Technology Convergence: Building the Networked Electronic Information Society

Every time you stream a song wirelessly, video-call someone across the globe, or access the internet in a remote village through a satellite dish, you are experiencing the outcome of technology convergence – the merging of once-separate communication systems into a unified, seamless network. The ultimate aim of this convergence is the Networked Electronic Information Society (NEIS): a world where anyone can access any information, at any time, from anywhere. But building that world requires understanding the four distinct pillars of modern telecommunication – and how each of them contributes something irreplaceable.

What is technology convergence and why does it matter? 🔗

At its core, technology convergence refers to the integration of previously separate technologies – telephony, computing, broadcasting, and data networks – into a single, unified platform. This is not simply a technical upgrade; it represents a fundamental shift in how society organises and exchanges information. Historically, a phone was just a phone, a television just a television. Today, a single smartphone handles calls, video conferencing, live TV, banking, and navigation simultaneously.

The driving force behind this convergence is the common goal of building a Networked Electronic Information Society. As scholars at the USC Annenberg School for Communication have noted, information and communication technologies are not just quantitatively expanding – they are qualitatively reshaping society by enabling social units to interact anywhere and anytime while relying on distributed information infrastructure. For this vision to be realised, all the different networks carrying the world’s data must work toward one shared purpose.

The four pillars of modern telecommunication 🔗

Modern global communication rests on four fundamental systems: electrical (copper cable) networks, optical fibre networks, radio communication, and satellite communication. Each has unique strengths and limitations, and together they form the backbone of the global information infrastructure.

Electrical (copper cable) communication 🔗

Copper cables were the original highway of the telecommunications world. Since the telegraph era, copper wire has carried voice and data signals over short and medium distances. Even today, copper remains a relevant conduit for short-range communication, especially in the “last mile” – the connection from a local exchange to homes and offices. Technologies like ADSL (Asymmetrical Digital Subscriber Line) have significantly extended copper’s usefulness, enabling high-speed data transmission over existing copper infrastructure without the expense of complete replacement. The primary reason copper cables are still widely used for last-mile connectivity is simply that the cables are already laid out, making new digging operations unnecessary.

That said, copper has real limitations. Its bandwidth capacity and resistance to signal degradation over long distances are considerably lower than optical fibre. It works best as a complement to more powerful systems, not as a standalone long-haul network.

Optical fibre communication 🔗

If copper is the local road, optical fibre is the expressway. According to a Congressional Research Service report on undersea telecommunication cables, optical fibres allow signals to travel as pulses of light, resulting in a clearer signal, far less loss over long distances, greater bandwidth, and significantly less electromagnetic interference compared to traditional copper lines. Network architects consider optical fibre the best physical medium for facilitating long-distance communication and connecting global networks.

The scale of deployment is staggering. Since 1990, when optical amplification became commercially available, telecom companies have built a vast intercontinental network of undersea and overland fibre links. A single fibre strand using modern technology can theoretically carry hundreds of high-speed channels simultaneously – enough capacity to support hundreds of millions of telephone conversations on one strand. As of 2020, over 5 billion kilometres of fibre-optic cable had been deployed globally. It is no exaggeration to say that optical fibre is the primary backbone of the modern internet.

Radio communication 🔗

Radio-based communication covers the short-haul wireless segment – the mobile networks, Wi-Fi hotspots, and urban cellular infrastructure that connect billions of people without physical cables. Radio link systems use chains of receivers and transmitters, supporting both analog and digital data transfer. In cities and densely populated areas, radio-based mobile networks (2G through 5G) are the fastest and most cost-effective way to extend network access to large numbers of users rapidly.

The role of radio in the NEIS vision is particularly important for urban expansion. Mobile networks can be deployed far more quickly than laying physical cable, making radio the preferred solution for fast-growing cities in developing nations. The expansion of mobile broadband and the deployment of 5G networks are considered key enablers for delivering high-quality digital services in real time, even across densely populated or rapidly developing regions.

Satellite communication 🔗

Satellite is the technology that reaches where no cable can – remote mountains, deep oceans, and rural areas far from any terrestrial infrastructure. Satellite communication systems can broadcast information efficiently across vast geographic areas, connecting earth stations on a point-to-multipoint basis that would be impractical using ground-based fibre or radio alone. Crucially, establishing connectivity via satellite links is by far the quickest method: even the most remote rural areas can be brought onto the global network map in a matter of hours using satellite links.

However, satellite has one significant trade-off: limited bandwidth. A typical communication satellite offers considerably less bandwidth than a single optical fibre strand, making it impractical as the primary carrier for high-volume data traffic. This is why satellite plays a complementary rather than central role in the overall communication ecosystem – filling geographic gaps that other systems cannot reach, rather than replacing them.

Connectivity and capacity: the two challenges of building NEIS 🔗

Building a true Networked Electronic Information Society involves solving two distinct but related problems: expanding connectivity to more of the global population, and increasing capacity to handle growing demand for data-intensive services like streaming, telemedicine, and cloud computing.

Connectivity means getting more people online – especially the billions in rural, remote, or economically marginalised communities who remain outside the digital network. Capacity means ensuring that existing connections are fast enough and stable enough to support on-demand services, not just basic voice calls. These two challenges require different solutions, which is exactly why no single communication technology can solve both on its own.

