Distinguishing Between Science and Scientism
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The Behavioral Sciences: Essays in Honor of GEORGE A. LUNDBERG
The Behavioral Sciences: Essays in Honor of George A. Lundberg The Behavioral Sciences: Essays in Honor of GEORGE A. LUNDBERG edited by ALFRED DE GRAZIA RoLLoHANDY E. C. HARWOOD PAUL KURTZ published by The Behavioral Research Council Great Barrington, Massachusetts Copyright © 1968 by Behavioral Research Council Preface This volume of collected essays is dedicated to the memory of George A. Lundberg. It is fitting that this volume is published under the auspices of the Behavioral Research Council. George Lundberg, as its first President, and one of its founding members, was dedicated to the goals of the Behavioral Research Council: namely, the encouragement and development of behavioral science research and its application to the problems of men in society. He has been a constant inspiration to behavioral research not only in sociology, where he was considered to be a classic figure and a major influence but in the behavioral sciences in general. Part One of this volume includes papers on George Lundberg and his scientific work, particularly in the field of sociology. Orig inally read at a special conference of the Pacific Sociological Association (March 30-April 1, 1967), the papers are here pub lished by permission of the Society. Part Two contains papers not directly on George Lundberg but on themes and topics close to his interest. They are written by members of the Behavioral Research Council. We hope that this volume is a token, however small, of the pro found contribution that George Lundberg has made to the de velopment of the behavioral sciences. We especially wish to thank the contributors of the George A. -
History of Science (HIST SCI) 1
History of Science (HIST SCI) 1 HIST SCI 133 — BIOLOGY AND SOCIETY, 1950 - TODAY HISTORY OF SCIENCE (HIST 3 credits. From medical advancements to environmental crises and global food SCI) shortages, the life sciences are implicated in some of the most pressing social issues of our time. This course explores events in the history of biology from the mid-twentieth century to today, and examines how HIST SCI/ENVIR ST/HISTORY 125 — GREEN SCREEN: ENVIRONMENTAL developments in this science have shaped and are shaped by society. In PERSPECTIVES THROUGH FILM the first unit, we investigate the origins of the institutions, technologies, 3 credits. and styles of practice that characterize contemporary biology, such From Teddy Roosevelt's 1909 African safari to the Hollywood blockbuster as the use of mice as "model organisms" for understanding human King Kong, from the world of Walt Disney to The March of the Penguins, diseases. The second unit examines biological controversies such as the cinema has been a powerful force in shaping public and scientific introduction of genetically modified plants into the food supply. The final understanding of nature throughout the twentieth and twenty-first unit asks how biological facts and theories have been and continue to be century. How can film shed light on changing environmental ideas and used as a source for understanding ourselves. Enroll Info: None beliefs in American thought, politics, and culture? And how can we come Requisites: None to see and appreciate contested issues of race, class, and gender in Course Designation: Breadth - Either Humanities or Social Science nature on screen? This course will explore such questions as we come Level - Elementary to understand the role of film in helping to define the contours of past, L&S Credit - Counts as Liberal Arts and Science credit in L&S present, and future environmental visions in the United States, and their Repeatable for Credit: No impact on the real world struggles of people and wildlife throughout the Last Taught: Spring 2021 world. -
STEM Education for the Future
STEM 1 STEM STEM 3 STEM SUBCOMMITTEE MEMBERS Dr. Margaret Honey (Chair) | Dr. Bruce Alberts Dr. Hyman Bass | Dr. Carlos Castillo | Dr. Okhee Lee Dr. Marilyn M. Strutchens | Dr. Laurel Vermillion Dr. Francisco Rodriguez (Ex-Officio Member) NSF LIAISON Dr. Robin Wright (Division Director, Undergraduate Education) EXECUTIVE SECRETARY Dr. Alexandra Medina-Borja (NSF EHR/DUE) 4 STEM “All citizens can contribute to our nation’s progress and vibrancy. To be prepared for the STEM careers of the future, all learners must have an equitable opportunity to acquire foundational STEM knowledge. The STEM Education of the Future brings together our advanced understanding of how people learn with modern technology to create more personalized learning experiences, to inspire learning, and to foster creativity from an early age. It will unleash and harness the curiosity of young people and adult learners across the United States, cultivating a culture of innovation and inquiry, and ensuring our nation remains the global leader in science and technology discovery and competitiveness.” A VISION STATEMENT FOR STEM EDUCATION OF THE FUTURE 5 6 PREFACE Rapid technological advancements and societal changes are our daily reality. While the future of work, the economy, and society is uncertain, one thing is not: To maintain the nation’s leadership in science and technology discovery, we must create an approach to science, technology, engineering, and math (STEM) education that prepares and advances the U.S. for this future. Experts agree that science, technology, engineering and math will drive new innovations across disciplines, making use of computational power to accelerate discoveries and finding creative ways to work across disciplinary silos to solve big challenges. -
