CWC Centre for Wireless Communications. Ari Pouttu, Director - CWC

Similar documents
PANU (Packet Access Networks with. Project Overview. Pekka Pirinen

Led by Prof. Hamid Aghvami Presented by Dr. Xiaoli Chu. UK-China Science Bridges: R&D on 4G Wireless Mobile Communications

Objective ICT : Networks of the Future

Marcos Katz. Wireless Communications Research Seminar 2012

GISFI 5G Workshop. Sri Chandra Standards Senior Manager, IEEE-SA

Wireless Communication

SRA A Strategic Research Agenda for Future Network Technologies

4G Technology in contrast with other G Technologies Raja Solanki,Vineeet Godara, Prashant Solanki, Dhronacharya Engineering College,Gurgaon,India

Wireless Networking: An Introduction. Hongwei Zhang

Wireless Communication

DELIVERING MULTIMEDIA CONTENT FOR THE FUTURE GENERATION MOBILE NETWORKS

Brainstorming Workshop on 5G Standardization: WISDOM. by A.K.MITTAL Sr. Deputy Director General Telecom Engineering Centre, K.L.

INTRODUCTION TO LTE. ECE MOBILE COMMUNICATION Monday, 25 June 2018

LTE : The Future of Mobile Broadband Technology

The primer for everything?! Lars Dittmann Head of Communication Technology Cluster

EU ICT COMBO Project: Fixed Mobile Convergence Solution. Ricardo Martínez ONA, IP Tech. & Engineering Unit

Introduction to Mobile Broadband (imb)

Next Generation Communication Architectures and Technologies

Telecom Learning. Technology

A Study on Systems Beyond IMT-2000 in Korea

Abstract of the Book

FEMTOCELL WITH RELAYS TO ENHANCE THE MACROCELL BACKHAUL BANDWIDTH

3G Technical Evolution as an evolving broadband solution

Innovation Technology for Future Convergence Network

5G the next major wireless standard

5G Three UK s View. Prof Dr Erol Hepsaydir Head of RAN and Device Strategy & Architecture Three UK

GENI Experimental Infrastructure Wireless & Sensor Networks Aug 8, 2005

LTE evolution and road to 5G

Convergence in Wireless Transmission Technology Promises Best of Both Worlds

WIreless DEployable Network System. Symposium Hitachi-Eurecom November 27th 2003 Vania Conan, Thales Communications

LTE-Advanced The solution for IMT-Advanced

Digiworld Future Networks. Wednesday, November 19 th, Bernard Celli Strategy Director Agence nationale des fréquences (ANFR)

5G is viewed as new ecosystem from end-to-end, harnessing both evolutionary as well as revolutionary technologies to:

Coordinated Multi-Point in Mobile Communications

WIRELESS ACCESS PRINCIPLES OF AND LOCALIZATION. Wiley. Kaveh Pahlavan. Prashant Krishnamurthy. University of Pittsburgh, Pittsburgh, Pennsylvania, USA

The IEEE WirelessMAN Standard for Broadband Wireless Metropolitan Area Networks

4G Mobile Communications

Architectures of Next Generation Wireless Networks. Pascal LORENZ.

Flexible networks for Beyond 4G Lauri Oksanen Head of Research Nokia Siemens Networks

LTE TECHNOLOGY. Format: Online Academy. Duration: 7 Modules

Media (NEM) Initiative

Design and Development of Carrier Assignment and Packet Scheduling in LTE-A and Wi-Fi

Wireless systems overview

Throughput Considerations for Wireless Networks

Autonomous Infrastructure Wireless Networks: A Perspective on 4G

From heterogeneous wireless networks to sustainable efficient ICT infrastructures: How antenna and propagation simulation tools can help?

