Role of 6G Technology in Mobile Communication
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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. -
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 -
Skywire® Development Kit SMS Example
® Skywire Development Kit SMS Example NimbeLink Corp Updated: August 2019 PN 30049 rev 14 NimbeLink Corp. All Rights Reserved. 1 Table of Contents Table of Contents 2 1. Introduction 3 1.1 Orderable Part Numbers 3 1.2 Prerequisites 4 2. SMS Message 5 2.1 Send SMS Message 5 2.2 Receive SMS Messages 5 2.3 Delete Received SMS Messages 6 3. Troubleshooting 7 PN 30049 rev 14 NimbeLink Corp. All Rights Reserved. 2 1. Introduction 1.1 Orderable Part Numbers Orderable Device Description Carrier Network Type NL-SWDK Skywire Development Kit Any Any NL-SW-1xRTT-A 2G 1xRTT Aeris CDMA NL-SW-1xRTT-S 2G 1xRTT Sprint CDMA NL-SW-1xRTT-V 2G 1xRTT Verizon CDMA Any GSM (AT&T, NL-SW-GPRS 2G GPRS GSM T-Mobile, etc.) NL-SW-EVDO-A 3G EVDO, GPS, GLONASS Aeris CDMA NL-SW-EVDO-V 3G EVDO, GPS, GLONASS Verizon CDMA Any GSM (AT&T, NL-SW-HSPA 3G HSPA+, GPS, GLONASS GSM T-Mobile, etc.) Any GSM (AT&T, NL-SW-HSPA-B 3G HSPA+, GPS, GLONASS GSM T-Mobile, etc.) NL-SW-LTE-TSVG LTE CAT 3 without Fallback, GPS, GLONASS Verizon LTE NL-SW-LTE-TSVG-B LTE CAT 3 without Fallback, GPS, GLONASS Verizon LTE Any GSM (AT&T, NL-SW-LTE-TNAG LTE CAT 3 with HSPA+ Fallback, GPS, GLONASS LTE, GSM T-Mobile, etc.) Any GSM (AT&T, NL-SW-LTE-TNAG-B LTE CAT 3 with HSPA+ Fallback, GPS, GLONASS LTE, GSM T-Mobile, etc.) LTE CAT 3 with HSPA+ Fallback, GPS, GLONASS, NL-SW-LTE-TEUG Any EU GSM LTE, GSM EU NL-SW-LTE-S7618RD LTE CAT1 Verizon LTE NL-SW-LTE-S7648 LTE CAT1 AT&T/T-Mobile LTE NL-SW-LTE-S7588-V LTE CAT4 with HSPA+ Fallback Verizon LTE NL-SW-LTE-S7588-V-B LTE CAT4 with HSPA+ Fallback Verizon LTE NL-SW-UAV-S7588 LTE CAT4 with HSPA+ Fallback Verizon LTE NL-SW-LTE-S7588-T LTE CAT4 with HSPA+ Fallback AT&T LTE, GSM NL-SW-LTE-S7588-T-C LTE CAT4 with HSPA+ Fallback AT&T LTE, GSM Any GSM (AT&T, NL-SW-LTE-WM14 CAT1 LTE, GSM GSM T-Mobile, etc.) NL-SW-LTE-SVZM20 LTE CAT M1 Verizon LTE NL-SW-LTE-TC4NAG LTE CAT4 Verizon/AT&T LTE NL-SW-LTE-TC4EU LTE CAT 4 EU European Carriers LTE PN 30049 rev 14 NimbeLink Corp. -
Evolutionary Steps from 1G to 4.5G
ISSN (Online) : 2278-1021 ISSN (Print) : 2319-5940 International Journal of Advanced Research in Computer and Communication Engineering Vol. 3, Issue 4, April 2014 Evolutionary steps from 1G to 4.5G Tondare S M1, Panchal S D2, Kushnure D T3 Assistant Professor, Electronics and Telecom Dept., Sandipani Technical Campus Faculty of Engg, Latur(MS), India 1,2 Assistant Professor, Electronics and Telecom Department, VPCOE, Baramati(MS), India 3 Abstract: The journey from analog based first generation service (1G) to today’s truly broadband-ready LTE advanced networks (now accepted as 4.5G), the wireless industry is on a path that promises some great innovation in our future. Technology from manufacturers is advancing at a stunning rate and the wireless networking is tying our gadgets together with the services we demand. Manufacturers are advancing technologies at a stunning rate and also evolution in wireless technology all impossible things possible as market requirement. Keywords: Mobile Wireless Communication Networks, 1G, 2G, 3G, 4G,4.5G I. INTRODUCTION With rapid development of information and was replaced by Digital Access techniques such as TDMA communication technologies (ICT), particularly the (Time division multiple access), CDMA (code division wireless communication technology it is becoming very multiple access) having enhanced Spectrum efficiency, necessary to analyse the performance of different better data services and special feature as Roaming was generations of wireless technologies. In just the past 10 introduced. years, we have seen a great evolution of wireless services which we use every day. With the exponential evolution, B.Technology there has been equally exponential growth in use of the 2G cellular systems includes GSM, digital AMPS, code services, taking advantage of the recently available division multiple access(CDMA),personal digital bandwidth around the world. -
