AT&T Launching a dozen 5G “Edge Zones” across the U.S.; Seeking Federal Funds for Fiber Optic Network Expansion

AT&T is expanding its 5G standalone (SA) core network through “edge zones” that can more quickly connect to cloud service providers including Microsoft Azure, Amazon Web Services (AWS), and Google Cloud Platform (GCP).

AT&T CTO Jeremy Legg noted in a blog post that the carrier currently has 10 of these edge zones up and running across the U.S., with plans to add at least two more of these “localized 5G network capabilities” before the end of the year. Many more will follow in 2023 and beyond.

These edge zones are powered by AT&T’s regional 5G SA network cores and are located near connection points that can quickly access cloud service provider data centers.  Legg explained AT&T will explore different options on how to make the edge zones accessible to developers, either through stores operated by hyperscale companies or SDKs.

The edge zones are based on three key elements:

  • Local standalone network cores
  • Local public cloud or private data center computing resources
  • Software-defined network capabilities and virtualized network functions

AT&T commenced work on edge networks in 2021, when it previewed a network in conjunction with Microsoft Azure.

Alongside its SA 5G network, AT&T is employing local public cloud and private data centre resources, and software-defined network elements in its edge zones. It situated the capabilities in data centres close to facilities with connections to nearby cloud providers including Microsoft Azure, Google Cloud and AWS.

An AT&T representative told Mobile World Live that Equinix is providing the cross-connect capabilities. Legg noted the edge zones enable AT&T to offer customised managed services. “It’s an exciting time for us.  We’re at the dawn of a new age of killer apps almost everywhere you look,” he concluded.

Jeremy Legg, AT&T CTO

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Separately, Bloomberg reports that AT&T is counting on U.S. government stimulus grants to help fund its fiber optic buildout.  The telco wants small towns to use federal economic recovery money to pay it to provide landline high-speed internet to rural and remote areas.

Evansville, Indiana is a showcase for how AT&T is working with local governments to reach people with little or no internet access.   While  Indiana is part of AT&T’s 21-state telecommunications service region, the company will soon announce a widening expansion into markets outside its traditional territory, according to people familiar with the plan who didn’t want to tip off competitors before the announcement. The first was Mesa, Ariz., where AT&T promised to deliver fiber connections to a market where it had offered only wireless service. That marked the first move in decades outside its existing footprint.

AT&T CEO Stankey’s seven-hour, six-stop tour in Indiana was focused on a public-private partnership, one of several in the region for AT&T. The contract with Vanderburgh County calls for the company to put $29.7 million toward building out fiber networks that will serve superfast broadband to at least 20,000 homes and businesses. An additional $9.9 million will come from the county’s American Rescue Plan money, an injection of federal funds to help with recovery from the Covid-19 pandemic.

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References:

https://www.att.com/es-us/sdabout/blogs/2022/legg-5g-edge-zones.html

 

AT&T taps regional SA 5G cores for edge networks

https://www.bloomberg.com/news/articles/2022-10-18/at-t-t-eyes-stimulus-dollars-for-internet-service-push

 

Ookla Ranks Internet Performance in the World’s Largest Cities: China is #1

Internet connectivity benchmarking firm Ookla, which maintains the popular Speedtest.net service, has updated their ranking of broadband performance in countries around the world to include internet speed rankings for some of the “world’s largest cities.”  Ookla’s new list ranks median internet download speeds in nearly 200 cities all over the world.

Overall, China topped the list with Shanghai as the fastest city on their list for mobile broadband with a median download speed of 158.63Mbps (24.32Mbps upload and 17ms latency), while Beijing was fastest for fixed broadband during September 2022 at 238.86Mbps (37.75Mbps upload and 7ms latency).

Beijing (China) and Valparaiso (Chile) were ranked highest in the fixed broadband category, with average speeds of 239 Mbps and 223 Mbps, respectively, followed by Shanghai (222 Mbps), New York (218 Mbps), Bangkok (217 Mbps) and Madrid (197 Mbps).

