This document discusses the development and commercialization of 5G networks. It provides an overview of the evolution of mobile networks from analog voice to 4G LTE and highlights how 5G will enable new experiences through vastly higher speeds and lower latency. It outlines the 5G New Radio standard being developed by 3GPP and Qualcomm's role in driving 5G technology and standardization. It also presents the results of an industry-first simulation showing significant user experience gains of 5G over 4G LTE.
5G slicing and management tmf contribution Saurabh Verma
- The document discusses TM Forum's work on 5G network slicing, including requirements, use cases, and business models.
- It describes two deployment scenarios: a single slice provider model with one provider spanning access, backhaul, and core networks; and a multi-slice provider model with the end-to-end slice spanning multiple providers.
- The key aspects covered are the network slice lifecycle including creation, operations, modification, and termination as well as the roles of 5G OSS/BSS, orchestration, and assurance functions.
5G networks with network slicing will allow mobile operators to configure virtual sub-networks tailored to customers' specific needs. This will enable operators to satisfy different requirements for bandwidth, latency, security, and other performance metrics. Network slicing can optimize 5G networks for different use cases like IoT, broadband, and applications requiring low latency. This will provide more flexible, adaptable networks that better serve the varying needs of businesses and customers.
This presentation is highlighting the architecture of 5G network and the need for a very efficient Management and Orchestration environnement, very automated and autonomous that monitors the network and services and trigger actions to optimize resources and meet quality of service.
The document provides an overview of a private 5G seminar hosted by The Besen Group. The seminar consists of three sessions that cover private 5G go-to-market strategy, use cases, and case studies from industry players. It also includes a customized business case development workshop. The seminar aims to help participants understand the private 5G market opportunity and develop a business plan to deploy a private 5G network.
The document discusses the realities of 5G network deployments based on a survey of wireless industry professionals. It finds that the majority have launched or are deploying 5G networks, with two-thirds expecting deployment by the end of 2021. The top challenges for 5G deployment identified are the maturity of 5G equipment, availability of consumer devices, and obtaining fronthaul/backhaul connectivity and cell sites. However, the document argues that careful network design, planning, and equipment selection can help address issues like reusing current infrastructure to ease deployment challenges and accelerate the rollout of 5G networks.
5 g network-slicing-report-from-vertical-industry-requirements-to-network-sli...Chung Ngo Kim
The document discusses network slicing in 5G networks. It proposes adopting a Generic Slice Template (GST) that defines common slice attributes. The GST can be used to describe a Network Slice Type (NEST) by filling in specific values for the attributes. NESTs serve to define slice features for vendors, customer requirements, and roaming agreements between operators. The document focuses on defining the GST and identifying basic standardized NESTs for industry adoption.
Cisco Connect Toronto 2018 network-slicingCisco Canada
The document discusses network slicing, which is the partitioning of network resources and functions to run selected applications, services, or connections in isolation from each other for specific business purposes. This allows mobile operators to offer virtual private networks on a common infrastructure through network slicing on an end-to-end basis across access, transport, and core networks. Slicing enables new revenue opportunities through network slices optimized for different vertical industries while simplifying service delivery and management.
5G slicing and management tmf contribution Saurabh Verma
- The document discusses TM Forum's work on 5G network slicing, including requirements, use cases, and business models.
- It describes two deployment scenarios: a single slice provider model with one provider spanning access, backhaul, and core networks; and a multi-slice provider model with the end-to-end slice spanning multiple providers.
- The key aspects covered are the network slice lifecycle including creation, operations, modification, and termination as well as the roles of 5G OSS/BSS, orchestration, and assurance functions.
5G networks with network slicing will allow mobile operators to configure virtual sub-networks tailored to customers' specific needs. This will enable operators to satisfy different requirements for bandwidth, latency, security, and other performance metrics. Network slicing can optimize 5G networks for different use cases like IoT, broadband, and applications requiring low latency. This will provide more flexible, adaptable networks that better serve the varying needs of businesses and customers.
This presentation is highlighting the architecture of 5G network and the need for a very efficient Management and Orchestration environnement, very automated and autonomous that monitors the network and services and trigger actions to optimize resources and meet quality of service.
The document provides an overview of a private 5G seminar hosted by The Besen Group. The seminar consists of three sessions that cover private 5G go-to-market strategy, use cases, and case studies from industry players. It also includes a customized business case development workshop. The seminar aims to help participants understand the private 5G market opportunity and develop a business plan to deploy a private 5G network.
The document discusses the realities of 5G network deployments based on a survey of wireless industry professionals. It finds that the majority have launched or are deploying 5G networks, with two-thirds expecting deployment by the end of 2021. The top challenges for 5G deployment identified are the maturity of 5G equipment, availability of consumer devices, and obtaining fronthaul/backhaul connectivity and cell sites. However, the document argues that careful network design, planning, and equipment selection can help address issues like reusing current infrastructure to ease deployment challenges and accelerate the rollout of 5G networks.
5 g network-slicing-report-from-vertical-industry-requirements-to-network-sli...Chung Ngo Kim
The document discusses network slicing in 5G networks. It proposes adopting a Generic Slice Template (GST) that defines common slice attributes. The GST can be used to describe a Network Slice Type (NEST) by filling in specific values for the attributes. NESTs serve to define slice features for vendors, customer requirements, and roaming agreements between operators. The document focuses on defining the GST and identifying basic standardized NESTs for industry adoption.
Cisco Connect Toronto 2018 network-slicingCisco Canada
The document discusses network slicing, which is the partitioning of network resources and functions to run selected applications, services, or connections in isolation from each other for specific business purposes. This allows mobile operators to offer virtual private networks on a common infrastructure through network slicing on an end-to-end basis across access, transport, and core networks. Slicing enables new revenue opportunities through network slices optimized for different vertical industries while simplifying service delivery and management.
5G, IoT and AI: An overview about strategies for business provides an introduction to 5G technologies and their potential impact on business. The eBook discusses how 5G will enable new capabilities through edge computing, IoT, and AI. It also explores strategies for network modernization and standards organizations driving 5G innovation to help businesses prepare for the opportunities of a 5G future.
The document discusses how service providers can transform their businesses by combining 5G, cloud computing, and artificial intelligence (AI). It outlines five key shifts needed for this transformation: 1) Moving from physical to virtualized and cloud-native infrastructure, 2) Transitioning from centralized to distributed architectures, 3) Changing from static to dynamic capacity that scales with demand, 4) Automating operations that were previously manual, and 5) Integrating security across the network rather than using isolated security solutions. The document argues that combining these technologies will allow service providers to launch new services, improve operational efficiency, differentiate customer experiences, and compete more effectively.
Etsi wp24 mec_deployment_in_4_g_5g_finalSaurabh Verma
The white paper discusses deploying multi-access edge computing (MEC) in 4G networks and the evolution towards 5G. It describes several scenarios for deploying MEC in 4G, including placing the MEC platform at the base station (bump in the wire), distributing elements of the evolved packet core, and separating control and user planes. Key challenges addressed include session management, mobility, security, charging, and identifying subscribers. The paper also discusses how deploying MEC in 4G can help drive adoption of 5G by establishing an edge cloud infrastructure and leveraging cloud technologies for a smooth evolution.
