Science Technology and Social Change

Ogburn’s Starting Point: Technology as an Altered Environment

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• Science is a systematic method of studying any phenomenon through observation, experimentation and verification, conventionally divided into the natural sciences (the physical and biological world) and the social sciences (human behaviour and institutions); technology is science applied — the practical translation of scientific knowledge into tools, techniques and processes that do useful work.
• William Ogburn framed the basic relationship between the two like this: technology changes society mainly by changing the material environment people live in, and society then has to adapt to that altered environment.

“Technology changes society by changing our environment to which we in turn, adapt.” — William Ogburn

• The claim is causal but not simple. A new tool or technique first alters what Ogburn called material culture — objects, machines, physical techniques — and society only afterward adjusts its institutions, laws and habits to that altered material base.
  • This catching-up process is what Ogburn separately theorised as cultural lag, the gap that opens when non-material culture (custom, law, belief) changes more slowly than the material culture driving it. The concept is developed fully elsewhere in this archive’s treatment of theories of social change; here it matters only as the hinge connecting a technological change to its eventual social consequence.
• The present age is often described as the age of power or the scientific age because invention and discovery, more than any single economic doctrine, are its most pervasive feature — mechanisation, on this reading, is the deeper phenomenon of which modern capitalism is merely one by-product.

Technology Across Historical Stages

• Leslie White argued that a society’s level of cultural complexity tracks the amount of energy per person it can harness and put to work, so that a jump in energy technology — from muscle power to fire, to draft animals, to fossil fuels — reliably produces a jump in social organisation.
• The earliest transformation in human history came from two discoveries that replaced a purely hunting-and-gathering existence with settled economic organisation.
  • Domestication of animals, which gave rise to pastoral societies built around herding and mobility.
  • Agriculture, which allowed a settled peasant society to generate a surplus for the first time.
• That surplus made possible institutions with no place in a subsistence economy: a hereditary landowning class, an early feudal order, a division of labour beyond age and sex roles, and the first true cities.
• The move into the modern era is conventionally marked by the Industrial Revolution, though its groundwork was laid earlier by inventor-engineers such as Leonardo da Vinci, whose sketches of flying machines and war engines anticipated an age in which deliberate mechanical design, not craft tradition, would drive technological change.
• Industrialisation did not follow one single path everywhere: the American route industrialised around abundant land, immigrant labour and large domestic markets, while Japan’s path followed the Meiji Restoration of 1868, using state direction to compress industrialisation into a few decades and graft Western industrial technique onto existing social hierarchies rather than dissolving them.
• These divergent paths matter for the debate taken up next — if technology alone dictated social outcomes, every industrialising society should converge on one social form, but they visibly did not.

Two Readings of the Technology–Society Relationship

• The oldest disagreement in this field is whether technology drives society from outside, or whether society shapes technology in its own image. The workable answer refuses both extremes while explaining why each has genuine appeal.

Technological Determinism

• Technological determinism holds that technology develops according to its own internal logic and that social institutions simply adapt to whatever a new technology makes possible or necessary.
• Ogburn’s own framework leans in this direction, since it treats technological change as the trigger and cultural/institutional change as the adaptive response.
• Karl Marx is often read as a determinist because of one much-quoted line, though the label does not fit his larger theory.
  • The line: “The hand-mill gives you society with the feudal lord; the steam-mill, society with the industrial capitalist.”
  • Read alone, this looks like pure determinism — a single tool producing an entire social order. But Marx’s fuller theory of historical materialism treats technology (the forces of production) as only one half of a relationship with the relations of production, meaning who owns and controls those forces. A change in tools opens a possibility for social change, but a specific class has to seize and institutionalise that possibility before a new social order, and a new superstructure of law, politics and belief built on it, actually arrives.
• Marshall McLuhan pushed determinism further, into the form of the medium itself, arguing that a communication technology reshapes thought and social organisation regardless of the content it carries.

“The medium is the message.” — Marshall McLuhan

• Jacques Ellul offered a starker determinist variant: modern technique, broader than any single machine, has engulfed the whole of social existence the way Catholicism structured every dimension of life in medieval Europe, subordinating human freedom to an autonomous technical logic that expands for its own sake.

