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The Continuity Thesis and the Scientific Revolution

DAILY RC
SectionVerbal Ability · RC
Time Spent: 00:00
This Question: 00:00
Question No. 1+4 −1MCQ Single Answer
Reading Passage
For generations, historians of science characterized the Scientific Revolution of the sixteenth and seventeenth centuries as a radical epistemological rupture. According to this prevailing narrative, figures like Galileo and Newton unequivocally severed ties with the Aristotelian scholasticism of the Middle Ages, replacing a qualitative, teleological understanding of nature with a rigorously quantitative and empirical framework. This orthodox perspective posited that medieval intellectual traditions were fundamentally antithetical to scientific progress, acting merely as dogmatic impediments that had to be wholly discarded before true science could emerge. In the early twentieth century, however, physicist and historian Pierre Duhem challenged this paradigm with his "continuity thesis." While excavating medieval manuscripts, Duhem discovered that fourteenth-century Parisian scholastics, such as Jean Buridan and Nicole Oresme, had articulated proto-inertial theories of motion—specifically the concept of impetus—that seemingly prefigured Galileo’s own mechanics. Duhem argued that the Scientific Revolution was not a sudden explosion of novel insight but rather the organic culmination of late medieval physics. According to Duhem, the true conceptual watershed occurred not with Galileo, but with the 1277 Condemnations in Paris, which freed Christian thought from the strictures of Aristotelian determinism and catalyzed imaginative, albeit theoretical, physical speculations. Modern historiography acknowledges Duhem’s invaluable contribution in rehabilitating medieval science but finds his continuity thesis ultimately overstated. Contemporary scholars emphasize a crucial methodological divergence that Duhem obscured: while scholastic natural philosophers employed mathematical formulations primarily as hypothetical constructs—an approach rooted in secundum imaginationem (according to the imagination)—early modern scientists asserted that mathematics represented the actual, physical reality of the cosmos. Thus, although Galileo may have inherited specific conceptual vocabulary from his medieval predecessors, his epistemic commitment to mathematical realism constituted a profound discontinuity. The revolution, therefore, resided not necessarily in the formulation of entirely unprecedented concepts, but in the ontological status newly ascribed to mathematical physics.
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