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

417 citations · 423 across the 4 of their papers we have counts for

collaborators

7 papers

cs.NI20174 cited

On the Fundamental Characteristics of Ultra-Dense Small Cell Networks

Ming Ding, David Lopez-Perez, Holger Claussen +1

In order to cope with the forecasted 1000x increase in wireless capacity demands by 2030, network operators will aggressively densify their network infrastructure to reuse the spec…

cs.IT2017

Indoor Massive MIMO Deployments for Uniformly High Wireless Capacity

Giovanni Geraci, Adrian Garcia-Rodriguez, David Lopez-Perez +3

Providing consistently high wireless capacity is becoming increasingly important to support the applications required by future digital enterprises. In this paper, we propose Eigen…

cs.IT2017

Massive MIMO Unlicensed for High-Performance Indoor Networks

Adrian Garcia-Rodriguez, Giovanni Geraci, David Lopez-Perez +3

We propose massive MIMO unlicensed (mMIMO-U) as a high-capacity solution for future indoor wireless networks operating in the unlicensed spectrum. Building upon massive MIMO (mMIMO…

cs.IT20172 cited

Enhancing Coexistence in the Unlicensed Band with Massive MIMO

Giovanni Geraci, Adrian Garcia-Rodriguez, David López-Pérez +3

We consider cellular base stations (BSs) equipped with a large number of antennas and operating in the unlicensed band. We denote such system as massive MIMO unlicensed (mMIMO-U).…

cs.IT2016

Lattice Partition Multiple Access: A New Method of Downlink Non-orthogonal Multiuser Transmissions

Dong Fang, Yu-Chih Huang, Zhiguo Ding +3

In this paper, we propose a new downlink non-orthogonal multiuser superposition transmission scheme for future 5G cellular networks, which we refer to as the lattice partition mult…

cs.NI2015

Optimization of Demand Hotspot Capacities using Switched Multi-Element Antenna Equipped Small Cells

Hamed Ahmadi, Danny Finn, Rouzbeh Razavi +2

This paper presents switched Multi- Element Antennas (MEAs) as a simple, yet effective, method of enhancing the performance of small cell heterogeneous networks and compensating fo…