We show that the problem of determining if a given integer linear recurrent sequence has a zero-a problem that is known as "Pisot's problem"-is NP-hard. With a similar argument we show that the problem of finding the minimal realization dimension of a one-letter max-plus rational series is NP-hard. This last result answers a folklore question raised in the control literature on the max-plus approach to discrete event systems. Our results are simple consequences of a construction due to Stockmeyer and Meyer. (C) 2002 Elsevier Science Inc. All rights reserved
Introduction Chapter 5: NP-completeness 5.1 Introduction In the previous chapter we met two compu...
We study two quite different approaches to understanding the complexity of fundamental problems in n...
P versus NP is considered as one of the most important open problems in computer science. This consi...
AbstractWe show that the problem of determining if a given integer linear recurrent sequence has a z...
We prove the NP-hardness of two problems. The first is the well-known minimal realization problem in...
We study decidability and complexity questions related to a continuous analogue of the Skolem-Pisot ...
AbstractWe study decidability and complexity questions related to a continuous analogue of the Skole...
AbstractThe concept of nondeterministic computation has been playing an important role in discrete c...
We study decidability and complexity questions related to a continuous analogue of the Skolem-Pisot ...
SIGLEAvailable from INIST (FR), Document Supply Service, under shelf-number : RP 15453 / INIST-CNRS ...
AbstractWe show that any recursive sequence of recursive sets which is ascending with respect to the...
An integer sequence {a n } is called polynomially recursive, or P-recursive, if it satisfies a nontr...
We study the decidability of the Skolem Problem, the Positivity Problem, andthe Ultimate Positivity ...
AbstractWe characterize precisely the complexity of several natural computational problems in NP, wh...
The complexity of linear programming is discussed in the "integer" and "real number" models of compu...
Introduction Chapter 5: NP-completeness 5.1 Introduction In the previous chapter we met two compu...
We study two quite different approaches to understanding the complexity of fundamental problems in n...
P versus NP is considered as one of the most important open problems in computer science. This consi...
AbstractWe show that the problem of determining if a given integer linear recurrent sequence has a z...
We prove the NP-hardness of two problems. The first is the well-known minimal realization problem in...
We study decidability and complexity questions related to a continuous analogue of the Skolem-Pisot ...
AbstractWe study decidability and complexity questions related to a continuous analogue of the Skole...
AbstractThe concept of nondeterministic computation has been playing an important role in discrete c...
We study decidability and complexity questions related to a continuous analogue of the Skolem-Pisot ...
SIGLEAvailable from INIST (FR), Document Supply Service, under shelf-number : RP 15453 / INIST-CNRS ...
AbstractWe show that any recursive sequence of recursive sets which is ascending with respect to the...
An integer sequence {a n } is called polynomially recursive, or P-recursive, if it satisfies a nontr...
We study the decidability of the Skolem Problem, the Positivity Problem, andthe Ultimate Positivity ...
AbstractWe characterize precisely the complexity of several natural computational problems in NP, wh...
The complexity of linear programming is discussed in the "integer" and "real number" models of compu...
Introduction Chapter 5: NP-completeness 5.1 Introduction In the previous chapter we met two compu...
We study two quite different approaches to understanding the complexity of fundamental problems in n...
P versus NP is considered as one of the most important open problems in computer science. This consi...