Fastest Broadband Speeds for the World’s Largest Cities 2022

Fastest Cities for Mobile (Mbps) Fastest Cities for Fixed Broadband (Mbps)
Shanghai, China 158.63 Beijing, China 238.86
Copenhagen, Denmark 157.54 Valparaíso, Chile 222.67
Oslo, Norway 155.19 Shanghai, China 221.85
Busan, South Korea 147.55 New York, United States 218.04
Beijing, China 145.76 Bangkok, Thailand 217.19
Sofia, Bulgaria 145.28 Madrid, Spain 196.7
Ar-Rayyan, Qatar 140.69 Bucharest, Romania 195.6
Abu Dhabi, United Arab Emirates 137.48 Lyon, France 193.34
Dubai, United Arab Emirates 135.52 Chon Buri, Thailand 188.25
Riyadh, Saudi Arabia 133.65 Tokyo, Japan 185.04
Stockholm, Sweden 126.4 Los Angeles, United States 184.15
Antwerp, Belgium 121.33 Geneva, Switzerland 182.84
Gothenburg, Sweden 120.71 Abu Dhabi, United Arab Emirates 178.17
Doha, Qatar 114 Zürich, Switzerland 177.6
Seoul, South Korea 113.36 Santiago, Chile 176.58
Melbourne (Greater), Australia 111.78 Copenhagen, Denmark 175.31
Sydney, Australia 108.04 Barcelona, Spain 173.71
New York, United States 106.57 Osaka, Japan 169.18
Rotterdam, Netherlands 100.85 Toronto, Canada 164.93
Skopje, North Macedonia 99.02 Paris, France 155.24
Toronto, Canada 98.29 Auckland, New Zealand 149.22
Amsterdam, Netherlands 96.79 Budapest, Hungary 147.82
Los Angeles, United States 95.4 Taipei, Taiwan 144.35
Zürich, Switzerland 89.17 Kraków, Poland 138.75
Montreal, Canada 84.25 Warsaw, Poland 138.64
Helsinki, Finland 83.57 São Paulo, Brazil 124.05
Zagreb, Croatia 82.36 Dubai, United Arab Emirates 118.99
Muscat, Oman 79.66 New Taipei, Taiwan 115.36
Auckland, New Zealand 77.91 Gothenburg, Sweden 111.29
Lisbon, Portugal 76.23 Porto, Portugal 110.91
Manama, Bahrain 72.72 Stockholm, Sweden 109.59
Kuwait City, Kuwait 72.61 Haifa, Israel 108.46
Porto, Portugal 72.16 Seoul, South Korea 106.48
Paris, France 72.12 Chisinau, Moldova 105.05
Jeddah, Saudi Arabia 71.92 Panama City, Panama 104.25
Geneva, Switzerland 70.88 Oslo, Norway 102.76
Berlin, Germany 70.02 Montevideo, Uruguay 102.57
Vilnius, Lithuania 67.7 Rio de Janeiro, Brazil 100.49
Manchester, United Kingdom 67.07 Amsterdam, Netherlands 99.66
London, United Kingdom 66.36 Milan, Italy 98.57
Taipei, Taiwan 65.18 Rotterdam, Netherlands 95.39
Vienna, Austria 65.08 Kuwait City, Kuwait 94.65
New Taipei, Taiwan 64.69 Medellín, Colombia 94.48
Brussels, Belgium 58.78 Busan, South Korea 94.43
Rio de Janeiro, Brazil 58.64 Bogotá, Colombia 94.38
Athens, Greece 57.23 Vilnius, Lithuania 94.28
Hamburg, Germany 56.77 Ar-Rayyan, Qatar 94.16
São Paulo, Brazil 56.58 Riyadh, Saudi Arabia 93.71
Thessaloniki, Greece 56.57 Lisbon, Portugal 93.13
Lyon, France 56.08 Dublin, Ireland 91.63
Prague, Czechia 55.25 Moscow, Russia 91.26
Belgrade, Serbia 53.27 Riga, Latvia 91.14
Bucharest, Romania 52.03 Montreal, Canada 90.06
Osaka, Japan 51.53 Kuala Lumpur, Malaysia 89.38
Milan, Italy 51.27 Vienna, Austria 88.05
Budapest, Hungary 49.88 Belgrade, Serbia 87.88
Tokyo, Japan 49.86 Antwerp, Belgium 87.17
Riga, Latvia 45.88 Berlin, Germany 86.65
Kraków, Poland 44.42 Doha, Qatar 86.62
Warsaw, Poland 43.48 Hamburg, Germany 85.35
Barcelona, Spain 42.88 Johor Bahru, Malaysia 85.03
Rabat, Morocco 41.98 Tel Aviv-Yafo, Israel 84.96
Madrid, Spain 40.78 Ho Chi Minh City, Vietnam 84.32
Johannesburg, South Africa 40.38 Helsinki, Finland 84.11
Hanoi, Vietnam 40.01 Saint Petersburg, Russia 83.33
Rome, Italy 40 Amman, Jordan 80.37
Dublin, Ireland 39.96 Kiev, Ukraine 77.42
Bangkok, Thailand 39.3 Jeddah, Saudi Arabia 76.81
Haifa, Israel 39.05 Davao City, Philippines 75.23
Chon Buri, Thailand 39.03 Asuncion, Paraguay 74.18
Baku, Azerbaijan 37.12 London, United Kingdom 73.93
Tbilisi, Georgia 37.08 Hanoi, Vietnam 73.67
Chisinau, Moldova 36.3 Sofia, Bulgaria 73.66
Ho Chi Minh City, Vietnam 36.09 Manila, Philippines 73.47
Johor Bahru, Malaysia 35.67 Manchester, United Kingdom 73.43
Cape Town, South Africa 35.42 Port of Spain, Trinidad and Tobago 73.2
Ankara, Turkey 35.27 Brussels, Belgium 71.71
Montevideo, Uruguay 34.82 Buenos Aires, Argentina 71.41
Istanbul, Turkey 34.7 Muscat, Oman 69.46
Tehran, Iran 34.24 Az-Zarqa, Jordan 67.53
Guadalajara, Mexico 32.77 Kharkiv, Ukraine 67.05
Mashhad, Iran 32.71 Rome, Italy 64.92
Beirut, Lebanon 32.35 Zagreb, Croatia 63.92
Tel Aviv-Yafo, Israel 31.69 Delhi, India 63.2
Kharkiv, Ukraine 31.06 San José, Costa Rica 61.44
Yangon, Myanmar (Burma) 30.98 Prague, Czechia 60.67
Casablanca, Morocco 30.84 Mexico City, Mexico 59.56
Mosul, Iraq 30.77 Minsk, Belarus 59.14
Sfax, Tunisia 30.74 Maracaibo, Venezuela 57.31
Kuala Lumpur, Malaysia 30.1 Guadalajara, Mexico 55.63
Kingston, Jamaica 29.89 Lima, Peru 53.68
Moscow, Russia 29.74 Sydney, Australia 53.64
Baghdad, Iraq 29.62 Melbourne (Greater), Australia 53.45
Mexico City, Mexico 28.28 Arequipa, Peru 53.4
Mandalay, Myanmar (Burma) 28.21 Gomel, Belarus 52.91
Samarkand, Uzbekistan 28.2 Ulaanbaatar, Mongolia 52.79
Vientiane, Laos 28.15 Kathmandu, Nepal 52.68
Kiev, Ukraine 28.15 Guayaquil, Ecuador 51.87
Guatemala City, Guatemala 27.89 Johannesburg, South Africa 51.79
Buenos Aires, Argentina 26.49 Córdoba, Argentina 51.67
Almaty, Kazakhstan 26.44 Alexandria, Egypt 51.07
Manila, Philippines 26.16 Nur-Sultan, Kazakhstan 50.05
Tunis, Tunisia 25.87 Skopje, North Macedonia 48.09
Córdoba, Argentina 25.3 Bishkek, Kyrgyzstan 47.85
Valparaíso, Chile 24.16 Manama, Bahrain 47.69
Yerevan, Armenia 23.98 Quito, Ecuador 47.36
Tegucigalpa, Honduras 23.93 Almaty, Kazakhstan 47.21
Luanda, Angola 23.93 Tashkent, Uzbekistan 46.27
San Pedro Sula, Honduras 23.83 Kingston, Jamaica 45.75
Santo Domingo, Dominican Republic 23.81 Thessaloniki, Greece 44.35
Santiago De Los Caballeros, Dominican Republic 23.64 Mumbai, India 43.56
Saint Petersburg, Russia 21.19 Ouagadougou, Burkina Faso 43.14
San Salvador, El Salvador 20.58 Managua, Nicaragua 42.68
Alexandria, Egypt 20.46 Dhaka, Bangladesh 40.38
Cairo, Egypt 20.43 Yerevan, Armenia 40.34
Az-Zarqa, Jordan 20.4 Athens, Greece 40
Davao City, Philippines 20.35 Cape Town, South Africa 39.5
Amman, Jordan 20.13 Abidjan, Côte d’Ivoire 38.44
Kampala, Uganda 20.01 Ankara, Turkey 37.42
Santiago, Chile 19.87 Istanbul, Turkey 36.75
Nur-Sultan, Kazakhstan 19.79 Libreville, Gabon 36.13
Phnom Penh, Cambodia 18.94 Tegucigalpa, Honduras 33.55
Quito, Ecuador 18.89 Antananarivo, Madagascar 33.34
Lagos, Nigeria 18.85 Chittagong, Bangladesh 33.02
Managua, Nicaragua 18.64 Lome, Togo 31.97
Bishkek, Kyrgyzstan 18.37 Samarkand, Uzbekistan 31.58
Addis Ababa, Ethiopia 17.29 San Pedro Sula, Honduras 31.53
Abidjan, Côte d’Ivoire 17.22 San Salvador, El Salvador 31.36
San José, Costa Rica 17.21 Santo Domingo, Dominican Republic 30.87
Nairobi, Kenya 17.09 Pointe-Noire, Congo 30.11
Colombo, Sri Lanka 16.95 Guatemala City, Guatemala 29.53
Tashkent, Uzbekistan 16.69 Vientiane, Laos 29.04
Guayaquil, Ecuador 16.6 Accra, Ghana 28.71
Bekasi, Indonesia 16.47 Baku, Azerbaijan 28.69
Misrata, Libya 16.46 Brazzaville, Congo 27.55
South Jakarta, Indonesia 16.14 Bekasi, Indonesia 27.04
Dakar, Senegal 16.13 South Jakarta, Indonesia 27
Asuncion, Paraguay 15.93 Santa Cruz de la Sierra, Bolivia 26.28
Ulaanbaatar, Mongolia 15.8 Tbilisi, Georgia 26.12
Panama City, Panama 15.75 Bamako, Mali 24.37
Oran, Algeria 15.57 Dakar, Senegal 23.41
Lahore, Pakistan 15.01 La Paz, Bolivia 23.25
Delhi, India 14.99 Cairo, Egypt 22.42
Dhaka, Bangladesh 14.98 Nouakchott, Mauritania 21.75
Kathmandu, Nepal 14.94 Baghdad, Iraq 21.58
Lima, Peru 14.65 Casablanca, Morocco 20.23
Dar es Salaam, Tanzania 14.51 Phnom Penh, Cambodia 19.78
Arequipa, Peru 13.5 Dushanbe, Tajikistan 19.61
Algiers, Algeria 13.49 Mandalay, Myanmar (Burma) 19.37
Damascus, Syria 12.83 Yangon, Myanmar (Burma) 19.03
Tripoli, Libya 12.36 Rabat, Morocco 17.57
Mumbai, India 12.29 Colombo, Sri Lanka 16.65
Bogotá, Colombia 11.99 Cotonou, Benin 15.97
Karachi, Pakistan 11.92 Karachi, Pakistan 14.82
Minsk, Belarus 11.33 Port-au-Prince, Haiti 14.7
La Paz, Bolivia 10.76 Luanda, Angola 14.18
Khartoum, Sudan 10.66 Mombasa, Kenya 14.08
Medellín, Colombia 10.4 Dar es Salaam, Tanzania 13.74
Santa Cruz de la Sierra, Bolivia 10.07 Mosul, Iraq 12.43
Sana’a, Yemen 9.96 Lagos, Nigeria 12.22
Aleppo, Syria 9.18 Oran, Algeria 12.09
Chittagong, Bangladesh 8.84 Tehran, Iran 11.9
Dushanbe, Tajikistan 8.83 Algiers, Algeria 11.87
Gomel, Belarus 8.72 Santiago De Los Caballeros, Dominican Republic 11.71
Maracaibo, Venezuela 7.75 Lahore, Pakistan 10.88
Caracas, Venezuela 7.16 Kampala, Uganda 10.6
Accra, Ghana 6.41 Kigali, Rwanda 9.65
Kabul, Afghanistan 5.15 Nairobi, Kenya 9.58
Port-au-Prince, Haiti 4.82 Lusaka, Zambia 9.12
Havana, Cuba 4.51 Tunis, Tunisia 8.54

