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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. -
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- -
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. -
Etsi Ts 123 040 V12.2.0 (2014-10)
ETSI TS 123 040 V12.2.0 (2014-10) TECHNICAL SPECIFICATION Digital cellular telecommunications system (Phase 2+); Universal Mobile Telecommunications System (UMTS); Technical realization of the Short Message Service (SMS) (3GPP TS 23.040 version 12.2.0 Release 12) R GLOBAL SYSTEM FOR MOBILE COMMUNICATIONS 3GPP TS 23.040 version 12.2.0 Release 12 1 ETSI TS 123 040 V12.2.0 (2014-10) Reference RTS/TSGC-0123040vc20 Keywords GSM,UMTS ETSI 650 Route des Lucioles F-06921 Sophia Antipolis Cedex - FRANCE Tel.: +33 4 92 94 42 00 Fax: +33 4 93 65 47 16 Siret N° 348 623 562 00017 - NAF 742 C Association à but non lucratif enregistrée à la Sous-Préfecture de Grasse (06) N° 7803/88 Important notice The present document can be downloaded from: http://www.etsi.org The present document may be made available in electronic versions and/or in print. The content of any electronic and/or print versions of the present document shall not be modified without the prior written authorization of ETSI. In case of any existing or perceived difference in contents between such versions and/or in print, the only prevailing document is the print of the Portable Document Format (PDF) version kept on a specific network drive within ETSI Secretariat. Users of the present document should be aware that the document may be subject to revision or change of status. Information on the current status of this and other ETSI documents is available at http://portal.etsi.org/tb/status/status.asp If you find errors in the present document, please send your comment to one of the following services: http://portal.etsi.org/chaircor/ETSI_support.asp Copyright Notification No part may be reproduced or utilized in any form or by any means, electronic or mechanical, including photocopying and microfilm except as authorized by written permission of ETSI. -
The Spectrum Policy Dictionary
The GSMA spectrum primer series The spectrum policy dictionary 1 2 The spectrum policy dictionary These handbooks provide a general introduction to mobile spectrum, how it is managed and the challenge posed by rapidly growing data usage. They have been designed for readers who don’t have a technical background in the subject. While this is only a very brief introduction to the subject, these handbooks should hopefully provide a useful overview. 4 The titles in this series are: Introducing radio spectrum Introducing spectrum management Managing spectrum for growing data The spectrum policy dictionary 5 1G The first generation of ‘cellular’ mobile phone systems used in the late 1970s until the early 1990s. These analogue-based systems were replaced by 2G digital mobile systems - most notably GSM. Examples include AMPS (Advanced Mobile Phone System), NMTS (Nordic Telecommunication System) and TACS (Total Access Communications). 2G The second generation of ‘cellular’ mobile phone systems which appeared in the 1990s were the first to employ digital coding. The vast majority of 2G mobile networks around the world use GSM technology. However, there are other 2G systems including D-AMPs, PDC, iDEN and most notably cdmaOne which continues to be used by some operators around the world. 2.5G see GPRS 2.75G see EDGE 3G The third generation of ‘cellular’ mobile phone systems were the first to be designed from the outset to support high speed data services as well as voice. The most dominant system used is WCDMA which was deployed by the operators which previously used GSM. However, other systems are used including CDMA2000 (largely by operators that previously used cdmaOne) and the Chinese system TD-SCDMA. -
Rwanda's Experience
