Showing posts with label Infrastructure Masts. Show all posts
Showing posts with label Infrastructure Masts. Show all posts

Thursday, 15 October 2026

Designing the Invisible Network: Should Mobile Infrastructure Really Be Hidden?

Everyone wants better mobile coverage, faster speeds and more reliable connectivity, but not everyone wants a mobile mast or a collection of telecoms cabinets outside their home. This contradiction has been around since the early days of mobile networks and remains one of the challenges facing operators and infrastructure providers as they expand and densify their networks.

It was the central theme of a recent CWConnected Mobile Networks SIG event, Innovation in Cell Site Aesthetics: Designing the Invisible Network, held at St Catharine's College in Cambridge on 29 September 2026. The event brought together network specialists, infrastructure providers, property developers, planning authorities and equipment manufacturers to explore how mobile infrastructure can be made more acceptable to the communities it serves.

One of the interesting observations came from Paul Rhodes of Evolved Network Solutions, who introduced what he called the Streetlight Effect. The idea is that people tend to notice the mobile infrastructure that stands out, while remaining completely unaware of the many sites they pass every day that are already successfully integrated into their surroundings.

Paul described an exercise during Connected Britain in which he took a group of telecoms professionals on a 2 km walk to identify mobile infrastructure. Despite knowing what they were looking for, the group identified only around half of the sites. Of the 15 installations he had identified along the route, only two were easily visible and recognisable as telecoms infrastructure.

This raises an interesting question. Is the problem really that mobile infrastructure is inherently unattractive, or is it that the relatively small number of highly visible sites disproportionately influence public perceptions?

Paul showed examples of antennas concealed within buildings, chimneys, flagpoles, trees and even public artwork. One example was the mobile installation incorporated into the Golden Angel structure at Guildford Cathedral. Another local example was the equipment concealed within the tower of Great St Mary's Church in Cambridge, only a short distance from the event venue.

These installations demonstrate that mobile infrastructure can often coexist with sensitive architecture without dramatically changing its appearance. However, concealment is not always possible, practical or even desirable.

Laurence Moore, Senior Planning Officer at Greater Cambridge Shared Planning Service, provided the perspective of the local planning authority. His presentation was particularly useful because it explained why planning objections cannot simply be dismissed as opposition to technology.

Planning officers must consider the visual impact of new infrastructure, its relationship with surrounding buildings, the character of conservation areas, the effect on listed buildings and the cumulative impact of street furniture. Something as straightforward as a telecoms cabinet occupying part of a pavement can create accessibility problems for pedestrians, particularly those with reduced mobility.

An installation might be technically excellent while still being unsuitable for its proposed location.

Laurence also highlighted the importance of early engagement. Greater Cambridge offers free pre-application advice for telecommunications developments, allowing operators to discuss potential sites and designs before formally submitting planning applications. This can identify problems early, reduce redesign and potentially avoid unnecessary delays.

One important point was that local authorities are not necessarily opposed to telecommunications infrastructure. They recognise its economic, social and safety benefits but want it delivered in ways that respect the local environment.

Jenny Obee, Information & Digital Technology Director at Related Argent, approached the subject from a property developer's perspective, using King's Cross and Brent Cross Town in London as examples.

For developers, connectivity has become an important part of the value and attractiveness of a development. It supports residents, businesses, visitors, building management systems, energy monitoring, security and an expanding range of operational technologies. However, mobile connectivity is frequently considered too late in the development process.

By the time requirements are properly understood, rooftop space, plant rooms, risers and other infrastructure may already have been allocated. Incorporating mobile equipment then becomes considerably more difficult.

There is also a significant commercial challenge. The developer or property owner may have to fund infrastructure while the benefits are experienced by residents, tenants and mobile operators. This is particularly difficult for residential developments, where the economics of dedicated mobile infrastructure may be harder to justify than in commercial offices.

Jenny's central message was that connectivity needs to be designed into developments from the beginning, rather than treated as something that can be added later. Having a clearly defined responsibility for connectivity throughout the development lifecycle would make a significant difference.

Chris Stratton of Communication Property Services explored what happens when infrastructure providers, site owners, planning authorities and other stakeholders collaborate effectively, and what happens when they do not.

His examples illustrated how the same basic infrastructure can be received very differently depending on its location, surroundings and design. A structure that is barely noticed in an industrial environment might become highly controversial in a residential street or sensitive historic location.

Chris emphasised the importance of explaining why a particular installation is necessary, understanding what is actually behind local objections and considering whether sympathetic design could address those concerns.

