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Books > Science & Mathematics > Science: general issues > Philosophy of science
It is widely acknowledged that a central aim of science is to
achieve understanding of the world around us, and that possessing
such understanding is highly important in our present-day society.
But what does it mean to achieve this understanding? What precisely
is scientific understanding? These are philosophical questions that
have not yet received satisfactory answers. While there has been an
ongoing debate about the nature of scientific explanation since
Carl Hempel advanced his covering-law model in 1948, the related
notion of understanding has been largely neglected, because most
philosophers regarded understanding as merely a subjective
by-product of objective explanations. By contrast, this book puts
scientific understanding center stage. It is primarily a
philosophical study, but also contains detailed historical case
studies of scientific practice. In contrast to most existing
studies in this area, it takes into account scientists' views and
analyzes their role in scientific debate and development. The aim
of Understanding Scientific Understanding is to develop and defend
a philosophical theory of scientific understanding that can
describe and explain the historical variation of criteria for
understanding actually employed by scientists. The theory does
justice to the insights of such famous physicists as Werner
Heisenberg and Richard Feynman, while bringing much-needed
conceptual rigor to their intuitions. The scope of the proposed
account of understanding is the natural sciences: while the
detailed case studies derive from physics, examples from other
sciences are presented to illustrate its wider validity.
The ancient kalam cosmological argument maintains that the series
of past events is finite and that therefore the universe began to
exist. Two recent scientific discoveries have yielded plausible
prima facie physical evidence for the beginning of the universe.
The expansion of the universe points to its beginning-to a Big
Bang-as one retraces the universe's expansion in time. And the
second law of thermodynamics, which implies that the universe's
energy is progressively degrading, suggests that the universe began
with an initial low entropy condition. The kalam cosmological
argument-perhaps the most discussed philosophical argument for
God's existence in recent decades-maintains that whatever begins to
exist must have a cause. And since the universe began to exist,
there must be a transcendent cause of its beginning, a conclusion
which is confirmatory of theism. So this medieval argument for the
finitude of the past has received fresh wind in its sails from
recent scientific discoveries. This collection reviews and assesses
the merits of the latest scientific evidences for the universe's
beginning. It ends with the kalam argument's conclusion that the
universe has a cause-a personal cause with properties of
theological significance.
This book presents a multidisciplinary perspective on chance, with
contributions from distinguished researchers in the areas of
biology, cognitive neuroscience, economics, genetics, general
history, law, linguistics, logic, mathematical physics, statistics,
theology and philosophy. The individual chapters are bound together
by a general introduction followed by an opening chapter that
surveys 2500 years of linguistic, philosophical, and scientific
reflections on chance, coincidence, fortune, randomness, luck and
related concepts. A main conclusion that can be drawn is that, even
after all this time, we still cannot be sure whether chance is a
truly fundamental and irreducible phenomenon, in that certain
events are simply uncaused and could have been otherwise, or
whether it is always simply a reflection of our ignorance. Other
challenges that emerge from this book include a better
understanding of the contextuality and perspectival character of
chance (including its scale-dependence), and the curious fact that,
throughout history (including contemporary science), chance has
been used both as an explanation and as a hallmark of the absence
of explanation. As such, this book challenges the reader to think
about chance in a new way and to come to grips with this endlessly
fascinating phenomenon.
Throughout history, humans have dreamed of knowing the reason for the existence of the universe. In The Mind of God, physicist Paul Davies explores whether modern science can provide the key that will unlock this last secret. In his quest for an ultimate explanation, Davies reexamines the great questions that have preoccupied humankind for millennia, and in the process explores, among other topics, the origin and evolution of the cosmos, the nature of life and consciousness, and the claim that our universe is a kind of gigantic computer. Charting the ways in which the theories of such scientists as Newton, Einstein, and more recently Stephen Hawking and Richard Feynman have altered our conception of the physical universe. Davies puts these scientists' discoveries into context with the writings of philosophers such as Plato. Descartes, Hume, and Kant. His startling conclusion is that the universe is "no minor byproduct of mindless, purposeless forces. We are truly meant to be here." By the means of science, we can truly see into the mind of God.
This book aims to enrich our understanding of the role the
environment plays in processes of life and cognition, from the
perspective of enactive cognitive science. Miguel A.
Sepulveda-Pedro offers an unprecedented interpretation of the
central claims of the enactive approach to cognition, supported by
contemporary works of ecological psychology and phenomenology. The
enactive approach conceives cognition as sense-making, a phenomenon
emerging from the organizational nature of the living body that
evolves in human beings through sensorimotor, intercorporeal, and
linguistic interactions with the environment. From this standpoint,
Sepulveda-Pedro suggests incorporating three new theses into the
theoretical body of the enactive approach: sense-making and
cognition fundamentally consist of processes of norm development;
the environment, cognitive agents actually interact with, is an
active ecological field enacted in their historical past; and
sense-making occurs in a domain consisting of multiple normative
dimensions that the author names enactive place.
