Belief in the benevolence of free markets has become a fundamental credo of professional experts, economists, business people and politicians. We regard this discourse as part of a new culture of markets, which has also taken root in Southeast Asia. Expanding markets and using high-tech devices of communication are interpreted as cultural systems that are used in the construction of modernity. An `unbridled romanticism of productivity' (Baudrillard) and a `romance of capitalism' are the meta-narratives underlying the culture of markets. This (...) theme is followed up on two empirical levels. The development policy of three Southeast Asian governments, namely Malaysia, Vietnam and Indonesia, is briefly characterized as market corporatism, market socialism and high-tech developmentalism. We then focus on the emergence of the new middle classes, their actual and symbolic consumption and their lifestyles. Finally the decline of real markets, the creation of virtual markets and the state of postmodernity in Southeast Asia are discussed. We conclude that market fundamentalism and postmodern lifestyles characterize the beginning rather than the end of modernity in Southeast Asia. (shrink)

In October 2021, the Allen Institute for Artificial Intelligence publicly released Delphi, an artificial intelligence system trained to make general moral decisions (Allen Institute for Artifi...

Employers and governments are interested in the use of serological testing to allow people to return to work before there is a vaccine for SARS-CoV-2. We articulate the preconditions needed for the implementation of antibody testing, including the role of the U.S. Food & Drug Administration.

Artificial intelligence surveillance can be used to diagnose individual cases, track the spread of Covid‐19, and help provide care. The use of AI for surveillance purposes (such as detecting new Covid‐19 cases and gathering data from healthy and ill individuals) in a pandemic raises multiple concerns ranging from privacy to discrimination to access to care. Luckily, there exist several frameworks that can help guide stakeholders, especially physicians but also AI developers and public health officials, as they navigate these treacherous shoals. (...) While these frameworks were not explicitly designed for AI surveillance during a pandemic, they can be adapted to help address concerns regarding privacy, human rights, and due process and equality. In a time where the rapid implementation of all tools available is critical to ending a pandemic, physicians, public health officials, and technology companies should understand the criteria for the ethical implementation of AI surveillance. (shrink)

Artificial Intelligence (AI), especially of the machine learning (ML) variety, is used by health care organizations to assist with a number of tasks, including diagnosing patients and optimizing operational workflows. AI products already proliferate the health care market, with usage increasing as the technology matures. Although AI may potentially revolutionize health care, the use of AI in health settings also leads to risks ranging from violating patient privacy to implementing a biased algorithm. This chapter begins with a broad overview of (...) health care AI and how it is currently used. We then adopt a “lifecycle” approach to discussing issues with health care AI. We start by discussing the legal and ethical issues pertaining to how data to build AI are gathered in health care settings, focusing on privacy. Next, we turn to issues in algorithm development, especially algorithmic bias. We then discuss AI deployment to treat patients, focusing on informed consent. Finally, we will discuss existing oversight mechanisms for health AI in the United States: liability and regulation. (shrink)

When applied in the health sector, AI-based applications raise not only ethical but legal and safety concerns, where algorithms trained on data from majority populations can generate less accurate or reliable results for minorities and other disadvantaged groups.

Revisiting the 1927 Solvay conference and the early interpretation of quantum mechanics Content Type Journal Article Category Essay Review Pages 1-5 DOI 10.1007/s11016-011-9555-z Authors Martin Jähnert, Max Planck Institute for the History of Science, Boltzmannstraße 22, 14195 Berlin, Germany Journal Metascience Online ISSN 1467-9981 Print ISSN 0815-0796.

