TechKnowledge Technology Stories (Series 1)

TechKnowledge is a series of Technology Stories looking at how technology has evolved over the years and how it will continue to evolve in the future. The series is targeted at youth looking to understand how technology has been evolving and how it will evolve further. It is our intention to make a ten part series but as of yet only four parts are complete. 

Part 1: 'Smaller, Faster, Cheaper and More…' looks at how technology has evolved by things getting smaller, faster, cheaper and much more. It investigates Moore’s law and how it has helped create a future technology roadmap.

Part 2: 'Connecting Everything Everywhere…' discusses different connectivity options available to connect various devices, gadgets and appliances to the internet. It highlights the fact that this is just the beginning, and everything that can be connected will eventually get connected.

Part 3: 'Satellites - Our Friends In The Sky…' discusses the fact that they are our friends and helpers in the sky. In discusses how satellites are useful as a connectivity option, how it helps us map and navigate, how we can use location based services, how we can watch broadcast video or listen to broadcast radio, and last but not least, how satellites are helping us observe and monitor the earth. 

Part 4: 'Devices and Gadgets - Our Companions and Life Savers…' looks at the fact that we use a variety of electronic devices/gadgets in our everyday lives to make it more convenient, efficient, and even keep us connected. From smartphones and laptops to smart home appliances and wearable tech, these devices simplify tasks, enhance productivity, and provide instant access to information and communication. They help us manage work, stay in touch with loved ones, and access entertainment on the go. Gadgets like fitness trackers promote healthier lifestyles, while others automate household chores, saving time and energy. Overall, the connected devices & gadgets have become essential tools in modern life, blending seamlessly into our routines and transforming how we live and interact.

The playlist of the videos is embedded below:

The slides can be downloaded from here.

Related Posts: 

• 3G4G: Free 2G, 3G, 4G & 5G Training Videos
• The 3G4G Blog: Explaining Telecoms
• The 3G4G Blog: Short Tutorial on Mission Critical Services in LTE and 5G
• The 3G4G Blog: Private Networks Introductory Series
• The 3G4G Blog: A Quick Introduction to 3GPP
• The 3G4G Blog: 5G and Cyber Security
• The 3G4G Blog: Tech Quotes we should know about - #TechQuotes
• The 3G4G Blog: Tech Laws we should all know about - #TechLaws 

3GPP Release 18 Description and Summary of Work Items

The first official release of 3GPP TR 21.918: "Release 18 Description; Summary of Rel-18 Work Items" has been published. It's the first official version of 5G-Advanced. Quoting from the report: 

Release 18 specifies further improvements of the 5G-Avanced system. 

These improvements consist both in enhancements of concepts/Features introduced in the previous Releases and in the introduction of new topics.

Some of the key improvements are:

• a further integration of the Satellite (NTN) access (introduced in Rel-17) in the 5G System (5GS), 
• a more efficient support of Internet of Things (IoT), Machine-Type Communication (MTC), including by satellite coverage
• and also several aspects of proximity communication and location (Sidelink, Proximity, Location and Positioning, better support of the industrial needs (Verticals, Industries, Factories, Northbound API), Multicast and Broadcast Services (MBS), Network Slicing or Uncrewed Aerial Vehicles (UAV).

As for the new topics, some of the key aspects are:

• Energy Efficiency (EE)
• Artificial Intelligence (AI)/Machine Learning (ML)
• eXtended, Augmented and Virtual Reality (XR, AR, VR), immersive communications

The following list is from the v1.0.0 table of contents to make it easier to find the list of topics. If it interests you, download the latest version technical report from the directory here.

5 Satellite / Non-Terrestrial Network (NTN)

5.1 General aspects

5.1.1 User plane: “5G system with satellite backhaul”

5.1.2 Discontinuous coverage: “Satellite access Phase 2”

5.1.3 Radio: "NR NTN enhancements"

5.1.4 Charging and Management aspects of Satelite

5.2 Specific aspects

5.2.1 IoT (Internet of Things) NTN enhancements

5.2.2 Guidelines for Extra-territorial 5G Systems

5.2.3 5G system with satellite access to Support Control and/or Video Surveillance

