As an IT professional with deep roots in artificial intelligence, blockchain, and high-capacity networking, Dominic Jainy has spent years observing how infrastructure shifts dictate the pace of digital innovation. With the recent implementation of the Gigabit Infrastructure Act, the telecommunications landscape in Europe has reached a critical crossroads where physical hardware meets invisible limitations. The following discussion examines the regulatory mandates currently reshaping European buildings, the technological hurdles of the “last ten meters,” and the pressing need for a more cohesive spectrum policy to prevent a massive bottleneck in our digital ecosystem.
The conversation explores the critical disconnect between European legislative mandates for physical fiber infrastructure and the radio spectrum policies that govern actual wireless performance. We delve into how the current regulatory framework successfully brings high-speed connectivity to the building’s threshold but often fails to address the specific wireless congestion issues in dense urban environments. Key themes include the spectrum battle over the 6 GHz band, the unique interference challenges faced by residents in dense multi-dwelling units, and the urgent need for a shift toward managed Wi-Fi systems and technology-neutral policies to ensure that the European Union’s ambitious gigabit goals are actually felt by the end user.
The Gigabit Infrastructure Act has officially entered a new phase this February, mandating that all new and majorly renovated buildings be fiber-ready. From your perspective, how does this shift the responsibility of connectivity from service providers to property developers?
The implementation of Article 10 of the Gigabit Infrastructure Act marks a fundamental change in how we view the “bones” of a building. For any permit filed after February 12 of this year, developers are no longer just responsible for plumbing and electricity; they must ensure that fiber-ready physical infrastructure and actual fiber wiring are integrated up to the end-user’s connection point. This is a massive logistical undertaking, especially for multi-dwelling units which are now required to be equipped with an access point for multiple operators to ensure fair retail competition. We are seeing a shift where the digital termination point is treated as a core utility, but there is an underlying tension because while the developer provides the “pipe,” the actual quality of experience still depends heavily on the wireless environment inside the apartment. It is a significant step forward for infrastructure, yet it creates a high-pressure environment for developers who must now navigate technical specifications for cables, sockets, and ducts that were only finalized late last year.
While the fiber may now reach the apartment door, there is growing concern regarding the “spectrum gap” in the 6 GHz band. How is the current allocation of 480 MHz affecting the way residents actually experience these gigabit speeds on their wireless devices?
This is where the physical promise of the Gigabit Infrastructure Act hits a virtual wall. We have a situation where the fiber motorway reaches the building, but it essentially narrows to a single lane the moment it transitions to Wi-Fi. Currently, Europe has capped the 6 GHz allocation at 480 MHz, which only provides three 160 MHz channels; when you add the two available in the 5 GHz band, you only have five wide channels to serve an entire building. This limitation is starkly visible when you compare usage data, where only 1.6% of Wi-Fi samples in Europe utilize the 6 GHz band, compared to nearly 14% in North America. The irony is that the hardware being sold here is often identical to that in the US, but the upper part of the 6 GHz band is essentially “locked” by regulation, preventing residents from ever reaching that 1 Gbps target on their laptops or smartphones.
In dense urban environments or multi-dwelling units, the interference from neighboring networks can be overwhelming. Could you describe the technical reality for a resident living in an apartment block with forty different uncoordinated routers?
Imagine a typical evening “busy hour” in an apartment block where forty different households are all trying to stream high-definition content, attend video calls, or sync smart home devices simultaneously. Because of the limited 480 MHz allocation, these forty routers are all fighting over the same handful of wide channels, creating a chaotic environment of radio interference that degrades performance exactly when it is needed most. You also have to factor in the smart thermostats, televisions, and even connected cars in the garage below, all adding to the noise floor of the building. In most European buildings, each resident buys their own router and installs it without any building-level coordination, leading to a “stack” of uncoordinated signals where no one gets the full speed they are paying for. It is a frustrating sensory experience for the user—paying for a gigabit subscription but seeing their connection stutter because the airwaves are simply too crowded.
There seems to be an interesting conflict between Europe’s green building initiatives and its connectivity goals. How do tighter thermal envelopes and modern construction materials complicate the delivery of high-speed wireless signals?
This is one of the most overlooked policy gaps in our current urban strategy. Brussels is simultaneously pushing for tighter thermal envelopes to improve energy efficiency while also demanding fiber-ready wiring, but these two goals are often at odds. The materials used to create these highly insulated, energy-efficient “green” buildings are incredibly effective at blocking radio signals from reaching the interior. This means that relying on outdoor cellular towers to provide indoor gigabit speeds is increasingly unrealistic and economically unfeasible. As a result, the internal Wi-Fi network becomes the sole lifeline for connectivity, yet the regulations governing the spectrum for that Wi-Fi haven’t caught up to the reality that the signal is essentially trapped inside a Faraday cage of high-efficiency glass and insulation.
Europe has traditionally favored a model where each tenant manages their own broadband, but there is talk of moving toward “managed Wi-Fi.” What are the advantages of a single, coordinated network across an entire building compared to the current fragmented approach?
A managed Wi-Fi model, which is already becoming mainstream in new multi-family housing in the US, treats the entire building as a single, coordinated system. Instead of forty individual routers screaming over each other, a single provider designs the network with strategically placed access points that are tuned to minimize interference and maximize spectrum efficiency. This allows for proactive monitoring and a consistent service level across every unit and common area, which is vital for things like digital inclusion in social housing or student residences. However, the Gigabit Infrastructure Act unintentionally reinforces the old, fragmented pattern by focusing on opening the building access point to every retail operator without addressing the coordination of the airwaves inside. We need to bridge this gap by encouraging “wireless-ready” specifications that allow for managed systems to use the scarce spectrum far more efficiently than the current “every man for himself” retail model.
With the Digital Networks Act on the horizon and the upcoming World Radiocommunication Conference, what is your forecast for the future of European indoor connectivity over the next few years?
My forecast is that we will see a significant pivot toward recognizing Wi-Fi as a core component of the “gigabit chain,” alongside fiber and 5G. By 2027, the results of the sharing-scenario studies will be public, and I expect we will see a strong push to authorize low-power indoor Wi-Fi in the upper 6 GHz band to protect the 1 Gbps promise. I anticipate that regulators will eventually have to adopt a “wireless-ready” label for buildings, similar to the fiber-ready mandates, ensuring that new constructions are optimized for managed Wi-Fi from day one. If we can successfully measure gigabit speeds at the device level rather than just at the wall socket, it will force a policy shift that prioritizes the actual user experience. Ultimately, the economic pressure from the PropTech sector and the demand for smart-building systems will drive us to treat the building’s radio layer with the same legislative seriousness as the fiber optic cables that feed it.