activity
20152017
most citedTowards 1 Gbps/UE in Cellular Systems: Understanding Ultra-Dense Small Cell Deployments

417 citations · 482 across the 7 of their papers we have counts for

collaborators

7 papers

cs.NI2017

Ultra-Dense Networks: A New Look at the Proportional Fair Scheduler

Ming Ding, David Lopez Perez, Amir H. Jafari +2

In this paper, we theoretically study the proportional fair (PF) scheduler in the context of ultra-dense networks (UDNs). Analytical results are obtained for the coverage probabili…

cs.IT2017★ 4 cited

Performance Evaluation of Spatial Complementary Code Keying Modulation in MIMO Systems

A. H. Jafari, T. O'Farrell

Spatial complementary code keying modulation (SCCKM) is proposed as a novel block coding modulation scheme. An input binary sequence is modulated based on the different lengths of…

cs.IT2016★ 1 cited

Diversity Pulse Shaped Transmission in Ultra-Dense Small Cell Networks

Amir H. Jafari, Vijay Venkateswaran, David Lopez-Perez +1

In ultra-dense small cell networks, spatial multiplexing gain is a challenge because of the different propagation conditions. The channels associated with different transmitreceive…

cs.IT2016★ 1 cited

Performance Impact of LOS and NLOS Transmissions in Dense Cellular Networks under Rician Fading

Amir H. Jafari, Ming Ding, David Lopez-Perez +1

In this paper, we analyse the performance of dense small cell network (SCNs). We derive analytical expressions for both their coverage probability and their area spectral efficienc…

cs.IT2016★ 4 cited

Pulse Shaping Diversity to Enhance Throughput in Ultra-Dense Small Cell Networks

Amir H. Jafari, Vijay Venkateswaran, David Lopez-Perez +1

Spatial multiplexing (SM) gains in multiple input multiple output (MIMO) cellular networks are limited when used in combination with ultra-dense small cell networks. This limitatio…

cs.IT2015★ 55 cited

Study on Scheduling Techniques for Ultra Dense Small Cell Networks

Amir H. Jafari, David Lopez-Perez, Ming Ding +1

The most promising approach to enhance network capacity for the next generation of wireless cellular networks (5G) is densification, which benefits from the extensive spatial reuse…