Evolution of Mobile Generation Technology
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
NEXT GENERATION MOBILE WIRELESS NETWORKS: 5G CELLULAR INFRASTRUCTURE JULY-SEPT 2020 the Journal of Technology, Management, and Applied Engineering
VOLUME 36, NUMBER 3 July-September 2020 Article Page 2 References Page 17 Next Generation Mobile Wireless Networks: Authors Dr. Rendong Bai 5G Cellular Infrastructure Associate Professor Dept. of Applied Engineering & Technology Eastern Kentucky University Dr. Vigs Chandra Professor and Coordinator Cyber Systems Technology Programs Dept. of Applied Engineering & Technology Eastern Kentucky University Dr. Ray Richardson Professor Dept. of Applied Engineering & Technology Eastern Kentucky University Dr. Peter Ping Liu Professor and Interim Chair School of Technology Eastern Illinois University Keywords: The Journal of Technology, Management, and Applied Engineering© is an official Mobile Networks; 5G Wireless; Internet of Things; publication of the Association of Technology, Management, and Applied Millimeter Waves; Beamforming; Small Cells; Wi-Fi 6 Engineering, Copyright 2020 ATMAE 701 Exposition Place Suite 206 SUBMITTED FOR PEER – REFEREED Raleigh, NC 27615 www. atmae.org JULY-SEPT 2020 The Journal of Technology, Management, and Applied Engineering Next Generation Mobile Wireless Networks: Dr. Rendong Bai is an Associate 5G Cellular Infrastructure Professor in the Department of Applied Engineering and Technology at Eastern Kentucky University. From 2008 to 2018, ABSTRACT he served as an Assistant/ The requirement for wireless network speed and capacity is growing dramatically. A significant amount Associate Professor at Eastern of data will be mobile and transmitted among phones and Internet of things (IoT) devices. The current Illinois University. He received 4G wireless technology provides reasonably high data rates and video streaming capabilities. However, his B.S. degree in aircraft the incremental improvements on current 4G networks will not satisfy the ever-growing demands of manufacturing engineering users and applications. -
Energy Efficiency in Cellular Networks
Energy Efficiency in Cellular Networks Radha Krishna Ganti Indian Institute of Technology Madras [email protected] Millions 1G 2G:100Kbps2G: ~100Kb/s 3G:~1 Mb/s 4G: ~10 Mb/s Cellular Network will connect the IOT Source:Cisco Case Study: Mobile Networks in India • India has over 400,000 cell towers today • 70%+ sites have grid outages in excess of 8 hours a day; 10% are completely off-grid • Huge dependency on diesel generator sets for power backups – India imports 3 billion liters of diesel annually to support Cell Tower, DG Set, Grid these cell sites – CO2 emission exceeds 6 million metric tons a year – Energy accounts for ~25% of network opex for telcos • As mobile services expand to remote rural areas, enormity of this problem grows 4 Power consumption breakup Core network Radio access network Mobile devices 0.1 W x 7 B = 0.7 GW 2 kW x 5M = 10 GW 10 kW x 10K = 0.1 GW *Reference: Mid-size thermal plant output 0.5 GW Source: Peng Mobicomm 2011 Base station energy consumption 1500 W 60 W Signal processing 150 W 1000 W 100 W Air conditioning Power amplifier (PA) 200 W (10-20% efficiency) Power conversion 150 W Transmit power Circuit power Efficiency of PA Spectral Efficiency: bps/Hz (Shannon) Transmit power Distance Bandwidth Cellular Standard Spectral efficiency Noise power 1G (AMPS) 0.46 Spectral density 2G (GSM) 1.3 3G (WCDMA) 2.6 4G (LTE) 4.26 Energy Efficiency: Bits per Joule 1 Km 2 Km EE versus SE for PA efficiency of 20% Current status Source: IEEE Wireless Comm. -
1G 2G 3G LTE 4G What's Next
