UK Broadband Speeds Vs The World – How did 2023 Compare to 2022?

Is it even a new year if we’re not looking back over the previous one analysing every little thing? What was done well? What could be improved upon? What do we hope the new yera will bring? 

The tech world is really no different. We were interested to look back on how the UK performed in comparison with the rest of the world when it came to fixed broadband and mobile broadband (4G and 5G) speeds during 2023 and how that compared to the previous year. 

How does the UK compare to the rest of the world when it comes to fixed line and mobile broadband?

If you’re here for the fast answer: In a ranking of the top fastest countries, the UK was 51st (a fall from 44th during 2022) for mobile broadband and came 56th for fixed lines.

You can see the full report over at www.Speedtest.net from Ookla. This service benchmarks internet connections from around the world by publicly tracking the data available. 

Whilst it remains true that mobile and fixed line broadband can of course be affected by other factors within each individual connection (like slow Wi-Fi between the router and user device, local network congestion, package choice by individual consumers, the server performance of speedtest.net itself) this is also true for all the countries included so it shouldn’t be enough to affect the results significantly. 

FAQ’s on the Data

When is the speedtest.net data collected?

The data is collected in November each year. 

What average is used for the data speeds?

The figures are all ‘median‘ averages.

What is the main differentiator for speeds between countries?

The main differentiator for speeds between countries tends to stem from the balance between network availability and the take-up of faster connection types. 

Countries will rank highest in the table when they have a high coverage of gigabit-capable broadband networks and/ or strong 5G mobile services (with plenty of radio spectrum to harness).

How are the UK doing when it comes to mobile and fixed line broadband?

Over the past year we’ve seen a consistently strong improvement in terms of the availability of faster fixed and mobile networks here in the UK. 

It was recently revealed by Ofcom that 1Gbps capable fixed gigabit broadband networks had reached 78% (up from 70% in 2022), and full fibre / FTTP lines were at 57% (up from 42%).

5G mobile is now available from at least one mobile network operator in approximately 85-93% of UK premises (which is up from 67-78% in 2022). 

What Were the Top 50 Fastest Countries for Broadband in 2023?

During 2023, across the world we have seen a continued improvement in fixed and mobile broadband speeds.

Unfortunately, despite big improvements in the UK in terms of full fibre and 5G coverage, we are still quite low down on the rankings compared with other countries who are seemingly able to improve their real-world performance at a faster (or at least similar) pace. 

What’s the issue we’re facing in the UK? It could be partly down to the take-up of full fibre and gigabit-capable broadband lines in the UK. We are still in quite an early phase of adoption – Typically it takes 2-3 year for growth and adoption to stabilise for new networks. 

You might be interested in what country came top for fastest download speeds for fixed line and mobile broadband. The tables and charts below illustrate the ranking of the top 50 fastest countries in the world for fixed and mobile broadband. 

