Every time you click a link, stream a lecture, or open an online journal, you are using a system that is barely older than your parents’ careers. The World Wide Web turned the internet from a network used mostly by scientists and engineers into an everyday tool for billions of people. For anyone studying library and information science, understanding how the Web works is not optional. It is the foundation on which modern catalogues, digital repositories, and remote access services are built. This post walks through where the Web came from, how it actually functions, and why it matters so much for libraries today.

Table of Contents

What the World Wide Web actually is

People often use “the internet” and “the Web” as if they mean the same thing, but they do not. The internet is the global network of connected computers and the cables, routers, and wireless signals that link them. The Web is a service that runs on top of that network. Think of the internet as the road system and the Web as one very popular kind of vehicle that travels on it. Email, video calls, and file transfers are other services that also use the same roads.

In simple terms, the World Wide Web is a global collection of documents and resources, identified by addresses and connected through links, that you access using a web browser. It was created to make information sharing automatic and effortless across machines that did not otherwise talk to each other easily.

The origin: Tim Berners-Lee and CERN

The Web was invented in 1989 by Tim Berners-Lee, a British scientist working at CERN, the European particle physics laboratory near Geneva. CERN was a hub for thousands of researchers from across the world, and Berners-Lee was frustrated by how hard it was to find information stored on different computers that used different systems. In March 1989 he submitted a proposal titled “Information Management: A Proposal” to solve exactly this problem.

By late 1990, working partly on a NeXT computer, he had built the three core technologies that still power the Web today and had written the first browser and the first web server. The world’s first website, hosted at CERN, was dedicated to explaining the project itself. A crucial decision came in 1993, when CERN placed the Web software in the public domain, meaning anyone could use it freely. This openness is a major reason the Web spread so quickly instead of staying locked inside one company or one country.

The three technologies that make the Web work

Berners-Lee combined three inventions into one system. Understanding them individually makes the whole Web much clearer.

HTML: the structure of pages

Most web pages are written in HyperText Markup Language (HTML). HTML is a text-based way of describing how content on a page is organised. It uses tags to mark up different elements: a heading tag tells the browser “this is a title,” a paragraph tag marks body text, and an anchor tag creates a clickable link. According to the W3C, HTML became the primary publishing format for the Web precisely because it could carry hypertext links inside ordinary documents. No matter how visually complex a website looks, it is built on this foundational markup language.

HTTP: the rules for transferring data

HyperText Transfer Protocol (HTTP) is the set of rules that governs how a browser and a server communicate. When you request a page, your browser sends an HTTP request, and the server sends back an HTTP response containing the page. As Cloudflare explains, HTTP is an application-layer protocol that follows a request-and-response pattern between a client and a server. The secure version, HTTPS, encrypts this exchange so that information cannot be easily read or tampered with in transit, which matters greatly when libraries handle user accounts and licensed databases.

URL: the address of every resource

Every resource on the Web, whether a page, an image, or a PDF, has a unique address called a Uniform Resource Locator (URL). A URL has a few clear parts: the protocol, such as https://; the domain name, such as example.com; and the path to the specific resource on that server. When you type a URL or click a link, the domain portion is translated into a numerical IP address through the Domain Name System (DNS), which lets your browser locate the correct server. Only then can the HTTP request be sent and the page returned.

Put together, the flow is straightforward: you enter a URL or click a hyperlink, DNS finds the server, HTTP carries the request and response, and your browser renders the HTML into the page you see.

Key features that make the Web dynamic

The technologies above explain the plumbing. The features below explain why the Web became so powerful for ordinary users and for libraries in particular.

The single most important idea behind the Web is hypertext: text that contains links to other documents. A hyperlink is a connection from one resource to another, and clicking it instantly fetches a new page that might be stored on a computer anywhere in the world. This is what frees information from being read in a fixed, linear order. As the explanation of hyperlinking notes, the “hyper” in hypertext refers to the way these links extend beyond straight-line text and beyond physical limits, weaving documents into a vast interconnected web. This non-linear structure is exactly what gives the World Wide Web its name.

For information work, hypertext is transformative. A library catalogue entry can link directly to the full text, to related subjects, to the author’s other works, and to citing articles, letting a researcher move between resources without ever leaving their chair.

Multimedia and rich content

Early web pages were mostly plain text. Today the Web carries text, images, audio, video, and interactive simulations side by side on a single page. This multimedia capability means a library can offer a scanned manuscript, an audio recording of a lecture, and a searchable transcript all from one interface. The combination of formats serves different learning styles and makes complex material far more accessible than a printed page alone.

