The notion of 'natural kinds' has been central to contemporary discussions of metaphysics and philosophy of science. Although explicitly articulated by nineteenth-century philosophers like Mill, Whewell and Venn, it has a much older history dating back to Plato and Aristotle. In recent years, essentialism has been the dominant account of natural kinds among philosophers, but the essentialist view has encountered resistance, especially among naturalist metaphysicians and philosophers of science. Informed by detailed examination of classification in the natural (...) and social sciences, this book argues against essentialism and for a naturalist account of natural kinds. By looking at case studies drawn from diverse scientific disciplines, from fluid mechanics to virology and polymer science to psychiatry, the author argues that natural kinds are nodes in causal networks. On the basis of this account, he maintains that there can be natural kinds in the social sciences as well as the natural sciences. (shrink)

Natural Sciences and the Social Sciences contains a series of explorations of the different ways in which the social sciences have interacted with the natural sciences. Usually, such interactions are considered to go only `one way': from the natural to the social sciences. But there are several important essays in this volume which show how developments in the social sciences have affected the natural sciences - even the `hard' science (...) of physics. Other essays deal with various types of interaction since the Scientific Revolution. In his general introductory chapter, Cohen sets some general themes concerning analogies and homologies and the use of metaphors, drawing specific examples from the use of concepts of physics by marginalist economists and of developments in the life sciences by organismic sociologists. The remaining chapters, which explore the different ways in which the social sciences and the natural sciences have actually interacted, are written by leaders in the field of history of science, drawn from a wide range of countries and disciplines. The book will be of great interest to all historians of science, philosophers interested in questions of methodology, economists and sociologists, and all social scientists concerned with the history of their subject and its foundations. (shrink)

I present a reconstruction of Eugene Wigner’s argument for the claim that mathematics is ‘unreasonable effective’, together with six objections to its soundness. I show that these objections are weaker than usually thought, and I sketch a new objection.

Kant was centrally concerned with issues in the philosophy of natural science throughout his career. The Metaphysical Foundations of Natural Science presents his most mature reflections on these themes in the context of both his 'critical' philosophy, presented in the Critique of Pure Reason, and the natural science of his time. This volume presents a new translation, by Michael Friedman, which is especially clear and accurate. There are explanatory notes indicating some of the main connections between the (...) argument of the Metaphysical Foundations and the first Critique - as well as parallel connections to Newton's Principia. The volume is completed by an historical and philosophical introduction and a guide to further reading. (shrink)

Applied Natural Science: Environmental Issues and Global Perspectives will provide the reader with a complete insight into the natural-scientific pattern of the world, covering the most important historical stages of the development of various areas of science, methods of natural-scientific research, general scientific and philosophical concepts, and the fundamental laws of nature. The book analyzes the main scientific trends and developments of modern natural science and also discusses important aspects of environmental protection. Topics include: the problem (...) of "the two cultures": the mathematization of natural sciences and the informatization of society; the non-linear nature of the processes occurring in nature and society; application of the second law of thermodynamics to describe the development of biological systems; global problems of the biosphere; theory and practice of stable organic paramagnetic materials; polymers and the natural environment. Key features include: an interdisciplinary approach in considering scientific and technical problems; a discussion of general scientific trends in modern natural science, including globalization challenges in nature and society, the organic chemistry of stable paramagnetic materials, the fundamentals of the environmental chemistry of polymeric materials, etc.; a justification of applying classical (non-equilibrium) thermodynamics to studying the behavior of open (including biological) systems. (shrink)

This paper deals with the contention, coming from two main sources in scientific theory (theory of evolution and string theory), that the conclusions of these theories demonstrate the nonexistence of God. In response to this, the author seeks to show that neither of these arguments is sound; he is not particularly concerned here with proving the existence of God. In the course of the paper, a certain amount of confusion concerning the requirements which these two scientific theories would make of (...) believers is cleared up. The cosmological positions of Aquinas, Hume, Leibniz, Heidegger, Wittgenstein and Lonergan are mentioned, culminating in the ultimate question: ’why should there be any thing at all?’ Like all questions, it arises upon presuppositions. The author does not attempt to answer it here; but tries rather to elucidate its presuppositions. He points out that from natural science there neither is, nor can there be, evidence either to support or to undermine such presupposition. (shrink)

This text addresses the problems of complex systems in understanding natural phenomena and the behaviour of systems related to human activity, from a science and humanities perspective. It discusses molecular behaviour and structures, and offers examples of ecological and environmental modelling.

