Math 349 INTRODUCTION TO MATHEMATICAL ANALYSIS
Course Number and Title: 2360349, Introduction to Mathematical Analysis
METU Credit & ECTS Credit: (4-0)4 and 9.0
Prerequisite Courses: Math 252
Catalogue Description:
LUB Property of real numbers. Compactness, connectedness, limits and
continuity in metric spaces. Sequences and series of scalars, complete
metric spaces, limsup. Sequences and series of functions, uniform
convergence, applications.
Course Objectives: The students will learn the basic results in the field and get expirience in standard methods of real analysis.
The
students will get acquainted with the basic notions of the real number
system (axioms, convergence, limit superior/inferior of real sequences,
etc.).
The students will get acquainted with the basic notions of
metric spaces (topological properties, continuity/equicontinuity of
functions, products, completion, compactness, connectedness,
contraction mappings principles and their applications, Tietze
extension theorem, Baire's theorem, etc.)
Textbooks: T. Terzioğlu: An Introduction to Real Analysis. Matematik Vakfı, 1999.
Walter Rudin - Principles of Mathematical Analysis, Third Edition-McGraw-Hill Science Engineering Math (1976)
Course Outline (14 weeks):
Week Topics
1 Real Number System: axioms; LUB property; real sequences.
2 Real Number System:
Bolzano - Weierstrass theorem; limit superior/inferior.
3 Metric Spaces:
subspaces, open and closed subsets of a metric space, closure of a
subset, examples of metric spaces.
4
Metric Spaces: sequences in metric spaces; complete
metric spaces; examples of complete and non-complete metric spaces;
sequence characterization of a point
belonging to the closure of a subset.
5
Metric Spaces: continuity and uniform
continuity of functions between metric spaces; examples of uniformly
continuous functions;
extension by uniform continuity.
6 Metric Spaces: criterium
for continuity of functions between metric spaces; equivalent
metrics.
7
Metric Spaces: completion of a metric space; Cartesian product of
finite number of metric spaces; convergence of sequences in
cartesian product.
8 Metric Spaces: convex functions; Holder and Minkowski inequalities.
9 Compactness in
Metric Spaces: compact sets; compact metric spaces; sequential criteria
of compactness; precompactness.
10
Compactness in Metric Spaces: Cartesian product of
finite number of compact metric spaces; Heine - Borel theorem;
compactness and
continuity; homeomorphism theorem; continuous functions on compact
subsets.
11 Compactness
in Metric Spaces: uniform convergence of sequences and series of
functions; properties and examples.
12
Connectedness in Metric Spaces: connected subsets;
connected components; continuous functions and connectedness.
13 Applications: contraction mapping theorems; Arzela-Ascoli theorem.
14 Applications: Tietze extension theorem; Baire theorem.
Schedule:
Tuesdays 08:40-10:30 M-13
Thursdays 08:40-10:30 M-13
Grading: There will be two midterm exams (30%), and a final exam (40%).
Midterm 1: November 07, 2022, Monday at 17:40 (30%)
Midterm 2: December 12, 2022, Monday at 17:40 (30%)
Final Exam: to be announced During Final Weeks (40%)
Make up for Exams:
One single make-up exam will given to students who have a legitimate excuse for missing one of the regular exams.
Academic Honesty:
The
METU Honour Code is as follows: "Every member of METU community adopts
the following honour code as one of the core principles of academic
life and strives to develop an academic environment where continuous
adherence to this code is promoted. The members of the METU community
are reliable, responsible and honourable people who embrace only the
success and recognition they deserve, and act with integrity in their
use, evaluation and presentation of facts, data and documents."