This is particularly relevant because not every objection can be solved through technical changes. Sometimes the problem is poor communication, sometimes it is the proposed location, and sometimes a genuine design compromise is necessary.

David Gilligan, CTO of Constant Group, showed how equipment design and manufacturing can significantly reduce the visual impact of telecoms infrastructure.

Traditional macro sites can require multiple cabinets for power, radio equipment, fibre, baseband processing and other functions. Shared installations may introduce further complexity, particularly where several operators and multiple frequency bands need to be accommodated.

David demonstrated how modular designs can consolidate equipment, reduce the number of foundations and minimise the overall footprint. He also presented examples of small-cell installations designed to complement existing street furniture.

One interesting example involved deployments along London's South Bank, where equipment had to be integrated into a heavily used pedestrian environment with strict requirements around street furniture and appearance. Rather than simply installing standard cabinets, the designs incorporated bespoke arrangements and finishes that better matched the surrounding environment.

His presentation also explored the possibility of treating telecoms infrastructure as something closer to public art, with enclosures and structures designed to complement the local streetscape rather than merely conceal their technical purpose.

Ian Goetz of Parallel Wireless examined how changing mobile traffic patterns are influencing network design.

Historically, mobile networks have been built around macro sites providing relatively wide-area coverage. However, much of today's mobile data consumption occurs indoors or at street level, often with users moving slowly or remaining stationary.

This creates demand for network densification, particularly in urban areas where additional capacity and more consistent street-level coverage are needed.

Small cells mounted on lampposts and other existing street infrastructure can help address these requirements, but there are several practical challenges. Equipment must be sufficiently compact, suitable power and fibre connections must be available, and the mounting structures must accommodate the additional weight and wind loading.

Ian also discussed how Open RAN and centralised RAN architectures can provide flexibility in where equipment is located. Rather than placing all network functions at the installation site, some equipment can be centralised, leaving smaller radio units and antennas on street furniture. This can help reduce visual clutter while supporting more efficient network deployment.

The approach is also relevant to shared and neutral-host infrastructure, where one infrastructure provider can support connectivity for multiple operators. It could additionally support applications such as smart-city services, connected transport and wide-area private 5G networks.

Nick Wiggin from Wireless Infrastructure Group continued this theme by highlighting the growing role of shared outdoor small-cell infrastructure.

His presentation included examples of centralised RAN deployments in Aberdeen and Birmingham, demonstrating how equipment can be distributed across the network while minimising what needs to be installed on individual lampposts.

A particularly interesting comparison showed how conventional installations can involve several bulky equipment units attached to a lamp column, whereas more integrated shared solutions may require little more than a discreet antenna enclosure or wraparound arrangement.

Nick also highlighted Small Cell Forum forecasts pointing towards significant growth in public neutral-host small-cell deployments over the coming years, driven by increasing local-authority engagement, constrained operator capital expenditure and investment from specialist infrastructure providers.

This is important because simply replacing large mobile masts with hundreds of poorly designed small-cell installations would not necessarily improve the urban environment. Sharing infrastructure, reducing equipment dimensions and coordinating deployments are essential if densification is to avoid creating a different form of street clutter.

The panel discussion, chaired by Julie Bradford of Real Wireless, brought several of these themes together.

One important challenge raised during the discussion was the suggestion that small cells might somehow replace traditional macro infrastructure. As Professor Andy Sutton pointed out, macro and small cells perform different but complementary functions. A network cannot simply replace the wide-area coverage and capacity contribution of macro sites with small cells without considering the substantial technical and economic implications.

The consensus was that the future needs a suitable combination of macro sites, small cells and other deployment approaches, chosen according to the coverage, capacity, reliability and economic requirements of individual locations.

There was also discussion about the cost of delivering the level of connectivity the UK increasingly expects. Finding the right technology mix is not just a radio-planning problem. It requires investment, commercially sustainable infrastructure-sharing models, cooperation with local authorities and a better understanding of where additional sites will deliver the greatest benefit.

Towards the end of the panel, I raised a slightly controversial question.

Why are we always trying to make mobile infrastructure invisible?

After all, mobile connectivity is an essential part of modern life. We generally accept other forms of infrastructure, including railway stations, bridges, streetlights and electricity infrastructure, as visible parts of our environment. Some of these structures are purely functional, while others have become attractive architectural features or even landmarks.

Why should mobile infrastructure always be treated as something that needs to be hidden?

Perhaps there are opportunities to make some installations more colourful, incorporate local artwork, use distinctive architectural designs or even consider carefully designed advertising and branding.

