Author: Alan Weissberger
Nokia Bell Labs sets world record in fiber optic bit rates
Nokia Bell Labs announced that its researchers set the world record for the highest single carrier bit rate at 1.52 Tbps over 80 km of standard single mode fibre, the equivalent of simultaneously streaming 1.5 million YouTube videos – which is four times the market’s existing approximately 400 Gbps. The company said this world record, along with other announced optical networking innovations, will further strengthen its ability to create networks for the 5G era that meet the ever-growing data, capacity and latency demands of Industrial Internet of Things (IIoT) and consumer applications.
Several of these achievements were presented as part of Nokia Bell Labs’ post deadline research papers at the Optical Fiber Communications Conference & Exhibition (OFC) that took place during March 9-15, 2020 in San Diego, CA. In addition, Nokia Bell Labs researcher Di Che was awarded the OFC Tingye Li Innovation Prize.
The highest single-carrier bitrate at 1.52 Tbps was set by a Nokia Bell Labs optical research team led by Fred Buchali. This record was established by employing a new 128 Gigasample/second converter enabling the generation of signals at 128 Gbaud symbol rate and information rates of the individual symbols beyond 6.0 bits/symbol/polarization. This accomplishment breaks the team’s own record of 1.3 Tbps set in September 2019 while supporting Nokia’s record-breaking field trial with Etisalat.
Nokia Bell Labs researcher Di Che and his team also set a new data-rate world record for directly modulated lasers (DML), which are crucially important for low-cost, high-speed applications such as datacenter connections. The DML team achieved a world record data rate beyond 400 Gbps for links up to 15 km.
Marcus Weldon, Nokia CTO and President of Nokia Bell Labs, said:
“It has been fifty years since the inventions of the low-loss fiber and the associated optics. From the original 45 Megabit-per-second systems to more than 1 Terabit-per-second systems of today – a more than 20,000-fold increase in 40 years – to create the fundamental underpinning of the internet and the digital societies as we know it. The role of Nokia Bell Labs has always been to push the envelope and redefine the limits of what’s possible. Our latest world records in optical research are yet another proof point that we are inventing even faster and more robust networks that will underpin the next industrial revolution.”
In addition to these world records, Nokia Bell Labs researchers have also recently achieved significant achievements in optical communications, including:
- The first field trial using spatial-division-multiplexed (SDM) cable over a 2,000km span of 4-core coupled-core fiber was achieved by researchers Roland Ryf and the SDM team. The experiments clearly show that coupled-core fibers are technically viable, offer high transmission performance, while maintaining an industry standard 125-um cladding diameter.
- A research team led by Rene-Jean Essiambre, Roland Ryf and Murali Kodialam introduced a novel new set of modulation formats that provide improved linear and nonlinear transmission performance at submarine distances of 10,000 km. The proposed transmission formats are generated by a neuronal network and can significantly outperform traditional formats (QPSK) used in today’s submarine systems.
- Researcher Junho Cho and team experimentally demonstrated capacity gains of 23% for submarine cable systems that operate under electrical supply power constraints. The capacity gains were achieved by optimizing the gain shaping filters using neural networks.
The researchers that achieved the world record and research results are part of Nokia Bell Labs’ Smart Optical Fabric & Devices Research Lab, which designs and builds the future of optical communications systems, pushing the state-of-the-art in physics, materials science, math, software and optics to create new networks that adapt to changing conditions and go far beyond today’s limitations.
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About Nokia
We create the technology to connect the world. Only Nokia offers a comprehensive portfolio of network equipment, software, services and licensing opportunities across the globe. With our commitment to innovation, driven by the award-winning Nokia Bell Labs, we are a leader in the development and deployment of 5G networks.
Our communications service provider customers support more than 6.4 billion subscriptions with our radio networks, and our enterprise customers have deployed over 1,300 industrial networks worldwide. Adhering to the highest ethical standards, we transform how people live, work and communicate. For our latest updates, please visit us online www.nokia.com and follow us on Twitter @nokia.
About Nokia Bell Labs
Nokia Bell Labs is the world-renowned industrial research arm of Nokia. Over its more than 90-year history, Bell Labs has invented many of the foundational technologies that underpin information and communications networks and all digital devices and systems. This research has resulted in 9 Nobel Prizes, three Turing Awards, three Japan Prizes, a plethora of National Medals of Science and Engineering, as well as three Emmys, two Grammys and an Oscar for technical innovations. For more information, visit www.bell-labs.com.
Media Inquiries:
Nokia
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Phone: +358 (0) 10 448 4900
E-mail: [email protected]
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References:
GSA: Over 250 5G devices announced with 67 commercially available
The Global mobile Suppliers Association (GSA) today reported that the number of announced 5G devices has broken the 250 barrier, spurred by a surge in 5G phone announcements. In January 2020, the number of announced 5G devices exceeded 200 for the first time; by early March[1] over 250 devices had been announced with GSA identifying 253 announced devices, of which at least 67 are commercially available today.
‘‘We are at a fascinating turning point in the industry where the whole ecosystem is embracing, pushing and delivering new 5G spectrum, networks and devices,” commented Joe Barrett, President of GSA. ‘‘The rate at which new 5G devices are being announced and the diversity of form factors points to continued rapid deployment and uptake of new 5G services. Based on vendors’ statements, we can expect more than 50 additional announced devices to become commercially available before the end of June 2020, and at GSA we’ll will be tracking and reporting regularly on these 5G device launch announcements for the industry as we continue to take the temperature of the 5G ecosystem.”