The 1927 Solvay conference was perhaps the most important meeting in the history of quantum theory. Contrary to popular belief, the interpretation of quantum theory was not settled at this conference, and no consensus was reached. Instead, a range of sharply conflicting views were presented and extensively discussed, including de Broglie's pilot-wave theory, Born and Heisenberg's quantum mechanics, and Schrödinger's wave mechanics. Today, there is no longer an established or dominant interpretation of quantum theory, so it is important to (...) re-evaluate the historical sources and keep the interpretation debate open. This book contains a complete translation of the original proceedings, with background essays on the three main interpretations of quantum theory presented at the conference, and an extensive analysis of the lectures and discussions in the light of current research in the foundations of quantum theory. The proceedings contain much unexpected material, including extensive discussions of de Broglie's pilot-wave theory (which de Broglie presented for a many-body system), and a theory of 'quantum mechanics' apparently lacking in wave function collapse or fundamental time evolution. This book will be of interest to graduate students and researchers in physics and in the history and philosophy of quantum theory. (shrink)

The ArgumentThis paper is about the context of Albert Einstein's concerns at the time of a most intense intellectual effort — his own and that of a small group of scientists concerned with classical quantum theory. I describe contemporaneous interactions and differing views about the prospects for and the significance of the First Solvay Congress of 1911 as voiced by major participants. There are two axes around which the paper evolves: the Einstein-Nernst-Lorentz dialogue and the public institutional creation of (...) the “Solvay” stage. In certain ways, this paper is about personal and institutional patronage: the working out of a difficult theoretical impasse requires individual and collective moral support. It is about the forging of the identity of a scientific problem and the personal and institutional setting, the public space, in which this problem was collectively addressed. But I also uncover heuristic playfulness and flexibility which accompanies theoretical change. (shrink)

SummaryThe convening of the first three Solvay Chemistry Conferences in Brussels from 1922–1928 marked an important turning point for the discipline of chemistry. Whereas much of nineteenth-century chemical endeavour had focused on compositional and functional analysis of chemical compounds, many leaders in chemistry were turning to questions of molecular dynamics by the early twentieth century. Two competing schools of chemical dynamics, which were represented at the Solvay Conferences, were a predominantly English group (Lowry, Lapworth, Robinson, Ingold) who worked (...) out electron and ionic interpretations of organic reaction mechanisms, and a French group (Perrin, Job) who developed a generalized radiation hypothesis of reaction activation. While differences in conceptual and stylistic approach separated the two schools, they agreed on the need to apply contemporary physical theory to old chemical problems, and to develop a theoretical chemistry complementary to theoretical physics. (shrink)

The 1964 theorem of John Bell shows that no model that reproduces the predictions of quantum mechanics can simultaneously satisfy the assumptions of locality and determinism. On the other hand, the assumptions of signal locality plus predictability are also sufficient to derive Bell inequalities. This simple theorem, previously noted but published only relatively recently by Masanes, Acin and Gisin, has fundamental implications not entirely appreciated. Firstly, nothing can be concluded about the ontological assumptions of locality or determinism independently of each (...) other—it is possible to reproduce quantum mechanics with deterministic models that violate locality as well as indeterministic models that satisfy locality. On the other hand, the operational assumption of signal locality is an empirically testable (and well-tested) consequence of relativity. Thus Bell inequality violations imply that we can trust that some events are fundamentally unpredictable, even if we cannot trust that they are indeterministic. This result grounds the quantum-mechanical prohibition of arbitrarily accurate predictions on the assumption of no superluminal signalling, regardless of any postulates of quantum mechanics. It also sheds a new light on an early stage of the historical debate between Einstein and Bohr. (shrink)

The Solvay conference of marked the birth of quantum the ory This theory constitutes a radical break with prior tradition in physics because it avers if taken seriously that nature is built not out of matter but out of knowings However the founders of the theory stipulated cautiously that the theory was not to be taken seriously in this sense as a description of nature herself but was to be construed as merely a way of computing expectations about future (...) knowings on the basis of information provided by past knowings There have been many e orts over the intervening seventy years to rid physics of this contamination of matter by mind But I use the reports at this Sym posium to support the claim that these decontamination e orts have failed and that because of recent developments pertaining to causal ity the time has come to take quantum theory seriously to take it as the basis for a conception of the universe built on knowings and other things of the same kind Quantum theory ensures that this con ception will yield all the empirical regularities that had formerly been thought to arise from the properties of matter together with all of those more recently discovered regularities that cannot be understood in that mechanical way Thus I propose to break away from the cau tious stance of the founders of quantum theory and build a theory of.. (shrink)

The reluctant revolutionary -- The patent slave -- The golden Dane -- The quantum atom -- When Einstein met Bohr -- The prince of duality -- Spin doctors -- The quantum magician -- A late erotic outburst -- Uncertainty in Copenhagen -- Solvay 1927 -- Einstein forgets relativity -- Quantum reality -- For whom Bell's theorem tolls -- The quantum demon.