 

North America

  • United States: T-Mobile was the fastest mobile operator with a median download speed of 116.14 Mbps. Spectrum was fastest for fixed broadband at 211.66 Mbps.
  • Canada: TELUS was the fastest mobile operator in Canada with a median download speed of 76.03 Mbps. Rogers was fastest for fixed broadband (223.89 Mbps).
  • Mexico: Telcel had the fastest median download speed over mobile at 36.07 Mbps. Totalplay was fastest for fixed broadband at 74.64 Mbps.

 

Europe

 

  • Albania: Vodafone was the fastest mobile operator with a median download speed of 46.75 Mbps. Digicom was fastest for fixed broadband at 77.83 Mbps.
  • Belgium: Telenet had the fastest median download speed over fixed broadband at 126.79 Mbps.
  • Denmark: YouSee was the fastest mobile operator in Denmark with a median download speed of 118.32 Mbps. Fastspeed was fastest for fixed broadband at 270.80 Mbps.
  • Estonia: The fastest operator in Estonia was Telia with a median download speed of 72.95 Mbps. Elisa was fastest over fixed broadband at 84.09 Mbps.
  • Finland: DNA had the fastest median download speed over mobile at 74.65 Mbps. Lounea was fastest for fixed broadband at 103.79 Mbps.
  • Germany: Telekom was the fastest mobile operator in Germany with a median download speed of 78.85 Mbps. Vodafone was fastest for fixed broadband at 112.58 Mbps.
  • Latvia: LMT had the fastest median download speed over mobile at 63.59 Mbps. Balticom was fastest for fixed broadband at 203.31 Mbps.
  • Lithuania: The operator with the fastest median download speed was Telia with 102.09 Mbps. Cgates was fastest for fixed broadband at 131.63 Mbps.
  • Poland: Orange had the fastest median download speed over mobile at 43.02 Mbps. UPC was fastest for fixed broadband at 206.22 Mbps.
  • Turkey: Turkcell was the fastest mobile operator in Turkey with a median download speed of 51.92 Mbps. TurkNet was fastest for fixed broadband at 50.94 Mbps.

