1  Today’s Internet and Worldwide Web

1.1 1963–1969: Digital electronics and networks

1.1.1 Rise of the integrated circuit

Between 1963 and 1969, digital electronics moved through a decisive transition: from systems built mainly with discrete transistors toward systems increasingly based on integrated circuits.¹ By 1966, the transistor had become the basic active component of digital electronics, replacing valves in most new computer and control systems.

¹ “1963: Standard Logic IC Families Introduced - The Silicon Engine - Computer History Museum,” accessed May 2, 2026, https://www.computerhistory.org/siliconengine/standard-logic-ic-families-introduced/.

Computers were still large, expensive, institutional machines used mainly by governments, defence organisations, universities, banks, telecommunications providers, and major industrial firms.

Digital logic was built around standard functions such as gates, flip-flops, counters, registers, memory circuits, and arithmetic units.

The growing use of integrated circuits allowed engineers to reduce the number of separate components needed in a system, improving reliability, speed, size, and cost.²

² Gordon E. Moore, Cramming More Components onto Integrated Circuits, n.d.

Early integrated circuits were mostly SSI, or small-scale integration, containing only a few logic gates or flip-flops per chip. I probably worked with all of them.

During this period, the industry began moving from SSI toward MSI and then LSI:

• SSI contained simple gates and flip-flops.

• MSI included counters, multiplexers, registers, and small arithmetic units.

• LSI began to place larger functional blocks, memories, and early processor-like structures onto single chips.

TTL logic was widely used where speed and reliability were important, especially in commercial, industrial, and military systems. MOS and CMOS technologies became increasingly important because they offered lower power consumption and better prospects for higher-density integration.³

³ “1968: Silicon Gate Technology Developed for ICs | The Silicon Engine | Computer History Museum,” accessed May 3, 2026, https://www.computerhistory.org/siliconengine/silicon-gate-technology-developed-for-ics/.

⁴ James M. Bryant, 4000 Series Logic and Analog Circuitry, n.d.

The 4000-series CMOS logic family emerged in this period, with devices such as the 4001 quad 2-input NOR gate becoming classic digital building blocks.⁴ My 1970s electronics shop sold these component ranges. Chips like the 4001 were important because they allowed designers to construct reliable digital systems from standardised, repeatable logic components.

CMOS later became dominant because of its low power consumption, noise immunity, and ability to support very high integration densities.

Semiconductor memory also began to look like a future replacement for magnetic core memory, as MOS and silicon-gate technologies improved density, speed, and ability to easily manufacture. This mattered because memory was central to the cost, size, and performance of computers.

As more logic and memory could be placed onto fewer chips, the economic logic of computing began to change. Smaller, cheaper, more reliable electronics made possible not only better mainframes and minicomputers, but also calculators, terminals, instruments, embedded controllers, and eventually personal computers.

1.1.2 The National Physical Laboratory (NPL)

In the UK, one of the most important developments was the work of Donald Davies at the National Physical Laboratory.

Davies developed the concept of packet switching independently of US ARPA work.⁵ This was crucial because the later Internet depended on packet-switched communication rather than traditional circuit-switched telephone-style communication.

⁵ “Packet Switching History Before Internet - NPL,” accessed May 1, 2026, https://www.npl.co.uk/about-us/history/timeline.

Packet switching allowed data to be broken into small units, sent across shared links, and reassembled at the destination. Davies’s work connected computer networking with telecommunications engineering, especially the problem of using expensive data links efficiently.

The UK’s contribution through NPL became one of the most important European foundations of Internet prehistory.

1.1.3 Networks

In the United States, ARPA-funded research was also moving toward practical packet-switched networking, alongside earlier distributed-communications work by Paul Baran at RAND.⁶ This work led directly to ARPANET, which began operating in 1969.⁷

⁶ Paul Baran, “Paul Baran, RAND Corporation, On Distributed Communications: IV, Priority, Precedence, and Overload, August 1964. Unclassified. | National Security Archive,” accessed May 2, 2026, https://nsarchive.gwu.edu/document/22577-document-01-paul-baran-rand-corporation.

⁷ F. E. Heart et al., “The Interface Message Processor for the ARPA Computer Network,” Proceedings of the May 5-7, 1970, Spring Joint Computer Conference (New York, NY, USA), AFIPS ’70 (Spring), May 5, 1970, 551–67, https://doi.org/10.1145/1476936.1477021.

ARPANET was not yet the Internet, but it demonstrated that packet-switched host-to-host computer communication could work in practice.

The later Internet emerged from the combination of these packet-switching ideas, host networking, internetworking protocols, and research-network experience.

However, during the 1960s and 1970s no network could operate without a robust telecoms system.

1.1.4 Computers and telecoms

Across Europe, laboratories and telecommunications authorities were exploring how computers could communicate over national and international telecoms infrastructure.⁸

⁸ “D5.1_history_v1.1,” accessed May 2, 2026, https://www.netcommons.eu/sites/default/files/d5.1_history_v1.1.pdf.

European telecommunications systems were often shaped by national post, telephone, and telegraph authorities, which made innovation more bureaucratic than in the US but also encouraged state-led infrastructure experiments.

UK digital research was important not only in packet switching, but also in time-sharing, computer architecture, academic computing, and networking theory.

European telecoms research, especially in France, during this period helped establish the idea that computers would eventually need to communicate as part of larger distributed information systems.

Japan also played an important role in the wider digital-electronics transition, heavily relying on the products of research obtained from other countries: overtly or covertly.⁹ Japanese firms were already strong in transistor radios, consumer electronics, precision manufacturing, and miniaturised electronic products. Japan was not yet leading microprocessor design, but its companies were becoming highly influential in calculator electronics, low-cost manufacturing, quality control, and semiconductor demand.[@SHMJ60sIntegrated]

⁹ “Era1960,Industry Trends|Semiconductor History Museum of Japan,” accessed May 2, 2026, https://www.shmj.or.jp/en/industry-trends/era1960e.html.

Japanese calculator and consumer-electronics manufacturers created strong demand for compact, reliable, low-power integrated circuits. This commercial pressure helped pull the semiconductor industry toward higher levels of integration, including LSI.

Japan’s importance in this period lay especially in miniaturisation, manufacturing discipline, consumer-electronics markets, and the demand for smaller and cheaper digital components.

By 1969, the main ingredients of the later digital and Internet revolutions were beginning to align:

• Transistors had become the foundation of digital electronics

• Integrated circuits were replacing discrete-transistor logic

• CMOS, TTL, MOS, SSI, MSI, and early LSI were shaping digital design

• Semiconductor memory was becoming strategically important

• Japan was driving miniaturisation and demand for compact IC-based products

• UK made a foundational packet switching contribution

• ARPA research in the US was moving packet networking into practical operation, and

• ARPANET began demonstrating the feasibility of networked digital computers.

1.1.5 The summer of 1969

ARPANET’s first message was sent on 29 October 1969 between UCLA and SRI.¹⁰ ARPANET was not yet the Internet, but it proved that packet-switched host-to-host computer networking could work.

¹⁰ “ICANN - The First Message Transmission,” accessed May 2, 2026, https://www.icann.org/en/blogs/details/the-first-message-transmission-29-10-2019-en.

Early ARPANET linked research computers, not consumer devices.

NPL’s packet-switching work and ARPANET were parallel developments.¹¹

¹¹ “History - Davies - NPL,” accessed May 3, 2026, https://www.npl.co.uk/about-us/history/famous/donald-davies.

The summer of 1969 emitted seeds of the most amazing advances in human, and non-human, society to come…

• The later Internet drew from several traditions: US ARPA networking, UK packet switching, French datagram work,¹² and wider academic networking.¹³

• Internet led to later pocket smartphone computers

• Internet also allowed speedy parallel research and development of biochemistry

• And, of course, the Internet led to wide development of NLP into what we call Artificial Intelligence, machines into robots (mobile and static)

• AI led to covert human profiling (PRISM, USA), real-time human geolocation, and emergence of plainly genocidal and ethnocidal warfare, also targeted on single humans (looking at you Israel and USA)

¹² Andrew L. Russell and Valérie Schafer, “In the Shadow of ARPANET and Internet: Louis Pouzin and the Cyclades Network in the 1970s,” Technology and Culture 55, no. 4 (2014): 880–907, https://muse.jhu.edu/pub/1/article/562835.

¹³ “35th Anniversary of the Intel® 4004 Microprocessor,” CHM, accessed May 2, 2026, https://computerhistory.org/events/35th-anniversary-intel-4004-microprocessor/.

Humanity had, by the finish of Summer 1969, all ingredients of a an autonomous future.

What follows is the backbone history, then insight to the future, founding why we humans must urgently develop international ethics and honour codes necessary for living with AI and intelligent machines. The Big Web Book sets out the Big Web Project platform to enable that.

1.2 1970–1972: Digital technology, networking, and standards

Japanese calculator company Busicom contracted Intel to design chips for calculators.¹⁴ That project led directly to the Intel 4004, showing how Japanese commercial requirements helped trigger the microprocessor revolution.

¹⁴ “Announcing a New Era of Integrated Electronics,” Intel, accessed May 3, 2026, https://www.intel.com/content/www/us/en/history/virtual-vault/articles/the-intel-4004.html.

¹⁵ Another Look at Data and File Transfer Protocols, Request for Comments RFC 310 (Internet Engineering Task Force, 1972), https://doi.org/10.17487/RFC0310.

The first microprocessor, Intel 4004, was introduced in 1971. It placed a computer-processor architecture into a commercial silicon chip,¹⁵ a microprocessor, marking the shift from fixed-function digital logic toward programmable single-chip computation.

Microprocessors allowed calculators, controllers, terminals, instruments, and later personal computers to be built far more cheaply than CPU mainframe and mini counterparts.

ARPANET, a form of wide-area network, expanded and demonstrated remote login, file transfer, and early electronic mail.¹⁶

¹⁶ “From ARPANET to the Internet | Science Museum,” accessed May 3, 2026, https://www.sciencemuseum.org.uk/objects-and-stories/arpanet-internet.

¹⁷ Slava Gerovitch, “InterNyet: Why the Soviet Union Did Not Build a Nationwide Computer Network,” History and Technology 24, no. 4 (December 2008): 335–50, https://doi.org/10.1080/07341510802044736.

The UK’s NPL packet-switched network became operational in the early 1970s, giving Great Britain and Northern Ireland (the United Kingdom) a central role in the practical development of packet networking.¹⁷

1.2.1 Digital networking in the UK, Europe, USSR, Middle East

The UK was important through NPL and later UCL networking work. France began developing its own networking ideas, later seen in CYCLADES.

The USSR had significant computer science, cybernetics, and state-planning ambitions, including proposals for large-scale economic information networks, but political and bureaucratic barriers limited deployment.¹⁸

¹⁸ Arash Heidari, Nima Jafari Navimipour, and Mehmet Unal, “The History of Computing in Iran (Persia)—Since the Achaemenid Empire,” Technologies 10, no. 4 (August 2022): 94, https://doi.org/10.3390/technologies10040094.

¹⁹ Department of Electrical Engineering and Computer Science, Lassonde School of Engineering at York University, Toronto, Canada and A. Almowanes, “History of Computing in Saudi Arabia: A Cultural Perspective,” International Journal of Social Science and Humanity, July 2017, 437–41, https://doi.org/10.18178/ijssh.2017.V7.862.

Middle Eastern digital adoption was still mostly institutional: oil companies, universities, airlines, banks, and state agencies used mainframes and telecommunications systems rather than public computer networks.¹⁹

1.2.2 Computing for business and organisational use

Businesses used mainframes for payroll, accounting, inventory, banking, airline reservation, and government administration. Computing was centralised, expensive, and controlled by specialists.

In the UK and Europe, national telecom authorities and PTT monopolies shaped the pace and character of data-network adoption.²⁰

²⁰ “Email: Comparing the European Pathway | EHNE,” Encyclopédie d’histoire numérique de l’Europe [online], accessed May 3, 2026, https://ehne.fr/en/encyclopedia/themes/material-civilization/digital-europe/email-comparing-european-pathway.

1.3 1973–1975: Internet foundations

1.3.1 ARPANET expansion and TCP/IP

In 1973, University College London became the first international ARPANET connection, linking the UK directly into the ARPA network.²¹ Ethernet was invented at Xerox PARC, creating a practical local-area networking model that would later become central to office, university, and industrial networking.

²¹ admin, “European ARPANET 50th Anniversary | Faculty of Engineering,” accessed May 3, 2026, https://www.ucl.ac.uk/engineering/computer-science/about/about-peter-kirstein/european-arpanet-50th-anniversary.

Vint Cerf and Bob Kahn developed the internet-working ideas that became TCP/IP. Their 1974 paper, A Protocol for Packet Network Intercommunication, described a protocol for connecting different packet-switched networks.

France’s CYCLADES, led by Louis Pouzin,²² developed the datagram idea and placed more responsibility on host computers rather than the network itself; this influenced later Internet architecture.

²² “Louis Pouzin | History of Computer Communications,” accessed May 3, 2026, https://historyofcomputercommunications.info/interviews/Louis-Pouzin/.

1.3.2 Microprocessors and early computers

Microprocessors such as the Intel 8008 and 8080²³ widened the range of programmable digital systems, supporting applications beyond calculators and into control systems, terminals, instruments, and early microcomputers.

²³ tluong, “Who Invented the Microprocessor?” CHM, September 20, 2018, https://computerhistory.org/blog/who-invented-the-microprocessor/.

1.3.3 IEEE networking standards

IEEE did not create ARPANET or TCP/IP. It grew from ARPA-funded research, while TCP/IP developed from the internetworking efforts of Cerf and Kahn.²⁴

²⁴ Vinton G. Cerf and Robert E. Kahn, A Protocol for Packet Network Intercommunication, no. 5 (1974).

²⁵ samainstage, “Ethernet Through the Years: Celebrating the Technology’s 50th Year of Innovation,” IEEE Standards Association, May 24, 2023, https://standards.ieee.org/beyond-standards/ethernet-50th-anniversary/.

IEEE’s later importance came through standardising network technologies, especially Ethernet through IEEE 802.3 and Wi-Fi through IEEE 802 design standards.²⁵

1.3.4 UK and European computing

The UK’s role was highly significant through work of the University College London and the National Physics Laboratory. NPL had already developed packet-switching, and UCL provided ARPANET’s first international connection with the USA in 1973.