It is becoming clear that many of today’s management theories are inadequate theoretically and practically to move understanding, scholarship, and practice to where it needs to be for scholars, business leaders, and policy makers to cope with an increasing fraught world. This Special Issue’s focus is on sustainability. Sustainability challenges need to incorporate multidisciplinary interventions and the trans- and interdisciplinary nature of solutions. To actively seek transformation toward sustainability, fundamental and innovative short-term as well as long-term efforts are required in (...) society, economy, technology, and education, including our understanding of human behavior and attitudes toward the management of the environment. This introductory piece presents natural science theories as a promising approach for achieving progress toward transformation for sustainability. (shrink)

Hegel's early philosophical essay demonstrates the need for a pure empiricism and complete formalism in scientific endeavor.

Simulation techniques, especially those implemented on a computer, are frequently employed in natural as well as in social sciences with considerable success. There is mounting evidence that the "model-building era" (J. Niehans) that dominated the theoretical activities of the sciences for a long time is about to be succeeded or at least lastingly supplemented by the "simulation era". But what exactly are models? What is a simulation and what is the difference and the relation between a model (...) and a simulation? These are some of the questions addressed in this article. I maintain that the most significant feature of a simulation is that it allows scientists to imitate one process by another process. "Process" here refers solely to a temporal sequence of states of a system. Given the observation that processes are dealt with by all sorts of scientists, it is apparent that simulations prove to be a powerful interdisciplinarily acknowledged tool. Accordingly, simulations are best suited to investigate the various research strategies in different sciences more carefully. To this end, I focus on the function of simulations in the research process. Finally, a somewhat detailed case-study from nuclear physics is presented which, in my view, illustrates elements of a typical simulation in physics. (shrink)

Once Zheng Xuan, a man of Han dynasty, made notations of “Yiwei”, he said: “The word ‘change’ contains three meanings: the first is simplifying, the second is transformation, and the third is unchanging ”, thus called to “three changes”. The wording “three changes” is able to be the different explanations of “Zhouyi”, and also can be understand to three meanings of the word “change” in “Zhouyi”. Everywhere in the nature, and in nature science, there are incalculable examples about “three changes”. (...) The process of “simplifying”, it is that nature science obtains the principles by means of summing up the multitudinous complex spontaneous phenomena. There is “the fundamental of thinking economy”, and “Aucum razor” in the west, then they emphasize to wipe off the miscellaneous and keep up the simple, and to eliminate the false and retain the true. Therefore, it can say where there is no “simplifying”, there is no nature science. “Transformation” means movement and change. This is the essentiality of the nature. From the biggest such as the universe to the smallest such as cells, all these are the outcomes of evolution, and are changing continueously. Physics researching from static objects to dynamic objects, and mathematics calculation from the constant to the variable, all of these studies are closing up to the essentiality of the natural “transformation” nearer and nearer. If there is no “transformation”, nature science world stop, and the nature world be deathly stillness. “Unchanging” means that the static state exists in the dynamic state, and the constant exists in the variation. The various theorems and laws, such as the theorem of constant of light velocity and the law of conservation of energy, are the summation and accumulation of the regularities of which the relative stabilization is kept in changeable movement. Various kinds of equation are all linked by equal-sign, and based on the condition recognizing which the two sides is equal constantly. Therefore the calculation of the relations between matter characteristics can be set up. Otherwise, not only the nature world be disorder and unsystematic, but also the science world have no laws to go by. (shrink)

Prior to the nineteenth century, those who are now regarded as scientists were referred to as natural philosophers. With empiricism, science was claimed to be a superior form of knowledge to philosophy, and natural philosophy was marginalized. This claim for science was challenged by defenders of natural philosophy, and this debate has continued up to the present. The vast majority of mainstream scientists are comfortable in the belief that through applying the scientific method, knowledge will continue to (...) accumulate, and that claims to knowledge outside science apart from practical affairs should not be taken seriously. This is referred to as scientism. It is incumbent on those who defend natural philosophy against scientism not only to expose the illusions and incoherence of scientism, but to show that natural philosophers can make justifiable claims to advancing knowledge. By focusing on a recent characterization and defense of natural philosophy along with a reconstruction of the history of natural philosophy, showing the nature and role of Schelling’s conception of dialectical thinking, I will attempt to identify natural philosophy as a coherent tradition of thought and defend it as something different from science and as essential to it, and essential to the broader culture and to civilization. (shrink)

This chapter, which discusses how the mind sciences can be used in natural theology, identifies two aspects of human mental functioning to consider from a theological point of view. First, there is the theological significance of the general capacity for advanced mental functioning found in humans. Second, there is the theological significance of particular human capacities such as religion.