In this incisive analysis of academic psychology, Gregg Henriques
examines the fragmented nature of the discipline and explains why
the field has had enormous difficulty specifying its subject matter
and how this has limited its ability to advance our knowledge of
the human condition. He traces the origins of the problem of
psychology to a deep and profound gap in our knowledge systems that
emerged in the context of the scientific Enlightenment. To address
this problem, this book introduces a new vision for scientific
psychology called mental behaviorism. The approach is anchored to a
comprehensive metapsychological framework that integrates insights
from physics and cosmic evolution, neuroscience, the cognitive and
behavioral sciences, developmental and complex adaptive systems
theory, attachment theory, phenomenology, and social
constructionist perspectives and is well grounded in the philosophy
of science. Building on more than twenty years of work in
theoretical psychology and drawing on a wide range of literature,
Professor Henriques shows how this new approach to scientific
knowledge fills in the gaps of our current understanding of
psychology and can allow us to develop a more holistic and
sophisticated way to understand animal and human mental behavioral
patterns. This work will especially appeal to students and scholars
of general psychology and theoretical psychology, as well as to
historians and philosophers of science.
What are the reasons for believing scientific theories to be true?
The contemporary debate around scientific realism exposes questions
about the very nature of scientific knowledge. A Critical
Introduction to Scientific Realism explores and advances the main
topics of the debate, allowing epistemologists to make new
connections with the philosophy of science. Moving from its origins
in logical positivism to some of the most recent issues discussed
in the literature, this critical introduction covers the
no-miracles argument, the pessimistic meta-induction and structural
realism. Placing arguments in their historical context, Paul Dicken
approaches scientific realism debate as a particular instance of
our more general epistemological investigations. The recurrent
theme is that the scientific realism debate is in fact a
pseudo-philosophical question. Concerned with the methodology of
the scientific realism debate, Dicken asks what it means to offer
an epistemological assessment of our scientific practices. Taking
those practices as a guide to our epistemological reflections, A
Critical Introduction to Scientific Realism fills a gap in current
introductory texts and presents a fresh approach to understanding a
crucial debate.
Science Without Numbers caused a stir in philosophy on its original
publication in 1980, with its bold nominalist approach to the
ontology of mathematics and science. Hartry Field argues that we
can explain the utility of mathematics without assuming it true.
Part of the argument is that good mathematics has a special feature
("conservativeness") that allows it to be applied to "nominalistic"
claims (roughly, those neutral to the existence of mathematical
entities) in a way that generates nominalistic consequences more
easily without generating any new ones. Field goes on to argue that
we can axiomatize physical theories using nominalistic claims only,
and that in fact this has advantages over the usual axiomatizations
that are independent of nominalism. There has been much debate
about the book since it first appeared. It is now reissued in a
revised contains a substantial new preface giving the author's
current views on the original book and the issues that were raised
in the subsequent discussion of it.
In Poetics of Deconstruction, Lynn Turner develops an intimate
attention to independent films, art and the psychoanalyses by which
they might make sense other than under continued license of the
subject that calls himself man. Drawing extensively from Jacques
Derrida's philosophy in precise dialogue with feminist thought,
animal studies and posthumanism, this book explores the
vulnerability of the living as rooted in non-oppositional
differences. From abjection to mourning, to the speculative and the
performative, it reposes concepts and buzzwords seemingly at home
in feminist theory, visual culture and the humanities more broadly.
Stepping away from the carno-phallogocentric legacies of the
signifier and the dialectic, Poetics of Deconstruction asks you to
welcome nonpower into politics, always sexual but no longer
anchored in sacrifice.
What is consciousness? Does free will exist?There exists a
widespread conviction that the recent scientific discoveries,
especially those related to physics and biology, in particular in
contemporary neurosciences, question the traditional attempts to
give meaning to life and a basis for our moral compass. Current
scientific thinking usually identifies the mind with the mere
exchange of electrical signals among neurons. It claims that
consciousness is an irrelevant epiphenomenon and that introspection
is an unreliable instrument to achieve any form of knowledge. Also,
that the physical universe is causally closed and therefore all
that occurs only has physical causes and all kind of freedom is
excluded. The problem of assigning meaning and purpose to our
lives, to the essential conceptions of the value of human life and
social justice, becomes practically insoluble if one accepts the
predominant notions that supposedly stem from contemporary science.
The clash between the scientific and humanistic conception of human
beings seems to have no option but to abandon the latter.The aim of
this book is to show that, contrary to what is usually considered,
current advances in science allow to re-evaluate the role of
consciousness and human freedom without entering into contradiction
with empirical evidence or scientific theories in place today. The
book starts by analyzing the certainties provided by the scientific
thought and philosophical reflection while discussing the role and
content of physical theories, and in particular, quantum mechanics.