The Social Shaping of Technology

• The counter-position denies that technology has any autonomous logic at all, insisting instead that every artefact already carries the assumptions, interests and hierarchies of whoever designed it.
• Donald MacKenzie and Judy Wajcman argued that technology is a social product from the outset — design choices embed a designer’s assumptions about who will use an artefact, for what purpose, and under what constraints, so calling a technology “neutral” only hides those choices rather than removing them.
• Trevor Pinch and Wiebe Bijker’s social construction of technology (SCOT) framework adds interpretive flexibility: a new artefact does not arrive with one fixed meaning; different “relevant social groups” contest what it is even for, and the design that eventually settles is a social closure, not a technical inevitability.
  • Their standard illustration is the bicycle. Its early high-wheeled “penny-farthing” form was read by some groups as a sporting machine for athletic young men and by others as dangerously unsafe; the design that finally won — lower, safer, chain-driven — reflected whose objections and whose riding counted, not a single obvious engineering optimum.

Robert Merton and the Ethos of Science

• Robert Merton approached science not as a body of discoveries but as a social institution with its own normative structure, summarised in four norms often abbreviated as CUDOS.
• Communism (or communalism) treats scientific findings as the common property of the whole community once published, not the private property of their discoverer.
• Universalism requires that a claim be judged by impersonal, pre-established criteria of evidence and logic, never by the race, nationality, religion or personal status of whoever is making it.
• Disinterestedness expects the working scientist to pursue knowledge for its own sake rather than personal gain, institutional prestige, or a predetermined conclusion.
• Organised scepticism subjects every claim, however authoritative its source, to systematic and collective scrutiny before the community accepts it.
• In his broader Merton thesis, set out in a 1938 study of seventeenth-century England, he argued that ascetic Puritan values — a this-worldly duty to master nature usefully, joined to disciplined and methodical labour — actively legitimated and encouraged the new experimental science, reversing the common assumption that religion could only obstruct scientific inquiry.

Thomas Kuhn and the Structure of Scientific Revolutions

• Thomas Kuhn, in The Structure of Scientific Revolutions (1962), rejected the popular image of science as a steady, cumulative march toward truth, arguing instead that scientific change happens through rupture.
• A paradigm is the shared framework of assumptions, methods, and exemplary past achievements that binds a scientific community together and defines what counts as a meaningful question.
• Normal science is puzzle-solving conducted entirely inside a paradigm: researchers extend and refine the paradigm’s picture of the world without questioning its foundational assumptions.
• Anomalies are observations the reigning paradigm cannot explain. A few anomalies are usually absorbed or set aside, but when they accumulate faster than the paradigm can accommodate them, the community enters a crisis.
• A revolution replaces the old paradigm with a new one that redefines the field’s basic questions, standards and vocabulary — Kuhn’s own examples include the shift from Ptolemaic to Copernican astronomy and from Newtonian to relativistic physics.
• Because the old and new paradigms are, in Kuhn’s term, incommensurable — they share no common neutral standard for comparison — a scientist does not so much get argued out of the old paradigm as convert to the new one, and the transition often completes only once an older generation trained in the old paradigm is replaced by a new one.
• This model matters for social change theory generally: it shows that even science, usually treated as the most rational and cumulative of human activities, changes the way societies do — through periods of stability punctuated by conflict and rupture, not smooth linear progress.

Mechanisation, Standardisation and the Restructuring of Economic Life

• Industrial technology’s most immediate effect was not on any single institution but on the basic shape of economic organisation itself.
• Standardisation of goods made cheap mass production possible, which in turn required organised, efficient mass distribution — the rise of the modern textile mill, for instance, forced a corresponding organisation of labour and a more complex system of production and distribution around it.
• Rising productive efficiency freed a growing share of the workforce from direct production and into service and coordination functions — engineers, bookkeepers, buyers of raw material, sellers of finished goods — an occupational category that barely existed in a craft economy.
• The same changes in production and trade created new problems of political regulation: the scope of law expanded, and with it the numbers of legislators, of bureaucrats charged with applying the law, and of lawyers needed to interpret it.
• The status hierarchy of work shifted alongside this — the industrial manual worker’s relative social standing declined even as newer technical and administrative functionaries rose in status, a realignment that has continued as economies move further from goods production toward services and administration.
• Beyond the factory floor, the same technological wave transformed several institutions at once: living standards rose, class structures and their status markers changed, a new middle class consolidated, local folkways and neighbourhood ties weakened, urban ways of life came to dominate over rural ones, and reform movements such as socialism and organised labour politics emerged partly in response to the new industrial order.