- Release 14 of 3GPP has added new features to enable improved delivery of television services over mobile networks using 3GPP's eMBMS standard. This includes greater broadcast range, support for free-to-air services, and the ability to transmit digital video signals in their native format.
- Key enhancements include a standardized interface for content providers, radio improvements for extended broadcast coverage, and new capabilities for mobile operators to support broadcasters and offer free or subscription-based television services.
- The new features allow both mobile and stationary devices to access television services over eMBMS broadcast and unicast connections, with benefits like higher quality HD/UHD content delivery and more interactive viewing experiences.
The document discusses 5G networks and Internet of Things (IoT) architecture. For 5G, it describes the key requirements of ultra-high radio speed, ultra-low latency, and massive connectivity. This will require redefining cloud-RAN/fronthaul architecture with distributed 5G cores and packet-based fronthaul to handle high traffic loads. For IoT, it discusses the growth of the market and challenges around standards, security and privacy, and monetization. It provides an overview of key platform architectures from Microsoft, AWS, and Google for IoT. The biggest challenge remains developing solutions that can scale to handle the massive number of IoT devices connecting to 5G networks.
Network slicing: A key technology for 5G and its impact on mobile virtual net...Athanasios Lioumpas
Network slicing is a key 5G technology that will impact mobile virtual network operators (MVNOs) by allowing them to optimize profits. It enables a dynamic allocation of network resources based on user profiles and services. This overcomes limitations of legacy networks for MVNOs, such as an inability to differentiate quality of service. Network slicing also allows MVNOs to create modular, multi-operator networks through network functions virtualization. It has the potential to improve user experience, help telecom companies maximize revenue, and boost new business models for MVNOs.
"5G-Advanced Technology Evolution from a Network Perspective" white paper is officially released on Aug 5, 2021.
From the perspective of network, this document clarifies the evolution of 5G-Advanced-Technology in details.
Today, we take it for granted that our mobile devices and applications just work out of the box — smartphones can roam virtually anywhere in the world, laptops can seamlessly connect to any Wi-Fi access point & Bluetooth peripheral, and the videos recorded on one device can be played back perfectly on any other device.
The magic behind all this? Technology standards. Not only do they power a wide range of systems and devices but also bring many benefits to the broader technology ecosystem. At Qualcomm Technologies, we are leading the standardization of many key technologies that will move the world forward.
Download this presentation to learn:
- The value of technology standards, specifically in the areas of cellular, Wi-Fi, Bluetooth, and video codecs
- Why standardized technologies are essential for industry growth and ecosystem development
- How standard bodies operate in a complex, challenging, and ever changing environment
- How Qualcomm is driving innovation in different technology standards
LTE is the next generation network beyond 3G that will provide significantly higher throughput and lower latency compared to 3G. It will use an all-IP architecture and OFDM and MIMO technologies to improve spectral efficiency and capacity. LTE aims to deliver 3-5 times greater capacity than advanced 3G networks, lower the cost per bit, and improve the quality of experience for users through reduced latency of around 20ms compared to 120ms for typical 3G networks. Mobile network operators have a unique opportunity to evolve their networks to LTE to capitalize on increasing demand for wireless broadband and further grow their market share.
This presentation provides an overview of important 5G innovations around new and enhanced use of spectrum. It also captures the current 5G spectrum status across the globe.
5G Evolution: Progressive Enhancement & N ew Features for New Markets3G4G
Presented by Matthew Baker, Head of Radio Physical Layer & Coexistence Standardisation at Cambridge Wireless CWTEC 2019 conference
*** SHARED WITH PERMISSION ***
The document discusses the potential opportunities and challenges for mobile network operators with the arrival of 5G networks. It notes that 5G will require huge investments in infrastructure but that the business case for monetization is still developing. It argues that the initial value of 5G will be in enterprise applications through new use cases and IoT, rather than immediately in consumer applications. For mobile operators to succeed, they will need to develop new partnerships and business models to leverage 5G for enterprise customers and explore opportunities in areas like live events and mobile gaming.
This presentation takes a look at the technology roadmap for 5G NR millimeter wave (mmWave). Including features such as integrated access and backhaul (IAB), enhancements in beam management, mobility, coverage, and more. For more information, please visit www.qualcomm.com/mmwave
5G Spectrum Recommendations White Paper. The voice of 5G in America. 5G is associated with the next step of IMT (i.e., IMT-2020), for which initial planning is currently under way in the ITU.
Transforming enterprise and industry with 5G private networksQualcomm Research
The 3GPP put the spotlight on industry expansion in July with 5G NR Release 16 and set the stage for enterprise and industry verticals to look at how to provide high-performance wireless connectivity with 5G private networks. With a variety of options for spectrum, different network architectures, a rich feature set to meet the demanding needs of the industrial Internet of Things (IIoT), and the privacy and security required for business assurance, 5G private networks are poised to transform enterprise and industry.
Watch the webinar at: https://pages.questexnetwork.com/Webinar-Qualcomm-Registration-101520.html?source=Qualcomm
Emerging Radio Technologies that are mmWave communications, Massive MIMO, Novel Waveforms and Multiple Access techniques etc. will provide ultra-high data rate traffic per user. However, only new Radio techniques implemented in lower layers of legacy networks could not guarantee the all 5G requirements, consequently the new network architecture along with new Radio technologies will emerge to fulfill all 5G requirements.
Akraino API TSC Ike Alisson 5G Mobility Edge MEC synergy present 2020 11 06 R...Ike Alisson
Edge in 5G Mobility context evolvement from NGMN 5G WP in Feb 2015 and ETSI MEC renaming MEC to Multi-access Edge Computing by March 2017 and setting Phase 2 New Scope with some examples from 3GPP Rel 15 NSA New Services and System Aspects enhancements revisiosn preceding ETSI MEC renaming and latest 5G Capabilities for Traffic Routing & Service Steering impact on MEC and latest support for AVT (Alternative Virtualized Technologies) and 5G SCEF/NEF SCS/AS for CIoT integrated (like in 5G MEC case through CAPIF/NAPS) with 5G SL IoT Platform oneM2M with support to Ontology SAREF across 10 UCs.
LoRaWAN and 3GPP technologies cover all Industrial IoT use casesErika Gelinard
we examine both Mobile IoT (NB-IoT, Cat-M1, Cat-1) and LoRaWAN, with the objective to demonstrate the complementary aspects of the two technologies. We show how operators tap into unlicensed IoT market space using LoRaWAN and complement it with licensed Mobile IoT.
Qualcomm is developing 5G NR technology to enable a unified 5G air interface that can address diverse spectrum types, services, and deployments. 5G will transform industries and society by connecting billions of devices and delivering new immersive experiences with requirements such as ultra-low latency and ultra-high reliability. Qualcomm is leading innovations for 5G NR such as optimized waveforms, scalable numerology and transmission time interval, efficient spectrum utilization techniques, and support for diverse spectrum bands and deployments.