References:

https://www.ookla.com/articles/global-index-cities-announcement

UK Struggles in Ranking of World’s Fastest Cities for Broadband

 

Nokia announces Lightspan MF-14 platform as “most advanced in the world”

Nokia has unveiled what it boldly claims is the “most advanced fiber broadband platform in the world,” one it’s calling the “fiber-for-everything” world. According to the vendor, the new Lightspan MF-14 platform extends the upper reaches of its fiber broadband range, bringing “unmatched” capacity, low latency, intelligence, reliability and efficiency. The platform, which falls into “Generation 6” of such things, is already being tried out by customers looking to build 25Gbit/s-capable network in Europe, North America and the Asia-Pacific region. Lightspan MF-14 is being premiered at the Network X event in Amsterdam  from 18 to 20 October.

The industry is entering a ‘fiber-for-everything’ era. Once operators have deployed fiber-to-the-home, their networks pass every other building in the street, as well as the homes, meaning they can connect businesses and other services. Fiber PON will be capable of supporting high bandwidth consumer services, industry 4.0 applications, business connectivity, 5G transport and smart city services. This creates more revenue opportunities, lowers TCO and significantly reduces overall power consumption. This new broadband era, designated Broadband 6 by the World Broadband Association (WBBA), requires a new technical solution. Nokia’s pioneering Lightspan MF-14 is the first Gen 6 optical line terminal (OLT) in the world and has already been selected by customers building 25 Gb/second capable networks in Europe, North America and Asia Pacific.

Geert Heyninck, Nokia’s VP Broadband Networks, said: “Fiber-to-the-home is becoming fiber-for-everything. This is enabled by several technology advances, most notably higher speed PON technologies to accommodate all new services, and SDN to bring more intelligence in the network. If you think about it, the massive number of connection points on fiber make it a challenge to get an instant view of everything that happens in your network, fully automate network control, and perform actions with no service interruption. Our current portfolio is doing an excellent job in supporting many of these requirements for today’s and tomorrow’s services, but we are looking ahead. The MF-14 platform will suit operators who are planning large scale 25G PON, 50G and even 100G PON within the same environment.”

In his recent report* Erik Keith, Senior Research Analyst for Broadband Infrastructure at S&P Global, says: “The PON market is at a pivotal moment in the evolution of networks, where fiber broadband means so much more than residential connectivity. There is a huge opportunity for service providers to connect everything much more efficiently by leveraging their existing fiber broadband networks. After all, the same fiber cables that were originally laid in residential areas also pass commercial buildings such as office blocks, hospitals and government properties. This approach eliminates multiple overlay networks, minimizes digging up the streets, and lowers energy use substantially. The new Lightspan MF-14 OLT can enable operators to deploy a solution that will last for decades, while providing a platform that can increase network performance exponentially compared to most networks in use today.”

Based on new, advanced hardware and disaggregated software design, MF-14 is a generation leap in fiber access solutions. It is the highest capacity platform in the industry and the only solution ready for mass delivery of 25G, 50G and 100G PON services. It’s also the industry’s first OLT with the six-nines availability and sub-millisecond latency needed for mission critical industry 4.0 and 5G transport services.

Frontier Communications, the first in the U.S. to trial 25G PON, is also the first to evaluate MF-14 in its live network. Frontier’s Scott Mispagel, SVP National Architecture and Engineering, said: “We are proud to be the first to embrace this next-generation platform. This is another way for us to provide customers with the fastest broadband available. The MF-14 platform will support our path to 100G using our existing fiber network and future-proof our network with speeds that will continue to outpace cable and other technologies for generations to come.”

Nokia Lightspan MF-14

In July this year CityFibre – the UK’s largest independent full fibre infrastructure platform – signed a 10-year equipment agreement to support its nationwide network upgrade. John Franklin, CTIO, CityFibre said: “As we accelerate our full fibre rollout to serve a third of the UK market by 2025, the demand placed on those networks will also accelerate. MF-14’s flexibility and capacity will help us to meet the needs of our partner’s and their customers for generations to come.”

* From “Nokia launches 6th generation flagship fiber platform” published by S&P Global Market Intelligence.

Resources
Lightspan MF-14, a generation leap in fiber access solutions

  • 4x higher capacity than previous generation, ensures smooth evolution to massive connectivity with 25, 50, 100.
  • No single point of failures, ensuring the highest availability (six nines) in the market. This is important because consumers and business depend on broadband non-stop
  • Sub millisecond latency for 5G transport and new array of industry 4.0 applications
  • 20% higher power efficiency than the industry average so operators can decrease overall power consumption as they connect more points on fiber network and meet sustainability targets
  • Modular software architecture for more agility for upgrading software and onboarding of new functionality, with much less effort and time.
  • SDN programmability and open APIs to enable control function by Nokia or 3rd party network control functions
  • Fast telemetry and digital mirror in the cloud for enhanced network overview
  • For more details visit the web page

Fiber for everything         website

World Broadband Association (WBBA) BB6 network characteristics, published in Next-Generation Broadband Roadmap white paper, Oct 2022

  • Residential speed. Up to 50Gbps *
  • Enterprise speed. Up to 1.6–3.2Tbps
  • Intelligence. Fully autonomous
  • Reliability & latency. Deterministic reliability / <1ms latency (hard guarantee) / very low jitter
  • Trustworthy & green. 10×-plus better per bit energy efficient, very fast problem detection and response (seconds)
  • Connectivity. Fiber sensors, 10 times more IoT terminals
  • Sensing Capability. Fiber sensing for applications, application and computing awareness, AI

*Speeds listed are speculative given the timeframe, and further work by the WBBA will explore this in more detail in future reports.

California begins construction of $3.8B middle mile fiber network

California began work on an ambitious fiber project which aims to deliver statewide open access middle mile connectivity by the end of 2026. The project, which was announced in 2021, is being fueled by $3.8 billion in federal and state funds.

The sate’s network design calls for a total of 10,000 miles of fiber. The largest portion of the project will run through San Bernadino County, which will be home to 850 miles of fiber. Kern County (544 miles), Riverside County (535 miles) and Los Angeles County (525 miles) will also account for substantial portions of the system.

California’s Department of Transportation (Caltrans) is working with the state’s Department of Technology to complete the project.

During a project meeting in September, Caltrans’ Acting Assistant Deputy Director for the Middle Mile Broadband Initiative Janice Benton said preconstruction work – including environmental, permitting and design tasks – was already underway for 93% of the project’s fiber miles.

She added 114 miles of the project are expected to go into construction in 2022, with another 300 miles to come in 2023. The first leg of its work got underway this week.

