Almost everyone has an intuitive notion of what a random number is. For example, consider these two series of binary digits: 01010101010101010101 01101100110111100010 The first is obviously constructed according to a simple rule; it consists of the number 01 repeated ten times. If one were asked to speculate on how the series might continue, one could predict with considerable confidence that the next two digits would be 0 and 1. Inspection of the second series of digits yields no such comprehensive (...) pattern. There is no obvious rule governing the formation of the number, and there is no rational way to guess the succeeding digits. The arrangement seems haphazard; in other words, the sequence appears to be a random assortment of 0's and 1's. (shrink)

What could be more certain than the fact that 2 plus 2 equals 4? Since the time of the ancient Greeks mathematicians have believed there is little---if anything---as unequivocal as a proved theorem. In fact, mathematical statements that can be proved true have often been regarded as a more solid foundation for a system of thought than any maxim about morals or even physical objects. The 17th-century German mathematician and philosopher Gottfried Wilhelm Leibniz even envisioned a ``calculus'' of reasoning (...) such that all disputes could one day be settled with the words ``Gentlemen, let us compute!'' By the beginning of this century symbolic logic had progressed to such an extent that the German mathematician David Hilbert declared that all mathematical questions are in principle decidable, and he confidently set out to codify once and for all the methods of mathematical reasoning. (shrink)

The book Time and Eternity , the English version of Zeit und Ewigkeit , by Antje Jackelén, contains scientific and theological treatments of these two topics, starting with the usage of such ideas in German, Swedish, and English hymns. This essay describes her work and explains how the scientific ideas provide a coherent framework for understanding the place of time.

This article is about a start-up problem in scientific practice. Specifically, it is about the problem of justifying paleontological correlation—the practice of using fossils to establish time relations among fossiliferous rocks. Paleontological correlation was the key to assembling a geological timescale during the nineteenth century and remains an important practice in stratigraphic geology to this day. Yet contrary to philosophical expectations, this practice lacked a robust theoretical justification during the first half of the nineteenth century. This article examines (...) what this lack of justification amounted to, as well as how the method of paleontological correlation was justified in practice. (shrink)

(1997). Scientific foundations for a global ethic at a time of evolutionary crisis. World Futures: Vol. 49, The Dialatic of Evolution: Essays in Honor of David Loye, pp. 3-17.

The aim of this interdisciplinary study is to reconstruct the evolution of our changing conceptions of time in the light of scientific discoveries. It will adopt a new perspective and organize the material around three central themes, which run through our history of time reckoning: cosmology and regularity; stasis and flux; symmetry and asymmetry. It is the physical criteria that humans choose – relativistic effects and time-symmetric equations or dynamic-kinematic effects and asymmetric conditions – that establish (...) our views on the nature of time. This book will defend a dynamic rather than a static view of time. (shrink)

We examine critically the interdependence between science and philosophy which Sklar asserts in Space, Time, and Spacetime. We find that such a view makes it difficult to criticize the ideas of science, like that of absolute space, on their own merits, without importing extraneous philosophical associations. It also impedes appreciation of the importance, and subtlety, of explanation in scientific theory. As a result, particular explanations, such as the one Newton offered of his bucket experiment, are dismissed facilely-- indeed, (...) all geometric explanation appears illegitimate--, and such general attitudes as conventionalism appear to lack rationale. (shrink)

Motivated by the developments in contemporary mathematical physics and the related interpretive and historiographical works on these developments, a structuralist and historically constitutive and constructive approach to scientific realism (SHASR) is proposed to address the challenges Thomas Kuhn raised against scientific realism, and to remove the defects of the currently available dissatisfactory responses the structuralists put forward to the challenges. The paper shows that SHASR productively exploits the insights from both Kuhn’s historicism and his critics’ structuralism, while avoids (...) the traps in both traditions. Then, after a brief comparison between SHASR and the increasingly popular neo-Kantian post-Kuhnian philosophy of science recommended and defended by Michael Freedman and some others, it concludes with a big picture about the science-world relationship derived from the notion of emergence conceptualized within the framework of SHASR, whose bearings on the Kantian question of the phenomenal - noumenal relationship are worth further explorations. (shrink)

