Minimax systems and critical point theory

Martin Schechter

at 250 WPM

3h 59m

The average reader, reading at a speed of 250 WPM, would take 3h 59m to read Minimax systems and critical point theory.

Personalise your estimate by entering your reading speed below

Test my reading speed

8

days at 30 min/day

239

total minutes

Buy on Amazon

Minimax systems and critical point theory

by Martin Schechter

2009

Birkhäuser

239

9780817648053

Description

Many problems in science and engineering involve the solution of differential equations or systems. One of most successful methods of solving nonlinear equations is the determination of critical points of corresponding functionals. The study of critical points has grown rapidly in recent years and has led to new applications in other scientific disciplines. This monograph continues this theme and studies new results discovered since the author's preceding book entitled Linking Methods in Critical Point Theory. Written in a clear, sequential exposition, topics include semilinear problems, Fucik spectrum, multidimensional nonlinear wave equations, elliptic systems, and sandwich pairs, among others. With numerous examples and applications, this book explains the fundamental importance of minimax systems and describes how linking methods fit into the framework. Minimax Systems and Critical Point Theory is accessible to graduate students with some background in functional analysis, and the new material makes this book a useful reference for researchers and mathematicians. Review of the author's previous Birkhäuser work, Linking Methods in Critical Point Theory: The applications of the abstract theory are to the existence of (nontrivial) weak solutions of semilinear elliptic boundary value problems for partial differential equations, written in the form Au = f(x, u). . . . The author essentially shows how his methods can be applied whenever the nonlinearity has sublinear growth, and the associated functional may increase at a certain rate in every direction of the underlying space. This provides an elementary approach to such problems. . . . A clear overview of the contents of the book is presented in the first chapter, while bibliographical comments and variant results are described in the last one. —MathSciNet

Frequently Asked Questions

How many pages are in Minimax systems and critical point theory?

This edition of Minimax systems and critical point theory has approximately 239 pages. Please note, this is an estimate and the exact page count can vary between hardcover, paperback, and e-book versions.

How long does it take to read Minimax systems and critical point theory?

For most readers, Minimax systems and critical point theory typically takes between 4h 59m and 3h 19m to complete. This is based on the book's length of approximately 59,750 words and common reading speeds.

Here's a detailed breakdown: • Continuous reading at 250 WPM: approximately 3h 59m of focused reading • Casual reading (30 minutes/day): you could finish in roughly 8 days • Estimated word count: 59,750 words

Your individual reading time will vary based on your personal reading pace, the amount of daily reading time, and your familiarity with the subject matter.

What is the word count of Minimax systems and critical point theory?

The estimated word count for Minimax systems and critical point theory is approximately 59,750 words. This figure is calculated using industry-standard methods that consider genre-specific word density patterns, typical formatting and layout characteristics, and standard words-per-page ratios for published books.

This is an approximation — actual word count may vary based on font size, formatting, edition, and the presence of illustrations or charts.

Who is the author of Minimax systems and critical point theory?

Minimax systems and critical point theory was written by Martin Schechter.

When was Minimax systems and critical point theory published?

The publication date for this specific edition is 2009. The original work may have been published on a different date.