HDI-TX-301-C-2G-E Series
HDI-TX-301-C-2G-E Series DM Lite® Transmitter and 3x1 Auto-Switcher for HDMI®, VGA, and Analog Audio Signal Extension over CATx Cable, UK/European Wall Plate The HDI-TX-301-C-2G-E (-B-T or -W-T) is a UK/European wall plate DM Lite® transmitter designed to pair with a DM Lite or DMPS Lite™ receiver to form an extender for HDMI® signals. The DM Lite family of products offers a versatile solution for extending HD, UHD, 2K, and 4K video signals, with stereo or surround sound audio, over a single CAT5e (or higher) cable. A cable length of up to 70 m (230 ft) is supported for HD 1080p, WUXGA, and 2K signals, or up to 40 m (130 ft) for UHD and 4K.1 The HDI-TX-301-C-2G-E includes two HDMI inputs and one VGA input. The VGA input is accompanied by a stereo analog audio input. Auto-switching between the HDMI and VGA inputs enables plug-and-play simplicity. Manual input selection is also available using the front panel INPUT SEL button. The VGA input can accept RGB and component video signals by using an appropriate breakout cable or adapter (not included). The audio input is selected in tandem with the VGA input and can be used by itself with no video source connected. However, it cannot be paired with the HDMI video input. l Pairs with a DM Lite® or DMPS Lite™ receiver l Enables extension of HDMI® video and audio signals NOTE: When paired with an HD-RX-201-C-E or DMPS Lite receiver, the local inputs are switched in combination with the l Converts and extends VGA and analog audio signals HDMI inputs on the receiver, and can also be controlled l Auto-switches between two HDMI inputs and one VGA input remotely through integration with a Crestron® control system. -
DELL TECHNOLOGIES and 5G Analysis and Strategy to Capture the 5G Mobile Opportunity
DELL TECHNOLOGIES AND 5G Analysis and strategy to capture the 5G mobile opportunity November 2019 TABLE OF CONTENTS EXECUTIVE SUMMARY ............................................................................................................................................................3 THE DELL TECHNOLOGIES 5G STRATEGY ..........................................................................................................................4 1. INTRODUCTION ....................................................................................................................................................................6 1.1 5G NEW DEMANDS ..............................................................................................................................................7 1.2 NEW TRAFFIC TYPES...........................................................................................................................................7 1.3 IOT ...........................................................................................................................................................................7 1.4 AR/VR .....................................................................................................................................................................9 1.5 MISSION-CRITICAL. ........................................................................................................................................... 10 1.6 ENHANCED MOBILE BROADBAND ............................................................................................................... -
What Frequency Is 5G (Verizon)
11/18/2019 What frequency is 5G? | About Verizon eless.com/) Residential (https://www.verizon.com/?lid=//global//residential) m/business/gateway/) About Verizon (/about/) Your Contact us Our Company location: (https://www.verizon.com/Support/Residential/contact- (/about/our-company) Concord, us/index.htm) NH News (/about/news) Change location 11.18.2019 Personal Tech (/about/news-story-categories/personal-tech) What frequency is 5G? (https://w(whtwtp.f:a//cwewb(howto.ttkpw.:c/i/totwemwr/.cswoh.lmainr/keserh/dsaihrnea.c?roemr.p/hshpa?reArticle? u=https://uvrzl=.thot/t3p7si:8m//DivnOzi.