PERANGKAT LUNAK SIMULASI DEADLOCK MENGGUNAKAN ILUSTRASI DINING PHILOSOPHERS PROBLEM

On the Time Complexity of the Dining Philosophers Problem

Distributed Adaption of Dining Philosophers

Adaptation of a component-based system can be achieved in the coordination modelling language Paradigm through the special component McPal. McPal regulates the propagation of new behaviour and guides the changes in the components and in their coordination. Here we show how McPal may delegate part of its control to local adaptation managers, created on-the-fly, allowing for distribution of the a...

A Distributed Algorithm in Agda: the Dining Philosophers Problem

One distributed algorithm for the dining philosophers problem 1] is implemented in Agda, a proof checker based on Martin-LL of's type theory. The correctness proof of the algorithm is outlined and the diiculties are discussed.

Distributed Adaptation of Dining Philosophers

Adaptation of a component-based system can be achieved in the coordination modelling language Paradigm through the special component McPal. McPal regulates the propagation of new behaviour and guides the changes in the components and in their coordination. Here we show how McPal may delegate part of its control to local adaptation managers, created on-the-fly, allowing for distribution of the a...

Hierarchical Compression for Model-Checking CSP or How to Check 1020 Dining Philosophers for Deadlock

FDR (Failures-Divergence Refinement) [6] is a model-checking tool for CSP [10]. Except for the recent addition of determinism checking [20, 22] (primarily for checking security properties) its method of verifying specifications is to test for the refinement of a process representing the specification by the target process. The presently released version (FDR 1) uses only explicit model-checking...