ITU Workshop on "Network Performance, Quality of Service and Quality of Experience", (Kigali, Rwanda, 4-5 March 2019) MNO Network Performance, QoS , QOE Enforcement Rwanda’s experience Brice MURARA ICT Standards and QoS, RURA Objective . To share experience on how RURA enforces MNO QoS compliance . Understand the different elements required for an effective DT program . Understand how all aspects of DT can be used to obtain a view of UX/NP . Understand the KPIs that can be obtained . Discuss various options and Best Practices Legal and regulatory aspects . The QoS License parameters/thresholds were first introduced during telecom operators licensing process (Before 2010) . Due to fast technological trends and enhanced user requirements, these QoS parameters/ thresholds were becoming obsolete . RURA had to amend the QoS License obligations as well as procure QoS Monitoring platform in order to legally enforce QoS Obligations Amendment Process Best practice Requirement Analysis Expert Consultation Benchmarking Drafting Approval/Adoption Drive Test Drive Test Process Cluster Preparation Data Preparation Data Analysis Trouble Shooting and Collection . Define Cluster . Services to test . Levels of Reporting . Root Cause Analysis . Define Drive Route . KPI definitions . Failure Type . Corrective Action . Equipment Breakdown . Further data . Exclusions . Post Processing logging (maybe) . Call Patterns functionality . OSS Alarms . KPI Gap Analysis . Network Stats Why Drive the network? Operators Regulators 1. New Site Integration 1. Performance -
2G 3G 4G Registration Process Application Note
2G 3G 4G Registration Process Application Note 80000NT11696A Rev. 2 – 2021-01-26 Telit Technical Documentation 2G 3G 4G Registration Process Application Note APPLICABILITY TABLE PRODUCTS PLATFORM VERSION ID 1 GE866-QUAD 16 GL865-SERIES GE910 SERIES 13 -16 GL865-QUAD V4 34 GE310-GNSS 35 UL865 SERIES UE910 SERIES 12 UE866 SERIES HE910 SERIES LE910 SERIES 20 - 25 ME910 SERIES ML865 SERIES 30 - 37 ME310 SERIES NE310H2 26 NL865H2 1 Platform Version ID is a reference used in the document. It identifies the different SW versions, e.g. 13 for SW version 13.xx.xxx, 16 for SW version 16.xx.xxx, etc. 80000NT11696A Rev. 2 Page 2 of 33 2021-01-26 Not Subject to NDA 2G 3G 4G Registration Process Application Note CONTENTS APPLICABILITY TABLE 2 CONTENTS 3 1. INTRODUCTION 5 Scope 5 Audience 5 Contact Information, Support 5 Symbol Convention 6 Related Documents 6 2. MAIN REGISTRATION FLOW 7 3. 2G & 3G NETWORK 8 2G & 3G PDP context 9 4. 4G NETWORK 10 4G PDP context 13 5. RAT/PLMN SELECTION 14 Automatic selection 14 5.1.1. Roaming registration on VPLM 15 5.1.2. How to delete EFLOCI file in the USIM 15 5.1.3. How to delete EFLOCI file with simWISE 17 5.1.4. Forbidden PLMN in USIM 17 5.1.5. Forbidden PLMN with simWISE 18 GERAN Frequency scan and cell selection 19 UTRAN Frequency scan and cell selection 20 EUTRAN Frequency scan and cell selection 21 EUTRAN Cat.M and NB-IoT selection (4G modules Platform ID 30-37) 22 6. -
Timing and Synchronisation Challenges in Wireless Infrastructure
Timing & Synchronization in Wireless Infrastructure Harpinder Singh Matharu Senior Product Manager, Comms Division, Xilinx 11/4/2010 © Copyright 2010 Xilinx Topics . Wireless Infrastructure Market Trends . Timing & Synchronization in Base stations . Challenges & Opportunities © Copyright 2010 Xilinx Page 2 Mobile Network witnessing rapid growth Trend • Heterogeneous Network Mobile Traditional Network Investment – 80% Network– • Backhauling & Synchronization 20% a challenge © Copyright 2010 Xilinx Page 3 Revenue & CAPEX/ OPEX disparity Lower Cost CAPEX/OPEX per bit New Business Models Revenue Rapid increase in Data Traffic Expenditure / Revenue Expenditure 2G (GSM/CDMA/UMTS) +3G/4G (HSPA, WiMAX, LTE, LTE Advanced) Time • Maximizing spectrum utilization • Ease of network deployment & management • Leveraging value/ intelligence in the network © Copyright 2010 Xilinx Page 4 Base station Architectural shift Mast Mast Mounted Mounted RRH RRH CPRI/ OBSAI Traditional CPRI/ OBSAI CPRI/ OBSAI Centralized BTS Remote Radio Heads Shift from co-located to distributed BTS Architecture © Copyright 2010 Xilinx Remote Radio Heads enable Power Savings Antenna Array Antenna Array X X X X X