Jasmine Business Directory

Tech Companies belongs to the Computers and Technology branch of the directory and gathers organisations whose main work is building, operating, or selling information and communication technology. The grouping is broad on purpose. It includes software publishers and cloud platform operators, hardware makers, semiconductor designers, telecommunications carriers, cybersecurity vendors, data centre operators, and the growing number of firms whose product is an artificial intelligence model or service. These listings share a dependence on computing, networking, and data as the core of the offer rather than a peripheral tool. This page is a technology companies business directory, and the entries below are arranged so that a visitor can move from a general idea of the sector to a specific supplier without starting from a blank search box.

Definitions matter here because the boundary of the sector is not obvious. National statistical agencies rely on the International Standard Industrial Classification, maintained by the United Nations, and on regional equivalents such as the North American Industry Classification System (NAICS), which the United States, Canada, and Mexico developed jointly to make business statistics comparable across the continent. The Organisation for Economic Co-operation and Development describes the information and communication technology sector as a combination of manufacturing and service industries that capture, transmit, and display data and information electronically (OECD, 2024). That description covers both the physical layer, meaning chips, devices, and networks, and the service layer of software, hosting, and digital platforms. A firm that designs a microprocessor and a firm that runs a video streaming service can both fall inside it.

The classification systems do not always agree on where a given activity belongs, which is worth knowing when you read sector statistics. NAICS keeps packaged software under its Information sector while leaving many IT services under professional and technical services, whereas ISIC and the European NACE scheme place both software and IT services together under Section J, Information and communication (U.S. Census Bureau, 2022). The practical effect is that two reputable reports can show different totals for the same year because they drew the line in different places. Visitors using a technology web directory should keep that in mind when comparing figures from separate sources, since a difference of a trillion dollars in a headline can come down to a definitional choice rather than a real change in the market.

The modern sector's habits were set early. The transistor, invented at Bell Telephone Laboratories in the late 1940s, made compact electronic switching possible. In 1955 William Shockley, a co-inventor of the transistor, set up Shockley Semiconductor Laboratory in Mountain View, California, and in 1957 a group of his engineers left to found Fairchild Semiconductor, where Robert Noyce and others produced the first commercial integrated circuit at the end of the decade (Computer History Museum, 2017). Gordon Moore, a Fairchild and later Intel co-founder, observed in 1965 that the number of components on a chip was doubling at a steady rate, a pattern revised in 1975 to roughly every two years and later called Moore's law. That observation shaped how the industry plans and competes, and it explains the fast product turnover that any technology business directory has to track.

The decades that followed added new kinds of companies on top of that hardware foundation. The personal computer of the late 1970s and 1980s created a mass market for packaged software, and firms that wrote operating systems and applications grew into some of the largest in the world. The commercial opening of the internet in the 1990s added businesses built on connectivity: web publishers, search engines, online retailers, and the hosting firms that kept them running. The spread of the smartphone after 2007 produced mobile applications and the platforms that distribute them. Each wave sat on top of the one before it rather than replacing it, which is why the sector today contains chip designers, device makers, software publishers, and internet services at once. A grouping of this kind therefore has to make room for businesses that would barely have recognised one another a generation ago.

This history also explains a recurring pattern in how the sector behaves. Value tends to move from physical components toward software and services, because software scales at low marginal cost once it is written while hardware carries the cost of manufacturing every unit. A company often begins by selling a device and ends by selling the subscription, data service, or platform that the device enables. Buyers reading the listings here will notice the same shift: many firms that describe themselves as hardware makers now earn a growing share of revenue from the software and cloud services attached to their products. Once you notice that pattern, the descriptions are easier to read and the comparisons between firms make more sense.

Everyday navigation does not require fluency in these codes or in this history. The listings are described in plain terms: what a company makes, who it serves, and where it operates. The underlying taxonomy still explains why a payment processor, a chip foundry, and a search engine can all be reasonable members of the same broad group. Each depends on the same foundations of computing and connectivity, and each is captured, somewhere, by the official definitions of the technology sector. Business directories that list technology companies tend to mirror this structure, and this page is built on the same logic. The sections that follow cover the economics of the sector, the standards and rules that shape it, the kinds of organisations you will find listed, and a short reading list of the official sources behind the figures quoted here. The directory records what exists and where to find it, and leaves judgement to the reader.

The money involved is large and growing. Gartner forecast that worldwide information technology spending would reach about 5.26 trillion US dollars in 2024, an increase of roughly 7.5 percent on the prior year, and projected a further rise toward 5.74 trillion in 2025 (Gartner, 2024). These totals cover data centre systems, devices, software, IT services, and communications services. Forrester, using a slightly different basket, put global technology spending nearer 4.7 trillion US dollars for 2024 (Forrester, 2024). The gap between the two comes mostly from what each counts, which is the classification point made earlier rather than a contradiction. When a buyer reads such totals, the question to ask is which activities the analyst chose to include.