Fastest 50 Countries for Fixed Broadband Speed (DL) in 2023
Country (2023)MbpsCountry (2022)Mbps
Singapore264.15Singapore219.57
Hong Kong (SAR)263.07Chile219.34
Chile248.65China203.5
United Arab Emirates235.72Hong Kong (SAR)198.24
China230.39Thailand196.46
Thailand218.94United States182.63
United States215.72Denmark174.67
Denmark206.8United Arab Emirates166.53
Iceland204.8Japan165.53
France200.99Macau (SAR)159.8
Romania191.36Spain157.31
Spain189.37Romania155.07
Monaco187.49Switzerland143.46
Switzerland187.48Monaco142.03
Netherlands177.88France139.73
Japan170.29New Zealand134.19
Canada165.67Canada127.54
New Zealand163.16Hungary119.36
Macau (SAR)160.52Taiwan119.03
Taiwan157.55Liechtenstein118.07
Andorra156.9Netherlands117.74
Kuwait153.58Portugal116.57
Liechtenstein152.22Andorra115.39
Portugal150.45Panama110.96
Hungary149.85Kuwait110.07
Panama148.76Norway106.3
Israel144.81Moldova105.22
Uruguay143.06Sweden105.01
South Korea139.83South Korea99.87
Brazil136.92Uruguay97.48
Poland133.35Brazil95.95
Sweden127.33Poland95.59
Qatar127.04Israel95.54
Norway123.63Luxembourg93.95
Luxembourg117.66Finland93.79
Colombia111.65Malta92.27
Malaysia110.8Lithuania91.5
Jordan109.58Malaysia90.24
Moldova108.2Saint Lucia87.67
Malta108.19Qatar87.33
Vietnam104.08Colombia87.24
Lithuania103.26Belgium85.31
Finland102.43Saudi Arabia85.1
Saudi Arabia102.41Trinidad and Tobago82.94
Trinidad and Tobago100.68Barbados81.92
Saint Lucia99.96Dominica79.83
Ireland94.62Vietnam78.87
Peru93.52Slovenia78.81
Barbados92.96Germany77.34
Philippines91.08Saint Vincent and the Grenadines76.86
Country (2023)MbpsCountry (2022)Mbps
United Arab Emirates269.41United Arab Emirates138.82
Qatar206.8Norway129.81
Kuwait191.74Qatar126.03
China164.14South Korea125.17
Macau (SAR)155.75China113.5
Norway146.02Netherlands109.45
South Korea145.25Denmark109.29
Denmark143.63Bulgaria106.88
Bulgaria142.07Kuwait102.73
Iceland139.52Saudi Arabia97.81
Netherlands119.34Brunei97.37
Saudi Arabia106.01Australia87.76
United States103.69Luxembourg83.14
Australia97.44Switzerland82.91
Bahrain97.19Bahrain82.67
Sweden97.07Sweden82.1
Finland95.48Finland76.27
Croatia89.51Canada74.77
Singapore89.45Croatia74.35
Switzerland89.45Singapore74.19
Canada87.85Macau (SAR)73.67
Luxembourg85.76North Macedonia73.62
Brunei85.13United States72.34
Lithuania84.8Lithuania67.1
France82.6Cyprus66.33
North Macedonia81.98Taiwan65.93
Austria78.92New Zealand63.15
India75.86Portugal62.19
Taiwan75.77Austria61.25
Portugal75.71Hong Kong (SAR)61.12
Greece72.45Maldives61.09
New Zealand72.32Greece60.57
Estonia72.07France60.54
Hong Kong (SAR)69.59Belgium59.68
Belgium68.54Estonia58.59
Maldives67.59Montenegro57.36
Cyprus67.37Germany57.27
Malaysia66.84Slovenia54.3
Oman66.02Malta50.68
Uruguay66Oman50.03
Germany64.74Serbia47.78
Latvia64.42Suriname46.09
Malta61.03Latvia45.99
Slovenia60.52United Kingdom45.57
Czechia56.11Slovakia43.95
Montenegro53.16Iran42.95
Serbia52.41Japan42.93
Romania50.95Czechia42.24
Albania50.06Hungary42.11
Brazil47.98Romania40.62
Performance Categories (Download)20232022
UK Country Rank for Fixed Line56th56th
Global Latency – Fixed Line9ms10ms
Global Upload – Fixed Line40.45Mbps31.16Mbps
Global Download – Fixed Line87.79Mbps72.40Mbps
UK Latency – Fixed Line13ms14ms
UK Upload – Fixed Line24.58Mbps18.55Mbps
UK Download – Fixed Line84.93Mbps69.76Mbps
Performance Categories (Upload)20232022
UK Country Rank for Mobile51st44th
Global Latency – Mobile27ms28ms
Global Upload – Mobile11.03Mbps9.05Mbps
Global Download – Mobile48.47Mbps33.43Mbps
UK Latency – Mobile34ms36ms
UK Upload – Mobile7.24Mbps7.33Mbps
UK Download – Mobile47.65Mbps45.57Mbps
The Wireless Broadband Alliance’s CEO Makes 10 Wi-Fi Predictions for 2024

The WBA (Wireless Broadband Alliance) has recently released their latest Annual Industry Report (you can read it here). WBA CEO Tiago Rodrigues has subsequently revealed 10 predictions about how wireless technology will be used by communities and businesses across the globe in 2024 and beyond – From improved connectivity to new consumer experiences. 

What will 2024 have in store for the world of Wi-Fi? Here are the 10 Wi-Fi predictions made by WBA CEO for next year and beyond

  1. Prevalence of Gbps, fibre broadband and Wi-Fi 6E/7 to increase

    Moving forwards, speeds of 10 Gbps will become more prevalent. The deployment of fibre broadband will continue in most developed and developing markets. This will in turn create a need for home networks to make upgrades in order to utilise this increased bandwidth with their devices. The knock on effect of this will lead to a rapid adoption of Wi-Fi 6E and Wi-Fi 7. The new ability to access additional spectrum in the 6GHz band will also drive the adoption of Wi-Fi 6E and Wi-Fi 7 as countries open the band.
  2. Wi-Fi 7, gaming and video

    With Wi-Fi 7 comes increased capabilities for advanced gaming, video content and immersive experiences. It’s forecasted that video game revenue globally could increased by 50% over the next 5 years. Network equipment will be as vital to gaming as the gaming rig itself. Wi-Fi 7 will be the driving force for the speeds needed as well as near-to-zero latency.New immersive experiences will see game developers breaking barriers. We’ve already started to see Wi-Fi 7 devices with Qualcomm chipsets this year and this will continue into 2024.
  3. OpenRoaming, 5G and IoT networks

    The growth of OpenRoaming is set to continue into next yet, extending further in order to integrate with private 5G and IoT networks. By 2026 it will have reached a critical point of exponential growth with the enabling of tens of millions of hotspots. PassPoint OpenRoaming deployments continue to rise, with more brands and identity providers recognising the value, enabling seamless connectivity across different networks.
  4. Co-existence of 5G and Wi-Fi 6E / Wi-Fi 7

    The integration of 5G services and Wi-Fi will progress, with the expectation that network engineers will deploy both Wi-Fi and cellular in the coming years. For example, using Wi-Fi 6E/7 for indoor, on-campus, fixed network situations and 5G in outdoor, off-campus, mobile environments. The Wi-Fi community is working to coexist with 5G, especially in identity management, authentication and policy management cases.
  5. Network as a Service