5.2.4 Introduction of the satellite L-/S-band for NR

5.2.5 Other band-related aspects of satellite

6 Internet of Things (IoT), Machine-Type Communication (MTC)

6.1 Personal IoT and Residential networks

6.2 Enhanced support of Reduced Capability (RedCap) NR devices

6.3 NR RedCap UE with long eDRX for RRC_INACTIVE State

6.4 Application layer support for Personal IoT Network

6.5 5G Timing Resiliency System

6.6 Mobile Terminated-Small Data Transmission (MT-SDT) for NR

6.7 Adding new NR FDD bands for RedCap in Rel-18

6.8 Signal level Enhanced Network Selection

6.9 IoT NTN enhancements

7 Energy Efficiency (EE)

7.1 Enhancements of EE for 5G Phase 2

7.2 Network energy savings for NR

7.3 Smart Energy and Infrastructure

8 Uncrewed Aerial Vehicles (UAV), UAS, UAM

8.1 Architecture for UAV and UAM Phase 2

8.2 Architecture for UAS Applications, Phase 2

8.3 NR support for UAV

8.4 Enhanced LTE Support for UAV

9 Sidelink, Proximity, Location and Positioning

9.1 5GC LoCation Services - Phase 3

9.2 Expanded and improved NR positioning

9.3 NR sidelink evolution

9.4 NR sidelink relay enhancements

9.5 Proximity-based Services in 5GS Phase 2

9.6 Ranging-based Service and sidelink positioning

9.7 Mobile Terminated-Small Data Transmission (MT-SDT) for NR

9.8 5G-enabled fused location service capability exposure

10 Verticals, Industries, Factories, Northbound API

10.1 Low Power High Accuracy Positioning for industrial IoT scenarios

10.2 Application enablement aspects for subscriber-aware northbound API access

10.3 Smart Energy and Infrastructure

10.4 Generic group management, exposure and communication enhancements

10.5 Service Enabler Architecture Layer for Verticals Phase 3

10.6 SEAL data delivery enabler for vertical applications

10.7 Rel-18 Enhancements of 3GPP Northbound and Application Layer interfaces and APIs

10.8 Charging Aspects of B2B

10.9 NRF API enhancements to avoid signalling and storing of redundant data

10.10 GBA_U Based APIs

10.11 Other aspects

11 Artificial Intelligence (AI)/Machine Learning (ML)

11.1 AI/ML model transfer in 5GS

11.2 AI/ML for NG-RAN

11.3 AI/ML management & charging

11.4 NEF Charging enhancement to support AI/ML in 5GS

12 Multicast and Broadcast Services (MBS)

12.1 5G MBS Phase 2

12.2 Enhancements of NR MBS

12.3 UE pre-configuration for 5MBS

12.4 Other MBS aspects

13 Network Slicing

13.1 Network Slicing Phase 3

13.2 Enhancement of NSAC for maximum number of UEs with at least one PDU session/PDN connection

13.3 Enhancement of Network Slicing UICC application for network slice-specific authentication and authorization

13.4 Charging Aspects of Network Slicing Phase 2

13.5 Charging Aspects for NSSAA

13.6 Charging enhancement for Network Slice based wholesale in roaming

13.7 Network Slice Capability Exposure for Application Layer Enablement

13.8 Other slice aspects

14 eXtended, Augmented and Virtual Reality (XR, AR, VR), immersive

14.1 XR (eXtended Reality) enhancements for NR

14.2 Media Capabilities for Augmented Reality

14.3 Real-time Transport Protocol Configurations

14.4 Immersive Audio for Split Rendering Scenarios  (ISAR)

14.5 Immersive Real-time Communication for WebRTC

14.6 IMS-based AR Conversational Services

14.7 Split Rendering Media Service Enabler

14.8 Extended Reality and Media service (XRM)

14.9 Other XR/AR/VR items

15 Mission Critical and emergencies

15.1 Enhanced Mission Critical Push-to-talk architecture phase 4

15.2 Gateway UE function for Mission Critical Communication

15.3 Mission Critical Services over 5MBS

15.4 Mission Critical Services over 5GProSe

15.5 Mission Critical ad hoc group Communications

15.6 Other Mission Critical aspects

16 Transportations (Railways, V2X, aerial)

16.1 MBS support for V2X services

16.2 Air-to-ground network for NR

16.4 Interconnection and Migration Aspects for Railways

16.5 Application layer support for V2X services; Phase 3

16.6 Enhanced NR support for high speed train scenario in frequency range 2 (FR2)

17 User Plane traffic and services

17.1 Enhanced Multiparty RTT

17.2 5G-Advanced media profiles for messaging services

17.3 Charging Aspects of IMS Data Channel

17.4 Evolution of IMS Multimedia Telephony Service

17.5 Access Traffic Steering, Switch and Splitting support in the 5G system architecture; Phase 3

17.6 UPF enhancement for Exposure and SBA

17.7 Tactile and multi-modality communication services

17.8 UE Testing Phase 2

17.9 5G Media Streaming Protocols Phase 2

17.10 EVS Codec Extension for Immersive Voice and Audio Services

17.11 Other User Plane traffic and services items

18 Edge computing

18.1 Edge Computing Phase 2

18.2 Architecture for enabling Edge Applications Phase 2

18.3 Edge Application Standards in 3GPP and alignment with External Organizations

19 Non-Public Networks

19.1 Non-Public Networks Phase 2

19.2 5G Networks Providing Access to Localized Services

19.3 Non-Public Networks Phase 2

20 AM and UE Policy

20.1 5G AM Policy

20.2 Enhancement of 5G UE Policy

20.3 Dynamically Changing AM Policies in the 5GC Phase 2

20.4 Spending Limits for AM and UE Policies in the 5GC

20.5 Rel-18 Enhancements of UE Policy

21 Service-based items

21.1 Enhancements on Service-based support for SMS in 5GC

21.2 Service based management architecture

21.3 Automated certificate management in SBA

21.4 Security Aspects of the 5G Service Based Architecture Phase 2

21.5 Service Based Interface Protocol Improvements Release 18

22 Security-centric aspects

22.1 IETF DTLS protocol profile for AKMA and GBA

22.2 IETF OSCORE protocol profiles for GBA and AKMA

22.3 Home network triggered primary authentication

22.4 AKMA phase 2

22.5 5G Security Assurance Specification (SCAS) for the Policy Control Function (PCF)