Frances CYCLADES programme and Pouzin’s datagram networking²⁶ also contributed to European digital advances. So would the USSR with OGAS computer networking and centralised information systems, but otherwise brilliant efforts were constrained by bureaucracy and incompatible hardware ecosystems.

²⁶ Cade Metz, “Say Bonjour to the Internet’s Long-Lost French Uncle,” Wired, January 3, 2013, https://www.wired.com/2013/01/louis-pouzin-internet-hall/.

Middle Eastern institutions were expanding computer use more as a customer than pathfinder.

1.3.5 Digital electronics in business

Digital electronics became increasingly embedded in calculators, terminals, controllers, instrumentation, and industrial systems as microprocessors and LSI devices made programmable electronics smaller and cheaper.

Japan’s calculator industry²⁷ remained a strong driver of LSI demand, helping push semiconductor manufacturers through the transistor, IC, and LSI eras to that magical point in human history when basic personal computers emerged.

²⁷ “28) First "Transistorized" Electronic Calculator,” accessed May 3, 2026, https://www.shmj.or.jp/shimura/shimura_E/ssis_shimura1_28E.html.

1.3.6 Intel 8080 PC board

Throughout this time I was at the heart of digital engineering. Having become familiar with the Intel 4004, my first Intel 8080 PC board with interfaces was developed in 1974, more than half a year before Apple.

Looking back, it was crap.

I learned a huge amount about interfaces though, and especially networks and joining peripherals.

1.4 1976-1978: Personal computers and microcomputers

By the end of 1976 microcomputers had emerged from hobbyist and laboratory culture into an early commercial form. Machines such as the Altair²⁸ helped to move personal computing from Nascom and other kit hardware onwards to systems that could be used more broadly, their pioneers creating a commercial market.²⁹

²⁸ Wikipedia, “Altair 8800,” in Wikipedia, March 30, 2026, https://en.wikipedia.org/w/index.php?title=Altair_8800&oldid=1346272897.

²⁹ “Apple Computer, Inc. | Selling the Computer Revolution | Computer History Museum,” accessed May 4, 2026, https://www.computerhistory.org/brochures/a-c/.

1.4.1 Altair and Apple computers

The Altair 8800 was released in 1975, well before Apple I appeared in 1976. Apple II and many other machines followed in 1977. Like Commodore Pets they were designed as a more complete personal computer, with keyboard, power supply, BASIC programming language in ROM,³⁰ display support, RAM³¹ expansion, and later floppy-disk support. Fast evolving LSI technology improved the practical integration of CPUs, RAM, ROM, display controllers, peripheral chips, and support logic. These condensed components made smaller and more modular microcomputer systems possible.

³⁰ Wikipedia contributors, “EEPROM,” in Wikipedia, January 21, 2026, https://en.wikipedia.org/w/index.php?title=EEPROM&oldid=1334097914.

³¹ Wikipedia contributors, “Random-Access Memory,” in Wikipedia, May 2, 2026, https://en.wikipedia.org/w/index.php?title=Random-access_memory&oldid=1352090331.

1.4.2 TCP/IP and computer networks

Digital electronics became increasingly separable, with kits like Nascom 1 educating potential technicians, without which maintainability would not be possible.³² TCP was split into TCP and IP in 1978, creating the layered architecture that became the Internet Protocol suite,³³ that emerged as part of HTTP about 10 years later. Meantime ARPANET remained primarily a research and government-funded networking environment, while TCP/IP began to show how different packet networks could be interconnected.

³² Wikipedia contributors, “Nascom,” in Wikipedia, March 6, 2026, https://en.wikipedia.org/w/index.php?title=Nascom&oldid=1341995264.

³³ Wikipedia contributors, “Internet Protocol Suite,” in Wikipedia, May 1, 2026, https://en.wikipedia.org/w/index.php?title=Internet_protocol_suite&oldid=1351981115.

1.4.3 European packet networks

European packet networks developed in parallel, but many were shaped by public telecommunications authorities, X.25, and later OSI-style standardisation preferences rather than the more pragmatic TCP/IP approach.³⁴ UK technical culture linked university computing, government research, telecoms, and electronics. Europe was divided between packet-switching innovation and more bureaucratic telecom-standard approaches, especially through national PTTs, CCITT/X.25, and later ISO/OSI processes.

³⁴ “OSI: The Internet That Wasn’t - IEEE Spectrum,” accessed May 4, 2026, https://spectrum.ieee.org/osi-the-internet-that-wasnt.

1.4.4 Business computing

At this stage of technology businesses still relied mainly on mainframes and minicomputers for accounting, payroll, stock control, data processing, engineering, and administrative computing. This would rapidly change when engineers, universities, and enthusiasts began using microcomputers as lower-cost programmable systems for experimentation, education, control, and software development.

1.4.5 Digital innovation

This period was a Euro-American melting pot of successful digital ingenuity, only held back by public authorities and unions but kept lively by Japanese innovative manufacture.

1.5 1979–1981: IBM PC and online services

1.5.1 Digital technology

The Intel 8086/8088 and Motorola 68000 generation made more powerful microcomputers possible.³⁵

³⁵ “Intel ‘X86’ Family and the Microprocessor Wars - CHM Revolution,” accessed May 5, 2026, https://www.computerhistory.org/revolution/story/330.

³⁶ “The Intel ® 8086 and the IBM PC,” Intel, accessed May 6, 2026, https://www.intel.com/content/www/us/en/history/virtual-vault/articles/the-8086-and-the-ibm-pc.html.

³⁷ Babbage, “Motorola’s 68000 Series: Its Rise in Ten Computers,” Substack newsletter, The Chip Letter, May 27, 2024, https://thechipletter.substack.com/p/motorolas-68000-series-its-rise-in.

The importance of this generation was not only higher clock speeds or wider registers, but the shift toward architectures that could support larger software, richer operating environments, and more serious business applications. The Intel 8088 was especially important because IBM selected it for the IBM PC,³⁶ while the Motorola 68000 became influential in workstations, graphics systems, and later personal computers that needed a more advanced programming model.³⁷

The IBM PC launched in 1981, giving business computing a standardised microcomputer platform.³⁸

³⁸ “The IBM PC,” accessed May 5, 2026, https://www.ibm.com/history/personal-computer.

IBM’s entry changed the status of the microcomputer. Until then, many corporate buyers still regarded personal computers as experimental, educational, or enthusiast machines. The IBM name gave the category institutional credibility, and the PC’s use of available components helped create an ecosystem of expansion cards, software, peripherals, and later compatible machines.

Semiconductor memory became cheaper, denser, and more widely used.³⁹

³⁹ “Semiconductor Memory: Fast, Cheap, or Dense? - CHM Revolution,” accessed May 5, 2026, https://www.computerhistory.org/revolution/memory-storage/8/311.

This mattered because more affordable RAM and ROM made microcomputers more practical as general-purpose machines. Larger memory supported spreadsheets, word processors, databases, compilers, communications software, and operating systems that were more useful to business users than the small monitor programs and BASIC environments of earlier hobbyist systems.

Japan became increasingly important in memory chips,⁴⁰ consumer electronics, and manufacturing quality.⁴¹

⁴⁰ “SHMJ | 80s Integrated Circuits,” accessed May 5, 2026, https://www.shmj.or.jp/english/integredcircuits/ic80s.html.

⁴¹ “Japan’s Semiconductor Industrial Policy from the 1970s to Today | Perspectives on Innovation | CSIS,” accessed May 5, 2026, https://www.csis.org/blogs/perspectives-innovation/japans-semiconductor-industrial-policy-1970s-today.

⁴² ©. Stanford University, Stanford, and California 94305, “A Tale of Two Approaches to Revitalize Japan’s Semiconductor Industry,” March 10, 2026, https://fsi.stanford.edu/news/tale-two-approaches-revitalize-japans-semiconductor-industry.

Japanese semiconductor firms were particularly strong in DRAM during the 1980s, helped by manufacturing discipline, process control, and close links between electronics companies, component production, and export markets.⁴² Their strength in consumer electronics also meant that digital technology was not confined to offices and laboratories; it was entering calculators, cameras, audio equipment, video systems, games, and household devices.

1.5.2 Computer networks and videotex

ARPANET continued to grow in research and defence environments.

During this period ARPANET was still not a public Internet. It remained a specialist network for research, government, defence, and technical communities. Its importance lay in proving packet switching, remote access, file transfer, electronic mail, and inter-networking concepts before these became mass-market services.

The UK launched Prestel in 1979, an early videotex service using telephone lines and terminals.⁴³

⁴³ “Mirrors of the Future,” Archives of IT, accessed May 5, 2026, https://archivesit.org.uk/blog/mirrors-of-the-future/.

⁴⁴ Wikipedia contributors, “Prestel,” in Wikipedia, March 12, 2026, https://en.wikipedia.org/w/index.php?title=Prestel&oldid=1343063077.

Prestel used the television screen and telephone network to present pages of information from remote databases. It was not technically the Internet, but it was one of the clearest early attempts to imagine an ordinary household or office user retrieving digital information online.⁴⁴

Prestel was not the Internet, but it anticipated online information services, electronic messaging, online banking concepts, and database access.⁴⁵

⁴⁵ Lucinda D. Davenport, “The Viability of Viewdata as a Mass Medium: A Case Study of Prestel, the Prototype for Computerized Information Systems, the Internet,” TMG Journal for Media History 26, no. 2 (December 2023), https://doi.org/10.18146/tmg.845.

Its commercial weakness was also instructive. The technology was innovative, but terminals were expensive, access costs were awkward, and the service struggled to find a mass audience in Britain. Even so, its design showed that public-facing network services could include information retrieval, transactions, messaging, and paid digital content decades before the Web became normal.

France prepared the ground for Minitel, which would become Europe’s most successful pre-Web online service.⁴⁶

⁴⁶ “Simon Nora and Alain Minc, The Computerization of Society (1978),” accessed May 5, 2026, https://minitel.us/reference-materials/the-computerization-of-society.

The French state-backed telematics strategy was different from the British approach because it treated online access as part of national telecommunications modernisation. The Nora-Minc report of 1978 helped popularise the idea of télématique, combining telecommunications and informatics as a strategic national project.

1.5.3 UK, Europe, USSR, Middle East

The UK had a strong early online-service experiment in Prestel.

This placed Britain among the early countries experimenting with consumer-facing digital networks, even though commercial adoption was limited. The UK had technical strength in computing, telecommunications, broadcasting, and electronic engineering, but it did not turn Prestel into a dominant global platform.

France pursued state-backed telematics.⁴⁷

⁴⁷ Wikipedia contributors, “Minitel,” in Wikipedia, March 31, 2026, https://en.wikipedia.org/w/index.php?title=Minitel&oldid=1346339115.

France’s approach showed how a government-led telecommunications programme could accelerate public access to online services. Minitel later succeeded where Prestel struggled, partly because France Télécom distributed terminals widely and connected the service to everyday activities such as directories, messaging, booking, information retrieval, and commercial services.

The USSR had advanced technical talent but weak mass-market digital deployment.⁴⁸

⁴⁸ Benjamin Peters, How Not to Network a Nation: The Uneasy History of the Soviet Internet, ed. Sandra Braman, Information Policy (Cambridge, MA, USA: MIT Press, 2016).

Soviet computing suffered less from a lack of mathematical or engineering ability than from institutional fragmentation, planning failures, incompatible systems, and bureaucratic resistance. Projects such as OGAS imagined large-scale networked economic management, but the political and administrative system could not deliver a national civilian computer network.

Middle Eastern organisations continued to adopt mainframes and telecom systems,⁴⁹ especially in oil-rich Gulf states and national infrastructure projects.⁵⁰

⁴⁹ S. a. H. Ali, “The Impact of Computer Technology on Accounting and Auditing in the Middle East with Special Emphasis on Arabisation, Transfer of Technology and Training” (doctoral, City University London, 2015), https://openaccess.city.ac.uk/id/eprint/7737/.

⁵⁰ Department of Electrical Engineering and Computer Science, Lassonde School of Engineering at York University, Toronto, Canada and Almowanes, “History of Computing in Saudi Arabia.”

In the Gulf, oil revenue supported investment in telecommunications, banking systems, airline systems, government administration, and industrial control. The region was mainly an adopter rather than a producer of core computing platforms, but large infrastructure projects created demand for imported mainframes, minicomputers, terminals, and communications equipment.

1.5.4 Business software and microcomputers (Visicalc)

Spreadsheets, especially VisiCalc, made microcomputers attractive for business.⁵¹

⁵¹ Wikipedia contributors, “VisiCalc,” in Wikipedia, May 5, 2026, https://en.wikipedia.org/w/index.php?title=VisiCalc&oldid=1352668602.

VisiCalc was decisive because it gave managers, accountants, planners, and entrepreneurs a direct reason to buy a personal computer. It turned the microcomputer from a programmable curiosity into a financial modelling tool, allowing users to change assumptions and instantly recalculate results.

UK and European businesses began using microcomputers for accounts, stock control, word processing, and small databases.⁵²

⁵² Ashton Tate, “102746512-05-01-Acc,” accessed May 5, 2026, https://archive.computerhistory.org/resources/access/text/2012/10/102746512-05-01-acc.pdf.

These uses were practical rather than glamorous. Small firms could computerise tasks that had previously required paper ledgers, typewriters, card indexes, or bureau services. Larger firms could use microcomputers at departmental level even while central computing remained on mainframes and minicomputers.

Mainframes still dominated serious corporate computing.⁵³

⁵³ Tony Brewer and Tony Gunton, Report Series The Role of the No |6 Mainframe Computer in the 1980s, n.d.

For banks, insurers, airlines, utilities, government departments, and large manufacturers, mainframes remained essential because they handled high-volume transaction processing, payroll, inventory, reservations, billing, and central records. The microcomputer did not immediately replace the mainframe; it began by spreading computing power to desks, departments, engineers, and small businesses.

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1.6 1982–1984: Internet, microcomputers and online services

1.6.1 TCP/IP, DNS and Ethernet

On 1 January 1983, ARPANET moved from NCP to TCP/IP, a defining milestone in the birth of the modern Internet.

