Optimizing IoT application deployment with fog - cloud paradigm: A resource-aware approach
Downloads
Published
DOI:
https://doi.org/10.58414/SCIENTIFICTEMPER.2024.15.4.32Keywords:
Internet of Things, Cloud computing, Fog Computing, Fog-Cloud Paradigm, Cluster head selection algorithm, Network utilization, Energy consumptionDimensions Badge
Issue
Section
License
Copyright (c) 2024 The Scientific Temper

This work is licensed under a Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License.
Fog computing is the architecture that most researchers use to build latency-sensitive Internet of Things (IoT) applications. By placing resource-constrained fog devices near the network’s edge, fog computing design delivers less delay than the cloud computing paradigm. Fog nodes use the available resources to process the incoming data, which lowers the data amount that needs to be transferred to the server of the cloud. A system contains fog devices with various levels of computing power. The best system performance is only possible when the appropriate sensor nodes are connected to the parent fog node. In this study, we introduce a cluster head selection algorithm for effective network resource utilization through application deployment in a fog-cloud environment for internet of things-based applications. With the introduction of fog computing, the processing is animatedly dispersed through the cloud layers and fog, enabling the deployment of an application’s modules closer to the foundation of fog-layer devices. The method is general and may be used with various network topologies and a broad range of standardized IoT applications, regardless of load.Abstract
How to Cite
Downloads
Similar Articles
- Shaik Khaleel Ahamed, Neerav Nishant, Ayyakkannu Selvaraj, Nisarg Gandhewar, Srithar A, K.K.Baseer, Investigating privacy-preserving machine learning for healthcare data sharing through federated learning , The Scientific Temper: Vol. 14 No. 04 (2023): The Scientific Temper
- Temesgen Asfaw, Customer churn prediction using machine-learning techniques in the case of commercial bank of Ethiopia , The Scientific Temper: Vol. 14 No. 03 (2023): The Scientific Temper
- Punithavathy E, N. Priya, A resilience framework for fault-tolerance in cloud-based microservice applications , The Scientific Temper: Vol. 15 No. 03 (2024): The Scientific Temper
- Deepika S, Jaisankar N, A novel approach to heart disease classification using echocardiogram videos with transfer learning architecture and MVCNN integration , The Scientific Temper: Vol. 15 No. 04 (2024): The Scientific Temper
- Sachi Kumari, Amrendra Kumar Jha, STUDY ON DIVERSITY OF RICE FIELD BLUE-GREEN ALGAE FROM RICE FIELD OF CHAPRA IN BIHAR , The Scientific Temper: Vol. 9 No. 1&2 (2018): The Scientific Temper
- Anita Yadav, Neerja Kapoor, Shivji Malviya, Sandeep K. Malhotra, COVID-19 Pandemic and the Global Vaccine Strategy , The Scientific Temper: Vol. 11 No. 1&2 (2020): The Scientific Temper
- Ashoke D. Maliki, Taiwo A. Muritala, Saji George, Frank A. Ogedengbe, Impact of project financiers’ strategies on de-risking infrastructural projects: A conceptual review , The Scientific Temper: Vol. 14 No. 04 (2023): The Scientific Temper
- Amanda Q. Okronipa, Jones Y. Nyame, Adoption of health information systems in emerging economies: Evidence from Ghana , The Scientific Temper: Vol. 15 No. 03 (2024): The Scientific Temper
- S. Vanaja, Hari Ganesh S, Application of data mining and machine learning approaches in the prediction of heart disease – A literature survey , The Scientific Temper: Vol. 15 No. spl-1 (2024): The Scientific Temper
- Archana Dhamotharan, Kanthalakshmi Srinivasan, Analog Circuits Based Fault Diagnosis using ANN and SVM , The Scientific Temper: Vol. 14 No. 02 (2023): The Scientific Temper
<< < 10 11 12 13 14 15 16 17 18 19 > >>
You may also start an advanced similarity search for this article.