By: Geert Heyninck
The next wave of broadband
Broadband has historically evolved through distinct phases, each shaped by changing usage patterns. In the broadcast era, the focus was on coverage to connect as many users as possible. In the
on-demand era, speed became essential, driven by streaming and social media. Finally, in the creator era, upstream capacity gained importance as users began producing and sharing traffic
flows.
Now we enter the AI era, where the network requirements change again. The network is no longer only serving people – it is serving machines, models, and autonomous systems. Traffic patterns are
changing. Demand is no longer solely human-driven. And “best effort” connectivity is no longer good enough.
As AI evolves, it will require deterministic network performance. A delayed video stream is annoying, but a delayed robotic control signal can stop production or create safety risks. High-capacity,
low-latency, and reliable broadband will be key to enabling the next generation of AI services.
AI is redefining behaviour and traffic
AI is often framed as a productivity tool, but that is an understatement. We are already seeing the rise of AI-driven applications across many different industries. Surveillance, for one, is
no longer passive recording. It is real-time analysis at scale. Every camera becomes a data firehose, pushing massive video streams to the cloud for instant AI processing to detect unusual behavior
or objects, identify suspects, and alert authorities instantly. Multiplying this across cities, airports, and other venues results in continuous high-volume upstream traffic to the cloud.
AI and open cloud platforms are also reshaping how people work by taking over repetitive, time-consuming tasks and augmenting everyday decision-making. Routine activities, like summarizing
documents, generating reports, writing code, or organizing data, are increasingly handled by AI, allowing people to focus on higher-value, creative, and strategic work. Homeworkers and students
will benefit from faster research, analyses, and writing. As AI becomes fully entrenched in our daily (work) life, seamless access to cloud-based AI services is vital. From a broadband perspective,
this means not only higher network loads driven by growing volumes of AI interactions, but also a greater need for reliability. As more workflows depend on AI, broadband connectivity must evolve to
deliver consistent, always-on access to cloud-based AI services.
Autonomous driving requires new, hyper-accurate maps including precise lane positioning, road curvature, gradients, lane markings, boundaries, recent bumps on the road, and pedestrian crossings –
all of which are far beyond what human-oriented navigation apps provide. These data are collected by vehicles every time they are on the road. The real bottleneck? Uploading this data daily from
homes back to car manufacturers, so they can continuously build and update maps, ensuring safer and more efficient routes for everyday travel. Upstream is no longer secondary; it is vital in
activating and accelerating the self-learning algorithms needed for fully autonomous cars.
Looking ahead, the next wave of AI adopters will not be humans, but machines. Dozens of edge and home devices will increasingly rely on local AI workflows. As AI evolves rapidly, these devices, not
people, will continuously download data to keep their capabilities up to date. They will act autonomously, without the need for human prompting.
The trend continues with AI models that go beyond text to images and video, further increasing data exchange requirements. Ultimately, the next phase of AI development will rely less on existing
internet data and more on real-world inputs. The physical world itself will become the primary source of training data. Today, most AI traffic is generated by humans interacting with applications
such as ChatGPT, copilots, or search assistants. In the future, billions of devices – including robots, smart appliances, vehicles, cameras, industrial equipment, wearables, and home assistants –
will continuously interact with the real world through sensors, cameras, lidar, digital twins, and more, generating far more real-time traffic than traditional applications.