As more devices become commercially available, GSA is tracking vendor data on spectrum support. The latest market data reveals that just over two-thirds (68.0%) of all announced 5G devices are identified as supporting sub-6 GHz spectrum bands and just under one-third (30.8%) are understood to support mmWave spectrum. Just under 25% of all announced devices are known to support both mmWave and sub-6 GHz spectrum bands. The bands known to be most supported by announced 5G devices are n78, n41, n79 and n77.
Part of the GSA Analyser for Mobile Broadband Devices (GAMBoD) database, the GSA’s 5G device tracking reports global device launches across the 5G ecosystem and contains key details about device form factors, features and support for spectrum bands. Access to the GAMBoD database is only available to GSA Members and to GSA Associates subscribing to the service.
The March 2020 5G Ecosystem Report containing summary statistics can be downloaded for free from GSA’s website:
https://gsacom.com/paper/5g-devices-ecosystem-executive-summary-march-2020/?utm=devicereports5g
By mid-March 2020, GSA had identified:
- 16 announced form factors
- 81 vendors that had announced available or forthcoming 5G devices
- 253 announced devices (including regional variants, and phones that can be upgraded using a separate adapter, but excluding prototypes not expected to be commercialised and operator-branded devices that are essentially rebadged versions of other phones), including at least 67 that are commercially available:
o 87 phones, (up 25 from end January), at least 40 of which are now commercially available (up from 35 at end January). Includes three phones that are upgraded to offer 5G using an adapter.
o 76 CPE devices (indoor and outdoor, including two Verizon-spec compliant devices not meeting 3GPP 5G standards), at least 13 of which are now believed to be commercially available
o 43 modules
o 17 hotspots (including regional variants), at least nine of which are now commercially available
o 5 laptops (notebooks)
o 5 industrial grade CPE/routers/gateways
o 3 robots
o 3 televisions
o 3 tablets
o 3 USB terminals/dongles/modems
o 2 snap-on dongles/adapters
o 2 drones
o 2 head-mounted displays
o 1 switch
o 1 vending machine.
GAMBoD is a unique search and analysis tool that has been developed by GSA to enable searches of mobile broadband devices and new global data on Mobile Broadband Networks, Technologies and Spectrum (NTS). The 5G devices database contains details about device form factors, features, and support for spectrum bands. Results are presented as a list or in charts. Charts may be inserted into documents or presentations, subject to accreditation of GSA as the source.
GAMBoD is a resource dedicated to promoting the success and growth of the Mobile Broadband (MBB) industry and ecosystem and is fully available to all employees of GSA Executive and Ordinary Member companies and GSA Associates who subscribe to the service.
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Availability of information about spectrum support is improving as a greater number become commercially available.
- Just over two-thirds (68.0%) of all announced 5G devices are identified as supporting sub-6 GHz spectrum bands and just under one third (30.8%) are understood to support mmWave spectrum. Just under 25% of all announced devices are known to support both mmWave and sub-6 GHz spectrum bands.
- Only 17 of the commercially available devices (25.4% of them) are known to support services operating in mmWave spectrum.
- 83.6% of the commercially available devices are known to support sub-6 GHz spectrum.
The bands known to be most supported by announced 5G devices are n78, n41, n79 and n77. We can expect the device ecosystem to continue to grow quickly and for more data to become available about announced devices as they reach the market. Based on vendors’ statements, we can expect more than 50 additional announced devices to become commercially available before the end of June 2020. GSA will be tracking and reporting regularly on these 5G device launch announcements. Its GAMBoD database contains key details about device form factors, features and support for spectrum bands. Summary statistics are released in this regular monthly publication.
About GSA
GSA is the voice of the mobile vendor ecosystem representing companies engaged in the supply of infrastructure, semiconductors, test equipment, devices, applications and mobile support services. GSA actively promotes the 3GPP technology road-map – 3G, 4G, 5G – and is a single source of information resource for industry reports and market intelligence. The GSA Executive board comprises of Ericsson, Huawei, Intel, Nokia, Qualcomm, and Samsung.
GSA Membership is open to all companies participating in the mobile ecosystem and operators, companies and government bodies can get access to GAMBoD by subscribing as an Associate. More details can be found at https://gsacom.com/gsa-membership
Verizon 5G Ultra Wideband service at DoE’s Pacific Northwest National Laboratory
“Our 5G Ultra Wideband network is built to support transformational innovations and solutions across all industries,” said Tami Erwin, CEO of Verizon Business. “There’s no doubt 5G’s increased data bandwidth and super-low lag will help play a critical role in evolving response connectivity and mission operations for first responders. We’ve seen exciting use cases come out of our 5G First Responder Lab and are thrilled to see the new applications that will arise from our work with PNNL.”
This engagement is part of Verizon Business’ broader strategy to partner with customers, startups, universities and large enterprises to explore how 5G can disrupt and transform nearly every industry. Verizon operates five 5G Labs in the U.S. and one in London that specialize in developing uses cases in industries ranging from health care to public safety to entertainment. In addition, Verizon is setting up 5G labs on-premise for several customers as part of an ongoing initiative to partner on 5G-related use cases to help customers transform their industries.
Verizon 5G Labs and Dignitas are also using the 5G network to enhance e-sports. The goals are to improve participants’ performance and recovery and to enable innovative fan/participant interactions. The first e-sports training facility is at Verizon’s 5G lab. It will serve as Dignitas’ west coast headquarters and home to its league of champions.
References:
https://www.verizon.com/about/news/verizon-business-national-lab
https://www.verizon.com/about/our-company/5g-labs
Verizon Explores 5G Use Cases for National Security, Energy Efficiency at DOE Lab
Cignal AI: North American Optical Sales Rebound In 2019
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South Korean operators to invest $3.365B (4T W) in 5G network infrastructure-1st half 2020
South Korea’s Ministry of Science and ICT announced on Friday that the country’s three main network operators SK Telecom, KT and LG Uplus have agreed to invest KRW 4 trillion in their 5G networks in the first half of 2020, The Korea Times reports.
