Abstract
Carbon dioxide emissions are a significant source of pollution in the atmosphere. The innovative hardware plays a fundamental part in the carbon release. This is huge in light of the fact that power utilization by mechanical apparatus has surpassed 40 k TWh in 2021 from 10 k TWh in 2000 and is expanding step by step. Server farms in the Cloud processing climate have involved a significant imperative situation in this class of mechanical hardware. In Cloud computing, computational assets are leased staying away from gigantic ventures on the business part. Because of this alluring contribution, reception and sending of Cloud computing have become exceptionally famous among ventures as well as in the exploration local area. Increased use of Cloud computing, on the other hand, has resulted in higher energy consumption and carbon emissions into the atmosphere. A server farm is a collection of servers with a big number of them, and there are a lot of them all over the world. In the modern era of Cloud computing, energy consumption is currently viewed as one of the most significant evaluation challenges. Service-Level Agreements are contracts between a customer and a vendor in which the vendor agrees to particular service qualities such as quality, availability, and accountability. One of the major challenges identified is reducing the amount of power consumed by server farms without affecting the Quality of Service (QoS). Consequently, it is proposed to optimize resource allocation and minimize energy consumption for the Cloud environment. This is completed by limiting dynamic servers in a server farm without compromising the exhibition of undertakings and client prerequisites. To verify the efficiency of the suggested calculations, CloudSim is used in conjunction with verifiable responsibility data obtained from over 1,000 virtual computers from Planet Lab.
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Kumar, P., VinodhKumar, S. (2023). Early Planning of Virtual Machines to Servers in Cloud Server Farms is an Approach for Energy-Efficient Resource Allocation. In: Venkataraman, N., Wang, L., Fernando, X., Zobaa, A.F. (eds) Big Data and Cloud Computing. ICBCC 2022. Lecture Notes in Electrical Engineering, vol 1021. Springer, Singapore. https://doi.org/10.1007/978-981-99-1051-9_12
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DOI: https://doi.org/10.1007/978-981-99-1051-9_12
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