The specific heat of hydrogen gas at low temperatures was first measured in 1912 by Arnold Eucken in Walther Nernst’s laboratory in Berlin, and provided one of the earliest experimental supports for the new quantum theory. Even earlier, Nernst had developed a quantum theory of rotating diatomic gas molecules that figured in the discussions at the first Solvay conference in late 1911. Between 1913 and 1925, Albert Einstein, Paul Ehrenfest, Max Planck, Fritz Reiche, and Erwin Schrödinger, among many others, (...) attempted theoretical descriptions of the rotational specific heat of hydrogen, with only limited success. Quantum theory also was central to the study of molecular spectra, where initially it was more successful. Moreover, the two problems interacted in sometimes surprising ways. Not until 1927, following Werner Heisenberg’s discovery of the behavior of indistinguishable particles in modern quantum mechanics, did American theorist David Dennison find a successful theory of the specific heat of hydrogen. (shrink)

In this paper, the main outlines of the discussions between Niels Bohr with Albert Einstein, Werner Heisenberg, and Erwin Schrödinger during 1920–1927 are treated. From the formulation of quantum mechanics in 1925–1926 and wave mechanics in 1926, there emerged Born's statistical interpretation of the wave function in summer 1926, and on the basis of the quantum mechanical transformation theory—formulated in fall 1926 by Dirac, London, and Jordan—Heisenberg formulated the uncertainty principle in early 1927. At the Volta Conference in Como in (...) September 1927 and at the fifth Solvay Conference in Brussels the following month, Bohr publicly enunciated his complementarity principle, which had been developing in his mind for several years. The Bohr-Einstein discussions about the consistency and completeness of qnautum mechanics and of physical theory as such—formally begun in October 1927 at the fifth Solvay Conference and carried on at the sixth Solvay Conference in October 1930—were continued during the next decades. All these aspects are briefly summarized. (shrink)

The False Claims Act, 31 U.S.C. § 3729, a post-Civil War law inspired by cases of defense contracting fraud, was revitalized in 1986. Since then it has been used to sue both manufacturers and providers of pharmaceuticals. In some cases, these suits were meant to target offlabel marketing of pharmaceuticals. In 2009, the 11th Circuit rendered a decision in Hopper v. Solvay Pharmaceuticals that dramatically limits the ability of private plaintiff whistle-blowers to bring qui tam suits under the FCA (...) for such marketing. In June 2010, the Supreme Court denied certiorari, making the Circuit court decision final. The Solvay decision creates a significant barrier to certain kinds of qui tam suits, requiring the plaintiff to demonstrate the intent to market off-label, including by showing specific prescriptions that were written as a result of efforts to do so. (shrink)

Théophile De Donder, a Belgian mathematician born in Brussels, elaborated two important ideas that created a bridge between thermodynamics and chemical kinetics. He invented the concept of the degree of advancement of a reaction, and, in 1922, he provided a precise mathematical form to the already known chemical affinity by translating Clausius’s uncompensated heat into formal language. These concepts merge in an important inequality that was the starting point for the formalization of non-equilibrium thermodynamics. The present article aims to reconstruct (...) how De Donder elaborated his ideas and developed them by exploring his teaching activity and its connection with his scientific production. Furthermore, it emphasizes the role played by the discussions with his disciples who became his collaborators. The paper analyzes De Donder’s efforts in participating in the second Solvay Chemistry Council in 1925 to call the attention of chemists to his mathematical approach. We explain why his work did not receive much attention at the time, and how, despite this, his formalization of chemical affinity became the basis for the birth of the so-called Brussels school of thermodynamics. (shrink)