    NaaS is currently seen in managed Wi-Fi services in multi-apartment units and will continue to spread beyond these early adopters. Traditional enterprises will acquire NaaS for networks in cloud-first, software-defined, application-centric environments. Why is NaaS attracting customers? Because not only does it accelerate the deployment of devices but it also simplifies it. It also improves security with continuous security updates that prevent and reduce outages and breaches. 
  6. Artificial Intelligence and Machine Learning

    The role of AI and ML cannot be overemphasised. Adaptive AI is predicted to rapidly increase on networks. Not only will it enable Automated Frequency Coordination, it will also be able to predict network resourcing needs. We will also see AI help enterprises and Internet Service Providers accelerate troubleshooting and streamline monitoring as well as proactively anticipating outages, equipment failures, and performance degradation.
  7. Outdoor Automated Frequency Coordination and Rural Connectivity

    In countries that have opened large parts of the 6GHz spectrum to Wi-Fi, rural connectivity will find success with outdoor AFC. The rapid growth of 6GHz low-power indoor (LP) devices with an average transmit power of 24 dBm is expected for indoor applications such as residential mesh, indoor public venues, and high-density enterprise networks. The adoption of 6GHz very low-power indoor (VPI) devices with 14 dBm maximum transmit power is also expected for short-range indoor applications such as AR/VR/XR, streaming, and gaming. Users of these devices do not require Automated Frequency Coordination (AFC).
  8. Unified connectivity with IoT tech and Matter

    Smart home users will transform their experience with new IoT technology, helping to unify connectivity across multiple devices within the home. Matter will also provide a reliable, secure connection across multiple device manufacturers. The adoption of Matter certified products is expected to grow exponentially in the next 3 years, largely due to the brands involved in manufacturing the devices, like Apple, Amazon, Google and Samsung to name but a few. This adoption of Matter enabled devices in the Smart home will further validate Wi-Fi’s role as being central to the smart connected home.
  9. TIP Open Wi-Fi to rapidly increase

    Community-developed, disaggregated Wi-Fi software system TIP Open Wi-Fi will rapidly grow through further pilot projects and trials in developing countries and price-sensitive markets. This is due to its cost-effectiveness and the benefits offered by an open disaggregated model. The more well-established WLAN vendors will also continue to try and be more cost-effective in these markets by investing in ML and AI as well as offering integrated Wi-Fi and 5G to enterprises.
  10. Prevalence of augmented and virtual reality will increase in homes and workplaces

    Our day to day lives at home and work will start to see a larger share of augmented and virtual reality. This in turn will mean that indoor broadband networks will be required to adapt and improve in user interfaces and network capabilities, particularly when catering for larger groups of users.  By 2025, it’s expected that the metaverse’s economy will generate $800 million (and $2.5 trillion by 2030). Thus, big brands are investing in this technology as the universe of the future. 

What does Tiago Rodrigues have to say?

“There has never been a more exciting time for Wi-Fi with technologies such as OpenRoaming more widely available than ever and addressing the challenges in areas including Guest Wi-Fi provision, IoT deployments and private cellular networks. The HaLow program is creating huge interest in low-power extended range Wi-Fi and we are looking forward to working with the Wi-Fi ecosystem to develop industry trials for Wi-Fi 7 during 2024.”

CEO of the Wireless Broadband Alliance

Watchdog Bans ‘Fastest Wi-Fi’ Advert from Virgin Media

Is Virgin Media Wi-Fi really faster than its rivals like its advert claims? Touted as misleading customers, their advert making this bold claim has been banned in recent weeks. 

Virgin Media claimed in their advert that they had the ‘fastest Wi-Fi guarantee of any major provider.’ 

Understandably, this ruffled a few of their rivals’ feathers leading to Vodafone making a complaint to the ASA (Advertising Standards Authority).

The watchdog agreed that the information presented by Virgin Media was misleading, by leading customers to believe that Virgin’s Wi-Fi was faster than that available from other providers. 

Virgin were left feeling rather baffled by the decision, insisting that they did indeed offer a faster minimum speed (guaranteed) than its competitors.

The advert was supposed to communicate the message that Virgin customers are guaranteed a minimum Wi-Fi download speed of 30 Mbps. This guaranteed minimum speed is faster than the minimum speed offered by other providers. If Virgin customers find that their minimum download speed was not met, they would then be given a credit towards their bill. 

In comparison to Virgin’s minimum guaranteed download speed of 30 Mbps, Vodafone’s equivalent is 10 Mbps. Hence the claim in their advert, albeit a potentially misleading one. 

Despite Virgin’s explanation, the ASA upheld the complaint from Vodafone and agreed that the information presented in the advert was misleading to customers. 

There is a subtle difference between ‘guaranteeing the highest speed and offering a guarantee which promised action by the advertiser if a minimum speed was not met’ which led to the ASA’s decision to ban the advert. 

