The traditional historiography of the Scientific Revolution, long dominated by the narrative of a sudden and radical rupture with the medieval past, has historically positioned the sixteenth and seventeenth centuries as an era of unprecedented intellectual discontinuity. According to this classical model, epitomized by the early twentieth-century writings of Alexandre Koyré, the emergence of modern science required the wholesale dismantling of Aristotelian scholasticism. Koyré argued that the transition from a closed, qualitative cosmos to an infinite, geometric universe was primarily conceptual—a fundamental shift in the metaphysical foundations of human thought that could not have evolved incrementally from medieval precedents.
However, the ascendance of the "continuity thesis," initially championed by the French physicist and historian Pierre Duhem in the early 1900s, profoundly challenged this paradigm of sudden revolution. While researching the origins of statics, Duhem unexpectedly encountered sophisticated medieval treatises that anticipated concepts previously attributed solely to later luminaries such as Galileo. Duhem systematically demonstrated that the intellectual scaffolding of the Scientific Revolution—including the impetus theory of motion developed by Jean Buridan and Nicole Oresme in the fourteenth century—was firmly rooted in late medieval scholasticism. Consequently, Duhem contended that the purported "revolution" was merely the maturation of a gradual evolutionary process that had been unfolding within the universities of the Middle Ages.
Despite its invaluable corrective to the myth of a stagnant medieval period, Duhem’s continuity thesis in its strongest formulation is ultimately inadequate for a comprehensive understanding of the birth of modern science. While Duhem persuasively established that early modern natural philosophers inherited vital mathematical and conceptual tools from their medieval predecessors, he fundamentally underestimated the novel epistemological synthesis achieved during the seventeenth century. The medieval scholastic tradition, bound by its theological commitments and reliance on textual authority, engaged in natural philosophy as an exercise in logical deduction and commentary. In contrast, the architects of the Scientific Revolution, such as Kepler and Galileo, forged a fundamentally new methodological paradigm by wedding mathematical abstraction to systematic empirical observation and experimentation.
Thus, to fully apprehend the nature of the Scientific Revolution, historians must navigate between the extremes of Koyré’s radical discontinuity and Duhem’s strict evolutionary continuity. The scientific achievements of the seventeenth century were indeed built upon a robust medieval foundation, yet they transcended those foundations by adopting an entirely unprecedented empirical epistemology. The transformation was not an ex nihilo creation, nor was it a mere logical extension of scholastic physics; rather, it was a profound methodological reorientation that utilized older conceptual materials to construct an entirely new framework for understanding the natural world.
Which one of the following most accurately expresses the primary purpose of the passage?
- Evaluate two opposing historiographical models of a historical phenomenon and advocate for a nuanced synthesis of both perspectivesAnswer
- BArgue that the scientific achievements of the seventeenth century were a profound methodological reorientation rather than a radical conceptual break
- CTrace the historical development of the continuity thesis to demonstrate how medieval impetus theory anticipated the discoveries of later scientists
- DOutline the classical model of a historical period, detail a prominent historian's critique of this model, and describe the methodological paradigm of the subsequent era
- EAnalyze the overarching evolution of the philosophy of science from the Middle Ages to the modern era to establish the inherent limitations of historical periodization