In several countries, mobile infrastructure is visibly associated with the network operator providing the service. This could potentially have another benefit by making people more aware of the infrastructure delivering their connectivity, although shared sites and neutral-host networks make simple operator identification less straightforward.

There is also a wider question about public perception. If infrastructure is consistently hidden away, does that unintentionally reinforce the idea that it is something undesirable? Could attractive, recognisable and well-designed installations help people become more comfortable with the infrastructure they depend upon?

The response from the panel was interesting. There was recognition that infrastructure does not always need to be concealed and that attractive design can sometimes be preferable. The comparison with Victorian railway stations was particularly relevant. Many structures that are now regarded as important architectural landmarks were originally built to accommodate entirely new forms of infrastructure.

At the same time, practical experience from infrastructure deployments suggests that greater visibility can attract more objections. A highly visible design, however attractive to its creator, may not be welcomed by nearby residents.

There are also obvious limitations. Bright colours, advertising and prominent designs may be inappropriate in conservation areas or historic settings, while commercial advertising could introduce its own planning and visual-clutter concerns. What works in a modern shopping district may be completely unsuitable beside a medieval church.

Nevertheless, I think the industry should be willing to explore more than one approach.

In some places, hiding infrastructure within existing buildings or street furniture will clearly be the best solution. In others, carefully designed, visible infrastructure might actually improve the surroundings. Public art, sympathetic colour schemes, integrated seating, lighting or other useful street features could help turn infrastructure from an unwelcome necessity into something more positive.

The wider lesson from the event was that cell-site aesthetics cannot be considered in isolation. They are connected to radio-network design, infrastructure sharing, manufacturing, property development, planning policy, investment and public engagement.

Technology already provides many ways to reduce the footprint and visual impact of mobile infrastructure. The challenge is to bring those solutions together early enough, and with sufficient collaboration, to make a meaningful difference to real deployments.

Perhaps the objective should not always be to design an invisible network. It should be to design a network that people can accept, that works reliably, and that fits naturally into the places where they live and work.

And sometimes, rather than hiding it, we might even make it something worth looking at.

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Tuesday, 4 August 2026

Vodafone’s Robotic Antenna Trial Brings Physical AI to the Mobile Mast

In Tirana, Albania, Vodafone is testing an approach to mobile network optimisation that goes beyond software: physically rotating and tilting a mobile mast antenna using an AI-controlled mechanical positioning unit supplied by HUMAX Networks.

Vodafone describes the trial as an early example of “Physical AI” in telecoms. Its algorithm analyses network demand and local conditions, decides where coverage is most needed and instructs the mechanism to reposition the antenna. The company says the system can also consider factors such as the weather when determining where to focus the strongest signal.

The trial site overlooks a busy shopping centre. Vodafone’s example is that the antenna can focus capacity towards shoppers during the day and then redirect coverage towards a nearby residential area as evening internet usage increases. Repositioning currently takes around 20 to 30 minutes. Vodafone says it could technically happen faster, but the movement has been deliberately slowed to reduce energy consumption.

The mechanism is not the large industrial robotic arm that the announcement’s headline might bring to mind. It is a compact antenna-positioning system installed between the panel and its supporting structure.

How the HUMAX OCRA system works

The equipment comes from HUMAX Networks and forms part of its OCRA solution, short for Optical Compass Robot Arm. The Optical Compass measures the antenna’s azimuth to establish its physical orientation, while the Robot Arm makes fine-grained rotation and tilt adjustments. An optional OC Controller can provide communication between OCRA and the operator’s server.

For the Vodafone trial, HUMAX says Vodafone’s AI-based system analysed real-time network conditions at the site, identified the preferred antenna orientation and instructed the Robot Arm to adjust the panel accordingly. HUMAX positions the technology as a way of responding more flexibly to changing traffic conditions while reducing the need to dispatch engineers to sites.

OCRA itself is not entirely new. HUMAX has previously described deployments associated with stadiums, major public events and Urban Air Mobility trials in South Korea. Its broader system can incorporate optical azimuth measurement, a controller and physical antenna alignment.

But remote antenna adjustment is not new

It is important to distinguish Vodafone’s trial from the remote antenna-control capabilities already used in mobile networks.

Operators have been using Remote Electrical Tilt, or RET, controlled through Antenna Interface Standards Group (AISG) interfaces, for many years. RET changes the vertical direction of the radio beam by adjusting components inside the antenna. The antenna panel, its mounting brackets and its physical bearing on the mast remain fixed.