Investments will cover the cost of the installation of additional equipment to enhance 5G service coverage. The agreement was reached on 5 March, during a video conference call between Minister of Science and ICT Choi Ki-young, and SK Telecom CEO Park Jung-ho, KT CEO Koo Hyun-mo, and LG Uplus CEO Ha Hyun-hwoi.
LG Uplus worker installs a 5G base station in Seoul in this Feb. 12 photo. Korea Times file
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The initial investment had been set at KRW 2.7 trillion, but has now been expanded to KRW 4 trillion. The additional investment will be used to deploy 5G infrastructure in subways, railroads, department stores and universities.
South Korea ended January with 92,000 5G base stations installed nationwide.
“For every one LTE base station, there needs to be around four 5G base stations for there to be similar coverage. Coverage also depends on the environment and location,” said an unnamed representative of one of the three South Korean mobile operators.
Many industry experts say the 5G market will continue to grow in the coming months and at its current pace could reach over 11 million subscribers this year, although there were only around 4.95 million as of the end of January.
Market watchers believe diverse services such as cloud gaming and augmented reality will be launched in the first half of the year alongside new 5G-enabled smartphones throughout the year. They say this will contribute to the growth in the industry.
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South Korea ended 2019 with 5 million 5G subscribers. SK Telecom, KT and LG Uplus commercially launched fully-fledged 5G mobile networks on 3 April 2019. In August last year, SK Telecom led South Korea’s 5G market with 84 million subscribers, followed by KT with 630,000 and LG Uplus with 540,000. KT passed 1 million 5G customers on 21 September 2019, less than six months since launching the service.
In January, SK Telecom, KT and LG Uplus collaborated to provide 5G services on subways in major South Korean cities. The three operators completed the deployment of 5G infrastructure on the subway system in Gwangju, 330 kilometers southwest of Seoul. The operators plan to install 5G networks for subways and metro stations in major cities, including Daegu, Daejeon and Busan, in the first quarter of this year.
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From a GSMA report: 2020 Mobile Economy
In general, consumers in South Korea and China – having witnessed some of the earliest launches – appear to be the most excited by the prospect of upgrading to 5G, while those in the US, Europe and Japan seem more content with 4G for the time being,” the GSMA adds, before striking an upbeat note: “5G is still in its infancy though; as more tangible use cases are deployed, more consumers will appreciate the benefits of 5G.
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References:
https://www.koreatimes.co.kr/www/tech/2020/03/133_285715.html
SoftBank to be 1st to launch 5G network service in Japan
SoftBank has announced it will launch 5G services on March 27th in Japan – the first network operator to launch 5G services, according to Japan Times.
SoftBank plans to charge an additional monthly fee of JPY 1,000 (approximately USD 9) for access to its 5G service. However, as a service launch promotion, customers will have free access to SoftBank’s 5G service for the first 2 years, under a sales campaign that runs until August.
SoftBank plans to initially provide its 5G service in Tokyo, Osaka, Chiba, Aichi, Hiroshima, Ishikawa and Fukuoka prefectures, starting 31 March. The operator intends to deploy more than 10,000 base stations by end-March 2023.
SoftBank will start selling two 5G-enabled smartphone models on March 27th and add two more later this year. Sharp and Sony recently unveiled their first 5G smartphone models. SoftBank plans to provide 5G smartphones from Sharp, China’s ZTE, Oppo and LG. Sharp unveiled its first 5G smartphone model, the Aquos R5G, on 17 February. The Android phone will be available in Japan this spring and its price will be similar to existing high-end smartphones, Sharp said.
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Rivals NTT Docomo Inc. and KDDI Corp. are expected to reveal their own 5G plans soon.
While the launch of 5G in Japan will ramp up domestic competition, Rakuten Inc.’s foray into the market as the nation’s fourth big carrier will stir things up further.
Earlier this week, Rakuten announced it would undercut its rivals with a 4G service on April 8 that only costs ¥2,980 a month for unlimited data usage.
The plan is about half the price charged by the top three mobile phone carriers, but Rakuten’s coverage is limited by comparison. Rakuten also said the first year of its 4G service would be free for the first 3 million subscribers.
SoftBank’s 4G plan costs ¥6,500 a month for up to 50GB of data, with a ¥1,000 discount for the first year. SoftBank, however, has recently lowered prices — ostensibly to head off Rakuten’s aggressive charge — and is laying the groundwork for getting customers to shift to 5G without any added financial catches.
Rakuten will reportedly launch a 5G network in June. This new age carrier had previously announced plans to launch 4G services starting April, and then upgrade to 5G in summer as it gradually expands the network. It aims to have nationwide Japan coverage by March 2021.
Pre-standard 5G networks have already been deployed in the United States, South Korea, China and parts of Europe.
References:
https://www.japantimes.co.jp/news/2020/03/05/business/tech/softbank-5g-japan-first/
https://www.telecompaper.com/news/softbank-to-launch-5g-service-in-japan-on-27-march–1329354
AT&T deploys XGS-PON to power FTTH nets
AT&T has enhanced its fiber-to-the-home (FTTH) “last mile” network by deploying XGS-PON [1.] technology which will be live in 40 markets. AT&T will start out providing 1 gigabit download speeds before eventually boosting them to 10 gigabits per second in both directions as it upgrades from GPON networks. The company said it has deployed XGS-PON in “a few thousand locations” noted that it has employed multiple vendors in the process. It’s part of AT&T’s road map to virtualize network access functions within its last mile network.
