Tag: FTTB

Deutsche Glasfaser brings full fibre Internet to German rural areas

Article

Flag of Germany

Deutsche Glasfaser brings its own fibre-optic infrastructure to Germany’s regional and rural areas

Deutsche Glasfaser: Das Netz der Zukunft zieht schon bald in eurer Nachbarschaft ein | NETZWELT (German language / Deutsche Sprache)

From the horse’s mouth

Deutsche Glasfaser

Web site (German language / Deutsche Sprache)

My Comments

Deutsche Glasfaser, a German ISP based in Borken (near Dusseldorf), North Rhine Westphalia, is demonstrating an effort towards bringing high-speed Internet to Germany’s regional, rural and suburban areas.

Deutsche Telekom and Vodafone own most of Germany’s infrastructure-level Internet service. This is primarily copper-based technology, either VDSL using traditional telephone cabling or DOCSIS cable-modem technology using coaxial cabling. They offer their own retail services as well as leasing access to this infrastructure to third-party retail operators like 1&1 and Versatel.

A few operators are establishing fibre-to-the-building or fibre-to-the-premises networks and selling retail high-speed Internet service using these networks. This happens in some major cities. But rural and regional areas were just limited to the Deutsche Telekom or Vodafone offerings which weren’t likely to fare well when it comes to bandwidth or service stability. This is very similar to what happens in most countries when it comes to how areas outside major urban areas are treated when it comes to Internet service.

What Deutsche Glasfaser is doing is creating their own FTTP / FTTB infrastructure in these rural, regional and suburban areas, thus cutting out the copper-based technology that can limit bandwidth due to vectoring or error-mitigation measures. There is also a goal to create a nationwide fibre-optic network across Germany in order to establish some form of independence as far as infrastructure is concerned.

The activity that Deutsche Glasfaser and other city-based operators are doing within Germany is similar to what is going on in the UK. That is where many ISPs are setting up their own infrastructure and offering retail Internet service on that infrastructure that is better value for money than what BT Openreach has been offering.

There will be questions arising about whether these services will be required to wholesale their infrastructure-level broadband capacity to competing retail ISPs and at what point. This may be so where the EU or other groups push Germany to facilitate a lively competitive market for high-bandwidth Internet service.

At the moment, Deutsche Glasfaser is active in 1.3 million households in 13 of Germany’s states and slowly building out in more areas.

Service Packages at time of writing

There is complementary connection and installation for your Deutsche Glasfaser service when you take up one of their packages. This includes “shifting” your Internet and telephone service from your extant provider as well as porting your fixed-line number to their service.

€24.99 monthly introductory offer for the first 12 months of service

Price per month Bandwidth Fixed-line telephony
€44.99 300Mb/s download / 150Mb/s upload 2.9c / minute
€49.99 400Mb/s download / 200Mb/s upload Unlimited calls to fixed lines in Germany
€79.99 600Mb/s download / 300Mb/s upload Unlimited calls to fixed lines and mobile telephones in Germany
€89.99 1000Mb/s download / 500Mb/s upload Unlimited calls to fixed lines and mobile telephones in Germany

As far as I know, there doesn’t seem to be any tariff packages or extensions that allow low-cost or unlimited international calling to popular destinations.

They also offer an IPTV service known as DGTV as an extra-cost option. This has 70 high-definition channels, a PVR set-top box and access to video-on-demand services, It costs €15 per month on top of your Deutsche Glasfaser Internet and telephony package.

What I like of the Deutsche Glasfaser effort is that they are bringing up-to-date Internet technology towards rural, regional and suburban Germany through the use of fibre-to-the-premises or fibre-to-the-building technology. It could stir up others to work on similar projects through that country and through Europe.

Spirit Internet to provide infrastructure-level competition in Geelong

Article – From the horse’s mouth

Cunningham Pier, Geelong, Australia by Bernard Spragg. NZ from Christchurch, New Zealand (Cunningham Pier. Geelong Vic.) [CC0], via Wikimedia Commons

Spirit Telecom to introduce infrastructure-level competition for next-generation broadband to Geelong

Spirit Telecom

Hey Geelong – Did you hear us on the radio? (Interview broadcast on Radio Bay FM)

My Comments

Recently, Radio Bay FM in Geelong broadcast an interview about Spirit Telecom setting up shop in this regional boom-city. Here, Roxie Bennett interviewed Spirit Telecom’s managing director Geoff Neate about the pending arrival of their independent infrastructure setup as part of her lifestyle segment broadcast.

