Showing posts with label Infrastructure Lampposts and Poles. Show all posts
Showing posts with label Infrastructure Lampposts and Poles. Show all posts

Thursday, 3 July 2025

Transforming Poles into 5G Sites with Alpha Fusion Streetworks Solutions

During a recent visit to Glasgow for the SCONDA project showcase, a collaborative initiative focused on advancing urban connectivity, I was struck by how far street-level network infrastructure has come in combining functionality with aesthetics. Among the most visually discreet and technically advanced deployments were those featuring Alpha Wireless' wraparound antennas. The AW4032 antenna stood out for its innovative design, enabling mid-pole mounting in a configuration that blended effortlessly with the urban environment while delivering high-performance 5G coverage. 

Live tests on attendees’ devices showed 5G download speeds reaching up to 720 Mbps, with improved coverage and congestion relief across city-centre locations. One attendee reported that the deployment achieved average 5G download speeds of 520 Mbps, while also reducing low-speed hours by 89% and reaching peaks of over 1 Gbps on small cells in a live dense environment.

Alpha Wireless has developed its Fusion Streetworks solutions with a clear understanding of the challenges faced by operators in urban areas. As network densification accelerates, especially with the move towards 5G standalone architectures, securing new street-level sites is proving increasingly difficult. The Fusion Streetworks platform responds to this by making better use of existing infrastructure such as lamp posts and streetlights. The AW4032 antenna, which forms the centrepiece of this platform, is designed to mount mid-pole without requiring sidearms or external hardware that would increase wind loading or visual impact. As it is an antenna-only product, the AW4032 pairs with external small cell radios, offering operators flexibility in radio selection.

The AW4032 combines compact form with support for advanced radio capabilities. It supports 16 ports across dual bands — 1695 to 2690 MHz and 3300 to 4200 MHz — and enables 4x4 MIMO, delivering strong signal quality and throughput. When ports in adjacent sectors are connected, the antenna produces a pseudo-omnidirectional pattern, providing seamless 360-degree coverage suitable for dense urban environments, hotspots and high-traffic venues. It is also highly adaptable. Operators can configure the ports to suit different patterns: back-to-back for focused directional coverage, or four-way for broader area coverage, all using the same hardware.

This modularity means the same unit can serve single or dual-operator deployments, with each operator connecting to a separate set of ports. This enables shared infrastructure without interference and lowers total cost of ownership. For instance, the dual-operator setup divides the 16 ports between two MNOs while still offering pseudo-omni performance, which is particularly useful in areas where zoning permissions limit the number of separate installations.

What makes the solution especially effective in public spaces is the attention to detail in concealment. The Fusion platform includes options for radio shrouds and integrated cabling management to maintain a neat appearance. This has been instrumental in speeding up approvals in areas traditionally sensitive to new telecoms infrastructure.

Alpha Wireless has already seen its Fusion Streetworks solutions rolled out as part of a 5G standalone deployment in central Birmingham. Working with Ontix and Virgin Media O2, these antennas have been deployed on existing poles in busy city locations, demonstrating how legacy infrastructure can be revitalised to meet the demands of next-generation connectivity.

From an infrastructure perspective, the AW4032 exemplifies how antenna technology is evolving to match the operational and regulatory pressures of modern small cell deployment. It simplifies rollout, minimises street clutter, and offers a level of future readiness that is essential for long-term network planning. For cities looking to accelerate their 5G ambitions without compromising on design, Alpha Wireless’ Fusion Streetworks platform offers a proven and practical approach.

Tuesday, 16 July 2024

EDOTCO Deploys Mobile Infrastructure in Bangladesh

Established in 2012, EDOTCO Group is the first regional and integrated telecommunications infrastructure services company in Asia, providing end-to-end solutions in the tower services sector from tower leasing, colocations, build-to-suit, energy, transmission and operations and maintenance (O&M).

EDOTCO Group operates and manages a regional portfolio of over 58,000 towers across Malaysia, Indonesia, Bangladesh, Cambodia, Sri Lanka, Pakistan, Philippines, Myanmar, and Laos. EDOTCO strives to deliver outstanding performance in telecommunications infrastructure services and solutions. Its state-of-the-art real-time monitoring service, echo, has driven significant improvements in field operations while maximising operational efficiencies in terms of battery, energy and fuel consumption for telecommunications infrastructure.

In Bangladesh, with a portfolio of over 18,000 towers and managed sites, EDOTCO have developed their built-to-suit and co-location offerings to enable telecommunications providers to efficiently meet their growing infrastructure requirements.

In a LinkedIn post last year, Sunil Issac, Country Managing Director of EDOTCO Bangladesh Co. Ltd talked about deploying telecom towers across Gazipur. Quoting from the post: 

Gazipur, the bustling hub of ready-made garment factories in Bangladesh, is witnessing remarkable growth. Readymade garment exports from Bangladesh have surged by 12.17% to $35.252 billion in the first nine months of fiscal 2022-23, reflecting the industry's incredible potential (Data released by the Export Promotion Bureau) 

At EDOTCO Group we understand the crucial need for reliable network connectivity in this industrial zone. That's why we've strategically deployed a significant number of telecom towers throughout Gazipur. This unique tower in Gazipur showcases ingenious space utilization and steel craftsmanship, enabling it to accommodate three tenants. 