22.6 Security aspects on User Consent for 3GPP services Phase 2

22.7 SCAS for split-gNB product classes

22.8 Security Assurance Specification for AKMA Anchor Function Function (AAnF)

22.9 Other security-centric items

23 NR-only items

23.1 Not band-centric

23.1.1 NR network-controlled repeaters

23.1.2 Enhancement of MIMO OTA requirement for NR UEs

23.1.3 NR MIMO evolution for downlink and uplink

23.1.4 Further NR mobility enhancements

23.1.5 In-Device Co-existence (IDC) enhancements for NR and MR-DC

23.1.6 Even Further RRM enhancement for NR and MR-DC

23.1.7 Dual Transmission Reception (TxRx) Multi-SIM for NR

23.1.8 NR support for dedicated spectrum less than 5MHz for FR1

23.1.9 Enhancement of NR Dynamic Spectrum Sharing (DSS)

23.1.10 Multi-carrier enhancements for NR

23.1.11 NR RF requirements enhancement for frequency range 2 (FR2), Phase 3

23.1.12 Requirement for NR frequency range 2 (FR2) multi-Rx chain DL reception

23.1.13 Support of intra-band non-collocated EN-DC/NR-CA deployment

23.1.14 Further enhancements on NR and MR-DC measurement gaps and measurements without gaps

23.1.15 Further RF requirements enhancement for NR and EN-DC in frequency range 1 (FR1)

23.1.16 Other non-band related items

23.2 Band-centric

23.2.1 Enhancements of NR shared spectrum bands

23.2.2 Addition of FDD NR bands using the uplink from n28 and the downlink of n75 and n76

23.2.3 Complete the specification support for BandWidth Part operation without restriction in NR

23.2.4 Other NR band related topics

24 LTE-only items

24.1 High Power UE (Power Class 2) for LTE FDD Band 14

24.2 Other LTE-only items

25 NR and LTE items

25.1 4Rx handheld UE for low NR bands (<1GHz) and/or 3Tx for NR inter-band UL Carrier Aggregation (CA) and EN-DC

25.2 Enhancement of UE TRP and TRS requirements and test methodologies for FR1 (NR SA and EN-DC)

25.3 Other items

26 Network automation

26.1 Enablers for Network Automation for 5G phase 3

26.2 Enhancement of Network Automation Enablers

27 Other aspects

27.1 Support for Wireless and Wireline Convergence Phase 2

27.2 Secondary DN Authentication and authorization in EPC IWK cases

27.3 Mobile IAB (Integrated Access and Backhaul) for NR

27.4 Further NR coverage enhancements

27.5 NR demodulation performance evolution

27.6 NR channel raster enhancement

27.7 BS/UE EMC enhancements for NR and LTE

27.8 Enhancement on NR QoE management and optimizations for diverse services

27.9 Additional NRM features phase 2

27.10 Further enhancement of data collection for SON (Self-Organising Networks)/MDT (Minimization of Drive Tests) in NR and EN-DC

27.11 Self-Configuration of RAN Network Entities

27.12 Enhancement of Shared Data ID and Handling

27.13 Message Service within the 5G system Phase 2

27.14 Security Assurance Specification (SCAS) Phase 2

27.15 Vehicle-Mounted Relays

27.16 SECAM and SCAS for 3GPP virtualized network products

27.17 SECAM and SCAS for 3GPP virtualized network products

27.18 MPS for Supplementary Services

27.19 Rel-18 enhancements of session management policy control

27.20 Seamless UE context recovery

27.21 Extensions to the TSC Framework to support DetNet

27.22 Multiple location report for MT-LR Immediate Location Request for regulatory services

27.23 Enhancement of Application Detection Event Exposure

27.24 General Support of IPv6 Prefix Delegation in 5GS

27.25 5G Timing Resiliency System

27.26 MPS when access to EPC/5GC is WLAN

27.27 Data Integrity in 5GS

27.28 Security Enhancement on RRCResumeRequest Message Protection

28 Administration, Operation, Maintenance and Charging-centric Features

28.1 Introduction

28.2 Intent driven Management Service for Mobile Network phase 2

28.3 Management of cloud-native Virtualized Network Functions

28.4 Management of Trace/MDT phase 2

28.5 Security Assurance Specification for Management Function (MnF)

28.6 5G performance measurements and KPIs phase 3

28.7 Access control for management service

28.8 Management Aspects related to NWDAF

28.9 Management Aspect of 5GLAN

28.10 Charging Aspects of TSN

28.11 CHF Distributed Availability

28.12 Management Data Analytics phase 2

28.12 5G System Enabler for Service Function Chaining

28.13 Other Management-centric items

29 Other Rel-18 Topics

If you find them useful then please get the latest document from here.