In 1927 at the fifth Solvay Council, that reunited all the aristocracy of theoretical physics, Einstein, regarding with solicitude the new-born “quantum mechanics” of Louis de Broglie, Schrödinger, Heisenberg and Dirac, discerned with his usual sagacity an indelible mark that was destined to become, with time, a subject of passionate discussion among those whose vocation is to adulate this enigmatic and capricious personality.In 1926 Born had given the prophetic stroke to the portrait. Turning to probability as to the official (...) factotum of the reconciliation of the continuous and the discontinuous-here, the associated wave and particle-he transmuted the waves of de Broglie and Schr6dinger into an undulatory calculus o f probabilities, deducing, from a surprising principle, consequences that were even more surprising but always verified through experiment. Parting from the idea that the intensity of the wave is the probability of the detection of the particle at a given point and time, Born replaced the classic principle of addition of partial probabilities with his “principle of the addition of partial amplitudes” that are, as in classical optics, represented by “complex” dimensions, with one real part and one imaginary part. In general, the square of the module of the sum of amplitudes will be the probability. This expression contains, of course, the terms “square” and “rectangular.” The first, if they were alone, would give the former law; as for the second, they express the existence of phenomena of interference that are at the origin of the thousand and one well verified paradoxes of the “new mechanics “-the one thousand and first being the one under consideration here. (shrink)

Professor Ilya Prigogine (January 25, 1917 -- May 28, 2003), Nobel Laureate 1977 in chemistry, was one of the great visionaries of our time. Not content to rest on his laurels, he continued hard technical scientific publication, often with junior colleagues, for 25 years after the Nobel Prize was awarded to him. His fields of work included non-equilibrium thermodynamics, the emergence of dissipative structures and complex behavior, and the foundations of the arrow of time in natural science. He directed two (...) major research institutions: the Center for Studies in Statistical Mechanics and Complex Systems at the University of Texas at Austin and the International Solvay Institutes for Physics and Chemistry at Brussels. (shrink)

Among the many tensions and oppositions in play in the early twentieth century, one—the divide between classical and modern physics—has retrospectively overshadowed our understandings of the period. This paper investigates when and why physicists first started using the term ‘classical’ to describe their discipline. Beginning with Boltzmann and ending with the 1911 Solvay Congress, on a broad scale this story constitutes a powerful instance of the circulation of a rich cultural image. First deployed in understandings of literature, music, art (...) and schooling, the concept of the classical within the physics community came to be invested with a highly specific meaning, which in turn formed the basis for the widespread popularization of a new physical worldview after World War I. But on a finer scale, displaying the diverse, contrasting and controversial concepts of classical theory invoked by different physicists around 1900, and charting the emergence of our present understanding with the rise of relativity and quantum theory, reveals significant tussles over the meaning and value of different intellectual approaches. Here I use these tensions to investigate the interrelations between research programs and the broader, framing concepts with which physicists describe their experience of disciplinary change.Keywords: Energetics; Statistical mechanics; Relativity; Quantum theory; Classical physics; Ludwig Boltzmann. (shrink)

Both in the U.S. and in France, inheritance is probably the main factor of wealth concentration among the richest part of the population, and of its intergenerational reproduction. In so far as wealth is an opportunity, a reform of inheritance tax could be a mean to ensure a fairer distribution of opportunities in the society. Many reforms of inheritance systems have been conceived at least since Bentham. The identification and the analysis of ethical properties of reforms as the ones designed (...) by Mill, Rignano, Solvay, Huet and Haslett show that the latter is certainly the one which most satisfies the requirements of an ethics of inheritance. (shrink)