AISG specifications also cover antenna functions such as Remote Azimuth Steering and Remote Azimuth Beamwidth. These can alter aspects of horizontal coverage in suitably designed antennas without mechanically rotating the complete antenna panel. The current AISG standards catalogue includes RET under AISG 3.0, while RAS and RAB remain listed among the AISG 2 extension specifications.

The difference is therefore not simply remote adjustment versus manual adjustment. It is electrical adjustment within a fixed antenna installation versus physical repositioning of the complete antenna panel.

The publicly available descriptions of Vodafone’s trial do not indicate that AISG is controlling the OCRA mechanism. Vodafone’s AI system appears to instruct the HUMAX positioning system through its own control arrangement. The antenna may separately support RET, but Vodafone does not identify this as part of the trial.

This also means that OCRA should not necessarily be considered a replacement for RET. The two approaches address different ranges and types of change.

Electrical tilt is well suited to fine-grained optimisation within the adjustment range designed into an antenna. Physical repositioning can change the antenna’s mechanical boresight and potentially redirect the sector towards a substantially different area.

Why physically move the antenna?

The most obvious advantage is the ability to redirect a sector without sending an engineer to realign the antenna manually.

Vodafone notes that a conventional physical adjustment may involve more than an engineer climbing a mast. Depending on the site, it can require access agreements, road closures, lifting equipment, planning permission and suitable weather conditions. Installing another antenna can take even longer.

A remotely controlled mechanical system could therefore be useful where the geographical distribution of demand changes significantly over time. Possible examples include:

  • Daily demand shifts: Shopping, business and residential districts with contrasting traffic patterns.
  • High-density events: Stadiums, festivals and other large temporary gatherings.
  • Seasonal demand: Coastal towns, ski resorts and other destinations with large seasonal variations.
  • Infrastructure disruption: Temporary coverage changes during major construction or transport disruption.
  • Aerial coverage: Urban Air Mobility corridors and drone routes requiring coverage above ground level.

These are not all use cases demonstrated in Vodafone’s Albania trial, but they follow from HUMAX’s previous work around high-density events and Urban Air Mobility, as well as the system’s ability to change physical azimuth and tilt.

There are also practical questions that would need to be considered before wider deployment. Moving equipment introduces mechanical components that must withstand wind, rain, temperature changes and repeated operation over many years. Operators would need to understand maintenance requirements, energy consumption, movement accuracy and the consequences of a mechanism becoming stuck in an unsuitable position.

Any significant sector redirection would also need to be coordinated with neighbouring cells. Moving one antenna can change interference patterns, coverage overlaps, handover boundaries and traffic distribution across the surrounding network. The AI decision cannot therefore be based only on demand at an individual site. It needs visibility of the wider RAN and suitable performance guardrails.

The bigger story is closed-loop network automation

The robotic mechanism is visually interesting, but the more important development is the closed loop connecting network intelligence with physical infrastructure.

Vodafone’s algorithm observes conditions, determines the preferred orientation and instructs the antenna system to act without waiting for a human decision. That moves network automation beyond changing software parameters and into controlling the physical configuration of the site.

Vodafone says the project is also intended to feed into its wider open, standards-based platform for automating RAN components. This could allow internal teams and third-party developers to create optimisation algorithms that treat antennas as active elements of an adaptive RAN.

In future, an autonomous system could potentially select between several optimisation options. A small coverage correction might be achieved using electrical tilt. A change in beam shape or horizontal steering might be possible within the antenna. A more substantial redirection could justify physically repositioning the panel.

Vodafone has not said that the Tirana system currently selects between all these methods. However, the trial points towards networks in which AI has a growing range of electrical and physical controls available to it.

Whether robotic antenna positioning becomes common will depend on the operational and commercial results. Operators will need to determine how often large physical changes are genuinely required, whether the performance gains justify the additional hardware and how reliably the mechanism operates over the full life of a mobile site.

Nevertheless, the trial is a useful reminder that autonomous networks will not be limited to software running in a data centre. Increasingly, intelligence may also control what happens at the top of the mast.

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Tuesday, 20 May 2025

NTT DOCOMO Trialled Japan’s First Self-powered Hydropower Base Station

In a move to advance sustainable telecom infrastructure, NTT DOCOMO launched a trial of Japan’s first self-powered hydropower mobile base station in May 2024. The initiative aimed to explore the viability of using flowing water from irrigation canals and similar sources to generate renewable energy for base stations, particularly in rural locations where power options are limited.