Related Posts: 

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• The 3G4G Blog: 3GPP Release-18 Work Moves Into Focus as Release-17 Reaches Maturity
• The 3G4G Blog: An Early View of 3GPP Release-18 5G-Advanced Topics 

New 5G NTN Spectrum Bands in FR1 and FR2

Release-17 includes two new FR1 bands for NTN; n255 (a.k.a. NTN 1.6GHz) and n256 (a.k.a. NTN 2GHz). The picture is from a slide in Rohde & Schwarz presentation available here. Quoting from an article by Reiner Stuhlfauth, Technology Manager Wireless, Rohde & Schwarz:

Currently, several frequency ranges are being discussed within 3GPP for NTN. Some are in the FR1 legacy spectrum, and some beyond 10 GHz and FR2. The current FR1 bands discussed for NTN are:

• The S-band frequencies from 1980 to 2010 MHz in uplink (UL) direction and from 2170 to 2200 MHz in downlink (DL) direction (Band n256).
• The L-band frequencies from 1525 to 1559 MHz DL together with 1626.5 to 1660.5 MHz for the UL (Band n255).1

These frequency ranges have lower path attenuation, and they’re already used in legacy communications. Thus, components are available now, but the bands are very crowded, and the usable bandwidth is restricted. Current maximum bandwidth is 20 MHz with up to 40-MHz overall bandwidth envisaged in the future [TR 38.811].

As far as long-term NTN spectrum use is concerned, 3GPP is discussing NR-NTN above 10 GHz. The Ka-band is the highest-priority band with uplinks between 17.7 and 20.2 GHz and downlinks between 27.5 and 30 GHz, based on ITU information regarding satellite communications frequency use.2 Among current FR2 challenges, one is that some of the discussed bands fall into the spectrum gap between FR1 and FR2 and that NTN frequencies will use FDD duplex mode due to the long roundtrip time.

6G Unified networks: Multi-Layer Multi-Dimension Multi-Band (ML-MD-MB) Topology via @RohdeSchwarz highlights the future 6G Satellite and Terrestrial Network Convergence Vision#3G4G5G #5G #B5G #6G #NTN pic.twitter.com/DHVIP9kw8J

— Zahid Ghadialy (@zahidtg) May 20, 2023

Worth highlighting again that the bands above, including n510, n511 and n512 are all FDD bands due to the long round trip times.

The latest issue of 3GPP highlight magazine has an article on NTN as well. Quoting from the article:

The NTN standard completed as part of 3GPP Release 17 defines key enhancements to support satellite networks for two types of radio protocols/interfaces:

• 5G NR radio interface family also known as NR-NTN
• 4G NB-IoT & eMTC radio interfaces family known as IoT-NTN

These critical enhancements including adaptation for satellite latency and doppler effects have been carefully defined to support a wide range of satellite network deployment scenarios and orbits (i.e., LEO, MEO and GEO), terminal types (handheld, IoT, vehicle mounted), frequency bands, beam types (Earth fixed/Earth moving) and sizes. The NTN standard also addresses mobility procedures across both terrestrial and non-terrestrial network components. Release 17 further includes Radio Frequency and Radio Resource Management specifications for terminals and satellite access nodes operating in two FR1 frequency ranges allocated to Mobile Satellite Services (i.e., n255 and n256).

You can read it here.

Related Posts: 

• The 3G4G Blog: 3GPP 5G Non Terrestrial Networks (NTN) Standardization Update
• Connectivity Technology Blog: 5G NR-NTN Demos make a Debut at MWC 2023
• Connectivity Technology Blog: Direct-to-Mobile Communications Using LEO Satellites gets a Step Closer
• Connectivity Technology Blog: TIP has launched 'Non-Terrestrial Connectivity Solutions' Group
• The 3G4G Blog: An Introduction to Non-Terrestrial Networks (NTN)
• Free 6G Training: Non-Terrestrial Networks (NTN) & Satellites - Taking 6G to the Stars
• The 3G4G Blog: How Many People are Still Unconnected in 2023 and Why? 

The Role of Connectivity and Devices in Healthcare

Over the last few months I have discussed the role of 5G in different industries as part of various projects. Some of these discussions are part of my blog posts while others aren’t.

5G is often promoted as a panacea for all industries including healthcare. This presentation and video looks not only at 5G but other connectivity options that can be used to provide solutions for healthcare. In addition, this presentation looks at different components of the mobile network and explore the role of devices in healthcare.

Presentation and video below

Misc: Mobile Technology and Healthcare from 3G4G

You can download the slides here.

Related Posts: 

• The 3G4G Blog: 5G Remote Surgery and Telehealth Solutions
• The 3G4G Blog: 5G & AI Powered Smart Hospitals
• The 3G4G Blog: Banana and Egg gets 5G Telesurgery
• The 3G4G Blog: Real-life 5G Use Cases for Verticals from China
• The 3G4G Blog: 5G Private and Non-Public Network (NPN)
• The 3G4G Blog: Examples of 5G Use Cases & Applications 

3GPP 5G Non Terrestrial Networks (NTN) Standardization Update

We have looked at 5G Non Terrestrial Networks (NTN) in many different posts in our blogs. If you are new to this topic then this tutorial with a video is a good place to start or just follow this IEEE Comsoc article or this short update from R&S here.

