Andreas Hüttemann

Whether or not we are able to do x is on many philosophical accounts of our moral practice relevant for whether we are responsible for not doing x or for being excusable for not having done x. In this paper I will examine how such accounts are affected by whether a Humean or non-Humean account of laws is presupposed. More particularly, I will argue that (on one interpretation) Humean conceptions of laws, while able to avoid the consequence argument, run into what might be called “the problem of radical freedom”: Humean laws fail to constrain what we can do. By contrast, non-Humean laws (and Humean laws on a second interpretation) avoid the problem of radical freedom but have no easy way out of the consequence argument.

Biology and history are often viewed as closely related disciplines, with biology informed by history, especially in its task of charting our evolutionary past. Maximizing the opportunities for cross-fertilization in these two fields requires an accurate reckoning of their commonalities and differences-precisely what this volume sets out to achieve. Specially commissioned essays by a team of recognized international researchers cover the full panoply of topics in these fields and include notable contributions on the correlativity of evolutionary and historical explanations, applying to history the latest causal-mechanical approach in the philosophy of biology, and the question of generalized laws that might pertain across the two subjects. The collection opens with a vital interrogation of general issues on explanation that apart from potentially fruitful areas of interaction (could the etiology of the causal-mechanical perspective in biology account for the historical trajectory of the Roman Empire?) this volume also seeks to chart relative certainties distinguishing explanations in biology and history. It also assesses techniques such as the use of probabilities in biological reconstruction, deployed to overcome the inevitable gaps in physical evidence on early evolution. Methodologies such as causal graphs and semantic explanation receive in-depth analysis. Contributions from a host of prominent and widely read philosophers ensure that this new volume has the stature of a major addition to the literature.

The present book is devoted to the question of what the goal of physics is. The essential result of this is the rejection of traditional proposals for such a goal in favour of a new proposal. In both the rejection of the older proposal for a goal and the endorsement of the new one, I rely on a common practice in physics - the practice of idealisation. Traditional proposals for goals must be abandoned if they cannot explain this practice; my own proposal is supported by the fact that it can be shown to explain the practice of idealisation. There is a close connection between the goal of physics and some positions in the philosophy of science. van Fraassen has drawn attention to this in his The Scientific Image. If such a connection between the question of the goal and various positions in the philosophy of science exists, the result of the investigation into the goal of physics can be used to discuss positions such as empiricism, constructivism and scientific realism. This programme will be carried out in the following steps. Chapter 1 will first clarify in what sense physics can be said to have a goal. Criteria will be worked out, which an adequate explication of the goal of physics should satisfy. It will be shown that candidates for the goal of physics should be able to explain why typical actions essential to physics are carried out in the way that characterises them: They must be recognisable as means to a proposed end. In addition, various proposals for the goal of physics will be presented, and the relationship of these proposals to the philosophy of science positions of empiricism, constructivism and scientific realism will be examined. In Chapter 2, for selected, constitutive modes of action in physics - namely for idealisations – it will be investigated to what extent they can be explained by the proposed target candidates. It will be shown, firstly, that the traditional formulations of the goal of physics with respect to a particular class of of idealisations have only limited explanatory value, and secondly, that the goal of a unified description of physical systems description of physical systems makes this practice understandable. In Chapter 3 it will be shown that a second class of idealising measures - especially abstractions, but also certain experimental procedures - also cannot be made comprehensible by traditional goal ascriptions. Moreover, they cannot be integrated into a picture of theory construction which presupposes the classical, empiricist concept of the law of nature as the as the basis for an understanding of physics. I will argue that it makes sense to define natural laws as the ascription of as the attribution of dispositions to physical systems, i. e. systems, i.e. as statements about the way in which physical systems systems behave under very specific circumstances, namely when they are isolated. Such a conception allows us to present a candidate target that is able to explain all of the idealisation measures under investigation. Thus, it satisfies the condition that a candidate for the goal of physics must fulfil. The goal of physics, it will be asserted, is, is to give a unified description of the dispositions of physical systems. Now, since the traditional proposed goals, which turn out to be inadequate, are closely related to scientific realism, empiricism and constructivism, a re-evaluation of these positions becomes necessary. This will be done in chapter 4. be done.