5G, IoT and AI: An overview about strategies for business provides an introduction to 5G technologies and their potential impact on business. The eBook discusses how 5G will enable new capabilities through edge computing, IoT, and AI. It also explores strategies for network modernization and standards organizations driving 5G innovation to help businesses prepare for the opportunities of a 5G future.
The document discusses how service providers can transform their businesses by combining 5G, cloud computing, and artificial intelligence (AI). It outlines five key shifts needed for this transformation: 1) Moving from physical to virtualized and cloud-native infrastructure, 2) Transitioning from centralized to distributed architectures, 3) Changing from static to dynamic capacity that scales with demand, 4) Automating operations that were previously manual, and 5) Integrating security across the network rather than using isolated security solutions. The document argues that combining these technologies will allow service providers to launch new services, improve operational efficiency, differentiate customer experiences, and compete more effectively.
Etsi wp24 mec_deployment_in_4_g_5g_finalSaurabh Verma
The white paper discusses deploying multi-access edge computing (MEC) in 4G networks and the evolution towards 5G. It describes several scenarios for deploying MEC in 4G, including placing the MEC platform at the base station (bump in the wire), distributing elements of the evolved packet core, and separating control and user planes. Key challenges addressed include session management, mobility, security, charging, and identifying subscribers. The paper also discusses how deploying MEC in 4G can help drive adoption of 5G by establishing an edge cloud infrastructure and leveraging cloud technologies for a smooth evolution.
- Release 14 of 3GPP has added new features to enable improved delivery of television services over mobile networks using 3GPP's eMBMS standard. This includes greater broadcast range, support for free-to-air services, and the ability to transmit digital video signals in their native format.
- Key enhancements include a standardized interface for content providers, radio improvements for extended broadcast coverage, and new capabilities for mobile operators to support broadcasters and offer free or subscription-based television services.
- The new features allow both mobile and stationary devices to access television services over eMBMS broadcast and unicast connections, with benefits like higher quality HD/UHD content delivery and more interactive viewing experiences.
The document discusses 5G networks and Internet of Things (IoT) architecture. For 5G, it describes the key requirements of ultra-high radio speed, ultra-low latency, and massive connectivity. This will require redefining cloud-RAN/fronthaul architecture with distributed 5G cores and packet-based fronthaul to handle high traffic loads. For IoT, it discusses the growth of the market and challenges around standards, security and privacy, and monetization. It provides an overview of key platform architectures from Microsoft, AWS, and Google for IoT. The biggest challenge remains developing solutions that can scale to handle the massive number of IoT devices connecting to 5G networks.
Network slicing: A key technology for 5G and its impact on mobile virtual net...Athanasios Lioumpas
Network slicing is a key 5G technology that will impact mobile virtual network operators (MVNOs) by allowing them to optimize profits. It enables a dynamic allocation of network resources based on user profiles and services. This overcomes limitations of legacy networks for MVNOs, such as an inability to differentiate quality of service. Network slicing also allows MVNOs to create modular, multi-operator networks through network functions virtualization. It has the potential to improve user experience, help telecom companies maximize revenue, and boost new business models for MVNOs.
"5G-Advanced Technology Evolution from a Network Perspective" white paper is officially released on Aug 5, 2021.
From the perspective of network, this document clarifies the evolution of 5G-Advanced-Technology in details.
Today, we take it for granted that our mobile devices and applications just work out of the box — smartphones can roam virtually anywhere in the world, laptops can seamlessly connect to any Wi-Fi access point & Bluetooth peripheral, and the videos recorded on one device can be played back perfectly on any other device.
The magic behind all this? Technology standards. Not only do they power a wide range of systems and devices but also bring many benefits to the broader technology ecosystem. At Qualcomm Technologies, we are leading the standardization of many key technologies that will move the world forward.
Download this presentation to learn:
- The value of technology standards, specifically in the areas of cellular, Wi-Fi, Bluetooth, and video codecs
- Why standardized technologies are essential for industry growth and ecosystem development
- How standard bodies operate in a complex, challenging, and ever changing environment
- How Qualcomm is driving innovation in different technology standards
LTE is the next generation network beyond 3G that will provide significantly higher throughput and lower latency compared to 3G. It will use an all-IP architecture and OFDM and MIMO technologies to improve spectral efficiency and capacity. LTE aims to deliver 3-5 times greater capacity than advanced 3G networks, lower the cost per bit, and improve the quality of experience for users through reduced latency of around 20ms compared to 120ms for typical 3G networks. Mobile network operators have a unique opportunity to evolve their networks to LTE to capitalize on increasing demand for wireless broadband and further grow their market share.
This presentation provides an overview of important 5G innovations around new and enhanced use of spectrum. It also captures the current 5G spectrum status across the globe.
5G Evolution: Progressive Enhancement & N ew Features for New Markets3G4G
Presented by Matthew Baker, Head of Radio Physical Layer & Coexistence Standardisation at Cambridge Wireless CWTEC 2019 conference
*** SHARED WITH PERMISSION ***
The document discusses the potential opportunities and challenges for mobile network operators with the arrival of 5G networks. It notes that 5G will require huge investments in infrastructure but that the business case for monetization is still developing. It argues that the initial value of 5G will be in enterprise applications through new use cases and IoT, rather than immediately in consumer applications. For mobile operators to succeed, they will need to develop new partnerships and business models to leverage 5G for enterprise customers and explore opportunities in areas like live events and mobile gaming.
This presentation takes a look at the technology roadmap for 5G NR millimeter wave (mmWave). Including features such as integrated access and backhaul (IAB), enhancements in beam management, mobility, coverage, and more. For more information, please visit www.qualcomm.com/mmwave
5G Spectrum Recommendations White Paper. The voice of 5G in America. 5G is associated with the next step of IMT (i.e., IMT-2020), for which initial planning is currently under way in the ITU.
Transforming enterprise and industry with 5G private networksQualcomm Research
The 3GPP put the spotlight on industry expansion in July with 5G NR Release 16 and set the stage for enterprise and industry verticals to look at how to provide high-performance wireless connectivity with 5G private networks. With a variety of options for spectrum, different network architectures, a rich feature set to meet the demanding needs of the industrial Internet of Things (IIoT), and the privacy and security required for business assurance, 5G private networks are poised to transform enterprise and industry.
Watch the webinar at: https://pages.questexnetwork.com/Webinar-Qualcomm-Registration-101520.html?source=Qualcomm
Emerging Radio Technologies that are mmWave communications, Massive MIMO, Novel Waveforms and Multiple Access techniques etc. will provide ultra-high data rate traffic per user. However, only new Radio techniques implemented in lower layers of legacy networks could not guarantee the all 5G requirements, consequently the new network architecture along with new Radio technologies will emerge to fulfill all 5G requirements.