VOICE TO DATA : 5G FOR INCLUSIVE GROWTH A PARADIGM SHIFT. Tilak Raj Dua

Overview of Wi-Fi. Dr. Srikanth Subramanian CKO, Nanocell Networks Wi-Fi A Wireless Success Story

Dynamic spectrum allocation and energy efficiency in 5G systems. The SPEED-5G perspective

HSPA+ R8. February 2009

4G Americas The Voice of 5G for the Americas

FLAVIA - # FLexible Architecture for Virtualizable future wireless Internet Access. (FP7 call 5, obj1.1)

Agenda. 1. 5G Brasil Structure 2. Scenarios 3. Vertical Markets 4. Technological Trends 5. 5G at Inatel 6. Conclusions

CHAPTER 3 4G NETWORK ARCHITECTURE

COPYRIGHTED MATERIAL. Introduction. Harri Holma and Antti Toskala. 1.1 WCDMA in Third-Generation Systems

WiBRO (Mobile WiMAX)

END-TO-END RECONFIGURABILITY II: TOWARDS SEAMLESS EXPERIENCE

Platforms for Advanced Wireless Research (PAWR) Abhimanyu Gosain Technical Program Director July

Unified Access and Aggregation Network Allowing Fixed and Mobile Networks to Converge: The COMBO project

Interference in Femtocell Networks. Roger Piqueras Jover ELEN E6951 Wireless & Mobile Networking II April 13th 2009

Building the Business Case for Mobile Broadband The HSPA Evolution Path

Naresh Soni CTO, InterDigital

5G Opportunities for Cable Operators

COPYRIGHTED MATERIAL. Introduction. Harri Holma and Antti Toskala. 1.1 WCDMA technology and deployment status

Pervasive Wireless Scenarios and Research Challenges Spring 08 Research Review Jun 2, 2008

Mobile Broadband Communications

Towards Future Internet

Big Picture. ~10 years between generations

ONELAB and Beyond. Prof. Serge Fdida. University P&M Curie, Paris 6, France

Expanding the reach of Broadband: Getting people online. Integrating Satellite use in 5G Ecosystem 15 June 2016:

Lecture 20: Future trends in mobile computing. Mythili Vutukuru CS 653 Spring 2014 April 7, Monday

ENG Wi-Fi/WiMAX: Planning, Design & Deployment

WiMAX Capacity Enhancement: Capacity Improvement of WiMAX Networks by Dynamic Allocation of Subframes

Header Compression Capacity Calculations for Wireless Networks

5G systems. meeting the expectations of the Networked Society. Dr Magnus Frodigh Director Wireless Access Networks GSM. Wi-Fi. New technologies 5G

Ch 1 Ch 2 Ch 3 Ch 4 F c =58.32 GHz F c =60.48 GHz F c =62.64 GHz F c =64.80 GHz GHz GHz GHz

Mobile broadband technology opportunities in emerging markets

T. P. Meenaa, A. Selvaraj Muthayammal Engineering College, Rasipuram, Rasipuram, Tamil Nadu, India

Wireless personal area network

Wi-Fi Technology, Standards,and Evolution. Dr. Srikanth Subramanian CKO, Nanocell Networks

5G radio access. ericsson White paper Uen June research and vision

Green Evolution of Mobile Communications (CMCC Perspective)

Imagining Tomorrow's Wireless Landscape

Hoover 5G Technology Dr. Kirti Gupta Vice President, Technology & Economic Strategy, Qualcomm Inc. January 10, 2019

Mobile Ad Hoc Networks: Basic Concepts and Research Issues

Basic Principles of Next Generation Networks and Applications.

