18.100A - Fall 2009

18.100A Syllabus Fall 2009

(Adobe Acrobat -- pdf file)

18.100A Homework Fall 2009

( Adobe Acrobat -- pdf file )

Exam 2 Practice Material 2A and 2B w/Solutions - 2009

( Adobe Acrobat -- pdf file )

Practice Material for Exam 1 and Solutions 2009

( Adobe Acrobat -- pdf file )

Lecturer: Arthur Mattuck 2-241 3-4345 mattuck@mit.edu 18.100A Office Hour: Wed 2-3

Graders:
Kyle Johnson 18/3 Baker #618 225-7368 (Friday assignments)
Tianren Qi 6/4 Baker #336 225-7336 (Mon-Wed assignments).

18.100A follows the textbook closely. The best way of getting a feeling for the difference between 18.100A and 18.100B is to look at the corresponding textbooks (at Quantum or the Coop). The book for 18.100B is Rudin's "Principles of Mathematical Analysis"; the book for 18.100A is given below. Its four-page Preface can give some idea of its purpose, and leafing for a few minutes through both books will give a further comparison of their general approach and style of writing.

Textbook: Mattuck --- Introduction to Analysis, (Prentice-Hall)

For corrections to the current and previous printings, see textbook

This course is an introduction to devising mathematical proofs and learning to write them up. It is primarily for students with no prior experience with this. The class usually contains students from years 2,3,4,G in approximately equal numbers, and from a wide spectrum of courses -- about 1/4 math majors, the others mathematically inclined-or-needy students from courses like 2,6,7,8,12,14,15,16,22.

The subject matter for the first 2/3 of the syllabus (up to Exam 2) is the proofs of one-variable calculus theorems and arguments which use these theorems. The emphasis is on estimation and approximation, two basic tools of analysis.

The last third goes beyond calculus, getting into uniform convergence of series of functions, to justify differentiation and integration term-by-term; there is similar work involving integrals depending on a parameter, to justify differentiating under the integral sign with respect to the parameter. (Differentiating the Laplace transform F(s) = L(f(t)) with respect to the s-variable is an example.)

In addition. there is a very brief introduction to point-set topology, which is used in upper-level courses having an analysis prerequisite, and depending on the interests of the students, in some years a brief introduction to sets of measure zero and the Lebesgue integral..

The homework link above starts out empty, but fills up as the problem assignments are given out during the term (in class, and posted on this site in the link above around the same time). This allows for some flexibility in content and difficulty, and for feedback from the class members.

Homework is collected twice weekly, on Monday and Friday, and returned graded at the next class. There are from 3-6 problems, depending on their difficulty or length. Sometimes "Questions" are included (exercises having model solutions at the end of the chapter), as an aid in learning how to write up solutions.

The textbook is by and large an adequate substitute for class attendance; students in the past have found it sufficiently clear. A few just read the book, get the assignments here, and slip the homework under my door before or during class, retrieving the returned homework from a box outside my door.

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