Spirit Telecom ahs been established since 2005 and has provided infrastructure-level competition for broadband Internet service in some of Melbourne’s inner neighbourhoods. Here, households and businesses who sign up with Spirit have access to simultaneous ultra-high-speed bandwidth thanks to use of Ethernet cabling within the buildings and a fibre-optic network for the last-mile connection to the building.

But Spirit is intending to roll this infrastructure out to Geelong with the first development that will benefit being the Federal Mills regional technology hub, an example of the new economic direction for that city. Let’s not forget that Geelong is starting to take on high-rise development within its CBD, which could open the door for Spirit Telecom to wire up the new developments for Ethernet-based FTTB next-generation broadband. It is in conjunction with Spirit Telecom’s other efforts to reach other Australian cities to provide developers, building owners and businesses a viable high-quality alternative to the NBN.

This broadcast is a sign of the times because it has highlighted the slowpoke effort that NBN has taken with providing a reliable next-generation broadband service in most of built-up Australia. There was even an on-air “dig” cast at NBN because of the delay in rolling out broadband in to that city.

Personally, I see Spirit Telecom’s effort in running their own infrastructure and high-quality next-generation broadband Internet as something that will “put a rocket up” NBN to roll out infrastructure in to that city/

NBN to consider G.fast for fibre-copper setups

Article

Australia’s nbn preps G.Fast launch | Advanced Television

My Comments

NBN are considering implementing G.Fast technology in to their fibre-copper “multi-technology” mix for Australia’s next-generation broadband network. This is in addition to VDSL2 for “fibre-to-the-node” and “fibre-to-the-building” , fibre-to-the-premises and HFC coaxial deployments for fixed-line setups.

But what is G.Fast?

G.Fast is a DSL-based broadband technology that uses phone wires. Yet it has a faster throughput than VDSL2 that is currently used for fibre-copper setups. Here, the local copper loop between the customer’s premises and the DSLAM can be less than 500 metres for a 100Mbps link speed but can achieve a link speed of 1.3Gbps for a 70-metre loop.

It is capable of symmetrical operation which can please business deployments where a lot of data is uploaded as part of cloud computing and remote storage requirements.

Where would an infrastructure provider deploy this technology?

This would be deployed to a “fibre-to-the-distribution-point” setup where the fibre-copper interface is a distribution box that covers a residential street or block and any cul-de-sacs that run off that street, or a small strip of shops typically this side of 50 premises.

Similarly, most multi-tenancy units like apartment blocks or shopping centres would benefit from this kind of technology for their fibre-copper needs.

But there is a setup that appeals to the infrastructure providers where they could service a single premises by having fibre to the pole or pit outside the premises and using the telephone cabling to provide the copper link. This has a strong appeal when it comes to a “self-provisioned” Gigabit service where the service provider doesn’t have to interact with landlords or schedule installation appointments with householders to get the household on board.

There is the appeal that the technology can allow the DSLAM to be “reverse powered” – powered by the customer’s modem router or a power-injector that the customer installs at their premises.

One major current problem with deploying G.Fast, especially in a self-install setup is that, at the moment, there isn’t much support for this technology as far as customer-premises equipment is concerned. Most likely, this will be rectified as more countries roll out G.Fast deployments and manufacturers offer DSL modem routers that support G.Fast alongside VDSL2 and ADSL2; and this will initially appeal to carriers and service providers who want to provide the equipment rather than have customers buy their own equipment.

NBN’s trial deployment

NBN ran their first trial in a Melbourne office building which was wired up with 20-year-old Category 3 cabling and provided with a VDSL2 “fibre-to-the-node” service. But they nailed a throughput of 600Mbps with the VDSL2 service operating and found that they could achieve 800Mbps in that same development without VDSL2 running.