=toot)r/u3e7&i8uDrlO=hot&tpvsia:/=/vez.rtioz/o3n7&i8teDxOt=oW&htiatlte%=W20hfaret%qu2e0nfcreyq%u2e0nicsy%%22005iGs%%230F5% From 1G to 5G all cellular networks carry information through the electromagnetic spectrum which includes the radio spectrum https://www.verizon.com/about/our-company/5g/what-frequency-5g?fbclid=IwAR2RIHs8cmcE_pskp6pSYZuXDEVnzq_hmb12fkY_wPSNpD-Q5OUk4f… 1/5 11/18/2019 What frequency is 5G? | About Verizon From 1G to 5G, all cellular networks carry information through the electromagnetic spectrum, which includes the radio spectrum. Some frequency bands within the radio spectrum will be used for 5G, including Verizon’s 5G Ultra Wideband (UWB) network. The following information can help you learn what frequency 5G uses and how that affects the speed and efficiency of the network. What is the radio spectrum? To understand exactly how fast 5G technology is expected to be, it’s important to consider it in relation to other cellular network technologies. If you think back to high school physics, you may recall the electromagnetic spectrum. This includes all the different wavelengths/frequencies you may encounter: Gamma Rays, X-Rays, light and visible rays, microwaves, millimeter waves (mmWave), radio waves (including AM and FM radio) and more. -
2G GSM GPRS Network Lab Simulation
2G GSM GPRS Network Lab Simulation Overview GL offers an End-to-End 2G and 2.5G GSM GPRS Wireless Network Simulation Test Suite with all components such as Base Station, RF channel, GSM core network elements such as BSC, MSC, HLR, and GPRS core elements such as SGSN, and GGSN to support mobile call and traffic emulation. The lab system can operate with real mobiles, or simulator user profiles. By mimicking real-world customer behavior in lab environments, our solutions allow mobile operators and equipment manufacturers to verify their wireless networks before deployment. In other words, one can setup a virtual real-time network simulating all the network elements using “MAPS 2G Wireless Lab Suite”. The test suite supports simulation ofGSM Abis, A, C/D/E, Gb, and GnGp interfaces. In addition, with MAPS™ HD RTP appliance you can generate high call intensity (hundreds of calls/sec) and high volume Voice and SMS calls (thousands of simultaneous calls/platform). MAPS™ supports automated stress/load testing capabilities through Load Generation and Bulk Call Simulation features. To perform Bulk Call Generation, several UE/Subscriber configuration files are required. The UE/Subscriber configuration files can becreated using regular Profile Editors (XML Based), using CSV based profiles, or using Auto Generation feature for simulating inter-networking calls, roaming calls, data sessions, and bulk GTP traffic generation. Complete 2G GSM lab simulation can be realized using GL’s Remote MAPS™ feature, a client server module, designed for multi-node multi-interface simulation from a single GUI. The application has the ability to remotely control multiple MAPS™ Servers running on different PCs from a single remote client application. -
1G, 2G, 3G, 4G, 5G
1G, 2G, 3G, 4G, 5G By: Simon Johansen G? • G Generation • Generation of wireless phone technology 1G • Frequency: 150MHz / • From 1980 to 1990 900MHz • Bad voice quality • Bandwidth: Analog • Poor battery, cellphones telecommunication • Big cellphones (30KHz) • Characteristic: First • Better than nothing, at wireless communication least its wireless and • Technology: Analog mobile cellular • Capacity (data rate): 2kbps 2G • Frequency: 1.8GHz • From 1991 to 2000 (900MHz), digital • Allows txt msg service telecommunication • Signal must be strong or • Bandwidth: 900MHz else weak digital signal (25MHz) • Characteristic: Digital • 2.5G • Technology: Digital – 2G cellular technology with cellular, GSM GPRS • Capacity (data rate): – E-Mails 64kbps – Web browsing – Camera phones • Why better than 1G? 3G • Frequency: 1.6 – 2.0 • From 2000 to 2010 GHz • Called smartphones • Bandwidth: 100MHz • Video calls • Characteristic: Digital • Fast communication broadband, increased • Mobil TV speed • 3G phones rather • Technology: CDMA, expensive UMTS, EDGE • Capacity (data rate): 144kbps – 2Mbps • Why better than 2G? 4G • Frequency: 2 – 8 GHz • From 2010 to today (2020?) • Bandwidth: 100MHz • MAGIC • Characteristic: High – Mobile multimedia speed, all IP – Anytime, anywhere • Technology: LTE, WiFi – Global mobile support • Capacity (data rate): – Integrated wireless 100Mbps – 1Gbps solutions – Customized personal service • Why better than 3G? • Good QoS + high security • Bigger battery usage 5G • https://5g.co.uk/guides • From X (2020?) to Y /5g-frequencies-in-the- -