The Role of Social Context in the Production of Scientific Knowledge
University of Tennessee, Knoxville TRACE: Tennessee Research and Creative Exchange Supervised Undergraduate Student Research Chancellor’s Honors Program Projects and Creative Work 5-2015 The Role of Social Context in the Production of Scientific Knowledge Kristen Lynn Beard [email protected] Follow this and additional works at: https://trace.tennessee.edu/utk_chanhonoproj Part of the Philosophy of Science Commons Recommended Citation Beard, Kristen Lynn, "The Role of Social Context in the Production of Scientific nowledgeK " (2015). Chancellor’s Honors Program Projects. https://trace.tennessee.edu/utk_chanhonoproj/1852 This Dissertation/Thesis is brought to you for free and open access by the Supervised Undergraduate Student Research and Creative Work at TRACE: Tennessee Research and Creative Exchange. It has been accepted for inclusion in Chancellor’s Honors Program Projects by an authorized administrator of TRACE: Tennessee Research and Creative Exchange. For more information, please contact [email protected]. The Role of Social Context in the Production of Scientific Knowledge Kristen Lynn Beard The University of Tennessee, Knoxville Chancellor’s Honors Program Department of Philosophy Undergraduate Thesis Submitted December 8, 2014 Thesis Advisor: Dr. Nora Berenstain Beard 1 Model 1: The Influence of Social Context on the Scientific Method Beard 2 Introduction: Scientific Knowledge as Both Social and Rational A person may believe that a certain theory is true and explain that he does so, for instance, because it is the best explanation he has of the facts or because it gives him the most satisfying world picture. This does not make him irrational, but I take it to be part of empiricism to disdain such reasons. -
A Scientific Enterprise That Is Open by Default and Equitable by Design: the Time Is
A Scientific Enterprise that is Open by Default and Equitable by Design: The Time is Now research without delay or cost to the public. Open Lessons from COVID-19 Science is a collection of policies, practices, and The pandemic brought researchers from across the norms that empower scientists to do just that, by country and the world together to build open making research AI-ready and available under an systems for scientific collaboration - like the open license to accelerate discovery and improve CORD-19 database to quickly share research lives. Without open systems of knowledge sharing articles and data - that have been key to our and collaboration, federally-funded research falls pandemic response including the fastest short of its promise to leverage investments in development of a vaccine in human history. Prior science for public benefit. to the pandemic, federally-funded research was Open Science: A National Strategy only required to be made public one year after publication, prompting the White House Office of to Meet Pressing Challenges Science & Technology Policy to ask publishers to A “status quo” approach to scientific publishing lift 12-month embargoes on COVID-related science impedes the United States’ ability to address current in March 2020. Waiting an entire year to make and future national challenges such as climate change, COVID-related research public would have cost economic competitiveness, public health, and racial more lives, and the continuation of any embargo equity. The impact of open science on COVID-19 period on taxpayer-funded research creates a provides the federal government with an opportunity to dangerous precedent we cannot afford. -
The Historical Turn in the Philosophy of Science
THE HISTORICAL TURN IN THE PHILOSOPHY OF SCIENCE 1 Developments in the History of Science The history of science has a long history. Aristotle’s scientific works are prefaced by historical account of those sciences, and this model persisted through medieval times until and including the rise of modern science in the era of the scientific revolution. Joseph Priestley, for example, entitled two of his books of pioneering research The History and Present State of Electricity and The History and Present State of Discov- eries Relating to Vision, Light, and Colours. For many such early modern authors the history of science serves as a propaedeutic. William Whewell’s A History of the Induc- tive Sciences (1857) is regarded as the first genuinely modern work of the history of science. Even so, Whewell’s scholarship has an extra-historical purpose, which was to furnish the materials against which