integrals of a multivariable functions
  81. 81 16_1 Introduction to line integrals of vector fields
  82. 82 16_2 Evaluating the force and the directional vector differential
  83. 83 16_3 Example problem solving the line integral of a vector field
  84. 84 16_4 Another example problem solving for the line integral of a vector field
  85. 85 16_5 Another example problem solving for the line integral of a vector field
  86. 86 16_6 Another problem solving for the line integral in a vector field
  87. 87 16_7 The fundamental theorem of line integrals
  88. 88 16_8 The line integral over a closed path
  89. 89 17_1 The surface integral
  90. 90 17_2 Example problem solving for the surface integral
  91. 91 18_1 Introduction to flux
  92. 92 18_2 Calculating the normal vector
  93. 93 18_3 Example problem for flux
  94. 94 19_1 Greens Theorem
  95. 95 19_1_2 Example problem using theorem of Green to solve for a line integral
  96. 96 19_1_3 Another example problem solving for the line integral using the theorem of Green
  97. 97 19_2 The Theorem of Stokes
  98. 98 19_2_1 Example problem using the theorem of Stokes
  99. 99 19_3_1 Example problem using the theorem of Gauss
  100. 100 19_3_2 Example problem using theorem of Gauss
  101. 101 Understanding the Euler Lagrange Equation

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