The NEIS framework envisions a society where information flows freely and is available to anyone, anywhere, at any time – a goal that is simultaneously technological, economic, and social. Achieving it requires the coordinated use of all four communication pillars, each contributing what the others cannot.

Complementary roles: why all four technologies are necessary 🔗

The four pillars are not competitors – they are teammates, each suited to a different part of the connectivity challenge. Fibre-based systems have largely replaced radio for long-haul data transmission between cities and across continents, while radio continues to dominate for the “last metre” connection to individual users. Copper cables persist as a practical, cost-effective last-mile solution where fibre infrastructure has not yet been laid. And satellite steps in where terrestrial infrastructure is simply not feasible.

Consider the practical logic: a video call between Mumbai and New York travels mostly through undersea optical fibre cables, reaches the city via terrestrial fibre or copper infrastructure, and connects the final leg via mobile radio. In rural Rajasthan, that same call might reach the user via satellite. The network is not one technology – it is all four, working together.

ICT – Information and Communications Technology – is precisely defined by this convergence of audiovisual, telephone, and computer networks through a unified system. The economic incentive to merge these systems is enormous, as a single integrated infrastructure is far more efficient and cost-effective than maintaining four parallel ones.

The promise of Bluetooth: convergence at the personal scale 🔗

If satellite represents convergence at the planetary scale, Bluetooth represents it at the most personal level – the short-range, device-to-device communication that makes our immediate digital environment feel seamless.

Bluetooth is a technology standard designed to enable short-range wireless communication between electronic devices. Developed initially by Ericsson in the mid-1990s to replace the cables connecting mobile phones and peripheral devices, it operates on radio frequencies rather than infrared light – which means devices do not need to be pointed at each other to communicate. By 1998, Ericsson had assembled a consortium of major technology companies, known as the Bluetooth Special Interest Group (SIG), to bring the technology to the consumer market. Bluetooth 1.0 specifications were released in 1999.

What made Bluetooth significant as a convergent technology was its ambition: to create a universal short-range wireless standard that any device could use to talk to any other device. A laptop, a mobile phone, a printer, a headset – all speaking the same wireless language. Bluetooth technology uses short-range radio waves within the 2.4 GHz ISM band, and is overseen by the Bluetooth SIG, which sets interoperability standards that every qualifying device must meet.

Bluetooth Low Energy: the convergence enabler for IoT 🔗

The original Bluetooth standard was powerful enough for audio streaming but drew too much power for devices that needed to run for months on a small battery. A major turning point came in 2010 with the introduction of Bluetooth Low Energy (BLE), part of Bluetooth version 4.0. BLE tackled the power consumption issue that had limited classic Bluetooth’s usefulness, allowing devices to sleep in ultra-low power mode between connections – fulfilling the original “cable replacement” vision that the earlier standard could not achieve.

BLE enabled an explosion of new applications: fitness trackers, smartwatches, medical sensors, smart home devices, and wireless keyboards and mice all became practical because of its efficiency. BLE is designed to operate with low power consumption, provide low latency, and function on small coin battery cells – making it ideal for the Internet of Things (IoT) ecosystem, where thousands of small devices need to communicate without constant recharging. By 2021, 4.7 billion Bluetooth integrated circuit chips were shipped annually, making it one of the most widely deployed wireless technologies in history.

In the context of building the NEIS, Bluetooth and BLE represent the final link in the chain – the short-range, low-power wireless layer that connects individual devices to each other and, through them, to the broader networked world. From a satellite orbiting Earth to a fitness band on your wrist, convergent technologies at every scale are working together to construct the networked society that was once only a vision.

What do you think? As satellite internet services expand and Bluetooth-enabled devices multiply, do you think rural and urban communities will eventually experience truly equal digital connectivity? And with so many communication technologies converging into everyday devices, where do you see the boundary between human activity and the digital network?

References

1. https://en.wikipedia.org/wiki/Technological_convergence
2. https://annenberg.usc.edu/sites/default/files/2015/04/28/Informationalism,%20Networks%20and%20the%20Network%20Society.pdf
3. https://mwswire.com/telecommunications/
4. https://www.congress.gov/crs-product/R47237
5. https://en.wikipedia.org/wiki/Fiber-optic_communication
6. https://telecom.samm.com/telecommunication-systems-and-cables
7. https://lis.academy/information-communication-society/understanding-key-goals-networked-information/
8. https://www.sciencedirect.com/topics/engineering/satellite-communication-system
9. https://lis.academy/information-communication-society/emerging-networked-electronic-information-society/
10. https://www.rp-photonics.com/optical_fiber_communications.html
11. https://en.wikipedia.org/wiki/Information_and_communications_technology
12. https://www.britannica.com/technology/Bluetooth
13. https://pmc.ncbi.nlm.nih.gov/articles/PMC11859364/
14. https://www.insightsip.com/news/what-s-new/609-evolution-of-bluetooth-and-other-short-range-radio-technologies
15. https://www.sciencedirect.com/topics/computer-science/bluetooth-low-energy
16. https://en.wikipedia.org/wiki/Bluetooth