Work, Skill and Alienation in the Age of Machines

• Technology’s effect on the status of women in industrial society shows how a change in production method cascades into family and social life: industrialism dismantled the domestic system of production, drew women out of the home and into factories and offices, gave them independent earnings, and in the process reorganised their whole social position — a transformation returned to below in the discussion of gender and technology.
• On the shop floor itself, two theorists offer opposed readings of what mechanisation does to the worker’s relationship with skill.
  • Harry Braverman, in Labor and Monopoly Capital (1974), argued that technology under capitalism is deliberately designed to deskill: Taylorist scientific management separates the conception of work, retained by management, from its execution, left to the worker, transferring the worker’s accumulated craft knowledge into management’s hands as an instrument of control, not merely a technique of efficiency.
  • Robert Blauner, in Alienation and Freedom (1964), offered a more optimistic inverted-U curve: alienation is low in craft production, rises sharply through machine-tending and the mechanised assembly line, and then falls again in highly automated continuous-process industries, where workers regain a sense of responsibility and involvement — making alienation a function of which technology is in use, not simply of who owns it.
• An empirical case sits alongside this debate: Goldthorpe and Lockwood’s “affluent worker” study, carried out in England through the late 1960s and early 1970s, found well-paid factory workers becoming privatised rather than class-conscious — treating the workplace purely as a source of income, showing little pride in the firm or solidarity with co-workers, and investing their sense of identity in family and leisure instead. This pattern of a passive, instrumentally-oriented worker cuts against the assumption, shared by both Braverman and orthodox Marxism, that industrial workers would organise around a shared class interest.
• The contemporary test of the Braverman-versus-Blauner debate is algorithmic management in gig and platform work, where delivery and ride-hailing platforms route, price, monitor and evaluate workers through an app rather than a human supervisor.
  • Recent organisational research describes this arrangement using terms like “digital Taylorism” and the “electronic panopticon” — the algorithm sets the pace and terms of work with a granularity no factory foreman ever had, while its logic of ranking and deactivation stays largely invisible and uncontestable to the worker being managed by it.
  • Despite running on some of the most automated technology in Blauner’s sense, this arrangement reproduces control and precarity rather than the reduced alienation his continuous-process stage would predict, which is why current scholarship on gig work reads closer to Braverman’s deskilling-as-control thesis than to Blauner’s optimistic curve.
• The same technological shift shows up in the changing composition of the workforce: mechanisation and automation have steadily reduced the share of manual, blue-collar labour while expanding non-manual, white-collar and service employment — though the “non-manual” job is not automatically a more autonomous one, since much of it is itself organised along Taylorist or algorithmic lines.

Science as Destroyer and Builder: The Atomic Energy Example

• Atomic energy is technology’s dual character in its starkest form: the same underlying science produced both the deliberate mass destruction of Hiroshima and Nagasaki as an instrument of war, and the promise of abundant, low-cost energy as an instrument of peacetime development.
• This dual-use character is not a special quirk of nuclear technology; it recurs whenever a science-driven capability can be turned equally toward creation or destruction, which is exactly why questions of social responsibility keep returning to atomic and biological technologies specifically.
• The automobile offers a gentler version of the same expansion-and-cost logic: it widens the range of everyday social relationships a person can maintain, but in doing so it also weakens the tightly bound, face-to-face character of the older neighbourhood community.