The more one reads about the topic of natural kinds, the more one is reminded of that famous scene in The Hitchhiker’s Guide to the Galaxy in which Deep Thought—after a mere 7.5 million years of doing calculations—reveals that the answer to the Ultimate Question of Life, the Universe and Everything was 42. Faced with bewildered reactions from the eager audience, Deep Thought explains: “I think the problem, to be quite honest with you, is that you’ve never actually known (...) what the question is” .In the case of the growing literature on natural kinds, it is easy to get a feeling that something similar is going on. While philosophers keep advancing novel accounts of natural kinds, at the same time there is considerable disagreement about what exactly the problem is that such accounts should solve. To some, natural kinds are real kinds in nature that exist in the world independently of human interests and practices. At the very least, they are human-made kinds that correspon .. (shrink)

Though Kant is best known for his strictly philosophical works in the 1780s, many of his early publications in particular were devoted to what we would call 'natural science'. Kant's Universal Natural History and Theory of the Heavens (1755) made a significant advance in cosmology, and he was also instrumental in establishing the newly emerging discipline of physical geography, lecturing on it for almost his entire career. In this volume Eric Watkins brings together new English translations of Kant's (...) first publication, Thoughts on the True Estimation of Living Forces (1746-1749), the entirety of Physical Geography (1802), a series of shorter essays, along with many of Kant's most important publications in natural science. The volume is rich in material for the student and the scholar, with extensive linguistic and explanatory notes, editorial introductions and a glossary of key terms. (shrink)

(2005). Natural Science and the Experience of Nature. Angelaki: Vol. 10, continental philosophy and the sciences the german traditionissue editor: damian veal, pp. 187-199.

This chapter demonstrates the significance of the biological sciences in natural theology. It does so by considering three major topics: the argument from design, the problem of evil, and the place of humans in the cosmic scheme of things. In the light of modern biology, specifically modern Darwinian evolutionary theory, there is little support for definitive proofs of the nature and existence of the Christian God. However, notwithstanding arguments to the contrary, there is nothing in modern Darwinian evolutionary (...) theory that makes impossible a belief in a traditional form of Christianity. (shrink)

In this paper, I aim to discuss E. J. Lowe's view of the synergy between metaphysics and natural science. In doing so, I will extend Lowe’s synergistic model to develop a realist account of theological claims thereby responding to Byrne’s strong form of eliminativism and agnosticism about theological claims. The paper is divided up as follows. In section 1, I will discuss Lowe’s view of metaphysics. In section 2, I will explain how Lowe thinks metaphysics and natural science (...) are related. In section 3, I will respond to objections against Lowe’s conception of metaphysics. In section 4, I will discuss the implications of Lowe’s conception of metaphysics for a realist account of theological claims. In section 5, I will conclude this paper by claiming that there are excellent reasons to extend the synergy between metaphysics and natural science to that of theology as well. (shrink)

This chapter discusses chemistry's connection to natural theology, tracing the history of chemistry from its origins in alchemy to developments in the twentieth century. Alchemists sought to ape and speed up God's creation, but were concerned about whether artificial gold would be the same as natural gold. Modern chemists too, as they sought to improve the world through their syntheses of dyes, vitamins, and textiles, have been taxed with producing poor substitutes for the natural and the organic. (...) God's creations are still seen as superior to humans'. The nature of chemistry has made it a less-obvious science for natural theology, but by no means a barren field. (shrink)

The topic of cheating among college students has received considerable attention in the education and psychology literatures. But most of this research has been conducted with relatively small samples and individual projects have generally focused on students from a single campus. These studies have improved our understanding of cheating in college, but it is difficult to generalize their findings and it is also difficult to develop a good understanding of the differences that exist among different academic majors. Understanding such differences (...) may be important in developing improved strategies for combating college cheating. The objective of this paper is to examine the relation between cheating and the choice of academic major with a particular focus on natural science and engineering majors. The data source for this analysis is a study of over 4,000 students from 31 campuses which was conducted in the 1995–1996 academic year. (shrink)