What are the metaphysical commitments which best 'make sense' of our scientific practice? In this book, Andreas Hüttemann provides a minimal metaphysics for scientific practice, i.e. a metaphysics that refrains from postulating any structure that is explanatorily irrelevant. Hüttemann closely analyses paradigmatic aspects of scientific practice, such as prediction, explanation and manipulation, to consider the questions whether and what metaphysical presuppositions best account for these practices. He looks at the role which scientific generalisation play in predicting, testing, and explaining the behaviour of systems. He also develops a theory of causation in terms of quasi-inertial processes and interfering factors, and he proposes an account of reductive practices that makes minimal metaphysical assumptions. His book will be valuable for scholars and advanced students working in both philosophy of science and metaphysics.

In this paper we intend to examine whether there are examples for emergence to be found in physics. The answer depends on the concept of emergence one invokes. We distinguish two such concepts, those of Broad and Kim. We will argue that it is unlikely that there will be examples with respect to the former because it runs counter to an explanatory strategy that is both well entrenched in physical practice and to a certain degree flexible. On the other hand we will argue that all those physical systems that provide an example for supervenience are at the same time examples for emergence - at least if one defines emergence the way Kim does.

Reduction and reductionism have been central philosophical topics in analytic philosophy of science for more than six decades. Together they encompass a diversity of issues from metaphysics and epistemology. This article provides an introduction to the topic that illuminates how contemporary epistemological discussions took their shape historically and limns the contours of concrete cases of reduction in specific natural sciences. The unity of science and the impulse to accomplish compositional reduction in accord with a layer-cake vision of the sciences, the seminal contributions of Ernest Nagel on theory reduction and how they strongly conditioned subsequent philosophical discussions, and the detailed issues pertaining to different accounts of reduction that arise in both physical and biological science (e.g., limit-case and part-whole reduction in physics, the difference-making principle in genetics, and mechanisms in molecular biology) are explored. The conclusion argues that the epistemological heterogeneity and patchwork organization of the natural sciences encourages a pluralist stance about reduction.

In this paper I will argue that what makes our ordinary judgements about token causation true can be explicated in terms of interferences into quasi-inertial processes. These interferences and quasi-inertial processes can in turn be fully explicated in scientific terms. In this sense the account presented here is reductive. I will furthermore argue that this version of a process-theory of causation can deal with the traditional problems that process theories have to face, such as the problem of misconnection and the problem of disconnection as well as with a problem concerning the mis-classification of pre-emption cases.

Philosophie ist der Versuch, durch überzeugendes und durchsichtiges Argumentieren bestimmte Fragen zu lösen. Philosophische Grundthemen sind Fragen nach dem Verständnis der Welt im Ganzen und unserer Stellung in ihr. Diese Fragen können prinzipiell nur kontrovers beantwortet werden. Die Reihe Grundthemen Philosophie möchte der Diskussion solcher philosophischen Grundthemen einen Ort geben. Anstelle einer umfassenden einführenden Darstellung werden in den einzelnen Bänden in Auseinandersetzung mit ausgewählten historischen Positionen die jeweiligen Probleme analysiert und Lösungsmöglichkeiten diskutiert. Dabei setzt der Verfasser/die Verfasserin eigene Akzente und bezieht Stellung, so dass sich nicht bloß ein Blick auf die Geschichte der Philosophie, sondern zugleich auch ein systematischer Beitrag zur Problemdiskussion ergibt. Zur Zeit sind weitere Bände zu den Themen Beziehungen, Kultur, Wissenschaft und Moralbegründung geplant. Die Bände der Reihe richten sich gleichermaßen an Studierende der Philosophie und anderer Fächer sowie an professionelle Philosophen. Außerdem wendet sich die Reihe an alle, die an Grundthemen der Philosophie interessiert sind.

