2015Unpublished venueRequires access

Green novel power control framework for dense femtocell grids

Mazen Al Haddad, Magdy Bayoumi

Open publisher page 8 citations

Abstract

High dense neighboring Femtocells are seen as future low-cost solution to significantly gain capacity compared to Macro-only deployment. Dense HetNet, which requires progressive introduction of Femtocells, offers scalable networks towards 1000 fold gains in capacity as per technology vision for 5G. In such dense networks, the problem of interference comes between the Macrocells and Femtocells as well as among the Femtocells themselves. Valuable insights in the Macro-Femto interference are available, while the Femto-Femto interference aspects remain partially addressed. This paper outlines this problem and points potential solution strategies to mitigate the Femto-Femto interference, increase the network capacity, decrease the power consumption and likewise reduce the CO2 footprint. According to the system level simulation of our novel power control framework, user throughput is 15,9% to 49,3% greater than that of the conventional power control schemas. This is equal to 9,87 to 12,35kg CO2 emission reduction per year for one Femtocell BS.

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What this paper is about

High dense neighboring Femtocells are seen as future low-cost solution to significantly gain capacity compared to Macro-only deployment. Dense HetNet, which requires progressive introduction of Femtocells, offers scalable networks towards 1000 fold gains in capacity as per technology vision for 5G. In such dense networks, the problem of interference comes between the Macrocells and Femtocells as well as among the Femtocells themselves. Valuable insights in the Macro-Femto interference are available, while the Femto-Femto interference aspects remain partially addressed. This paper outlines this problem and points potential solution strategies to mitigate the Femto-Femto interference, increase the network capacity, decrease the power consumption and likewise reduce the CO2 footprint. According to the system level simulation of our novel power control framework, user throughput is 15,9% to 49,3% greater than that of the conventional power control schemas. This is equal to 9,87 to 12,35kg CO2 emission reduction per year for one Femtocell BS.

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Available abstract

High dense neighboring Femtocells are seen as future low-cost solution to significantly gain capacity compared to Macro-only deployment. Dense HetNet, which requires progressive introduction of Femtocells, offers scalable networks towards 1000 fold gains in capacity as per technology vision for 5G. In such dense networks, the problem of interference comes between the Macrocells and Femtocells as well as among the Femtocells themselves. Valuable insights in the Macro-Femto interference are available, while the Femto-Femto interference aspects remain partially addressed. This paper outlines this problem and points potential solution strategies to mitigate the Femto-Femto interference, increase the network capacity, decrease the power consumption and likewise reduce the CO2 footprint. According to the system level simulation of our novel power control framework, user throughput is 15,9% to 49,3% greater than that of the conventional power control schemas. This is equal to 9,87 to 12,35kg CO2 emission reduction per year for one Femtocell BS.

Key concepts: Femtocell, Femto-, Computer science, Throughput, Power control, Scalability, Computer network, Interference (communication)

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