The trial featured a compact hydroelectric system based on a jet turbine co-developed with Professor Yukihiro Shimatani of the Prefectural University of Kumamoto. The turbine design integrated the nozzle and turbine into a single unit, which allowed for simplified manufacturing using 3D printing. This approach reduced both complexity and cost, making it suitable for distributed deployments in hard-to-reach areas.

The hydropower system was designed to generate electricity and convert it into a usable form for powering mobile base stations. It also collected real-time data on power output, water flow and pressure. This data was transmitted to DOCOMO’s Energy Management System platform, which monitored and controlled power distribution while visualising the reduction in CO2 emissions achieved through the system.

DOCOMO had previously relied on solar-powered green base stations to reduce its environmental impact. By March 2024, the company had deployed 286 such sites, equipped with photovoltaic panels and large storage batteries to maintain operations during grid outages. However, in areas where solar energy was not practical, DOCOMO explored alternative renewable sources, with hydropower emerging as a promising candidate.

The hydropower base station trial formed part of DOCOMO’s broader environmental commitment. The company had set out to achieve net-zero greenhouse gas emissions from its operations by 2030 and across its supply chain by 2040. With mobile base stations accounting for approximately seventy percent of DOCOMO’s energy use, the trial addressed a critical aspect of energy sustainability.

Over the one-year demonstration period, DOCOMO aimed to optimise the system’s electrical design and integration with mobile infrastructure. It also assessed which types of base stations could benefit most from hydroelectric power and how the system could be scaled for broader deployment. The company targeted March 2025 as the timeline for evaluating results and considering next steps.

This trial represented more than just an engineering exercise. It reflected a growing focus within the telecoms sector on decarbonisation, resilience and innovation. By experimenting with alternative renewable energy sources, DOCOMO showed how network operators could adapt infrastructure for a lower-carbon future, while improving coverage and reliability in off-grid areas.

As telecom networks continue to expand, projects like this highlighted the importance of flexible, locally sourced power solutions in shaping a sustainable infrastructure roadmap.

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Tuesday, 6 May 2025

How Vodafone UK Prepares its Network for Storms and Heatwaves

Extreme weather is a growing concern for mobile network operators, and Vodafone is no exception. Storms and heatwaves can damage infrastructure, interrupt power supply, and delay repair work. To keep people connected during such events, Vodafone has developed a range of technical measures and operational strategies that help it prepare for and respond to disruption.

The most exposed part of the network is the mast, which is usually above ground and can be up to 25 metres tall. While it is not possible to make these completely immune to bad weather, Vodafone designs them with resilience in mind. Many mast sites are equipped with backup batteries and generator connection points, provided there is space to install them safely.

Vodafone operates around 18,000 masts across the UK. Each one is part of the wider Radio Access Network, with traffic routed through dedicated signalling controllers hosted in secure data centres. These centres are equipped to maintain at least one mobile service, even in the event of a power outage, by prioritising the use of backup power.

In rural areas, some masts rely on microwave links instead of fibre or copper connections. These links require a clear line of sight between masts, so engineers carry out preventative maintenance to remove any vegetation that might interfere with signal transmission.

The Network Operations Centre (NOC) monitors the network and directs field engineers. During weather alerts, Vodafone increases staffing levels to improve response times and ensure the right resources are in place. Temperature sensors at mast sites detect heat-related issues and automatically alert the NOC if thresholds are exceeded. This can lead to quick interventions, such as cleaning or replacing clogged air filters in cooling systems.

If a mast repeatedly shows signs of overheating, the NOC flags it for further investigation. Possible solutions include enhanced maintenance schedules or upgrading the cooling technology. Despite all these precautions, access and repair work after storms or floods can still be complicated by damaged roads or infrastructure. Engineers may need to assess fibre cables, antennas or even the structural integrity of masts.

Where power supply is disrupted for extended periods, Vodafone’s network planners must carefully manage the use of batteries and generators. Coordination with external bodies such as the National Grid is often essential.

By investing in resilient infrastructure and ensuring rapid response capabilities, Vodafone aims to keep its mobile network running reliably, even in the face of increasingly unpredictable weather.

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Tuesday, 3 December 2024

Deutsche Telekom's Hydrogen-Powered Mini-Masts

Earlier in the year we wrote about Deutsche Telekom's Mini-Mast a.k.a. “Cell Tower To Go”.  Last year, DT set a new benchmark in sustainable technology with the deployment of hydrogen-powered antennas at the Nibirii Festival in Germany. This initiative replaced the traditional diesel generators with hydrogen fuel cells to provide eco-friendly energy for mobile base stations. The hydrogen is sourced in a CO₂-neutral process, marking a significant step towards green innovation.

