Everything you need to know about FTTH

The FTTH Council Europe aims at advancing ubiquitous full fibre-based connectivity to the whole of Europe, with the vision that fibre connectivity will transform the way people live, do business, and interact, connecting everyone, everything, everywhere. In fact, fibre connectivity can play a crucial role in contributing to a better, faster, and greener Europe.

 

What is FTTH?

FTTH stands for "Fibre to the Home." It refers to a type of broadband internet connection technology that uses fibre-optic cables to transmit data. These cables are made of thin strands of glass or plastic that transmit light signals, which allows them to transmit data at very high speeds. With an FTTH connection, the fibre-optic cables run all the way from the internet service provider's network to the subscriber's home, providing a direct connection to the internet. This contrasts with other types of broadband connections, such as DSL or cable, which use traditional copper wires or coaxial cables to transmit data. FTTH connections are known for their fast speeds and high reliability, making them a popular choice for internet service providers and consumers alike.

How does FTTH work?

In an FTTH system, fibre-optic cables are used to transmit data from the internet service provider's network directly to the subscriber’s home. But how does an FTTH connection work? Here is an overview:

  1. The internet service provider installs fibre-optic cables to the household. These cables are typically buried underground or attached to utility poles.
  2. At the subscriber’s home, the fibre-optic cables are connected to a network interface device (NID), which is a small box that is installed on the outside of the house. The NID acts as a hub for the fibre-optic cables and is responsible for connecting the cables to the subscriber’s home network.
  3. From the NID, the fibre-optic cables are connected to a modem, which is a device that converts the light signals from the fibre-optic cables into electrical signals that can be transmitted over traditional copper wires.
  4. The modem is connected to the subscriber’s router, which is a device that connects the user's home network to the internet. The router allows multiple devices, such as computers, laptops, smartphones, and smart TVs, to connect to the internet at the same time.
  5. Once the devices are connected to the router, they can access the internet by sending and receiving data through fibre-optic cables.

An FTTH connection provides a direct, high-speed connection to the internet, allowing subscribers to enjoy fast download and upload speeds, as well as reliable connectivity.

What is the installation process like?

The process for installing an FTTH connection will depend on the specific internet service provider (ISP) and the location of the subscriber’s home. However, here is a general overview of the steps involved in installing an FTTH connection:

  1. The first step in the installation process is to determine the feasibility of an FTTH connection. This will involve assessing the location of the user's home and determining the availability of fibre-optic cables in the area.
  2. If an FTTH connection is feasible, the ISP will schedule an installation appointment with the subscriber.
  3. On the day of the installation, a technician from the ISP will meet the subscriber to begin the installation process.
  4. The technician will begin by installing a NID on the outside of the subscriber’s home. As indicated above, the NID (network interface device) is a small box that acts as a hub for the fibre-optic cables and is responsible for connecting the cables to the user's home network.
  5. From the NID, the technician will run the fibre-optic cables into the user’s home and connect them to a modem. The modem is a device that converts the light signals from the fibre-optic cables into electrical signals that can be transmitted over traditional copper wires.
  6. The technician will then connect the modem to the subscriber’s router, which is a device that connects the household network to the internet. The router allows multiple devices, such as computers, laptops, smartphones, and smart TVs, to connect to the internet at the same time.
  7. Once the installation is complete, the technician will test the connection to ensure that it is working properly. If everything is working correctly, the technician will provide the user with instructions on how to use the connection and any necessary login information.

Overall, the installation process for an FTTH connection is typically straightforward and is completed by a trained technician. The installation process can take anywhere from a few hours to a full day, depending on the specific circumstances.

What are the benefits of FTTH networks?