They weren’t convinced that the majority of potential customers watching the advert would have understood the actual meaning by the headline claim, but instead would assume it meant that Virgin offered (and guaranteed) they had the fastest Wi-Fi service of all the major broadband suppliers. 

In the ASA’s eyes (and likely Vodafone’s) the claim was not substantiated, therefore leading to the conclusion that the advert was misleading. 

Virgin were told that they could no longer run the advert, and were not to imply that they could guarantee that they offered the fastest Wi-Fi service of all major broadband providers unless of course that was the case. 

Originally appearing on their website on the 3rd July presenting their Wi-Fi guarantee, Virgin further specified that it only applied to customers with access to fibre optic broadband and those opting for their M50 broadband package in which they offer an average download speed of 54 Mbps. 

The guarantee was a promise to give the customer a £100 credit if they didn’t get at least 30 Mbps in each room of their home, following up to 3 Wi-Fi signal boosters to help achieve that minimum speed. 

Virgin remained adamant that their customers would understand the meaning behind the claims in their advert and were both disappointed and surprised that the ASA ruled it as misleading. 

Virgin insisted that they are not the only major broadband provider to promote Wi-Fi guarantees to their customers and even managed to support their claims that consumers understood the meaning of the advert with an independent poll reflecting that the majority did indeed correctly understand what was meant by the guarantee. 

Jan 2024 – FTTP Broadband Advanced Installs Launching from Openreach 

From the 2nd January 2024, those ordering an Openreach FTTP (Fibre to the Premises) broadband ISP product will be able to get their new ‘Advanced Connection’ service.

This service will be leaving its pilot phase and launching fully on the 2nd January, providing an option for situations where installation is a bit more complex than usual.  

Although this has already been implemented on other broadband products, this ‘Advanced Connection’ option from this operator is quite a recent addition. 

This ‘Advanced Connection’ on FTTP lines has been piloted by Openreach since July last year, and is now ready to launch at the beginning of January to the wider public. 

How much does an Openreach installation cost?

Did you know that an Openreach installation costs from £114.78+VAT? There are a couple of options available when installing a FTTP broadband connection..

Standard Openreach Installation

On a consumer broadband line, the Standard FTTP Openreach installation will generally cost a one-off price of £114.78+VAT*. 

This only covers the basics.  

Premium Openreach Installation

For more choice, the Premium Openreach installation gives consumers more options when it comes to the connectivity inside their home or premises. 

Things like: 

  • Router repositioning
  • Wi-Fi analysis
  • More extensive testing

These options help to optimise the connectivity. 

This Premium option costs £154.78+VAT*.

What if it’s a difficult Openreach install?

The new ‘Advanced Connection’ installation provides an option for more complicated setups where a standard Openreach install isn’t an option for that property. 

The cost of the new ‘Advanced Connection’ will cost ISP’s £289.78. As this is quite a significant cost, this is likely to be passed onto the customer. 

This new option for more complicated Openreach installations is most likely to be useful for businesses and public sector users. The cost for these types of premises have a much higher connection charge. 

Some homes that are particularly tricky may also benefit from this new ‘Advanced Connection’ option. 

ISP Charges

As Wi-Fi engineers ourselves, we think it’s useful to know what the charges are to the actual ISP, so that consumers can better understand the costs that they then are quoted for Wi-Fi work. 

Especially when it comes to an Openreach difficult install or people wanting to move their BT master socket. 

* The price charged by ISP’s may vary to those quoted, as there are often discounts and other considerations. Some ISP’s offer the standard installation option free of charge. 

What Are The Capabilities of the ‘Advanced Connection’ Openreach Installation? 

Available from the 2nd January 2024, this new ‘Advanced Connection’ option from Openreach will offer wider capabilities compared to the Standard and Premium installations. 

‘Advanced Connection’ Openreach connection benefits:

  • From where the Openreach network connects to the premises, up to 100 metres of internal wiring is offered
  • The option for more complex cabling for example, through multiple walls, or new cable trunking
  • Utilising existing horizontal or vertical cable trays 
  • Ability to go through ceiling or floor tiles (that are accessible and removable)
  • Utilising in-situ structured cabling to provide the service
  • The option to connect to existing structured cabling in the building, with a preference for NTE (Network Termination Equipment) or ONT (Optical Network Terminal) install location, for example in the comms room
  • Where installs require more than the 100m of internal wiring that is included, an installation with Excess Construction Charges can be applied to pay for the additional work required
Average UK Broadband ISP Speeds Hit 69.4Mbps, Ofcom 2023 Study Finds

This month, Ofcom published their last report into ISP performance in terms of UK fixed line broadband. This report revealed that the average download speed has risen from 59.4Mbps (last year) to 69.4Mbps now. Upload speeds also increased from last year’s 10.7Mbps to 18.4Mbps now. 

However, there is unfortunately still a gap between broadband speeds in urban and rural areas. 

Ofcom 2023 Study on UK Broadband ISP Speeds

Study data was collected during March of this year using custom routers and ISP supplied routers installed inside customer’s homes. It’s a highly accurate method of data collection, and gathers information at router level during idle periods of usage. For these reasons, it stops the influence of slow Wi-Fi and local network congestion. 

