Browsing by Author "Ferdouse, Lilatul"
Now showing items 1-3 of 3
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Energy Efcient Downlink Resource Allocation in Cellular IoT Supported H-CRANs
Authors:Ferdouse, Lilatul; Woungang, Isaac W.; Anpalagan, Alagan S.; Erküçük, Serhat
Publisher and Date:(Institute of Electrical and Electronics Engineers Inc., 2021)The cloud computing supported heterogeneous cloud radio access network (H-CRAN) is one of the promising solutions to support cellular IoT devices with the legacy cellular systems. However, the dense deployment of small cells with fractional frequency reuse in orthogonal frequency division multiple access (OFDMA) based H-CRANs increases intra- and inter-cell interference, turning the resource allocation into a more challenging problem. In general, the macro cell users are considered as the legacy ...
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Energy Efficient SCMA Supported Downlink Cloud-RANs for 5G Networks
Authors:Ferdouse, Lilatul; Erküçük, Serhat; Anpalagan, Alagan; Woungang, Isaac
Publisher and Date:(IEEE, 2020)Cloud-radio access networks (C-RANs) are regarded as a promising solution to provide low cost services among users through the centralized coordination of baseband units for 5G wireless networks. The coordinated multi-point access, visualization and cloud computing technologies enable C-RANs to provide higher capacity and wider coverage, as well as manage the interference and mobility in a centralized coordinated way. However, C-RANs face many challenges due to massive connectivity and spectrum ...
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Joint Communication and Computing Resource Allocation in 5G Cloud Radio Access Networks
Authors:Ferdouse, Lilatul; Anpalagan, Alagan; Erküçük, Serhat
Publisher and Date:(IEEE-Inst Electrical Electronics Engineers Inc, 2019)Cloud-radio access network (C-RAN) is regarded as a promising solution to manage heterogeneity and scalability of future wireless networks. The centralized cooperative resource allocation and interference cancellation methods in C-RAN significantly reduce the interference levels to provide high data rates. However, the centralized solution is not scalable due to the dense deployment of small cells with fractional frequency reuse, causing severe inter-tier and inter-cell interference turning the ...