Communication Technology and the Reorganisation of Social Life

• All communication technology performs the same basic function: the conquest of time and space — extending how far and how fast a message, and therefore an idea or an instruction, can travel beyond the reach of a human voice.
• Speech and gesture are the primary techniques of communication on which every later, “secondary” technique is built; societies confined to only these primary techniques cannot sustain any large, complex or durable organisation, because coordination cannot outrun the limits of face-to-face contact.
• Writing was the first great secondary technique, and alphabetic writing proved more socially consequential than the ideographic scripts that preceded it, because its comparative simplicity allowed more complex political organisation to develop and let cultural elements diffuse far more easily between groups.
• The printing press multiplied writing’s effect by making the reproduction of text cheap for the first time in history.
  • It stimulated the rise of modern science itself, since printed records could now accumulate as a shared, searchable storehouse of knowledge rather than remaining locally unusable manuscripts.
  • It drove a rapid, wide diffusion of ideas and inventions that had previously been the monopoly of a small literate elite, and much of the pace of modern cultural change traces back to this shift.
  • Benedict Anderson extended this into political theory, arguing that mass-produced print in vernacular languages let strangers who would never meet imagine themselves as belonging to the same community — the nation as an “imagined community”, a possibility that print capitalism created and oral culture alone could not.
• Radio, telegraph and telephone extended the same logic into instantaneous transmission; Ogburn catalogued well over a hundred distinct social effects of radio alone, spanning entertainment, education, the spread of information, business organisation and even the pace of further invention.
• The mobile phone carries a further, more personal social meaning: researchers such as James Katz and Satomi Sugiyama describe it functioning as a fashion accessory and a miniature aesthetic statement about its owner, not merely as a communication tool — a reminder that a technology’s social meaning is never exhausted by its technical function.
• Online and digital education is a recent extension of the same communication logic: it detaches teaching from the constraint of a shared physical classroom and, in principle, widens access to instruction well beyond any single institution’s physical capacity. In practice that promise is bounded by the same conditions that bound every communication technology’s reach — a household’s connectivity, its digital literacy, and its access to a private device decide whether the expanded access is real or only nominal, alongside a genuine loss of the informal socialisation a shared physical classroom provides.

Transportation Technology, Urbanisation and Cultural Diffusion

• Where communication technology conquers time, transportation technology conquers physical space, and the two together decide how easily people can meet, trade, or exchange ideas with those in other places.
• Daily life in a modern economy already assumes rapid transport as a background condition — commuting from a suburb into a city or moving goods across a supply chain would be impossible without it, to the point that a single day’s breakdown in transport would visibly disrupt the whole rhythm of a modern society.
• Faster transport reshaped the spatial pattern of social relationships: it encouraged intercontinental trade and growing interdependence between countries, and Ogburn’s own generation read the resulting intermixing of peoples optimistically, as a force capable of replacing inter-group suspicion with cooperation — a claim later history has treated more cautiously than Ogburn did, since closer contact has just as often sharpened group conflict as softened it.
• The airplane added swift long-distance delivery of goods and people to this pattern, and successive transport technologies together produced the growth of cities, with all the specific urban problems — housing pressure, denser and more anonymous social contact, greater dependence on centralised infrastructure — that came with concentrating a large population in one place.
• Transportation technology is also one of the great engines of cultural diffusion: the steamship, the railway, the automobile and the aeroplane, alongside the printing press and radio discussed earlier, steadily eroded the physical isolation that once kept a community’s culture distinct, so that even a geographically isolated people could be drawn into worldwide contact once transport technology reached them. The resulting integration has been much stronger economically than socially — global trade networks matured well before any comparable global social integration did.

Technology, Space and the Network Society

• Twentieth-century transport and communication technologies converged into something more than their sum: a reorganisation of social life around networks rather than fixed physical places.
• Manuel Castells, in The Rise of the Network Society, names this the informational mode of development, in which economic and social activity organises through information networks rather than physical proximity.
• The space of flows — the network of electronic exchanges, transport links and organisational nodes connecting activity across distant places — increasingly displaces the older space of places, where social meaning was anchored to a specific physical location.
• Castells calls the resulting reorganisation of time timeless time: networked coordination compresses and scrambles the older, linear rhythm of clock time.
• Work itself becomes more networked and individualised under this logic, organised around flexible, project-based arrangements rather than a fixed factory shift.
• Those with nothing the network values — no marketable skill, connectivity or capital to offer — are not simply exploited within the system, as classical class theory would expect, but pushed outside it altogether, forming what Castells calls the fourth world of the structurally excluded.
• David Harvey’s parallel concept of time-space compression describes the same process from political economy: capitalism’s continual drive to speed up transport and communication effectively shrinks the world, intensifying competition and instability by making distant events and markets felt almost instantly everywhere.