It discusses in detail the nature of quantum objects and the role
they may have in consciousness. In particular, it analyzes models
that allow phenomena of quantum nature to manifest themselves in
the brains of animals and humans, and account for many of the
properties of consciousness. Finally, we analyze how self-conscious
and free entities like persons emerge, making compatible the
scientific view with a renewed and better supported way of
perceiving people, their values and culture.
What information should jurors have during court proceedings to
render a just decision? Should politicians know who is donating
money to their campaigns? Will scientists draw biased conclusions
about drug efficacy when they know more about the patient or study
population? The potential for bias in decision-making by
physicians, lawyers, politicians, and scientists has been
recognized for hundreds of years and drawn attention from media and
scholars seeking to understand the role that conflicts of interests
and other psychological processes play. However, commonly proposed
solutions to biased decision-making, such as transparency
(disclosing conflicts) or exclusion (avoiding conflicts) do not
directly solve the underlying problem of bias and may have
unintended consequences. Robertson and Kesselheim bring together a
renowned group of interdisciplinary scholars to consider another
way to reduce the risk of biased decision-making: blinding. What
are the advantages and limitations of blinding? How can we quantify
the biases in unblinded research? Can we develop new ways to blind
decision-makers? What are the ethical problems with withholding
information from decision-makers in the course of blinding? How can
blinding be adapted to legal and scientific procedures and in
institutions not previously open to this approach? Fundamentally,
these sorts of questions-about who needs to know what-open new
doors of inquiry for the design of scientific research studies,
regulatory institutions, and courts. The volume surveys the theory,
practice, and future of blinding, drawing upon leading authors with
a diverse range of methodologies and areas of expertise, including
forensic sciences, medicine, law, philosophy, economics,
psychology, sociology, and statistics.
This book describes the framework of a new theory of science.Over
the last hundred years, philosophy of science has developed its
theory based on what philosophers perceived what science is and
what scientists do. It does not address the basic questions that
scientists care about. Thus, this book examines the conventional
theories of philosophy of science from a completely different point
of view and describes the most difficult problems that scientists
are concerned about and how science is conducted.This book is based
on the lecture notes under the same title in Honors College at the
junior level in UMASS Lowell. It is qualified as a required course
in Art and Humanity for science and engineering majors.
Did the universe begin to exist? If so, did it have a cause? Or
could it have come into existence uncaused, from nothing? These
questions are taken up by the medieval-though
recently-revived-kalam cosmological argument, which has arguably
been the most discussed philosophical argument for God's existence
in recent decades. The kalam's line of reasoning maintains that the
series of past events cannot be infinite but rather is finite.
Since the universe could not have come into being uncaused, there
must be a transcendent cause of the universe's beginning, a
conclusion supportive of theism. This anthology on the
philosophical arguments for the finitude of the past asks: Is an
infinite series of past events metaphysically possible? Should
actual infinites be restricted to theoretical mathematics, or can
an actual infinite exist in the concrete world? These essays by
kalam proponents and detractors engage in lively debate about the
nature of infinity and its conundrums; about frequently-used kalam
argument paradoxes of Tristram Shandy, the Grim Reaper, and
Hilbert's Hotel; and about the infinity of the future.
Textbooks and other popular venues commonly present science as a
progressive "brick-by-brick" accumulation of knowledge and facts.
Despite its hallowed history and familiar ring, this depiction is
nowadays rejected by most specialists. There currently are two
competing models of the scientific enterprise: reductionism and
antireductionism. Neither provides an accurate depiction of the
productive interaction between knowledge and ignorance, supplanting
the old metaphor of the "wall" of knowledge. This book explores an
original conception of the nature and advancement of science. Marco
J. Nathan's proposed shift brings attention to a prominent, albeit
often neglected, construct-the black box-which underlies a
well-oiled technique for incorporating a productive role of
ignorance and failure into the acquisition of empirical knowledge.
The black box is a metaphorical term used by scientists for the
isolation of a complex phenomenon that they have deliberately set
aside or may not yet fully understand. What is a black box? How
does it work? How do we construct one? How do we determine what to
include and what to leave out? What role do boxes play in
contemporary scientific practice? Nathan's monograph develops an
overarching framework for thinking about black boxes and discusses
prominent historical cases that used it, including Darwin's view of
inheritance in his theory of evolution and the "stimulus-response
model" in psychology, among others. By detailing some fascinating
episodes in the history of biology, psychology, and economics,
Nathan revisits foundational questions about causation,
explanation, emergence, and progress, showing how the insights of
both reductionism and antireductionism can be reconciled into a
fresh and exciting approach to science.
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