DNS emerged in 1983–1984, making network naming more usable; Paul Mockapetris’s RFC 882 and RFC 883, both published in November 1983, set out the original DNS concepts and implementation specification.⁵⁴ The first working domain name server,⁵⁵ “Jeeves,” was written in 1983–1984.⁵⁶

⁵⁴ Paul Mockapetris, Domain Names: Concepts and Facilities, Request for Comments RFC 882 (Internet Engineering Task Force, 1983), https://doi.org/10.17487/RFC0882.

⁵⁵ ISC, “A Brief History of the DNS and BIND — BIND 9 9.18.21 Documentation,” accessed May 6, 2026, https://bind9.readthedocs.io/en/v9.18.21/history.html.

⁵⁶ Paul Mockapetris, Domain Names: Implementation Specification, Request for Comments RFC 883 (Internet Engineering Task Force, 1983), https://doi.org/10.17487/RFC0883.

IEEE 802.3 Ethernet standardisation began in the early 1980s; in June 1983, Ethernet was adopted as an IEEE standard by the IEEE 802 Local Area Network Standards Committee.

1.6.2 Macintosh and personal computer software

The Apple Macintosh launched on 24 January 1984, advancing graphical user interfaces for personal computing.⁵⁷

⁵⁷ Stanford.edu, “First Macintosh Press Release,” accessed May 6, 2026, https://web.stanford.edu/dept/SUL/sites/mac/primary/docs/pr1.html.

⁵⁸ Wikipedia contributors, “Lotus 1-2-3,” in Wikipedia, April 27, 2026, https://en.wikipedia.org/w/index.php?title=Lotus_1-2-3&oldid=1351324519.

Lotus 1-2-3, released for DOS in 1983, became one of the defining business applications of the IBM PC era, combining spreadsheet, charting, and database-style functions in a package that helped make PC-compatible machines commercially attractive.⁵⁸

The GNU Project in September 1983, marking an important early moment in the history of free software and later open-source computing culture.⁵⁹

⁵⁹ how-to-ubuntu, “What Is GNU? What Does "GNU" Stand for? Where Does It Fit in Linux History? Why Do Some People Call Linux "Gnu/Linux"?” Reddit Post, r/linux4noobs, December 5, 2020, https://www.reddit.com/r/linux4noobs/comments/k740t9/what_is_gnu_what_does_gnu_stand_for_where_does_it/.

1.6.3 UK and European online services

France launched Minitel commercially in 1982, creating a mass online service before the Web.⁶⁰

⁶⁰ histoire, “Minitel – the Advent of Home Banking,” BNP Paribas, January 14, 2016, https://histoire.bnpparibas/en/minitel-the-advent-of-home-banking/.

Minitel allowed directory search, messaging, ticketing, banking-like services, commerce, and information retrieval.

The UK’s BBC Micro supported computer literacy and education through the BBC Computer Literacy Project, whose first phase ran in 1982–1983 and combined television, books, software, courses, and the BBC Micro system.⁶¹

⁶¹ BBC, “BBC-Computer-Literacy-Project,” accessed May 6, 2026, https://www.computinghistory.org.uk/pdf/acorn/BBC-Computer-Literacy-Project.pdf.

⁶² EARN, “The History of the EARN Network,” The History of the EARN Network, accessed May 6, 2026, https://earn-history.net/.

European research networks expanded in this period; EARN, the European Academic and Research Network,⁶² played a significant role in European academic and research networking between 1983 and 1994.

1.6.4 Asia, Japan and mobile communications

South Korea’s early TCP/IP work began in this period; Kilnam Chon developed SDN in 1982, described by the Internet Hall of Fame as the first Internet in Asia.⁶³

⁶³ “Kilnam Chon,” Internet Hall of Fame, accessed May 6, 2026, https://www.internethalloffame.org/inductee/kilnam-chon/.

Japan remained central in memory chips, calculators, consumer electronics, and manufacturing systems; Japanese manufacturers took the lead in increasing DRAM capacities during the 1980s and surpassed US companies in product quality.

The compact disc reached the Japanese market in October 1982, showing how digital storage and consumer electronics were beginning to converge through optical media.⁶⁴

⁶⁴ “Compact Disc (1982 – ),” Museum of Obsolete Media, April 16, 2014, https://obsoletemedia.org/compact-disc/.

⁶⁵ “Cell Phone Development - Motorola Solutions EMEA,” accessed May 6, 2026, https://www.motorolasolutions.com/en_xu/about/history/explore-motorola-heritage/cell-phone-development.html.

Motorola’s DynaTAC 8000X was approved by the FCC in 1983 as the world’s first commercial portable cell phone, signalling that digital-era communications were moving beyond fixed terminals and desktop systems.⁶⁵

1.6.5 Business computing and home computers

Ethernet LANs entered offices and laboratories as Ethernet became a standardised local-area networking technology in the early 1980s.

Home computers spread in the UK through machines such as the BBC Micro, ZX Spectrum, Commodore 64, and later Amstrad; the BBC Micro was closely tied to the BBC’s national computer-literacy initiative.

For individuals, the key technical uses were programming, games, education, word processing, and modem-based services; the BBC Computer Literacy Project explicitly aimed to teach viewers how to program and use microcomputers directly.

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1.7 1985–1987: RISC, Ethernet and networked computing

1.7.1 VLSI chips and RISC processors

VLSI enabled more powerful CPUs, graphics, sound, RAM, ROM, and custom chips, helped by the wider spread of VLSI design methods in universities and industry during the early 1980s.⁶⁶

⁶⁶ Lynn Conway, “Reminiscences of the VLSI Revolution: How a Series of Failures Triggered a Paradigm Shift in Digital Design,” IEEE Solid-State Circuits Magazine 4, no. 4 (December 2012): 8–31, https://doi.org/10.1109/MSSC.2012.2215752.

⁶⁷ “RISC | IBM,” accessed May 6, 2026, https://www.ibm.com/history/risc.

⁶⁸ “Patterson80,” accessed May 6, 2026, https://people.eecs.berkeley.edu/~kubitron/courses/cs252-F00/handouts/papers/patterson80.pdf.

⁶⁹ “Milestones:First RISC (Reduced Instruction-Set Computing) Microprocessor 1980-1982,” ETHW, January 21, 2026, https://ethw.org/Milestones:First_RISC_(Reduced_Instruction-Set_Computing)_Microprocessor_1980-1982.

RISC⁶⁷ architectures developed in universities and industry, including IBM’s 801 work, Berkeley RISC,⁶⁸ Stanford MIPS, and Acorn’s ARM work in the UK.⁶⁹

Workstations from Sun, Apollo, Acorn, and others linked computing to networking. Sun’s workstations, for example, shipped with Berkeley Unix and built-in networking, while Apollo used its own networked workstation environment.

Japan was extremely strong in DRAM, consumer electronics, and production quality. By the late 1980s Japan accounted for more than half of global semiconductor manufacturing and had several of the world’s largest semiconductor firms.⁷⁰

⁷⁰ Hugh Grant-Chapman and Tom McGee, Japan’s Chip Challenge: Semiconductor Policy for the Data Centre Era, n.d., accessed May 6, 2026, https://cetas.turing.ac.uk/publications/japans-chip-challenge-semiconductor-policy-data-centre-era.

1.7.2 Ethernet, TCP/IP and OSI standards

Ethernet spread through universities, laboratories, and corporate offices as local-area networking became central to workstation, file-sharing, printer-sharing, and departmental computing environments.

TCP/IP became increasingly important in academic computing, with public-domain and commercial TCP/IP implementations becoming available during the 1980s.

OSI standards were still strongly supported in European official circles, but TCP/IP gained practical momentum as research and operational networks increasingly needed working interconnection.⁷¹

⁷¹ Maria Demou, “Dimou-AT-Email-CERN-20220512,” accessed May 6, 2026, https://indico.cern.ch/event/1052076/attachments/2409109/4180177/Dimou-AT-Email-CERN-20220512.pdf.

IEEE 802.3 made Ethernet a widely standardised LAN technology; the IEEE 802.3-1985 standard formalised Ethernet’s CSMA/CD access method and physical-layer specifications.

1.7.3 UK ARM, JANET and global computing

The UK contributed through Acorn, ARM’s origins, academic networks, and computer-literacy policy. JANET linked UK universities, research councils, and higher-education institutions by the mid-1980s.⁷²

⁷² Mike Wells, “JANET-the United Kingdom Joint Academic Network,” Serials: The Journal for the Serials Community 1, no. 3 (November 1988): 28–36, https://doi.org/10.1629/010328.

⁷³ Acorn, “Acorn Computers,” in Wikipedia, April 27, 2026, https://en.wikipedia.org/w/index.php?title=Acorn_Computers&oldid=1351403349.

ARM began from Acorn’s RISC work in Cambridge. Steve Furber and Sophie Wilson designed the ARM1 microprocessor in 1985, forming the basis of the ARM architecture.⁷³

European academic and research networking expanded but remained technically mixed, with OSI-backed initiatives such as COSINE beginning in 1986 while TCP/IP usage continued to grow in practice.

The USSR continued to lag in commercial microelectronics and personal computing despite strong mathematical, scientific, and engineering talent.⁷⁴

⁷⁴ Chi Ling Chan, “Fallen Behind: Science, Technology, and Soviet Statism,” Intersect 8, no. 3 (2015).

⁷⁵ C. B. Gabbard and G. S. Park, “The Information Revolution Meets the Arab World,” accessed May 6, 2026, https://www.rand.org/content/dam/rand/pubs/papers/2008/P7920-1.pdf.

Middle Eastern computing remained concentrated in universities, telecom authorities, banks, airlines, government agencies, and oil-sector infrastructure. Saudi Arabia, for example, had early computer use linked strongly to Saudi Aramco and later saw PC adoption grow during the 1980s.⁷⁵

1.7.4 LANs and business computing

LANs became important for file sharing, printers, email gateways, and departmental computing as Ethernet, workstations, Unix systems, and TCP/IP spread through technical and organisational environments. PCs and workstations increasingly displaced terminals in some business settings, especially where users needed local processing, graphics, engineering tools, or networked departmental computing.

Financial markets, including London, became more dependent on digital trading and communications infrastructure. After London’s 1986 “Big Bang”, electronic trading used a new computer system that rapidly displaced the trading floor.⁷⁶

⁷⁶ “STSM121020 - Financial Markets: Background: Big Bang - HMRC Internal Manual - GOV.UK,” accessed May 6, 2026, https://www.gov.uk/hmrc-internal-manuals/stamp-taxes-shares-manual/stsm121020.

1.7.5 NSFNET, Windows and Amiga

NSFNET began in 1985 as a National Science Foundation initiative to connect supercomputer centres and regional academic networks using TCP/IP. It went online in 1986 with a 56 kbit/s backbone.

Microsoft released Windows 1.0 in 1985, marking an early commercial step toward graphical user interfaces on IBM-compatible personal computers.⁷⁷ Had Epson launched it’s Taxi GUI Epson could probably have won over Windows, a far paler, clunkier, GUI compared to what Taxi could do.

⁷⁷ Wikipedia contributors, “Windows 1.0,” in Wikipedia, April 27, 2026, https://en.wikipedia.org/w/index.php?title=Windows_1.0&oldid=1351413952.

Commodore introduced the Amiga 1000 in 1985, adding advanced multimedia capabilities through custom graphics and audio chips that made it influential in home computing, video and games.

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1.8 1988–1990: World Wide Web arrives

1.8.1 Internet foundations and the World Wide Web

ARPANET was formally decommissioned in 1990, but the TCP/IP Internet continued through academic and research networks such as NSFNET.⁷⁸

⁷⁸ Tim Berners-Lee, “W3.org/People/Berners-Lee/1991/08/Art-6484.txt,” accessed May 6, 2026, https://www.w3.org/People/Berners-Lee/1991/08/art-6484.txt.

⁷⁹ Wikipedia contributors, “Tim Berners-Lee,” in Wikipedia, May 4, 2026, https://en.wikipedia.org/w/index.php?title=Tim_Berners-Lee&oldid=1352415642.

⁸⁰ Wikipedia contributors, “Robert Cailliau,” in Wikipedia, February 5, 2026, https://en.wikipedia.org/w/index.php?title=Robert_Cailliau&oldid=1336715193.

Tim Berners-Lee, a British scientist at CERN, invented the World Wide Web in 1989 to solve information-sharing problems among researchers in universities and institutes around the world. Berners-Lee⁷⁹ and Robert Cailliau⁸⁰ formalised the Web proposal in 1990; the proposal described a hypertext project called “WorldWideWeb,” in which hypertext documents could be viewed by browsers. By Christmas 1990, Berners-Lee had defined the Web’s basic concepts, including HTML, HTTP and URLs, and had written the first browser/editor and server software at CERN.

The Web was therefore a European invention built on top of the existing Internet, not a replacement for it.⁸¹

⁸¹ CERN, “The Birth of the World Wide Web | Timeline.web.cern.ch,” accessed May 6, 2026, https://timeline.web.cern.ch/timeline-header/90.

1.8.2 CERN and the European Web

CERN, although located in Switzerland, is a European research institution and became the birthplace of the World Wide Web.⁸² The UK contribution was especially strong, Berners-Lee being British.

⁸² CERN, “The Birth of the Web – Home | CERN,” accessed May 6, 2026, https://home.cern/fr/science/computing/birth-web/.

⁸³ “A Short History of the Web – Home | CERN,” accessed May 6, 2026, https://home.cern/science/computing/the-birth-of-the-web/short-history-web/.

European research networks and CERN’s multinational computing environment created the practical need for a universal information system that could allow automated information-sharing between scientists across institutions.⁸³

1.8.3 Middle East and Asian Internet growth

Middle Eastern Internet connectivity was still very limited and mostly pre-commercial during this period.⁸⁴ Early regional Internet connections developed mainly around academic, research, government, and specialist institutional networks.⁸⁵

⁸⁴ “The Internet in the Arab World: Digital Divides and Cultural Connections,” accessed May 6, 2026, https://www.mafhoum.com/press8/internet.htm.

⁸⁵ “The Internet Registry System,” RIPE Network Coordination Center, accessed May 6, 2026, https://www.ripe.net/community/internet-governance/internet-technical-community/the-rir-system/.