They realised that they would need to complete more trials in conjunction with the retail ISPs who are using this infrastructure through 2016. This is more to test the waters with different operating environments and to identify whether it is the technology that can be used.

As an infrastructure provider, they were drawn to the G.Fast concept due to the idea of providing Gigabit service to most urban premises on a self-install basis rather than messing with truck rolls, landlords and owners corporations.

The burning question that will come across NBN deploying G.Fast is knowing whether the wiring at the consumer premises is up to the task for transferring high-speed data. It is because of the fact that there are older deployments that may be victims to poor connections including wiring short-cuts that may hamper the throughput needed for today’s needs.

TPG poised to be Australia’s Hyperoptic

Article

TPG to offer fibre-to-the-basement Internet to these kind of apartment blocks

TPG to offer fibre-to-the-basement Internet to these kind of apartment blocks

TPG Is Still Building Its Own Competitor To The NBN | Gizmodo Australia

My Comments

As some of you may know from a few previous posts, Hyperoptic is an Internet service provider who runs their own fibre-optic infrastructure and services apartment and office buildings and similar developments in an increasing number of UK cities with next-generation broadband. They are standing as viable competition against BT Openreach who are effectively owned by British Telecom and offering increased value by deploying FTTP installations in to these buildings whereas the Openreach setup will be based around fibre-copper setups, either FTTC (fibre to the street cabinet) or FTTB (fibre to the basement) setups with VDSL2 to the customer’s premises.

As well, they even offered customers the option to sign up for this service “by the month” rather than a 12-month or longer contract. This was pitched at people who are on short-term work placements or are living “month-by-month” and may not rent the same apartment for a year or more.

In Australia, iiNet recently started to offer a competitive fibre-to-the-building Internet service for apartment blocks and similar developments to answer the National Broadband Network efforts concerning next-generation broadband and this effort has continued since TPG took over iiNet. Like Hyperoptic’s effort in the UK market, this is based on fibre-optic infrastructure that they own rather than the National Broadband Network who are working in a similar manner to BT’s Openreach, thus allowing them to charge cheaper prices for their Internet service and offer better value.

They are different from Hyperoptic because they implement fibre-to-the-building technology where there is copper cabling between the basement and the customer’s apartment, office or shop. But TPG could be in a position to offer fibre-to-the-premises for these users if they so wished to.

A question that will be raised in conjunction with these competitive deployments is whether NBN and competing next-generation-broadband infrastructure can coexist with each other in the same neigbbourhood or building; including whether a retail operator can sell their service on one or more different infrastructures . This could open up infrastructure-level competition for Australian users who live or run businesses in these developments. Similarly, it could be about lighting up “Gigaclear-style” fibre-optic rollouts to rural, regional and peri-urban areas using infrastructure not under the control of NBN.

Questions being raised by French carriers about promoting FTTB fibre service

Article – French language / Langue Française)

Is the fibre-optic Internet service to the building or to the apartments?

Is the fibre-optic Internet service to the building or to the apartments?

“Vraie” fibre contre “fausse” fibre : le gouvernement veut clarifier les choses |ZDNet.fr

“Real” fibre versus “fake” fibre : Government wants to set things right

My Comments

An issue that will surface with deploying fibre-based next-generation Internet service to apartment and office blocks and shopping centres is how should the Internet service be properly qualified as far as the consumers are concerned.

In France, where a lot of households are based in apartments, there is a fair bit of bickering about whether a service provider had installed a fibre-to-the-premises or a fibre-to-the-building deployment.  This is especially where service providers are wanting to run that their fibre installation is “real” fibre rather than “false” fibre as part of one-upping themselves against the competition.

In a multi-occupancy development, a fibre-to-the-premises deployment has fibre-optic cabling going to each apartment, shop, office or other premises. This is compared to a fibre-to-the-basement development, also known as a fibre-to-the-building development where the fibre-optic cabling goes to the building’s telecoms closet and a copper-based cabling solution is used to bring the Internet service to each apartment or shop. The copper-based cabling solution could implement VDSL2 which uses the building’s existing telephone cabling, DOCSIS 3.1 which uses the coaxial cabling that is part of cable-TV infrastructure or Gigabit Ethernet with new Cat5 or Cat6 twisted-pair “blue” cabling.