Open standards and platform independence

The Web works on any device and any operating system because it is built on open standards rather than the products of a single vendor. A page written in HTML displays on a phone, a laptop, or a public library terminal regardless of who made the machine. The World Wide Web Consortium (W3C), formed in 1994, maintains these standards so that the Web stays interoperable and free for everyone. This openness is the quiet reason your college portal, a government archive, and an international journal can all be reached through the same browser.

Why the Web matters for libraries

Libraries have always been in the business of organising knowledge and connecting people to it. The Web did not replace that mission. It supercharged it. The change has been compared to the arrival of the printing press in its impact on how scholarly information is stored and shared.

From physical walls to global access

Before the Web, a library’s reach ended at its walls and its opening hours. A reader had to be physically present to use most resources. The Web removed both limits. A student can now search a catalogue, read a licensed journal article, and download a thesis at midnight from a hostel room hundreds of kilometres away. This 24×7, location-independent access is especially significant for learners in smaller towns and rural areas, who can reach the same academic resources as students in major cities. The Web turned the library from a single building into a gateway to global collections.

Organising resources with hypertext and metadata

Hypertext is not just for casual browsing. Libraries use it to build well-structured online catalogues where a single record links to related books, articles, and subject headings. Combined with structured metadata, this lets a user researching one topic discover connected materials through a few clicks rather than hours of manual searching. The Web essentially gave librarians a powerful new tool for the classic task of arranging and cross-referencing knowledge.

Digital repositories and national initiatives

The Web made large-scale digital libraries practical, and India has invested heavily in them. The National Digital Library of India (NDLI), developed by IIT Kharagpur and sponsored under the National Mission on Education through ICT, offers single-window access to tens of millions of learning resources for learners across the country. The INFLIBNET Centre, an autonomous body of the University Grants Commission established in 1991, runs consortia such as e-ShodhSindhu that provide universities and colleges with access to thousands of full-text journals and hundreds of thousands of e-books. More recently, the One Nation One Subscription scheme, coordinated by INFLIBNET from January 2025, extends access to international scholarly journals to higher education and research institutions nationwide. None of these would be possible without the Web’s ability to deliver organised content over open standards.

Preservation and digital archiving

Libraries are custodians of fragile and rare materials, from ancient manuscripts to out-of-print books. By digitising these items and making them available online, libraries protect the originals from handling while opening the content to scholars everywhere. Indian projects such as the IGNCA’s digital library of cultural heritage demonstrate how the Web supports both preservation and access at once, capturing manuscripts, rare photographs, paintings, and audio-visual material in formats that can be searched and studied without endangering the physical artefacts.

The librarian’s evolving role

As resources moved online, the librarian’s job expanded too. The modern information professional is no longer only the keeper of a room full of books. They design and manage library websites, curate digital collections, negotiate access to licensed databases, and teach information literacy so users can evaluate the flood of online material critically. The Web did not make librarians obsolete. It made their skills in organising and validating information more valuable than ever, because the sheer volume of content online makes expert guidance essential.

What do you think? If the World Wide Web were to disappear tomorrow, which library service would you miss the most, and could that service exist in any other form? And as more knowledge moves online, do you think the physical library building still has a distinct role to play in your own learning?

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References
  1. https://www.home.cern/science/computing/birth-web
  2. https://home.cern/science/computing/birth-web/short-history-web
  3. https://web30.web.cern.ch/web-history.html
  4. https://www.w3.org/People/Berners-Lee/
  5. https://www.cloudflare.com/learning/ddos/glossary/hypertext-transfer-protocol-http/
  6. https://learnworkecosystemlibrary.com/newsroom/principled-hyperlinking-weaves-the-world-wide-web/
  7. https://w3.org/about/history
  8. https://www.ndl.gov.in/
  9. https://www.inflibnet.ac.in/
  10. https://niepmd.nic.in/library/
  11. https://ebooks.inflibnet.ac.in/lisp8/chapter/digital-library-initiatives-in-india-part-i/

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ICT Applications

1 Database- Concept and Components

  1. Database Approach
  2. Database Definition
  3. Different Approaches to Database
  4. Database Features
  5. Databases in Library and Information Science
  6. Database Functional Considerations
  7. Types of Databases
  8. Database Architecture

2 Data Structures, File Organisation and Physical Database Design

  1. Why Data Structures
  2. Memory Hierarchy
  3. RAID Technology
  4. Indexes
  5. Binary Search
  6. Linked Lists
  7. Inverted Lists
  8. B-Trees
  9. File Storage Concepts
  10. Sequential Access Method (SAM)
  11. Indexed Sequential Access Method (ISAM)
  12. Direct Access Method (DAM)
  13. Physical Database Design