Standardization Trend for Super 3G (LTE)

GRIDS INTRODUCTION TO GRID INFRASTRUCTURES. Fabrizio Gagliardi

CTIS 487: Lecture Notes 1

Technology competition: Mobile WiMAX vs. HSPA. Timo Smura COIN-seminaari

5G spectrum in Europe and Latin America

The Internet of Things

Introduction to Wireless Networks

Cooperative Communications and Wireless Body Area Networks. Xigang Huang

Challenges for Future Networked Embedded Systems

4G Wireless Systems. Outlines. Data Rates of Wireless Networks. Wireless Networks. Wireless Networks Throughput versus Range

Preface List of Acronyms

Celtic-Plus Award winning projects present their results CIER

Figure Potential 5G applications

IEEE-SA Standardization Activities for Smart Grid in Communications & Networking. Max Riegel Nokia Siemens Networks Chair IEEE 802 OmniRAN EC SG

Transcription:

CWC Centre for Wireless Communications Ari Pouttu, Director - CWC

2

CWC Key Characteristics Project based operation, all funding outside university budget > 25 projects. Research partners include Tekes, Nokia, Nokia Siemens Networks, Xilinx, Finnish Defence Forces, European Commission, European Defence Agency, European Space Agency, Patria, Insta, Elektrobit, Nethawk, Ericsson. Annual budget of approximately 7 M EUR. 110 Staff All new initiatives funded by own surplus, which is used for CWC funded professorships (Currently 7) Internal strategic research projects Acquisition of high class research equipment CWC Overview

1995 1996 1997 1998 1999 2000 2001 2002 2003 2004 2005 2006 2007 2008 2009 2010 4 CWC in Figures 8000000 7000000 RESEARCH FUNDING 1995-2010 6000000 5000000 CWC Research funding division in 2009 4000000 3000000 2000000 1000000 0 120 NUMBER OF STAFF 1995-2010 100 Research personnel 80 60 Management and administration 40 20 0

CWC research activities Ari Pouttu, Director - CWC

14.1.2010 6 CWC Research Arena Tekijöiden sukunimet aakkosjärjestyksessä

Some Dimensions/Drivers for Future Wireless Networks Development Strong component in GIGA projects Strong component in GIGA and EU FP7 projects Strong component in EU FP7 projects Evolution of mobile cellular networks Opportunistic communication Wireless Internet architectures Energy efficient ( green ) networking Ubiquitous Internet access Broadband mobile wireless Local connectivity Positioning enabled network management Intelligent network(s) management

Evolution of Mobile Cellular Networks Wide-Area Access Technologies 3G networks well established High speed access (HSDPA and HSUPA) largely emerged. Physical layer technology based on WCDMA. MIMO and other enhancements introduced currently. 3G LTE emerging: first standard versions completed Physical layer based on OFDM(A) in downlink and SC-FDMA in uplink; efficient user scheduling plays a big role. Multiple-input multiple-output (MIMO) used extensively. More network control functionalities to base stations. WiMAX also based on OFDM(A) and is very similar to LTE. IMT-A development has started and can potentially introduce totally news ways for wireless networking. European WINNER project has been investigating IMT-A radio access techniques since 2004.

Technical Enablers/Challenges for IMT-A Novel network topologies Co-operative relaying. Distributed antenna systems. Challenges in L1 Different multiantenna solutions for multiuser environment. Channel quality based link adaptation. Multiple access Fast user scheduling in OFDMA. Opportunistic spectrum use concepts. Network control Complexity (~smartness) increases => autonomosity required => cognitive radio networking (CRN) concepts. Spectrum sharing concepts Part of the spectrum will be shared between operators. Sharing schemes call for cognitive radio capabilities. None of these has been realised in any existing or emerging widely deployed standard yet.

Challenges for Future Internet Wireless Perspective The original Internet architecture is being pushed to it s limits due to: mobility, number of devices and pervasiveness, fast changing content, bandwidth availability, end user provided infrastructure and services, security, trust, dependability, QoS requirements, heterogeneity of devices, access technologies and services, complexity of network management.