X X X X X X X X X X X X Remote Radio Head X X X X X X X X X X After feeder loss No Feeder loss Radio Cards Channel Cards Power received – 30 W PA – 30W Channel Cards Coaxial Feeder Cable Fiber • Short length • Long haul • ~3dB Loss • No Loss Power Available – 60 W Distributed Base Station Traditional Base Station Significant CAPEX/ OPEX Impact Remote Radio Heads Cabinet (RRH) Fiber replaces Coaxial Cable for significant CAPEX/ OPEX Savings © Copyright 2010 Xilinx Standardization of Radio Interface BASEBAND REMOTE RADIO HEAD ANALOG CARD N LAYER 2 & 3 + NIC LAYER 1 - PHY E T W O R K B A C DIGITAL FRONT END K H A CONTROL CARD U L FIBER CPRI/OBSAI INTERFACE © Copyright 2010 Xilinx Page 7 Radio Interface Standards – Drivers & Benefits . -
2G GSM GPRS Wireless Lab Simulation Presentation
2G GSM GPRS Wireless Lab Simulation 818 West Diamond Avenue - Third Floor, Gaithersburg, MD 20878 Phone: (301) 670-4784 Fax: (301) 670-9187 Email: [email protected] Website: http://www.gl.com 1 COMMUNICATIONS NETWORKS LAB (CNL) ❑ Each LAB test system emulates all the 2G network elements and traffic types within the Wireless infrastructure. ❑ Provides a base network environment that enables the researchers to test applications, devices, and services prior to deployment on real-time networks 2 2G 3G 4G COMMUNICATIONS NETWORKS 3 2G LAB DIAGRAM 4 MAPS™ (Message Automation & Protocol Simulation) ❑ Multi-protocol, Multi-technology Platform. ❑ Simulate any node, and any interface in network with MAPS™ (except Air interface). ❑ Supports Emulation, Conformance, and Load testing of a variety of protocols over IP, TDM, and Wireless networks. 5 2G CALL SCENARIOS Various GSM GPRS network procedures are supported Mobile to simulated UE SMS (CS) simulating the 2G elements and multi-interfaces: Mobile-to-Mobile Voice Call (CS) Mobile Web Browsing (PS) Mobile Originated Call (MOC) Simulated UE web browsing (PS) Mobile Terminated Call (MTC) Attach Procedures Simulated UE to mobile voice call (CS) Identity Procedures Mobile to Simulated UE voice call (CS) PDP Context Creation, Simulated UE to simulated UE voice call (CS) Activation, Update Deactivation Mobile-to-Mobile SMS Call (CS) and Deletion Procedures Mobile Originated SMS Web Browsing GPRS Session Mobile Terminated SMS Detach Procedures Simulated UE to mobile SMS (CS) 6 Complete 2G and -
Mobile Radio Evolution
Advances in Networks 2015; 3(3-1): 1-6 Published online September 16, 2015 (http://www.sciencepublishinggroup.com/j/net) doi: 10.11648/j.net.s.2015030301.11 ISSN: 2326-9766 (Print); ISSN: 2326-9782 (Online) Mobile Radio Evolution M. Prasad, R. Manoharan Dept. of Computer Science and Engineering, Pondicherry Engineering College, Puducherry, India Email address: [email protected] (M. Prasad), [email protected] (D. R. Manoharan) To cite this article: M. Prasad, Dr. R. Manoharan. Mobile Radio Evolution. Advances in Networks . Special Issue: Secure Networks and Communications. Vol. 3, No. 3-1, 2015, pp. 1-6. doi: 10.11648/j.net.s.2015030301.11 Abstract: All over the world, wireless communication services have enjoyed dramatic growth over the past 25 years. Mobile communication is the booming field in the telecommunications industry. The cellular network is the most successful mobile communication system, used to transmit both voice and data. This paper provides a depth view about the technologies in mobile communication from the evolution of the mobile system. First from the evolution, second generation (2G), third generation (3G), fourth generation (4G) to fifth generation (5G) in terms of performance requirements and characteristic. Keywords: 2G, 3G, 4G, 5G, AMPS, GPRS, UMTS, HSDPA mobile radio became standard all over the country. Federal 1. Introduction Communications Commission (FCC) allocates 40 MHz of The Detroit Police Department radio bureau began spectrum in range between 30 and 500 MHz for private experimentation in 1921 with a band near 2 MHz for vehicular individuals, companies, and public agencies for mobile mobile service. On April 7, 1928 the Department started services.