Growth in the sector has outpaced the wider economy for a sustained period. The OECD reported that the information and communication technology sector grew about three times faster than the total economy across member countries between 2013 and 2023, with an average growth rate near 7.6 percent in 2023 (OECD, 2024). A few forces explain that gap. Cloud migration moves spending from one-off capital purchases to recurring service contracts, which tends to expand reported revenue over time. Demand for data centre capacity has climbed sharply as workloads shift online and as machine learning models require more computation to train and to run. Devices reach more of the world's population each year, and software has spread into industries, from farming to logistics, that once bought very little of it.

Cloud computing shows the shift in spending plainly. Global spending on cloud infrastructure services grew about 19 percent year on year in the second quarter of 2024, reaching roughly 78 billion US dollars in that quarter alone (Synergy Research Group, 2024). The market remains concentrated among a few providers, with Amazon Web Services holding the largest share, followed by Microsoft Azure and Google Cloud. Those providers have together committed large sums to building new data centres and network capacity, much of it aimed at artificial intelligence workloads that need more computation than earlier software. For a firm choosing where to host its systems, this concentration is a practical fact: a handful of suppliers set pricing, available regions, and the pace at which new capabilities appear.

Employment shows similar expansion, though the share of jobs varies widely by country. The OECD found that information and communication technology specialists accounted for around 8 percent of all jobs in Sweden and Israel, close to 4 percent across the European Union of 27, and about 1.4 percent in Turkiye in the 2021 to 2022 period (OECD, 2024). These specialists work mostly in software development, systems administration, data work, and increasingly in roles connected to artificial intelligence. The uneven distribution comes from differences in national industrial structure, education pipelines, and the presence or absence of large domestic technology firms. A technology companies business directory that spans several countries will show that same unevenness in the density of its listings, with deep coverage in some markets and thinner coverage in others.

Research and development spending is one of the sector's defining traits. The World Intellectual Property Organization reported that the world's top 2,500 corporate research spenders together invested more than 1.3 trillion euros in 2022, a rise of about 13 percent on the previous year, with technology and pharmaceutical firms among the heaviest contributors (WIPO, 2024). The United States led on both volume and intensity, its leading firms recording an average research intensity above 18 percent of revenue, with Switzerland close behind on intensity. This level of reinvestment is unusual among industries and helps explain why product cycles in computing move so quickly, and why the membership of any technology directory shifts from year to year. A company that does not reinvest at this pace tends to lose ground within a few product generations.

Concentration is another feature worth naming. A relatively small number of large platform and infrastructure companies account for a disproportionate share of revenue, capital expenditure, and research spending, while a long tail of smaller firms supplies specialised software, components, and services. This shape has consequences for buyers and for competition authorities. For a directory it means the listings range from household names to niche suppliers that few outside their field would recognise, and both ends of that range belong in business directories covering technology companies because both are part of how the sector works. A buyer who knows only the large names misses much of the supply that exists. The economic picture is one of fast growth, heavy reinvestment, broad but uneven employment effects, and marked concentration at the top, all of which the listings here are meant to show rather than smooth over.

Technology companies operate inside a dense layer of technical standards that most users never see. Interoperability, meaning the ability of devices and services from different vendors to work together, depends on shared specifications agreed through standards bodies. ISO/IEC JTC 1, the joint technical committee of the International Organization for Standardization and the International Electrotechnical Commission, has produced more than 3,200 published international standards for information technology, covering everything from the JPEG image format and MPEG audio and video formats to the C and C++ programming languages (ANSI, 2024). Without agreed formats of this kind, files and signals would not move cleanly between systems built by rival firms, and the digital economy would fragment into incompatible islands.

The internet has its own set of organisations, most of them voluntary and consensus driven. The Internet Engineering Task Force develops the protocols of the Internet Protocol suite, including TCP/IP, which governs how data is addressed and routed across networks. The World Wide Web Consortium, founded by Tim Berners-Lee, maintains the specifications for HTML, CSS, and related web technologies that underpin every website, including this one. The Institute of Electrical and Electronics Engineers Standards Association develops standards across electrical and computer engineering, including the wireless networking specifications that carry the familiar Wi-Fi label. These groups mostly publish voluntary standards that companies adopt because doing so makes their products compatible with the rest of the market, not because a law compels them. Adoption, not enforcement, is what drives the uptake.