Ogburn’s Derivative Influences: Tracing a Single Invention’s Chain of Effects

• Ogburn observed that an invention’s influence on the institution it first touches rarely stops there — it keeps travelling outward through a chain of derivative influences.
• His standard illustration is the cotton gin: by making cotton faster and cheaper to process, it encouraged more cotton planting; more planting demanded more labour, met in the antebellum United States by importing more enslaved people, so slavery expanded rapidly as a second-order effect; that expansion of slavery then fed directly into the tensions that produced the Civil War, a third-order effect of the same original invention.
• Ogburn qualified his own example carefully: the gin was never the sole cause of slavery’s growth or of the Civil War, both of which had multiple independent causes, and any invention’s primary effect is itself just one of several factors that jointly produce a further, secondary effect — a caution against over-attributing distant social outcomes to a single technological cause.
  • An invention’s traceable influence typically fades the further out the derivative chain runs; by the third or fourth derivative, other unrelated factors usually dominate and the original invention’s own contribution becomes hard to isolate at all.
• Derivative effects can also converge: several unrelated inventions can jointly produce one outcome none of them was individually built for. Factory machinery, the electric railway, the telephone, the radio and the cinema each had entirely different purposes, yet together they produced the modern city as an unintended, joint by-product.
• One invention can even become the raw material for the next: the need for safe artificial lighting in the new cities spurred the development of kerosene; a waste by-product of kerosene distillation, gasoline, turned out to be a useful fuel in its own right and led to the internal combustion engine, around which the entire modern automobile industry then grew.
• Wider social costs of urban life — crime, family disintegration, expanded state regulation among others — trace back through this same derivative chain to the transportation and communication inventions that made large cities possible in the first place, showing how far and how indirectly a single technological change can eventually reach.

Technology, Risk and Reflexive Modernity

Ulrich Beck’s Risk Society

• Ulrich Beck, in Risk Society (1986), argued that advanced industrial society is turning into a risk society: where an industrial society’s central political problem was how to distribute the goods it produced, a risk society’s central problem is how to distribute the bads — the hazards generated by its own technological success.
• These risks are manufactured, meaning they are produced by human technological and economic decisions rather than arising from nature the way famine or plague once did — climate change, industrial pollution and nuclear contamination are risks of our own making.
• They are also unbounded: unlike older forms of inequality, manufactured risk does not respect class, national or generational boundaries — smog and radioactive fallout, in Beck’s own phrase, are “democratic,” since they eventually reach the rich as well as the poor.
• Many of these risks are invisible, detectable only through the same scientific expertise that helped create them in the first place — a radiation level or a toxin concentration cannot be seen or felt directly, which makes society simultaneously more dependent on expert knowledge and more distrustful of it.
• Because their scale and long-term consequences cannot be reliably calculated in advance, these risks are frequently uninsurable in the way an industrial-age accident or fire could be insured against.
• Beck calls the resulting condition reflexive modernisation: modernity’s own technological and industrial success has generated a new set of problems that only modernity itself produced, so that managing the unintended consequences of modernisation becomes modern society’s central, ongoing task.

Giddens’s Juggernaut of Modernity

• Anthony Giddens captures the same unease with the image of modernity as a juggernaut — an immensely powerful machine that human beings collectively steer and benefit from, but which can also veer out of control and crush what lies in its path.
• Modern life increasingly runs through disembedding: social relationships and everyday transactions are lifted out of their local, face-to-face context and reorganised through expert systems — banking, medicine, engineering, air travel — that ordinary people must simply trust without being able to verify personally.
• This produces what Giddens calls manufactured uncertainty: risk that stems not from an unpredictable natural world but from decisions taken deep inside expert and technological systems, the same underlying mechanism Beck describes from a different angle.