By leveraging this inhouse innovative approach, we maximize efficiency and minimize costs, creating a win-win situation for all stakeholders involved. We believe Gazipur's factories have the potential to be the pioneering use case for Private Networks in Bangladesh.

In another post an employee shared their recent aesthetic Street Furniture pole installed at Nabisco Morh, Dhaka, designed specifically for mobile operators. Such poles not only blend seamlessly into the cityscape but also provide robust support for enhanced mobile connectivity.

Here is a slightly old but relevant video of EDOTCO infrastructure from Bangladesh:

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Tuesday, 23 April 2024

'Connected Urban' - CU Phosco's 5G Smart Pole Streetlight Solution

When it comes to deploying outdoor small cells and infrastructure on streetlights and lamp posts, Germany is at the forefront. Check out the related posts at the bottom of this post to see all that's going on there.

In a recent press release, Telefónica Deutschland announced (Google translated from German):

The telecommunications provider O2 Telefónica and the infrastructure provider 5G Synergiewerk, together with the Würzburg public utilities, have put the first 5G street light into operation in Bavaria as part of a pilot project. The 5G lighting tower combines street lights and cell phone sites. In doing so, it fulfills two central utility tasks: to provide lighting at night and at the same time to offer the city's citizens a high-performance 5G mobile network.

The aim is to use the existing urban infrastructure as efficiently as possible for an improved mobile network and new digital applications - and thus increase the quality of life for city residents.

CU Phosco Lighting, which supplied the smart pole solution, announced on its website: 

CU Phosco Lighting is thrilled to announce the successful deployment of Connected Urban, its pioneering new smart pole solution designed to enhance mobile network capacities. As part of a Pilot project with our German partner, 5G Synergiewerk, the first 5G streetlight was recently installed in Würzburg, Bavaria, in collaboration with telecommunications provider O2 Telefónica and the Würzburg public utilities.

A smart city, modular, and fully customisable lighting and small cell high-performance mobile network solution within a single, compact footprint, Connected Urban is a break away from more traditional rooftop or cell phone mast locations, and so the installation marks a significant milestone in the evolution of street-level mobile network densification.

Replacing a conventional lamp post, the innovative solution efficiently utilises existing infrastructure and grid connections, to provide citizens with both night-time lighting and advanced telecommunications capabilities, setting a new standard for high-performance 4G and 5G mobile connectivity.

With digital infrastructure facing increasing demands, including music and video streaming, the Metaverse, AI-based programmes, augmented and virtual reality, as well as connected driving and autonomous logistics, Connected Urban is poised to significantly improve the quality of life for city residents and businesses.

5G Synergiewerk has a time-lapse video of the installation of 5G mast system on their website. A video of that embedded below:

Quoting again from Telefónica's press release:

The location on Versbacher Straße is the first active 5G street light in Bavaria . Another location will follow shortly on Schweinfurter Straße, which will conclude a successful pilot project . Coordination discussions are currently being held with all those involved for additional locations. The 5G street light offers smartphone users high bandwidths with 5G and 4G/LTE for mobile telephony and data use in the O2 network. The densification of the mobile network via such small radio cells, which are known in technical jargon as “small cells” , is particularly helpful with regard to the increasing data usage of O2 customers as well as future digital applications in the private and business customer sector. In addition to everyday music and video streaming, this will also include the Metaverse, AI-based programs, augmented and virtual reality, connected driving and autonomous logistics . In Würzburg, more than 40 mobile phone locations are already operating in the O2 network . They ensure comprehensive network coverage with 2G (GSM), 4G (LTE) and the modern 5G standard. Rooftop locations or cell phone masts are usually used for this extensively developed city network.

Street lights are widely used as part of any urban infrastructure and are also suitable as radio cells. They have a power connection, so only a powerful fiber optic connection needs to be added to transport the mobile phone signals. In addition, the 5G light fits harmoniously into the cityscape with its light distribution. The replacement of the conventional street light was carried out in collaboration with the Würzburg public utilities. The infrastructure provider 5G Synergiewerk supplied the special intelligent light pole , a so-called “Smart Pole”. O2 Telefónica then installed the energy-efficient 4G/5G mobile communications technology in the light and ensures a seamless connection to the nationwide O2 mobile network .

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Friday, 19 January 2024

5G and Wi-Fi Connectivity from Link5G and LinkNYC's Tall Towers

Link5G is LinkNYC’s second generation offering that aims to improve the digital connectivity in New York City. The official website says:

Conceived in 2021 (the Year of 5G), Link5G enables the equitable deployment of both 5G cellular coverage and Wi-Fi connectivity across the five boroughs. Using multi-tenant structures, transmitters for telecommunication service providers will be housed within Link5G kiosks, expanding 5G options and enhancing coverage in underserved areas.

Link5G kiosks will bring better cellular service, increased opportunities to connect to free Wi-Fi, and improved options for in-home broadband internet access.

90% of the new Link5G kiosks, which are enabled for 5G and feature the same free services as the original Link kiosks, will be deployed in The Bronx, Queens, Brooklyn, Staten Island and above 96th Street in Manhattan. Additionally, 13 Community Districts have been specifically chosen by New York City to receive a minimum number of kiosks. Link5G will enhance neighborhoods’ cellular connections and provide businesses and pedestrians with improved high-speed Wi-Fi coverage. Link5G’s 32 foot height ensures that a 5G signal is effectively broadcast from optimal height for all carriers to reach New Yorkers' mobile devices.