Akraino API TSC Ike Alisson 5G Mobility Edge MEC synergy present 2020 11 06 R...Ike Alisson
Edge in 5G Mobility context evolvement from NGMN 5G WP in Feb 2015 and ETSI MEC renaming MEC to Multi-access Edge Computing by March 2017 and setting Phase 2 New Scope with some examples from 3GPP Rel 15 NSA New Services and System Aspects enhancements revisiosn preceding ETSI MEC renaming and latest 5G Capabilities for Traffic Routing & Service Steering impact on MEC and latest support for AVT (Alternative Virtualized Technologies) and 5G SCEF/NEF SCS/AS for CIoT integrated (like in 5G MEC case through CAPIF/NAPS) with 5G SL IoT Platform oneM2M with support to Ontology SAREF across 10 UCs.
LoRaWAN and 3GPP technologies cover all Industrial IoT use casesErika Gelinard
we examine both Mobile IoT (NB-IoT, Cat-M1, Cat-1) and LoRaWAN, with the objective to demonstrate the complementary aspects of the two technologies. We show how operators tap into unlicensed IoT market space using LoRaWAN and complement it with licensed Mobile IoT.
Qualcomm is developing 5G NR technology to enable a unified 5G air interface that can address diverse spectrum types, services, and deployments. 5G will transform industries and society by connecting billions of devices and delivering new immersive experiences with requirements such as ultra-low latency and ultra-high reliability. Qualcomm is leading innovations for 5G NR such as optimized waveforms, scalable numerology and transmission time interval, efficient spectrum utilization techniques, and support for diverse spectrum bands and deployments.
Making 5G New Radio a Reality - by QualcommAydin Karaer
Qualcomm is developing 5G NR technology to enable a unified 5G air interface that can address diverse spectrum types, services, and deployments. 5G will transform industries and society by connecting billions of devices and delivering new immersive experiences with requirements such as ultra-low latency and ultra-high reliability. Qualcomm is leading innovations for 5G NR such as advanced channel coding, massive MIMO, and mobilizing mmWave to achieve the speed, capacity, and low latency goals of 5G over the next decade.
Qualcomm's document outlines their vision and strategy for 5G networks and technologies. It discusses how 5G will provide unified connectivity across a wide range of use cases and spectrum types. Qualcomm is developing technologies like massive MIMO and mmWave to help 5G networks meet requirements for high data rates, low latency, high reliability and more. They are driving 5G standardization and aim to leverage their 4G leadership to help lead the world to 5G networks and devices.
This document discusses the future of 5G networks and 5G New Radio (NR) technology. It makes the following key points:
1) 5G NR is being designed as a unified, flexible air interface that can support diverse services, spectrum types and deployments through 2030 and beyond.
2) 5G will expand broadband connectivity and enable new industries through capabilities like ultra-low latency, high reliability, massive capacity and connectivity of everything.
3) 5G NR specifications were contributed to and aligned with Qualcomm's research to deliver scalable OFDM, flexible slot structures, advanced coding and massive MIMO to meet 5G requirements.
5G will connect virtually everything around us to transform a wide range of industries — manufacturing, automotive, logistics, and many more, and we are on track to make 5G NR — the global 5G standard — a commercial reality by 2019. However, this first phase of 5G mainly focuses on enhanced mobile broadband services, which will contribute to part of the total projected $12T 5G economy. 5G NR will continue to evolve in Release 16 and beyond to further expand 5G’s reach to new devices, services, and ecosystem players.
5G networks provide ultra-fast internet speeds and low latency. They have evolved from 4G LTE networks and use new spectrum bands like sub-6GHz and millimeter wave. 5G is being deployed either in non-standalone mode, which uses existing LTE infrastructure, or in standalone mode which uses a new 5G core. Most major phone manufacturers now offer 5G-compatible devices. Speed tests have shown performance varying by spectrum band, with millimeter wave offering the highest speeds but more limited coverage.
This document discusses 5G NR based C-V2X (cellular vehicle-to-everything) for autonomous driving. It notes that Rel-14 C-V2X is gaining momentum and support for automotive safety use cases. 5G NR will provide a unified connectivity fabric to expand C-V2X into new industries and use cases to support higher levels of predictability for autonomous driving through ultra-reliable low latency communications and high data rates. The evolution of C-V2X to 5G NR will bring new capabilities to support advanced autonomous driving use cases through high throughput sharing of sensor and map data, as well as intent and trajectory sharing between vehicles.
DWS16 - Mobile networks forum - Laurent Fournier, QualcommIDATE DigiWorld
The document summarizes key aspects of 5G NR (5th generation New Radio) technology being developed by Qualcomm to enable 5G networks and services. It discusses how 5G NR will provide scalability to address diverse services and devices through flexible spectrum allocation across low, mid, and high bands. It also outlines how 5G NR is being designed to enable massive IoT through technologies like NB-IoT, and mission critical applications through features enabling high reliability, low latency, and high availability. The document shares Qualcomm's efforts in driving 5G NR technology innovations and trials to help realize a future of multi-Gbps data rates, low latency services, and new immersive experiences through 5G.
The essential role of Gigabit LTE and LTE Advanced Pro in the 5G WorldQualcomm Research
As the next phase in the evolution of LTE (3GPP Release 13 and beyond), LTE Advanced Pro does more than just push LTE capabilities closer towards 5G. It will also become an integral part of the 5G mobile network, providing many services essential to the 5G experience starting day one. Learn more at: https://www.qualcomm.com/invention/technologies/lte/advanced-pro
This document provides an overview of 5G technology, including its evolution from earlier generations of cellular technology, key aspects of its architecture and hardware/software, features, advantages, and applications. It discusses the progression from 1G to 2G to 3G to 4G networks and the increased speeds and capabilities offered by each generation. The document then describes 5G network architecture, hardware, software, features like high speeds and low latency, and potential applications including high-speed mobile networks, internet of things, smart homes/cities, and autonomous driving.
This document provides an overview of 5G technology, including its evolution from earlier generations of cellular technology, key aspects of its architecture and hardware/software, features, advantages, and applications. It discusses the progression from 1G to 2G to 3G to 4G networks and the increased speeds and capabilities offered by each generation. The document then describes 5G network architecture, hardware, software, features such as high speeds and low latency, and advantages like support for IoT. Finally, it outlines several applications of 5G like high-speed mobile networks, smart homes and cities, logistics/shipping, industrial IoT, autonomous driving, and more.
Accelerating our 5G future: a first look at 3GPP Rel-17 and beyondQualcomm Research
In December 2019, the scope of 3GPP Release 17 was decided in the Plenary meeting in Spain. This presentation outlines the details of this 3rd release of 5G standards.
- 5G NR is designed as a unified, future-proof air interface to efficiently support diverse spectrum types, deployments, services and use cases over the next decade.
- It utilizes an OFDM-based framework with scalable numerology and slot structures to provide flexibility.
- Key 5G NR technologies like massive MIMO and mobile mmWave are aimed at delivering major improvements in areas like connection density, throughput and latency compared to previous standards.