Most consumer-driven deployments would focus on the fact that households primarily download stuff and would focus on the download speed. But there are users who place value on upload speed which is one of the advantages offered by fibre-to-the-premises. These would include people who frequently work from home or run a home-based business, along with the shops, offices and like premises used for business purposes. They would place importance on uploading so as to facilitate cloud computing, telecommunications, onilne-storage and similar business services. Similarly, the concept of a future-proof next-generation Internet deployment would be considered important as peoples’ needs evolve.

An all-fibre deployment along with a fibre-copper deployment that uses Cat5 or Cat6 Gigabit Ethernet cabling for its copper component would offer the synchronous download-upload capabilities and high speeds that business users would want.

But there needs to be a standard for qualifying whether a service provider or infrastructure provider  has wired that multi-occupancy building with a fibre-to-the-premises setup or a fibre-to-the-building setup. This would include what kind of technology the copper component was based on in the latter service type and whether it is feasible to upgrade to an all-fibre installation along with extra approximate costs.

As well, there would need to be requirements concerning the kind of marketing spiel that service providers or infrastructure providers deliver to those with executive authority over the buildings and the marketing spiel delivered to potential customers who occupy these buildings.

At least the French are fleshing out this issue so that there are proper requirements regarding the marketing of next-generation broadband to apartment dwellers and shopping-centre tenants.

Wires-only self Install to come to UK FTTC services

Draytek Vigor 2860N VDSL2 business VPN-endpoint router press image courtesy of Draytek UK

Draytek Vigor 2860N VDSL2 business VPN-endpoint router

Article

Broadband Router Options for UK FTTC VDSL ISPs – 2015 UPDATE – ISPreview UK Page 2

My Comments

When a person signed up to “fibre-to-the-cabinet” next-generation broadband service in the UK, they would have to make an appointment with a BT Openreach technician to install their VDSL2 modem and rewire their telephone service. Here, you then had to make sure you had a broadband router with an Ethernet WAN connection on the “edge” of your home network which is something you would have to do for fibre-to-the-premises (all-fibre) setups.

Now BT and others are offering this service on a “self-install” or “wires-only” basis where they do the work with getting you ready for next-generation broadband at the FTTC cabinet only. You would have to buy your own VDSL2-capable modem router and microfilters to benefit from this service. This is similar to the current practice of providing ADSL in the UK, Australia and most other countries.

There are an increasing number of high-end modem routers available from most of the well-known home-network equipment names like Draytek, Billion, and TP-LINK. But the VDSL2 modem must work to UK standards which means that it would be a good idea to go to local online or bricks-and-mortar outlets to purchase that VDSL2-compliant modem router.

Bear in mind that some high-end ADSL2 modem routers that are advertised as VDSL2-ready may implement a software-programmable modem which can be set up to “do VDSL2”. Here, check on the manufacturer’s Webpage for a firmware update that opens this functionality and make sure this update is “fixed” to UK requirements.

As well, for anyone around the world who is benefiting from VDSL2-based “fibre-copper” services and having it on a “self-install” or wires-only basis, make sure that you are dealing with equipment or firmware that works to the standards supported by your ISP or infrastructure provider.

To start you off, consider the Draytek Vigor 2860N as a flexible VPN endpoint wireless router for your small business or the Billion BiPAC 8800AXL AC1600 wireless router as modem router ideas for your FTTC-driven home or small-business network.

Can a fibre-copper next-generation broadband network be considered economical for all brownfield developments?

The recent NBN announcement put forward to the Australian people by the Coalition has determined that a fibre-copper setup is a more economical method for delivering the broadband service to already-developed (brownfield) locations than the fibre-to-the-premises setup that Labor is running with. There are some countries like the UK and Germany who run these networks, mainly with the option of full fibre deployment as an option.