The notion of 'natural kinds' has been central to contemporary discussions of metaphysics and philosophy of science. In recent years, essentialism has been the dominant account of natural kinds among philosophers, but the essentialist view has encountered resistance. Informed by detailed examination of classification in the natural and social sciences, Prof. Muhammad Ali Khalidi argues against essentialism and for a naturalist account of natural kinds. By looking at case studies drawn from diverse scientific disciplines, from (...) fluid mechanics to virology and polymer science to psychiatry, the author argues that natural kinds are nodes in causal networks. On the basis of this account, he maintains that there can be natural kinds in the social sciences as well as the natural sciences. (shrink)

The author proposes the thesis that all perception, including observation in natural science, is hermeneutical as well as causal; that is, the perceiver (or observer) learns to 'read' instrumental or other perceptual stimuli as one learns to read a text. This hermeneutical aspect at the heart of natural science is located where it might be least expected, within acts of scientific observation. In relation to the history of science, the question is addressed to what extent the hermeneutical component (...) within scientific observation opens natural science to the charge of reflecting merely cultural values, and of providing merely a culturally acceptable reading of the "Book of Nature", rather than, as the author states, one stating universal antecedent conditions of possibility of cultural activity itself. (shrink)

Edmund Husserl EDMUND GUSTAVE ALBRECHT HUSSERL was born in Prossnitz, Moravia, on April 8, 1859. After receiving his secondary education in Vienna, ...

The object of this work is the interdisciplinary dialogue between natural sciences and Christian theology. The objective is to study the theological, epistemological and semantic conditions that make possible an articulation between scientific worldviews and theological discourses. In this study "to articulate" means that scientific theories and theological discourses do not share the same semantic horizon. At the same time, the verb "to articulate" implies that there is a possible mediation between scientific worldviews and systematic theology. The main (...) thesis of this study is that an articulation between scientific worldviews and systematic theology is possible through the mediation of philosophy. Natural sciences and philosophy refer to the order of manifestation where real things appear as phenomena. Christian theology refers to the order of revelation where God communicates Himself to the human person. The relationship between these two orders can be expressed with the maxim: neither confusion nor separation. Furthermore, there is a positive formulation of that relation: revelation assumes and transfigures what is manifested. This model of relation is the fundamental theological condition that makes possible an articulation between natural sciences and theology. In addition, there is an epistemological condition: the homologous rational structure of each rational field (sciences, philosophy and theology). Based on these theological and epistemological conditions, this research work proposes a theological method that articulates scientific worldviews into systematic theology through the mediation of philosophy. The method seeks two objectives: (a) that theology remains in ist epistemological boundaries and (b) to respect symmetrically the autonomy of natural sciences' procedures. Finally, the proposed method is applied to three examples: the elaboration of theological discourses, in dialogue with natural sciences, about (i) creation, (ii) human action and (iii) a spiritual contemplation of God's presence in the world. This research follows the contributions of two major scholars of the twentieth century: Jean Ladriere and Xavier Zubiri. Our considerations are based on the scholars' analyses of the plurality of epistemologies and their analyses of the intellectual act. (shrink)

The article discusses the formal classification of natural sciences, which is based on several propositions: (a) natural sciences can be separated onto independent and dependent sciences based on the gnosiologic criterion and irreducibility criteria (principal and technical); (b) there are four independent sciences which form a hierarchy: physics ← chemistry ← terrestrial biology ← human psychology; (c) every independent science except for physics has already developed or will develop in the future a set of (...) final paradigms formulated in the terms of the science one step above it in the hierarchy; (d) some paradigms in physics will never become final; (e) each independent natural science has dependent sciences with paradigms already expressed in the terms of the respective independent sciences. Existing paradigms of independent natural sciences are listed and discussed with respect to the degree of their approach to the final state. Normal 0 false false false EN-US X-NONE X-NONE /* Style Definitions */ table.MsoNormalTable {mso-style-name:"Table Normal"; mso-tstyle-rowband-size:0; mso-tstyle-colband-size:0; mso-style-noshow:yes; mso-style-priority:99; mso-style-qformat:yes; mso-style-parent:""; mso-padding-alt:0in 5.4pt 0in 5.4pt; mso-para-margin:0in; mso-para-margin-bottom:.0001pt; mso-pagination:widow-orphan; font-size:11.0pt; font-family:"Calibri","sans-serif"; mso-ascii-font-family:Calibri; mso-ascii-theme-font:minor-latin; mso-fareast-font-family:"Times New Roman"; mso-fareast-theme-font:minor-fareast; mso-hansi-font-family:Calibri; mso-hansi-theme-font:minor-latin; mso-bidi-font-family:"Times New Roman"; mso-bidi-theme-font:minor-bidi;}. (shrink)

