Asaka, OTAdejo, AOnumanyi, Adeiza JBello-Salau, HOluwamotemi, FT2022-05-042022-05-042021-07Asaka, O., Adejo, A., Onumanyi, A.J., Bello-Salau, H. & Oluwamotemi, F. 2021. Load-driven resource allocation for enhanced interference mitigation in cellular networks. http://hdl.handle.net/10204/12385 .978-1-6654-3493-5978-1-6654-3494-2DOI: 10.1109/ICMEAS52683.2021.9739816http://hdl.handle.net/10204/12385Cellular users are often considered to be uniformly distributed within the communication network for the purposes of simplified analysis. Based on this assumption, the inter-cell interference experienced by users has been handled using soft frequency reuse (SFR) techniques. However, in real networks, the distribution of users in the network regions are not uniform. Therefore, analysis for random deployment of users under SFR is essential for improved accuracy of analysis and better handling of interference. This research presents an SFR algorithm (Load-Driven SFR) that intelligently adjusts resource allocation parameters (base station bandwidth assignment) according to the load distribution in the network. Interference mitigation is enhanced and Load-Driven SFR outperforms several implementations of the standard SFR algorithm using fixed bandwidth allocation, especially for edge user’s SINR (up to 3.2% improvement) and edge user’s Capacity (up to 202% improvement).Abstracten5G networksAlgorithmsCellular networksFrequency reuseNetwork loadResource allocationSimulationSoft frequency reuseUser distributionLoad-driven resource allocation for enhanced interference mitigation in cellular networksConference PresentationAsaka, O., Adejo, A., Onumanyi, A. J., Bello-Salau, H., & Oluwamotemi, F. (2021). Load-driven resource allocation for enhanced interference mitigation in cellular networks. http://hdl.handle.net/10204/12385Asaka, OT, A Adejo, Adeiza J Onumanyi, H Bello-Salau, and FT Oluwamotemi. "Load-driven resource allocation for enhanced interference mitigation in cellular networks." <i>1st International Conference on Multidisciplinary Engineering and Applied Science (ICMEAS), Abuja, Nigeria, 15-16 July 2021</i> (2021): http://hdl.handle.net/10204/12385Asaka O, Adejo A, Onumanyi AJ, Bello-Salau H, Oluwamotemi F, Load-driven resource allocation for enhanced interference mitigation in cellular networks; 2021. http://hdl.handle.net/10204/12385 .TY - Conference Presentation AU - Asaka, OT AU - Adejo, A AU - Onumanyi, Adeiza J AU - Bello-Salau, H AU - Oluwamotemi, FT AB - Cellular users are often considered to be uniformly distributed within the communication network for the purposes of simplified analysis. Based on this assumption, the inter-cell interference experienced by users has been handled using soft frequency reuse (SFR) techniques. However, in real networks, the distribution of users in the network regions are not uniform. Therefore, analysis for random deployment of users under SFR is essential for improved accuracy of analysis and better handling of interference. This research presents an SFR algorithm (Load-Driven SFR) that intelligently adjusts resource allocation parameters (base station bandwidth assignment) according to the load distribution in the network. Interference mitigation is enhanced and Load-Driven SFR outperforms several implementations of the standard SFR algorithm using fixed bandwidth allocation, especially for edge user’s SINR (up to 3.2% improvement) and edge user’s Capacity (up to 202% improvement). DA - 2021-07 DB - ResearchSpace DP - CSIR J1 - 1st International Conference on Multidisciplinary Engineering and Applied Science (ICMEAS), Abuja, Nigeria, 15-16 July 2021 KW - 5G networks KW - Algorithms KW - Cellular networks KW - Frequency reuse KW - Network load KW - Resource allocation KW - Simulation KW - Soft frequency reuse KW - User distribution LK - https://researchspace.csir.co.za PY - 2021 SM - 978-1-6654-3493-5 SM - 978-1-6654-3494-2 T1 - Load-driven resource allocation for enhanced interference mitigation in cellular networks TI - Load-driven resource allocation for enhanced interference mitigation in cellular networks UR - http://hdl.handle.net/10204/12385 ER -25656