The kind of talk I am raising here may work against the “preferred” idea of using existing copper infrastructure in existing condition for delivering next-generation broadband to the customer. This is because of certain realities concerning the existing infrastructure, such as a copper network that was engineered for an area that was more sparse than the current occupation density or a network that needs a lot of attention to provide reliable and optimum service.

A copper network that suited a sparse development

But I see the issue of a fibre-copper network as being area-specific for each brownfield area. Here, this could depend on the density of the brownfield area such as the concentration of multiple-tenant developments or the existence of many smaller properties since the copper network was established.

In this case, one may have to factor whether the copper network may need to be revised to cater for this increased density or whether the point of exchange between the fibre backbone and the copper network needs to be moved closer for some developments. For example, a large apartment block like some of the ones on the Gold Coast or St Kilda shoreline; or a large shopping centre like Doncaster Shoppingtown or Knox City may find that it is better to have a “fibre-to-the-building” approach with the point of exchange in the development.

Older copper networks that need extensive repair work

A copper telephony network that has been neglected by the incumbent telephony provider may need a fair bit of attention to have it work at an optimum speed for a fibre-copper broadband development. This can be more so for those networks that exist on peri-urban, regional and rural areas where there has been minimal investment in these areas.

The network may “just work” with voice telephony or baseline fax applications but may not perform as expected for a DSL application as I have written about before. In some cases, the customer may not even benefit from a reliable DSL service, and the VDSL service is most likely not to be as fault-tolerant as the existing ADSL technology.

If there is a planned fibre-copper deployment, it shouldn’t be just a case of installing a street cabinet and connecting service wires and the fibre backbone to that cabinet. In some cases, it may be about surveying the copper infrastructure for pair-gain setups, decrepit wiring / connections and other situations that may work against optimum VDSL service. Here, it may be worth dong a comparative cost analysis on remedial work for a copper infrastructure to see whether rolling out new fibre or copper infrastructure would be cheaper than doing many repairs to existing decrepit infrastructure.

This kind of work may benefit the retail Internet service providers in the reduced number of customer-service issues due to substandard service, thus providing a positive customer-service image for them.

I would therefore argue that not all copper telecommunications networks that exist in brownfield areas can be the economical basis for a fibre-copper next-generation broadband setup unless they have been surveyed and found to provide reliable service for the area concerned and the technology that is being considered.

Customer-supplied line-filters to give VDSL2 setups the same promise of self-install as ADSL2

Article

thinkbroadband :: Openreach in technical trial to test micro-filters with FTTC service

My comments

Previously ADSL required a truck-roll to the customer’s premises to provide the service. Here, the technician installs a DSL line splitter at the line’s entry point and a socket for the ADSL modem. Now installs don’t need a technician to visit unless they are difficult or sophisticated setups like dealing with business phone systems or monitored security systems.

Typically, the customer installs a micro-filter or ADSL line splitter on each phone device and connects the ADSL modem-router to a socket that doesn’t have a micro-filter attached to it or connects the modem to the ADSL or DATA port of the line splitter. In most cases, we tend to use DSL line splitters rather than line filters at each phone socket. This can allow us to move the ADSL modem-router around as needed to suit different living arrangements or simply to relocate the wireless router for best performance.

Most fibre-copper next-generation broadband setups such as FTTC, FTTN or FTTB typically will implement VDSL2 but this is a different kettle of fish when it comes to provision. Here, a technician still visits the premises to put in a VDSL2 central splitter and run Ethernet-grade cable to where the VDSL2 modem-router would be installed.

BT Openreach are trialing the use of selected line filters and splitters as a way of providing self-installation of VDSL2-based fibre-copper setups. They are assessing these for radio and audio interference and degradation of data throughput with the commonly-used line filters attached to existing phone equipment.

Initially, the tests will be based around professionally-installed setups, but they will move towards self-install setups. It could also then give the same level of flexibility that we have enjoyed with ADSL2 equipment.

These tests could be observed by other countries and companies interesting in deploying fibre-copper next-generation broadband that uses VDSL2 technology; but can also be used as a way of justifying these setups over fibre-to-the-premises setups.