⁸⁶ “WIDE - WIDE Project -,” accessed May 6, 2026, https://www.wide.ad.jp/About/index_e.html.

Asian research networking expanded, especially in Japan and South Korea. In Japan, the WIDE Project became a major vehicle for Internet research and deployment.⁸⁶ Japan’s WIDE Project developed from university UNIX networking research, became the WIDE Project in 1988, and worked with academic, industry, and government partners on Internet technology, standards, and distributed networking.

WIDE’s early history included Japanese university networking links, international connections, and cooperation with US networks by 1989.

1.8.4 Business computing before the Web

Businesses used PCs, LANs, databases, email systems,⁸⁷ and proprietary or semi-proprietary online services before the Web became commercially important.⁸⁸ The Web had not yet entered mainstream business culture in 1988–1990 because at that point it was still being proposed and implemented at CERN, with wider public release following in 1991.

⁸⁷ “About CompuServe",” accessed May 6, 2026, https://www.compuserve.com/home/about.jsp.

⁸⁸ Wikipedia contributors, “CompuServe,” in Wikipedia, April 27, 2026, https://en.wikipedia.org/w/index.php?title=CompuServe&oldid=1351416480.

Although I had been using email since about 1980, online information still meant services such as Minitel, Prestel-like videotex systems, CompuServe, academic networks, or private corporate networks rather than the public Web.

1.8.5 NSFNET, NeXT and Internet security

NSFNET became the de facto US Internet backbone, connecting around 2,000 computers in 1986 and expanding to more than 2 million by 1993.

Using Hypertext, developed in Kent, England,⁸⁹ Owl Systems under Ian Ritchie sold the Guide product a few years before the Worldwide Web employed it. The first website and first web server were hosted at CERN on Tim Berners-Lee’s NeXT computer, making the NeXT workstation part of the Web’s earliest technical history.

⁸⁹ Wikipedia contributors, “Guide (Hypertext),” in Wikipedia, September 24, 2025, https://en.wikipedia.org/w/index.php?title=Guide_(hypertext)&oldid=1313157580.

⁹⁰ “The Morris Worm,” Story, Federal Bureau of Investigation, accessed May 6, 2026, https://www.fbi.gov/news/stories/morris-worm-30-years-since-first-major-attack-on-internet-110218.

⁹¹ “Fostering Growth in Professional Cyber Incident Management | CMU Software Engineering Institute,” accessed May 6, 2026, https://www.sei.cmu.edu/history-of-innovation/fostering-growth-in-professional-cyber-incident-management/.

The 1988 Morris worm⁹⁰ exposed the vulnerability of networked computing and helped trigger the creation of CERT/CC at Carnegie Mellon’s Software Engineering Institute.⁹¹

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1.9 1991–1993: Worldwide Web and early Internet growth

1.9.1 Worldwide Web launch

Worldwide Web became publicly available in 1991, after Tim Berners-Lee’s early CERN work moved from an internal prototype toward wider release for the high-energy physics community.

Early browsers and web servers spread through universities and research laboratories in Europe then the US in 1991. Mosaic, released by NCSA in 1993, made the Web more accessible by combining text and images in a graphical browser.⁹²

⁹² “NCSA Mosaic™ | NCSA | National Center for Supercomputing Applications | Office of the Vice Chancellor of Research and Innovation | Illinois,” accessed May 7, 2026, https://www.ncsa.illinois.edu/research/project-highlights/ncsa-mosaic/.

Internet had to some extent by 1991 already moved from a specialist academic/research infrastructure toward a wider public information medium. I was using email from home about 1980 and for business with both Epson and NEC in the mid-1980s. Helped by the Web’s release, Mosaic’s usability, and CERN’s decision to put Web software into the public domain, Internet traffic rapidly increased by the end of 1993 as the result of Web traffic.

1.9.2 CERN and the European Web

CERN’s role was decisive, the Web being invented there to connect distributed research information across laboratories and institutions. An early academic description was published by Berners-Lee, Cailliau, and Groff in Computer Networks and ISDN Systems in 1992.⁹³ Then European internet coordination matured. RIPE began in 1989, and RIPE NCC was founded in 1992 to support Internet resource coordination for Europe, Central Asia, and the Middle East.

⁹³ T. J. Berners-Lee, R. Cailliau, and J. F. Groff, “The World-Wide Web,” Computer Networks and ISDN Systems 25, nos. 4–5 (November 1992): 454–59, https://doi.org/10.1016/0169-7552(92)90039-S.

⁹⁴ “Janet Network,” Jisc, accessed May 7, 2026, https://beta.jisc.ac.uk/janet.

⁹⁵ Peter Houlder, Starting The Commercial Internet in the UK, n.d.

UK academic networking strength emerged with JANET, the UK’s national research and education network. JANET’s IP service began as a pilot project in 1991.⁹⁴ Increasing commercial Internet activity during 1991–1993 set UK’s explosion into Web adoption, including early IP peering between EUnet, JANET, and UKnet.⁹⁵

1.9.3 Middle East Internet links

Early Internet links appeared in parts of the Middle East in the early 1990s. Development was uneven and often centred on universities, telecoms, state institutions, and business users.

Egypt, Turkey, and the UAE established Internet links in 1993. Jordan followed in 1994.⁹⁶ Thanks to close ties, the “little USA” state of Israel had early commercial and institutional Internet connections in 1992–1993.

⁹⁶ RIPE Network Coordination Center, “The Internet Registry System.”

1.9.4 Asia-Pacific Internet growth

APNIC began as a regional Internet registry project in 1993, helping coordinate IP address resources for the Asia-Pacific region.⁹⁷ South Korea, Japan, Singapore, Taiwan, and Hong Kong became increasingly important in Asian network development, with Asia-Pacific coordination becoming formalised through APNIC and related regional networking activity.

⁹⁷ “The First 20 Years – APNIC,” accessed May 7, 2026, https://www.apnic.net/about-apnic/organization/history-of-apnic/first-20-years/.

1.9.5 Business Internet adoption

Businesses began experimenting with email, FTP, Gopher, and early websites. RFC 1436 formally documented Gopher as a distributed document search and retrieval protocol in in March 1993.⁹⁸

⁹⁸ Bob Alberti et al., The Internet Gopher Protocol (a Distributed Document Search and Retrieval Protocol), Request for Comments RFC 1436 (Internet Engineering Task Force, 1993), https://doi.org/10.17487/RFC1436.

During this time, individual users mostly accessed the Internet through universities, workplaces, or specialist ISPs, before mass household access became common later in the 1990s.

1.9.6 WWW given to the public: then Mosaic browser and commercial Internet

CERN’s 30 April 1993 public-domain release helped make the Web freely reusable, allowing universities, companies and individuals to build browsers, servers and websites without licensing the original CERN software.⁹⁹

⁹⁹ “30 Years of a Free and Open Web – Home | CERN,” April 30, 2023, https://home.cern/30-years-free-and-open-web/.

“The release of the World Wide Web was launched by an internal document, addressed “to whom it may concern” and signed by Hoogland and Weber. Back In 1993, copyright licensing standards were in the very first stages of development. In this first release, the document states that “CERN relinquishes all intellectual property rights to this code, both source and binary form, and permission is granted for anyone to use, duplicate, modify and redistribute it.”

This meant that CERN still retained the copyright, but anybody who wished to could use and modify the Web freely. W3C was formed to protect that position, and keep the hands of aggressive governments from manipulating the rest of the world. It also protected those who benefit from accessibility standards.¹⁰⁰

¹⁰⁰ Wikipedia contributors, “World Wide Web Consortium,” in Wikipedia, May 6, 2026, https://en.wikipedia.org/w/index.php?title=World_Wide_Web_Consortium&oldid=1352760748.

NSFNET traffic expanded rapidly in the early 1990. NSF describes the network as the first national 45-megabits-per-second Internet network by September 1991.

Mosaic’s 1993 graphical interface was pivotal in turning WWW from a research tool into a medium that non-specialists could browse, publish to, and understand visually.

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1.10 1994–1996: Web commercialisation and Internet growth

1.10.1 Web growth and W3C standards

The Web commercialised rapidly. By the end of 1994 there were about 10,000 web servers, around 2,000 of them commercial, and roughly 10 million users. To provide it a core, a centre of excellence, the W3C was founded in October 1994 by Tim Berners-Lee, the objective being to coordinate Web standards and preserve a consistent Web architecture as browsers, websites, and devices developed rapidly.¹⁰¹

¹⁰¹ “W3C History,” W3C, accessed May 7, 2026, https://www.w3.org/about/history/.

¹⁰² Wi, “Netscape Navigator,” in Wikipedia, April 26, 2026, https://en.wikipedia.org/w/index.php?title=Netscape_Navigator&oldid=1351115898.

Netscape, web hosting, search engines, web directories, and early e-commerce accelerated public adoption. By 1995 Netscape Navigator had around 10 million global users, and the number of websites had grown from about 130 in 1993 to more than 100,000 by early 1996.¹⁰²

Search engines and directories became important access tools during this period, including Lycos in 1994, Infoseek in 1994, Yahoo’s directory in 1994, and AltaVista in 1995.

Dial-up became the main route for household and small-business Internet access. For UK, Pipex had offered dial-up access from March 1992, and Demon helped popularise modem-based access.

The Web began to overtake older proprietary online services because it was open, browser-based, globally addressable, and increasingly supported by commercial ISPs, search tools, and hosting companies.

1.10.2 UK and European Internet access

UK ISPs, universities, and technology firms helped move the Internet from academic to commercial use. Aacademic networks such as JANET, commercial ISPs such as Pipex, and early private/business networks in were up and running by the mid-1990s.¹⁰³ The BBC’s early Internet history also shows the transition from academic naming and JANET-linked infrastructure toward commercial leased-line access through providers such as Pipex.¹⁰⁴

¹⁰³ “ISPA-25th-Anniversary-Report,” accessed May 7, 2026, https://www.ispa.org.uk/wp-content/uploads/ISPA-25th-Anniversary-Report.pdf.

¹⁰⁴ “BBC Internet Services - History,” accessed May 7, 2026, https://support.bbc.co.uk/support/history.html.

Europe faced a more fragmented Internet market than the US because of national telecommunications structures, differing regulatory regimes, and uneven liberalisation across countries.

Minitel remained important in France, showing that Europe had built large-scale online services before the Web, though Minitel was a national videotex system rather than an open Internet/Web architecture.¹⁰⁵

¹⁰⁵ “Minitel: The Online World France Built Before the Web - IEEE Spectrum,” accessed May 7, 2026, https://spectrum.ieee.org/minitel-the-online-world-france-built-before-the-web.

1.10.3 Middle East Internet adoption

In the Middle East, Internet adoption widened through universities, telecom operators, banks, airlines, government agencies, and large commercial users, rather than through mass household adoption. Public availability varied significantly by country because of regulation, telecom monopolies, censorship concerns, pricing, infrastructure limits, and state control over telecommunications.

The Middle East’s connection to global Internet governance also developed through regional address-management structures, with RIPE NCC serving Europe, Central Asia, and the Middle East.

1.10.4 Asian Internet growth

Japan’s WIDE Project records major 1994–1996 milestones including Networld+Interop Tokyo, NSPIXP-1, higher-speed international links, AI3, and early IPv6 experimentation.¹⁰⁶

¹⁰⁶ “WIDE - History -,” accessed May 7, 2026, https://www.wide.ad.jp/About/history_e.html.

China made its first full-function international Internet connection in 1994 through a 64K international line from the Computer Network Information Center via Sprint, becoming the 77th country with full-function Internet capability.

South Korea, Singapore, Hong Kong, and Taiwan started building foundations for later broadband and Internet leadership. APNIC’s founding members included organisations from Japan, Hong Kong, Taiwan, Korea, Singapore, China, India, and other Asia-Pacific economies.¹⁰⁷

¹⁰⁷ “APNIC’s Founding Members | APNIC,” accessed May 7, 2026, https://www.apnic.net/about-apnic/organization/history-of-apnic/apnic-founding-members/.

¹⁰⁸ Broadband Korea: Internet Case Study, n.d.

South Korea’s later broadband leadership built on 1990s telecom and information-infrastructure policy, with the ITU later identifying Korea as a leading broadband case study.¹⁰⁸

APNIC’s role became increasingly important as Asian Internet growth accelerated, because global Internet address allocation needed regional coordination rather than a single central registry.¹⁰⁹

¹⁰⁹ “History of the Internet | APNIC,” accessed May 7, 2026, https://www.apnic.net/about-apnic/organization/history-of-apnic/history-of-the-internet/.

1.10.5 Business websites and e-commerce

Businesses moved from “computerisation” to “web presence” as the Web became commercially visible, with thousands of commercial web servers already online by the end of 1994.

Early websites were often brochure-like, but e-commerce, online publishing, web advertising, and searchable directories began to emerge as commercial uses of the Web.

Individual use centred on email, web browsing, chat, FTP, newsgroups, and downloadable software. England’s Science Museum notes that by the mid-1990s people were using the Internet to send messages, read news, swap files, and browse the rapidly expanding Web.

1.10.6 Web server counts by region

By the end of 1994, the best verified global figure was more than 10,000 web servers. However, and strangely, there appears no reliable primary regional split for the USA, Europe, China, Asia-Pacific or the Middle East.¹¹⁰

¹¹⁰ Thomas Haigh, “The Web’s Missing Links: Search Engines and Portals,” in The Internet and American Business, ed. William Aspray and Paul E. Ceruzzi (The MIT Press, 2008), 159–200, https://doi.org/10.7551/mitpress/7495.003.0009.

¹¹¹ Gregory C. Staple, Global Telecommunications Traffic Statistics & Commentary, n.d.

In June 1995, TeleGeography published top-domain web-server counts rather than a complete regional census. US and mostly US-associated domains listed in that source — com, edu, net, gov, mil, org and us — totalled about 12,368 web servers. Listed European national domains — de, uk, nl, fr, fi, se, no, ch, it, at, es and dk — totalled about 4,316. Canada had 786. Listed Asia-Pacific domains — au, jp, nz and kr — totalled about 1,132. South Africa had 86. China and Middle East domains were not shown in that top-domain table.¹¹¹

By December 1996, Netcraft’s survey implied roughly 603,000 surveyed sites, because Apache had 247,419 sites and 41 percent of the survey.