Urban Omnibus has a good explainer of the issue and the infrastructure here. Quoting from the article:

CityBridge largely failed to accomplish its goal of helping to bridge the digital divide in the six years after kiosk installation began. The company put the majority of its more than 1,800 LinkNYC units in Manhattan but relatively few in the Bronx, Brooklyn, Queens and Staten Island, where neighborhoods lack at-home and mobile broadband at a higher rate. As THE CITY, the state comptroller and other news outlets have documented, the company fell short of ad revenue projections and was unable to pay $60 million it owed the city. The revenue shortfall resulted in an abrupt halt to kiosk installation, leaving many areas outside Manhattan without the access they were promised. The company faced bankruptcy in 2019. The city contemplated terminating the deal in 2020.

But despite the LinkNYC program’s history of delinquency, city officials are giving CityBridge another chance to bolster digital equity citywide: The company is now preparing to install hundreds of 32-foot-tall Link5G towers, beginning this summer. The city’s Public Design Commission approved the Link5G design for commercial and manufacturing areas at a meeting in December. Members postponed a vote on a residential rollout in order to review data on the service and infrastructural impacts of the towers’ first wave.

The new structures will be more than three times as tall as the original LinkNYC design. Like their predecessors, the lower part of the new structures will have a 911 button, USB ports, a tablet, calling capabilities and advertising displays. The structures will also provide free Wi-Fi. But the new designs will be topped by fifth-generation cellular network technology, or 5G, which will radiate from their upper chambers to enabled devices at street level. Multiple telecom companies could pay CityBridge to house their 5G equipment inside the chambers of a single structure. Their payments would bring in a new revenue stream to CityBridge, funding the company’s operations and expanded footprint.

The structures’ signals will supplement existing 5G networks that currently provide consumers speedy wireless internet service. City officials and CityBridge insist that more cell sites are necessary given the technical specifications of 5G, which require a “line of sight” to work: 5G is carried on millimeter waves that, unlike 4G frequencies, cannot penetrate most surfaces, whether a building or a bus.

Not everyone agrees that these look good or they will help in the future but there is a lot of support behind their installation. This article in NY Daily News for example argues:

Reliable wireless service requires the deployment of new infrastructure that supplements existing technology, such as rooftop antennas and underground fiber cable — or Link5G kiosks, which have space for up to five wireless carriers’ equipment. That means they can provide better, faster, and cheaper service for more people and small businesses nearby.

Bronx residents are not the only New Yorkers who could benefit from Link5G. Across New York City, approximately two-in-five households lack either a home broadband connection or mobile broadband through cell service. More than 1.3 million New Yorkers lack both. For these people, the social, educational, economic, and public safety consequences can be catastrophic. Here in the Bronx, nearly one in five teens cannot finish their homework because they live on the wrong side of the digital divide.

Link5G will eventually roll out to 2,000 locations, with 90% installed in the Bronx, Queens, Brooklyn, and Staten Island and above 96th St. in Manhattan. The need for these kiosks in underserved areas is illustrated by the fact that Link5G’s predecessor, LinkNYC, has provided more than 13 million New Yorkers with free, high-speed wireless internet since 2016 and is used to make around 425,000 phone calls monthly. It also offers access to 911 emergency services and valuable community-oriented public service announcements.

Even in districts with historic or commercial corridors, where locals have questioned the need for these kiosks, it’s unwise to assume every person who lives in the neighborhood, commutes there for work or is visiting has the same access to connectivity. My constituents often commute to other boroughs for work; their ability to stay connected is a necessity — not a luxury.

Still, many critics see the kiosks — which stand only as tall as traditional light posts — and attack their location, size, or ad screens without acknowledging the benefits of the kiosks to the city at large.

Let us know what you think.

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Thursday, 21 September 2023

Vodafone's 5G+ Street Lights in Cologne, Germany

Last year Vodafone Germany announced that they have collaborated with the City of Cologne, RheinEnergie AG and 5g Synergiewerk to bring into operation the first 5G+ street lights in Germany. The first 5G+ street lights in Europe are located in the heart of Cologne city centre in the immediate vicinity of the lively squares at Heumarkt and Domplatte. 

The press release said (Google translated in English from German): 

Vodafone has equipped the two street lights with its own mobile communications technology - this includes the antennas, the active technology and the cable guides. The technology for the 5G network is housed in the lantern base (podium) of the nine meter high lanterns, the antennas are mounted six meters above the ground. The connection to the landline network is via fiber optic lines. RheinEnergie supplies the electricity for the street lights of the future. The antennas have a range of up to 400 meters and offer a speed of up to one gigabit in the 3.5 GHz band of the 5G+ network.

The so-called small cells are small radio cells that supplement the actual base stations of the mobile phone networks. They cannot replace a cell phone location on a roof or mast, but they provide additional capacity or increase the range in smaller areas within the cell phone cell. They are used primarily where there are a particularly large number of people in a small space. Small cells will play a particularly important role in the future for the 5G+ real-time network: in networked mobility offerings, for mobile augmented reality applications or for the social networks of tomorrow.

As part of its 'Gigabit Masterplan Cologne 2025', the city of Cologne is aiming for a comprehensive gigabit network with fiber optics in the ground and 5G in the air by 2025. The city of Cologne's goal is to facilitate network expansion in the cathedral city. Therefore, antenna locations of the city of Cologne and the Cologne public utilities as well as fiber optics and electricity are bundled and rented to the network operators or respective radio tower companies. The commissioning of the innovative street lights is part of the strategy for the comprehensive rollout of 5G+ throughout Cologne. Vodafone and its infrastructure subsidiary Vantage Towers are responsible for thisUse antenna locations in combination with fiber optic and power connections from the city and RheinEnergie. Vodafone is the first user of this 'Cologne model' of combined infrastructure provision. In principle, this model is open to all network operators.