Nicolas Chuberre is the rapporteur of the NR_NTN_solutions work item (TSG RAN) and of the FS-5GET study item (WG SA1) from Thales Alenia Space. In the October 2021 issue of 3GPP Highlights newsletter, he along with Munira Jaffar, Lead delegate representing EchoStar and Hughes Standards in ESOA (EMEA Satellite Operators Association) Standards Working Group, wrote a summary of 'Status of NTN & Satellite in 3GPP Releases 17 & 18'.

Quoting from the article:

The approval of normative activities on Non-Terrestrial Networks (NTN) in Rel-17 has generated growing interest in the topic. The Rel-17 NTN work items are supported by a wide range of vendors (terminal, chipset, network), as well as service providers from both the mobile and space industries and vertical user groups including ESOA.

The Rel-17 NTN and satellite work items in Technical Specification Group (TSG) RAN and TSG SA have been progressing towards the goal of satellite inclusion in 3GPP technical specifications. The focus is on transparent payload architecture with FDD systems where all UEs are assumed to have GNSS capabilities. The normative phase includes adaptation to the physical & access layer aspects, radio access network and system architecture, radio resource management, and RF requirements for targeted satellite networks operating at LEO, MEO or GEO orbits.

With an expected completion date of March 2022, the 3GPP Rel-17 specifications will support New Radio (NR) based satellite access deployed in FR1 bands serving handheld devices for global service continuity. Equally exciting, the 3GPP Rel-17 specification will support NB-IoT and eMTC based satellite access to address massive Internet of Things (IoT) use cases in areas such as agriculture, transport, logistics and many more. 

This joint effort between mobile and satellite industries will enable the full integration of satellite in the 3GPP ecosystem and define a global standard for future satellite networks. This will address the challenges of reachability and service continuity in unserved/underserved areas, enhance reliability through connectivity between various access technologies, and improve network resilience and dependability in responding to natural and manmade disasters.

Upon completion of Rel-17 the long-awaited standard for satellite networks serving handheld devices should be in place by 2022, with commercial product availability expected sometime in 2024. Including satellite as part of the 3GPP specifications will support the promise of worldwide access to 5G services and drive explosive growth in the satellite industry. 

Looking ahead, ESOA members and other NTN stakeholders have started discussions during the 3GPP Rel-18 June workshop and are continuing to work on a further list of enhancements for both NR-NTN and IoT-NTN to be considered in Rel-18. Plans are also underway to further define the enablers for NR based satellite access in bands above 10 GHz to serve fixed and moving platforms (e.g., aircraft, vessels, UAVs) as well as building- mounted devices (e.g., businesses and premises). The goal of these efforts is to further optimize satellite access performance, address new bands with their specific regulatory requirements, and support new capabilities and services as the evolution of 5G continues.

At Mobile Korea 2021, Nicolas Chuberre gave a talk on '3GPP NTN standardization: past, current and future'. The talk nicely summarizes Release-17 progress and the features planned for 3GPP Release-18. His talk is embedded below:

Related Posts:

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'5G RAN Release 18 for Industry Verticals' Webinar Highlights

5G PPP held a virtual workshop on RAN Release 18 for Industry Verticals on June 23rd, 2021. The workshop was organised by 3GPP Market Representation Partners (MRPs): 5G-IA, 5GAA, 5G-ACIA and PSCE.

It features a fireside chat with new 3GPP RAN TSG Chair, Wanshi Chen. In addition to this, the workshop then provides a deep dive on new requirements from verticals, spanning automotive (5GAA), manufacturing (5G-ACIA), critical communications and public safety (TCCA with PSCE), broadcasting and media (5G-MAG), satellite (ESOA), rail (UIC), maritime (IALA) and energy (EUTC).

5G-SOLUTIONS came on board as a 5G PPP project supporting verticals with the 5G-EVE and 5G-VINNI 5G network infrastructures alongside RAN specialists doing standardisation work applicable to multiple verticals.

The video of the webinar is embedded below. In addition, you will find timings of when a particular talk starts and a link to the slides (if shared/available)

Timings:

• 0:04:21 Fireside chat with Wanshi Chen, Qualcomm and 3GPP RAN TSG Chairman
• 0:21:00 NTN Requirements in Rel-18 by Nicolas Chuberre, Thales Alenia Space (slides)
• 0:31:40 Multiple verticals: Andrea Di Giglio, 5G SOLUTIONS (slides)
• 0:36:35 Media and Broadcasting: David Vargas, BBC and 5G-MAG Chair of CD-T WG, Proposals for 3GPP RAN Rel-18 (slides)
• 0:43:19 Maritime: Hyounhee Koo, Synctechno and IALA, Maritime Requirements on 3GPP Rel 18 RAN Studies/Works Priorities (slides)
• 0:46:12 Rail: Ingo Wendler, UIC, NR Narrowband Channel Bandwidth - Railway Use Case (slides)
• 0:50:02 Utilities: Julian Stafford, EUTC 3GPP RAN Rel-18 Requirements (slides)
• 0:58:35 Utilities: Erik Guttman, Samsung 5G Smart Energy Infrastructure (slides)
• 1:05:45 Multiple verticals: Mathew Webb, Huawei and 3GPP RAN 3GPP Release 17 and Release 18 support for industry verticals (slides)
• 1:15:19 Public Safety/Critical Communications: Tero Pesonen, TCCA Chair, joint presentation with PSCE, 3GPP MRP Mini Workshop: 3GPP Rel 18. Requirements from industry verticals (slides)
• 1:20:15 Multiple verticals: Thierry Berisot, Novamint and 3GPP RAN, Industry Verticals and Rel-18 RAN (slides)
• 1:32:56 Manufacturing/IIoT: Michael Bahr, Siemens and 5G-ACIA WG 1Chair and An Xueli, Huawei and 5G-ACIA WG1 Vice Chair 3GPP RAN Rel-18 for Industry Verticals (slides)
• 1:42:20 Automotive: 5GAA Maxime Flament, CTO Input to RAN 18 Rel-18 Workshop (slides)
• 1:53:35 Interactive Session 2
• 2:04:36 Passive IoT for 5G-Advanced, Mathew Webb, Huawei and 3GPP RAN (slides)
• 2:14:59 Template A for Interactive Session 2
• 2:20:40 Critical Communications / Public Safety requirements for Release 18 
• 2:26:00 Closing Remarks

Official page here.

The slide above nicely summarizes 3GPP RAN Verticals up to Release 17.

Related Posts: 

• The 3G4G Blog: 3GPP's 5G-Advanced Workshop Summary
• The 3G4G Blog: 3GPP's 5G-Advanced Technology Evolution from a Network Perspective Whitepaper
• Connectivity Technology Blog: Ericsson Explains Internet of Drones and 3GPP UAV Roadmap
• The 3G4G Blog: 3GPP RAN Plenary Update and Evolution towards 5G-Advanced
• The 3G4G Blog: Introduction to 5G Reduced Capability (RedCap) Devices
• The 3G4G Blog: 3GPP Standards on Edge Computing
• Connectivity Technology Blog: 5G Drone Cell Towers 

Summary of #CWTEC 2019 Conference: 5G, Satellites & Magic MIMO

I was involved in helping organise yet another CW TEC conference this year. The topic was quite interesting and we had some brilliant speakers. Some of the excellent presentations were shared too, links below. Here is a very quick summary of the event, linking also to couple of excellent summaries below.

The topic was a bit unusual and it rhymed very well with the attendees which were from many different backgrounds, from 5G, communications, satellites, electronics, T&M companies, etc. Here is the opening video that will show you the motivations behind this



The day started with a breakfast briefing from Cambridge Consultants that looked at how Massive MIMO is the key to unlocking 5G User Experiences. Presentations available here.

#CWTEC is underway with a thorough breakfast briefing from @CambConsultants. What is 5G NR? What is #MassiveMIMO? How about #beamforming? Delegates get up to speed with the day’s subject area before talks kick off at 10AM. We can’t wait! pic.twitter.com/lGELOWeZk2

— Cambridge Wireless (@cambwireless) September 26, 2019

Session 1 was titled "What has Massive MIMO ever done for us?". The narrative for the session was as follows:

Clearly the desire for more and more capacity in cellular networks has driven the industry to find more and more novel techniques. The work done over the years and boosted by Tom Marzetta’s article titled “Noncooperative Cellular Wireless with Unlimited Numbers of Base Station Antennas” has set high expectations for this emergent technology, so much so the term Magic MIMO has been coined. However, how significant is it into today’s early 5G rollout and what can we expect over the coming years? Are there still further enhancements we should expect to see?

There were 3 talks as follows:

• Sync Architectures for 5G NR by Chris Farrow, Technical Manager, Chronos Technology (slides)
• Three UK’s RAN transformation: Spectrum, RAN architecture strategy, Why? by Dr Erol Hepsaydir, Head of RAN and Devices Strategy and Architecture, Three UK (slides)
• Active antenna systems in RAN: performance, challenges and evolution by Anvar Tukmanov, Wireless Research Manager, BT (slides)

Anvar Tuknanov from ⁦⁦@bt_uk⁩ showing improvement in communications capacity as technology has evolved to 5G M-MIMO. ⁦@cambwireless⁩ #CWTEC ⁦@CGI_UKNEWS⁩ #ExperienceCGI pic.twitter.com/IZXJk2n6u4

— Andrew Palmer (@AndrewPalmerCGI) September 26, 2019

Session 2 looked at "Non-Terrestrial & Hybrid Networks". The narrative for the session was as follows:

There are different initiatives underway to make satellite and other non-terrestrial networks as part of 5G. In addition, many different mobile operators have demonstrated compelling use-cases with drones, balloons and other aerostats. Other innovative approaches like European Aviation Network uses a hybrid-network using terrestrial network supported by a satellite connection as a backhaul for in-flight Wi-Fi. In addition to latency, what other challenges are stopping mass adoption of Non-terrestrial and Hybrid networks? What about advanced features like slicing, etc.?