Pascal’s paper indicates how far we have come. Now as then, however, there is a need to reflect from outside the cocoon of our agencies, institutions, and disciplines to behold the enterprise that shapes both our behavior and our interpretations of it. For the boundary separating propriety from impropriety continues to move. Just as science, and the knowledge it begets, continues to evolve, so must our collective standards. The lessons of time include this: ORI or biomedical research is no (...) island; each is connected to a body of practitioners who are accountable to a society that is ever-more skeptical of expert knowledge and the institutions entrusted with its development. We are participants in a process of continuous improvement , not occupants of a state of grace. For the good of the enterprise we cherish, it is best that we all remember that. (shrink)

The consideration of racial differences in the biology of disease and treatment options is a hallmark of modern medicine. However, this time-honored medical tradition has no scientific basis, and the premise itself, that is, the existence of biological differences between the commonly known races, is false inasmuch as races are only sociocultural constructions. It is time to rid medical research of the highly damaging exercise of searching for supposed racial differences in the biological manifestations of disease. The (...) practice not only condoned but required by the National Institutes of Health of utilizing racial identification as a demographic characteristic with assumed biological implications is at best badly flawed, and at worst unintentionally contributes to perpetuating the fallacy of natural differences between persons of different skin color, which has been used in the past to advance the cause of racial discrimination. (shrink)

When it first appeared, this lucid exposition embodied the author's most advanced thinking on such topics as the finitude or infinity of the universe in space, the age of the universe, theories of "continuous creation", the rival claims made for the use of "ordinary" and "special deductive" methods in cosmological inquiry, and the meaning and importance of theory-construction in scientific cosmology. All currently relevant subject matter has been retained here; this edition also incorporates many revisions and an entirely new (...) chapter that explores the feasibility of reconciling the scientific and theological views of the origin of the universe. (shrink)

This book is an attempt to get to the bottom of an acute and perennial tension between our best scientific pictures of the fundamental physical structure of the world and our everyday empirical experience of it. The trouble is about the direction of time. The situation (very briefly) is that it is a consequence of almost every one of those fundamental scientific pictures--and that it is at the same time radically at odds with our common sense--that (...) whatever can happen can just as naturally happen backwards. Albert provides an unprecedentedly clear, lively, and systematic new account--in the context of a Newtonian-Mechanical picture of the world--of the ultimate origins of the statistical regularities we see around us, of the temporal irreversibility of the Second Law of Thermodynamics, of the asymmetries in our epistemic access to the past and the future, and of our conviction that by acting now we can affect the future but not the past. Then, in the final section of the book, he generalizes the Newtonian picture to the quantum-mechanical case and (most interestingly) suggests a very deep potential connection between the problem of the direction of time and the quantum-mechanical measurement problem. The book aims to be both an original contribution to the present scientific and philosophical understanding of these matters at the most advanced level, and something in the nature of an elementary textbook on the subject accessible to interested high-school students. Table of Contents: Preface 1. Time-Reversal Invariance 2. Thermodynamics 3. Statistical Mechanics 4. The Reversibility Objections and the Past-Hypothesis 5. The Scope of Thermodynamics 6. The Asymmetries of Knowledge and Intervention 7. Quantum Mechanics Appendix: Gedankenexperiments with Heat Engines Index Reviews of this book: The foundations of statistical mechanisms are often presented in physics textbooks in a rather obscure and confused way. By challenging common ways of thinking about this subject, Time and Chance can do quite a lot to improve this situation. --Jean Bricmont, Science Albert is perfecting a style of foundational analysis that is uniquely his own...It has a surgical precision...and it is ruthless with pretensions. The foundations of thermodynamics is a topic that has accumulated a good deal of dead wood; this is a fire that will burn and burn. --Simon W. Saunders, Oxford University As usual with Albert's work, the exposition is brisk and to the point, and exceptionally clear...The book will be an extremely valuable contribution to the literature on the subject of philosophical issues in thermodynamics and statistical mechanics, a literature which has been thin on the ground but is now growing as it deserves to. --Lawrence Sklar, University of Michigan. (shrink)