A more detailed video is available in the post here.

In a post that no longer exists, LIGMAN Evolve provided their involvement:

LIGMAN Evolve worked closely with partners 5G Synergiewerk and Stadtsysteme to deliver a bespoke solution for the deployment of the 5G+ network which would blend in with the existing street lighting infrastructure.

The LIGMAN Evolve solution has provided Vodafone with the ability to conceal and thermally manage the radios within the base section of the pole. This podium section also incorporates the power and fibre connections.

The poles incorporate hatches with bracket arms designed for the passive antennas. These provide the ability to accurately align the antennas to the required sector to maximise coverage in the streets.

The Extended podium has been designed with separate compartments for the MNO’s and the local electricity company – ESB. Both have a locked enclosure and neither has access to the others enclosure.

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Monday, 8 August 2022

Verizon's Growing Small Cells Footprint

Verizon was in news recently when their CTO, Ed Chan, mentioned that the operator had plans to speed up its small cell buildout starting in 2023. Light Reading quoted in an article:

His comments, made to financial analysts at Wells Fargo, come after the small cell market in the US took a breather during 2021 as big network operators focused on building out their new midband spectrum holdings via bigger, macro cell sites.

"Verizon anticipates small cells activity will ramp in 2023 as activity shifts toward 16t16r deployments from early 8t8r deployments built in 2022," wrote the Wells Fargo analysts of their recent meeting with Chan. Newer 5G radios can generally support more antennas, including 16T16R configurations.

"Chan also referenced that a third party had taken longer to grow scale and expertise to handle the installs Verizon had planned, but that it is reaching a point where a higher mix will trend toward third-party deployments from self deployments today," the analysts added.

Verizon officials did not respond to questions from Light Reading about Chan's meeting with Wells Fargo executives. The meeting is not listed among the operator's recent public investor events.

The small cell news could be important to equipment vendors, ranging from Airspan to Ericsson to CommScope. Jennifer Fritzsche, managing director at investment bank Greenhill & Company, wrote recently that Chan's comments could presage a resurgence in the US small cell market. She speculated that Verizon could turn to third-party small cell providers like Crown Castle and ExteNet Systems.

Small cells are big in the USA but the definition of it has become a bit fuzzy. In the old days it used to be an all-in-one unit but now anything that is deployed with an omnidirectional antenna or anything that is deployed on lamp posts or poles can be considered a small cell. 

Over the last few years we have looked at the small cells pics in the USA (see related posts at the bottom), so here are some of them from Verizon.

Quoting again from the Light Reading article:

Verizon is widely regarded as the leader in small cells in the US. The company has so far deployed 30,000 small cells sites for its millimeter wave (mmWave) 5G network.

"We continue to deploy millimeter wave, which is a key part of our network, providing massive bandwidth in dense urban areas," said Verizon's Rima Qureshi, the operator's chief strategy officer, during a recent Verizon investor event. But company officials haven't provided any specific goals for small cell buildout in 2023 and beyond.

T-Mobile has said that it eventually expects to operate around 40,000 to 50,000 small cells as it completes its big 5G network buildout, while AT&T at one point had planned to operate 40,000 small cells by 2015. But AT&T did not meet its goal, and company officials have remained quiet about small cells since.

Verizon, AT&T and T-Mobile have all been working to deploy their midband 5G spectrum holdings, and that work has shifted their focus away from small cells. Macro cell towers can cover wide geographic areas, while small cells – which typically sit atop street lights and rooftops rather than large cell towers – are primarily viewed as a method to improve capacity rather than coverage.

Which one is your favourite? Let us know if you have more pictures.

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Friday, 10 June 2022

Omniflow Smart Street Lighting for 5G and IoT

I wrote about Omniflow back in 2017 so it was nice to see it in reality at MWC 2022 at Deutsche Telekom stand. A blog post on Telekom's website throws more light on the partnership:

Omniflow’s smart IoT lamp pole provides light, WiFi access, measures traffic flows, and many other services, all powered by sun and wind and using Telekom’s 5G technology.

Conventional street lights provide light, consuming a considerable amount of energy. Generating this energy releases up to 1.3 tonnes of CO2 per year. Not so with the smart IoT lamp pole manufactured by a Portuguese company, Omniflow. Omniflow’s state-of-the-art Smart Pole supports all kinds of practical uses such as traffic monitoring, smart parking, WiFi access, 5G small cells and many more. And thanks to solar modules, a wind turbine and integrated energy storage the smart pole can operate even during power network fails, being resilient and very energy-efficient. Compared with conventional street lighting, that enables operators to reduce their energy costs by over 90 percent.

A further reason for the growing global success of Omniflow smart poles is that the lights can be equipped with a wide range of IoT functions. Telekom supports this sustainable Smart City solution with LTE and 5G small cell modules for functions such as WiFi reception and data transmission to the cloud. Omniflow already has more than 2,000 smart poles in use around the world.

Digital Catapult has a case study on Omniflow here:

A graduate in material engineering, Pedro Ruão is the company founder and CEO of Omniflow. He started his career in product design, developing 3D prototypes. 

