Mo Isaac Adda

Prof. Mo Isaac Adda

orcid

Research Focus & Metrics

Academic Career Length

21Years (2006-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 April 2020 in Computer Networks
Verified
Journal Article
Open access
Ali MalikAli Malik
Ali Malik
BABenjamin Aziz
Benjamin Aziz
MAMo Isaac Adda
Mo Isaac Adda
CKChih-Heng Ke
Chih-Heng Ke

1 July 2009 in Journal of Network and Computer Applications
Verified
Journal Article
Closed access
mouhammd alkasassbehmouhammd alkasassbeh
mouhammd alkasassbeh
MAMo Isaac Adda
Mo Isaac Adda

11 April 2023 in Computers & Security
Verified
Journal Article
Closed access
CLConstantinos Louca
Constantinos Louca
MAMo Isaac Adda
Mo Isaac Adda
SSStavros Stavrou
Stavros Stavrou

13 February 2017 in IEEE Transactions on Parallel and Distributed Systems
Verified
Journal Article
Closed access
MAMo Isaac Adda
Mo Isaac Adda
APAdamantini Peratikou
Adamantini Peratikou
Fat tree topologies have been extensively used as interconnection networks for high performance computing, cluster and data center systems, with their most recent variants able to fairly extend and scale to accommodate higher processing power. While each progressive and evolved fat-tree topology includes some extra advancements, these networks do not fully address all the issues of large scale HPC. We propose a topology called Zoned-Fat tree (Z-Fat tree,) which is a further extension to the fat trees. The extension relates to the provision of extra degree of connectivity to utilize the extra ports per switches (routing nodes), that are, in some cases, not utilized by the architectural constraints of other variants of fat trees, and hence increases the bisection bandwidth, reduces the latency and supplies additional paths for fault tolerance. To support and profit from the extra links, we propose an adaptive low latency routing for up traffic which is based on a series of leading direction bits predefined at the source; furthermore we suggest a deterministic routing by implementing a dynamic round robin algorithm that overtakes D-mod-K in same cases and guarantees the utilization of all the extra links. We also propose a fault tolerance algorithm, named recoil-and-reroute which makes use of the extra links to ensure higher message delivery even in the presence of faulty links and switches.

1 November 2008 in Journal of Network and Computer Applications
Verified
Journal Article
Closed access
mouhammd alkasassbehmouhammd alkasassbeh
mouhammd alkasassbeh
MAMo Isaac Adda
Mo Isaac Adda