5 g latin america april 2019 network densification requirements v1.0Alberto Boaventura
Brings the discussion about the challenges about how network densificiation addresses 5G high density traffic and related challegens. Discusses about: interefence mitigation; synchronism and latency management; high capilarity optical transport challenges; network optimization challenges and AI bennefits; importance of public policy and others.
We have seen all the mobile broadband technologies like 1G, 2G, 3G and most recent 4G and upcoming is 5G. And they were very successful and motivated by the need to meet the requirement of the mobile users.
The document discusses 5G technology and its advantages over previous generations of mobile networks. It begins with an introduction to 5G and its incredibly high transmission speeds. The document then summarizes the evolution from 1G to 5G networks, including key aspects of each generation such as speed increases from 2.4kbps in 1G to 1Gbps expected for 5G. The remainder of the document covers 5G architecture, hardware and software, features, applications, challenges, and concludes that 5G will provide dramatic reductions in cost and energy use per delivered bit of data.
http://www.ericsson.com
Each decade since mobile communication was introduced in the 1980s, has brought with it a new generation of systems and technologies. The next evolution, 5G radio access, is set for commercialization around 2020, and will deliver 5G services in an environment that is shaping up to be a significant challenge.
The document discusses 5G technologies and the 5G Innovation Centre (5GIC) at the University of Surrey. It provides background on the 5GIC, which was established through UK government funding and industry partnerships to conduct research on 5G. The 5GIC aims to provide a large-scale 5G testbed and opportunities for companies to engage in 5G research. The document then outlines key drivers for the development of 5G technologies, including growing connectivity needs, limited spectrum resources, and demands for higher speeds and lower latency. It discusses some of the technological challenges 5G aims to address, such as new air interfaces, use of higher frequency spectrum including millimeter waves, and more intelligent and adaptive network architectures.
Interesting Whitepaper from #HCLTECH, though a bit old (2016) but good for beginners on 5G and introductory know-how about 5G start with IMT2020. Informative insights.
The document discusses three approaches to integrating Wi-Fi and 5G networks: access centric, core centric, and above the core. It provides details on the latest 3GPP Release 15 and 16 specifications for core centric integration using the N3IWF, as well as above the core solutions using MP-TCP, MAMS, and MP-QUIC. The document concludes that core centric and above the core approaches are most promising, and calls for further work on control plane policy and frameworks to deliver enhanced experiences over multi-path solutions.
- Release 14 of 3GPP has added new features to enable improved delivery of television services over mobile networks using standardized interfaces. This includes greater broadcast range, support for free-to-air services, and transparent delivery of digital video signals.
- Enhancements allow for improved support of TV services on both mobile devices and stationary TV sets using eMBMS broadcast and unicast connections. Key updates include standardized interfaces for media delivery/control and radio improvements for better broadcast coverage.
- Additional capabilities in Release 14 allow mobile network operators to offer more support to broadcasters and content providers in delivering traditional and newer high definition TV services.
The document discusses the concept of "Large Scale Convergence" or LSC in 5G networks. LSC refers to scaling up performance metrics, spectrum usage, technologies, operations and management in 5G. It will be defined by the convergence of new dimensions and abstractions. Key technologies that enable LSC include ONAP for network automation, MEC for low latency services, VNFs/SDNs for flexibility, and 3GPP North Bound APIs for standardized integration of services. LSC provides a comprehensive framework to deliver application-defined connectivity across heterogeneous networks through abstraction and harmonization across the 5G ecosystem.
LiFi is a new technology that uses light to transmit data wirelessly. It works by varying the brightness of LED lights at extremely high speeds to transmit data to a photodetector. This allows for high-speed bidirectional communication of data through light bulbs similar to how WiFi works through routers. LiFi provides advantages over WiFi like higher speeds, higher security, and energy efficiency. It could be used in places like offices, homes, and public areas to provide wireless internet access through LED light fixtures.
The document summarizes key findings from the report "The Mobile Economy 2017" published by GSMA. It discusses the following main topics:
1) The continued shift to mobile broadband and 4G adoption, with 4G connections forecast to almost double to 41% by 2020 and 5G networks covering a third of the global population by 2025.
2) Total mobile revenues reached $1.05 trillion in 2016 but future growth outlook remains mixed due to increasing competition and slowing subscriber growth. Operators have invested $1.2 trillion since 2010 in infrastructure.
3) Mobile is contributing to economic growth and jobs, generating 4.4% of global GDP ($3.3 trillion) in 2016 and supporting 28
This document summarizes Cisco's report on global mobile data traffic projections between 2016 and 2021. Some key findings include:
- Global mobile data traffic grew 63% in 2016 and will increase sevenfold by 2021 to reach 49 exabytes per month.
- Smartphones and 4G connections will drive the majority of this growth, accounting for over 80% of traffic by 2021.
- Mobile video traffic will increase nine-fold and represent 78% of all mobile data traffic by 2021.
- The average global mobile connection speed will surpass 20 Mbps by 2021, tripling from 2016 levels.
Mobile report-white-paper-cisco11-520862Saurabh Verma
Global mobile data traffic grew 74% in 2015 and is projected to increase nearly eightfold by 2020 according to Cisco's annual mobile forecast. Key trends driving this growth include the rising number of mobile-connected devices, especially smartphones, which will account for nearly half of all devices by 2020. Video traffic continues to be the largest component, projected to be 75% of total mobile data traffic by 2020. 4G networks are also growing rapidly and will carry over half of mobile traffic by 2016, aided by increasing average connection speeds globally surpassing 3 Mbps by 2017.
The document provides specifications for India's Public Open Wi-Fi framework, including a high-level architecture with various players (PDOs, hardware/software providers, user app providers, and a central provider registry). It describes one-time and usage flows, and provides technical specifications for the provider registry, user signup/authentication, access point discovery, and connecting to access points. The goal is to establish an open architecture for anyone to easily set up paid public Wi-Fi access points, and for users to easily discover, authenticate, and connect to access points.
This document summarizes the key discussions and outcomes from RAN#78. The main topics discussed were:
1) 5G NR aspects including the completion of non-standalone 5G NR standards and a focus on stabilizing essential NR functionality.
2) Handling of new work item and study item proposals, including limiting new proposals until June 2018 and prioritizing the stabilization of NR option 2 and 3 specifications.
3) A call for a 5G workshop in late 2018 to provide insights into 3GPP's 5G technology and IMT-2020 submission to evaluation groups and regulators.
1) A Tier 1 mobile network operator conducted a field trial of a passive centralized-RAN (C-RAN) architecture to evaluate performance, costs, and challenges.
2) Initial fiber inspection using EXFO's probe found most connectors were dirty, increasing optical loss. After cleaning, optical time domain reflectometry characterized the fiber span and found a missing connection.
3) Using real-time OTDR and a visual fault locator, technicians identified and corrected the missing connection and mislabeled fiber within the span. Characterization then verified the full fiber path with reduced optical losses.
This document summarizes new developments in 5G NR user plane protocols:
1) It introduces the work plan for 5G NR and describes non-standalone and standalone 5G NR architectures.