What’s Next in the Cellular Evolution & How to Leverage it for New Business As you will come to see, this goal can 2006 only be accomplished by phasing out 3G and reallocating the extra bandwidth to 4G LTE. This task can only be described 2001 as daunting and challenging from not just 2018 our security perspective, but more so from theirs. 1989 Looking for more proof? First, because of demand it is necessary to upgrade all cellular networks on a regular basis. Two 2002 billion people on the planet use cellphones, according to James Katz, professor of com- munication at Rutgers University. In fact, as of 2011 there were more cellphone sub- 1999 scribers in the United States than people, ac- LTE cording to a study, underwritten by CTIA, a trade association representing the wireless 1983 1G 2G 3G 4G communications industry in the U.S., as re- ported by Bridget Kelly, author of “What Is Courtesy of Napco StarLink the Role of the Cell Phone in Communica- tion Today?” Ride the New Wave in Cellular for New RMR Society at large is becoming more mo- bile-oriented because of convenience, busi- There’s undeniably a lot of upside system control, remote video monitoring or ness and personal lifestyles. According to for savvy installing security contractors long-distance doorbells. We as an industry market research firm Statista of New York and fire/life-safety professionals whose are on the small screen to the tune of brand City, the number of smartphone users is billable offerings keep pace with the new relevance and new recurring revenue. -
LTE-M Deployment Guide to Basic Feature Set Requirements
LTE-M DEPLOYMENT GUIDE TO BASIC FEATURE SET REQUIREMENTS JUNE 2019 LTE-M DEPLOYMENT GUIDE TO BASIC FEATURE SET REQUIREMENTS Table of Contents 1 EXECUTIVE SUMMARY 4 2 INTRODUCTION 5 2.1 Overview 5 2.2 Scope 5 2.3 Definitions 6 2.4 Abbreviations 6 2.5 References 9 3 GSMA MINIMUM BAseLINE FOR LTE-M INTEROPERABILITY - PROBLEM STATEMENT 10 3.1 Problem Statement 10 3.2 Minimum Baseline for LTE-M Interoperability: Risks and Benefits 10 4 LTE-M DATA ARCHITECTURE 11 5 LTE-M DePLOYMENT BANDS 13 6 LTE-M FeATURE DePLOYMENT GUIDE 14 7 LTE-M ReLEAse 13 FeATURes 15 7.1 PSM Standalone Timers 15 7.2 eDRX Standalone 18 7.3 PSM and eDRX Combined Implementation 19 7.4 High Latency Communication 19 7.5 GTP-IDLE Timer on IPX Firewall 20 7.6 Long Periodic TAU 20 7.7 Support of category M1 20 7.7.1 Support of Half Duplex Mode in LTE-M 21 7.7.2 Extension of coverage features (CE Mode A / B) 21 7.8 SCEF 22 7.9 VoLTE 22 7.10 Connected Mode Mobility 23 7.11 SMS Support 23 7.12 Non-IP Data Delivery (NIDD) 24 7.13 Connected-Mode (Extended) DRX Support 24 7.14 Control Plane CIoT Optimisations 25 7.15 User Plane CIoT Optimisations 25 7.16 UICC Deactivation During eDRX 25 7.17 Power Class 26 LTE-M DEPLOYMENT GUIDE TO BASIC FEATURE SET REQUIREMENTS 8 LTE-M ReLEAse 14 FeATURes 27 8.1 Positioning: E-CID and OTDOA 27 8.2 Higher data rate support 28 8.3 Improvements of VoLTE and other real-time services 29 8.4 Mobility enhancement in Connected Mode 29 8.5 Multicast transmission/Group messaging 29 8.6 Relaxed monitoring for cell reselection 30 8.7 Release Assistance Indication -
Government Services, Staff, and Development
overnment services, staff, and development efforts will be increasingly mobile in coming Gyears as devices and applications continue to proliferate at an astounding rate. Industry experts stress how quickly the change is coming. Within the next five years, “more users will connect to the Internet over mobile devices than desktop PCs.” “By 2014,” according to Gartner, “90 percent of organizations will support corporate applications on personal devices.” Government in a In the current mobile landscape over 1 billion people already own mobile devices. The iPhone App Mobile World Store holds over 350,000 active apps and the downloads of those apps stands at over 10 billion The mobile platform offers new opportunities for (there are only 6.9 billion people currently alive on the governments to engage with citizens by either capturing attention at the citizen’s point of planet). That’s why Gartner put tablets and mobile interest or offering new ways to interact when apps on its list of top 10 technologies that enterprises the person feels most ready to do so. should invest in for 2011. Center for Technology in Government mobile_issuebrief.indd 1 10/11/2011 12:36:50 PM GOVERNMENT IN A MOBILE WORLD The usual concerns that come with any technology innovation also accompany the mobile world: security, USA.GOV MOBILE APPS accessibility, privacy, development, deployment. As with any technology, mobile brings its own unique characteristics to these concerns. While critical for government, the single most important fact is that developments in the mobile world will directly impact nearly every aspect of government operations including delivery of services, citizen engagement, allocation of IT resources, staff support, and training. -