In 2009, a magazine article caught Pedro’s attention – a feature on Richard Branson and his search for cleantech innovators. Although Pedro did not work directly with energy at the time, the article inspired him to start formulating ideas. 

Pedro’s original idea was to generate and sell energy using a hybrid turbine and solar energy device. However, he soon realised this would be difficult to scale, let alone compete with the megawatts produced by giant wind farms and solar parks. 

Instead, Pedro saw the potential of using edge computing and IoT technologies to transform the turbine into a multi-purpose device, designing the Omniflow Smart Pole. 

Powered by wind and solar with integrated battery storage, the Omniflow Smart Pole transforms a regular streetlight into a sustainable smart infrastructure. One unit can provide WiFi, IoT sensors, computer vision, traffic management and charging points for electric vehicles or phones, among many possible services, to drive additional revenue for cities.

In 2021, Omniflow joined the 5PRING Green Innovation accelerator programme, designed to help small businesses develop cutting-edge technologies that reduce carbon emissions using 5G connectivity. 

5PRING is part of a programme of strategic projects led by West Midlands 5G (WM5G) to accelerate the benefits of 5G throughout the region.

As the technical lead for the 5PRING Green Innovation accelerator programme, Digital Catapult supported Omniflow to validate its 5G use case and access 5G testbed facilities.

Refining the technical configuration setup to use the 5G testbed, Digital Catapult installed the Omniflow test equipment and remotely performed tests using a private 5G network. 

By reporting latency of 17ms – compared to 125ms with public 4G – Digital Catapult confirmed that Omniflow’s unit would allow the delivery of a real-time surveillance solution and process video analytics through 5G.

Omniflow installations now span all continents, from Asia, to Europe and the United States. In Dubai Internet City, Omniflow is in partnership with Hewlett Packard Enterprise, showcasing 5G capabilities and innovation with an Omniflow Smart Pole equipped with computer vision, public WiFi and edge computing services. 

As a key market for green innovation, California has adopted a wide range of Omniflow solutions and 5G-enabled services across the state, including airport infrastructure, university campus security, city-wide smart lampposts and onboard technology for boats, used for Alcatraz Cruises. 

As cities across the UK commit to net zero targets, an Omniflow installation in Manchester recently reported energy savings of more than 90%, simply by replacing two-year-old LED streetlights.

Omniflow is also seeing a growing interest in drone charging stations, beneficial for managing solar parks, wind farms or surveillance for areas with a large perimeter. Powered by the smart pole, drones can also be used for logistics or medical emergencies, deploying defibrillators on demand.

With the expansion of its 5G offering and solutions, Omniflow plans to increase the battery capacity of its units, which could collectively generate megawatts of power.

Recently, Omniflow was selected as one of the 12 startups for AWS Sustainable Cities Accelerator. You can read the details on Pedro Ruão's LinkedIn post here.

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Friday, 18 February 2022

UK will make Street Furniture accessible for Telecoms Infrastructure

The UK government has announced new plans to slash red tape from 5G roll out and improve mobile phone connectivity. For this to happen, street lights, bus shelters and traffic lights will be allowed host more mobile network equipment thereby helping boost mobile coverage as part of a new scheme to cut red tape and install more 4G and 5G kit.

The following is from the press release:

Eight winning projects will receive a share from the £4 million Digital Connectivity Infrastructure Accelerator (DCIA) to explore how digital software can help simplify local authority processes when telecoms operators request access to publicly-owned buildings and curbside infrastructure.

Street furniture such as road signs and CCTV poles can be used to improve 4G coverage but they are also integral to the roll out of 5G, which requires a larger number of smaller ‘cell sites’ - where antennas and other telecoms equipment are placed to form a network - to ensure seamless coverage and to meet surging demand for connectivity.

However, telecoms firms can often find it difficult and time consuming to acquire the information needed to verify a structure is suitable for hosting network equipment - such as its location, physical dimensions, proximity to the street or access to a power source - which is slowing down the pace of deployment.

In response, the government will invest in piloting the latest innovations in digital asset management platforms. This software will enable local councils to more easily share data mobile companies need to accelerate their roll out plans and deliver the revolutionary benefits of 4G and 5G to people and businesses.

From what we can see, this news has been well received by operators.

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Monday, 31 January 2022

Crown Castle bringing more Small Cells to the USA

Crown Castle owns, operates and leases more than 40,000 cell towers and approximately 80,000 route miles of fiber supporting small cells and fiber solutions across every major U.S. market.

Earlier this month, T-Mobile US, Inc. and Crown Castle announced that the companies have signed a new 12-year agreement to support the continued build-out of T-Mobile's nationwide 5G network with increased access to Crown Castle's towers and small cell locations. The agreement enables the Un-carrier to further expand and deepen the reach of its industry-leading 5G network to serve consumers across the U.S. while also realizing financial synergies following its merger. The agreement also helps Crown Castle generate long-term tower and small cell revenue growth.

An RCR Wireless News article said:

Crown Castle secured commitments for over 50,000 new small cell nodes during the last twelve months, which equates to approximately 70% of the total small cells the booked in its history prior to 2021, the company’s CEO Jay Brown said in a release.

“As a result, we now have approximately 55,000 small cell nodes on-air and more than 60,000 committed or under construction in our backlog. Our customers are already planning for the next phase of the 5G buildout that will require small cells at scale, and this inflection in our small cells business reflects how well-positioned we are to support their wireless network needs for years to come, with our more than 80,000 route miles of fiber concentrated in the top U.S. markets,” the executive said.