Mark Monroe from the Department of Technology indicated the project will require the construction of at least 6,000 miles of new fiber. Depending on the cost to construct those miles, he said the state may need to lease some portion of the remaining 4,000 miles where existing infrastructure is available.

The state of California has already advertised contracts covering 900 miles of the project. And by October 14, it was planning to have 60% of the middle mile network out for construction bids. It is aiming to have 100% of the system under contract by May 2023.Once the network is complete, ISPs will be able to tap into it to provide last mile connectivity. Those efforts will also get a funding boost. The same 2021 legislation that allocated $3.25 billion for the middle mile project (which was subsequently supplemented by another $550 million from the 2022 state budget) also set aside $2 billion for the rollout of last mile connections.

The 10,000-mile “middle mile” network is expected to cost $3.8 billion and help connect the roughly one in five Californians do not have access to reliable and affordable high-speed internet.

“We are thrilled to see construction begin on the middle-mile network,” said Secretary Tong. “Too many rural and urban areas lack adequate broadband infrastructure, forcing residents to attempt to connect via mobile hotspots and unreliable satellite service, which leaves out too many Californians.”

Former Los Angeles Mayor Antonio Villaraigosa, who was named by the Governor in August to serve as Infrastructure Advisor to the State of California, joined the event Thursday to highlight the substantial federal resources coming to the state for infrastructure investments like broadband networks.

“This broadband network is one of the most ambitious and impactful infrastructure projects in California – and we’re thrilled that construction is underway starting today,” Mayor Villaraigosa said. “With billions more in federal infrastructure dollars on the way, we’re getting ready to celebrate many more groundbreakings for innovative projects across California. This goes far beyond infrastructure, this is about building the future of our state and creating thousands of good-paying jobs along the way.”

CDT Director Liana Bailey-Crimmins said construction on the first segment of the Middle Mile network follows more than a year of planning.

“The rapid planning by the Middle Mile team as well as our local partners is coming to fruition. It’s wonderful to see the hard work paying off, to make a difference in the lives of Californians who live in unserved areas like this one.”

Liana Bailey-Crimmins, California Department of Technology Director 

Caltrans Director Tony Tavares said each of the Department’s 12 districts is working to build segments of the Middle Mile network on an ambitious timeline in the hope of capturing the maximum amount of federal funding available.

“This project provides a wonderful opportunity for us to ‘dig smart’ and highlights the benefits of coordination among state agencies and with our local partners. Caltrans is proud to partner with the Department of Technology to create a broadband Middle Mile network, providing equitable, high-speed broadband service to all Californians.”

Tony Tavares, Caltrans Director

Once the Middle Mile network is complete, local carriers will have access to the network to provide communities with direct service to homes and businesses as well as reduced-cost or free broadband internet service for those who are eligible.

References:

https://www.fiercetelecom.com/telecom/california-kicks-construction-38b-middle-mile-fiber-network

https://dot.ca.gov/news-releases/news-release-2022-037

https://gcn.com/cloud-infrastructure/2022/10/construction-begins-californias-statewide-broadband-network/378459/

Huawei Connect 2022: Intelligent Cloud-Network Upgrades Announced

During HUAWEI CONNECT 2022 in Dubai, Huawei unveiled the upgraded capabilities of its Intelligent Cloud-Network Solution at the “Intelligent Cloud-Network, Unleashing Digital Productivity” summit. These capabilities, which center on three major scenarios —CloudFabric 3.0, CloudCampus 3.0, and CloudWAN 3.0— are provided to meet network development trends. Huawei also released the L3.5 Data Center Autonomous Driving Network White Paper, together with IEEE-UAE Section and pioneering customers, to contribute to the thriving data communications industry and unleash digital productivity.

The changes in enterprise business are driving the development of enterprise ICT infrastructure, and IP networks — serving as the bridge between IT and CT and covering all production and office procedures of enterprises, constitute the connectivity foundation for industry digital transformation. Networks have never been more important than they are today.

Daniel Tang, CTO of Huawei Data Communication Product Line, shed light on how to respond to future development trends and address network challenges. According to Daniel Tang, Huawei keeps innovating data communications technologies in areas such as Wi-Fi 7, 400GE, IPv6 Enhanced, multi-cloud synergy, autonomous driving network, and ubiquitous security. With these innovative technologies, Huawei has upgraded its capabilities in three scenarios: CloudFabric 3.0, CloudCampus 3.0, and CloudWAN 3.0.

Huawei CloudFabric 3.0 offers full-lifecycle intelligent capabilities for multi-cloud and multi-vendor networks based on L3.5 ADN technology. Stand-out features include unified management and control, flexible orchestration and collaboration, simulation & verification, risk prediction, and unified O&M for applications and networks. Plus, this solution facilitates easy interconnection with customers’ IT management systems to achieve end-to-end automation. Key results include easy deployment, easy O&M, and easy evolution.

By leveraging Huawei’s ADN and hyper-converged Ethernet technologies, Ankabut is building the world’s first HPC supercomputing center with Ethernet and InfiniBand co-cluster.

At the summit, Huawei, together with IEEE-UAE Section, Ankabut of UAE, and CBK of Kuwait, released the L3.5 Data Center Autonomous Driving Network White Paper.

  • CloudCampus 3.0

Huawei further upgraded its CloudCampus 3.0 offerings by unveiling a host of flagship products, including the first enterprise-class Wi-Fi 7 AP AirEngine 8771-X1T, next-generation flagship core switch CloudEngine S16700, and 4-in-1 hyper-converged enterprise gateway NetEngine AR5710.

Huawei CloudCampus 3.0 helps enterprises simplify their campus networks from four aspects: access, architecture, branch, and Operations and Maintenance (O&M).

  • CloudWAN 3.0

In the WAN field, Huawei continues to innovate technologies such as SRv6, FlexE slicing, and application-based IFIT measurement, and all of these technologies rely on IPv6 Enhanced. Huawei has further upgraded its CloudWAN 3.0 offerings to achieve agile connectivity, deterministic experience, and agile O&M and launched an ultra-high-density multi-service aggregation router — NetEngine 8000 F8 — to improve digital productivity with agile connectivity.

With Huawei’s help, the Gauteng province successfully deployed the first 100GE private network in South Africa — GBN.