Journey of Mobile Generation and Cognitive Radio Technology in 5G
International Journal Of Mobile Network Communications & Telematics (IJMNCT) Vol. 6, No.4/5/6, December 2016 JOURNEY OF MOBILE GENERATION AND COGNITIVE RADIO TECHNOLOGY IN 5G Parnika De and Shailendra Singh Department of Engineering and Application, National Institute of Technical Teacher Training and Research, Bhopal, India. ABSTRACT The ever increasing number of smart network devices may reach up to 24 billion in year 2020 as stated in the recent survey conducted by Forbes magazine. This may obsolete the current 4G technology for handling smart bandwidth allocation to such a large number of devices. In order to cope the challenging need for fast and efficient data transfer over these devices, demands next generation mobile network technology. In literature 5G technology has been suggested that offers appropriate solution to the above issues. 5G is a futuristic technology that would solve many problem of day to day life. By using 5G high data rates can be achieved in the range of Gbps with minimal latency. But the question is how to make such futuristic technology realistic. This can be done by efficiently utilizing the bandwidth in the allotted spectrum. Despite numerous benefits, 5G may critically suffer from tedious implementation problems that have been discussed in this paper. Cognitive radio (CR) is an intelligent radio that works on the principle of dynamic spectrum allocation. Cognitive Radio is capable of learning and adapting to external environment and reuses the frequency when primary user is absent. This paper combine the advantage of two technology 5G terminal and Cognitive radio terminal where 5G provide quality of service and high data rate whereas Cognitive radio give flexibility and adaptability to 5G. -
The Evolution of U.S. Spectrum Values Over Time
The Evolution of U.S. Spectrum Values Over Time Michelle Connolly, Department of Economics, Duke University Nelson Sa, Department of Economics, Brandeis University Azeem Zaman, Department of Statistics, Harvard University Chris Roark, Department of Economics, University of Chicago Akshaya Trivedi, Trinity College, Duke University, Class of 2018 Working Paper Series 2018 | 121 Evolution of spectrum values 1 The Evolution of U.S. Spectrum Values Over Time Michelle Connolly1, Nelson Sá2, Azeem Zaman3, Chris Roark4, and Akshaya Trivedi5 February 13, 2018 Abstract We consider 1997 to 2015 data from FCC spectrum auctions related to cellular services to attempt to identify intrinsic spectrum values. Relative to previous literature, we control for license specific auction rules, and introduce measures to separate out technological progress that effectively reduces spectrum scarcity from progress that increases demand. Results confirm that technological changes have led to increases in the relative value of higher frequencies. Surprisingly, 47 percent of these licenses have been won by “small” bidders, representing 27 percent of the real value of these licenses. The use of bidding credits further appears to consistently reduce auction competition. Keywords: Spectrum, Spectrum Scarcity, Auctions, FCC, Auction Rules, Mobile Applications, Spectral Efficiency, Broadband Speeds, Closed Auctions, Small Bidders, “The Google Effect” JEL Codes: L5, O3, K2 1 Corresponding author: Michelle Connolly, [email protected], 213 Social Sciences, Box 90097, Department of Economics, Duke University, Durham, NC 27708. 2 Department of Economics, Brandeis University. 3 Department of Statistics, Harvard University. 4 Department of Economics, University of Chicago. 5 Trinity College, Duke University Class of 2018. We gratefully acknowledge the support of NSF grant 1314468. -
Evolution of Access Network Sharing and Its Role in 5G Networks