2) It describes new 5G NR user plane protocols including the Service Data Adaptation Protocol (SDAP), Packet Data Convergence Protocol (PDCP), Radio Link Control (RLC), and Medium Access Control (MAC) layers.
3) Key enhancements in 5G NR include support for multiple numerologies, reduced latency through changes like removal of concatenation, and improved hybrid automatic repeat request (HARQ) through code block groups.
The document summarizes key findings from a 2016 industry survey conducted by the Wireless Broadband Alliance (WBA) on next generation Wi-Fi and city-wide public Wi-Fi networks. Some of the main findings include: 1) Nearly 80% of respondents plan to deploy next gen Wi-Fi by 2020; 2) Investment in next gen Wi-Fi is at the highest level ever, driven by improving quality of experience and seamless access; 3) Traffic growth will be driven by IoT, video, and over-the-top services. Both convergence and coexistence between different network technologies are seen as very important approaches.
5G-webinar from 5G-course, Anritsu, adcomm Saurabh Verma
This document discusses key challenges for 5G testing including wider channel bandwidths and greater data capacity, new spatial processing techniques like massive MIMO, higher frequency bands with increased propagation loss, increased reliability requirements for applications, and higher traffic demands for IoT. It also outlines different 5G network topologies including standalone 5G networks, non-standalone networks using LTE, and connections to existing LTE infrastructure.
This white paper describes the basic functionality and characteristics of antennas. It begins with an overview of Hertz's original antenna model and the fundamentals of wave propagation including Maxwell's equations and wavelength. The key general antenna characteristics covered are radiation pattern, directivity, gain, impedance, bandwidth and polarization. A few specific antenna types such as dipoles, monopoles and log-periodic antennas are then briefly described to conclude the white paper.
WLAN at 60GHz -Whitepaper from R&S-1 ma220 2e_wlan_11ad_wpSaurabh Verma
802.11ad defines WLAN standards for the 60GHz frequency band, allowing wireless data transmission rates of up to 7Gbps. It uses three different physical layer modes: single carrier, which provides data rates from 385Mbps to 4.6Gbps; OFDM, which supports up to 7Gbps; and a control mode for signaling. Key features include high throughput enabled by the wide 60GHz spectrum and use of beamforming to direct signals. The document provides details on modulation schemes, packet structures, and other technical aspects of the 3 PHY modes.
Das small cells_view_leading_edge_wp-111425-enSaurabh Verma
This document discusses distributed antenna systems (DAS) and small cells as two technologies for providing indoor wireless coverage and capacity. DAS is well-suited for large venues with high user density and multiple wireless carriers, while small cells are better for smaller buildings. A new technology called C-RAN small cells combines aspects of DAS and small cells, eliminating interference and simplifying planning. The document outlines the advantages and disadvantages of each solution for different indoor environments and use cases.
This document provides an overview of in-building wireless solutions, including distributed antenna systems (DAS), small cells, and their pros and cons. It discusses different types of DAS architectures like passive DAS, active DAS, hybrid DAS, digital DAS, and distributed radio systems. It also covers distributed small cells. The document is intended to explain the in-building wireless ecosystem and architectures used to provide licensed spectrum coverage and capacity inside buildings.
1. Making 5G NR a
Commercial Reality
For enhanced mobile broadband and beyond
April 2018
@qualcomm_tech
2. 21. GSMA Intelligence, January 2018
~7.7B
Total mobile
connections
1
Mobile is the largest technology
platform in human history
1990s
Digital voice
D-AMPS, GSM,
IS-95 (CDMA)
2000s
Mobile data
WCDMA/HSPA+,
CDMA2000/EV-DO
1980s
Analog voice
AMPS, NMT,
TACS
2010s
Mobile broadband
LTE, LTE Advanced,
Gigabit LTE
3. 3
A new kind of
network to drive
innovation and growth
Significant
connectivity
upgrade
Smartphone
tech extending
into many
industries
Consumers want
5G smartphones
4. 4Source: Nokia Bell Labs Consulting Report, 2016
Over 30x growth in mobile data
traffic from 2014 to 2020
Daily global mobile data traffic in 2020
~8BGigabytes
5G will address the
insatiable demand
for mobile broadband
Over 75% of mobile data
traffic from multi-media
streaming in 2020
5. 5
• Fiber-like data speeds
• Low latency for real-time interactivity
• More consistent performance
• Massive capacity for unlimited data
5G is essential for next
generation mobile experiences
Augmented
reality
Connected cloud
computing
Connected
vehicle
Immersive
experiences
High-speed
mobility
Rich user-generated
content
Mobilizing media
and entertainment
Congested
environments
6. 66
Need or would like
faster connectivity
on next smartphone
Likely to purchase a
phone that supports
5G when available
>86% ~50%
Top 3 reasons for 5G:
10x More
cost-effective
data plans
1,002 1,010 1,000 1,006 1,002 824
5G Consumer Survey of smartphone owners:
5,844
WW total
faster
speeds
10xquicker
response time
Consumer excitement
is building for 5G
smartphones
Source: “Making 5G a reality: Addressing the strong mobile broadband
demand in 2019 and beyond,” September 2017, jointly published by
Qualcomm Technologies, Inc. and Nokia.
7. 77
More efficient use
of energy and utilities
Digitized logistics
and retail
Improved public
safety and security
Sustainable cities
and infrastructure
Smarter
agriculture
Reliable access
to remote healthcare
Safer, more autonomous
transportation
More autonomous
manufacturing
>$12 Trillion
Powering the digital economy
In goods and services by 2035
5G will expand the mobile
ecosystem to new industries
Source: The 5G
Economy, an
independent study from
IHS Markit, Penn
Schoen Berland and
Berkeley Research
Group, commissioned
by Qualcomm
8. 8
A rich and continued roadmap of LTE Advanced Pro
advancements is foundational to the 5G evolution
Mobileexpansion
eMBB
URLLC
5G NR spectrum sharing
5G NR C-V2X
5G NR IoT
Private 5G NR network
Rel-16+Rel-15Rel-13 Rel-14
Cellular-V2X
LTE IoT (eMTC / NB-IoT)
Gigabit LTE with LAA
LTE spectrum sharing
Digital TV (eMBMS / enTV)
Public safety
Drones communications
Continued evolution
5G
NR
Significantly improve
performance, scalability
and efficiency
Further enhancements
toward meeting IMT-
2020 requirements in
existing LTE spectrum
www.qualcomm.com/lte-advanced-pro
Learn more:
9. 99
Diverse services
Scalability to address an extreme
variation of requirements
Diverse deployments
From macro to indoor hotspots, with
support for diverse topologies
Mid-bands
1 GHz to 6 GHz
High-bands
Above 24 GHz (mmWave)
Low-bands
Below 1 GHzMassive Internet
of Things
Diverse spectrum
Getting the most out of a wide
array of spectrum bands/types
NR Designing a unified, more capable 5G air interface
A unifying connectivity fabric for future innovation
A platform for existing, emerging, and unforeseen connected services
Mission-critical
services
Enhanced mobile
broadband
5G
NR
www.qualcomm.com/5G-NRLearn more:
10. 10
First 5G NR standard complete — the global 5G standard
20182017 20202019 20222021
Release 17+ evolutionRel-16 work itemsRel-15 work items
Phase 2
Commercial launches
Phase 1
Commercial launchesNRField trialsIoDTs
Standalone (SA)
Accelerate eMBB deployments,
plus establish foundation for
future 5G innovations
Deliver new fundamental 5G NR
technologies that expand and
evolve the 5G ecosystem
Continue to evolve LTE in parallel as essential part of the 5G Platform
NSA
Approved
study items
We are here
11. 11
Fast-to-launch | Higher BW and UX* |
VoLTE & CS voice
Network slicing | New services |
VoNR & 4G fallback
Non-Standalone
(NSA) option
Standalone
(SA) option
Network architecture
options for 5G NR
*Initial NSA bandwidth and user experience in 2019-2020
5G NR launches as compared to SA launches in the same
timeframe. Source: Qualcomm Technologies, Inc.