“I believe 2022 will be an important transition year for our small cells and fiber business, as we prepare to accelerate our deployment of small cells from approximately 5,000 this year to what we expect will be more than 10,000 per year starting in 2023,” Brown added.

A Light Reading article from last year talked about a new report from Altman Solon. 

Altman Solon said it derived its findings from a database it constructed of small cells across more than 70 US markets. "Leveraging analysis of this database and augmenting with other primary and secondary research and our deep experience and knowledge base in the space for all small cell ecosystem players, Altman Solon has developed preliminary critical insights about the competitive landscape in the US small cell market," the firm boasted.

Among its findings:

  • "Small cell growth has been much slower historically than what industry reports have projected due to the regulatory climate, lack of neutral hosts, and limited backhaul," the firm wrote
  • Roughly 70% of the small cells it identified are located in dense urban and urban areas.
  • Crown Castle operates about 50% of all small cells identified, while mobile network operators like Verizon account for around 35%. Crown Castle operates about 50,000 commercially available small cells today, with another 30,000 on order. ExteNet Systems operates roughly 32,000 small cells across the country, while Mobilitie – recently acquired by Canada's BAI Communications – counts around 10,000 small cells.
  • Altman Solon identified very few neutral host small cells, which are small cells that transmit signals for more than one network operator. Such devices are considered critical to the growth of the industry considering neutral host small cells can generate significant revenues for the companies that operate them.

Here is a short video from Crown Castle explaining their view of small cells

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Friday, 21 January 2022

Telefónica Deutschland Activates Germany's First Open RAN Small Cells with Airspan Networks

O2 / Telefónica is a technological pioneer in the use of Open RAN. Since December 2020, it has successfully integrated four base stations in Landsberg am Lech into its mobile network. At present, they are testing the technology, gaining experience and planning further expansion at other locations once all tests have been successfully completed. 

In an announcement this week, it said that it is the first German mobile network operator to have activated the first mini-radio cells with innovative Open RAN technology (ORAN) in Munich. They are intended to provide all O2 Germany customers with even more capacity and higher bandwidths at busy locations in the future. 

While the press release doesn't mention the vendor, Airspan Networks Tweeted that the ORAN Small Cell is supplied by them

Selected extract from the press release as follows:

With the compact, flexibly deployable latest-generation mini mobile cells, the company is able to increase 5G/4G capacities in the O2 network at high-traffic locations in urban areas faster than before. The mini-radio cells, attached to a building facade on Klenzestraße in Munich's Gärtnerplatz district, supplement the 4G/5G mobile network installed on rooftops in the city center, but do not replace it.

Small Cells directly enhance the network experience for local customers. The new technology, which is not much bigger than a shoebox, provides customers in very close proximity with 4G and bandwidths of up to 100 Mbps. In the near future, O2 / Telefónica will also use the small cells for targeted, selective 5G coverage. Here, too, the focus will primarily be on particularly busy locations in German city centers, such as very busy squares, shopping streets or public transport stops.

In addition to a power supply, the small cells required a connection via fiber optics. In Munich, this is provided by the fiber optic infrastructure of Stadtwerke München and the local telecommunications provider M-net.

In the coming weeks, further installations will follow in Munich's city center: First, two 4G radio cells at Gärtnerplatz and later this year, O2 / Telefónica will also install pure 5G Open RAN mini radio cells ("5G Standalone") for the first time in the area of Kaufinger Straße in the Bavarian capital. In the course of these expansions, it is also conceivable to use existing infrastructures of Stadtwerke München - such as bus stops or power distributors.

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Friday, 17 September 2021

Bigbelly's Telebelly Small Cells to Connect Rural and Urban Users


Bigbelly claims to be the world leader of smart waste and recycling solutions for public spaces. According to their website, they have a proven solution that has been deployed in 50 countries around the globe. When the company started back in 2003, the mission was to transform one of the least efficient and resource heavy operations - waste operations. Today, Bigbelly provides a public right-of-way platform to deliver smart solutions and host communications infrastructure.

Earlier this year, they announced that Telebelly, an integrated pole and antenna solution that expands the Bigbelly station’s service by offering enhanced wireless services to the communities it serves, is set to boost connectivity across UK cities following its decision to launch. The press release said:

The move is expected to accelerate growth of the UK’s small cell network, which is a series of small antennas attached to existing urban infrastructure within densely populated areas. It will also pave the way for 5G by making it easier for telecommunication companies to deploy a faster and more reliable service without relying on large-scale mast installations.

Telebelly, which is 4G and 5G capable, will also reduce visual clutter associated with the growing number of small cells currently secured externally to fixed structures such as streetlights, as it is securely and internally housed.

Bigbelly anticipates interest in Telebelly from UK local authorities, which are seeking solutions for their public spaces that utliise, wherever possible, existing or multi-purpose infrastructure.

Councils, mobile network operators and other third parties are now able to consider the existing 2,500 Bigbelly units in operation across the UK, as well as new locations, for potential Telebelly sites. Wherever a public waste bin is appropriate, a Telebelly may be the solution to hide small cells in plain sight.

Meanwhile their press release in Australia announced:

Today Bigbelly Solar, Cellular Asset Management Services, and Smartsensor Technologies, Bigbelly distributor in Australia, announce they have deployed a number of Telebelly Wireless cabinets, a hybrid telecom and waste management cabinet to benefit the community providing waste services and wireless coverage.