Scientific understanding as a subject of inquiry has become widely discussed in philosophy of science and is often addressed through case studies from history of science. Even though these historical reconstructions engage with details of scientific practice, they usually provide only limited information about the gradual formation of understanding in ongoing processes of model and theory construction. Based on a qualitative ethnographic study of an ecological research project, this article shifts attention from understanding in the context of historical (...) case studies to evidence of current case studies. By taking de Regt’s contextual theory of scientific understanding into the field, it confirms core tenets of the contextual theory suggesting a normative character with respect to scientific activities. However, the case study also shows the limitations of de Regt’s latest version of this theory as an attempt to explain the development of understanding in current practice. This article provides a model representing the emergence of scientific understanding that exposes main features of scientific understanding such as its gradual formation, its relation to skills and imagination, and its capacity for knowledge selectivity. The ethnographic evidence presented here supports the claim that something unique can be learned by looking into ongoing research practices that can’t be gained by studying historical case studies. (shrink)

This chapter contains sections titled: Chronos and Kairos Chronos and Scientific Time Climate and Garden Aesthetics Subjective Time Objective or Shared Time Cyclical Time The Garden's Times Moving Through the Garden Experiences of Time in the Garden Notes.

We present two case studies from contemporary biology in which we observe conflicts between established and emerging approaches. The first case study discusses the relation between molecular biology and systems biology regarding the explanation of cellular processes, while the second deals with phylogenetic systematics and the challenge posed by recent network approaches to established ideas of evolutionary processes. We show that the emergence of new fields is in both cases driven by the development of high-throughput data generation technologies and the (...) transfer of modeling techniques from other fields. New and emerging views are characterized by different philosophies of nature, i.e. by different ontological and methodological assumptions and epistemic values and virtues. This results in a kind of conflict we call “epistemic competition” that manifests in two ways: On the one hand, opponents engage in mutual critique and defense of their fundamental assumptions. On the other hand, they compete for the acceptance and integration of the knowledge they provide by a broader scientific community. Despite an initial rhetoric of replacement, the views as well as the respective audiences come to be seen as more clearly distinct during the course of the debate. Hence, we observe—contrary to many other accounts of scientific change—that conflict results in the formation of new niches of research, leading to co-existence and perceived complementarity of approaches. Our model thus contributes to the understanding of the pluralization of the scientific landscape. (shrink)

Eastern philosophy and western science have convergent and divergent viewpoints for their explanation of consciousness. Convergence is found for the practice of meditation allowing besides a time dependent consciousness, the experience of a timeless consciousness and its beneficial effect on psychological wellbeing and medical improvements, which are confirmed by multiple scientific publications. Theories of quantum mechanics with non-locality and timelessness also show astonishing correlation to eastern philosophy, such as the theory of Penrose-Hameroff (ORC-OR), which explains consciousness by reduction (...) of quantum superposition in the brain. Divergence appears in the interpretation of the subjective experience of timeless consciousness. In eastern philosophy, meditation at a higher level of awareness allows the personal experience of timeless and non-dual consciousness, considered as an empirical proof for the existence of pure consciousness or spirituality existing before the material world and creating it by design. Western science acknowledges the subjective, non-dual experience, and its multiple beneficial effects, however, the interpretation of spirituality designing the material universe is in disagreement with the Darwinian Theory of mutation and selection. A design should create an ideal universe without the injustice of 3% congenital birth defects and later genetic health problems. The western viewpoint of selection is more adapted to explain congenital errors. The gap between subjectivity and objectivity, the mind-body problem, is in eastern philosophy reduced to the dominance of subjectivity over objectivity, whereas western science attributes equal values to both. Nevertheless, there remains an astonishing complementarity between eastern and western practices. (shrink)

