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Randomness and Completeness in Computational Complexity / by Dieter van Melkebeek.

LIBRA Q341 .P7 2004
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Format:
Book
Author/Creator:
Melkebeek, Dieter van, author.
Contributor:
SpringerLink (Online service)
Series:
Computer Science (Springer-11645)
Lecture notes in computer science 0302-9743 ; 1950.
Lecture Notes in Computer Science, 0302-9743 ; 1950
Language:
English
Subjects (All):
Computer programming.
Computers.
Algorithms.
Computer logic.
Programming Techniques.
Theory of Computation.
Algorithm Analysis and Problem Complexity.
Computation by Abstract Devices.
Logics and Meanings of Programs.
Local Subjects:
Programming Techniques.
Theory of Computation.
Algorithm Analysis and Problem Complexity.
Computation by Abstract Devices.
Logics and Meanings of Programs.
Physical Description:
1 online resource (XIII, 198 pages).
Edition:
First edition 2000.
Contained In:
Springer eBooks
Place of Publication:
Berlin, Heidelberg : Springer Berlin Heidelberg : Imprint: Springer, 2000.
System Details:
text file PDF
Summary:
This book contains a revised version of the dissertation the author wrote at the Department of Computer Science of the University of Chicago. The thesis was submitted to the Faculty of Physical Sciences in conformity with the requirements for the PhD degree in June 1999. It was honored with the 1999 ACM Doctoral Dissertation Award in May 2000. Summary Computational complexity is the study of the inherent di culty of compu- tional problems and the power of the tools we may use to solve them. It aims to describe how many resources we need to compute the solution as a function of the problem size. Typical resources include time on sequential and parallel architectures and memory space. As we want to abstract away from details of input representation and speci cs of the computer model, we end up with classes of problems that we can solve within certain robust resource bounds such as polynomial time, parallel logarithmic time, and logarithmic space. Research in complexity theory boils down to determining the relationships between these classes { inclusions and separations. In this dissertation, we focus on the role of randomness and look at various properties of hard problems in order to obtain separations. We also investigate the power of nondeterminism and alternation, as well as space versus time issues. Randomness provides a resource that seems to help in various situations.
Contents:
1. Introduction
2. Preliminaries
3. Derandomizing Arthur-Merlin Games
4. Sparseness of Complete Languages
5. Autoreducibility of Complete Languages
6. The Size of Randomized Polynomial Time
7. The Frequency of Complete Languages
8. The Frequency of Autoreducible Languages.
Other Format:
Printed edition:
ISBN:
978-3-540-44545-6
9783540445456
Access Restriction:
Restricted for use by site license.

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