Aristotle argued that in theory one could acquire knowledge of the natural world. But he did not stop there; he put his theories into practice. This volume of new essays shows how Aristotle's natural science and philosophical theories shed light on one another. The contributors engage with both biological and non-biological scientific works and with a wide variety of theoretical works, including Physics, Generation and Corruption, On the Soul, and Posterior Analytics. The essays focus on a number of (...) themes, including the sort of explanation provided by matter; the relationship between matter, teleology, and necessity; cosmic teleology; how an organism's soul and faculties relate to its end; how to define things such as sleep, void, and soul; and the proper way to make scientific judgments. The resulting volume offers a rich and integrated view of Aristotle's science and shows how it fits with his larger philosophical theories. (shrink)

This article tackles issues central to most academic disciplines, including scientific boundary demarcation, the battle of the faculties, the theory of science, and the conflict between nomothetic and idiographic methodologies, that is, between the two main approaches to science. It does so through discovering and rethinking a Methodenstreit in Swedish political science, an academic dispute involving Professor Rudolf Kjellén, the father of geopolitics, and his greatest rival, Professor S. J. Boëthius. Shortly after retiring from the Johan Skytte Professorship at Uppsala (...) University, S. J. Boëthius published a great but inaccessible work on state theory and its history entitled Om statslivet (On the life of the state, 1916). The book critiques the positivistic and nomothetic (law-searching) approaches of the burgeoning social sciences, which were emancipating themselves from their father, history, and becoming independent disciplines. Boëthius critiqued the nomothetic studies of history, economics, statistics, sociology, and geopolitics for overemphasizing the significance of historical, economic, statistical, sociological, and geographical environments and structures. Thus, the exponents of these new or changing disciplines were criticized for neglecting the most important driving force of human affairs in Boëthius’s mind, namely, the power of personality and individual free will. (shrink)

In this paper, I investigate how different views about the vertical and horizontal structure of reality affect the debate between reductive and nonreductive physicalism. This debate is commonly assumed to hinge on whether there are high-level, special-science properties that are distinct from low-level physical properties and whether the alleged multiple realizability of high-level properties establishes this. I defend a metaphysical interpretation of nonreductive physicalismin the absence of both of these assumptions. Adopting an independently motivated, discipline-relative account of natural properties (...) and appealing to a phenomenon I call “multiple determinativity,” in which a single physical property simultaneously realizes different kinds of special-science properties, is sufficient to show that some special-science properties are irreducible to physical properties and that nonreductive physicalism is not merely a terminological variant of reductive physicalism. (shrink)

How do-or how should-we parse the world into kinds of things? Going back at least to Plato, most philosophers have done so with respect to some notion or other of natural kinds. And many analyses of natural kinds have been essentialistic-that is defining those kinds with respect to universals, or some set of intrinsic properties, or necessary and sufficient conditions. And there's a long-standing dispute between thinkers who regard scientific categories as natural kinds with essential properties fixed (...) by nature-those that "cut nature at its joints"-and thinkers who maintain that our classifications and categories have no essence and instead merely reflect human interests and values. A typical example of the former would be "having a mass of 1.7 × 10-27," and examples of the latter would be the categories of "ADHD," "race," or "child abuse." Khalidi aims for an epistemic, naturalistic, non-essentialist, account of natural kinds, one which comfortably embraces not only the usual candidates favored by essentialists (e.g., elementary particles, chemical elements, biological species), but also categories in the social and behavioral sciences. Drawing on cases from many scientific fields, from fluid mechanics and polymer science to virology and psychiatry, Khalidi argues that "natural kinds are investigative or epistemic kinds, in the sense that they are the categories revealed by our systematic attempts to gain knowledge of nature" (p. 43). Moreover, he claims that natural kinds can be "fuzzy" (i.e. have indefinite boundaries), satisfy epistemic virtues to varying degrees, and be mind-dependent in a way that doesn't detract from their reality or objectivity. Although the book is pitched for a sophisticated and philosophically informed audience (and, needless to say, too complex to be adequately summarized in a brief notice such as this), it's clearly written, nuanced, compellingly argued, and worth the effort for JSE readers curious about the unavoidable metaphysical dimensions of doing science of any kind. (shrink)