Ixia-TVS-IN-The Evolution to 5G Cellular
THE Evolution TO 5G Cellular Cellular Connections Keep Growing 1.1B more people and things will be connected thanks to 5G1 1G - 4G 5G Total Connections 4.7 25% 5.8 Billion + More = Billion Cellular Complexity Keeps Evolving PATH TO 5G 100% Analog Voice 1G Technology: Analog, FDMA, NMT, 1981 and AMPS circuit switching Analog Voice with Digital SMS Technology: GSM, CDMA, TDMA, 2G circuit switching for voice, and packet 1991 switching for data Digital voice, separate digital IP 3G web data, email, SMS 2003 Technology: W-CDMA and UMTS packet switching with air interface Integrated digital voice and data with 4G IP-based multi-media 2011 Technology: Packet switching IP More digital voice and data capacity 5G and special features 2020 for IoT, AR/VR, Connected Cars and Smart Cities Technology: Packet switching EVOLUTION OF KEY INDICATORS HYPER MOBILITY HYPER LOW LATENCY TIME SPENT ON MOBILE2 USER EXPERIENCE3, 4 Extremely High 5G 4 to 5 hours 4G 48 minutes 300– 1000 ms 3G 18 minutes 2G 6 minutes 100– 500 ms 1G Insignificant < 100 ms 1 ms 1G 2G 3G 4G 5G HYPERSCALE SUBSCRIBERS2, 5 By Expected 2020 5G to add 1.1B 4G Adds 750 M Total Subscribers 3G Adds 1.398 B 5.8 billion 2G Adds 1.179 B 1G 21 M 1981 5G with hyper low latency, hyperscale, and hyper mobility is ready to support IoT, connected cars, remote healthcare, smart cities, logistics, and AR/VR. Cellular Testing Makes all the Dierence 2 5G Speeds/Feeds Ixia Multi-Gig LTE with XAir2 1 3 5G-NR Wi-Fi (New Radio) Coexistence Next-Gen XAir Ixia LTE Unlicensed 5 4 Testing 5G Massive NFV Deployments IoT IxLoad Wireless VE Ixia IoT 5 keys to test the next-generation of 5G products, networks, applications, and services. -
Wireless Networks: Vision, Research Activities, Challenges and Potential Solutions
S S symmetry Review Sixth Generation (6G) Wireless Networks: Vision, Research Activities, Challenges and Potential Solutions Mohammed H. Alsharif 1 , Anabi Hilary Kelechi 2, Mahmoud A. Albreem 3, Shehzad Ashraf Chaudhry 4 , M. Sultan Zia 5 and Sunghwan Kim 6,* 1 Department of Electrical Engineering, College of Electronics and Information Engineering, Sejong University, 209 Neungdong-ro, Gwangjin-gu, Seoul 05006, Korea; [email protected] 2 Department of Electrical Engineering and Information Engineering, College of Engineering, Covenant University, Canaanland, Ota P.M.B 1023, Ogun State, Nigeria; [email protected] 3 Department of Electronics and Communications Engineering, A’Sharqiyah University, Ibra 400, Oman; [email protected] 4 Department of Computer Engineering, Faculty of Engineering and Architecture, Istanbul Gelisim University, Avcılar, 34310 Istanbul,˙ Turkey; [email protected] 5 Department of Computer Science and IT, University of Lahore, Gujrat Campus 50180, Pakistan; [email protected] 6 School of Electrical Engineering, University of Ulsan, Ulsan 44610, Korea * Correspondence: [email protected]; Tel.: +82-52-259-1401 Received: 28 March 2020; Accepted: 21 April 2020; Published: 24 April 2020 Abstract: The standardization activities of the fifth generation communications are clearly over and deployment has commenced globally. To sustain the competitive edge of wireless networks, industrial and academia synergy have begun to conceptualize the next generation of wireless communication systems (namely, sixth generation, (6G)) aimed at laying the foundation for the stratification of the communication needs of the 2030s. In support of this vision, this study highlights the most promising lines of research from the recent literature in common directions for the 6G project.