The reason RIPE, APNIC, InterNIC and Network Wizards figures cannot simply answer normalised statistics for Web adoption during this period is that they generally counted hosts, domains or address resources, not web servers. The ISC Domain Survey¹¹² attempted to discover hosts through DNS records, while OECD noted that gTLD hosts were commonly recorded under the US and that host data were a lower-bound measure of the public Internet, not a census of Web servers.¹¹³

¹¹² Internet Systems Consortium, “Internet Domain Survey,” August 27, 2019, https://www.isc.org/survey/.

¹¹³ Internet Domain Names: Allocation Policies, OECD Digital Economy Papers no. 30, vol. 30, OECD Digital Economy Papers (1997), https://doi.org/10.1787/237020717074.

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1.11 1997–1999: Wordwide Web explosion in Europe and far east

1.11.1 Digital technology and standards

Perhaps surprisingly after so many years since IEEE began, the original IEEE 802.11 became the basis for wireless LAN standardisation.¹¹⁴ IEEE 802.11b-1999 extended that for higher speed so helping make Wi-Fi commercially useful.¹¹⁵

¹¹⁴ “802 11,” accessed May 14, 2026, https://calendar.google.com/calendar/newembed.

¹¹⁵ “IEEE Standards Association,” IEEE Standards Association, accessed May 14, 2026, https://standards.ieee.org/ieee/802.11b/1166/.

¹¹⁶ The Development of Broadband Access in the OECD Countries, OECD Digital Economy Papers no. 56, vol. 56, OECD Digital Economy Papers (2001), https://doi.org/10.1787/233822327671.

Broadband began to appear. Statistics display broadband subscribers at only 3.1 million across OECD countries at the end of 1999, then rapid growth in the early 2000s.¹¹⁶

With search engines, webmail, portals, instant messaging, and e-commerce expanding rapidly, although still only having grown from seedling to early shoots by the late 1990s, the Internet became a worldwide medium for information distribution and interaction.¹¹⁷

¹¹⁷ Barry M. Leiner et al., Brief History of the Internet, n.d.

1.11.2 Asia Internet

Japan, South Korea, Taiwan, Singapore, and Hong Kong became increasingly important in networking, semiconductors, consumer electronics, and broadband planning.

South Korea began moving toward world-leading broadband penetration.¹¹⁸

¹¹⁸ Choongok Lee and Sylvia M. Chan-Olmsted, “Competitive Advantage of Broadband Internet: A Comparative Study Between South Korea and the United States,” Telecommunications Policy 28, no. 9 (October 2004): 649–77, https://doi.org/10.1016/j.telpol.2004.04.002.

¹¹⁹ “About TSMC - Taiwan Semiconductor Manufacturing Company Limited,” accessed May 14, 2026, https://www.tsmc.com/english/aboutTSMC.

Taiwan’s semiconductor foundry model became increasingly important to the global digital economy.¹¹⁹

Japan remained strong in consumer electronics, mobile Internet experiments, displays, storage, and components. OECD’s 1998 Internet traffic report observed that a global root name server was moved to Keio University in Japan in August 1997, showing Japan’s role in Internet infrastructure as well as hardware.¹²⁰

¹²⁰ Internet Traffic Exchange: Developments and Policy, OECD Digital Economy Papers no. 34, vol. 34, OECD Digital Economy Papers (1998), https://doi.org/10.1787/236767263531.

1.11.3 UK, Europe, Middle East

Rapid UK ISP growth continued. Freeserve launched in 1998.

Europe expanded Internet exchange points, academic networks, and commercial ISP interconnection. OECD’s 1998 Internet traffic report identifies LINX London-based Internet exchange point, and AMS-IX Amsterdam exchange point, both regional Internet hubs.¹²¹

¹²¹ “AMS-IX_Annual-Report_2019,” accessed May 14, 2026, https://www.ams-ix.net/annual_report/2019/docs/AMS-IX_Annual-Report_2019.pdf.

¹²² “Middle East & North Africa Internet Infrastructure Report,” Internet Society, accessed May 14, 2026, https://www.internetsociety.org/resources/doc/2020/middle-east-north-africa-internet-infrastructure-report/.

Middle Eastern Internet adoption continued but remained uneven due to policy, infrastructure, skills, governance, and regulatory conditions. Lagging behind other regions, the Internet Society’s MENA report identifies infrastructure, skills/entrepreneurship, and supportive governance as core conditions for wider access.¹²²

1.11.4 Business

Dot-com business culture accelerated as Internet access, web publishing, online advertising, and e-commerce became commercially attractive.

Websites became expected for technology firms, publishers, retailers, banks, and public bodies as the Web became a standard public-facing information and service channel. I contributed to sites, including for Bonjela and the UK National Lottery.

Individual use expanded into email, search, chat, online shopping, and early online communities, while access was still constrained by dial-up pricing, modem speeds, household PC ownership, and uneven broadband availability.

In my experience, this was a most profound time for geeks and computer professionals alike as Internet accelerated, search engines evolved, and significant tooling problems emerged. It was a world of a tiny percentage of those with self-endeavour who understood, and the rest being apathetic and locked into the past.

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1.12 2000–2002: Wordwide Web explosion accelerates

1.12.1 Digital technology

This period began with the Millennium Bug. It was expected to crash computers causing massive amounts of lost revenue and disruption to computers and networks alike. A date calculation error occurring at midnight on a millennium year, it was a consideration not previously factored into programming.¹²³ We should be ready for the year 3000!

¹²³ Wikipedia contributors, “Year 2000 Problem,” in Wikipedia, May 11, 2026, https://en.wikipedia.org/w/index.php?title=Year_2000_problem&oldid=1353645553.

¹²⁴ “S-CONF-AREP-2000-PDF-E,” accessed May 14, 2026, https://www.itu.int/dms_pub/itu-s/opb/conf/S-CONF-AREP-2000-PDF-E.pdf.

The recent dot-com crash ended speculative excess, but it did not stop Internet growth. There were around 350 million users worldwide by the end of 2000.¹²⁴

Broadband, Wi-Fi, server-side web applications, and database-backed websites became more important, especially to small and medium business. OECD reported that high-speed Internet subscriptions in OECD countries rose from 3.1 million at the end of 1999 to 14 million at the end of 2000, and to just under 22 million by June 2001.

As user number increased, web infrastructure became more professional too. Hosting, data centres, content management, security, online payments, and e-commerce systems moved from experimental dot-com projects toward operational business infrastructure.¹²⁵

¹²⁵ OECD, Information Technology Outlook 2002: ICTs and the Information Economy, Information Technology Outlook (OECD, 2002), https://doi.org/10.1787/it_outlook-2002-en.

1.12.2 Asia

Data showed Korea far ahead of most OECD countries in broadband penetration by 2001, leadin the way in Asia.

Japan developed advanced mobile Internet services, especially through NTT DoCoMo’s i-mode, launched in 1999 as a mobile Internet-services platform. By the end of 2000, Japanese mobile Internet services had grown to almost 25 million subscribers.¹²⁶

¹²⁶ “History | NTT DOCOMO,” accessed May 14, 2026, https://www.docomo.ne.jp/english/corporate/about/outline/history/.

¹²⁷ “TSMC AR2000,” accessed May 14, 2026, https://investor.tsmc.com/sites/ir/annual-report/2000/TSMC%20AR2000.pdf.

Taiwan’s semiconductor manufacturing role grew, with TSMC describing itself in 2000 as focused on advanced foundry technology, online services, 300mm wafer capability, and process-technology advancement.¹²⁷

China’s Internet population began expanding rapidly from a low base. When I visited Beijing in November 2001 China had only eight national gateway points to the outside world but that did not stop a massive increase in use, especially for email by services like tom.com. CNNIC had been issuing statistical reports on Internet development in China since 1998, tracking the rapid growth of users, infrastructure, and online applications.¹²⁸

¹²⁸ “P020150720486421654597,” accessed May 14, 2026, https://www.cnnic.com.cn/IDR/ReportDownloads/201507/P020150720486421654597.pdf.

¹²⁹ “Software Exports up 29% in 2001-02,” The Times of India, May 2, 2002, https://timesofindia.indiatimes.com/business/india-business/software-exports-up-29-in-2001-02/articleshow/8671172.cms.

India’s software and IT-services industry became globally significant. NASSCOM reported software-export growth of 29% in 2001–02, with exports reaching Rs 36,500 crore.¹²⁹

1.12.3 UK, Europe, Middle East

UK businesses were rapidly adopting websites, email, online banking, and e-government services. UK government set a target that all public services capable of electronic delivery should be online for citizens and businesses by 2005, backed by major public funding from April 2001.¹³⁰

¹³⁰ “House of Commons - Public Accounts - Sixty-Sixth Report,” accessed May 14, 2026, https://publications.parliament.uk/pa/cm200102/cmselect/cmpubacc/936/93603.htm.

¹³¹ OECD, Measuring the Information Economy 2002 (OECD, 2002), https://doi.org/10.1787/9789264099012-en.

European firms moved cautiously after the dot-com crash but continued investing in digital infrastructure, broadband, e-commerce, and ICT diffusion. OECD’s 2002 information-economy work tracked Internet technologies in firms, e-commerce barriers, broadband quality, and ICT infrastructure across member countries.¹³¹

Middle Eastern Internet access expanded¹³² through telecom reform, institutional adoption, and university/business use, although access costs, regulation, content restrictions, and uneven infrastructure remained important limits in many Arab states.¹³³

¹³² “Arab-States-Internet-Issues,” accessed May 14, 2026, https://www.itu.int/ITU-D/ict/papers/egypt2000/Arab-States-Internet-Issues.pdf.

¹³³ ILO et al., eds., ICT infrastructure in the Arab region, Forum on Technology, Employment and Poverty Alleviation in the Arab Countries (2002 : Beirut) (Beirut: UN, 8 AD), https://digitallibrary.un.org/record/480719.

1.12.4 Business and user adoption

Businesses shifted from speculative websites to practical digital services, including e-commerce, online finance, customer service, internal web systems, and networked business operations.¹³⁴

¹³⁴ OECD Development Centre, Electronic Commerce for Development, ed. Andrea Goldstein and David O’Connor, Development Centre Studies (OECD, 2002), https://doi.org/10.1787/9789264099562-en.

¹³⁵ “Ecdr2002summary_en,” accessed May 14, 2026, https://unctad.org/system/files/official-document/ecdr2002summary_en.pdf.

Online retail, banking, travel booking, and customer service matured, though online retail was still a small share of total retail. OECD reported US e-commerce retail sales of USD 35.9 billion in 2001, while UNCTAD noted that online banking in developed countries already represented between 5% and 10% of total retail banking transactions.¹³⁵

Users adopted broadband where available, making richer media, faster downloads, more usable web applications, and always-on access possible.

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1.13 2003–2005: Cloud computing and threats

1.13.1 Digital technology

Web 2.0 emerged as a useful label for the shift toward blogs, wikis, APIs, user-generated content, tagging, social networking, software-as-a-service, and the Web as a programmable platform.¹³⁶

¹³⁶ Tim O’Reilly, “What Is Web 2.0: Design Patterns and Business Models for the Next Generation of Software,” SSRN Scholarly Paper no. 1008839, Rochester, NY, pre-published August 22, 2007, https://papers.ssrn.com/abstract=1008839.

¹³⁷ “Broadband Adoption At Home In The United States: Growing But Slowing,” accessed May 15, 2026, http://pew.org/2yKa1bB.

¹³⁸ Development of Voice over WiFi by Integrating Mobile Networks, OECD Digital Economy Papers no. 93, vol. 93, OECD Digital Economy Papers (2005), https://doi.org/10.1787/232404312851.

Broadband and Wi-Fi made Internet use more continuous and less session-based, with home high-speed connections growing¹³⁷ and wireless access becoming increasingly normal in homes, offices, campuses, and public spaces.¹³⁸

Cloud computing began to form around scalable data centres, distributed file systems, large-scale data processing, commodity server clusters, and web services. Google’s File System paper in 2003¹³⁹ and MapReduce paper in 2004¹⁴⁰ were especially important academic markers of this shift.

¹³⁹ “Gfs-Sosp2003,” accessed May 15, 2026, https://static.googleusercontent.com/media/research.google.com/en//archive/gfs-sosp2003.pdf.

¹⁴⁰ Jeffrey Dean and Sanjay Ghemawat, “MapReduce: Simplified Data Processing on Large Clusters,” Communications of the ACM 51, no. 1 (January 2008): 107–13, https://doi.org/10.1145/1327452.1327492.

¹⁴¹ “Document-01,” accessed May 15, 2026, https://nsarchive.gwu.edu/sites/default/files/documents/2917519/Document-01.pdf.

¹⁴² “Annualreport2005,” accessed May 15, 2026, https://www.apcert.org/documents/pdf/annualreport2005.pdf.

Security became a major concern as spam, worms, phishing, botnets, spyware, and identity theft.¹⁴¹ I observed it grow from nuisance problems into financially motivated threats.¹⁴² Much of this emerged from Russia, and particularly St Petersburg, at the time.

1.13.2 Asia

China’s Internet platforms began scaling.¹⁴³ Alibaba launched Taobao in 2003, Tencent expanded QQ-centred services and online gaming, and Baidu went public on NASDAQ in 2005¹⁴⁴ as a leading Chinese-language search provider. My wife worked with tom.com¹⁴⁵ at their Guangzhou technical centre,¹⁴⁶ and I was using TenCent’s QQ in 2001/2, now preferring the international WeChat that works so well abroad.

¹⁴³ “A Brief History of the Chinese Internet,” Logic(s) Magazine, accessed May 15, 2026, https://logicmag.io/china/a-brief-history-of-the-chinese-internet/.

¹⁴⁴ “Baidu.com, Inc. Announces Initial Public Offering | Baidu Inc,” accessed May 15, 2026, https://ir.baidu.com/news-releases/news-release-details/baiducom-inc-announces-initial-public-offering/.

¹⁴⁵ “TOM Group,” Wikipedia, November 21, 2025, https://en.wikipedia.org/w/index.php?title=TOM_Group&oldid=1323354559.

¹⁴⁶ Reminder, I’m a Westminster born Brit!