Powers, capacities and dispositions (in what follows I will use these terms synonymously) have become prominent in recent debates in metaphysics, philosophy of science and other areas of philosophy. In this paper I will analyse in some detail a well-known argument from scientific practice to the existence of powers/capacities/dispositions. According to this argument the practice of extrapolating scientific knowledge from one kind of situation to a different kind of situation requires a specific interpretation of laws of nature, namely as attributing dispositions to systems. My main interest will be to discuss what characteristics these dispositions need to have in order to account for the scientific practice in question. I will furthermore assess whether the introduction of dispositions in the context of the extrapolation argument can be described as a ‘revitalization’ or as a ‘return’ to those notions repudiated by early modern philosophers. More particularly I will argue for the following claims: I. In repudiating scholastic terminology, including substantial forms with their causal powers, post-cartesian philosophers focussed on a concept of causation that was much stronger than 21st century conceptions of causation. For this reason alone, whatever ‘causal’ is supposed to mean in today’s causal powers, embracing causal powers is not a simple return to a pre-cartesian notion. II. The dispositions presupposed in scientific practice need not (and should not) be construed in causal terms (whether strong or weak). III. While some early modern philosophers contrasted the characterisation of the natural world in terms of substantial forms (and their causal powers) on the one hand and a mathematical characterization on the other and suggested that these approaches are incompatible, the dispositions postulated by the extrapolation argument to account for scientific practice are themselves characterized in mathematical terms. More precisely: The behaviour the systems are disposed to display is – at least in physics – often characterized in mathematical terms. IV. The dispositions assumed in the law-statements in scientific practice are determinable rather than determinate properties.

We take the potentialities that are studied in the biological sciences (e.g., totipotency) to be an important subtype of biological dispositions. The goal of this paper is twofold: first, we want to provide a detailed understanding of what biological dispositions are. We claim that two features are essential for dispositions in biology: the importance of the manifestation process and the diversity of conditions that need to be satisfied for the disposition to be manifest. Second, we demonstrate that the concept of a disposition (or potentiality) is a very useful tool for the analysis of the explanatory practice in the biological sciences. On the one hand it allows an in-depth analysis of the nature and diversity of the conditions under which biological systems display specific behaviors. On the other hand the concept of a disposition may serve a unificatory role in the philosophy of the natural sciences since it captures not only the explanatory practice of biology, but of all natural sciences. Towards the end we will briefly come back to the notion of a potentiality in biology.

Descartes spent over 30 years commenting on the phenomenon of gravity. His attempts to explain gravity in his early private notes, his early letters up to the writing of Le Monde are subject to a clear development. This development is not merely of interest in the history of science, but also promises to shed light on those reasons that led him to reject the scholastic terminology on which he had based his early explanations. This is especially true of the concept of real quality, which is central in this context. It will be seen that Descartes justified his rejection of this concept at different times with quite different arguments. In doing so, I would like to correct a view that is sometimes suggested, if not explicitly put forward, in studies of Descartes' relationship to the scholastic vocabulary: Descartes rejected this vocabulary because of ontological reservations. This misinterpretation also seems to me to underlie Gilson's investigation. To illustrate the development of Descartes' attitude towards traditional ontological terminology, I will first consider the early statements in which Descartes conceives of gravity as a real quality. In a second step, I will examine the period around 1630, when Descartes arrived at a mechanistic conception of gravity. What were the reasons for Descartes abandoning his old conception? In a third step, I will look at the statements from the 1940s in which Descartes discusses gravity as an example of a real quality, a category that no longer has a place in his ontological considerations.

Statistical mechanics attempts to explain the behaviour of macroscopic physical systems in terms of the mechanical properties of their constituents. Although it is one of the fundamental theories of physics, it has received little attention from philosophers of science. Nevertheless, it raises philosophical questions of fundamental importance on the nature of time, chance and reduction. Most philosophical issues in this domain relate to the question of the reduction of thermodynamics to statistical mechanics. This book addresses issues inherent in this reduction: the time-asymmetry of thermodynamics and its absence in statistical mechanics; the role and essential nature of chance and probability in this reduction when thermodynamics is non-probabilistic; and how, if at all, the reduction is possible. Compiling contributions on current research by experts in the field, this is an invaluable survey of the philosophy of statistical mechanics for academic researchers and graduate students interested in the foundations of physics.