3 Database Management Systems

  1. Data and Information
  2. Database and Database Management System (DBMS)
  3. Data Hierarchy
  4. Data Integrity
  5. Data Independence
  6. Objectives of DBMS
  7. Evolution of DBMS
  8. Functions and Components of a DBMS
  9. Architecture of a DBMS
  10. Entity-Relationship Model
  11. Types of Relationships in Data Modeling
  12. Relational Database Management Systems (RDBMS)
  13. Normalization of Relations
  14. Designing Databases
  15. Distributed Database Systems
  16. Database Systems for Management Support
  17. Artificial Intelligence and Expert Systems

4 Database Searching

  1. Introduction
  2. Information Retrieval
  3. Information Retrieval Versus Data Retrieval
  4. Parameters for Evaluation of Search Output
  5. Search Strategy
  6. Compound Queries
  7. Advanced Features
  8. Trends in Information Retrieval

5 Housekeeping Operations

  1. Overview of Library Housekeeping Operations
  2. Acquisition
  3. Processing
  4. Circulation
  5. Serials Control
  6. Maintenance
  7. Procedural Model of Library Housekeeping Operations
  8. Computerized Subsystems

6 Software Packages- Features

  1. Evolution of Library Automation Software
  2. General Functions of Library Automation Software
  3. Requirements for Library Automation Software
  4. Implementation of Library Automation Software
  5. Library Automation Software Packages Available in India
  6. Evaluation of Library Automation Software
  7. Trends and Future Directions

7 Digitization- Concept, Need, Methods and Equipment

  1. Digitisation: Basics
  2. Need for Digitisation
  3. Selection of Materials for Digitisation
  4. Steps in the Process of Digitisation
  5. Digitisation: Input and Output Options
  6. Technology of Digitisation
  7. Tools of Digitisation
  8. Digitisation of Audio and Video
  9. Organising Digital Images
  10. Digital Library Softwares
  11. Planning and Implementation

8 Alerting Services

  1. Current Awareness Service (CAS)
  2. Selective Dissemination of Information (SDI)
  3. Electronic Clipping Services (ECS)
  4. News Filtering Services
  5. New Directions for Alerting Services

9 Bibliographic Fulltext Services

  1. What is Bibliographic Fulltext Service?
  2. The Need for Bibliographic Fulltext Service
  3. Players in Bibliographic Fulltext Service
  4. Fulltext Sources
  5. Examples of Fulltext Databases
  6. Information Technology and Fulltext Resources
  7. Copyright and Licensing Issues
  8. Likely Future Trends

10 Document Delivery Services

  1. Historical Perspective
  2. Document Delivery Service
  3. Modes of Document Delivery Service
  4. Electronic Document Delivery Service
  5. Steps in Document Delivery
  6. Some Document Supplying Agencies
  7. Copyright Facilitators

11 Reference Services

  1. Reference Service
  2. Need for Reference Service
  3. Reference Service Process
  4. Digital Reference Service
  5. Evaluation of Digital Reference Service
  6. Major Digital Reference Services Projects
  7. Expert Systems in Reference Service
  8. Future of Reference Service

12 Basics of Internet

  1. History of Internet
  2. Growth of Internet
  3. Internet Architecture
  4. Accessing the Internet
  5. Internet Service Providers (ISPs)
  6. Hardware and Software for Internet
  7. Internet Protocols

13 Search Engines

  1. Search Engines: Definitions
  2. Search Engines: Evolution
  3. How Do Search Engines Work?
  4. Search Engines: Categories
  5. Choosing a Search Engine
  6. Searching the Web: Search Techniques
  7. Search Results
  8. Meta Tags
  9. Search Engines: Evaluation
  10. Important Search Engines

14 Internet Services

  1. World Wide Web
  2. Importance of the Web
  3. How does the Web Work?
  4. Web Servers
  5. Web Browsers
  6. Plug-ins or Helper Programs
  7. Using Web Browser
  8. Mark-up Languages
  9. SGML
  10. XML
  11. HTML

15 Internet Information Resources

  1. Internet Information Resources
  2. Types of Internet Resources
  3. Searching the Internet: Where to Start
  4. How to Keep Up-to-Date with New Internet Resources

16 Evaluation of Internet Resources

  1. Need for Evaluation
  2. Quality Assessment
  3. Evaluation Tools on the Net
  4. Evaluating Information Resources
  5. Generic Criteria for Evaluation
  6. Specific Criteria for Evaluation
  7. Process Criteria
  8. Other Key Indicators