The Weight of the Modern Web
Mar 17, 2026
There is a good thought experiment to help understand the sheer absurdity of the modern web page. Consider that Windows 98 — the operating system that ran millions of computers worldwide at the turn of the millennium — required only about 210 megabytes for a minimal installation. Its predecessor, Windows 95, managed the same feat in around 50 megabytes. That was a complete PC operating system: a graphical user interface, a file manager, a networking stack, drivers for dozens of hardware configurations, and the essential system software needed to run everyday tasks. Today, a single article on a major news website can be dozens of megabytes in size. Not a software suite. Not a video game. Not a movie. Just a regular webpage of text with some photos.
Windows 95 Setup Wizard. Credit: Google
The weight of the data alone is staggering, but the number of network requests compounds the problem considerably. A single article load on a top-tier news publication can cause more than 400 individual network requests before the page settles down. To put that in musical terms, a standard MP3 file encoded at bitrates between 128 and 256 kbps usually takes up about 3 to 7 megabytes, depending on length. A modern news page can therefore be the equivalent of downloading an entire album’s worth of music just to read a single article. At the global average broadband speed of the mid-2000s over ADSL, about 1.5 Mbps, it would have taken several minutes to load such a page. Hardware has developed tremendously in twenty years. The question worth asking is whether software and network efficiency have kept pace — or whether every gain has been quietly consumed by abstraction and ad-tech overhead.
The Surveillance Engine Behind the Headline
The weight problem is only half the story. A close examination of the network activity on a typical news page reveals something more disturbing than inefficiency: an industrialized behavioral surveillance system running entirely within the user’s browser, without meaningful user awareness. Before the reader is even done scanning the headline, the browser is already conscripted into a real-time programmatic advertising auction. Bid requests fire at multiple ad exchanges at the same time. JavaScript bundles of several megabytes are downloaded, parsed and compiled on the client’s device. The heat that accumulates on the back of a phone, the fan spinning up on a laptop — a measurable share of that thermal output is ad-tech code that the user never asked to run.
Apart from the auction itself, the behavioral monitoring layer is a persistent background process. Tracking beacons fire in continuous bursts to first-party analytics endpoints. Invisible tracking pixels stitch together a cross-site identity profile that connects browsing behavior across unrelated domains and ad networks. Consent banners, required by privacy laws in dozens of jurisdictions, pop up on screen as legal compliance artifacts — but they serve as shields for the publisher and the underlying data collection goes on more or less uninterrupted. The consent framework endpoint on one major publisher’s infrastructure, for example, was reportedly named after the sound a contented cat makes. The metaphor, intentional or not, is unusually precise: something soft and reassuring covering up the act of going through someone’s pockets.
Why Latency and Bandwidth Are No Longer Optional
Understanding the scale of modern web bloat changes the meaning of satisfactory network performance. For the average home user with a fast broadband connection to the internet, a page that weighs in at dozens of megabytes is an annoyance. For a field engineer connecting over a constrained network link, a retail operation running point-of-sale software over satellite or a vessel crew relying on VSAT for business communications, it can mean the difference between a functional workday and a lost one. The web that enterprises rely on for SaaS applications, cloud platforms and communication tools is the same web that has been quietly increasing its payload requirements year over year. Infrastructure planning that made sense in 2018 may be materially inadequate today.
Artist’s rendering of a Eutelsat OneWeb LEO satellite. Credit: Eutelsat OneWeb
This is where next-generation satellite connectivity has shifted from a niche contingency to a genuine operational requirement. Low Earth Orbit constellations have eliminated the latency difference that made satellite links unsuitable for interactive applications. Where legacy geostationary satellite connections introduced round-trip delays of 600 milliseconds or more — enough to make video conferencing truly painful and cloud applications sluggish — modern LEO services operate with sub-150 millisecond latency under normal conditions. Combined with throughput figures that now run into the hundreds of megabits per second, the performance profile of next-generation satellite has converged meaningfully with that of terrestrial fiber, especially for the types of mixed-traffic enterprise environments where web-heavy applications coexist with latency-sensitive communications.
Case for Intelligent Enterprise Connectivity
Raw bandwidth is not typically sufficient to resolve the issues posed by the modern web. Even a high-capacity connection can become inefficient when background traffic from advertising platforms, analytics systems and tracking scripts begins to compete with business-critical applications. For enterprises that operate across distributed sites, remote locations or mobile platforms, consistent connectivity demands both adequate bandwidth and intelligent traffic management.
BusinessCom Networks addresses this challenge with next-generation satellite connectivity designed to provide high-performance internet access around the world. Operating over the OneWeb LEO constellation, BusinessCom OneWeb delivers sub-150 ms latency and speeds up to 195 Mbps, with truly unlimited traffic and no FAP or FUP limits, allowing data-heavy SaaS and cloud applications to run without artificial restrictions. For organizations that require additional resilience, BusinessCom Spectrum integrates LEO, MEO and GEO connectivity into a multi-orbit architecture that dynamically routes IP traffic through the best available path while offering redundant operation and aggregate EIR bandwidth up to 200 Mbps.
Both services use BusinessCom’s Multi-Service Optimization (MSO) platform, which operates across IP layers 3–7, applying deep packet inspection and bidirectional QoS to prioritize critical enterprise traffic over background web overhead. The platform is supported by the Sentinel server and the SecureLink AI-enabled intrusion prevention system, which provide threat management alongside 256-bit AEAD encryption for secure communications. The internet is heavier than ever. The question for enterprise network planners isn’t whether that trend will reverse — the incentive structures that created it are still firmly in place — but whether their infrastructure is built to carry the weight.