Os Sertões, by the engineer Euclides da Cunha, is one of the most important books in Brazilian literature, with more than 50 local editions and translations in at least nine languages. Published in 1902 after four years of writing, it is a book about nationality in Brazil that sparked a debate regarding the subject of national consciousness and the connection between a nation's physical landscape, its people, and its culture. The book draws from a wide spectrum of knowledge that synthesizes (...) science and art as the pinnacle of human thought. Cunha was a man of great culture and learning and in this work his professional activities and scientific writings merge to celebrate Brazilian culture in different realms of knowledge. The author worked as an engineer and had connections with the scientific community and the world of natural science. His explicit references to naturalists, travelers, geologists, and botanists reflect the historical moment of scientific knowledge in Brazil in the late nineteenth and early twentieth century, and no less than that, Cunha's personal connections with the local scientific community. (shrink)

During the 1870s animal morphologists and embryologists at Cambridge University came to dominate British zoology, quickly establishing an international reputation. Earlier accounts of the Cambridge school have portrayed this success as short-lived, and attributed the school's failure to a more general movement within the life sciences away from museum-based description, towards laboratory-based experiment. More recent work has shown that the shift in the life sciences to experimental work was locally contingent and highly varied, often drawing on and incorporating (...) aspects of museum work. Thus in order to understand the more general changes, studies of particular sites are needed. Here I examine the organisation of teaching at Cambridge, both in terms of the spaces in which it was taught and the ways in which teaching and examining were organised, to bring out the complexities of the 'revolt from morphology' and to show in more detail the institutional aspects that intertwined with intellectual change. Francis Maitland Balfour, as head of the Cambridge school, was able to make use of family connections and his own personal wealth to promote morphology. His successor lacked these resources, and one competition within the natural sciences at Cambridge intensified, morphology was unable to compete properly. (shrink)

Ronald Giere and others aspire to 'naturalize science' by examining scientific activity as they would any other natural phenomenon — scientifically. Giere aims to fashion a theory of science that is naturalistic, realistic, and evolutionary, and to thus carve for himself a niche between foundationalist philosophies of science (positing abstract criteria of rationality) on the one hand, and relativist sociologies of science on the other. Giere's approach is appealing because it allows that science is a human endeavor pursued by (...) humans using human cognitive skills. The cognitive skills most salient to science, in Giere's view, are the ability to represent the world more or less accurately, and the ability to choose more or less accurately between available theories. These skills, Giere believes, have been endowed by evolution. We believe that Giere's account is inadequate because it gives short shrift to rationality. Giere places too much emphasis on natural modeling skills and on natural heuristics for judging the relative merits of these models, and too little emphasis on the systematic attempts to reflect on, find fault with, and modify, models that characterize so much of scientific activity. This aspect of science and other human endeavor — the creative, contemplative, reflective, in short the rational aspect of representation — is all but lacking in Giere's study. Thus, Giere's account of science, like other naturalist accounts, excludes precisely that which is most important, and which most needs to be explained, about science. (shrink)

A fundamental problem in science is how to make logical inferences from scientific data. Mere data does not suffice since additional information is necessary to select a domain of models or hypotheses and thus determine the likelihood of each model or hypothesis. Thomas Bayes’ Theorem relates the data and prior information to posterior probabilities associated with differing models or hypotheses and thus is useful in identifying the roles played by the known data and the assumed prior information when making inferences. (...) Scientists, philosophers, and theologians accumulate knowledge when analyzing different aspects of reality and search for particular hypotheses or models to fit their respective subject matters. Of course, a main goal is then to integrate all kinds of knowledge into an all-encompassing worldview that would describe the whole of reality. A generous description of the whole of reality would span, in the order of complexity, from the purely physical to the supernatural. These two extreme aspects of reality are bridged by a nonphysical realm, which would include elements of life, man, consciousness, rationality, mental and mathematical abstractions, etc. An urgent problem in the theory of knowledge is what science is and what it is not. Albert Einstein’s notion of science in terms of sense perception is refined by defining operationally the data that makes up the subject matter of science. It is shown, for instance, that theological considerations included in the prior information assumed by Isaac Newton is irrelevant in relating the data logically to the model or hypothesis. In addition, the concepts of naturalism, intelligent design, and evolutionary theory are critically analyzed. Finally, Eugene P. Wigner’s suggestions concerning the nature of human consciousness, life, and the success of mathematics in the natural sciences is considered in the context of the creative power endowed in humans by God. (shrink)