Une épistémologie phénoménologique est nécessairement intéressée aux points de contact et de passage entre problèmes scientifiques et problèmes philosophiques. Il est instructif, dans cette perspective, de revenir sur un moment historiquement décisif, mais éminemment équivoque, encore porteur de prolongements et de retournements dont nous n’avons peut-être pas encore pris toute la mesure : l’énoncé du principe de Pauli. Le statut logique de cet énoncé est lui-même ambigu : règle technique, semi-empirique, postulat, principe ou théorème, etc. Pour le meilleur et le (...) pire, ce principe se trouve accouplé dès l’origine au problème de l’individuation en physique. Nous proposons de revenir sur quelques traits philosophiquement saillants des interprétations que Weyl et de Broglie proposent dudit « principe d’exclusion Pauli » (ou PEP). L’un et l’autre y voient l’occasion d’un approfondissement du principe d’individuation prévalant jusqu’alors dans la physique classique : l’espace. Weyl associe le PEP au principe leibnizien des indiscernables et tente de modéliser l’espace en jeu au moyen de la théorie des groupes. Les changements de position de Pauli lui-même à ce propos ne sont pas moins instructifs. La position de De Broglie sur ce principe est un marqueur de sa trajectoire : de la théorie audacieuse, et, équivoque, de « l’onde-pilote », jusqu’à celle dite de la « double solution », en passant par la période de rétractation consécutive au congrès de Solvay de 1927. Ce qui persiste d’un bout à l’autre, c’est un partage entre espace « réel » empirique et espace de configuration mathématique imaginaire. Chez l’un et l’autre, cette interprétation est ainsi indissociable d’un nouveau partage du subjectif et de l’objectif et d’une réflexion critique sur le principe traditionnel d’individuation qu’est l’espace (ou le temps physique) au profit d’une articulation toujours plus subtile et complexe entre l’espace de la phénoménalisation (de l’observation) et les « espaces » de la modélisation mathématique, en particulier les espaces des états possibles décrits dans le formalisme de la statistique quantique. (shrink)

Quantum theory has been formulated in several different ways. The original version was ‘Copenhagen’ quantum theory, which was formulated as a practical set of rules for making predictions about what we human observers would observe under certain well-defined sets of conditions. However, the human observers themselves were excluded from the system, in much the same way that Descartes excluded human beings from the part of the world governed by the natural physical laws. This exclusion of human beings from the world (...) governed by the physical laws is an awkward feature of Copenhagen quantum theory that is fixed by “Orthodox” quantum theory, which is the form devised by von Neumann and Wigner. This orthodox form treats the entire world as a quantum system, including the brains and bodies of human beings. Some more recent formulation of quantum theory seek to exclude from the theory all reference to the experiences of human observers, but I do not consider them, both because of their technical deficiencies, and because they are constitutionally unequipped to deal adequately with the causal efficacy of our conscious thoughts.1 The observer plays a central role in both Copenhagen and Orthodox quantum theory. In this connection, Bohr, describing the 1927 Solvay conference, noted that: “…an interesting discussion arose about how to speak of the appearance of phenomena for which only statistical predictions can be made. The question was whether, as to the occurrence of such individual events, we should adopt the.. (shrink)

STILLWATER, MINNESOTA—Two men sit at a long table, oblivious to the breakfast-time commotion. One moves a coffee cup from one side of a water glass to the other. “If I look here and don’t see the cup,” he says to the other, “then I know it must be there.” It sounds like a “deep” exchange between swotty young philosophy majors. But the fellow moving the cup has gray hair— and a Nobel Prize in physics. Sliding the porcelain, Anthony Leggett of (...) the University of Illinois, Urbana-Champaign, explains how scientists might try to see past the strictures of quantum mechanics, the bizarre theory that governs the behavior of tiny objects and clashes with our everyday notions of reality. “None of the existing interpretations of quantum mechanics as a theory of the entire world is satisfactory,” Leggett says to John Preskill, a physicist at the California Institute of Technology in Pasadena. Leggett, Preskill, and 22 other physicists, philosophers, and historians have gathered here for the Seven Pines Symposium.* Packed into a slightly ramshackle lodge in a wooded state park, the scholars—all of them men—will share their insights, suites of rooms without telephones, and meals of roast quail and pheasant at a long communal table. Perhaps not since the famous Solvay Conferences of the early 20th century, at which Niels Bohr and Albert Einstein debated the meaning of quantum theory in their free time, has physics seemed so genteel. Each year, the symposium tackles another of physics’ enduring puzzles: the nature of the vacuum, the concept of a f ield, the meaning of time. The aim is not to resolve the mysteries but to seed new lines of inquiry, says Roger Stuewer, a historian at the University of Minnesota, Twin Cities, and chair of the symposium’s advisory board. “When we get the best people together,” he says, “ideas are planted that in some intangible way will influence what they do in the future.” Those germinating ideas are watered with a mellow Zinfandel and nourished with succulent steak. This year, attendees spent 5 days grappling with the implications of quantum mechanics, which have perplexed physi.. (shrink)