In recent years, few synthetic and interpretative histories of science have been written which overview science from antiquity to the Middle Ages. David C. Lindberg, The Beginnings of Western Science, attempts to synthesize the philosophical, religious, and institutional aspects of this period, focusing on themes of transmission and continuity and profiting from research that was unavailable to past scholars of this genre. Lindberg's purpose was to describe the ancient and medieval scientific tradition, while avoiding Whigish interpretations at all times (excluding the last chapter). This book also provided a good synthesis of many of the books I have read covering Greek, Islamic, and medieval science. Thus, the intent of this essay will be not only to discuss the Lindberg book, but also to briefly compare and contrast it to the views of other scholars that I have read.
While Lindberg confesses that his expertise is in medieval science, I thought that his description of the Greek and Roman period was very good. A staple of most discussions of Greek natural philosophy (or nature inquiry) is a definition of what science is and is not. Lindberg's definition, which is actually a series of definitions, is sufficiently broad to include the Greeks within the realm of science. Yet, he claims that anachronistic value assessments of past science are impossible because the intent and methodology of "scientific" inquiry has changed over time.
Lindberg covered the main questions concerned with Greek thought, including the pre-Socratic questions of ultimate reality, the problem of change, and the epistemological problem of knowledge. He then discussed Plato's senseless (no pun intended) philosophy, his world of forms, and cosmological view of nature. The achievement of this period was, of course, to form a nonsupernatural conception of nature.
Lindberg provided an in-depth discussion of Aristotle, which I consider to be the best that I have read because of how he presented it. Other authors such as Marshall Clagett discussed Greek science by writing separate chapters on Greek biology, mathematics, cosmology, and physics, with Aristotle's contributions discussed in each chapter. This always left me with a discontinuous view of the man. However, Lindberg discussed Aristotle in a single chapter with relevant subsections on his metaphysics, theories of change, cosmology, motion, and biology. This provided a strong background to subsequent chapters which were devoted to Hellenistic natural philosophy, mathematics, medicine, and astronomy.
I thought that Lindberg's presentation of the period of Antiquity was clear, and most importantly, impartial. He had no desire to prove a continuous line of descent from Greek science to the 20th century as, I believe, was the case with G. E. R. Lloyd . Lloyd stated that the most important achievement of Greek science was the establishment of two key methodological principles--the application of mathematics and empirical research. This, he claims, is what the Scientific Revolution was partly based upon. I believe that Lindberg would argue Lloyd's assessment by simply stating that the merits of a philosophy should be judged by predecessors, not successors. More specifically he would argue, "ancient and medieval scholars...did not set out to solve 16th and 17th century scientific problems. Their aim was not to anticipate future worldviews...but to explore their own...and their competence must be judged accordingly." This was one of the most important and enlightening statements that I gained from Lindberg, and its applicability to all past scientific inquiry is universal.
Greek science diffused eastward to Byzantium and was adopted, translated, and commented upon by Islamic scholars. These scholars were motivated to study the Greeks because they sought to participate in an advanced intellectual culture, and they believed Greek science had a utilitarian value. By characterizing Islamic scholars as "disciples" of Greek philosophy, I thought that Lindberg described the achievements of Islamic science clearly. A disciple is not a denigrating term. For example, Islamic astronomy was based on Ptolemy, and yet they made advanced observations on their own.
There are two divergent views as to the fate of Greek science in Islam. The first is the marginality thesis which states that Greek science was never fully integrated into Islamic orthodox thought. Both Lindberg, who cited the wide diffusion of science in Islam, and A. I. Sabra, who stressed the utility and classroom teaching of science, discounted this thesis. The second view states that Greek science was cultivated and embraced. I believe that this is what Sabre intended when he proposed that there was an assimilation of science which resulted in Islamic naturalization. However, Lindberg does not agree with this view either. He believed that Greek learning never found a strong institutional home in Islam, because their schools lacked the uniformity and structure of Western universities. Thus, while Sabre viewed the teaching curriculum as an asset to the naturalization of Greek science, Lindberg interpreted it as "doing nothing to prohibit foreign sciences; but neither did it do much to support them." This is an interesting debate, and one which seems unresolved.
During a transition period in the Middle Ages, there was a revival of learning in the West through the recovery, translation, and assimilation of Greek and Islamic science. Lindberg organized the three main chapters on the late medieval period on the conceptual arrangement of the cosmos by Aristotle in On the Heavens--celestial, sub-lunar, and terrestrial. First, he discussed the celestial region and views of the medieval cosmos. This included discussions concerning the motions of the earth, harmonizing Ptolemaic theory with Aristotelian cosmology, astronomy, and astrology. Second, there was a description of the sub-lunar region physics. What I found unclear here was distinguishing between the ideas of Aristotle and advancements by medieval inquirers. Lindberg made the distinction clear with kinematics, dynamics, and optics; but discussions on matter, form, combination, and motion left me confused as to what advances medieval scholars made. Finally, he discussed the terrestrial sphere with his topics of medicine and natural history. I found it interesting that this was when the first hospitals were formed and that difficult and dangerous surgeries such as cataract removal were attempted.
In the final chapter, Lindberg broke the constraints of his thesis and entered an assessment of the merits and value of medieval science. I was surprised that he did not seek to establish a continuity between medieval science and the Scientific Revolution. In the Scientific Revolution, Lindberg believed that such a radical, methodological, and metaphysical change occurred that modern science began from that point. Yet, the medieval period did make grand contributions to the advancement of science. The institutionalization and systematic teaching in the universities was one of the major achievements in this period with its synthesis of Greek and Islamic philosophy. Other contributions included a critical appraisal of Aristotle and others, along with some continuity in linguistic, conceptual, and theoretical ideas.
I thought that this was an excellent book, and I give it a high recommendation. It is unbiased in its presentation of a vast amount of information, covering a span of two thousand years. As a synthesis and overview of this period, Lindberg has successfully accomplished his intent. He was also courteous to his predecessors such as Lloyd and Clagget in his attempt not to diminish their work, but to enhance it. Science in the Middle Ages is a sometimes nebulous subject to which Lindberg has cast some much needed light.