The future digital world is full of uncertainties. As the saying goes, “If you want to go fast, go alone. If you want to go far, go together.” Mindful of this, Huawei strongly advocates partnerships and will continue to cooperate and innovate with more customers and partners in the data communication field. Vincent Liu, President of Huawei’s Global Enterprise Network Marketing & Solutions Sales Dept, highlighted that Huawei has set up many regional joint innovation labs and OpenLabs. Through these labs, Huawei is well poised to jointly innovate with customers from sectors such as public service, oil and gas, electric power, finance, education, and ISP. These concerted efforts pay off in many high-value application scenarios and achieve remarkable results. To date, Huawei has already trained and certified 188,000 data communication engineers, providing a large pool of ICT talent for digital transformation across industries.

Photo – https://mma.prnewswire.com/media/1921355/image_986294_38236382.jpg

SOURCE Huawei

References:

https://www.prnewswire.com/news-releases/huawei-intelligent-cloud-network-upgrades-capabilities-in-three-scenarios-based-on-innovative-technologies-301649627.html

AT&T’s 5G SA core is being distributed nationwide – converging wired and wireless in municipalities across the U.S.

Jeremy Legg, AT&T’s new chief technology officer (replacing Andre Fuetsch), said historically the wired networks of copper and fiber were operated separately from the wireless network, but AT&T is converging wired and wireless in municipalities across the country. It’s also in the process of deploying its 5G standalone core via Microsoft Azure public cloud.

Unlike previous generations of wireless core technology, AT&T is going to distribute the core software at sites around the country. “We want to federate where those cores sit,” said Legg. “Cores have historically only been in a very few locations. We’re trying to put them in a lot more locations.”

Legg said a distributed 5G core SA network is important for voice applications, where it’s nice to keep calls geographically close. And it could be really important in the future for uses such as autonomous cars. The company isn’t quantifying how many locations it might ultimately put 5G SA core software. “It’s really a function of what the demand curve looks like,” said Legg. “We could put a core in 1,000 edges.”

The company has thousands of central offices all around the country. A select number of these central offices are already running its 5G SA core software.

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Chris Sambar, AT&T’s executive vice president for Network, said the company spends “well over a billion dollars per year on power.”

Sambar described how AT&T had moved from proprietary equipment for its central offices to off-the-shelf compute servers that run networking software, which AT&T Labs developed. AT&T has since sold this software to Microsoft, which is free to resell it to other telcos around the world.

AT&T still keeps all its network functions on its own premises at central offices, running with its version of its network software. The company has a few hundred of these AIC cloud pods around the country.

Sambar said, “Now we have this disaggregated architecture where we can control everything in the box. There’s a lot more flexibility in the network to mix and match. And we continue to make iterations on top.  AT&T uses public cloud providers for its less-sensitive storage and compute functions.

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Joe Mosele, vice president for Mobility, IoT and 5G, said, AT&T is the leader in IoT in the U.S., based on the number of its IoT connections. It has 95.9 million connected devices and more than 53.3 million connected cars on the AT&T network. China is the IoT leader in the world.

Sidebar:  5G SA Advantages and Challenges:

5G  Standalone (SA) networks offer lower latency, the ability to connect a huge number of devices at once, and advanced services such as network slicing. These features mean 5G SA networks will prove particularly valuable in the private sector, including transport and manufacturing. The future success of the IoT is reliant on the rollout of SA 5G networks, given that low latency is a must for real-time machine-to-machine communications and use cases like self-driving vehicles.  Most important is that all of the 5G features are only realizable with a 5G SA core network, e.g. network slicing/virtualization, 5G security, automation and orchestration, MEF, etc.

There are of course challenges here. Building this infrastructure requires significant investment and some operators are still unsure that the business case for SA 5G is established enough to warrant the expenditure. Establishing roaming connections and agreements for SA 5G is another key part of the puzzle. As it stands, these connections are still being trialed and there is no live SA roaming (for the time being). To support 5G IoT use cases, in particular, operators will require international roaming interoperability for standalone 5G. However, many are reluctant to commit to such investment while the number of SA networks is still low.

References:

https://www.fiercewireless.com/5g/att-distributes-its-5g-sa-core-software-across-us

The steps needed to unlock 5G Standalone’s future – Telecoms.com

 

New Hampshire Electric Cooperative and Conexon to deliver FTTH internet service to thousands of NH homes and businesses

Conexon, a rural fiber-optic network design and construction management leader, and New Hampshire Electric Cooperative (NHEC) are expanding their partnership to bring fiber-to-the-home (FTTH) service across the cooperative’s territory.

NHEC and Conexon have worked together to provide gigabit-speed internet access to two communities, Acworth and Sandwich, and will soon expand to 32 communities throughout Grafton County. NH Broadband, the co-op’s fiber subsidiary, will ultimately offer high-speed fiber internet service that spans nine counties and nearly 120 communities. Service is available today for customers  in Acworth, Sandwich, Clarksville, Colebrook, Lempster and Stewartstown, and is expected to be available to initial customers in Grafton County by First Quarter 2023.

Conexon provides a comprehensive range of fiber broadband services including network design, construction project management, engineering and operations support. Additionally, through its internet service provider subsidiary, Conexon Connect, the company is also providing services including customer sign-ups, installations, billing, technical support and access to multi-gigabit speed packages.

 

 

 

 

 

 

 

 

 

 

“Over the past several years, I’ve heard people analogize rural broadband to the rural electrification movement of the 1930s and 1940s,” Conexon Partner Jonathan Chambers said. “To us, it isn’t an analogy; it’s a reality. The same companies that built electric networks across the nation are building broadband networks. Alyssa Clemsen Roberts was one of the first to recognize how electric cooperatives could solve the digital divide. In fact, Alyssa introduced me to that very idea when I was at the FCC. She also introduced me to Randy Klindt. I’m thrilled Alyssa has joined NHEC and will lead this new endeavor.”

The lightning-fast fiber-optic network offered by NH Broadband will give members access to symmetrical multi-gigabit internet capabilities – among the fastest and most robust in the nation. Additionally, it will enable enhancements and smart grid capabilities to the electrical infrastructure, including improved power outage response times, better load balancing and more efficient electricity delivery.

“Making high-speed, affordable internet available to all of our members who need it is a major undertaking, on par with the effort to bring light and power to these same locations more than 80 years ago,” NHEC President/CEO Alyssa Clemsen Roberts said. “We’re thrilled to have Conexon’s resources and experience available as we work to bring this next essential service to our members.”