5G sub-6GHz
Radio Network
Data and control
over 5G NR link
Carrier Aggregation
5G Next
Gen Core
5G
mmWave
Radio
Network
NR
4G macro
and small
cell Radio
Network
5G mmWave
and/or sub-6GHz
Radio Network
Data only
over 5G NR link
Data + control
over 4G LTE link
Dual connectivity
4G Evolved
Packet Core
12. 1212
5G next Gen Core (NGC) also part of 3GPP Rel-15
Increased flexibility through NFV and SDN — essential to 5G NR expansion
NFV: Network Functions Virtualization; SDN: Software Defined Networking
Better cost/energy
efficiency
Optimized
performance
Flexible biz models
and deployments
Dynamic creation
of services
Configurable end-to-end
connectivity per vertical
Modular, specialized network
functions per service
Flexible subscription models
Dynamic control and user planes
with more functionality at the edge
5G
Mobile broadband
Internet of Things
Mission-critical control
13. 1313
Efficiently address
diverse spectrum,
deployments/services
Scalable OFDM-
based air interface
Scalable OFDM
numerology
Flexible slot-based
framework
Self-contained
slot structure
Advanced
channel coding
Massive
MIMO
Mobile
mmWave
Multi-Edge LDPC and
CRC-Aided Polar
Reciprocity-based
MU-MIMO
Key enabler to low
latency, URLLC and
forward compatibility
Efficiently support large
data blocks and a reliable
control channel
Efficiently utilize a large
number of antennas to
increase coverage/capacity
Enables wide mmWave
bandwidths for extreme
capacity and throughput
Beamforming
and beam-tracking
3GPP Rel-15 establishes a solid foundation for 5G NR
Our technology inventions are driving Rel-15 specifications
Early R&D investments | Best-in-class prototypes | Fundamental contributions to 3GPP
For enhanced mobile broadband and beyond
Download the 3GPP Release-15 5G NR design presentation to learn more — link
14. 1414
5G NR standards and
technology leadership
Our technology inventions are
driving the 5G NR standard
Best-in-class 5G
prototype systems
Designing and testing 5G
technologies for many years
5G NR interoperability
testing and trials
Leveraging prototype systems and
our leading global network experience
Modem and
RFFE leadership
Announced the Qualcomm
Snapdragon X50 5G modem family
LTE foundational technologies
Making 5GNR a commercial reality for 2019
For standard-compliant networks and devices
Vodafone
Group
15. 1515
Best-in-class 5G NR mobile prototype systems
Sub-6 GHz and mmWave
5G NR UE
RFFE in mobile form-factors
to mimic real-world performance
5G NR gNodeB
Enable early system-level testing
and demonstrations
5G NR Baseband
Flexibly designed to track and drive
3GPP standardization in Rel-15+
• World’s first announced 5G NR prototype — June 2016
• World’s first 5G NR data connection — February 2017
• World’s first interoperable 5G NR system — November 2017
16. 1616
Utilizing adaptive beamforming and beam
tracking techniques Outdoor vehicular mobility up to 30 mph
Multiple gNodeBs with
seamless handovers
Indoor mobility with wall penetration
and dynamic blocking
Qualcomm Research 5G mmWave prototype
Showcasing robust mobile communications in real-world OTA testing
Handheld and in-vehicle UEs
with hand-blocking
www.qualcomm.com/videos/mobilzing-
mmwave-enhanced-mobile-broadband
Watch video:
17. 1717
Industry-leading 5G NR interoperability testing
In collaboration with 20+ global mobile network operators
At the center of the 5G ecosystem, leading the way to 5G NR commercialization
Today
Successful multi-band
5G NR interoperability
testing
November 2017
World’s first interoperable
5G NR sub-6 GHz data
connection
December 2017
World’s first interoperable
5G NR mmWave data
connection
2H-2018
World’s first announced
standard-compliant trials
based on a 5G modem chipset
MWC 2018
Additional vendors,
new functionality, L2
connectivity, and more
www.qualcomm.com/news/onq/2017/12/21/another-first-our-path-5g-nr-commercializationLearn more:
18. 18
5G NR scalable OFDM air interface
5G NR low latency slot-based framework
5G NR advanced channel coding
100 MHz bandwidth, operating at 3.5 GHz
The world’s first end-to-
end 5G NR sub-6 GHz
interoperable connection
Compliant with the 3GPP
5G NR standard
November 2017
www.qualcomm.com/videos/5g-nr-sub-6-
ghz-interoperability-testingWatch video:
19. 19
In collaboration with AT&T, NTT DOCOMO,
Orange, SK Telecom, Sprint, Telstra,
T-Mobile US, Verizon, and Vodafone
5G NR scalable OFDM air interface
5G NR low latency slot-based framework
5G NR advanced channel coding
8x100 MHz bandwidth, operating at 28 GHz
100 MHz bandwidth; operating at 3.5 GHz
Global mobile industry
leaders achieve multi-band
5G NR interoperability
Compliant with the 3GPP
5G NR standard
www.qualcomm.com/videos/5g-nr-
mmwave-interoperability-testingWatch video:
20. Industry-first simulation of real world performance reveals
immense 5G user experience gains over 4G
Median streaming video quality
8K at 120 FPS with10-bit color and beyond
from 2K at 30 FPS with 8-bit color for LTE users
San Francisco
5G NR multimode
28GHz mmWave
Frankfurt
5G NR multi-mode
3.5GHz (sub-6GHz)
5x 1.4Gpbs ~23x
Source: Company data and internal analysis
Frankfurt: 3.5 GHz 5G NR + Gigabit LTE multimode vs. Gigabit LTE San Fran: 28 GHz 5G NR + Gigabit LTE multimode vs. Gigabit LTE
increase
in capacity
median
browsing speed
faster
responsiveness
5x >490Mpbs ~7x
increase
in capacity
median
browsing speed
faster
responsiveness
21. 2121
56 Mbps
8.8x
493 Mbps
102 Mbps
20 Mbps
9.2x 184 Mbps
39 Mbps
Industry-first simulation of
real world performance
reveals immense 5G user
experience gains over 4G
Frankfurt Simulation
5G NR Sub-6 GHz
4G device
in 4G
network