¹⁴⁷ OECD, The Development of Broadband Access in OECD Countries (OECD, 2002), https://doi.org/10.1787/9789264034754-en.

¹⁴⁸ OECD, “OECD Information Technology Outlook 2006,” Information Technology Outlook 2006 (October 2006), https://doi.org/10.1787/it_outlook-2006-en.

South Korea and Japan led in broadband, gaming, mobile services, and digital media, with OECD data¹⁴⁷ identifying Korea and Japan as major advanced broadband markets during this period.¹⁴⁸

India strengthened its role in software outsourcing, systems integration, and global IT services, with academic work from 2005 identifying the Indian software industry’s growth around outsourced service capability and export-led development.¹⁴⁹ However, India was already gaining a reputation for lack of quality when developing software outsourced from international customers.

¹⁴⁹ Suma S. Athreye, “The Indian Software Industry and Its Evolving Service Capability,” Industrial and Corporate Change 14, no. 3 (June 2005): 393–418, https://doi.org/10.1093/icc/dth056.

¹⁵⁰ Clair Brown and Greg Linden, “Offshoring in the Semiconductor Industry: A Historical Perspective,” Brookings Trade Forum 2005, no. 1 (2005): 279–322, https://doi.org/10.1353/btf.2006.0009.

¹⁵¹ “2005_Business_Overview_E,” accessed May 15, 2026, https://investor.tsmc.com/sites/ir/annual-report/2005/2005_Business_Overview_E.pdf.

Taiwan and South Korea were increasingly central¹⁵⁰ to semiconductors, displays, memory, and device supply chains, with Taiwan’s foundry model and firms such as TSMC becoming strategically important,¹⁵¹ while Samsung Electronics emphasised semiconductors and LCD displays as core businesses.

1.13.3 User adoption

Digital business shifted toward platforms, advertising, analytics, APIs, software-as-a-service, and network effects. O’Reilly’s Web 2.0 model described this as the “network as platform” and stressed user participation, data, remixing, and network effects.

Online communities, blogs, wikis, tagging systems, and early social media made users active publishers rather than passive readers, turning participation itself into part of the Web’s technical and business architecture.

Enterprises used intranets, VPNs, web applications, CRM systems, outsourced IT, and globalised ICT services, reflecting the broader shift toward ICT-enabled international sourcing and digitally restructured business processes.

All this rampant digital technology adoption was about to change in possibly the biggest US (again) marketing grab since Coca Cola invented Santa Claus.

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1.14 2006–2008: Internet domination by US marketing

1.14.1 Digital technology

Probably the biggest marketing confidence trick of the new millennium was the launch of an all-in-one mobile phone, internet communicator and tabular computer during January 2007. Coca Cola had leveraged Santa Claus to associate a jolly Christmas feeling of well-being with their brand colours red-and-white to sell caffeine-with-sugar based fizzy juice. Now Apple associated widely available technology with design and the I-have-better-than-you mentality of those who want to represent, often falsely, they have high financial worth. This was the time US marketing hype changed otherwise pragmatic user technology choice. Of course, the self-branded fools who bought in paid a significantly higher price for technology available from other sources. That doesn’t make Apple products “bad”: the company specialises in bringing many common products into one place and designing to make them look and feel easy to use.

The iPhone launched in 2007, combining a mobile phone, widescreen iPod, Internet communicator, touch-screen interface, WiFi, Bluetooth and mobile data in one device. Did it truly redefine the Internet as mobile, touch-based and smartphone-centred or was that already generally available?[]¹⁵²

¹⁵² “Apple Reinvents the Phone with iPhone,” Apple Newsroom (United Kingdom), accessed May 15, 2026, https://www.apple.com/uk/newsroom/2007/01/09Apple-Reinvents-the-Phone-with-iPhone/.

¹⁵³ “iPhone 3G on Sale Tomorrow,” Apple Newsroom, accessed May 15, 2026, https://www.apple.com/newsroom/2008/07/10iPhone-3G-on-Sale-Tomorrow/.

The App Store followed in 2008 with more than 500 native applications available at launch, helping shift the Internet from mainly browser pages toward app-based services and mobile software platforms.¹⁵³

Cloud infrastructure, online video, social networks and smartphones converged during this period. Google acquired YouTube in 2006,¹⁵⁴ while Internet advertising and platform businesses expanded around measurable,¹⁵⁵ data-driven online audiences.¹⁵⁶

¹⁵⁴ Bobbie Johnson and Mark Sweney, “Google Buys YouTube for $1.65bn,” The Guardian: Media, October 9, 2006, https://www.theguardian.com/media/2006/oct/09/digitalmedia.googlethemedia.

¹⁵⁵ “IAB_PWC_2008_6m,” accessed May 15, 2026, https://www.iab.com/wp-content/uploads/2015/05/IAB_PWC_2008_6m.pdf.

¹⁵⁶ Click keyboard F9 to avoid pay-to-view

Wi-Fi became increasingly normal in homes, offices and public hotspots, supporting the move from fixed desktop Internet use toward portable laptops and smartphones.

The Internet became a platform for applications rather than only pages, with mobile apps, web services, streaming video, social networking and online advertising becoming part of the same commercial ecosystem.

1.14.2 Asia

Japan and South Korea had already developed advanced mobile cultures before smartphones became globally dominant. Japan’s i-mode, launched in 1999, was an important early mobile-Internet ecosystem and a precursor to later app-centred mobile services.¹⁵⁷

¹⁵⁷ “I-Mode Was Launched February 22, 1999 in Tokyo – Birth of Mobile Internet,” eurotechnology.com, February 21, 2015, https://www.eurotechnology.com/2015/02/22/i-mode-mobile-internet-docomo/.

¹⁵⁸ Silenced to Deliver: Mobile Phone Manufacturing in China and the Philippines, n.d.

¹⁵⁹ Wikipedia contributors, “Four Modernizations,” in Wikipedia, April 15, 2026, https://en.wikipedia.org/w/index.php?title=Four_Modernizations&oldid=1349029473.

China’s manufacturing capacity became central to global device production. By 2006–2007, China had become a major centre of electronics and mobile-phone manufacturing within Asia-Pacific production networks.¹⁵⁸ Deng Xiaoping’s 1977 “Four Modernizations” strategy moved persistently onwards, the last modernization to be implemented being science and technology. It is systematically the cause of China’s quantum leap in all sectors of digital technology across the world and the most successful long term strategy in modern history.¹⁵⁹

Taiwan’s semiconductor foundries and component firms became essential to the smartphone, laptop, communications and consumer-electronics supply chain. TSMC described itself in 2008 as the world’s largest pure-play semiconductor foundry, with chips used across computer, communications and consumer-electronics markets.¹⁶⁰

¹⁶⁰ “2008_Business_Overview_E,” accessed May 15, 2026, https://investor.tsmc.com/sites/ir/annual-report/2008/2008_Business_Overview_E.pdf.

India’s IT-services sector supported global enterprise digitisation. NASSCOM’s 2008 review reported strong IT-BPO growth and expected Indian software and services exports to cross $40 billion in FY2008.

1.14.3 Adoption

Businesses shifted toward online advertising, digital customer relationships, mobile services and data analytics. IAB/PwC reported that US Internet advertising revenues reached $11.5 billion in the first half of 2008, up 15.2% from the same period in 2007.

The 2008 financial crisis increased attention to risk management, data, automation and digital infrastructure in finance.¹⁶¹ Supervisory reviews after the crisis focused on funding, liquidity risk, risk-management practices and the need for better risk data and reporting systems.¹⁶²

¹⁶¹ Mr Mario Draghi, Risk Management Lessons from the Global Banking Crisis of 2008, 2008.

¹⁶² “D399,” accessed May 15, 2026, https://www.bis.org/bcbs/publ/d399.pdf.

Users moved from desktop-only Internet to mobile and app-based access, driven by smartphones, Wi-Fi, mobile broadband and app stores.

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1.15 2009–2011: Digital technology growth

1.15.1 Europe

4G began rolling out commercially, with TeliaSonera launching LTE services in Stockholm and Oslo in December 2009.¹⁶³

¹⁶³ “TeliaSonera First in the World with 4G Services,” accessed May 15, 2026, https://www.teliacompany.com/en/press-releases/teliasonera-first-in-world-with-4g-services-2009-12-14-06-30-00.

Cloud services became mainstream for storage, computing, collaboration, and hosting, as cloud computing was increasingly defined around internet-delivered applications, virtual data-centre infrastructure, and scalable on-demand services.

Social media became a major traffic source and communication layer, with social-network use growing rapidly among internet users by 2009–2010.¹⁶⁴

¹⁶⁴ No Author, “Social Media and Young Adults,” Pew Research Center, February 3, 2010, https://www.pewresearch.org/internet/2010/02/03/social-media-and-young-adults-3/.

¹⁶⁵ Jason Byrne, “The IANA IPv4 Free Pool Has Depleted,” February 3, 2011, https://www.arin.net/vault/blog/2011/02/03/iana-ipv4-free-pool-depletion/.

IPv6 became more urgent as IPv4 exhaustion approached. The central IANA IPv4 free pool was depleted in February 2011.¹⁶⁵

1.15.2 Asia

South Korea, Japan, Singapore, Hong Kong, and Taiwan remained highly advanced broadband and mobile markets. ITU’s 2011 ICT Development Index placed several East Asian economies among the world’s leading ICT performers.¹⁶⁶

¹⁶⁶ “Measuring the Information Society Report,” ITU, accessed May 15, 2026, https://www.itu.int:443/en/ITU-D/Statistics/Pages/publications/mis2011.aspx.

¹⁶⁷ “P020150720486421654597.”

Unsurprising, given it’s massive population, China’s Internet firms grew rapidly in search, commerce, gaming, messaging, and payments. CNNIC reported continued growth in instant messaging, search, online entertainment, e-commerce, mobile internet use, and online payments.¹⁶⁷

South-east Asian manufacturing dominated major parts of the smartphone, laptop, networking-equipment, display, memory, and component supply chains, with academic global-value-chain studies showing the importance of Japan, South Korea, Taiwan, and China in electronics and mobile-device production.¹⁶⁸

¹⁶⁸ Kenneth L. Kraemer, Greg Linden, and Jason Dedrick, Capturing Value in Global Networks: Apple’s iPad and iPhone, n.d.

¹⁶⁹ Changing Landscape and Emerging Trends Indian IT/ITeS Industry, n.d.

India expanded software, business-process outsourcing, and mobile services, with IT/ITeS and BPO exports continuing to grow strongly.¹⁶⁹

1.15.3 Adoption

Businesses adopted cloud platforms, mobile apps, social marketing, and analytics as cloud computing. Smartphones, social platforms, and mobile broadband became more commercially mature.¹⁷⁰

¹⁷⁰ “Ictfactsfigures2011,” accessed May 15, 2026, https://www.itu.int/ITU-D/ict/facts/2011/material/ictfactsfigures2011.pdf.

¹⁷¹ “Communications Market Report: UK,” accessed May 15, 2026, https://www.ofcom.org.uk/siteassets/resources/documents/research-and-data/cmr/cmr11/uk_cmr_2011_final.pdf?v=368187.

Users adopted smartphones as primary Internet devices, supported by rapid growth in mobile broadband and smartphone shipments.¹⁷¹

Digital payments, app stores, streaming, and social platforms reshaped Internet use. Apple’s App Store passed 10 billion downloads in January 2011, showing how quickly app-based software distribution had scaled.¹⁷²

¹⁷² “Apple’s App Store Downloads Top 10 Billion,” Apple Newsroom, accessed May 15, 2026, https://www.apple.com/newsroom/2011/01/22Apples-App-Store-Downloads-Top-10-Billion/.

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1.16 2012–2014: Digital economy consolidation

1.16.1 Worldwide

Mobile-first and responsive design became normal in major digital-service development, especially as public and private services were trying to adapt to smartphones and tablets in the usual public service way: with the speed of a depressed tortoise.¹⁷³

¹⁷³ Tom Loosemore-former Deputy Director and Government Digital Service, “We’re Not ‘Appy. Not ‘Appy at All. – Government Digital Service,” March 12, 2013, https://gds.blog.gov.uk/2013/03/12/were-not-appy-not-appy-at-all/.

¹⁷⁴ OECD, Measuring the Information Economy 2002.

¹⁷⁵ “01_Strategy Not Techno Drives Digital Transfo,” accessed May 15, 2026, https://zonecours2.hec.ca/sdata/c/attachment/6-700-15.A2016.J01/OpenSyllabus/01_Strategy%20not%20techno%20drives%20digital%20transfo.pdf.

Big data, cloud platforms, machine learning, scalable web infrastructure, mobile applications, and APIs¹⁷⁴ became central parts of the digital economy and enterprise technology strategy.¹⁷⁵

Fibre broadband, 4G/LTE, mobile broadband, and Wi-Fi improved performance expectations.¹⁷⁶ Increasing speed and reliability was essential to producing always-available digital services more realistic.¹⁷⁷

¹⁷⁶ “The State of Broadband 2014: Broadband for All,” ITU, accessed May 15, 2026, https://www.itu.int:443/en/publications/gs/Pages/publications.aspx.

¹⁷⁷ Akamai Technologies Inc, “Akamai Releases Fourth Quarter 2014 ’State of the Internet’ Report,” accessed May 15, 2026, https://www.prnewswire.com/news-releases/akamai-releases-fourth-quarter-2014-state-of-the-internet-report-300055315.html.

¹⁷⁸ OECD, “OECD Digital Economy Outlook 2015,” OECD Digital Economy Outlook 2015 (July 2015), https://doi.org/10.1787/9789264232440-en.

The Internet became infrastructure for transport, banking, entertainment, retail, education, government services, media, publishing, health, and public administration.¹⁷⁸

1.16.2 Asia

China’s platform economy accelerated¹⁷⁹ through Alibaba, Tencent, Baidu, JD, Internet finance, mobile commerce, and mobile payments.¹⁸⁰

¹⁷⁹ “Statistical Report on Internet Development in China,” accessed May 15, 2026, https://www.cnnic.com.cn/IDR/ReportDownloads/201411/P020141102574314897888.pdf.