Technology and Rural Society: Agriculture and the Green Revolution

• New agricultural tools and chemical fertilisers raised farm output and, with it, the standard of living of the rural population that had access to them.
• The same efficiency gains reduced the number of hands agriculture actually needed, pushing surplus agricultural labour to migrate toward cities in search of work — mechanisation of agriculture and rural-to-urban migration are two sides of the same process.
• India’s Green Revolution is the clearest illustration of this technology’s double edge: high-yield seeds, assured irrigation and chemical inputs sharply raised food-grain output and helped the country move away from import dependence, but because the new package required capital and irrigation infrastructure that only some farmers and regions had access to, it also widened regional disparities — concentrating gains in already better-endowed areas — and disparities between large, capital-rich farmers and small and marginal cultivators.
• This pattern recurs across most agricultural and rural technology: a genuine aggregate gain in output coexists with a distributive question about who was positioned to capture that gain, a tension returned to below in the discussion of technology’s role in Indian development more generally.

Technology and Gender

The Feminist Critique: Wajcman, Cockburn and the Gendering of Technology

• Judy Wajcman’s feminist analysis of technology, developed across Feminism Confronts Technology and later TechnoFeminism, argues that technology is neither a neutral tool nor an inherently masculine domain, but something socially shaped inside design, engineering and ownership contexts that have historically been dominated by men — so the hierarchies of the society that built a technology tend to get built into the technology itself.
• Her most decisive evidence comes from domestic technology: household labour-saving appliances such as the washing machine and the vacuum cleaner did not actually reduce the number of hours women spent on housework.
  • As appliances made each individual task faster, prevailing standards of cleanliness and domestic care simply rose to absorb the time that had been saved, so the total hours of housework stayed roughly constant.
  • The technology therefore ended up reproducing the housewife role rather than freeing women from it, since the time “saved” was reabsorbed into a higher expected standard of housekeeping rather than converted into free time.
• A separate Japanese study of household technology found a related pattern: modern domestic gadgets and television, while appearing to lighten women’s domestic burden, in practice bound women more securely to the home even as their husbands spent more time away from it — a case where a technology marketed as liberating instead deepened an existing gendered division of space.
• Cynthia Cockburn extends the same argument to skill itself, arguing that technical competence is not a neutral, gender-free capacity but something historically constructed as a marker of masculinity — a construction that then justifies excluding women from technical trades, engineering education and, later, computing and coding, not because women lack aptitude but because “technical” and “masculine” were made to mean much the same thing.
• Applied to newer digital technology, the same critique holds: platforms and algorithms remain designed, coded and owned predominantly by men, harassment disproportionately polices women’s presence in digital spaces, and algorithms trained on historically biased data tend to reproduce that bias rather than correct it — so a nominally open and participatory medium can still reproduce old exclusions in a new form.
• In the Indian context specifically, technology’s effect on women’s status runs in both directions at once: mobile banking, digital literacy missions and remote-work access have opened new avenues of economic participation and information access for women, while the gendered patterns above — from unequal device ownership within a household to online harassment — continue to constrain how fully that access translates into real autonomy.

Science, Technology and Development in India

The Indian and Developmental Angle

• India’s experience with new technology repeatedly raises the same underlying question: a technology can expand a country’s aggregate capability while leaving unresolved, or even sharpening, the question of who actually gets to use it.
• The digital divide is the clearest current example: recent survey data indicates that well under a quarter of rural households have a working internet connection, against roughly two-thirds of urban households, even though rural India holds the larger share of the country’s population — meaning any technology-led reform, from digital banking to online education, reaches an already-connected minority first, though rural adoption is now growing faster than urban adoption off this lower base.
• Mobile telephony shows the opposite dynamic: India largely skipped a mass landline stage and moved straight to mobile connectivity, a genuine case of leapfrogging past an entire generation of fixed-line infrastructure that older industrial economies had to build first.
• Technology transfer without a corresponding transfer of the underlying capability to design, adapt or manufacture that technology locally reproduces dependency in a new form — a country that only ever imports finished technology, rather than building the scientific and industrial base to produce and improve it domestically, stays structurally reliant on whoever holds that base.
• André Béteille’s broader observation about agents of social change applies directly here: a technology can only function as a genuine, inclusive agent of change if it is actually accessible to everyone, not merely to those already positioned to use it — a standard against which initiatives like Digital India have to be judged on access and digital literacy, not only on the existence of underlying infrastructure.
• Online education, discussed earlier as a communication technology, is a live instance of this same access question in India: the same connectivity and device gaps that define the wider digital divide decide whether digital learning genuinely widens access to education or simply gives an existing advantage to households that already had it.