NOTE 1. XGS-PON is a fixed wavelength symmetrical 10 Gbps passive optical network technology.
The “X” in XGS represents the number 10, and the letter “S” stands for symmetrical, XGS-PON = 10 Gigabit Symmetrical PON. An earlier, non-symmetrical 10 Gigabit PON version (XG-PON) was limited to 2.5 Gbps in the upstream direction.
PON technology originated in the 1990’s and has continued to develop through multiple iterations with differing wavelengths, speeds and components emerging as the technology has improved. The common denominator of all fiber optic PON networks remains the unpowered or passive state of the fiber and its splitting or combining components, i.e. no active elements such as optical amplifiers, which would require power, are present in the network. With streaming, high definition, 5G and other emerging technologies continually pushing bandwidth demands, the development of XGS-PON and other standards has proven to be essential.
Simultaneous upstream and downstream transmission over the same fiber is made possible through wavelength division multiplexing (WDM). This technology allows one XGS-PON wavelength or color of light transmission for upstream and another for downstream.
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Two years ago, AT&T completed trials of 10 Gbps XGS-PON by using Open Source Access Manager Hardware Abstraction (OSAM-HA) software in Atlanta and Dallas. OSAM-HA was released into the Open Networking Foundation (ONF) in 2017 as VOLTHA.
- OSAM, which used the Open Networking Automation Platform (ONAP) platform that AT&T helped develop, is a vendor-agnostic operational suite for managing consumer and business broadband access network elements and capabilities. ONAP has undergone several major releases over the past few years.
- ONF’s Virtual OLT Hardware Abstraction (VOLTHA) open source software project, which is a component of ONF’s SDN Enabled Broadband Access (SEBA) platform, abstracts a PON network to make it manageable as if it were a standard OpenFlow switch.
- SEBA describes how to assemble a collection of open source components to build a virtualized PON network to deliver residential broadband and mobile backhaul. SEBA uses a disaggregated white-box approach for building next generation access networks by using open source.
“AT&T continues to work with open communities such as ONF, ONAP, and OCP (Open Compute Project) to drive innovation, time-to-market, and cost improvements as we build next generation networks,” the company said in a March 4th statement in regard to a request for more information on the deployments in the 40-plus cities.
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Conventional wisdom in the fiber broadband industry suggests NG-PON2 is the platform most providers will eventually adopt, with XGS-PON as an interim step to get there.
Verizon seems to be leapfrogging that approach. For what it’s worth regarding conventional wisdom, the AT&T spokesperson tells Telecompetitor, that “AT&T is not currently planning to use NG-PON2 at this time.”
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References:
AT&T Fiber Begins Transition to Next Generation XGS-PON FTTH
https://www.fiercetelecom.com/telecom/at-t-tees-up-1-gig-xgs-pon-speeds-over-40-cities
https://www.viavisolutions.com/en-us/xgs-pon
http://www.tarluz.com/ftth/specification-differences-among-gpon-xg-pon-and-xgs-pon/
AT&T deploys XGS-PON to power FTTH nets
AT&T has enhanced its fiber-to-the-home (FTTH) “last mile” network by deploying XGS-PON [1.] technology which will be live in 40 markets. AT&T will start out providing 1 gigabit download speeds before eventually boosting them to 10 gigabits per second in both directions as it upgrades from GPON networks. The company said it has deployed XGS-PON in “a few thousand locations” noted that it has employed multiple vendors in the process. It’s part of AT&T’s road map to virtualize network access functions within its last mile network.
NOTE 1. XGS-PON is a fixed wavelength symmetrical 10 Gbps passive optical network technology.
The “X” in XGS represents the number 10, and the letter “S” stands for symmetrical, XGS-PON = 10 Gigabit Symmetrical PON. An earlier, non-symmetrical 10 Gigabit PON version (XG-PON) was limited to 2.5 Gbps in the upstream direction.
PON technology originated in the 1990’s and has continued to develop through multiple iterations with differing wavelengths, speeds and components emerging as the technology has improved. The common denominator of all fiber optic PON networks remains the unpowered or passive state of the fiber and its splitting or combining components, i.e. no active elements such as optical amplifiers, which would require power, are present in the network. With streaming, high definition, 5G and other emerging technologies continually pushing bandwidth demands, the development of XGS-PON and other standards has proven to be essential.
Simultaneous upstream and downstream transmission over the same fiber is made possible through wavelength division multiplexing (WDM). This technology allows one XGS-PON wavelength or color of light transmission for upstream and another for downstream.
………………………………………………………………………………………………………………………………….
Two years ago, AT&T completed trials of 10 Gbps XGS-PON by using Open Source Access Manager Hardware Abstraction (OSAM-HA) software in Atlanta and Dallas. OSAM-HA was released into the Open Networking Foundation (ONF) in 2017 as VOLTHA.
- OSAM, which used the Open Networking Automation Platform (ONAP) platform that AT&T helped develop, is a vendor-agnostic operational suite for managing consumer and business broadband access network elements and capabilities. ONAP has undergone several major releases over the past few years.
- ONF’s Virtual OLT Hardware Abstraction (VOLTHA) open source software project, which is a component of ONF’s SDN Enabled Broadband Access (SEBA) platform, abstracts a PON network to make it manageable as if it were a standard OpenFlow switch.
- SEBA describes how to assemble a collection of open source components to build a virtualized PON network to deliver residential broadband and mobile backhaul. SEBA uses a disaggregated white-box approach for building next generation access networks by using open source.
“AT&T continues to work with open communities such as ONF, ONAP, and OCP (Open Compute Project) to drive innovation, time-to-market, and cost improvements as we build next generation networks,” the company said in a March 4th statement in regard to a request for more information on the deployments in the 40-plus cities.
