MAT1052 · Kalkülüs II

Calculus II

Series, Taylor, vectors, multivariable functions and double integrals.

Textbook: Thomas' Calculus International Edition 12th Edition George Thomas, Maurice Weir, Joel Hass, Frank Giordano

  1. Week 1
    L'Hôpital's Rule, Improper Integrals
    • L'Hôpital's rule and improper integralsYou learn to solve indeterminate limits with derivatives and to show whether integrals that run to infinity or have singularities converge. This is the foundation of the integral test for series.
  2. Week 2
    Sequences, Infinite Series
    • Sequences and infinite seriesYou learn to find the limit of a sequence, to define a series through partial sums, and to compute the sum of telescoping series. The language of all convergence tests is set up here.
  3. Week 3
    Geometric Series, Divergence and Integral Tests
  4. Week 4
    Ratio Test, Root Test, Comparison Test, Alternating Series Test
    • Ratio, root, comparison and alternating series testsYou learn the ratio, root and comparison tests for positive-term series, the alternating series test for sign-changing series, and absolute/conditional convergence. At the end of the page there is a decision table showing which test to choose when.
  5. Week 5
    Power Series, Taylor Series
    • Power series and Taylor seriesYou learn to find the radius and interval of convergence of a power series (endpoints included), to derive new series from the geometric series, and to write the Taylor/Maclaurin series of a function.
  6. Week 6
    Taylor Series, Vectors, Dot Product
    • Applications of Taylor series: approximation, error, limits, sumsYou learn to approximate numerical values with a Taylor polynomial, to bound the error with Taylor's inequality and the alternating series estimate, to compute limits and integrals with series, and the binomial series.
    • Vectors and the dot productYou learn to work with vectors in space, to find length and unit vectors, and to use the dot product for angles, orthogonality, projection and work. All the geometry of the multivariable part is written in this language.
  7. Week 7
    Cross Products, Planes and Surfaces
    • Cross product, lines and planesYou learn to find a perpendicular vector, area and volume with the cross product; to write equations of lines and planes in space; and to solve intersection, angle and distance questions. An introduction to surfaces with cylinders is included.
  8. Week 8
    Planes and Surfaces, Level Curves, Functions in Several Variables
  9. Week 9
    Partial Derivatives, Chain Rule
    • Partial derivatives and the chain ruleYou learn to take partial derivatives and second-order derivatives of a multivariable function, to apply the chain rule with a tree diagram, and to find derivatives of implicit functions with the formula -F_x/F_y.
  10. Week 10
    Directional Derivatives, Gradient, Tangent Planes
    • Gradient, directional derivative and tangent planeYou learn to compute the gradient vector, to find the rate of change in any direction with it (the directional derivative), to determine the direction and value of fastest increase, to write tangent planes and normal lines to surfaces, and to approximate with linearization and differentials.
  11. Week 11
    Maximum and Minimum Problems
    • Local extrema and the second derivative testYou learn to find the critical points of a function of two variables, to classify them as local maximum, local minimum and saddle point with the second derivative test (the discriminant D), and to reduce application problems to a single variable.
  12. Week 12
    Maximum and Minimum Problems, Lagrange Multipliers
  13. Week 13
    Double Integrals Over Rectangular and General Regions
    • Double integrals: rectangular and general regionsYou learn to compute iterated integrals on a rectangular region, to write general regions as type I / type II and set up the limits, to reverse the order of integration, and to compute volume, area and average value with a double integral.
  14. Week 14
    Double Integrals in Polar Coordinates
    • Double integrals in polar coordinatesYou learn to convert double integrals to polar coordinates (dA = r dr dθ) on regions bounded by disks, annuli, sectors and polar curves, to transform Cartesian integrals to polar, and to compute volume and area. The value of the Gaussian integral also comes out of this.