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  <titleInfo>
    <title>Calculus: early transcedentals</title>
  </titleInfo>
  <name type="personal">
    <namePart>Stewart, James.</namePart>
    <role>
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    </role>
  </name>
  <typeOfResource>text</typeOfResource>
  <originInfo>
    <place>
      <placeTerm type="code" authority="marccountry">xxu</placeTerm>
    </place>
    <place>
      <placeTerm type="text">California</placeTerm>
    </place>
    <publisher>Brooks/ Cole</publisher>
    <dateIssued>2012</dateIssued>
    <edition>7th ed. (Metric version)</edition>
    <issuance>monographic</issuance>
  </originInfo>
  <language>
    <languageTerm authority="iso639-2b" type="code">eng</languageTerm>
  </language>
  <physicalDescription>
    <form authority="marcform">print</form>
    <extent>1 volume (various pagings) :   ill. (some color) ; 26cm.</extent>
  </physicalDescription>
  <tableOfContents>Contents: A preview of calculus --  1. Functions and models --  1.1. Four ways to represent a function --  1.2. Mathematical models : a catalog of essential functions --  1.3. New functions from old functions --  1.4. Graphing calculators and computers --  1.5. Exponential functions --  1.6. Inverse functions and logarithms --  Review --  Principles of problem solving --  2. Limits and derivatives --  2.1. The tangent and velocity problems --  2.2. The limit of a function --  2.3. Calculating limits using the limit laws --  2.4. The precise definition of a limit --  2.5. Continuity --  2.6. Limits at infinity ; horizontal asymptotes --  2.7. Derivatives and rates of change --  Writing project : early methods for finding tangents --  2.8. The derivative as a function --  Review --  Problems plus --  3. Differentiation rules --  3.1. Derivatives of polynomials and exponential functions --  Applied project : building a better roller coaster --  3.2. The product and quotient rules --  3.3. Derivatives of trigonometric functions --  3.4. The chain rule --  Applied project : where should a pilot start descent? --  3.5. Implicit differentiation --  Laboratory project: families of implicit curves --  3.6. Derivatives of logarithmic functions --  3.7. Rates of change in the natural and social sciences --  3.8. Exponential growth and decay --  3.9. Related rates --  3.10. Linear approximations and differentials --  Laboratory project : Taylor polynomials --  3.11. Hyperbolic functions --  Review --  Problems plus. 4. Applications of differentiation --  4.1. Maximum and minimum values --  Applied project : the calculus of rainbows --  4.2. The mean value theorem --  4.3. How derivatives affect the shape of a graph --  4.4. Indeterminate forms and L'Hospital's rule --  Writing project : the origins of L'Hospital's rule --  4.5. Summary of curve sketching --  4.6. Graphing with calculus and calculators --  4.7. Optimization problems --  Applied project : the shape of a can --  4.8. Newton's method --  4.9. Antiderivatives --  Review --  Problems plus --  5. Integrals --  5.1. Areas and distances --  5.2. The definite integral --  Discovery project : area functions --  5.3. The fundamental theorem of calculus --  5.4. Indefinite integrals and the net change theorem --  Writing project : Newton, Leibniz, and the invention of calculus --  5.5. The substitution rule --  Review --  Problems plus --  6. Applications of integration --  6.1. Areas between curves --  Applied project : the Gini index --  6.2. Volumes --  6.3. Volumes by cylindrical shells --  6.4. Work --  6.5. Average value of a function --  Applied project : Calculus and baseball ; Applied project : where to sit at the movies --  Review --  Problems plus --  7. Techniques of integration --  7.1. Integration by parts --  7.2. Trigonometric integrals --  7.3. Trigonometric substitution --  7.4. Integration of rational functions by partial fractions --  7.5. Strategy for integration --  7.6. Integration using tables and computer algebra systems --  Discovery project : patterns in integrals --  7.7. Approximate integration --  7.8. Improper integrals --  Review --  Problems plus. 8. Further applications of integration --  8.1. Arc length --  Discovery project : arc length contest --  8.2. Area of a surface of revolution --  Discovery project : rotating on a slant --  8.3. Applications to physics and engineering --  Discovery project : complementary coffee cups --  8.4. Applications to economics and biology --  8.5. Probability --  Review --  Problems plus --  9. Differential equations --  9.1. Modeling with differential equations --  9.2. Direction