……………………………………………………………………………………………………………………………….
Conventional wisdom in the fiber broadband industry suggests NG-PON2 is the platform most providers will eventually adopt, with XGS-PON as an interim step to get there.
Verizon seems to be leapfrogging that approach. For what it’s worth regarding conventional wisdom, the AT&T spokesperson tells Telecompetitor, that “AT&T is not currently planning to use NG-PON2 at this time.”
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References:
AT&T Fiber Begins Transition to Next Generation XGS-PON FTTH
https://www.fiercetelecom.com/telecom/at-t-tees-up-1-gig-xgs-pon-speeds-over-40-cities
https://www.viavisolutions.com/en-us/xgs-pon
http://www.tarluz.com/ftth/specification-differences-among-gpon-xg-pon-and-xgs-pon/
5G Technology and It’s Future in Mobile Communications
by Jacob Wolinski. Excerpts of article posted at: https://www.valuewalk.com/2020/03/5g-tech-market/
Introduction:
It is evident that 3G and 4G network mobile phones have been an immense driver in the steep surge of internet use on mobile phones, across the world, and the continuing growth of the network.
The next generation of a telecom network is 5G, which operates at higher radio frequencies. This also offers the chance for much quicker internet speeds: –
In this table, it clearly claims the uprising about 5G is that it will change the world. This is because the capability and capacity of the 5G technology have the tendency to transform existing technologies in incredible ways.
Various Studies on 5G Technology:
Here is the list of various studies over 5G technology that came up when the revolution was going to happen. They are as follows:
Impact on Various Industries:
5G will employ an enormous influence mainly in the automotive, healthcare, and IoT sectors in the near future, and will dramatically change lives. 5G technology will, however, take time to have an analogous effect on other industries.
5G will Generate New Revenue Streams:
It has been observed that the 5G network has the possibility to unlock up to $12.3 trillion of revenue, crosswise a broad range of telecom industries.
5G Technology Will Create New Growth and Jobs:
It is predictable that by the year 2035, the output from the global value chain of 5G (network operators) will be superior to what the entire mobile value chain is at present. In terms of contribution to global GDP, research predicts that contribution of 5G between the years of 2020 and 2035 will equal the size of India’s economy in recent times and will also see 5G supporting 22 million jobs globally.
5G will Drive Innovation of New Genres of Products and Services
5G technology has the potential to give rise to new industries, along with having an impact on existing businesses in terms of the products and services. Research indicates positive outlooks on 5G’s technology towards ensuring security and reliability.
In fact, while 5G evolves into a more tangible network, there will be much happening depending on investments that are being made in 5G infrastructure, related applications, products as well as services.
In the new term, a broad agreement is that initial deployments of 5G will be driven by enhanced mobile broadband (eMBB). However, eMBB alone will not be able to create substantial revenue from 5G for network operators. Yet, past migrations from one generation of mobile technology to the next invariably meant consumers might pay almost similar amounts while data speeds increased, and call-data payments grew due to falling unit network cost.
For wide-spread and transformative impact along with tangible business benefits, the 5th generation of wireless network technologies will need to expand its scope. Thus, the possibilities of 5G technology are immense in the coming years.
Features of 5G Technology:
In the essential aspect, 5G technology caters to a lot of possibilities to explore new ways to manage networks. In this, a term referred to as network slicing comes up, which empowers a single physical network that supports many virtual networks with assorted performance and features. Picking an instance, one network slice can deliver high-speed mobile broadband on the same infrastructure, above which another slice might result in lower consumption of network over the speed of the connection, which is in 5G.
In fact, 5G technology also makes it possible to use the same infrastructure in offering various services to different users and industry-sectors. After seeing such tremendous outcome, it is evident that 5G technology will, therefore, open lucrative scopes for more new business models in the future than the current environment where network providers offer the same services, yet the only variation is in regards to pricing and the bill plans.
Enhancements for Future Mobile Broadband:
The established reliable 5G technology continues to work on multiple fronts to improve its performance and efficiency further, counting improved coverage, capacity, potential, mobility, power, and more. These enhancements will further benefit not only core mobile broadband services and smartphone connectivity, but also the prolonged use cases that 5G NR is bringing with Release 16 and more.
Another critical area of research is continued towards advancements in multiple antenna MIMO technology. There has been a proper working on enhancements that can deliver more optimized downlink and uplink massive MIMO operations, along with reduced signaling, lower latency, and expanded support for multiple transmission points.
Besides, there has also been a proper focusing on further reduction of device power consumption with features like enhanced C-DRX, which is known as connected mode discontinuous reception and 2-step RACH (simplified random-access procedure). With this, improving mobility is another core research area for multi-network access systems with enhancements for minimizing network interruptions, thus allowing for quicker activation of proper connection, and supporting more seamless dual connectivity.
2020 – Is the Year of Real 5G?
At present, 5G is leading in the telecom industry. A lot of operators all over the world are preparing or already commercially launching new services for the customers to connect to next-generation mobile networks with 5G technology.
Most of the early deployments in 5G technology are based on especially RAT (Radio Access Technology) upgrades, that uses the existing frequency spectrum and legacy core network. This results in delivering a fraction of the technology’s potential. Though 5G expectations were set very high where the data rates grew up to 1 Gb/s downlink, the end-users often get surprised when they experience better improvement in comparison to existing 4G technology.
Upgrades of these core networks, which include edge computing, virtualization (VNF and SDN technologies), and network slicing, will let them forming new platforms for 5G tech market growth. While some mobile operators in the line are still analyzing potential deployment strategies, and others are already advanced in upgrading their infrastructure of networks using 5G.