Bigbelly Solar says this is a global first, with Blackman Park in the municipality of Lane Cove being the first one in the world to go live.

The Lane Cove council commented: “Lane Cove has been using Bigbelly compacting waste bins successfully in the community to help provide more capacity and a cleaner environment compared to conventional litter bins. The integration of this solution with mobile connectivity allows us to additionally provide much needed mobile service in currently underserved locations.”

Bigbelly Solar says the benefit of these units is that they blend in with the surrounding environment and matches the recognisable form of an adjacent big belly waste bin.

Not only does the community benefit from the increased mobile coverage footprint, each new Telebelly station now features a Bigbelly high capacity solar-powered waste compactor, complete with hands-free capabilities.

In addition to providing 4G voice and data services, the Telebelly could also be configured to provide Internet of Things (IoT) connectivity and Wi-Fi. A strong and reliable wireless connectivity not only provides a telecom advantage; such a service improves safety and security around public spaces.

Telecommunications have played an integral part during the recent Covid-19 crisis, allowing Australians to continue to work from home and stay connected with friends and family.

For those living in areas with limited coverage due to topography, small infrastructure solutions allow mobile operators to utilise public spaces such as parks and community ovals with coverage while also providing waste solution for the community’s benefit. Bigbelly Solar says these smaller solutions will reduce congestion on the network thus allowing mobile operators to provide mobile coverage in homes and businesses.

Meanwhile in the USA, where their Smart Waste & Recycling solution has been deployed in all 50 states, they deployed Telebelly small solutions in Milwaukee last year. Their blog post says:

The City of Milwaukee first connected with Bigbelly when a major wireless carrier reached out regarding siting challenges ahead of a significant event in the area. The event was fast approaching, and the city required a solution to host small cell in those central, inevitably high-traffic locations. The City looked to solve the all-too-common problem of hiding small cell infrastructure in a manner with the least visual impact. In other words: their complex technology needed to hide in plain sight.

Like many central locations, these high-traffic downtown areas were deemed to be “aesthetically sensitive.” Project approval was fully contingent on the Telebelly’s concealment solution: its ability to be compact, efficient, safe, and self-effacing.

The City was excited about the Telebelly’s multipurpose capabilities, such as small cell hosting, smart waste, IT hosting and more. But most importantly, Milwaukee was intrigued by the Telebelly’s ubiquitous form factor; its simple & understated aesthetic is inherently non-intrusive. This was essential to their form factor challenge.

Within six months of the initial conversation with the wireless carrier, the Telebellies were installed and ready to go! Already, both wireless carriers and the City are thrilled with the installation & performance of their new fleet, and assert that the Telebelly units are an excellent solution for areas which are traditionally difficult to permit.

Readers of this blog will no doubt be aware of many different solutions for both the scenarios listed above, coverage and capacity, that I have covered over the years with similar solutions. It remains to be seen how operators and councils embrace it. 

Embedded below is a detailed video from them from Smart Cities Week 2020, discussing "Smart Alternatives to Small Cell Deployment":

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Friday, 10 September 2021

Ericsson's Street Solutions

Ericsson’s announced that their Street portfolio offers operators and other service providers an opportunity to seamlessly bring connectivity to where it is needed. Part of the Ericsson Radio System, the street solutions are an integrated part of the network, with feature parity and end-to-end performance. 


In a recent press release they announced:

5G deployments are accelerating across the country at a faster rate than expected. According to Ericsson’s annual mobility report, by the end of 2021, 25 percent of the global population will have 5G coverage. In North America, more than 360 million 5G subscriptions are anticipated in the region by 2026, accounting for 84 percent of mobile subscriptions.

However, connectivity can suffer in dense urban environments, and as 5G comes to U.S. cities, urban rollouts are grappling with challenges like how to deploy non-intrusive sites, how best to utilize all frequency layers, and how to streamline site permitting and installation. Many sites need to expand 5G capacity, and hotspots and streets need strengthened capacity in both low, mid and high-band to build a complete 5G network as traffic grows.

Powered by Ericsson Silicon, these new solutions are:

  • Street Radio 4402: Designed to turn a streetlight into a low- or mid-band 5G site in 15 minutes, these compact radios are an industry-unique collaboration with Ubicquia, boosting 4G and 5G experience with zero footprint;
  • AIR 4435: The world’s smallest 4T4R street antenna-integrated radio is designed for minimum footprint and easy installations, adding excellent mid-band capacity to macro coverage gaps;
  • Street Macro 6705: A complete mmWave base station with integrated RAN Compute is an industry-leading end-to-end solution with low visual impact.

Ericsson Street Solutions also include transport solutions for any 5G street site, with wired and wireless backhaul and fronthaul solutions. And zero footprint power systems for street and hotspot sites are 100 percent carry to site, with low maintenance and operations costs.

A brochure with all the necessary details is available here.