Research Challenges for Wireless Networking Mobility, dynamically changing information needed for ubiquitous service infrastructure, number of active nodes, lack of transmission capacity etc. call for totally new type of networking architectures. It can be seen already now in the development of cellular networks in the need of development of local connectivity. How is information routed from multiple sources to destination(s)? How is the changing network(s) environment managed and used most efficiently? Some research themes driving for the change: Integration of sensor networks to the rest of Internet Intelligent management of heterog. wireless networks Mobile wireless driven future Internet architecture

Energy Efficient Green Networking The telecom industry is growing fast (more users & higher data rates), causing an increase in its environmental impact. This growth needs to be compensated by technology with improved energy efficiency - which is not yet achieved. ICT represents today a small part (2-3%) of CO2 emissions, BUT it is rapidly growing and energy costs for network operators are already huge. ICT has great potential to reduce CO2 emissions drastically in short to medium term. Future technology development should furher aim at reducing energy consumption. Interesting research issues can be identified both in networking and radio side energy efficient network topologies & architectures heterogeneous networks management devices & transmission

Local Connectivity in Mobile Cellular Systems During the recent years, mobile cellular standards have started to include local broadband connectivity on licenced bands. This benefits both user (lower costs per bit) and operators (increased network capacity and savings in CAPEX/OPEX). For the future development of them, a careful thinking is needed in which environments users need broadband wireless connectivity: Home Femtocells Commuting Office, public places Anywhere with friends Moving local access Evolutionary / networked femtocells Device-to-device communication

Research Challenges in Local Connectivity Femtonetwork management (handovers, resource management, distributed antenna solutions, user scheduling, etc.). Easy installation of multiple sites; autoconfiguration and autonoumous management (SON). Multioperator environment and spectrum sharing accross operators. Interference management between femtocells and micro/macro BSs. Co-existence with other access technologies (Wi-Fi). High-quality backhaul (either fixed or wireless).

Intelligent Network(s) Management or Cognitive Wireless Networking or... Dynamic spectrum access Frequency sharing view Try to encompass different approaches to spectrum reform. Autonomic communications Self-configuring networks AC initiative addresses the problem of self-configuring radio research management and MAC. Can be conceived as cognitive networks. Software defined radio The radio equipment A multiband radio capable to support different phy solutions. Different camps aiming at similar goals! Cognitive radios Typically lower layers physical layer and signal processing issues such as spectrum sensing. Some MAC control issues are addressed, but research on resource allocation is not well covered. Cognitive radio networks Intelligent management of networks RRM and distributed network control are the key issues. Ambient networks Typically higher layers With emphasis on upper layer issues, ambient network (AN) research addresses seamless interoperation of heterogeneous networks.

CWC s TEKES GIGA projects

CWC s TEKES Projects 18 Currently CWC is active in 13 projects that have strong TEKES funding including e.g. GIGA projects and 3 FiDiPro professors projects GIGA technology programme has strong wireless access and wireless networking component and is funding currently 6 projects These GIGA funded projects are presenting their main results in this seminar PANU - Packet Access Networks with Flexible Spectrum Use MITSE - MIMO Techniques for 3G System and Standard Evolution COGNAC - COGNitive And opportunistic wireless Communication networks CROSSNET - CROSSlayer solutions and NETwork support for broadband wireless access WINNER+ - Wireless World Initiative New Radio + IMT-A EVALUATION

PANU - Packet Access Networks with Flexible Spectrum Use Basic cellular network models are augmented into more flexible network structures (e.g., ad hoc mesh topologies, relay enhanced cells and direct device-to-device communications) as shown in Figure. All PANU research efforts are considered as possible intermediate steps towards IMT-Advanced and beyond 4G systems 19 Sponsors: Tekes, Nokia, Nokia Siemens Networks, Elektrobit, and CWC. Volume 2009: 990 k, 105 person months (PM) General research theme: radio resource management and radio network control techniques for mixed topology networks Enhanced cellular radio networks Wireless mesh router backbone IPv6 Radio Access Network Basic cellular B Inter-operator interaction A -> B A Local connectivity wireless networks Fundamental (inter-)networking theories and topics Wireless mesh clients relay node Expected Impact: supports the project sponsors in designing new system concepts as well standards, terminals, and base stations for IMT-Advanced and beyond 4G systems Relays for improved coverage/capacity Ad-hoc multihop extension via relay node Direct terminal-to-terminal communications Distributed antenna MIMO concept