In the case of point, Verizon introduced CAPEX efficiencies since implementing its Intelligent Edge Network with unified transport and the single network core. It has completed 60% of a unified framework for various networks by Q4 20191. Another major market player in the US telecom industry, AT&T, in collaboration with Microsoft’s Azure Cloud, has virtualized 75% of its primary network functions with software by the end of the year, consenting them to cut $1.5 billion in costs in the year 2020.
Potential of 5G Technology:
The potential use of 5G technology has been subjected to the assumption for moderately some time. It is supposed that 5G has the potential to change many industries and can take further in smart cities, autonomous vehicles, smart industry 4.0, and more. It is a great thanks to the new features and enhancements found in 5G technology in the present year, where mobile operators can potentially see more returns on their significant investments. The improvements in mobile broadband that includes power consumption can thus allow device vendors to produce cheaper handsets, thereby raising the number of users and helping mobile operators spend less on device subsidies.
The Expanding 5G Tech Market Snapshot:
As per a study conducted by Market Research Future, the global level market of 5G technology is expanding year by year. The real growth period is detected to be between 2020 to 2025, in which the 5G tech market will be developing more than present at a compound annual growth rate of 70.83%. Even the market can achieve a valuation of USD 700 Bn by 2025-end, by examining massive opportunities knocking the door in the present time.
The final report of the 5G tech market is picked from https://www.marketresearchfuture.com/reports/5g-technology-market-2988.
The market, as per the study, is gaining a quick mileage. A developing solution to the network, along with cost-effective and feasible options, is making the market vulnerable to attain more worth than before in the future. When looking at regional prospects, North America is becoming the ruler and is at the forefront in the adoption of 5G technology at a rapid pace. This region is commanding more than two-thirds of the global market share. The reasons depicting such a rise in the 5G tech market here is attributed to the swelling popularity of consumer electronic devices with applications that depend on a high-speed network. Thus, the statistics presented that North America’s regional market is expected to exhibit a CAGR of 71.0% throughout the growth period.
Followed by North America, the Asia-Pacific region is also likely to emerge as the second-largest market for 5G technology by the year 2025. The region shows the potential of reaching a valuation of USD 17.55 at 74.60% CAGR.
Gartner: Enterprise Data Network Services Market Moves to Transformational Technologies
Market Overview
Gartner forecasts that the market for enterprise data networking services in 2020 will be $157.5 billion, broadly unchanged from 2019 (see “Forecast: Enterprise Communications Services, Worldwide, 2017-2023, 4Q19 Update”).
The number of global NSPs included in this Gartner research has increased as more providers have met our revised inclusion criteria. In addition to large global providers, enterprises are increasingly willing to consider smaller providers, including managed service providers with little or no network infrastructure of their own (such as those featured in the “Market Guide for Managed SD-WAN Services”). Alternatively, enterprises may choose a combination of multiple regional providers.
Sourcing Trends
Providers are increasingly focused on providing the managed service platform (e.g., managed SD-WAN and NFV/vCPE); however, they are also more open to “bring your own access” and other flexible sourcing approaches for the network transport components.
The global network service market continues to move toward a more software-driven, as-a-service model, with increasing levels of visibility and self-service via portals and APIs available to enterprise customers.
However, this means providers are reluctant to allow deviations from their standard offerings, because that will require deployment of a custom solution at a higher cost that could rapidly become obsolete in this fast-moving market.
Operational Trends
The network buying discussion is gradually moving away from technologies toward outcomes and service levels. Providers continue to improve their SLAs with more-realistic objectives and more-meaningful penalties for failing to meet those objectives, increasingly including the right to cancel the service in the event of chronic breach. Installation lead times — a pain point for many enterprises with global networks — are starting to be covered by standard SLAs, and providers are striving to improve delivery times, although they remain frustrated by third-party/local access providers. The increasing speeds of cellular services are making this technology more useful as a rapid deployment (interim) solution. In addition, it provides a truly diverse backup option. However, the hype around 5G cellular replacing fixed connectivity should be treated with caution, due to maturity issues — especially coverage limitations.
Electronic quoting and ordering are increasingly widespread, with electronic bonding between the global providers and their local access providers. Self-service ordaining and/or provisioning, as well as the increased visibility of the service being delivered via portals continue to gain momentum. This is blurring the lines between managed services and self-management, to create a spectrum of co-management possibilities.
However, global networks are also becoming more complex, because transport becomes a hybrid of MPLS, internet and Ethernet; cloud endpoints are added; and SD-WAN and NFV technology are added. In addition, the internet, especially using broadband or cellular access, is an inherently less predictable service than MPLS. Visibility capabilities, sometimes referred to as performance analytics, can help by enabling enterprises see the actual performance of their applications.
Thanks to the continual investment in enhancing the customer experience, customer satisfaction with global NSPs is improving.
Network Architectures
New global network proposals are predominantly for managed SD-WAN services based on a hybrid mix of MPLS and internet transport, with different applications using the most appropriate link type. Most providers support a small portfolio of SD-WAN vendors, because the market is more fragmented and differentiated than the router market it is replacing. Some providers offer network-based SD-WAN gateways, allowing traffic to use the internet for access, but use the providers’ higher-quality, long-haul backbones.
Enterprises’ adoption of cloud IT service delivery remains key to transforming their WAN architectures. Fortunately for enterprises, global NSPs have deployed a range of capabilities to address enterprises’ cloud connectivity needs (see “Five Key Factors to Prepare Your WAN for Multicloud Connectivity”).
The providers in this research offer carrier-based cloud interconnect from their MPLS and Ethernet networks to leading CSPs, such as Amazon, Microsoft and Google. Most offer connection to additional cloud providers as well. The key differentiators are the specific cloud providers and the cities connected, and the ability to add virtualized services (e.g., security) into the cloud connection points.