Conexon brings to the project unmatched experience and expertise in deploying rural FTTH networks. The company has designed more than 200,000 miles of fiber for cooperative projects and builds more than 50,000 fiber miles of fiber annually. In addition, Conexon has created a broad ecosystem of equipment and labor resources specializing in rural fiber builds. Since forming six years ago, Conexon has assisted nearly 275 electric cooperatives, 75 of which are deploying fiber networks, with more than 500,000 connected fiber-to-the-home subscribers across the U.S.

“We’re excited to build on our current relationship with New Hampshire Electric Cooperative and make a difference in the lives of even more residents who are currently unserved or underserved with broadband,” Conexon Founding Partner Randy Klindt said. “We are pleased to have such a positive and productive partnership with Alyssa and her team, one that enables us to further our mission of closing the digital divide.”

New Hampshire Electric Cooperative is a member-owned not-for-profit electric utility, headquartered in Plymouth, N.H. NHEC connects its 85,000 members through 6,000 miles of energized lines, crossing 118 communities throughout New Hampshire.

About Conexon

Conexon works with Rural Electric Cooperatives to bring fiber to the home in rural communities. The company is comprised of professionals who have worked in electric cooperatives and the telecommunications industry, and offer decades of individual experience in business planning, building networks, marketing and selling telecommunications. Conexon offers its electric cooperative clients end-to-end broadband deployment and operations support, from a project’s conception all the way through to its long-term sustainability. It works with clients to analyze economic feasibility, secure financing, design the network, manage construction, provide operational support, optimize business performance and determine optimal partnerships. To date, Conexon has assisted more than 275 electric cooperatives, 75 of which are deploying fiber networks, with more than 500,000 rural Americans connected to fiber to the home. The company has secured nearly $2 billion in federal, state and local grants and subsidies for its clients.

Cindy Parks
913-526-6912
[email protected]

SOURCE Conexon

AT&T will be “quantum ready” by the year 2025; New fiber network launched in Indiana

AT&T is aiming to become “quantum ready” by the year 2025, said an AT&T quantum security and preparedness team member during this week’s AT&T Security Conference. The tier-one operator has been identifying its cryptographic assets, vetting post-quantum cryptography solutions, and taking trials to identify those solutions, according to Brian Miles, principal member of tech staff at AT&T. “We’ve got AT&T quantum ready on our roadmap by 2025,” Miles said, adding that  doesn’t mean the company will be fully quantum secured.

“This just means that we have done all our due diligence.  And we have a clear path forward and we have all the solutions identified to target and address some of the different problems posed by quantum computing.”

Editor’s Note:

Quantum technologies function by harnessing the key characteristics of the theory of quantum mechanics, including superposition, entanglement and uncertainty. The resulting technologies are expected to be diverse and far reaching. For example, quantum computers are expected to overcome most “public key encryption” systems, presaging a radical change in cybersecurity. Given its aptitude for navigating complexity, quantum tools are expected to shave years off the time to market for medicines. Secure, efficient communications among drones and other autonomous vehicles will underpin safety and operational effectiveness in the crowded skies of the future. Of course, these nearer terms examples will be joined by applications barely yet imagined as the technology matures.

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That effort should put AT&T in a better position before the cryptographically relevant quantum computer (CRQC) emerges. CRQC is defined as a quantum computer that reaches the compute capability to break an RSA-2048 key using Shor’s algorithm, according to Miles. Shor’s algorithm is a quantum computer algorithm developed in 1994 by American mathematician Peter Shor.

Miles also urges organizations to implement cryptography agility, which is a framework or architecture that allows companies to replace their cryptographic primitives, underlying cryptography, and encryption algorithms with little or no impact on the existing applications. 

“In a nutshell, that means you get off board your cryptography, get it out of your applications, get it more centralized, ultimately put automation in place to make the underlying infrastructure [transition] relatively painless,” he explained. 

The next significant step is to identify the cryptographic assets and who has the responsibility for that inventory within the company, Miles noted.

“It’s incredibly important to get started on a crypto-agile architecture roadmap within your company quickly,” he said. “The whole crypto-agile architecture at least gives you the tools and the ability to pivot to different cryptography on short notice.”

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Separately, AT&T is connecting its first customers to its new fiber network in Indiana. The company is investing $29.7 million – on top of $9.9 million contributed by Vanderburgh County, allocated from the American Rescue Plan – to build to 20,000 locations.

In a press release, AT&T calls Vanderburgh a “largely rural community where roughly one-third of homes, farms and businesses did not have access to fixed broadband service before this fiber build.” The network build is expected to be complete in November 2023 and will deliver service up to 5 Gbit/sec.

“We have a once-in-a-generation opportunity to bring high-speed, reliable broadband to communities across the country,” said AT&T CEO John Stankey. “Combining public sector funding and private sector investment is the most cost-effective way to ensure more Americans are able to take advantage of robust connectivity. This type of public-private partnership can serve as a model to help close the digital divide once and for all.”

“If you live in a big city, you probably take your high-speed internet for granted. But it’s a different story in rural parts of the country,” said Cheryl Musgrave, commissioner, Vanderburgh County. “Fortunately, through this collaboration with AT&T, thousands of our rural neighbors will have a new story to tell, because they’ll also have access to fiber-powered broadband.

“I’m truly excited to see the impact this new connectivity will have on our schools and families, and the economic growth of our community,” Musgrave added.

AT&T worked quickly to bring the benefits of fiber to Vanderburgh County residents and businesses, with the network core becoming operational only seven months after the previously announced contract agreement was finalized. That allowed AT&T to connect the first fiber locations earlier than expected. The project will be completed by November 2023.

The new fiber network is capable of delivering speeds up to 5 Gbps on both upload and download. The faster speeds and capacity mean customers can now connect to data intensive online tools and applications, deploy precision agriculture technologies and access vital education resources.

AT&T has extensive experience deploying fiber-optics across Indiana. In fact, hundreds of thousands of locations in the state have access to AT&T Fiber today. AT&T is also currently working with the City of Boonville and the City of Martinsville on public-private partnerships to bring  AT&T Fiber to those communities.

References:

https://www.sdxcentral.com/articles/news/att-aims-to-be-quantum-ready-by-2025/2022/10/

https://www.prnewswire.com/news-releases/att-launches-fiber-broadband-in-rural-vanderburgh-county-indiana-301641870.html

 

Future Market Insights: Telecom Cloud Market CAGR at 15.2% from 2022-2032

The Telecom Cloud Market revenues were estimated at US$ 19.8 Bn in 2021 and are anticipated to grow at a CAGR of 15.2% from 2022-2032, according to a recently published Future Market Insights (FMI) report. By the end of 2032, the market is expected to reach a valuation of US$ 24 Bn.   Globally, the cloud services market is expected to reach a valuation of 2.5 Bn by 2030, as per a new study by FMI.