There were 3 talks as follows:

• Opportunities for blending terrestrial and satellite technologies by Dr Jaime Reed, Director, Consulting, Space, Defence and Intelligence, CGI (slides)
• Non-terrestrial Networks: Standardization in 5G NR by Dr Yinan Qi, Senior 5G Researcher, Samsung R&D Institute UK (slides)
• Satellites and 5G: A satellite operator’s perspective by Simon Watts, Principal Consultant, Avanti Communications (slides)

A fantastic technical in-depth session on Non-Terrestrial Networks (NTN) by Yinan Qi, Samsung. Loved it @TMGB
#CWTEC pic.twitter.com/QUpxA3wKj9

— Zahid Ghadialy (@zahidtg) September 26, 2019

Session 3 looked at "5G: A Catalyst for Network Transformation". The narrative was as follows:

5G has set high expectations in the user as well as operator community. While eMBB can be supported with an upgrade of existing 4G infrastructure, URLLC and mMTC may require massive change in the network architecture. Operators have already started the transformation process with backhaul upgrades, new data centers, distributed core and cloud rollouts, etc. How are networks evolving to accommodate these deep changes? What other changes will be required in the network to support the growth until the next new generation arrives?

This session featured 3 talks as well

• An Introduction to Open RAN Concept by Zahid Ghadialy, Senior Director, Strategic Marketing, Parallel Wireless UK & EMEA (slides)
• Powering the successful deployment of 5G infrastructure by David George, Vice President of EMEA and APAC, Sitetracker (slides)
• The 5G transformation: no sweet without sweat by Antonella Faniuolo, Head of Network Strategy, Planning, Digital & Optimisation, Vodafone (slides)

We loved @zahidtg’s #OpenRAN diagrams in his session at #CWTEC this afternoon. Good explanation of why OpenRAN matters and how it actually works. #5G @Parallel_tw pic.twitter.com/DTna4pC7bA

— Cambridge Wireless (@cambwireless) September 26, 2019

The final session topic was "Getting ready for Beyond-5G Era". The narrative was as follows:

Many technologies like Full duplex, etc. that were originally intended to be part of 5G were not able to make it into the standards. Along with these, what other revolutionary changes are needed to make Beyond-5G technologies not only fulfil the vision, ambition and use-cases that were originally envisaged for 5G but to take it a step further and make it a game changer.

This session featured 3 talks as well, as follows:

• Thinking Beyond 5G: Projects and Initiatives by Alan Carlton, Vice President, InterDigital Europe (slides not available)
• 5G Evolution: Progressive enhancement and new features for new markets by Matthew Baker, Head of Radio Physical Layer and Coexistence Standardization, Nokia (slides)
• Why 6G’s design goals need far more than just radio & core innovation by Dean Bubley, Analyst & Futurist, Disruptive Analysis (slides not available)

3GPP Release - Technology
99 - UMTS (3G)
4
5 - HSDPA (3.5G)
6 - HSUPA
7 - HSPA+
8 - LTE (3.9G)
9
10 - LTA-A (4G)
11
12
13 - LTE-A Pro (4.5G)
14
15 - 5G
16
17
18 - 5.5G?
19
20
21 - 6G?#CWTEC #3G4G5Gpic.twitter.com/vQi5Dhfsno

— 3G4G (@3g4gUK) October 8, 2019

And my personal highlight was that I launched World's first coloured 5G tie

Did I mention I am launching my World's First Coloured 5G Tie that caters for all different implementations of 5G 😁 #CWTEC@cambwireless @3g4gUK @Parallel_tw @3GPPLive @IBTwi @AndrewPalmerCGI @alainmouradUK pic.twitter.com/j0ebPnSxaB

— Zahid Ghadialy (@zahidtg) September 26, 2019

Hopefully you found the presentations shared as useful. Please also read the summaries of CWTEC provided below.


Related Articles:

• CW Technology & Engineering Conference Review by CW (Cambridge Wireless)
• CWTEC: 5G, Massive MIMO and Satellites by David Chambers, ThinkSmallCell
• Dean Bubley made a nice Twitter Thread on CWTEC here.
• All the information about the conference is available here.

An Introduction to Non-Terrestrial Networks (NTN)

I made a short introductory tutorial explaining what is meant by Non-Terrestrial Networks. There is is lot of work on this that is planned for Release-17. Slides and video below.

Beginners: Non Terrestrial Networks (NTN) from 3G4G

Related Posts:

• Connectivity Technology Blog: TIP has launched 'Non-Terrestrial Connectivity Solutions' Group
• The 3G4G Blog: Connectivity on Planes
• The 3G4G Blog: Satellites & Non-terrestrial networks (NTN) in 5G
• 3G4G Small Cells Blog: Flying Small Cells are here...

An Alternative 5G for Rural Communities

I recently presented my personal vision of an alternative 5G for rural communities on behalf of Parallel Wireless at the IEEE 5G Summit in Glasgow. I believe that the next few years are going to be crucial for MNOs to decide if they want to cover the rural areas or just continue to focus on built-up areas.

In some cases it may not really be worthwhile for example for a smaller operator to build a cellular IoT network as the returns may not be worth the effort and investment.

I should mention that the caveat is that a lot of alternative 5G approach in my presentation depends on at least one of the satellite megaconstellations being successfully deployed and being fully operational. I am assuming a sensible pricing would be in place anyway as the satellite operators cant keep charging whatever they want for ever.