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Friday, 18 June 2021

Cell-Site Construction And Evolution Strategies


We all agree that cell sites are complex beasts. The diagram above shows in a simple way all the tasks that may be necessary for cell site deployment. Late last year, ABI Research produced a whitepaper on "Global Cell-Site Construction And Evolution Strategies" that they made freely available here. Quoting the executive summary below:

5G networks are being rapidly deployed around the world with many of these networks working in parallel to existing legacy cellular technologies, such as 2G/3G and 4G, to provide higher data connections of 10X more throughput than 4G. 5G networks typically use high-frequency spectral resources (C-band and mmWave) and, according to the International Mobile Telecommunications 2020 (IMT-2020), the downlink and uplink peak data rate of a 5G network should be 20 Gigabits per Second (Gbps) and 10 Gbps, respectively, with downlink and uplink peak cell spectral efficiency of 30 bit/Second (s)/Hertz (Hz) and 15 bit/s/Hz, respectively. The use of higher frequency bands, which suffer from higher penetration loss and the continuous increase in requested data rates for end users, dictate the necessity of higher network availability and network capacity, which could be achieved through additional spectral resources and network densification. Many MNOs have already bought at auction spectrum for 5G deployment, but the network capacity can be maximized through network densification. Thus, the acquisition of cell site assets is critical for Mobile Network Operators (MNOs) for the effective performance of 5G networks.

These network requirements have brought huge challenges to MNOs, local governments, vendors, and System Integrators (SI), as some of those challenges are well-known unsolved issues evidenced by the deployment of legacy generations of cellular technologies and have become even more relevant now with the advent of 5G and the expected large-scale cell site densification.

These challenges range from the high cost associated with deploying network infrastructure at street level, to complex approval processes from local government, including lengthy and expensive site acquisition processes; lack of power availability; limited backhaul availability; lengthy planning application processes for street works or build works; limited space availability on premises and within street furniture; size and flexibility of existing cellular equipment that can fit the different rollout scenarios (e.g., smaller antennas to fit within wall-mounted small cell enclosures); lack of availability of underground space for the deployment of a new chamber and ducts; decluttering policies from local governments that can largely impact the deployment of 5G networks; and increasing tenancy fees for additional 5G equipment and increased power supply.

In response to this situation, there is some pressure on telecom equipment vendors to come forward with solutions that suit each rollout scenario. Improved physical features, such as smaller form factor antennas similar to the Wi-Fi Access Points (APs), lighter-weight and smaller Massive Multiple Input, Multiple Output (mMIMO) antennas, and an innovative variety of vendor equipment, backhaul, and reduced power consumption solutions will help MNOs address these challenges and stay ahead of the competition.

Finally, unlike previous generations of cellular technologies, policymakers, urban planners, and local governments have an important role to play, providing more flexible legislation that enable the rollout of network infrastructure at a faster speed by providing clear guidelines for easy access to the assets for the deployment of cellular infrastructure.

While many topics have been covered in the whitepaper, one of the issues I have closely experiences is the insufficient power for the new upgrades. Again, quoting from the whitepaper:

ENERGY

When deploying a cell site, the power requirement can typically be categorized as: 1) static power consumption, which is associated with the support system of a base station, and 2) dynamic power consumption, which is associated with the data traffic load. For a cell site, the amount of energy consumption varies depending on the amount of equipment and the number of frequency bands supported. Optimizing energy consumption can help operators lower their OPEX and achieve environmental goals.

CHALLENGES

Insufficient DC power capacity. Energy consumption is expected to increase with 5G deployments. New frequency bands and an increased number of equipment contribute to the this. Research on developed markets indicates that the maximum power consumption of a typical site supporting five bands could exceed 10 Kilowatts (kW). However, the reality is that about 30% of macrocell sites do not have a power supply that could support such power requirements. The common solution for energy expansion is adding more rectifiers or more energy cabinets. However, the equipment room or cabinet do not always have sufficient space for additional equipment. To cater to the increasing demand for energy, operators need to either find solutions that improve the existing equipment’s efficiency or construct new cabinets at sites. However, newly constructed cabinets also entail increased civil work and rental costs for operators.

Grid reconstruction. Grid power for the existing sites may be insufficient, especially due to the increase in power consumption with a 5G deployment. Such sites need grid modernization, which can be expensive and can greatly slow down the pace of a 5G deployment. Due to the process and construction requirements, the time to modernize the grid could be up to a year for each site.

Insufficient power backup. Operators need to meet the strict five nines or high availability of services. Ensuring business continuity is crucial for any operator. In times of prolonged bad weather or a power outage, grid and solar energy might not be available to power the cell site. Energy storage systems with lead-acid or lithium-ion batteries, for example, are required to mitigate the risk of a power outage. Most existing networks are still using lead-acid batteries, while the low-energy density, heavy weight, and big volume of a lead-acid battery make it difficult to do an expansion when deploying 5G.

High electricity cost. Another key challenge for operators is how to optimize energy efficiency, translating into good investments by operators. Relying solely on the electric grid could result in high energy expenditure, and the need to consider multiple energy resources. Traffic usage is also not constant throughout the day and varies depending on the location (e.g., city centers versus suburbs). How operators can manage the energy system intelligently and efficiently to reduce unnecessary waste becomes a core consideration.

Given the rapid development of 5G technology and an increasing host of service applications, computing is getting closer to users, with communication technologies and information technologies evolving toward converged Information and Communications Technology (ICT) architecture at an ever-faster pace. The increasing applications and computing required at the edge means that the power supply demand is expected to increase. Therefore, it is necessary to consider the amount of Alternating Current (AC)/Direct Current (DC) power supply needed at the cell site, as well as the number of equipment rooms that are required.

The paper goes on to describe the solutions. You can download the paper here.

If you have a favourite cell site issue do let us know in the comments.

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