It’s worth noting that this research focused on the larger ISP’s, restricted by the small sample size. Also, don’t forget that speed test results don’t automatically equal network availability! 

For example, currently:

  • Fixed line ‘superfast broadband’ (30Mbps +) are available to almost 98% of the UK
  • ‘Gigabit capable’ networks (1000 Mbps +) cover over 76% (using both full fibre FTTP and Hybrid Fibre Coax lines) or 56% with just FTTP.

Let’s not forget about ADSL

ADSL is still used by up to 3 million lines. Although this is mostly in areas where there are few other alternatives, FTTC still remains very popular (15.6 million active lines) in locations where there are gigabit-capable connections available. 

In reports like this one from Ofcom, speed testing figures can be dragged down by customers still using slower copper-based ADSL2+ and FTTC lines (up to 20-24 Mbps and 40-80 Mbps respectively). 

Whilst the take up of faster connections is increasing, there are some customers who will be reluctant to to upgrading. This could be due to:

  • Cost of upgrades to a faster connection (faster services are quite often more expensive)
  • Not knowing that there are alternatives available
  • Fees for exiting a contract
  • A fear of switching

What are the UK Median Download and Upload Speeds?

In 2023, the average download speed was 69.4Mbps and upload speed was 18.4Mbps.

The report from Ofcom shared data on real-world average speeds for different types of connection:

  • ADSL2+ – Average download speeds during peak times as well as across 24 hours ranged from 11.2 to 1.7 Mbps. 
  • FTTP – Average download speeds during peak times as well as across 24 hours ranged from 34.7 to 66.8 Mbps. 
  • Cable – Average download speeds during peak times as well as across 24 hours ranged from 134.5 to 1,137.1 Mbps. 
  • Full Fibre – Average download speeds during peak times as well as across 24 hours ranged from 74.8 to 919.8 Mbps. 

Remember that performance can be affected by a number of things. Connections that use copper wire (FTTC, G.fast, ADSL) suffer with signal loss over distance. Results can also be affected by things like:

  • Network congestion
  • Traffic management
  • Service Faults
  • Poor home wiring

FTTP May Not Actually Be Slower Than Cable

Although the figures from Ofcom’s report seem to suggest otherwise, Cable might not actually be faster than FTTP. 

Firstly, the ‘fixed superfast product take up’ reflects the percentage of UK customers that have chosen a package with download speeds of 30 Mbps or more. 

Gigabit ‘cable’ download speeds may look like they are higher than FTTP, but that could be down to the provider (Virgin) setting its profile speeds as faster than their advertised rates. 

Therefore, FTTP is not necessarily a slower technology than cable. 

Rural Connections Still Falling Short

Unfortunately some rural areas and even digitally disadvantaged urban areas are yet to be reached by ‘superfast’ connections. 

Sadly it is harder to make an economic case for the investment in remote rural areas, meaning that the commercial roll-out of gigabit-capable networks has been rapid in urban areas and at a much faster pace than rural areas. 

There is still a big gap between performance in urban and rural areas. This could be reflective of the influx of commercial FTTP builds within cities and towns. 

In Ofcom’s report, the data on this was limited as it only looks at the two most common rural broadband technologies. These are FTTC and ADSL. Unfortunately, copper ADSL lines in rural areas tend to be much longer than ones in urban areas, making them less reliable and more prone to signal attenuation. 

When looking at the peak times of between 8pm and 10pm, the report from Ofcom presented a difference of 26% between the average download speed in urban and rural areas (70.3 and 56 Mbps respectively). It’s worth noting that the average download speed has increased from last year for both rural and urban areas. In March 2022, there was a 585 difference between speeds, so perhaps the gap is slowly closing. 

Could the Universal Service Obligation Help Rural Wi-Fi?

The Universal Service Obligation (USO) sets a minimum download speed of at least 10 Mbps. Anyone who is not getting this could consider using the USO to improve their connection. This doesn’t happen automatically unfortunately – It needs to be requested. 

Interestingly, provider BT/EE are using 4G devices to help tackle anyone not achieving speeds in line with the USO. Whilst it can be transformative for some connections, it doesn’t work for everyone so an alternative may be needed. 

One possible option would be FTTP, however this is often too expensive to deploy under the USO and still won’t solve the issue in that last 1% of premises. 

How Will Project Gigabit Help Rural Areas?

Project Gigabit is a £5 billion project from the government, ensuring that ‘gigabit-capable’ broadband services (1 Gbps +) reach at least 85% of UK premises by the end of 2025. The aim is to have nationwide (99%) coverage by 2030. 

Much of this funding is being used on that final 20% of premises in hard to reach rural and semi-rural areas. Great news, but it will take time to deliver and see the benefits. 

How Can You Resolve Broadband Speed Problems?

Unfortunately, sometimes broadband speeds do fall below the initial estimates for your line. But did you know that Ofcom’s Voluntary Code of Practice for Broadband Speeds can help you to resolve any problems with internet speeds that arise and are not in line with the estimates a member ISP provides on connection performance during the order process. 

Which ISP’s are Ofcom members of the Voluntary Code of Practice for Broadband Speeds? 