applied sciences Review Evolution of Access Network Sharing and Its Role in 5G Networks Nima Afraz * , Frank Slyne , Harleen Gill and Marco Ruffini * CONNECT Centre, Trinity College, The University of Dublin, 2 Dublin, Ireland; [email protected] (F.S.); [email protected] (H.G.) * Correspondence: [email protected] (N.A.); marco.ruffi[email protected] (M.R.) Received: 3 October 2019; Accepted: 18 October 2019; Published: 28 October 2019 Abstract: This paper details the evolution of access network sharing models from legacy DSL to the most recent fibre-based technology and the main challenges faced from technical and business perspectives. We first give an overview of existing access sharing models, that span physical local loop unbundling and virtual unbundled local access. We then describe different types of optical access technologies and highlight how they support network sharing. Next, we examine how the concept of SDN and network virtualization has been pivotal in enabling the idea of “true multi-tenancy”, through the use of programmability, flexible architecture and resource isolation. We give examples of recent developments of cloud central office and OLT virtualization. Finally, we provide an insight into the role that novel business models, such as blockchain and smart contract technology, could play in 5G networks. We discuss how these might evolve, to provide flexibility and dynamic operations that are needed in the data and control planes. Keywords: access networks; network sharing; 5G networks; multi tenancy; optical access; sharing economics 1. Introduction By its nature, a telecommunications network is a shared resource that interconnects multiple nodes. Network sharing is part of a fundamental principle of statistical multiplexing of link capacity. -
Manual for TCL 10L
Note: This is a user manual for TCL 10L. There may be certain differences between the user manual description and the phone’s operation, depending on the software release of your phone or specific operator services. Help Refer to the following resources to get more FAQ, software, and service information. Consulting FAQ Go to www.tcl.com/global/en/service-support-mobile/faq.html Finding your serial number or IMEI You can find your serial number or International Mobile Equipment Identity (IMEI) on the packaging materials. Alternatively, choose Settings > System > About phone > Status > IMEI information on the phone itself. Obtaining warranty service First follow the advice in this guide or go to www.tcl.com/global/en/ service-support-mobile.html. Then check hotlines and repair centre information through www.tcl.com/global/en/service-support-mobile/ hotline&service-center.html Viewing legal information On the phone, go to Settings > System > About phone > Legal information. 1 Table of Contents 1 Your mobile...............................................................................7 1.1 Keys and connectors .......................................................7 1.2 Getting started ...............................................................10 1.3 Home screen .................................................................13 2 Text input ................................................................................22 2.1 Using the Onscreen Keyboard ......................................22 2.2 Text editing .....................................................................23 -
(12) United States Patent (10) Patent No.: US 9,152,309 B1 Arréhn Et Al
US009 152309B1 (12) United States Patent (10) Patent No.: US 9,152,309 B1 Arréhn et al. (45) Date of Patent: Oct. 6, 2015 (54) TOUCH SCREEN LOCKING AND 2005/00852.15 A1 4, 2005 Kokko et al. UNLOCKING 2006/O125814 A1* 6/2006 Asai et al. ..................... 345.204 2007/0275752 A1* 11/2007 Noba. ... 455,550.1 (75) Inventors: Tobias Arréhn, Malmo (SE); Martin 39; A. ck 1339. Khali g Chakirov, Trelleborg (SE) 2008/O122796 A1* 5, 2008 JobS et al. ... ... 345,173 2008. O161058 A1* 7, 2008 Park et al. ... ... 455,564 (73) Assignee: Google Inc., Mountain View, CA (US) 2008.0167022 A1* 7, 2008 Lee et al. ....... ... 455,415 2008/0168395 A1* 7/2008 Ording et al. T15,833 (*) Notice: Subject to any disclaimer, the term of this 39882 A. : 39. State et al. .................43.. patent is extended or adjusted under 35 2008/0195976 A1* 8, 2008 Cho et al. ...................... T15,840 U.S.C. 154(b) by 1128 days. 2008/0292078 A1* 11/2008 Chen .............. ... 379,142.06 2009,0005011 A1* 1/2009 Christie et al. ... 455,412.2 (21) Appl. No.: 12/058,166 2009/0106679 A1 4/2009 Anzures et al. 715,765 2009/0170487 A1* 7/2009 Ding .............. ... 455,415 1-1. 2009/017.4677 A1* 7, 2009 Gehani et al. .. ... 345,173 (22) Filed: Mar. 28, 2008 2009,0177981 A1* 7, 2009 Christie et al. 715/758 2009, 0207.184 A1* 8, 2009 Laine et al. .... ... 345,619 (51) Int. Cl. 2009,0265627 A1* 10, 2009 Kim et al. ...... 7157702 G06F 3/0484 (2013.01) 2010/0121766 A1* 5/2010 Sugaya et al. -
