Title :
CloudNetSim++: A toolkit for data center simulations in OMNET++
Author :
Malik, A.W. ; Bilal, K. ; Aziz, K. ; Kliazovich, D. ; Ghani, N. ; Khan, S.U. ; Buyya, R.
Author_Institution :
Nat. Univ. of Sci. & Technol. NUST - SEECS, Islamabad, Pakistan
Abstract :
With the availability of low cost, on demand, and pay-as-you-go model based utility computing services offered by clouds, multiple businesses consider moving their services to the cloud. Typically, the clouds comprise of geographically distributed data centers connected through a high speed network. Most of the research and development is focused on cloud services, applications, and security issues; however, very limited effort has been devoted to address energy efficiency, scalability, and high-speed inter and intra-data center communication. We present CloudNetSim++, a modeling and simulation toolkit to facilitate simulation of distributed data center architectures, energy models, and high speed data centers´ communication network. The CloudNetSim++ is designed to allow researchers to incorporate their custom protocols and, applications, to analyze under realistic data center architectures with network traffic patterns. CloudNetSim++ is the first cloud computing simulator that uses real network physical characteristics to model distributed data centers. CloudNetSim++ provides a generic framework that allows users to define SLA policy, scheduling algorithms, and modules for different components of data centers without worrying about low level details with ease and minimum effort.
Keywords :
cloud computing; computer centres; computer network reliability; computer network security; digital simulation; energy conservation; power aware computing; protocols; telecommunication traffic; CloudNetSim++; OMNET++; SLA policy; cloud computing simulator; cloud services; data center simulations; distributed data center architectures; energy efficiency; energy models; geographically distributed data centers; high speed data center communication network; high-speed inter-data center communication; intra-data center communication; network traffic patterns; pay-as-you-go model; protocols; scheduling algorithms; utility computing services; Aggregates; Computational modeling; Green products; Optimization; OMNeT++; cloud computing; data center; energy efficiency;
Conference_Titel :
High-capacity Optical Networks and Emerging/Enabling Technologies (HONET), 2014 11th Annual
Conference_Location :
Charlotte, NC
Print_ISBN :
978-1-4799-6939-5
DOI :
10.1109/HONET.2014.7029371