  • BT
  • EE
  • Plusnet
  • NOW TV / NOW Broadband
  • Talk Talk
  • Utility Warehouse
  • Sky Broadband
  • Zen Internet

When you are in the ‘sign up’ stage, you can use the code to obtain more information on connection speeds. If these then fall below what was guaranteed and expected, it can help you to exit that contract if things don’t improve. ISP’s are allowed one month to resolve the issues, and if at that stage there is still a problem then the customer can walk away from the contract with no penalties. This ‘right to exit’ can also apply to phone and TV bundles that were purchased along with the broadband.  

You’ll have noticed that only the larger ISP’s are members (apart from Vodafone which is noticeably absent!). Many of the smaller ISP’s don’t sign up due to the costs involved with adapting to Ofcom’s code being too high. 

If you want to read more and see the data in full, you can find the full Ofcom Report for 2023 here

52% of UK Covered by Full Fibre Broadband, Ofcom Summer Study Reveals

With what is likely to be the last of the hot weather for this year, Ofcom have shared the results of their summer 2023 study looking at UK fixed broadband and mobile coverage.

The study reports that Full Fibre FTTP access in the UK has risen by 4% from January 2023 to 52% coverage. 

It has also found that 75% are now within reach of a gigabit-capable network, which is an increase of 2%. 

In addition to this, 76-85% of premises can now get an outdoor 5G connection from at least one operator (an increase from 73-82%). 

Ofcom Summer 2023 Report

This latest report from the communications regulator features data collected between May 2022 and May 2023, including that of their Spring Connected Nation’s update back in January 2023. 

This most recent report is based upon the coverage and service availability information from both fixed line UK Internet Service Providers and Mobile Network Operators. 

Overall, the UK’s coverage of fixed “superfast broadband” (30Mbps+) remains unchanged at 97%, while 15.4 million homes (52%) can now order a Fibre-to-the-Premises (FTTP) service via various networks (up from 48%).

Key Figures from Ofcom Summer 2023 Report

Gigabit

75% of the UK (that’s 22.4 million homes) can now access Gigabit-capable (1Gbps+) services (up from 73% or 21.9m). 

This figure is higher than that for FTTP due to the majority of the gigabit connectivity coming from Virgin Media’s upgrade to their existing HFC network. In dense urban areas, there is a lot of overbuild between HFC and FTTP. 

What about the last 20% in the hardest to reach areas? The UK Government’s £5 billion Project Gigabit programme aims to improve the above figure so that gigabit coverage is extended to at least 85% of UK premises by the end of 2025 (and 99% nationwide by 2030). 

Premises Still Without ‘Decent’ Broadband 

‘Decent’ broadband is based on a download speed of at least 10Mbps and 1Mbps upload. The number of premises that cannot access this is currently 428,000 which is 1.3% of the UK. 

However, if you include wireless connections via 4G, 5G and Fixed Wireless Access, this number drops down to 62,000. 

4G Mobile Networks

Geographic coverage of 4G wireless services across mobile network operators (EE, Three, O2, Vodafone) has remained about the same, with a range of 80 to 87%. 

Although it’s a slow process, these figures will be improved upon by the Shared Rural Network agreement – A £1 billion project to change things for rural users. 

5G Coverage

There’s still a way to go when it comes to 5G coverage in the UK. The Ofcom Summer 2023 report shares that 76-85% of UK premises can now get outdoor coverage from at least one operator, however when looking at outdoor coverage by all operators put together it drops to 12-22%. 

Voice and Text Coverage

Full Ofcom Summer 2023 Report

We’ve included a few summaries for your perusal but for more detailed information with all the facts and figures you could ask for, download the PDF of the Summer 2023 Update on Connected Nations via the Ofcom website here

Do You Need a Media Converter for Your Network?

 Networking and Media Converters have gone hand in hand right from the start. They play a vital role when it comes to solving interconnection problems in networks. 

If you oversee a business network (or one in a large home) then you probably already use this handy device. But are you using the media converter correctly? 

What is a media converter?

A media converter is a networking device that allows you to connect one type of communication protocol cable to another different type of cable. For example, connecting a twisted pair to fibre optic cable. 

By connecting two different media, like Ethernet copper and Ethernet fibre, they can typically connect devices that are beyond 100 metres from the nearest available switch. 

The reach of the copper port can be extended with a copper to fibre converter by connecting a copper port on an Ethernet switch to the fibre that connects the device in the remote location.

The ability to do this provides great flexibility when building and connecting networks, easily connecting fibre and copper cables.

A media converter is usually a two-port device equipped with a copper interface on one side and a fibre interface on the other side.

Another key building block within a network are Switches. They enable you to connect multiple devices, such as computers, wireless access points, printers, and servers;  All on the same network within a building or campus. A switch enables connected devices to share information and talk to each other.

Switches are mostly made up of LAN ports which are usually copper Ethernet with a few fibre-based uplink ports. They are also often SFP-based (small form-factor pluggable used for data communication). The copper ports are used to connect devices within a short-range (up to 100 metres) while the SFP uplinks can connect devices that are further away (which would be useful for other switches and/or servers).