Managed SD-WAN services typically offer the option of local internet access (split tunneling) from every site, which is especially useful for access to SaaS applications, such as Microsoft Office 365. Perimeter security can be provided on-site or as a cloud-based service. An option for managed SD-WAN services is for the provider to deploy network-based SD-WAN gateways to facilitate interconnection between SD-WAN and non-SD-WAN networks, improve scalability and avoid the need for traffic to traverse long distances over the internet. Alternatively enhanced internet backbone services may be available to improve the performance of cloud service access over the internet and to improve end-to-end performance, when using the internet as a transport link.
An increasing number of global WANs incorporate managed application visibility and/or WAN optimization, with some providers now offering application-level visibility by default. SD-WAN services, which operate based on application-level policies, also typically offer inherently higher levels of application visibility.
Network functions, such as edge routing, SD-WAN, security, WAN optimization and visibility, can be delivered as on-site appliances. However, many providers prefer to offer these as VNFs, running in NFV service nodes in their POPs or in uCPEs, which are essentially industry-standard servers, deployed at the customers locations, supporting one or more virtual functions. This makes it easy to rapidly change the functions deployed in the network and is also usually consumed on an “as a service” basis with a monthly subscription fee for each function.
Ethernet WAN services (virtual private line and virtual private LAN services) remain more niche. They are principally used for data center interconnection; high-performance connections, including extranets (such as trading networks); or for sites that are geographically close (i.e., Metro Ethernet). Different combinations of these services can be used to obtain different service levels appropriate to each enterprise location.
Providers are starting to offer NoD services, where bandwidth can be adjusted via a portal or APIs. Some of these services support multiple services (e.g., MPLS and internet) on a single access line, and also allow dynamic control of cloud connectivity.
Access Options
WAN access is evolving, with traditional leased-line access, such as T1 or E1 lines, no longer proposed in new deals, except when no other form of access is available, such as in rural locations or some emerging markets.
Pricing for these legacy service types is typically increasing, and, in some cases, the services are reaching the end of their life.
Traditional access lines have largely been replaced by optical Ethernet access at 10 Mbps, 100 Mbps, 1 Gbps or 10 Gbps. The scale economics of Ethernet access are very good, with each tenfold increase in speed, typically increasing cost by only two to three times. As a result, in developed markets, enterprises now tend to purchase access lines with much higher speeds than they initially require, with the port capacity limited to their current needs. This allows them to easily and quickly upgrade capacity in response to changing requirements.
For smaller, less critical or remote locations, broadband (increasingly, “superfast broadband,” such as very-high-speed DSL [VDSL], cable modem or passive optical network [PON]) is the access technology of choice, despite having no SLAs or poorer SLAs than Ethernet access. When enterprises require large numbers of broadband connections, they can sometimes find that they are able to get better pricing than that offered by global service providers by sourcing broadband access directly or from aggregators. Many providers now support “bring your own broadband.” This refers to the service provider delivering managed services over broadband sourced by the enterprise.
Finally, cellular connectivity (4G) and, in the future, 5G, is increasingly being used for backup, rapid deployment or temporary locations, although it does not offer SLAs. As with broadband, enterprises may be able to get attractive deals for data-only mobile services themselves, which will then be managed by their global provider.
Managed Services
Most global WANs are delivered on a managed service basis, with the on-site devices, such as routers, security appliances and WAN optimizers, provided and managed by the service provider. Transport links are usually sourced from the managed service provider, but might also be sourced by the enterprise, who would then give the managed service provider operational responsibility for them. Although more U.S.-headquartered multinationals are moving to managed network services, a significant number still manage their networks in-house and only source transport links from their global providers.
As more network functions, such as SD-WAN application policies or NoD bandwidth, are controllable via the providers’ portals and APIs, networks are moving more to a co-managed reality. In this case, responsibilities for various network management functions are divided between the provider and the enterprise.
Pricing Trends
Downward pressure on global network service prices is relentless (e.g., global MPLS services are undergoing unit price declines averaging 10% per year, although with strong regional variance). Gartner has produced research summarizing and predicting pricing trends for different services and geographies (see “Network Service Price Trends: What You Need to Know to Save Money on Your Next Contract Negotiation”). The response from providers varies, with some focusing on extending their own networks, while others are relying heavily on network-to-network interface (NNI) connections to partners to improve their regional coverage. Most providers are increasingly using carrier-neutral communications hubs, such as those operated by Equinix, to allow them to cost-effectively interconnect with multiple access, backbone and cloud providers.
These hubs, particularly when combined with NFV and/or SD-WAN, have dramatically reduced the level of investment required to be competitive in the global network service market. This has allowed smaller providers, including some of the more recent entrants to this Magic Quadrant, to offer solutions competitive with those of the largest providers. However, maintaining a consistent set of service features and user experiences across these different elements remains a challenge.
Change Underway:
The network service market is undergoing a major transformation, with new generations of software-based network technologies enabling new services and new business models that are less focused on large-scale infrastructure. To reflect these trends, this Magic Quadrant focuses on transformational technologies and/or approaches that address the future needs of end users, as well as today’s market.
Gartner defines the global network service market as the provision of fixed corporate networking services with worldwide coverage.
Current global network services evaluated in this Magic Quadrant include:
- WAN Transport Services — These include Multiprotocol Label Switching (MPLS) service, Ethernet services and internet services, such as dedicated internet access (DIA), broadband and cellular.
- Carrier-Based Cloud Interconnect (CBCI) — This is a direct connection between a service provider’s enterprise network services, such as MPLS and/or Ethernet services, and the private connection option of one or more cloud service providers (CSPs). CBCI can be established directly between the network service provider (NSP) and the cloud provider or via a cloud exchange, such as Equinix Cloud Exchange.