So here is my alternative 5G vision

Slides (and pictures) are available here for anyone interested. For my slides, jump to page 244. Quite a few other good presentations on 5G too.

An article in EE times summarises this IEEE 5G conference quite well. Available here.

Presentations from the IEEE 5G Summit in Glasgow are now available online - https://t.co/rjvjrq2m0o @EEEStrathclyde @5GIEEE #IEEE5G - Here is a bonus 5G Elephant by Rahim Tafazolli from @Surrey5GIC pic.twitter.com/wi2HXtCxEB

— 3G4G (@3g4gUK) May 31, 2018

Let me know your thoughts.

Satellites & Non-terrestrial networks (NTN) in 5G

Satellites has been an area of interest of mine for a while as some of you know that I used to work as Satellite Applications & Services Programme manager at techUK. I have written about how I see satellites complementing the mobile networks here and here.

Pic Source: The Role of Satellite in 5G - SES

Its good to see that there is some activity in 3GPP going on about satellites & Non-terrestrial networks (NTN) in 5G. While there are some obvious roles that satellites can play (see pic above), the 5G work is looking to cover a lot more topics in details.

Pic Source: Nomor - Overview 3GPP 5G Satellite Activities, Oct 2017

3GPP TR 38.913: Study on scenarios and requirements for next generation access technologies looks at 12 different scenarios, the ones relevant to this topic ate Air to ground, Light aircraft and Satellite to terrestrial.

3GPP TR 38.811: Study on New Radio (NR) to support non terrestrial networks (Release 15) covers this topic a bit more in detail. From looking at how satellites and other aerial networks work in general, it looks at the different NTN architecture options as can be seen above.

People looking to study this area in detail should probably start looking at this TR first.

3GPP also released a news item on this topic last week. It also refers to the above TR and a new one for Release 16. The following from 3GPP news:

The roles and benefits of satellites in 5G have been studied in 3GPP Release 14, leading to the specific requirement to support satellite access being captured in TS 22.261 - “Service requirements for next generation new services and markets; Stage 1”, recognizing the added value that satellite coverage brings, as part of the mix of access technologies for 5G, especially for mission critical and industrial applications where ubiquitous coverage is crucial.

Satellites refer to Spaceborne vehicles in Low Earth Orbits (LEO), Medium Earth Orbits (MEO), Geostationary Earth Orbit (GEO) or in Highly Elliptical Orbits (HEO).

Beyond satellites, Non-terrestrial networks (NTN) refer to networks, or segments of networks, using an airborne or spaceborne vehicle for transmission. Airborne vehicles refer to High Altitude Platforms (HAPs) encompassing Unmanned Aircraft Systems (UAS) - including tethered UAS, Lighter than Air UAS and Heavier than Air UAS - all operating at altitude; typically between 8 and 50 km, quasi-stationary.

These Non-terrestrial networks feature in TSG RAN’s TR 38.811 “Study on NR to support non-terrestrial networks”. They will:

• Help foster the 5G service roll out in un-served or underserved areas to upgrade the performance of terrestrial networks
• Reinforce service reliability by providing service continuity for user equipment or for moving platforms (e.g. passenger vehicles-aircraft, ships, high speed trains, buses)
• Increase service availability everywhere; especially for critical communications, future railway/maritime/aeronautical communications
• Enable 5G network scalability through the provision of efficient multicast/broadcast resources for data delivery towards the network edges or even directly to the user equipment

The objective of TR 38.811 is to study channel models, to define the deployment scenarios as well as the related system parameters and to identify and assess potential key impact areas on the NR. In a second phase, solutions for the identified key impacts on RAN protocols/architecture will be evaluated and defined.

A second study item, the “Study on using Satellite Access in 5G” is being addressed in Working Group SA1.  It shall lead to the delivery of the corresponding Technical Report TR 22.822 as part of Release 16.

This study will identify use cases for the provision of services when considering the integration of 5G satellite-based access components in the 5G system. When addressing the integration of (a) satellite component(s), use cases will identify new potential requirements for 5G systems addressing:

• The associated identification of existing / planned services and the corresponding modified or new requirements
• The associated identification of new services and the corresponding requirements
• The requirements on set-up / configuration / maintenance of the features of UE’s when using satellite components related features as well for other components from the 5G system
• Regulatory requirements when moving to (or from) satellite from (or to) terrestrial networks

Related Posts:

• An Introduction to Non-Terrestrial Networks (NTN)
• Connectivity on Planes
• Connectivity Technology Blog: TIP has launched 'Non-Terrestrial Connectivity Solutions' Group
• 3G4G Small Cells Blog: Flying Small Cells are here...

Connectivity on Planes

I recently made a video explaining how connectivity works on planes and how its about to change. The video and slides are embedded below.

Beginners: Connectivity in Planes from 3G4G

Related posts:

• In-flight broadband connectivity service with speeds up to 75Mbps
• Deutsche Telekom: Media kit European Aviation Network
• European Aviation Network (EAN) Explained with Ground Based Mast Example
• An Introduction to Non-Terrestrial Networks (NTN)