Alongside the voluntary standards sits a growing body of binding regulation, and this is where many smaller firms feel the weight of being in the sector. Data protection is the clearest example, with the European Union's General Data Protection Regulation setting rules on how personal data is collected and processed that apply to firms serving European residents regardless of where those firms are based. Similar laws have followed in other jurisdictions, so that a company selling internationally may face several overlapping privacy regimes at once. Competition authorities in the European Union, the United States, the United Kingdom, and elsewhere have opened investigations into large platforms over market power, app store terms, and self-preferencing. The result is that a technology company of any size must track obligations that span privacy, consumer protection, and competition law, often across multiple countries simultaneously.

Artificial intelligence has prompted a new wave of rule-making that is still settling. The European Union's Artificial Intelligence Act entered into force on 1 August 2024 as the first broad legal framework for the technology, sorting AI systems into risk tiers and attaching heavier obligations to higher-risk uses, with certain practices banned outright and others subject to documentation, testing, and oversight requirements (European Commission, 2024). In the United States the National Institute of Standards and Technology published the AI Risk Management Framework in 2023, a voluntary guide for managing risk across the life of an AI system rather than a binding law (NIST, 2023). The two approaches differ in force, one mandatory and one advisory, but both push firms toward documenting how their systems are built and tested. Business directories that list AI and technology companies increasingly note which standards and frameworks a vendor claims to follow, because buyers now ask.

Security standards are now a routine part of doing business. ISO/IEC 27001 sets out requirements for an information security management system, and many enterprise buyers now treat certification against it as a baseline condition for awarding a contract. Rules tied to specific sectors, such as the Payment Card Industry Data Security Standard for firms that handle card payments, add further obligations. For visitors using a technology web directory, these standards and certifications are useful signals: they show that a supplier has put its practices through external review rather than simply asserting that its systems are safe. A claim of certification can also be checked, since the issuing bodies and registrars keep records.

Standards and regulation also interact with intellectual property in ways that shape how the sector competes. Many technical standards rely on patented methods, and the bodies that publish them generally require participants to license the relevant patents on fair, reasonable, and non-discriminatory terms. This arrangement lets rival firms implement the same standard without one of them blocking the others, though disputes over what counts as a reasonable royalty have produced long-running litigation in courts across several countries. Copyright covers software code, trademark protects brand names, and trade secrets guard methods that a firm chooses not to patent. A technology company's value often rests as much on this intangible property as on any building or machine, which is one reason research and patent activity feature so heavily in the statistics quoted earlier.

Governance is an overlapping set of voluntary standards and binding laws that together define what it means to operate responsibly in this sector. The voluntary layer keeps systems compatible, the binding layer protects users and competition, and the intellectual property layer settles who may build what. All of it keeps shifting, since standards are revised, laws are amended, and patents expire as the technology changes. A reader scanning the listings here can treat references to relevant standards as one piece of context, alongside a company's track record, its customer base, and how plainly it explains the way it handles data. These signals do not replace direct due diligence, but they help separate firms that take their obligations seriously from those that treat compliance as an afterthought. The same overlapping structure is why business directories covering technology companies often note certifications and regulatory status alongside the basic description of what a firm sells.

The companies grouped here fall into several recognisable families. Software firms form the largest by count, ranging from publishers of packaged applications to providers of software delivered as a cloud service on a subscription. Infrastructure providers supply the computing, storage, and networking on which other firms build, including the operators of large data centres and the content delivery networks that move data closer to users. Hardware makers design and manufacture devices, components, and semiconductors, a part of the sector that is capital intensive and concentrated in a few regions. Telecommunications carriers run the fixed and mobile networks that connect everything else. Newer entrants work in artificial intelligence, cybersecurity, financial technology, and the analysis of data at scale. Most real businesses sit across more than one of these families, which is why a single listing often touches several of them.

Within each family the directory records firms of very different sizes and ages. A listing might describe a multinational platform with operations on several continents, a mid-sized vendor serving a single national market, or a young company built around one product and a small team. The directory does not rank these by prominence. A small specialist that solves a narrow problem well can be exactly what a particular buyer needs, and the entry for that firm gets the same descriptive treatment as any larger one. This is part of why business directories that list technology companies stay useful alongside the major search engines: they group suppliers by what they do rather than by who spends most on advertising, which brings up capable firms that a keyword search would bury on a later page.

Start from the kind of work you need done rather than from a brand you already know. If you need to host an application, look among infrastructure and cloud providers, and weigh factors such as the regions where each operates and the certifications it holds. If you need to secure a network, the cybersecurity listings are the place to begin, and the same goes for payments, data analysis, or connectivity. Each entry states plainly what the company offers, the markets it serves, and where it is based, so that a reader can shortlist candidates without leaving the directory. Treating this technology companies directory as a starting point, rather than a final verdict, tends to produce better results than a single keyword search aimed at a vendor you happened to have heard of.