Introduction:Can nature be controlled?. Autonomous nature -- Greco-Roman concepts of nature -- Christianity and nature -- Nature personified : Renaissance ideas of nature -- Controlling nature. Vexing nature : Francis Bacon and the origins of experimentation -- Natural law : Spinoza on natura naturans and natura naturata -- Laws of nature :Lleibniz and Newton -- Epilogue : rambunctious nature in the twenty-first century.

This textbook presents the basics of philosophy that are necessary for the student and researcher in science in order to better understand scientific work. The approach is not historical but formative: tools for semantical analysis, ontology of science, epistemology, and scientific ethics are presented in a formal and direct way. The book has two parts: one with the general theory and a second part with application to some problems such as the interpretation of quantum mechanics, the nature of (...) mathematics, and the ontology of spacetime. The book addresses questions such as "What is meaning?", "What is truth?", "What are truth criteria in science?", "What is a theory?", "What is a model?" "What is a datum?", "What is information?", "What does it mean to understand something?", "What is space?", "What is time?", "How are these concepts articulated in science?" "What are values?" "What are the limits of science?", and many more. The philosophical views presented are "scientific" in the sense that they are informed by current science, they are relevant for scientific research, and the method adopted uses the hypothetical-deductive approach that is characteristic of science. The results and conclusions, as any scientific conclusion, are open to revision in the light of future advances. Hence, this philosophical approach opposes to dogmatic philosophy. Supported by end-of-chapter summaries and a list of special symbols used, the material will be of interest for students and researchers in both science and philosophy. The second part will appeal to physicists and mathematicians. (shrink)

ConclusionsPascal’s paper indicates how far we have come. Now as then, however, there is a need to reflect from outside the cocoon of our agencies, institutions, and disciplines to behold the enterprise that shapes both our behavior and our interpretations of it. For the boundary separating propriety from impropriety continues to move. Just as science, and the knowledge it begets, continues to evolve, so must our collective standards. The lessons of time include this: ORI or biomedical research is no (...) island; each is connected to a body of practitioners who are accountable to a society that is ever-more skeptical of expert knowledge and the institutions entrusted with its development.We are participants in a process of “continuous improvement”, not occupants of a state of grace. For the good of the enterprise we cherish, it is best that we all remember that. (shrink)

The purpose of the article is to reveal the peculiarities of organizing agricultural research and education in Ukraine in the period of the national liberation movements in 1917–1921, and to determine the role of the Agricultural Scientific Committee of Ukraine and the Committee of Agricultural Education in their establishment. The authors compared the models of the development of agrarian research and education under Ukrainian Central Rada, Hetman P. Skoropadskyi, the Directory, and Soviet authorities. Coordination of sectoral science and education (...) in Ukraine began with the establishment the General Secretariat of Land Affairs of the Ukrainian Central Rada in 1917. The conceptual foundations of Ukrainian science and education, the core of which was Ukrainization, were developed by the First and Second All-Ukrainian Pedagogical Congresses, as well as the First All-Ukrainian Agronomic and Economic Congress. Ukrainization primarily concerned the conduct of the scientific and educational process and the writing of new books and textbooks in national language. The article reveals the creative initiatives of the Agricultural Scientific Committee of Ukraine and the Committee of Agricultural Education in coordinating the activities of some institutions to disseminate agricultural knowledge and the organization of sectoral research and education, substantiated by the important role of famous politicians. The use of international experience for the practical confirmation of theoretical skills in various agricultural directions is highlighted. The Agricultural Scientific Committee of Ukraine, simultaneously instituted with the Committee on Agricultural Education, was interested in close creative cooperation on the sectoral specialist training. (shrink)