MITSE - MIMO Techniques for 3G System and Standard Evolution MITSE is a B3G cellular communication system research project. The scope and content of the project covers future development and evolution of 3G cellular communication systems known as 3G Long-Term Evolution and IMT-A. The main emphasis is on MIMO transmission schemes and receiver algorithms and architectures as well as computation solutions needed by them in multiuser OFDM(A) and SC-FDMA systems 20 Sponsors: Tekes, Nokia, Nokia Siemens Networks, Elektrobit, Uninord and CWC. Volume 2009 : 873 k, 93 PM General research theme: The use of multiple antennas in both the transmitter and the receiver (MIMO) in 3G Long- Term Evolution and IMT-A Expected Impact: Algorithms utilized in MIMO-OFDM systems such as LTE/LTE-A, IMT-A and Mobile WiMAX C h a n n e l I F F T F F T S / P x S I S O d e t e c t o r Q A M M o d I n t L A 1 L E 2 I n t + - - + L E 1 D e I n t E n c o d e r S I S O d e c o d e r y L D 1 L A 2 L D 2 b

COGNAC - COGNitive And opportunistic wireless Communication networks The process of cognitive resource management can be best described as a cognition cycle. The cycle includes sensing of the operating environment, management decision algorithms and adaptation to better exploit the resources in the environment. Furthermore, the decision-making has to take into account any outside restrictions and policies. Sponsors: Tekes, CWC, VTT Partner: VTT Volume 2009 : CWC 285k, 31 PM VTT 355 k, 28 PM General research theme: Realizing the cognitive cycle in future highly heterogeneous networks Expected Impact: deep understanding of the key enabling technologies for opportunistic communication systems, such as: flexible frequency use, dynamic system management, radio resource management and multichannel medium access control methods. 21

CROSSNET - CROSSlayer solutions and NETwork support for broadband wireless access The anticipated integrated platform, i.e. CrossNet Common Laboratory, consists of existing technology building blocks provided by project partners: NetHawk, EB, VTT, Nokia Siemens Networks, Nokia Devices and CWC. Laboratory is targeted for experimental research on cross-layer optimisation. Sponsors: Tekes, Elektrobit, Nethawk, Nokia, Nokia Siemens Networks, CWC, VTT Partner: VTT Volume 2009 : CWC 175k, 20 PM VTT 194 k, 16 PM General research theme: to connect NetHawk s network simulator and analyzing tools to CWC s and VTT s computer simulation models and testing tools and EB s radio interface test systems Expected Impact: To combine the existing expertise of radio access and networking technology amongst the project partners to build a CrossNet research/testing laboratory for LTE and LTE-A 22

WINNER+ - Wireless World Initiative New Radio + The project focuses on developing and evaluating innovative concepts and technologies for systems beyond 3G LTE. The innovations are optimized and evaluated by simulations within the overall WINNER+ concept. Beyond that, parts of this concept are expected to be incorporated into candidate IMT-Advanced technology proposals. Sponsors: Tekes, CWC Partners: EUREKA Celtic Winner+ consortium comprises almost 30 partners including manufacturers, operators, R&D centers and universities Volume 2009 : 519 k, 51 PM General research themes: innovations in areas with a high potential of exploitation in IMT-A, harmonization of innovations in the prestandardization phase, participation in the evaluation of selected technology proposals, evaluation and demonstration of selected key technologies Expected Impact: candidate IMT- Advanced technology proposal 23

24 IMT-A EVALUATION The purpose of the project IMT-Advanced Evaluation is to participate in the evaluation work in WINNER+ project. Sponsors: Tekes, CWC Volume 2009 : 105 k, 10 PM General research themes: As support to WINNER +, the goal of the project is to provide reliable evaluations of IMT-Advanced compliant technologies that are submitted to ITU-R development of radio interface recommendations. Expected Impact: Evaluation results of candidate IMT-Advanced technology proposals, system level simulator based on the ITU-R IMT-A evaluation specifications