fields and Euler's method --  9.3. Separable equations --  Applied project : how fast does a tank drain? --  Applied project : which is faster, going up or coming down? --  9.4. Models for population growth --  9.5. Linear equations --  9.6. Predator-prey systems --  Review --  Problems plus --  10. Parametric equations and polar coordinates --  10.1. Curves defined by parametric equations --  Laboratory project : running circles around circles --  10.2. Calculus with parametric curves --  Laboratory project : Bézier curves --  10.3. Polar coordinates --  Laboratory project: families of polar curves --  10.4. Areas and lengths in polar coordinates --  10.5. Conic sections --  10.6. Conic sections in polar coordinates --  Review --  Problems plus --  11. Infinite sequences and series --  11.1. Sequences --  Laboratory project : logistic sequences --  11.2. Series --  11.3. The integral test and estimates of sums --  11.4. The comparison tests --  11.5. Alternating series --  11.6. Absolute convergence and the ratio and root tests --  11.7. Strategy for testing series --  11.8. Power series --  11.9. Representations of functions as power series --  11.10. Taylor and Maclaurin series --  Laboratory project : an elusive limit --  Writing project : how Newton discovered the binomial series --  11.11. Applications of Taylor polynomials --  Applied project : radiation from the stars --  Review --  Problems plus. 12. Vectors and geometry of space --  12.1. Three-dimensional coordinate systems --  12.2. Vectors --  12.3. The dot product --  12.4. The cross product --  Discovery project : the geometry of a tetrahedron --  12.5. Equations of lines and planes --  Laboratory project : putting 3D in perspective --  12.6. Cylinders and quadric surfaces --  Review --  Problems plus --  13. Vector functions --  13.1. Vector functions and space curves --  13.2. Derivatives and integrals of vector functions --  13.3. Arc length and curvature --  13.4. Motion in space : velocity and acceleration --  Applied project : Kepler's laws --  Review --  Problems plus --  14. Partial derivatives --  14.1. Functions of several variables --  14.2. Limits and continuity --  14.3. Partial derivatives --  14.4. Tangent planes and linear approximations --  14.5. The chain rule --  14.6. Directional derivatives and the gradient vector --  14.7. Maximum and minimum values --  Applied project : designing a dumpster --  Discovery project : quadratic approximations and critical points --  14.8. Lagrange multipliers --  Applied project : rocket science --  Applied project : hydro-turbine optimization --  Review --  Problems plus. 15. Multiple integrals --  15.1. Double integrals over rectangles --  15.2. Iterated integrals --  15.3. Double integrals over general regions --  15.4. Double integrals in polar coordinates --  15.5. Applications of double integrals --  15.6. Surface area --  15.7. Triple integrals --  Discovery project : volumes of hyperspheres --  15.8. Triple integrals in cylindrical coordinates --  Discovery project : the intersection of three cylinders --  15.9. Triple integrals in spherical coordinates --  Applied project : roller derby --  15.10. Change of variables in multiple integrals --  Review --  Problems plus --  16. Vector calculus --  16.1. Vector fields --  16.2. Line integrals --  16.3. The fundamental theorem for line integrals --  16.4. Green's theorem --  16.5. Curl and divergence --  16.6. Parametric surfaces and their areas --  16.7. Surface integrals --  16.8. Stokes' theorem --  Writing project : three men and two theorems --  16.9. The divergence theorem --  16.10. Summary --  Review --  Problems plus --  17. Second-order differential equations --  17.1. Second-order linear equations --  17.2. Nonhomogeneous linear equations --  17.3. Applications of second-order differential equations --  17.4. Series solutions --  Review --  Appendixes: A. Numbers, inequalities, and absolute values --  B. Coordinate geometry and lines --  C. Graphs of second-degree equations --  D. Trigonometry --  E. Sigma notation --  F. Proofs of theorems --  G. The logarithm defined as an integral --  H. Complex numbers --  I. Answers to odd-numbered exercises.</tableOfContents>
  <note type="statement of responsibility">James Stewart</note>
  <note>Includes index</note>
  <classification authority="lcc">QA303.2.S84</classification>
  <identifier type="isbn">9780538498876</identifier>
  <identifier type="isbn">0538498870</identifier>
  <recordInfo>
    <recordCreationDate encoding="marc">180418</recordCreationDate>
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