The goal for any well-designed network is to use all the available uplinks. This maximises throughput. Oftentimes, spare LAN ports are kept in order to be able to easily connect new devices in the future. However this only works well if the device is within 100 metres from the switch. It can also cause problems if it is in a ‘noisy’ environment – A copper cable can be susceptible to electromagnetic interference. 

In what sort of situation could we see these issues arise?

  • A computer placed in a remote location
  • An access point in an outdoor area
  • A video surveillance camera
  • An access control system far from the last switch, 

For instances where the LAN must be extended over 100 metres, you will require a network extender, and a media converter would be the ideal solution. 

To extend a network to a distant location, you would use a fibre connection from the switch and a media converter to connect to the device.

The remote device problem is solved with the Ethernet link providing a very long reach thus extending the connection. It also saves you from having to add other switches to the network. 

How Does a Media Converter Work?

Media converters can be split into two main groups. 

The first type of media converter can only convert physical media. For example,copper to fibre, or fibre to copper, without adjusting the speed of the link. This type of device is most commonly used when latency is a critical factor, in other words, when a time delay when transmitting the traffic is unacceptable during conversion. 

The second type of media converters are often called switch converters or rate converters. These are a standard Ethernet switch equipped with two ports. These devices can adjust both the media and the link speed so that it is possible to connect a 10/100/1000T port to a 100FX port. For time-sensitive applications, this type is unsuitable as the switch adds a small amount of latency to the connection.

Do media converters work in both directions?

Yes, they can work in both directions. Media converters work with bidirectional links, so the same model can be used to convert copper to fibre but also fibre to copper. 

If you use these devices in pairs, you can use the same model for both ends since they work both ways.

What Are the Different Types of Media Converters?

There are different types of media converter, including:

  • One that connects fibre and copper cables (the most common)
  • One that can convert Ethernet to VDSL 
  • One that can inject Power over Ethernet (PoE)

Typically, media converters are small standalone unmanaged devices. However, they can also form managed and unmanaged chassis solutions to integrate multiple devices within your network in a 19″ standard rack. For deployments in harsher environments, industrial media converters can be mounted in DIN cabinets to protect the electrical components.  

What is the most common model of media converter? 

As we mentioned above, the most common model of media converter is one which connects copper to fibre with one RJ45 port and one fibre port or SFP bay. To allow another converter or a switch equipped with the appropriate interface to be connected easily, the transport protocol is always Ethernet. 

What about legacy infrastructure?

It’s not always possible to use a fibre link due to legacy infrastructure, for example twisted-pair phone cables or co-ax cables. If these are already in use, replacing with new fibre is not practical. Media converters that convert Ethernet to co-ax or Ethernet to twisted-pair allow the use of legacy infrastructure. 

These devices can reach long distances over legacy cables due to using VDSL (Very high Data rate Subscription Line) technology.

As mentioned above, another type of converter can provide Power over Ethernet (PoE) on the copper Ethernet port to power remote devices. This is particularly useful for things like CCTV cameras or access control gates, and helps to simplify deployment of physical security solutions.

Covering the most commonly used interfaces today, media converter port speeds include Fast Ethernet, Gigabit and 10 Gigabit. Transceivers through an SFP port are able to operate on fibres from just a few metres in length up to 120km, satisfying a wide range of distances and speeds.

Media converters are useful for desktops too

Did you know that media converters can be used on the desktop too? 

The USB to fibre Ethernet media converter acts as a Network Interface Card for your desktop or laptop – Quickly deploying a Fibre To The Desk (FTTD) solution for security-sensitive applications, or those more than 100 metres from the switch.

What Are the Features of a Media Converter?

The majority of media converters are not smart devices, however there are some media converters that have smart features that can help to simplify the management of large networks. 

‘Have you turned it off and then on again?’

We’ve all heard that old IT joke. But actually there’s a reason why IT guru’s and network engineers say those notorious words. One of the most common ways to solve computer-related issues is to ‘power-cycle’ the device – Often, simply turning it off and then on again makes the problem disappear. 

For PoE (Power over Ethernet) powered devices, disconnecting the power on the switch port connected to the device having issues will automatically reset it. 

However, most media converters are not managed remotely and thus any that are on a remote site cannot simply turn the power off. In this case, a network engineer (or other person) would have to physically go to the remote site and disconnect and then reconnect the PoE cable. 

Some configurable PoE Media converters enable PoE power to be reset whenever the fibre connection is turned off and on. This ‘smart’ feature would prevent the need for a physical remote site visit by enabling you to control the PoE power via the fibre connection on the switch, resetting the remote device. 

Has all this talk of fibre cables and Ethernet ports got you in a tizz?

Call the experts! Here at Geekabit, our experienced Wi-Fi engineers can help at any stage of network deployment – From site surveys to design to installation

We’re only a phone call away, and can help get your business or large home properly connected. 

Thinking you’re too rural? We’ve got 4G for that! Our mobile and satellite broadband options could be just the thing you’re looking for. 

Get in touch with our Wi-Fi experts today.