During the pandemic, as individuals lived at home during the shutdown and businesses opted to work remotely, massive data consumption led to a spike in demand for telecom cloud installations, which significantly contributed to the market growth. Cloud has been one of the key themes of conversation in the telecom business in 2021 with the development of cloud-native 5G technology.

The public cloud solution provides on-demand infrastructure, lowering capital expenditure as well as continuous operational and life-cycle control. The public cloud may be a terrific incubator environment for not just developing new apps and services, but also bringing them to market and scaling them quickly.

Many corporate firms rely on the public cloud as their base. Telecom companies are increasingly looking to collaborate using public cloud services to use their computational capacity and use their strong network skills on the back end.

Hyperscalers such as Amazon, Google, Microsoft, and Oracle often establish and manage a uniform tech environment with public cloud platforms. CSPs, on the other hand, buy solutions from a variety of vendors who compete and advance in different directions, sometimes marginally, sometimes significantly.

Also, The BFSI sector outsources non-core functions to save money and enhance efficiency. As a consequence, targeted content views and precise financial data are required, which may be merged via a telecommunications cloud service.

Competitive Landscape:

The market is fiercely competitive, where key players are increasingly focused to obtain a competitive advantage. The key companies in the Telecom Cloud Market are focused on R&D to produce innovative technological solutions.

  • In April 2021, Momentum Telecom, a global provider of managed network and clouds voice, revealed that it had accomplished its purchase of Atlus Technology, a Tennessee-based leader in the development of cloud-based unified communications solutions.
  • In December 2020, Cisco announced the purchase of IMImobile, a cloud telecommunications software and service provider, allowing Cisco to provide its customers with an end-to-end client engagement management solution.

Multi Cloud Management Market TrendMulti cloud management is similar to the use of best-of-breed applications from multiple developers on a personal computer, rather than the defaults offered by the operating system vendor.

Cloud Business Email Market DemandThe global cloud business email market is expected to acquire a market value of nearly USD 2.15 Bn, proliferating at a CAGR of 10.4% during the forecast period from 2017 to 2027.

More Insights Available

Future Market Insights, in its new offering, presents an unbiased analysis of the Telecom Cloud Market, presenting historical market data (2015-2021) and forecast statistics for the period of 2022-2032.

ABOUT FUTURE MARKET INSIGHTS, INC:

Future Market Insights, Inc. is an ESOMAR-certified business consulting & market research firm, a member of the Greater New York Chamber of Commerce and is headquartered in Delaware, USA. A recipient of Clutch Leaders Award 2022 on account of high client score (4.9/5), we have been collaborating with global enterprises in their business transformation journey and helping them deliver on their business ambitions. 80% of the largest Forbes 1000 enterprises are our clients. We serve global clients across all leading & niche market segments across all major industries.

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References:

Public Cloud Based Telecom Cloud Market to Register a CAGR (globenewswire.com)

https://www.futuremarketinsights.com/reports/telecom-cloud-market

Telecom Cloud Market Size, Share, Sales & Trends – 2032 | FMI (futuremarketinsights.com)

Request a Sample Copy of Report:

https://www.futuremarketinsights.com/reports/sample/rep-gb-3353

Dell partners with Wind River on modular cloud-native telecommunications infrastructure

Dell Technologies, together with Wind River (owned by Intel and Delphi Automotive), is introducing a new telecom cloud infrastructure solution to help communications service providers (CSPs) reduce complexity and accelerate their “cloud-native” network deployments.

To facilitate these solutions, Dell’s telecom partner certification program simplifies the process for technology partners to validate and integrate their products within a rapidly growing open technology ecosystem.

Dell Telecom Infrastructure Blocks help accelerate open, cloud-native network deployments.  Dell is taking an entirely new approach to solve the complexities of cloud-native network deployments with Dell Telecom Infrastructure Blocks. The fully engineered, cloud-native infrastructure blocks simplify telecom cloud network deployment and management, while accelerating the introduction of new technologies and lowering operational expenses (OpEX).

As the fastest way to deploy the Dell Telecom Multicloud Foundation, launched earlier this year, these blocks include Dell PowerEdge servers, Dell Bare Metal Orchestrator management software, and a CSP’s choice of integrated telecom cloud software platforms, beginning with Wind River Studio.

Dell is the first company to launch a co-engineered system with Wind River, designed and factory integrated to host telecom workloads that can be scaled easily with automation, with streamlined support from Dell for the entire infrastructure stack3. The validated and pre-packaged blocks of hardware and software are designed to meet specific telecom workload requirements and use cases, spanning the network core to Open RAN Distributed Units (DU) and Centralized Units (CU).

Wind River delivers mature production-ready offerings based on proven Wind River Studio technology, live in deployments with leading operators. Wind River Studio provides the Containers-as-a-Service layer for a distributed cloud and the tools to automate and optimize “Day 2” operations at scale.

Holger Mueller of Constellation Research Inc. said today’s partnership with Wind River is all about making it easier for telecommunications firms to go live on Dell’s hardware and services. “What’s really of note is the new partner self-certification program,” the analyst said. “Partner certification can be slow and is normally always very expensive. So unleashing a self-service process for partners can be a huge accelerator, as long as the quality of the certification is not compromised.

Dennis Hoffman, senior vice president and general manager, Dell Technologies Telecom Systems Business:
As the telecom network disaggregates, network operators are challenged to effectively acquire, deploy, test and operate a myriad of open, cloud-native solutions. With our portfolio of software, solutions, development labs and partner programs, including our first open, telecom cloud engineered system with Wind River, a leader in Open RAN deployments, we can partner with communications service providers globally to simplify their transition to cloud-native technologies.

Kevin Dallas, president and chief executive officer, Wind River:
Our collaboration with Dell will help address complex CSP challenges in deploying and managing a physically distributed, ultra-low-latency cloud-native infrastructure for intelligent edge networks. As the de facto infrastructure for OpenRAN and 5G vRAN and only 5G solution that is commercially deployed at scale, Wind River Studio enables flexible networks and offers validated architectures to help service providers quickly and reliably deploy new services with industry-leading total cost of ownership for a cloud native future.

References:

https://siliconangle.com/2022/09/28/dell-partners-wind-river-modular-cloud-native-telecommunications-infrastructure/

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