Many biologists and philosophers have worried that importing models of reasoning from the physical sciences obscures our understanding of reasoning in the life sciences. In this paper we discuss one example that partially validates this concern: part-whole reductive explanations. Biology and physics tend to incorporate different models of temporality in part-whole reductive explanations. This results from differential emphases on compositional and causal facets of reductive explanations, which have not been distinguished reliably in prior philosophical analyses. Keeping these two facets distinct facilitates the identifi cation of two further aspects of reductive explanation: intrinsicality and fundamentality. Our account provides resources for discriminating between different types of reductive explanation and suggests a new approach to comprehending similarities and differences in the explanatory reasoning found in biology and physics.

'Microphysicalism', the view that whole objects behave the way they do in virtue of the behaviour of their constituent parts, is an influential contemporary view with a long philosophical and scientific heritage. In _What's Wrong With Microphysicalism?_ Andreas Hüttemann offers a fresh challenge to this view. Hüttemann agrees with the microphysicalists that we can explain compound systems by explaining their parts, but claims that this does not entail a fundamentalism that gives hegemony to the micro-level. At most, it shows that there is a relationship of determination between parts and wholes, but there is no justification for taking this relationship to be asymmetrical rather than one of mutual dependence. Hüttemann argues that if this is the case, then microphysicalists have no right to claim that the micro-level is the ultimate agent: neither the parts nor the whole have 'ontological priority'. Hüttemann advocates a pragmatic pluralism, allowing for different ways to describe nature. _What's Wrong With Microphysicalism?_ is a convincing and original contribution to central issues in contemporary philosophy of mind, philosophy of science and metaphysics.

It is my aim in this paper to look at some of the arguments that are brought forward for or against certain claims to unity/disunity (in particular to examine those arguments from science and from scientific practice) in order to evaluate whether they really show what they claim to. This presupposes that the concept or rather the concepts of the unity of physics are reasonably clear. Three concepts of unity can be identified: (1) ontological unity, which refers to the objects physics is about; (2) descriptive unity, which addresses the descriptive devices physics employs in dealing with physical systems (3) unity of practice, which deals with what physicists actually do.

We address the question whether there is an explanation for the fact that as Fodor put it the micro-level “converges on stable macro-level properties”, and whether there are lessons from this explanation for other issues in the vicinity. We argue that stability in large systems can be understood in terms of statistical limit theorems. In the thermodynamic limit of infinite system size N → ∞ systems will have strictly stable macroscopic properties in the sense that transitions between different macroscopic phases of matter (if there are any) will not occur in finite time. Indeed stability in this sense is a consequence of the absence of fluctuations, as (large) fluctuations would be required to induce such macroscopic transformations. These properties can be understood in terms of coarse-grained descriptions, and the statistical limit theorems for independent or weakly dependent random variable describing the behaviour averages and the statistics of fluctuations in the large system limit. We argue that RNG analyses applied to off-critical systems can provide a rationalization for the applicability of these limit theorems. Furthermore we discuss some related issues as, for example, the role of the infinite-system idealization.

This paper tries to get a grip on two seemingly conflicting intuitions about reductionism in quantum mechanics. On the one hand it is received wisdom that quantum mechanics puts an end to ‘reductionism’. Quantum-entanglement is responsible for such features of quantum mechanics as holism, the failure of supervenience and emergence. While I agree with these claims I will argue that it is only part of the story. Quantum mechanics provides us with thorough-going reductionist explanations. I will distinguish two kinds of micro-explanation (or micro-‘reduction’). I will argue that even though quantum-entanglement provides an example for the failure of one kind of micro-explanation it does not affect the other. Contrary to a recent paper by Kronz and Tiehen I claim that the explanation of the dynamics of quantum mechanical systems is just as reductionist as it used to be in classical mechanics.