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For much of the nineteenth and early twentieth centuries, the history of science and technology was written as a story of steady progress—a parade of great minds and breakthrough inventions marching toward the present. But by the mid-twentieth century, historians began to ask whether that narrative was hiding as much as it revealed. Did scientific knowledge really accumulate in a straight line? Was technology an autonomous force driving society, or was it shaped by social interests? These questions opened a series of debates that transformed the field into a richly contested arena of competing frameworks, each offering a different answer to the same fundamental tension: how should we account for the relationship between knowledge, material artifacts, and the societies that produce them?
The earliest systematic approach to the history of science was Whig History of Science, a teleological narrative that judged past science by how well it anticipated modern truths. Whig historians celebrated precursors and dismissed dead ends, treating the past as a ladder leading inevitably to the present. This framework dominated popular and textbook accounts from the mid-nineteenth century onward, but it faced growing criticism for its presentism and lack of historical empathy.
A more disciplined alternative emerged with Internalist History of Science, which focused on the intellectual content of science—theories, experiments, and conceptual developments—treated as largely autonomous from social context. Internalists wrote detailed reconstructions of scientific reasoning, tracing how ideas evolved through internal logic. At roughly the same time, historians of technology developed a parallel framework: Technological Determinism, which held that technology develops according to its own internal logic and then impacts society from the outside. Both Internalism and Technological Determinism shared a commitment to autonomous progress, but they differed in object: Internalism centered on scientific ideas, Technological Determinism on material artifacts. They coexisted comfortably, each reinforcing the other's assumption that the history of science and technology could be told without much attention to the broader social world.
The first major challenge to internalist assumptions came from Externalist History of Science, which argued that scientific ideas could not be understood apart from their social, economic, and political contexts. Externalists pointed to the influence of patronage, religion, and national rivalries on the direction of research. This framework reacted directly against Internalism by insisting that context was not merely background but a causal factor in scientific change. Yet Externalism still treated science as a body of knowledge that was shaped by society from the outside, leaving the content of science itself largely untouched.
A deeper rupture arrived with Kuhnian Scientific Revolutions, introduced in Thomas Kuhn's The Structure of Scientific Revolutions (1962). Kuhn argued that science does not progress cumulatively but through periodic paradigm shifts—revolutionary episodes in which the entire framework of assumptions, methods, and standards changes. Normal science operates within a paradigm, solving puzzles until anomalies accumulate and trigger a crisis. Kuhn's model challenged both Internalism (by denying linear progress) and Externalism (by locating change in the internal dynamics of scientific communities rather than in external social forces). His work transformed the historiography of science, but it also left open questions: if paradigms are incommensurable, how do we compare them? And what about technology, which seemed to lack clear paradigms?
The 1970s saw a radical extension of the social turn. The Sociology of Scientific Knowledge (SSK) , especially the Strong Programme at Edinburgh, argued that even the content of scientific knowledge—theories, facts, and experimental results—should be explained sociologically. SSK reacted against both Internalism (which ignored social factors) and Externalism (which treated social factors as mere context rather than constitutive of knowledge). SSK insisted on symmetry: true and false beliefs alike required social explanation. This principle opened the door to detailed case studies showing how scientific controversies were settled through negotiation, interests, and rhetorical strategies.
Laboratory Studies emerged in the late 1970s as a methodological extension of SSK. Ethnographers like Bruno Latour and Steve Woolgar entered scientific laboratories to observe knowledge in the making. Laboratory Studies narrowed the scale of analysis from macro-level social interests to micro-level practices: inscription devices, conversations, and material manipulations. This approach revealed that scientific facts are constructed through local, contingent processes—a finding that SSK had theorized but not yet demonstrated in real time.
Meanwhile, historians of technology developed their own social frameworks. Large Technological Systems (LTS) , pioneered by Thomas Hughes, analyzed technologies like electric power grids and telephone networks as systems that grow through momentum, reverse salients, and system builders. LTS emphasized the internal dynamics of technological change without reducing it to social interests alone. It coexisted with Social Construction of Technology (SCOT) , which applied SSK's symmetry principle to technology. SCOT, developed by Trevor Pinch and Wiebe Bijker, argued that technological artifacts are interpretively flexible: different social groups attribute different meanings to the same device, and closure occurs when one interpretation stabilizes. SCOT and LTS differed in emphasis: SCOT foregrounded social negotiation, while LTS highlighted the material and systemic logic of technological growth.
Actor-Network Theory (ANT) , developed by Bruno Latour, Michel Callon, and John Law, absorbed the ethnographic methods of Laboratory Studies but broke decisively with SSK's social reductionism. ANT insisted on symmetry between human and non-human actors: both scientists, instruments, natural objects, and technical artifacts participate in networks that produce knowledge and technology. This move challenged SCOT's assumption that only human social groups shape technology; ANT gave material agency a constitutive role. The rivalry between SCOT and ANT turned on this point: SCOT saw technology as socially constructed, while ANT saw society and technology as co-constructed through heterogeneous networks. ANT also transformed the study of science by refusing to treat nature as a passive resource; instead, nature itself is enacted through scientific practices.
From the 1980s onward, the field diversified into several living traditions that continue to shape research today. Feminist History of Science and Technology emerged as a critique of both internalist and constructivist frameworks. Internalism had ignored women's contributions and gendered assumptions in scientific practice; constructivist approaches, while attentive to social context, often overlooked how gender structures scientific institutions, knowledge claims, and technological design. Feminist historians showed that categories like objectivity and rationality are historically gendered, and they recovered the work of women scientists and technicians. This framework remains active, intersecting with other approaches to analyze how power and identity shape knowledge.
Historical Epistemology took a different path, drawing on Kuhn's historicization of scientific concepts but pushing further into philosophical territory. Rather than studying scientific communities or practices, historical epistemologists examine the historical conditions under which fundamental categories—objectivity, evidence, observation, fact—emerged and changed. This framework bridges the history and philosophy of science, offering a way to historicize the very standards by which science judges itself. It remains a vibrant tradition, especially in European scholarship.
Global History of Science and Technology emerged around 2000 as a direct challenge to the Eurocentrism embedded in earlier frameworks. Whig history, Internalism, and even many constructivist studies had taken the West as the default locus of scientific and technological innovation. Global historians argue that science and technology are produced through circulation, exchange, and co-production across cultures, not through diffusion from a single center. This framework draws on postcolonial theory and network analysis to study how knowledge travels, how indigenous knowledge systems interact with Western science, and how global inequalities shape research agendas. It remains one of the most dynamic and contested approaches today.
Today, no single framework dominates the historiography of science and technology. The leading active frameworks—Feminist History, Historical Epistemology, and Global History—agree on several core points: science and technology are thoroughly social and historical phenomena; they cannot be understood through internalist narratives of autonomous progress; and power relations (gender, race, empire) are constitutive of knowledge and artifacts. Yet they disagree on what to foreground. Feminist historians emphasize gender and embodiment; historical epistemologists focus on conceptual categories; global historians stress circulation and colonial encounters. Meanwhile, older frameworks like Whig history and Technological Determinism have largely been abandoned as naive, while SSK, Laboratory Studies, LTS, and SCOT have been absorbed or narrowed into more specialized tools. ANT remains influential but is often used selectively rather than as a comprehensive program. The field today is marked by productive pluralism: historians draw on multiple frameworks depending on their questions, and the liveliest debates concern how to integrate material agency, global perspectives, and political critique into a coherent account of science and technology in history.