A Survey on Mobile Wireless Networks Nirmal Lourdh Rayan, Chaitanya Krishna
International Journal of Scientific & Engineering Research, Volume 5, Issue 1, January-2014 685 ISSN 2229-5518 A Survey on Mobile Wireless Networks Nirmal Lourdh Rayan, Chaitanya Krishna Abstract— Wireless communication is a transfer of data without using wired environment. The distance may be short (Television) or long (radio transmission). The term wireless will be used by cellular telephones, PDA’s etc. In this paper we will concentrate on the evolution of various generations of wireless network. Index Terms— Wireless, Radio Transmission, Mobile Network, Generations, Communication. —————————— —————————— 1 INTRODUCTION (TECHNOLOGY) er frequency of about 160MHz and up as it is transmitted be- tween radio antennas. The technique used for this is FDMA. In IRELESS telephone started with what you might call W terms of overall connection quality, 1G has low capacity, poor 0G if you can remember back that far. Just after the World War voice links, unreliable handoff, and no security since voice 2 mobile telephone service became available. In those days, calls were played back in radio antennas, making these calls you had a mobile operator to set up the calls and there were persuadable to unwanted monitoring by 3rd parties. First Gen- only a Few channels were available. 0G refers to radio tele- eration did maintain a few benefits over second generation. In phones that some had in cars before the advent of mobiles. comparison to 1G's AS (analog signals), 2G’s DS (digital sig- Mobile radio telephone systems preceded modern cellular nals) are very Similar on proximity and location. If a second mobile telephone technology. So they were the foregoer of the generation handset made a call far away from a cell tower, the first generation of cellular telephones, these systems are called DS (digital signal) may not be strong enough to reach the tow- 0G (zero generation) itself, and other basic ancillary data such er. -
Migration to 3G Technology Standards: Europe, Japan, South Korea, and the U.S. by Richard Nunno, International Bureau, FCC
Migration to 3G Technology Standards: Europe, Japan, South Korea, and the U.S. By Richard Nunno, International Bureau, FCC Revised July 21, 2003 For over a decade, the International Telecommunication Union (ITU) has been supporting the international effort to develop an advanced third-generation (3G) mobile telecommunications service that has a higher bandwidth than previous and existing mobile services and that subscribers can seamlessly use across international borders (known as global roaming). To that end, the ITU has identified spectrum and developed technical standards for International Mobile Telecommunications 2000 (IMT-2000), the official name for 3G services. The ITU’s World Administrative Radiocommunication Conference (WARC) in 1992 and World Radiocommunication Conference (WRC) in 2000 identified several bands of spectrum that could be used for 3G services. The mobile telecommunications industry has started delivering 3G services that provide broadband applications including voice, data, and video. As defined by the ITU, 3G signal transmission rates must be able to reach 2 megabits per second (Mbps) or higher for indoor (low mobility) wireless applications (more than 35 times faster than today’s 56 kilobits per second (kbps) dial-up PC modems). 3G rates may be slower (384 kbps) for pedestrian traffic, and 144 kbps for high mobility (vehicular) traffic.1 How each country is implementing 3G systems depends on a number of factors, such as the country’s 3G spectrum allocations, the standards it adopts for 3G (if it adopts any standards vs. letting the marketplace make the decision), and the country’s current mobile telephony system configuration. Because a great deal of information and analysis is already available on the spectrum-related issues surrounding 3G implementation, this report focuses only on the technology standards issues pertaining to 3G.