Workshop on Advanced PHY and MAC Techniques for Super Dense Wireless Networks
Friday, 12 June 2015 • 09:00 – 18:00
WS-13: Advanced PHY and MAC Techniques for Super Dense Wireless Networks
Organizer: Yi Ma (University of Surrey, UK)
IWSDN is one of the ICC2015 workshops jointly organized by EU FP7 RESCUE project partners, EU FP7 DIWINE project partners, and the UK 5G Innovation Centre (5GIC). This workshop aims to gather researchers, regulators, and users to present and debate advanced PHY and MAC techniques for super dense wireless networks and applications, with the perspective of current cellular, M2M, and V2V standardisation activities in 3GPP, ETSI, IEEE and IETF. IWSDN will be a full-day workshop, which includes two keynotes, technical sessions, posters, as well as workshop panel with a good mixture of participants from the academy and industry. The technical sessions will be mainly focused on the timely topics of physical layer network coding, massive and network MIMO, as well as asynchronous and non-orthogonal multiple access techniques.
Welcome Session
Advanced PHY for Super Dense Network
- Improved Source Correlation Estimation in Wireless Sensor Networks
- pp. 10183-10188
- Hardware Implementation of Distributed Learning Algorithm for Mapping Selection for Wireless PLNC
- pp. 10189-10194
- Iterative channel estimation and phase noise compensation for SC-FDE based mmWave systems
- pp. 10195-10200
- Outage based Power Allocation for a Lossy-Forwarding Relaying System
- pp. 10201-10206
- Exploring Smart Pilot for Partial Packet Recovery in Super Dense Wireless Networks
- pp. 10207-10212
- High Density Cellular Communication using Radio Aperture Synthesis
- pp. 10213-10218
- Distributed Time and Frequency Synchronization: USRP Hardware Implementation
- pp. 10219-10224
- An improved Log-MAP algorithm based on polynomial regression function for LTE Turbo decoding
- pp. 10225-10229
Keynote-1: Scaling ad-hoc networks - how advanced PHY&MAC can help
Many future applications of wireless communications imply some form of ad-hoc relaying, either by terminals (in the D2D case) or by vehicles (in the V2V case). Such relaying mechanisms when deployed in the field will hit scalability problems akin to those of ad-hoc networks. In this talk we propose to revisit the issue of ad-hoc network scalability, in particular the issues pertaining to topology maintenance and routing, and explore how new PHY&MAC developments can help.
PLNC and Cooperative Communications
- Relaying in Butterfly Networks: Superposition Constellation Design for Wireless Network Coding
- pp. 10230-10236
- Massive Uncoordinated Multiway Relay Networks with Simultaneous Detections
- pp. 10237-10242
- Analysis of Cooperative Communication In One-dimensional Dense Ad-hoc Networks
- pp. 10243-10248
- Constructing Convolutional Lattices and its Application in Compute and Forward
- pp. 10249-10255
Advanced MAC for Super Dense Networks
- Optimal Throughput Analysis of A Super Dense Wireless Network with the Renewal Access Protocol
- pp. 10256-10261
- Combined Bulk and Per-Tone Relay Selection in Super Dense Wireless Networks
- pp. 10262-10267
- Impact of Channel Fading on Mobility Management in Heterogeneous Networks
- pp. 10268-10273
- Knowledge-Aided Informed Dynamic Scheduling for LDPC Decoding
- pp. 10274-10279
- Cloud Empowered Cognitive Inter-cell Interference Coordination for Small Cellular Networks
- pp. 10280-10286
- Circularly Multi-directional Antenna Arrays with Spatial Reuse based MAC for Aerial Sensor Networks
- pp. 10287-10292
- Secure Virtual Private LAN Services: An Overview with Performance Evaluation
- pp. 10293-10299
Keynote-2: C-RAN in Dense Heterogeneous Networks: A Network Information-Theoretic Viewpoint
Cloud Radio Access Network (C-RAN) refers to a novel cellular architecture in which low-cost wireless access points, known as radio units (RUs), are centrally managed by a reconfigurable centralized "cloud", or central, unit (CU). C-RAN allows operators to reduce the capital and operating expenses needed to deploy and maintain dense heterogeneous networks, as well as to reap statistical multiplexing and spectral efficiency gains. The key bottleneck to the performance of C-RAN is the limited capacity offered by the network of fronthaul links that connect RUs and CU. Starting with a brief review of existing solutions, this talk overviews advanced techniques inspired by network information-theoretic principles that leverage the density of the network deployment for both uplink and downlink.
Advanced MIMO and Multi-Cell Technology - Part A
- Optimal User Association for Massive MIMO Empowered Ultra-Dense Wireless Networks
- pp. 10300-10306
- Hybrid Channel Pre-Inversion and Interference Alignment Strategies
- pp. 10307-10312
Advanced MIMO and Multi-Cell Technology - Part B
- Pilot-assisted Opportunistic User Scheduling for Wireless Multi-cell Networks
- pp. 10313-10318
- Opportunistic Feedback Mechanisms for Decentralized Network MIMO systems
- pp. 10319-10324
Advanced MAC Design
- Scheduling of the Super-Dense Wireless Cloud Networks
- pp. 10325-10330
- Asynchronous Multi-User Uplink Transmission with Generalized Frequency Division Multiplexing
- pp. 10331-10337
- Preserving Fairness in Super Dense WLANs
- pp. 10338-10343
- On the Trade-Off between Handover Failure and Small Cell Utilization in Heterogeneous Networks
- pp. 10344-10349
Panel-1: Advanced PHY & MAC for Super Dense Networks
Super dense wireless networks have received tremendous attention worldwide. This panel aims to gather academics, researchers, industry, and end-users to present and debate advanced PHY and MAC techniques for super dense wireless networks and applications, with the perspective of current cellular, M2M, and V2V standardisation activities in 3GPP, ETSI, IEEE and IETF.