Deakin University
Browse

File(s) under permanent embargo

An efficient approach based on trust and reputation for secured selection of grid resources

journal contribution
posted on 2012-02-01, 00:00 authored by V Vijayakumar, B Wahida, Jemal AbawajyJemal Abawajy
Security is a principal concern in offering an infrastructure for the formation of general-purpose computational grids. A number of grid implementations have been devised to deal with the security concerns by authenticating the users, hosts and their interactions in an appropriate fashion. Resource management systems that are sophisticated and secured are inevitable for the efficient and beneficial deployment of grid computing services. The chief factors that can be problematic in the secured selection of grid resources are the wide range of selection and the high degree of strangeness. Moreover, the lack of a higher degree of confidence relationship is likely to prevent efficient resource allocation and utilisation. In this paper, we present an efficient approach for the secured selection of grid resources, so as to achieve secure execution of the jobs. This approach utilises trust and reputation for securely selecting the grid resources. To start with, the self-protection capability and reputation weightage of all the entities are computed, and based on those values, the trust factor (TF) of all the entities are determined. The reputation weightage of an entity is the measure of both the user’s feedback and other entities’ feedback. Those entities with higher TF values are selected for the secured execution of jobs. To make the proposed approach more comprehensive, a novel method is employed for evaluating the user’s feedback on the basis of the existing feedbacks available regarding the entities. This approach is proved to be scalable for an increased number of user jobs and grid entities. The experimentation portrays that this approach offers desirable efficiency in the secured selection of grid resources.

History

Journal

International journal of parallel, emergent and distributed systems

Volume

27

Issue

1

Pagination

1 - 17

Publisher

Taylor & Francis

Location

Essex, England

ISSN

1744-5760

eISSN

1744-5779

Language

eng

Publication classification

C1 Refereed article in a scholarly journal

Copyright notice

2012, Taylor & Francis