¹⁸⁰ “China’s Digital Economy: Opportunities and Risks,” accessed May 15, 2026, https://www.imf.org/-/media/files/publications/wp/2019/wp1916.pdf.

South Korea remained a leader in broadband performance, high-broadband adoption, gaming, displays, memory chips, and mobile technology.

Japan contributed through robotics, sensors, gaming, mobile services, industrial automation, and advanced electronic components.¹⁸¹

¹⁸¹ “World Robotics Exec Summary 2014,” accessed May 15, 2026, https://www.diag.uniroma1.it/~deluca/rob1_en/2014_WorldRobotics_ExecSummary.pdf.

¹⁸² “TSMC Market/Business Summary | Company Profile | 2014 Annual Report - 2_2,” accessed May 15, 2026, https://investor.tsmc.com/static/annualReports/2014/english/e_2_2.html.

¹⁸³ Shyu, Betty, “Digitimes Research: South Korea Sees Worldwide Memory Market Share Reaching 57.1% in 4Q14,” DIGITIMES, March 4, 2015, https://www.digitimes.com/news/a20150304PD205.html.

Taiwan and South Korea were central to semiconductor fabrication, foundry services, memory, and displays. TSMC remained the leading global foundry in 2014,¹⁸² while Korean firms were especially strong in memory.¹⁸³

India’s mobile Internet expansion accelerated, with mobile Internet usage rising sharply between 2012 and 2014.¹⁸⁴

¹⁸⁴ “Internet in India 2014,” accessed May 15, 2026, https://www.iamai.in/sites/default/files/research/Internet%20in%20India%202014.pdf.

1.16.3 Business

Businesses increasingly spoke of “digital transformation,” especially around social, mobile, analytics, cloud, and digital business strategy.¹⁸⁵

¹⁸⁵ “The Digital Transformation of Business - SPONSOR CONTENT FROM MICROSOFT,” Harvard Business Review, September 1, 2014, https://hbr.org/sponsored/2014/09/the-digital-transformation-of-business.

Cloud migration, data platforms, cyber security, mobile applications, APIs, and customer-facing digital channels became strategic concerns for organisations as denial of service (DOS) and penetration attacks by extortionists increased.

Users increasingly expected constant connectivity, streaming, navigation, online banking, messaging, cloud storage, digital payments, and app-based services.

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1.17 2015–2017: AI and fast communications

1.17.1 Digital technology

AI,¹⁸⁶ deep learning, IoT, voice assistants, and smart devices became mainstream technology themes. Industry analysts identifying advanced machine learning, intelligent apps, intelligent things, and virtual personal assistants as major trends.¹⁸⁷

¹⁸⁶ “Ai-Index-2017-Annual-Report,” accessed May 15, 2026, https://hai.stanford.edu/assets/files/ai-index-2017-annual-report.pdf.

¹⁸⁷ “Gartner’s Top 10 Strategic Technology Trends for 2017 | APMdigest,” accessed May 15, 2026, https://www.apmdigest.com/gartners-top-10-strategic-technology-trends-for-2017.

¹⁸⁸ “5G System Overview,” accessed May 15, 2026, https://www.3gpp.org/technologies/5g-system-overview.

¹⁸⁹ “3GPP Release 15,” 3GPP, accessed May 15, 2026, https://www.3gpp.org/specifications-technologies/releases/release-15.

5G development accelerated,¹⁸⁸ with 3GPP Release 15¹⁸⁹ defining the first phase of 5G standards work and introducing 5G New Radio concepts.

Cybersecurity became a board-level issue. Corporate governance guidance increasingly treated cyber risk as a matter for directors and senior executives rather than only IT departments.¹⁹⁰

¹⁹⁰ “How Your Board Can Be Effective in Overseeing Cyber Risk,” accessed May 15, 2026, https://www.pwc.es/es/digital/soluciones-seguridad-negocio/assets/03_pwc-how-your-board-can-be-effective-in-overseeing-cyber-risk.pdf.

¹⁹¹ “CMA Online Platforms and Digital Advertising,” accessed May 16, 2026, https://assets.publishing.service.gov.uk/media/5efc57ed3a6f4023d242ed56/Final_report_1_July_2020_.pdf.

Platform companies became dominant gateways to information, commerce, media, and communication, particularly through search, social media, app stores, digital advertising, and e-commerce ecosystems.¹⁹¹

1.17.2 Asia

China became a global centre for mobile payments,¹⁹² super-app ecosystems, e-commerce, and AI deployment, with Alipay, WeChat Pay, and platform-based digital commerce becoming central to its consumer Internet economy.¹⁹³ As a result, services entered a willingness philosophy of public and economic cooperation. With Didi,¹⁹⁴ for example, a taxi could be hailed by smartphone, arrive within three minutes, and payment concluded automatically on arrival, a fast and friendly cooperation facility unavailable in most western countries.

¹⁹² “China: A Digital Payments Revolution | CGAP Research & Publications,” September 25, 2019, https://www.cgap.org/research/publication/china-digital-payments-revolution.

¹⁹³ “The Future of Digital Innovation in China,” accessed May 16, 2026, https://www.mckinsey.com/~/media/mckinsey/featured%20insights/china/the%20future%20of%20digital%20innovation%20in%20china%20megatrends%20shaping%20one%20of%20the%20worlds%20fastest%20evolving%20digital%20ecosystems/future-of-digital-innovation-in-china.pdf.

¹⁹⁴ Wikipedia contributors, “DiDi,” in Wikipedia, May 7, 2026, https://en.wikipedia.org/w/index.php?title=DiDi&oldid=1352951716.

¹⁹⁵ “UKRI Semiconductors in Republic of Korea,” accessed May 16, 2026, https://iuk-business-connect.org.uk/wp-content/uploads/2024/06/Semiconductors-in-RoK-PUBLIC-FINAL-140624-single-pages.pdf.

South Korea and Taiwan remained critical to memory chips, semiconductor fabrication, displays, and device manufacturing. South Korea became especially strong in DRAM and NAND memory¹⁹⁵ and Taiwan central to contract semiconductor manufacturing.

Japan continued to contribute strongly in robotics,¹⁹⁶ industrial automation, electronic components, sensors, gaming-related hardware, and precision manufacturing.¹⁹⁷

¹⁹⁶ “World Robotics 2017 Industrial Robots,” accessed May 16, 2026, https://ifr.org/downloads/press/Executive_Summary_WR_2017_Industrial_Robots.pdf.

¹⁹⁷ “JEITA 2017,” accessed May 16, 2026, https://www.jeita.or.jp/japanese/topics/2016/1222/Jpfget_en.pdf.

¹⁹⁸ Giulio Cornelli et al., The Organisation of Digital Payments in India - Lessons from the Unified Payments Interface (UPI), n.d.

¹⁹⁹ Matt Flannery a16z, “Why India Leads in Digital Payments,” Andreessen Horowitz, September 21, 2023, https://a16z.com/global-payments-india/.

India’s digital identity and mobile-payment¹⁹⁸ infrastructure became globally significant, especially through Aadhaar and the Unified Payments Interface, launched in 2016.¹⁹⁹

Singapore became important in smart-city systems, fintech, digital government, and regional data-centre infrastructure through its Smart Nation strategy and financial-technology policy initiatives.²⁰⁰

²⁰⁰ “Singapore FinTech Journey 2.0 - Remarks by Mr Ravi Menon, Managing Director, Monetary Authority of Singapore, at Singapore FinTech Festival on 14 November 2017,” accessed May 16, 2026, https://www.mas.gov.sg/news/speeches/2017/singapore-fintech-journey-2.

1.17.3 Adoption

Businesses used cloud, mobile apps, analytics, automation, and platform distribution as part of broader digital-transformation strategies.

Individuals increasingly used phones as the primary Internet device, with mobile and tablet Internet usage surpassing desktop worldwide in 2016.²⁰¹

²⁰¹ “Mobile and Tablet Internet Usage Exceeds Desktop for First Time Worldwide,” StatCounter Global Stats, accessed May 16, 2026, https://gs.statcounter.com/press/mobile-and-tablet-internet-usage-exceeds-desktop-for-first-time-worldwide.

²⁰² “ICT 2017,” accessed May 16, 2026, https://www.itu.int/en/itu-d/statistics/documents/facts/ictfactsfigures2017.pdf.

²⁰³ Cornelli et al., The Organisation of Digital Payments in India - Lessons from the Unified Payments Interface (UPI).

Digital identity, payments, logistics, and app ecosystems became embedded in daily life²⁰² through smartphones, mobile wallets, platform services, and cloud-connected applications.²⁰³

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1.18 2018–2020: SARS-CoV-2 (Covid)

1.18.1 Digital technology

GDPR reshaped data-protection practices in Europe and the UK after the final part, the quasi-criminal aspect, became applicable across the EU on 25 May 2018.²⁰⁴ It has to be remembered that this powerful pan-European data protection law emerged from the Court case brought by Max Schrems against the Irish Information Commissioner, in turn resulting from USA data manipulation and theft, this time by Facebook (now Meta). Another important case is that of DiDi, when China fined about US$1.2 billion for placing Chinese citizen data at risk.²⁰⁵

²⁰⁴ “Legal Framework of EU Data Protection - European Commission,” accessed May 16, 2026, https://commission.europa.eu/law/law-topic/data-protection/legal-framework-eu-data-protection_en.

²⁰⁵ Wikipedia contributors, “DiDi.”

²⁰⁶ “The 5G Era: How 5G Is Changing the World,” Networks, accessed May 16, 2026, https://www.gsma.com/solutions-and-impact/technologies/networks/the-5g-era-how-5g-is-changing-the-world/.

5G networks launched commercially in some markets during 2019, including early launches in South Korea, China, and the United States.²⁰⁶

The COVID-19 pandemic²⁰⁷ made video conferencing, remote work, cloud collaboration, streaming, online retail, and digital public services essential in society and public offices, including courts. OECD analysis notes that many businesses turned to video conferencing, cloud services, and VPNs to continue operating during the pandemic.²⁰⁸

²⁰⁷ In my own case, having provided my daughter’s Edinburgh school with the product of detailed digital analysis of worldwide SARS-CoV-2 data, and then advised clearly based on evidence that they should lock down, the school ignored advice. My daughter’s teacher brought Covid into school in the knowledge he was unwell, passed it to my disabled daughter, and she passed it to the family. My daughter was nearly without a father. After hospital, I continue to suffer the effects of Long Covid, albeit at about 5% of the severity suffered in the first year. This is what future technology can prevent: low integrity public servants.

²⁰⁸ Measuring Telework in the COVID-19 Pandemic, OECD Digital Economy Papers no. 314, vol. 314, OECD Digital Economy Papers (2021), https://doi.org/10.1787/0a76109f-en.

²⁰⁹ “Internet Access – Households and Individuals, Great Britain - Office for National Statistics,” accessed May 16, 2026, https://www.ons.gov.uk/peoplepopulationandcommunity/householdcharacteristics/homeinternetandsocialmediausage/bulletins/internetaccesshouseholdsandindividuals/2020.

By 2020, 96% of households in Great Britain had Internet access.²⁰⁹

1.18.2 Asia

Significantly advanced as compare to western nations, South East Asian countries used advanced mobile infrastructure, digital contact-tracing systems, tele-health, monitoring tools, and digital public-health platforms during the pandemic.²¹⁰

²¹⁰ Bohee Lee, Siti Aishah Ibrahim, and Tiying Zhang, “Mobile Apps Leveraged in the COVID-19 Pandemic in East and South-East Asia: Review and Content Analysis,” JMIR mHealth and uHealth 9, no. 11 (November 2021): e32093, https://doi.org/10.2196/32093.

²¹¹ Yanyan Xiong, Xue Cui, and Liuming Yu, “Impact of COVID-19 Pandemic on Online Consumption Share: Evidence from China’s Mobile Payment Data,” Journal of Retailing and Consumer Services 81 (November 2024): 103976, https://doi.org/10.1016/j.jretconser.2024.103976.

China’s digital platforms supported mass e-commerce, payments, delivery, and remote services, with online retail and digital-consumption channels becoming increasingly important.²¹¹

South Korea and Taiwan were notable for advanced digital infrastructure. Their strategic importance in semiconductor supply chains as global chip-supply vulnerabilities became more visible, exploding in SecOps status during and after the pandemic.²¹²

²¹² Akil Thadani and Gregory C. Allen, “230530_Thadani_MappingSemiconductor_SupplyChain,” accessed May 16, 2026, https://csis-website-prod.s3.amazonaws.com/s3fs-public/2023-05/230530_Thadani_MappingSemiconductor_SupplyChain.pdf.

²¹³ “India Digital Payments Report 2020,” accessed May 16, 2026, https://worldline.com/content/dam/worldline/local/en-in/documents/main-page11111/WIDPReport-2020.pdf.

India saw rapid growth in mobile-based payments and wider use of digital public infrastructure, with 21.44 billion mobile-based payment transactions recorded in 2020.²¹³

1.18.3 Business

Remote work shifted from optional to essential as firms used digital tools to maintain operations during lockdowns and workplace restrictions.

Cloud, SaaS, cyber security, video platforms, and collaboration tools became critical infrastructure as organisations moved work, communication, and service delivery online.

Supply-chain dependence on Asian semiconductor manufacturing became a strategic concern, with later analyses identifying Taiwan, South Korea, Japan, China, and other Indo-Pacific economies as pivotal but also dangerous to the global semiconductor supply landscape.

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1.19 2021–2023 AI and cloud infrastructure

1.20 Digital technology

Hybrid work, cloud infrastructure, cyber security, automation, and AI became dominant priorities. Technology-trend analysis in 2023 highlighted applied AI, cloud and edge computing, trust architecture, digital identity, automation, and next-generation software development as major enterprise concerns.

Generative AI became widely visible from late 2022 onward, especially after OpenAI publicly introduced ChatGPT on 30 November 2022.²¹⁴

²¹⁴ Wikipedia contributors, “ChatGPT,” in Wikipedia, May 14, 2026, https://en.wikipedia.org/w/index.php?title=ChatGPT&oldid=1354166402.

²¹⁵ Wikipedia contributors, “Edge Computing,” in Wikipedia, May 11, 2026, https://en.wikipedia.org/w/index.php?title=Edge_computing&oldid=1353587746.