For anyone who doesn't understand what hydrogen fuel cell is, this video has a good explanation.

At the festival, a hydrogen-powered mast supported 30,000 attendees with seamless LTE and 5G connectivity. The fuel cells, developed by SFC Energy, ensured reliable, uninterrupted service for 28 days, showcasing their potential for large events, emergencies, and remote areas. This shift underscores Deutsche Telekom's commitment to combining sustainability with technological advancements.

Additionally, compact mobile masts and stage-mounted small cells enhanced coverage and user experience. These innovations promise to redefine mobile connectivity, emphasizing rapid deployment and reduced environmental impact.

You can read the full story here.

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Thursday, 4 July 2024

Mobile Infrastructure from Hajj 2024 (1445 H)

Hajj, the annual Islamic pilgrimage to Mecca/Makkah in Saudi Arabia is a fantastic example of how to handle huge amounts of people and data. With over 1.8 million pilgrims this year, many of whom go to the holy mosque every day (generally more than once) during the Hajj days, providing reliable connectivity and reasonable data rates is a huge challenge. 

The press release post Hajj, provided some more details on the number of sites and data usage:

CST Governor stated that the unlimited support from the leadership resulted in the recording of exceptional network performance levels across more than (6200) telecom towers, with 5G towers surpassing 4,000 towers, reflecting an impressive 37% increase compared to 2023, while the Wi-Fi points exceeded 10500 points in Makkah Al-Mukarramah and Al-Madina Al-Munawarah and the Holy Sites.

H.E. the Governor also added that the total data consumption reached 65.47 thousand TB, equivalent to watching 26.82millionhours of 1080p HD video clips, with internet download speeds exceeded 341.6 Mbit/s, while the voice calls total exceeded 337 million calls with a success increase of 99%, as a result of the developed network infrastructure and the availability of WiFi networks. 

Here are some high resolutions pictures that show how much infrastructure is needed. Most of these sites in the Haram provided coverage for something like 100 metres as there were other similar sites nearby, some shared for all operators while others were specific to one operator.





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Thursday, 20 June 2024

Ecotelligent's Wooden Masts

Ecotelligent is on a mission to enable telecommunication in a more human environment by applying the science of wood construction into building of communication towers and masts. This allows them to significantly reduce the CO2 emissions of building the towers and make the landscape more pleasant for people.

Last year, Vantage Towers announced that it has installed the first wooden structured telecommunication mast in cooperation with the Finnish start-up Ecotelligent: 

The Ecopol tower was erected as one of two wooden masts in Rhineland-Palatinate as part of a pilot project, as announced by Vantage Towers in October 2022. The installation of the second Ecopol tower is expected to take place in Leiwen, Germany, in the third quarter of 2023; further locations in Germany are being considered. With the construction of wooden structured telecommunication infrastructure, Vantage Towers, together with Ecotelligent, is marking the beginning of a more sustainable mobile communications industry and digitalisation. According to the manufacturer, the Ecopol towers, which are built from recyclable wood, have a significantly lower carbon footprint than comparable masts made of steel or concrete. In addition, they have an attractive, modern design and blend in better with their surroundings - which increases the acceptance of telecommunication infrastructure among the population. 

The use of sustainable materials for Vantage Towers' infrastructure is another component of the company’s sustainability strategy, complementing efforts to make its own infrastructure more energy efficient and reduce resource consumption. For example, the company already reached its first major green milestone in 2021: since then, all the electricity Vantage Towers uses to operate its infrastructure has been procured from renewable energy sources such as wind, solar or hydro power. In addition, pilots are underway to produce renewable energy directly at the sites with wind turbines and solar panels, and to replace diesel generators with hydrogen engines.  

You can see some more details of wooden telecommunication masts in the video below:

Glad to see that other countries are also considering deploying these environmentally friendly masts in the near future.

Tuesday, 13 February 2024

Deutsche Telekom's Mini-Mast a.k.a. “Cell Tower To Go”

Last year Deutsche Telekom developed a mini-mast (or as they call it, ultra-mobile mast) prototype called "cell-tower-to-go". Think of this as Cell On Wheel (COW) with no wheels. In a recent press release they indicated that it has already become a customer favourite within a short space of time. 

Around a dozen companies are testing the flexible solution so far. "With our call to test our ultra-mobile cell tower, we have raised great interest among companies from a wide range of industries. This high demand shows: The need for a flexible mobile communications solution is there - also among business customers. This has strengthened our decision to offer this innovation 'made by Telekom' commercially in the future," says Klaus Werner, Managing Director Business Customers at Telekom Deutschland.