FTTH networks offer several benefits over other types of broadband internet connections, such as DSL or copper. Some of the main benefits of FTTH networks include:

  1. High speeds: One of the biggest benefits of FTTH networks is their ability to provide extremely fast internet speeds. Because fibre-optic cables are capable of transmitting data at very high speeds, FTTH connections can offer download and upload speeds that are significantly faster than other types of broadband connections.
  2. High reliability: FTTH networks are also known for their high reliability. As fibre-optic cables are made of glass or plastic, they are not prone to the same kind of interference or degradation that can affect other types of cables. This means that FTTH connections are less likely to experience interruptions or slowdowns due to factors such as weather or distance from the network.
  3. Future-proof: As internet usage continues to grow and demand for faster and more reliable connections increases, FTTH networks are well positioned to meet these needs. Because fibre-optic cables are capable of transmitting data at very high speeds, they have the potential to support a wide range of future applications and technologies.
  4. Cost-effective: In some cases, FTTH networks can be more cost-effective in the long run compared to other types of broadband connections. Because fibre-optic cables are less prone to damage and have a longer lifespan than other types of cables, they may require fewer repairs and replacements over time.

In conclusion, FTTH networks offer many benefits, including fast speeds, high reliability, futureproofing, and cost-effectiveness, making them a popular choice for both service providers and consumers, together with investors, municipalities, and government entities.

FTTH vs. FTTx, FTTN, and FTTC: differences

FTTH contrasts with other types of broadband connections, such as FTTx, FTTN, and FTTC, which use a combination of fibre-optic and traditional copper or coaxial cables. Here are the main differences between these types of broadband connections:

  • FTTx: FTTx stands for "Fibre to the x," where "x" can refer to a variety of locations, such as the home (FTTH), the building (FTTB), or the curb (FTTC). FTTx connections use a combination of fibre-optic and traditional cables to transmit data. The specific type of FTTx connection will depend on the location of the fibre-optic cables and the type of cables used.
  • FTTN: FTTN stands for "Fibre to the Node." In an FTTN connection, fibre-optic cables are run to a central node or hub located near the user's home. From the node, traditional copper or coaxial cables are used to transmit data the rest of the way to the user's home.
  • FTTC: FTTC stands for "Fibre to the Curb." In an FTTC connection, fibre-optic cables are run to a central location near the user's home, such as a curb or utility pole. From there, traditional copper or coaxial cables are used to transmit data the rest of the way to the user's home.

The main difference between these types of broadband connections is the location of the fibre-optic cables and the type of cables used to transmit data. FTTH connections provide the most direct and high-speed connection to the internet, as the fibre-optic cables run to the user's home. Other types of broadband connections, such as FTTN and FTTC, use a combination of fibre-optic and traditional cables, which can result in slower speeds and less reliable connections.

Is FTTH climate friendly?

FTTH connections can be a more environmentally friendly option for internet service compared to other types of broadband connections. A few reasons why FTTH connections may be considered more climate friendly are:

  1. Energy efficiency: Fibre-optic cables transmit data using light signals, which require less energy compared to traditional copper or coaxial cables. This means that devices connected to an FTTH network will likely use less energy compared to devices connected to other types of broadband networks.
  2. Fewer repairs and replacements: Fibre-optic cables are less prone to damage and have a longer lifespan than other types of cables, which means they may require fewer repairs and replacements over time. This can reduce the overall environmental impact of maintaining an FTTH network compared to other types of networks.
  3. Reduced emissions: Because fibre-optic cables are capable of transmitting data at very high speeds, they may be able to support more internet usage per unit of energy compared to other types of networks. This could potentially lead to reduced emissions from internet usage over time. Also, glass or plastic are durable materials that do not need to be upgraded or replaced, allowing for a very long-life cycle, reducing waste and CO2 emissions coupled with such a network upgrade.

However, it's worth noting that the overall environmental impact of an FTTH network will depend on a variety of factors, including the specific infrastructure used and the energy sources used to power the network.

Overall, while FTTH connections have clear environmental benefits compared to other types of broadband connections, it is important to consider the full lifecycle of the network, including its construction, operation, and disposal, to fully understand its environmental impact.


If you are interested in the FTTH technology, together with its impact on society and the environment, you cannot miss our conference. Subscribe to our newsletter to receive updates about the event, and join us in Amsterdam on 25-27 March 2025.

SUBSCRIBE TO OUR NEWSLETTER