The arrival of 4G wireless broadband–what does it mean for Next Generation Broadband

Article

Telstra super-fast 4G wireless sparks debate over NBN

My comments

As many countries agressively build out fibre-optic-based “Next Generation Broadband”, there is also the reality that companies involved in wireless broadband will deploy LTE or WiMAX “4G” technologies for this service.

This issue has been raised recently as Telstra, Australia’s incumbent telephone and mobile carrier announced its intention to deploy LTE-based 4G wireless broadband. This is even though the Australian Federal Government were rolling out the National Broadband Network, which is the next-generation broadband service based primarily on “fibre-to-the-premises” technology.

A key issue that have been raised include the “all-wireless” household or small business, which doesn’t have a landline telephone or ADSL/cable-based broadband Internet for their telecommunications. This may be implemented by students and similar households where each user wants control over their communications costs as well as assuring proper service privacy.

Issues of comparison

Value of service as a primary Internet service

A common disadvantage with this kind of setup is that the bandwidth available to the user from a wireless broadband service is less than that for a wireline broadband service like ADSL, cable or fibre-optic. As well, the wireline service is typically able to offer better value service than the wireless service. This disadvantage may be eroded if the 4G wireless broadband services are priced aggressively against the Next-Generation-Broadband wireline services.

Reliability and Stability

Even so, the 4G wireless broadband setups won’t yield the same bandwidth as a next-generation broadband setup; and these systems are based on radio technology which can be affected by many factors such as  the environment surrounding the radio equipment, the aerial (antenna) that is used as part of the equipment and the calibre of the equipment itself.

Examples of this include wireless-broadband modems used in double-brick / cinder-block buildings; equipment like USB modem sticks designed to be compact therefore not having adequate aerial systems; and simple weather conditions that affect wireless performance.

Here, this could lead to inconsistent performance for 4G wireless-broadband setups, with results like stuttering during VoIP telephony or multimedia playback.

Multiple device setups

No-one has yet raised the issue of a person operating multiple devices that connect to wireless broadband Internet. This is a common reality as people buy smartphones, tablets and netbooks that have integrated wireless-broadband connectivity. Here, these devices are operated on their own services and it requires users to keep track of the many accounts and bandwidth allowances that each device has.

As well, the wireless-broadband technologies discourage the idea of establishing local-area networks which could permit bandwidth sharing / pooling or sharing of resources like printers or file directories. Here, the users would end up not creating a local area network at all, and may just end up using technologies

Political issues peculiar to the Australian scenario

I also see certain political issues in the “next-generation-broadband vs 4G wireless broadhand” issue more so in Australia. Here, the Australian Labour Party see the National Broadband Network as a tool for nationalising or “claiming back” the wireline telephony infrastructure that they relinquished when Telstra was privatised. Here, Telstra, like British Telecom was originally part of the government-owned “Posts, Telegraphs, Telephones” department and became its own telephony entity as this department was separated.

There hadn’t been any mentions of intent to nationalise the Telstra-owned wireless infrastructure used for reselling their mobile telephony and wireless-broadband service. As well, Telstra were wanting to set up the aforementioned 4G LTE wireless-broadband technology on this infrastructure as a retail service and the Australian Labour Party were seeing this wireless-broadband service as a broadband service that competes with their National Broadband Network.

How I would see this argument is a way of seeking legal authority to require Telstra to do a “BT-style” sell-off of its mobile-telephony and wireless-broadband business. This is where they would be forced to divest themselves of the infrastructure and retail mobile-telephony / wireless-broadband business to another service

Conclusion

How I see the role of any wireless-broadband technology is that it is a complementary technology to a wireline technology rather than a competing technology. It exists primarily for mobile, portable and temporary computing applications.

PS. If I am appearing to write this article in a manner that supports Telstra, I have no pecuniary interests in this telecommunications company other than to be a regular customer of its telephony services.

Understanding Fibre-Optic Broadband

There has been recent talk about the idea of providing the National Broadband Network, a super-fast broadband Internet service, either with Telstra or Terria (an Optus-led consortium) providing the infrastructure. One idea, proposed by Terria (who was OPEL) was to provide a fibre-optic service to urban locations and use a WiMAX radio link for rural and regional locations and the other idea, proposed by Telstra was to use fibre-optic in all towns and a DSL service optimised for long distance for rural areas. This issue even ended up being one of the platform issues for the Australian Labor Party during their campaign for Election 2007.