- Managed WAN Services — These include managed software-defined WAN (SD-WAN). Although a minority of enterprises are renewing their managed router networks, most new managed global network deployments in 2019 were managed SD-WAN networks using a mix of MPLS and internet transport. This is a trend Gartner expects to continue. An option for managed SD-WAN services is for the provider to deploy network-based SD-WAN gateways to facilitate interconnection between SD-WAN and non-SD-WAN networks, improve scalability and avoid the need for traffic to traverse long distances over the internet.
Emerging global network services that will be evaluated include:
- Network On Demand (NoD) — NoD services from NSPs enable enterprises to make real-time changes to access/port bandwidth, change the WAN service types delivered over a network port and, in some cases, add and remove endpoints (e.g., connections to cloud providers). This occurs under software control, via the provider’s web portal or APIs.
- Network Function Virtualization (NFV) — NFV is an architecture to deliver multiple network functions, including routing, firewall, SD-WAN, WAN optimization, visibility and voice as software, termed virtual network functions (VNFs). NFV enables enterprises to rapidly (in minutes) deploy network functionality to locations where it is required. This functionality is the replacement for purpose-built hardware devices, such as routers, security devices or WAN optimizers. NFV can be implemented on universal customer premises equipment (uCPE; see below) or in NFV service nodes, located in the provider’s network, or in colocation facilities. NFV enables network functions to be activated on demand (and deactivated when no longer required) and consumed on an “as a service” basis. This can improve the agility and cost-effectiveness of the enterprise WAN.
- Virtual Customer Premises Equipment (vCPE) — This is the use of industry-standard x86 devices (uCPE), rather than function-specific appliances, to deliver enterprise network edge functions, including WAN edge routing, SD-WAN, WAN optimization, visibility and security functions (e.g., firewalls).
In addition, it is highly desirable for providers to offer related network services, including managed WAN optimization, managed application visibility, and managed, network-related security services. Integrators, virtual operators and carriers may be included, but only if they will bid for stand-alone WAN deals and provide and manage offerings that include the WAN connectivity.
During the past 12 months, Gartner has seen continued changes in enterprise requirements and buying criteria for global networks. Enterprises are placing an ever-growing emphasis on their need for greater agility and especially enabling their organization’s adoption of cloud services and the Internet of Things (IoT). They are increasingly willing to consider smaller providers and innovative services, particularly those that can be consumed on an as-a-service basis. Therefore, they are placing less emphasis on supplier size, network scale and the availability of large numbers of provider staff to deliver customized capabilities.
NSPs are taking advantage of the marketplaces created by carrier hubs, such as those provided by Equinix and Digital Reality. This enables them to source access that’s distance-insensitive, at the national or even regional level, reducing the need to deploy large numbers of network points of presence (POPs). POPs are increasingly acting as gateways between access and backbone network services of various types, and cloud providers. In addition, they are serving as locations where virtualized network services, such as security, can be applied.
Internet services, including broadband, DIA and cellular, are growing in importance as transport options, alongside the continued use of MPLS and Ethernet services. New services such as managed SD-WAN, NoD services, NFV and vCPE, which transform the enterprise networking market, are being deployed to improve the agility of providers’ network solutions. Many of these services require a platform-based approach to delivering services, increasing the trend to move away from customized solutions, toward standard, off-the-shelf managed services, consumed on an as-a-service basis.
We are seeing a distinct split in providers’ attitudes toward NFV and vCPE. Some providers are “doubling down” on the technology, making it their default edge device offering. Others are still focusing on appliances at the network edge, frequently accompanied by network-based NFV, especially for services such as security.
Although delivering against a strong technological roadmap is important, it is equally important that services be delivered with good operational performance to implement and sustain them.
The inclusion and exclusion criteria for this year’s Magic Quadrant (see Figure 1), although similar to prior years, have been adjusted to reflect these trends.
Figure 1. Magic Quadrant for Network Services
Source: Gartner (February 2020)
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Digital business initiatives are placing increasing demands on the enterprise network, increasing the needs for bandwidth (between 20% and 30% annually), reliability and performance. Video, live and stored, is driving significant increases in bandwidth, whereas IoT typically requires greater reliability.
A growing proportion of enterprise applications are being delivered as cloud services — infrastructure as a service (IaaS), platform as a service (PaaS) and SaaS. This requires incorporation of cloud endpoints into the network and a burgeoning need for data center-to-cloud and cloud-to-cloud connectivity.
Above all, digital business requires that enterprise networks become significantly more agile, to allow the rapid accommodation of new endpoints, new applications and new network capabilities. However, enterprises continually need to do all of this, while optimizing their WAN expenditure.
To address these requirements service providers are deploying a range of new networking technologies. SD-WAN is now the default offering for new network deployments and major refreshes, while the virtualization of network edge functions, using NFV and vCPE, is gradually becoming more common. CBCI is also mainstream, complemented by emerging NoD services.
Growing use of the internet as a network transport option, together with cloud endpoints, is resulting in performance uncertainty, and is driving significant demand for application visibility services.
Fortunately, enterprises can choose from a wide selection of solution providers, most operating across multiple geographies. This breadth is allowing enterprises to choose between one, two or many providers to find the best solution for their specific needs. These decisions will be based on geographic requirements, the specific service required and the preferred sourcing approach (i.e., the enterprise’s desire to manage multiple networks from multiple providers). Competition continues to drive down unit prices for global networking services. However, in a market in which there are no meaningful price lists, enterprises still need to use competitive procurement practices and strong negotiations to obtain the best prices.