Science, Technology and Social Responsibility

• The social responsibility of science holds that scientific and technological work is never value-free in its consequences, even when the research process itself aims at objective, disinterested knowledge — the atomic and biological sciences discussed earlier are the clearest cases where a discovery carries direct responsibility for how it can be used.
• Democratisation of science and technology is the response many sociologists propose to the unequal-access problem running through this article: decisions about which technologies get developed, funded and deployed should involve the communities affected by them, not remain confined to state agencies, corporations or a narrow scientific elite, precisely because a technology’s benefits and risks are rarely distributed evenly by default.
• In the specific context of removing backwardness in developing societies, this raises a genuine trade-off between importing large-scale, capital-intensive technology quickly and building smaller-scale, labour-intensive, locally appropriate technology more slowly — the first delivers faster aggregate results while risking the disparities and dependency described above, the second protects local employment and capability but at a slower pace of visible change.
• Science has also had a demystifying effect on inherited taboo and superstition: rational, evidence-based explanation of disease, weather and natural disaster has steadily displaced explanations that once rested on supernatural causation, and the Indian Constitution itself makes the “duty to develop scientific temper, humanism and the spirit of inquiry and reform” a fundamental duty of every citizen — formal recognition that scientific literacy also works as a tool of social reform against practices that superstition had long justified.
• The COVID-19 pandemic tested science and technology’s practical role in crisis response directly: accelerated vaccine development, telemedicine, digital contact-tracing and remote-work infrastructure all showed technology’s capacity to substitute for disrupted face-to-face systems.
  • The same crisis also illustrated the risk-society insight discussed earlier — the pandemic response itself generated new problems, from surveillance overreach to unequal vaccine and digital access to an “infodemic” of unreliable information circulating through the same communication technology that carried genuine public-health guidance, showing that a technological response to one risk can manufacture new risks of its own rather than simply resolving the original one.

Veblen’s Summary: Technology’s Reach Across Social Institutions

• Thorsten Veblen’s overview is a useful way to see, at a glance, how far a single technological wave reaches once it is set in motion.

Impact on social life

• Growing individuality at the expense of collective identity
• New problems of urban housing
• Disparity in sex ratios in industrialising and migrant-heavy areas
• Rising crime, corruption and competitive pressure
• Decline of close-knit community life
• New forms of psychic conflict and stress-related illness

Impact on family life

• Disorganisation of the joint family structure
• Growing employment of women outside the home
• A shrinking range of functions performed by the family itself
• Rising incidence of love marriage, inter-caste marriage, later marriage and divorce

Impact on economic life

• Development and consolidation of capitalism
• Large-scale production and expanding trade
• Deepening division of labour and specialisation
• Cyclical economic depression and unemployment
• A generally higher standard of living
• New forms of industrial dispute, occupational disease and workplace accident

Impact on religion

• A general trend toward secularisation

Impact on rural society

• Migration out of agriculture and into urban centres
• Overall agricultural development
• Mechanisation of agricultural production
• Formation of new rural class structures around access to technology and capital

The Verdict: Technology as a Socially Produced, Then Obdurate, Structure

• Neither extreme in the opening debate survives close scrutiny: technology is not an independent force standing outside society and dictating its terms, but society is not perfectly free to shape technology however it likes either.
• Technology is socially produced — shaped, as MacKenzie, Wajcman, and Pinch and Bijker showed, by the interests, assumptions and relative power of the groups involved in designing and adopting it.
• But once a technology is installed at scale — a rail network, an electricity grid, an app-based labour market — it becomes an obdurate structure: a physical and institutional fact that constrains what any later actor, however powerful, can realistically do next, which is the germ of truth inside the determinist position.
• What ultimately decides whether a given technology widens opportunity or deepens inequality is not the technology’s raw capability but who owns and controls it — the same conclusion recurs across this article’s cases, from the Green Revolution’s regional disparities to the digital divide to the gendered design of domestic and digital technology alike.