There are some “greenfield” (newly-released land) housing developments in Australia where this kind of fibre-optic broadband service is being deployed. This has been made easier due to the development not having telecommunications or other infrastructure and is used as a promotion tool by the developers in showing how “switched on” the location is.

Some other population-dense countries such as France and the USA are deploying a commercial fibre-optic broadband service into various neighbourhoods.

 

Infrastructure Types

FTTN (Fibre To The Node) – fibre optic link to a cabinet deployed in the neighbourhood with intentions to cover a number of streets

FTTC (Fibre To The Curb / Kerb) – fibre optic link to a cabinet deployed in a street with intentions to cover that street and perhaps “courts” and other cul-de-sacs running off that street.

FTTB (Fibre To The Building) – fibre-optic link deployed to the wiring closets of multiple-tenancy buildings (blocks of flats, office blocks, etc). Single-occupancy buildings may be served in a manner similar to fibre to the curb or may be served using fibre to the premises.

FTTP (Fibre To The Premises) / FTTH (Fibre To The Home) – fibre optic link deployed to the customer’s premises. A strict interpretation would require that multiple-tenancy buildings have optical fibre running to each unit (flat, office, shop) in the building.

Setup at the customer’s location

Systems other than FTTP / FTTH will have a copper-wire link running from the system cabinet or wiring closet to the customer’s door. This will be deployment-dependent and may be a high-speed variant of DSL piggybacked on the telephone lines; a coaxial link similar to cable TV and cable Internet; or simply a twisted-pair Ethernet cable run similar to what is implemented for wired networks in the home or workplace.

In the case of an FTTP / FTTH service, there will be an “optical network terminal” device that is deployed at the customer’s premises. It is simply a fibre-optic – Ethernet bridge that links the fibre-optic cable to the home network. The device would either be fixed outside the house with an Ethernet cable run to a room nominated by the customer; or be a box the same size as a typical cable modem and is installed in a similar manner to cable-based broadband Internet.

Typical standard of service

The typical fibre-optic service that is being provided would be a “single-pipe triple-play” service with broadband “hot and cold running” Internet, multi-channel pay-TV and landline telephony provided over the same “pipe”. Due to the “fat pipe” provided by the fibre-optic infrastructure, the level of service would be beyond the average telephony, pay-TV and broadband Internet service.

This would usually be represented by the TV service carrying a large number of high-definition channels, the IP-based landline telephony service being capable of handling “high-band” telephony services like FM-grade or better audio and / or videophone services with smooth pictures The Internet service would be able to offer a level of service that is beyond what the typical broadband Internet service can provide, which would be a high throughput service with a very low latency.

This kind of service would typically be provisioned using an Internet gateway device equipped with an “analogue telephony adaptor” interface so the customer can continue to use existing telephony devices. If the customer subscribes to pay-TV service, they would be supplied with an IP-TV set-top box that is connected to the Internet gateway device via a high-speed network connection like HomePlug AV, Ethernet or 802.11n WPA wireless.

Some installations have used a “single-box” solution for the network-Internet “edge” with the Internet gateway, analogue telephony interface and IP-TV set-top box function built in to the one box but such installations are unpopular because of the desire by most households to keep TV viewing and computer use in appropriately-comfortable areas.

Competitive Delivery

Issues that are currently being raised mainly in France are the provisioning of fibre-optic broadband on a competitive footing where competing service providers have access to the same customer base.

One of them is a competitive delivery scenario where one or mor competing service providers use their own infrastructure to provide their own service. The issues that are raised are primarily focused on multi-occupancy buildings like blocks of flats, office blocks or shopping centres which France has many of. It concerns whether multple operators should or shouldn’t share the same wiring closet and infrastructure for the cabling to the occupant’s premises and what happens when an occupant changes service providers.

Ultimately, the issue of competitive delivery in all kinds of locations will need to be worked out, especially for the good of the customers.