Cat 20 LTE
Median burst rate Cell-edge burst rate
4G device
in 5G
network
5G device
in 5G
network
4G device
in 4G
network
4G device
in 5G
network
5G device
in 5G
network
www.qualcomm.com/news/onq/2018/03/07/predicting-real-world-5g-performance
Learn more:
22. 2222
Collaborating with global
operators to simulate 5G
NR mmWave capacity
and coverage
• Significant outdoor coverage possible utilizing
actual existing LTE sites (10+ global cities)
• Will further benefit from LTE infrastructure
(LAA small cells) to support Gigabit LTE launches
• Outdoor coverage only; frees up sub-6 GHz
resources for out-to-indoor capacity
• Based on our extensive over-the-air testing
and channel measurements
San Francisco Simulation
1.4Gbps65%
outdoor
coverage
5x
increase
in capacity
median
burst rate
23. 23
Simulations based on extensive over-the-air testing and channel measurments
Site
density
(per km2)
Total 48 36 32 31 28 41 31 39 37
134
antenna
locations
Macro 0 8 15 14 7 33 31 39 37
Small 48 28 17 17 21 8 0 0 0
US
City 1
US
City 2
EU
City 1
81%
65%
41%
81%
74%
US
City 3
US
City 4
Korea
City 1
Hong
Kong
49% 49%
Korea
City 2
76%
66%
Japan
City 1
LVCC
Venue
IndoorOutdoor
85%
Significant 5G NR mmWave coverage via co-siting
28 GHz
downlink
coverage %
Co-siting with LTE
www.qualcomm.com/documents/white-paper-5g-nr-millimeter-wave-network-coverage-simulationDownload whitepaper:
24. 24
Leveraging LAA small cells used for Gigabit LTE
to deliver significant 5GNR mmWave coverage
LAA
133 dB maximum allowable
path loss (MAPL)1
+10 dB coverage
advantage
40 Mbps
100 MHz CC
8 Mbps
20 MHz CC
28 GHz
Source: Qualcomm Technologies, Inc. 5G NR mmWave Network Coverage Simulation;
1. Link budget based on assumptions; additional variations possible due to temporary blockage — field measurements to follow; 2. Target spectral efficiency of 0.4 bps / Hz
Outdoordownlinkcoverage(%)
US City 1 US City 2
28 GHz
LAA
93%
81%
LAA vs. 28 GHz coverage2
28 GHz
LAA
82%
65%
25. 25
Commercializing mmWave in a smartphone form factor
76 mm
157.25 mm
9.7 mmmmWave (60 GHz) viability
in handset form factor
11ad in Asus
Zenfone 4 Pro
Qualcomm 5G NR
mmWave prototype
5G NR mmWave
Qualcomm Reference Design
Download the 5G NR mmWave technology
presentation to learn more — link
26. 26Qualcomm Snapdragon is a product of Qualcomm Technologies, Inc.
2G/3G/4G/5G in
a single chip
Sub-6 + mmWave
Premium-tier
smartphones in 2019
World’s first 5G-NR
multimode modems
5G Modem family
27. 27
October, 2017 February, 2018
Multi-Gigabit transmission
over mmWave spectrum
on working Snapdragon X50 silicon
Continued, fast-paced
progress towards
commercial devices
in the first half of 2019
Qualcomm Snapdragon is a product of Qualcomm
Technologies, Inc. and/or its subsidiaries.
www.qualcomm.com/videos/mmwave-worlds-first-5g-modemWatch video:
28. 28
Vodafone
Group
World’s First Announced
Standard-Compliant Trials based
on a 5G Modem Chipset for
Mobile Devices, including
Smartphone Form-Factors
Global Mobile
Operators Select
Qualcomm®
Snapdragon™ X50
5G Modem for
Mobile 5G NR Trials
in 2018
www.qualcomm.com/news/onq/2018/02/14/our-5g-vision-closer-reality-everLearn more:
29. 29
Qualcomm and Mobile Device
OEMs Focus on Delivering Next-
Generation 5G Mobile
Experiences with Low Latency,
Extreme Capacity and Fiber-Like
Connectivity to the Cloud
Global OEMs Select
Qualcomm®
Snapdragon™ X50
5G NR Modem
Family for Mobile
Device Launches in
2019
www.qualcomm.com/news/onq/2018/02/14/our-5g-vision-closer-reality-everLearn more:
30. 30
>1,000
>10,000
Early 4G
4G today
4G carrier aggregation combinations
Early 5G combinations
Number of RF bands
and band combinations
By technology generation
A much wider
variation of
use cases
Advanced
wireless
technologies
49
16More diverse
deployment
scenarios
Many more
spectrum
bands/types
Complexity of mobile RF systems is accelerating
Multi-mode 4G/5G impacts RF-Front End design
4G
5G
31. 31
RF Transceiver
Power
Tracker
Power
Amplifier
Filter Antenna
Switch
Duplexer /
Hexaplexer
Switch
Antenna
Tuner
SwitchLow Noise
Amplifier
Diversity
Receive
RF Front End
Modem
A
N
T
E
N
N
A
S
Extractor
Multimode 3G/4G/5G poses
immense challenge
Next gen end-to-end system dynamically tunes RFFE performance
using modem intelligence and network information
End-to-end approach needed to address growing complexity
4G
Qualcomm Technologies
end-to-end system
uniquely positions us to
lead in 5G multimode RFFE
Qualcomm
RF Front
End
Modem
RFFE Controller
RF Front End
`
A
N
T
E
N
N
A
S
XCVR
www.qualcomm.com/news/onq/2018/02/27/leading
-rffe-revolution-paving-path-5g-success
Learn more about RFFE:
32. 32
Snapdragon X50 mmWave solution
Modem
SDR051
Integrated Circuit
Antenna module
5G mmWave antenna
modules and
transceiver chips
mm
Wave
Digital Trans-ceiver Power
Amps
Low
NoiseAmps
Switches
Intermediate Frequency
Baseband
Snapdragon X50 5G
mmWave architecture
Integrated antenna array
and RFFE for performance
and ease-of-use
Architecture allows flexible
placements and multiple modules
33. 33
Driving a rich 5G NR technology roadmap beyond eMBB
5G NR
URLLC
5G NR Spectrum Sharing in
unlicensed/shared spectrum
5G NR Non-Orthogonal
Multiple Access (NOMA)
5G NR
C-V2X
5G NR Integrated Access
and Backhaul
3GPP Rel-15
5G NR eMBB design
provides the foundation
Sub-6 GHz | mmWave
Wireless Industrial
Ethernet
Download the 3GPP Release-16 5G NR overview presentation to learn more — link
34. 34
5G is the foundation to what’s next.
We are the foundation to 5G.
Learn more at www.qualcomm.com / 5G
Driving the expansion
of 5G NR ecosystem
and opportunity
Making 5G NR
a commercial reality
for 2019 eMBB
deployments