²¹⁶ Broadband Networks of the Future, OECD Digital Economy Papers no. 327, vol. 327, OECD Digital Economy Papers (2022), https://doi.org/10.1787/755e2d0c-en.

Wi-Fi 6/6E, fibre broadband, 5G, and edge computing²¹⁵ improved network expectations. IEEE 802.11ax-2021 formalised high-efficiency WLAN operation, while OECD analysis linked gigabit fixed networks, 5G, AI, IoT, low latency, and high-capacity networks to the next stage of digital transformation.²¹⁶

The Internet became increasingly AI-mediated. Search, recommendation, writing, coding, customer service, and content creation were affected by generative AI and foundation models.

1.21 Asia emphasis

Taiwan’s TSMC became one of the most strategically important companies in the global digital economy. Its advanced semiconductor manufacturing became central to AI, smartphones, energy networks, defence systems, and supply-chain resilience.²¹⁷

²¹⁷ rkremzner@newlinesinstitute.org, “Taiwan’s Semiconductor Sustainability and Global Implications,” New Lines Institute, August 27, 2024, https://newlinesinstitute.org/tech-econ-sov-sec/taiwans-semiconductor-sustainability-and-global-implications/.

²¹⁸ “UKRI Semiconductors in Republic of Korea.”

South Korea remained central in memory chips, displays, smartphones, and broadband. Its semiconductor sector, especially Samsung and SK hynix, held leading positions in DRAM, NAND, and high-bandwidth memory.²¹⁸

China advanced in platforms, AI applications, e-commerce, electric vehicles, payments, and telecom equipment, building on one of the world’s largest digital economies and major ecosystems in e-commerce, fintech, mobility, healthtech, and on-demand services.

India expanded digital public infrastructure, mobile payments, software services, and start-up activity, with India Stack, Aadhaar, UPI, and DEPA forming a prominent digital public infrastructure model.²¹⁹

²¹⁹ “State_of_India_Digital_Economy_Report_2023,” accessed May 16, 2026, https://icrier.org/pdf/State_of_India_Digital_Economy_Report_2023.pdf.

²²⁰ World Trade Organization, Global Value Chain Development Report 2023: Resilient and Sustainable Global Value Chains in Turbulent Times (WTO, 2023), https://doi.org/10.30875/9789287075673.

Japan remained important in semiconductor materials, precision equipment, robotics, sensors, and gaming. By 2023, Japan had again designated semiconductors as critical to economic activity and national security. This especially included support for chip making equipment and semiconductor materials.²²⁰

1.22 Adoption

Businesses adopted AI tools, automation, cloud-native systems, zero-trust security, and hybrid work models. NIST’s zero-trust architecture guidance specifically links zero trust to remote users, BYOD, cloud-based assets, and enterprise infrastructure beyond the traditional network perimeter.²²¹

²²¹ Scott Rose et al., Zero Trust Architecture, NIST Special Publication (SP) 800-207 (National Institute of Standards and Technology, 2020), https://doi.org/10.6028/NIST.SP.800-207.

Users adopted digital wallets, streaming, AI assistants, online health, online learning, and app-based services as high-quality broadband, 5G, cloud, and mobile platforms became ordinary infrastructure for work, education, healthcare, commerce, and entertainment.

Digital sovereignty, semiconductor supply chains, and cyber resilience became geopolitical issues. The EU’s 2023 Digital Decade report explicitly linking digital to supply-chain uncertainty. That uncertainty includes supply resilience, cyber security, digital infrastructure, and strategic digital capacity— all factors affected by pandemic, war and sea transport.²²²

²²² European Commission. Joint Research Centre., Supply Chain Analysis and Material Demand Forecast in Strategic Technologies and Sectors in the EU: A Foresight Study. (LU: Publications Office, 2023), https://data.europa.eu/doi/10.2760/386650.

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1.23 2024–2026: Edge AI and cyber resilience

1.23.1 The world is not enough

Generative AI, advanced chips, semiconductor supply chains, cyber resilience, edge AI,²²³ and data-centre infrastructure are central to the digital technology landscape of 2024–2026.²²⁴

²²³ “2024 State of Edge AI Report,” EPSRC National Edge Artificial Intelligence Hub, March 27, 2026, https://edgeaihub.co.uk/document/2024-state-of-edge-ai-report/.

²²⁴ United Nations, Digital Economy Report 2024 (OVERVIEW), 2024.

The Internet is no longer just a communication system. It is the operating layer for AI, commerce, identity, media, work, logistics, public services, and software delivery.

IEEE standards remain essential at the network-access layer,²²⁵ especially Ethernet and Wi-Fi. Internet protocols have become primarily standardised through IETF processes.²²⁶

²²⁵ “IEEE 802,” IEEE Standards Association, accessed May 16, 2026, https://standards.ieee.org/featured/ieee-802/.

²²⁶ Spencer Dawkins et al., The IEEE 802/IETF Relationship, Request for Comments RFC 7241 (Internet Engineering Task Force, 2014), https://doi.org/10.17487/RFC7241.

²²⁷ “Computers | Timeline of Computer History | Computer History Museum,” accessed May 16, 2026, https://www.computerhistory.org/timeline/computers/.

The historical chain is now clear: transistor → IC → LSI/VLSI → microprocessor → PC → LAN → packet-switched internetworking → TCP/IP → Web → broadband → mobile Internet → cloud → AI-mediated Internet.²²⁷

Asia is now central to both the physical and service layers of the Internet:²²⁸

²²⁸ “Digitalization Trends and the Material Footprint,” accessed May 16, 2026, https://unctad.org/system/files/official-document/der2024_ch02_en.pdf.

²²⁹ EU-Japan Centre, “Report: Semiconductor Sector Japan Market Intelligence Report | EU-Japan Centre,” accessed May 16, 2026, https://www.eu-japan.eu/eubusinessinjapan/library/publication/report-semiconductor-sector-japan-2024.

Taiwan rates highly for advanced semiconductor fabrication, especially through TSMC and its AI-related advanced process and packaging ecosystem. South Korea rates highly for memory semiconductors, displays, broadband infrastructure, smartphones, and connected devices. Japan remains a worldwide foundation for semiconductor materials, sensors, analogue and power devices, robotics, precision components, and manufacturing equipment ecosystems.²²⁹

China, who started way behind digital development by the West and its friends, now leads across-the-board in digital platforms, e-commerce, AI deployment, telecommunications equipment, and large-scale electronics manufacturing.²³⁰ Surprisingly, its equally populated neighbour, India, focuses on²³¹ software and IT services, digital public infrastructure, UPI-based mobile payments, cloud services, and AI workforce development²³² in a manner similar to its clothes and other workshops. Is this a cultural problem holding back, given it also has a massive diaspora in most countries?

²³⁰ “China’s Digital Industry Reports Revenue, Profit Growth in 2024,” accessed May 16, 2026, https://english.www.gov.cn/archive/statistics/202503/18/content_WS67d8ac45c6d0868f4e8f0e9c.html.

²³¹ “Technology Sector in India : Strategic Review - 2024,” nasscom, March 2, 2023, https://nasscom.in/knowledge-center/publications/technology-sector-india-strategic-review-2024.

²³² “Artificial Intelligence | Principal Scientific Adviser,” accessed May 16, 2026, https://www.psa.gov.in/ai-mission-initiatives.

²³³ “Singapore-Digital-Economy-Report-2024,” accessed May 16, 2026, https://www.imda.gov.sg/-/media/imda/files/infocomm-media-landscape/research-and-statistics/sgde-report/singapore-digital-economy-report-2024.pdf.

²³⁴ Ian Varela Soares, Masaru Yarime, and Magdalena Klemun, “Balancing the Trade-Off Between Data Center Development and Its Environmental Impacts: A Comparative Analysis of Data Center Policymaking in Singapore, Netherlands, Ireland, Germany, USA, and the UK,” Environmental Science & Policy 157 (July 2024): 103769, https://doi.org/10.1016/j.envsci.2024.103769.

²³⁵ “Digital-Connectivity-Blueprint-Report,” accessed May 16, 2026, https://www.imda.gov.sg/-/media/imda/files/programme/digital-connectivity-blueprint/digital-connectivity-blueprint-report.pdf.

Singapore, predominantly a place of highly educated intelligence wizardry in the finance sector, focuses on²³³ data centres,²³⁴ regional connectivity, fintech, digital governance, and resilient digital infrastructure planning.²³⁵

The Asian contribution after 1995 is therefore not just “Internet use,” but the manufacturing, infrastructure, platforms, standards implementation, data-centre capacity, and software systems that make the modern Internet possible.

South East Asia has turned primarily European ingenuity and USA marketing into a highly leveraged master of digital. Despite China’s success and size in the digital industry, it is smaller than its potential due to a careful stepped strategy.

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1.24 Condensed summary by theme

Note

Latest update UK time: 03 May 2026 @ 17:35

1.25 Coming Soon

Like many chapters, this chapter is currently under construction.

There’s lots of research and writing going on every day— come back to see what’s new!

1.25.1 1. Transistors to ICs

• Transistors made digital electronics reliable and compact.

• ICs standardised logic into reusable chips.1

• CMOS and TTL logic allowed computers, calculators, instruments, terminals, and controllers to scale.2

1.25.2 2. LSI/VLSI to microprocessors

• LSI and VLSI put more logic and memory onto fewer chips.3

• The Intel 4004, triggered by a Japanese calculator project, made the microprocessor commercially real.4

• Microprocessors turned computing from fixed hardware into programmable digital systems.4

1.25.3 3. UK and European importance before 1995

• The UK’s Donald Davies and NPL made foundational contributions to packet switching.5

• UCL provided the first international ARPANET link.6

• France’s CYCLADES contributed the datagram and end-to-end ideas that influenced TCP/IP.7

• CERN created the World Wide Web through Tim Berners-Lee’s work.8

• Europe also built important pre-Web online services, especially Minitel.9

1.25.4 4. USSR and Eastern Europe

• The USSR had strong theoretical computing, cybernetics, and mathematical talent.10

• Large-scale state networking ambitions existed, but bureaucratic, industrial, and political constraints limited practical deployment.11

• Soviet computing did not become a major direct ancestor of the global Internet, but it remains important in the broader history of state computing and cybernetic planning.11

1.25.5 5. Middle East

• Before the mid-1990s, Middle Eastern digital use was mainly institutional: oil, banking, airlines, universities, telecoms, and government.12

• Internet links appeared unevenly in the early 1990s, with countries such as Israel, Egypt, Turkey, UAE, Jordan, and Saudi Arabia developing early connectivity at different speeds.13

• RIPE NCC’s service region later became important because it covers Europe, Central Asia, and the Middle East.14

1.25.6 6. IEEE’s actual role

• IEEE did not invent ARPANET, TCP/IP, or the Web.

• IEEE’s key contribution was standardisation of network-access technologies:15

  • IEEE 802.3: Ethernet.16

  • IEEE 802.11: Wi-Fi.15

• These standards made local and wireless networking interoperable, scalable, and commercially viable.15

1.25.7 7. Asia after 1995

• Asia became central to Internet expansion through broadband, mobile networks, platforms, chips, displays, devices, and software.17

• South Korea led in broadband.18

• Japan contributed mobile Internet, components, robotics, gaming, and manufacturing technologies.19

• Taiwan became indispensable through semiconductor foundries.20

• China built massive platform ecosystems and digital-payment systems.21

• India became central to software, IT services, mobile Internet, and digital public infrastructure.22

1.25.8 8. Core historical arc

• The Internet did not emerge from one invention.

• It came from the convergence of:

  • semiconductor miniaturisation,3

  • digital logic,1

  • microprocessors,4

  • packet switching,5

  • TCP/IP,7

  • Ethernet and LANs,16

  • academic networks,6

  • the World Wide Web,8

  • broadband,18

  • mobile computing,19

  • cloud infrastructure,

  • and Asian-led manufacturing and platform expansion after the mid-1990s.17

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Footnotes

1. Computer History Museum, “1963: Standard Logic IC Families Introduced”. ↩︎ ↩︎2

2. Computer History Museum, “The Rise of TTL: How Fairchild Won a Battle But Lost the War”. ↩︎

3. Gordon E. Moore, “Cramming More Components onto Integrated Circuits”, Electronics, 1965. ↩︎ ↩︎2

4. Intel, “Announcing a New Era of Integrated Electronics: The Intel 4004”. ↩︎ ↩︎2 ↩︎3

5. National Physical Laboratory, “Donald Davies”. ↩︎ ↩︎2

6. History of Information, “The First International Connections to ARPANET are London and Kjeller, Norway”. ↩︎ ↩︎2

7. Internet Hall of Fame, “Louis Pouzin”. ↩︎ ↩︎2

8. CERN, “The Birth of the Web”. ↩︎ ↩︎2

9. IEEE Spectrum, “Minitel: The Online World France Built Before the Web”. ↩︎

10. MIT Press, Benjamin Peters, How Not to Network a Nation: The Uneasy History of the Soviet Internet. ↩︎

11. Slava Gerovitch, “InterNyet: Why the Soviet Union Did Not Build a Nationwide Computer Network”, History and Technology, 2008. ↩︎ ↩︎2

12. RAND, Grey E. Burkhart, “The Middle East Meets the Internet”. ↩︎

13. IGI Global, “Digital Governance and Democratization in the Arab World”. ↩︎

14. RIPE NCC, “About Us”. ↩︎

15. IEEE Standards Association, “IEEE 802”. ↩︎ ↩︎2 ↩︎3

16. IEEE Standards Association, “Ethernet Through the Years: Celebrating the Technology’s 50th Year of Innovation”. ↩︎ ↩︎2

17. APNIC Blog, “RENs: Pioneers of the Internet in the Asia Pacific”. ↩︎ ↩︎2

18. OECD, The Development of Broadband Access in OECD Countries. ↩︎ ↩︎2

19. Internet Hall of Fame, “Kilnam Chon”. ↩︎ ↩︎2

20. TSMC, “About TSMC”. ↩︎

21. International Monetary Fund, Longmei Zhang and Sally Chen, China’s Digital Economy: Opportunities and Risks, IMF Working Paper, 2019. ↩︎

22. Bank for International Settlements, The Organisation of Digital Payments in India: Lessons from the Unified Payments Interface, BIS Papers No. 152, 2024. ↩︎