What is the ‘Fibre in Water’ Trial and Will Fibre Broadband Run Through Water Mains?

For the past year, the DSIT have been trialling ‘Fibre in Water’ in Yorkshire. Fibre has been run along 17km between Barnsley and Penistone to see whether fibre optic (FTTP) broadband cables could be deployed through live water mains. 

The £6.2m trial has just completed its first phase, with the DSIT releasing current progress and what they’ve learned so far, with one year left to go of the trial. 

The theory behind the ‘fibre in water’ trial is that fibre broadband could reach 8,500 more rural homes and businesses without needing to do disruptive and costly street works. Not only that, the fibre could provide capacity to local 5G mobile masts as well as monitor any leakages on the network. 

What is ‘Fibre in Water’?

The main concept behind ‘Fibre in Water’ is to deploy fibre optic cables through live drinking water mains, monitoring them for leakage. It would also mean that broadband companies could use the water network to deliver gigabit connections to any homes and businesses along the water route that the cables were deployed in. 

If you’re wondering whether it’s safe to be putting fibre-optic cables alongside water, then don’t worry! The fibre cables will be inside ‘messenger pipes’ to make sure that they don’t touch the water and are protected. 

The messenger pipe is deployed whilst water is in normal operation so that the pressure can be used to deploy an initial draw line. The installation is completed by blowing the fibre-optic cable into the messenger pipe. 

What do they hope to achieve with the ‘Fibre in Water’ project?

The £6.2m project began in 2021 and is expected to reach completion in 2024 – Taking it from a pilot schemed to facilitate delivery. The aim is to deliver advanced broadband and mobile services to rural locations via mains water. 

Led by the DSIT (Department for Science, Innovation and Technology), the project is also supported by Defra (Department for Food, Environment and Rural Affairs) as well as the Geospatial Commission. 

There are various objectives to the ‘Fibre to Water’ project, a few of these are:

  • To support the Project Gigabit and Shared Rural Network schemes by connecting the hardest to reach areas of the UK with advanced fixed and mobile services (such as gigabit, 4G and 5G)
  • To reduce the amount of clean water leakage from the water mains (approximately 3 billion litres of clean water is lost per day)
  • To support the digital transformation of the water industry in the UK

What are the challenges of the ‘Fibre to Water’ project?

This project sees the merging of two separate industries, so is of course going to meet its challenges. 

It’s a complex endeavour to safely bring together fibre-optic cables and water pipes in one place. Hence why DSIT, Defra and Geospatial Commission are all involved. Not only does it have to meet regulatory frameworks but also has to reflect a sensible cost for all bodies. 

Project TAWCO was formed – Telecoms and Water Combined Operations – Consisting of Yorkshire Water, Commsworld (telecoms operator), the University of Strathclyde as a research organisation and Arcadis as a Design and Engineering Consultancy. 

They proposed a route that would enable them to put the operational and commercial models to the test – Going from Barnsley to Penistoke. 

What does the ‘Fibre in Water’ project consist of? 

The project is split into 3 phases, the first of which has just reached completion. 

Phase 1

This phase has focused on the research and investigation elements to inform later deployment. It had to look at the technical, commercial, legal and maintenance aspects of everything – as well as the benefits – before being able to present findings to the government. Only then can it move into Phase 2 and 3. 

Phase 2

The second phase will look at the design and build elements of the project, including deployment of the final design. It will also include data collection and the accrual of benefits. 

Phase 3

The final phase will evaluate how the project has performed and how it can be scaled up in line with the analysis results from Phase 2, with a view of rolling out this solution on a national scale. 

What has been learnt from the 1st phase of the ‘Fibre in Water’ project?

Now that the first phase is coming to a close, the project has shown that this is a successful model, commercially viable, between the two industries. 

It would seem that there is an investment opportunity for fibre in water, with a host of benefits for not only the industries but customers too. 

European markets are seeing expansion in this area, with a rise in fibre in water technology and monitoring software solutions. More suppliers here in the UK are looking to gain approval for their offerings. As with all industries, competition in this area will drive innovation and technical improvements further as well as keep prices down.

The telecoms market is a competitive one, so Fibre in Water is likely to be another way for these companies to get broadband services to homes and businesses and provide better options for consumers. 

One issue highlighted by the Phase 1 survey was having to gain access to private landowners along the proposed route. Not only would this be a potential risk, it would also cost money due to compensation negotiations. 

A way to avoid this was to alter the route for the trial, reducing it to 8km of ‘fibre in water’ and avoiding the need for private access. Whilst this mitigated the risk and cost, it also means that the number of rural premises being reached is less, down to 7000. 

Will the proposed ‘fibre in water’ trial go ahead? It’s expected that a decision will be made imminently by the DSIT and other government partners alongside Project TAWCO. 

Could this be an exciting development in getting reliable broadband to rural areas? We might well find out next month – Watch this space. 

Rural Wi-Fi Options with Geekabit

In the meantime, if you’re struggling with your broadband in a rural home or business then get in touch with our Wi-Fi experts today. We have extensive experience with 4G and Mobile Broadband – Bringing you a more reliable connection in rural premises. Read more on our website and get in touch today.