Differential and integral calculus 1
0366.1101.04
DIFFERENTIAL AND INTEGRAL CALCULUS 1
Dany Leviatan(
leviatan@math.tau.ac.il)
School of Mathematical Sciences
Winter Semester 2003-04.
Time and place
Tuesdays 12.00-14.00 in Lev
Thursdays 11.00-13.00 in Dach
Grade
: An examination at the end of the semester
The syllabus of the course
1. Preliminaries
Sets, relations, functions.
Finite sets, denumerable sets.
2. Real numbers
Axioms for the real numbers system R: the field axioms, order axioms, the
completeness axiom (formulated as every nonempty set of real numbers
which has an upper bound, has a least upper bound).
Consequences of completeness : Dedekind's theorem and
its equivalence to the completeness,
R is Archimedian ordered,
the set Q of rationals is dense in R,
the nested intervals property of R, the existence of n-th roots for positive real numbers. Rational powers and their properties. Decimal representation of real numbers. The extended real numbers system R*.
Elementary topological properties of sets of real numbers : neighborhoods, open sets, closed sets, closure and accumulation points, Bolzano-Weierstrass theorem, compact sets, Heine-Borel's theorem.
3. Real Functions
Real functions of a real variable. Operations with functions. Bounded and unbounded functions. Monotone functions.
4. Sequences
General concepts : bounded sequences, monotone sequences, subsequences, operations with sequences. Convergence of a sequence, uniqueness of the limit. Properties of convergent sequences, operations with limits. Convergence in R*, properties. The limit of a monotone sequence. The number e, approximations for e, its irrationality. Cantor's theorem.
Cauchy sequences. Cauchy's criterion for convergence.
Limit points of a sequence, inferior and superior limits.
The exponential and logarithmic functions, definition and their properties.
5. Limits of functions
Definition (Cauchy) of the limit of a function at a point.
Cauchy - Bolzano's criterion. Heine's definition for limits and its equivalence to Cauchy's definition. One sided limits.
The limit of monotone functions. Limit properties and operations with limits of functions.
Limit at a point of : rational functions, exponential and logarithmic functions, trigonometric functions.
Inferior and superior limits of a function at a point.
6. Continuous functions
Continuity of a function at a point, on a set.
Discontinuity points : classification, the set of discontinuity points of first kind.
The discontinuity points of a monotone function.
Functions with Darboux's property , their discontinuity . Local properties of continuous functions, operations with continuous functions.
Global properties of continuous functions. Bolzano's theorem ,
Weierstrass theorem , uniform continuity and Cantor's theorem.
Continuous extension of a function. Continuity of inverse functions.
7. The Derivative
Differentiability of a function at a point, the derivative.
The differential of a function. One sided derivative. Operations with differentiable functions, the derivative of a composite function. Inverse functions - their derivatives. An example of a continuous function which is not differentiable at any point. Local extrema of a function and Fermat's theorem .
Rolle's theorem, Darboux's theorem, consequences.
The mean-value theorem of Cauchy. Lagrange's mean-value theorem and its consequences. Taylor's formula, application . Convex function.
L'Hospital's rule.
We recommend as bibliography the following books :
1) Meizler,D.- Differential and Integral Calculus. (In hebrew)
2) Cohn,B.Z., and S.Zaffrany. - Differential and Integral Calculus 1.
( In hebrew )
3) Fichtengolz,G.M. - Course in Differential and Integral Calculus.
( In russian and also in english)
4) Friedman,A. - Advanced Calculus.
5) Hille,E. - Analysis, vol1.
6) White, A.J. - Real Analysis, An Introduction.