Scientific realism is a doctrine that was both in and out of fashion several times during the twentieth century. I begin by noting three presuppositions of a succinct characterization of scientific realism offered initially by the foremost critic in the latter part of the century, Bas van Fraassen. The first presupposition is that there is a fundamental distinction to be made between what is “empirical” and what is “theoretical”. The second presupposition is that a genuine scientific realism (...) is committed to their being “a literally true story of what the world is like”. The third presupposition is that there are methods for justifying a belief in the empirical adequacy of a theory which do not also suffice to justify beliefs in its literal truth. Each of these presuppositions raises a number of problems, some of which are quite old and others rather newer. In each case, I briefly review some of the old problems and then elaborate the newer problems. (shrink)

Scientific disagreements are an important catalyst for scientific progress. But what happens when scientists disagree amidst times of crisis, when we need quick yet reliable policy guidance? In this paper we provide a normative account for how scientists facing disagreement in the context of ‘fast science’ should respond, and how policy makers should evaluate such disagreement. Starting from an argumentative, pragma-dialectic account of scientific controversies, we argue for the importance of ‘higher-order evidence’ (HOE) and we specify desiderata (...) for scientifically relevant HOE. We use our account to analyze the controversy about the aerosol transmission of COVID-19. (shrink)

v. 1. The history of philosophy and science from ancient times to the present day -- v. 2. The origin of the mental capacities and dispositions of man and their normal, abnormal and supernormal manifestations.

ArgumentBy the late nineteenth century, science pedagogues and academicians became involved in a vast movement to popularize science throughout the Russian empire. With the aftermath of the 1917 Bolshevik Revolution, many now found the new Marxist state a willing supporter of their goals of spreading science to an under-educated public. In the Stalin era, Soviet state officials believed that the spread of science and technology had to coalesce with the Communist Party's utilitarian goals and needs to revive the industrial sector (...) of the economy. This resulted in a new Stalinist technologically oriented popularization campaign. In the Khrushchev era, Soviet politicians became increasingly more aware of the competitive power of Soviet technology in the global arena and developed extensive campaigns to publicize Soviet feats for a broad domestic and foreign public audience. This was particularly true for topics such as the space program and big technologies such as nuclear power. (shrink)

During the last few years, several sociological accounts of scientific consensus appeared in which a radically skeptical view of cognitive consensus in science was advocated. Challenging the traditional realist conception of scientific consensus as a sui generis social fact, the radical skeptics claim to have shown that the traditional historical sociologist's supposedly definitive account of scientific consensus is only a linguistic chimera that easily can be deconstructed by the application of different interpretive schema to the given data. (...) I will argue in this article that such an idealistic conception of scientific consensus results from the radical skeptics' failure to take into account the following three factors that are central to the historical sociologist's narrative account of consensus formation: the "judgmental" character of the reconstruction of scientists' beliefs, the hierarchical nature of the consensus change in science, and the importance of the "temporal dimension" in the explanation of scientific consensus formation. To substantiate these three points, I will draw extensively on two recent historical-sociological studies of scientific consensus formation. (shrink)

Determination of time-of-death is closely related to the mortality criteria. In prehistoric times, the criteria of death were narrated through the event of the body being evacuated from the spirit or soul leaving the human body. Along with the development of science in the modern era, scientists argue the criteria of biological death and clinical death. This study projected to critically philosophically analyze the time-of-death determination related to scientific criteria. The methods used in the data analysis stage (...) were historical, hermeneutic, comparative, and critical reflection. The results showed that the scientific criteria of death were inadequate to be used in the determination of time-of-death. Time-of-death objectively existed as a separate reality outside of human beings and its existence was absolutely determined or influenced by the existence of other realities. Time-of-death ontologically meant the end of life; epistemologically signified the absence of life and had no mysterious nature; axiologically it was a symbol or metaphor of human powerlessness to judge and determine the continuity of life. (shrink)