It helps to read the listings critically, because the sector moves fast. Details such as product names, ownership, pricing tiers, and service levels can shift between funding rounds and acquisitions. A firm may be bought, rebranded, or merged within a single year, and a product that was current at the time of listing may have been renamed or retired. The directory aims to keep entries current, but a careful visitor confirms the latest position directly with a supplier before committing, particularly on price and on contractual terms. Independent reviews, published case studies, audited financial statements where available, and any relevant certifications such as ISO/IEC 27001 add context that a single listing cannot capture on its own.

It is also worth matching the size and maturity of a supplier to the nature of the work. A large platform may offer stability, wide geographic coverage, and predictable support, but less flexibility on bespoke requirements. A smaller firm may move faster and tailor its work, while carrying more risk if it depends on a few people or a single round of funding. Neither is better on its own terms; the right choice depends on the buyer's tolerance for risk, how critical the system is, and how long the relationship is meant to last. The listings here give enough detail for that judgement to begin, not to make it for the reader. Among technology business directories, the ones that describe firms honestly, rather than flattering every entry, are the ones a buyer comes to trust.

A few practical checks apply across almost every category of supplier. Confirm where data will be stored and processed, since that affects which privacy laws apply and how quickly support can reach a problem. Ask how the firm handles the end of a contract, because moving data and workloads away from a provider can be costly if formats are proprietary or if export tools are weak. Look at how long the company has run the specific product on offer, rather than how long the company has existed, since a venerable firm may still be early in a new line of work. Check what happens to a service if the supplier is acquired, a common event in this sector, and whether existing terms survive a change of ownership. For anything that touches payments, personal data, or critical operations, ask to see the relevant certifications and, where the stakes justify it, an independent audit. These questions are not exciting, but they are the ones that tend to decide whether an engagement runs smoothly or turns expensive, and the descriptions in this category are meant to give a reader enough of a starting point to ask them well.

For suppliers, a clear and accurate entry is the point. A description that states the actual problem a product solves, names the industries served, and avoids vague marketing language will help potential customers more than one stuffed with superlatives that say nothing specific. Precise wording also helps a listing match the queries that serious buyers actually type. A curated technology business directory that rewards precise description tends to connect buyers and sellers more reliably than one that accepts any copy submitted. The same discipline that statistical agencies apply when they classify firms, naming the activity exactly rather than loosely, serves both sides well here. Read this way, the category works as a practical guide to the sector rather than a bare list of names, and a listing is worth more the more truthfully it is written.

The figures and definitions quoted in this category come from official statistical agencies, standards organisations, regulators, and recognised industry research houses. Spending forecasts are inherently estimates and are revised as conditions change, so readers comparing numbers across sources should note the year, the methodology, and exactly which activities each source counts as part of the technology sector. Market share and cloud growth figures in particular are quarterly snapshots that move quickly, and the named providers and percentages reflect the period cited rather than a fixed ranking. The references below point to the primary publications behind the claims made above; consulting them directly is the surest way to check a figure or a definition for a specific purpose. No listing in this directory should be read as an endorsement, and no statistic here substitutes for current advice from a qualified professional on legal, financial, or technical questions.

1. Gartner. (2024). Gartner Forecasts Worldwide IT Spending to Grow 7.5% in 2024. Gartner, Inc. press release
2. Forrester Research. (2024). Forrester: Global Tech Spend To Grow 5.3% In 2024, Reaching $4.7 Trillion. Forrester Research, Inc. press release
3. Organisation for Economic Co-operation and Development. (2024). OECD Digital Economy Outlook 2024, Volume 1: Embracing the Technology Frontier. OECD Publishing
4. World Intellectual Property Organization. (2024). Global Innovation Index 2024. WIPO
5. United States Census Bureau. (2022). North American Industry Classification System (NAICS), United States, 2022. U.S. Department of Commerce
6. American National Standards Institute. (2024). ISO/IEC JTC 1, Information Technology. ANSI
7. European Commission. (2024). Regulation (EU) 2024/1689 Laying Down Harmonised Rules on Artificial Intelligence (Artificial Intelligence Act). Official Journal of the European Union
8. National Institute of Standards and Technology. (2023). Artificial Intelligence Risk Management Framework (AI RMF 1.0). U.S. Department of Commerce
9. Synergy Research Group. (2024). Cloud Market Growth Stays Strong as AWS, Microsoft and Google Maintain Their Grip. Synergy Research Group
10. Computer History Museum. (2017). Fairchild Semiconductor and the Origins of Silicon Valley. Computer History Museum