One of the first testers is the leading Swiss construction and real estate service provider Implenia. The company will provide its bridge construction site in Bad Lobenstein (Thuringia, Germany) with 5G and 4G/LTE during the two-year construction phase. The construction site in the valley could not be reached by the conventional mobile phone masts in the surrounding area. However, due to the high degree of digitalization of the construction site, a fast and reliable mobile network connection is essential. 

Telekom's cell-tower-to-go provides high-performance coverage at the construction site. Smartphones and computers then use fast mobile connections via frequencies in the 2.6 and 3.6 gigahertz range. For Implenia, this basic mobile communications coverage is also an ideal basis for IoT applications. The company uses them to optimize processes and material flows on the construction site. The easy-to-connect mast is linked to the network on the bridge construction site via fiber optics. However, the connection via satellite will also be tested in a next step. This will provide additional flexibility and an even faster connection to the network. 

The micro-container is also making a big impact at the delivery service flaschenpost SE. The food and beverage delivery service from Münster, Germany, uses the additional 5G supply within a logistics hall. This speeds up its operational processes.

The special feature of the ultra-mobile mast is that it is significantly smaller, lighter and more flexible than previous solutions. The entire radio technology fits into a compact micro-container (length: 1.6 meters, width: 2 meters, height: 2.6 meters). This makes the mobile mast space-saving and easy to transport. It can be set up by one person in less than an hour - and is immediately ready for use. The micro container can be connected to a local power supply or operated using any other mobile power source. It can be connected to the data network via fiber optics or radio relay.  

These advantages make the mobile “dwarf” not only the first choice for fast or temporary coverage for business customers. The use of mobile masts also provides rapid assistance in disaster areas thanks to their enormous flexibility.

Deutsche Telekom will launch a commercial offer for the use of ultra-mobile transmission masts in spring 2024.

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Monday, 12 June 2023

Du's Solar Sites in UAE

du mobile telecommunication services, the second largest UAE MNO was launched in February 2007 under Emirates Integrated Telecommunications Company (EITC), a public joint stock company incorporated in Dubai through Ministerial Resolution No. 479 of 2005 issued on 28 December 2005. As of 2021, du has 6.7 million (39%) of UAE mobile subscribers and 236,000 fixed line subscribers.


In their latest sustainability report, du said:

78 sites that run completely on solar panels, helping us save 360 tCO2 during the year

  • Diesel savings of approximately 1.4 million litres/year (a total carbon footprint reduction of 3,714 tCO2/year)
  • Additional 100 solar sites planned for installation in 2023

Surprisingly it is difficult to find how these sites look like. The picture above is from a LinkedIn post by Ibrahim Gedeon. The only other place I have seen these is in this Tweet:

It would be interesting to learn more. If you have more info or know where to find it, please feel free to add the info in the comments below.

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Monday, 12 September 2022

Construction of a Self-Supporting Tower (SST)

Inside Towers shared a video of SST (self-supporting tower) construction on YouTube. According to the article, invited to observe the installation of the last three preassembled sections of a very new, very big SST. Article here and the video as follows:

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Sunday, 26 June 2022

Vodafone UK Switches-on First Live 'Self-Powering' Mobile Phone Mast

In a press release last year, Vodafone UK had announced that they have developed self-powered mobile towers and will deploy them across the UK, supporting the company’s target of achieving net zero for its UK operations by 2027. 

Vodafone and Crossflow Energy have been collaborating over the last couple of years on the development of Crossflow Energy’s innovative wind turbine technology, combined with the latest in solar and battery technologies, to create a self-powered mobile network tower. In addition, Vodafone's network partner, Cornerstone, had signed up to run a proof of concept to install Crossflow Turbine technology on rural mobile sites.

These ground-breaking Eco-Towers are expected to enable the deployment of new mobile sites in the most remote locations, without the major challenge and cost of connecting to the electricity grid.

In a press release earlier this month, Vodafone announced that it has switched on the the first live wind- and solar-powered mobile phone mast in Pembrokeshire, Wales. The mast will provide 4G coverage to the community of Eglwyswrw. The PR further says:

The specially designed mast, which potentially removes the need for a connection to the national electricity grid, could provide connectivity to ‘not-spots’ in the UK’s most remote and inaccessible locations – helping the industry achieve 95% of UK landmass coverage by 20253. It will also help Vodafone reduce carbon emissions and support its target of reaching net zero UK operations by 2027.

The ‘self-powering’ mast incorporates a unique Crossflow Energy wind turbine that can generate power even in light winds. The mast can be installed without the need to dig trenches and lay electricity cables, making it faster and easier to install and reducing the impact on the local environment.

It is also extremely quiet, making it viable for sensitive sites such as Areas of Outstanding Natural Beauty. It can also be ‘filtered out’ as a solid object by radar, birds and bats, so it is easily avoided, making it less harmful to wildlife.

The trial, in partnership with wind turbine technology specialists Crossflow Energy and mobile infrastructure partner Cornerstone, is at Home Farm in the village of Eglwyswrw. It will run for two years and data gathered will help Vodafone optimise the technology and determine which sites are most suitable for ‘self-powering’ masts.

Bringing mobile and internet services to rural communities helps boost the local economy, tackle isolation and close the rural digital divide. To date, building masts in coverage ‘not spots’ without an existing electricity connection has been a significant financial and logistical challenge.

The following video has also been shared:

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Friday, 20 May 2022

Vodafone Explains Mobile Phone Mast

Questions related to what does a mobile phone mast consist of keeps popping up time and again. I looked at it some years back but it doesn't stop people asking additional questions. 

When the UK MNOs started their Shared Rural Network journey, Vodafone put together a nice primer on what does a mobile network mast consist of. Here is an extract from the article:

What do all the bits of a mast actually do?

  1. Antenna: Antennas send calls, texts and internet data to your smartphone using radio waves and in turn receive radio waves from it. The higher up an antenna is, the more likely it is that you’ll get a strong and reliable mobile signal from it. Most masts will have at least three antennas to provide coverage in every direction. Masts that need to serve more people, because they’re located in more heavily populated areas, will have more antennas.
  2. Radio unit: The radio unit generates the radio waves transmitted by the antennas. Traditionally, the radio unit was installed at ground level. Nowadays, they’re more likely to be installed higher up the mast closer to the antenna to help improve performance.
  3. Transmission/backhaul: Cables, traditionally copper but now far more likely to be fibre optic, are used to connect the mast with other masts and the rest of the Vodafone network in the UK. These are usually buried in the ground. In a few cases, a microwave dish is used instead.
  4. Cabin/cabinets: Located at ground level, these contain computers which communicate with other masts in the network. Additional equipment, such as a battery backup in case of power failure and connectors for the transmission/backhaul, are also stored here.
  5. Power: Most masts will draw their power from the National Grid; some will have their own renewable power source on-site. In a handful of cases, such as with temporary masts, power will instead be provided by a diesel generator.
  6. Microwave dish: In some locations, such as remote rural areas, a microwave satellite dish is used instead of fibre optic cables to act as transmission/backhaul, connecting the mast to the rest of Vodafone’s network. To do so, the dish must be within line of sight of a dish on another mast.

Why can’t you build it somewhere else?

Not all sites are suitable. To provide the strongest mobile signal to as wide an area as possible, there can’t be too many neighbouring buildings, trees or other geographical features in the way. These tend to block the mast’s signal.

Masts also need their own power and what’s known as “backhaul” – data connections to the rest of the network. To meet soaring demand for faster speeds, that backhaul often consists of fibre optic cables under the ground – it’s a common misconception that most of Vodafone UK’s masts communicate wirelessly with the rest of the network.

And to run these power and data lines to a mast, we have to negotiate with the owners of the land, and quite often, with the owners of land adjacent to it. Those negotiations aren’t just about how much rent we will pay, but how easily we can access those sites for construction, maintenance and repairs.

These so-called “wayleave” negotiations can take time – and sometimes break down completely – setting back mast construction by several months.

Why can’t you just build a shorter, less conspicuous mast?

The taller the mast, the wider the area it can cover and the more people it can provide with a fast and reliable mobile signal. Under current rules, most UK masts are around 25m (82ft) tall. But in fact 50m masts would provide a better, more far-reaching signal in many areas.

Update April 2021 – the UK Government has proposed rule changes that would allow new and existing masts to be up to five metres taller and two metres wider than they currently can be. This would not only help increase the range of their wireless signal, it would also make it easier for masts to be potentially shared with other mobile network operators, as more equipment can be fitted onto taller masts.

Who decides where masts are built?

Our engineers pick sites that best meet the technical, logistical and economic requirements for hosting a mast, but the local council has to grant planning permission for the building works to go ahead. So councils hold public consultations before making their decision and residents can have their say.

You can read the complete article here.

The old video of cell tower construction site is worth a watch and is embedded below:

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