a satisfactory philosophy of science could be con- structed. While Whewell rejected a Leibnizian logic of discovery, he did nonetheless believe that general principles of scientific inference could be uncovered by careful consideration of the history of scientific research. Whewell’s approach was followed by several early positivists, notably, Mach, Ostwald, and Duhem. Nonetheless, as positivism developed philosophically it also became more ahis- torical. Carnap’s programme of a priori inductive logic was premised on a distinction between a context of discovery and a context of justification. The former concerned the process of coming up with an hypothesis, whereas the latter concerns its justification relative to the evidence. The former would be the province of psychology, although it may depend so much on details of individual biography that few general principles may be derived even a posteriori. -
Using the Scientific Method
Using the Scientific Method 2002 and 2014 GED Content Area: Science Focus: Scientific Method (2002) and Scientific Hypothesis and Investigation(2014) Activity Type: Graphic Organizer and GED Practice Objectives Students will be able to: Appreciate the purpose of the Scientific Method Understand key terms related to the Scientific Method: observation, hypothesis, test, experiment, result, conclusion Relate the Scientific Method to an experiment Answer GED questions based on the Scientific Method Directions 1. Print the handout “Using the Scientific Method” (next page). Pass out the handout to the class. 2. Explain that the scientific method is the way scientists learn about the world around us. This involves several steps, often in the form of experiments. Discuss the 5 steps in the chart on the handout and define the highlighted words. 3. Have a student or students read the first passage out loud. Ask the class to fill in the chart. They can fill in the chart individually or in pairs (discussing these concepts can help students develop their thinking skills). 4. Discuss the students’ answers. Samples: 1. Observation: Where there was Penicillium mold, there were also dead bacteria. 2. Hypothesis: The mold must produce a chemical that kills the bacteria. 3. Test: Grow more of the mold separately and then return it to the bacteria. 4. Result: When the material is returned to the mold, the bacteria died. 5. Conclusion: Penicillium kills bacteria. 5. Have students read the passage at the bottom of the page and answer the GED practice question. Choice (4) is correct because the doctor saw that when the chickens ate whole‐grain rice with thiamine, they did not have the disease. -
History of Science and History of Technology (Class Q, R, S, T, and Applicable Z)
LIBRARY OF CONGRESS COLLECTIONS POLICY STATEMENTS History of Science and History of Technology (Class Q, R, S, T, and applicable Z) Contents I. Scope II. Research strengths III. General collecting policy IV. Best editions and preferred formats V. Acquisitions sources: current and future VI. Collecting levels I. Scope This Collections Policy Statement covers all of the subclasses of Science and Technology and treats the history of these disciplines together. In a certain sense, most of the materials in Q, R, S, and T are part of the history of science and technology. The Library has extensive resources in the history of medicine and agriculture, but many years ago a decision was made that the Library should not intensively collect materials in clinical medicine and technical agriculture, as they are subject specialties of the National Library of Medicine and the National Agricultural Library, respectively. In addition, some of the numerous abstracting and indexing services, catalogs of other scientific and technical collections and libraries, specialized bibliographies, and finding aids for the history of science and technology are maintained in class Z. See the list of finding aids online: http://findingaids.loc.gov/. II. Research strengths 1. General The Library’s collections are robust in both the history of science and the history of technology. Both collections comprise two major elements: the seminal works of science and technology themselves, and historiographies on notable scientific and technological works. The former comprise the original classic works of science and technology as they were composed by the men and women who ushered in the era of modern science and invention. -
Special Issue Proposal: Replicability in Cognitive Science Editors: Brent
Special Issue proposal: Replicability in Cognitive Science Editors: Brent Strickland and Helen De Cruz Invited authors: Edouard Machery, Deborah Mayo Open Call for papers We are inviting submissions to a special issue on the issue of replicability and systematic error in cognitive science in the Review of Philosophy and Psychology (deadline November 1st, 2017). One of the primary missions of the Review of Philosophy and Psychology is to provide philosophically and theoretically insightful analyses of issues related to the fields of cognitive science and experimental psychology. Currently, authors in these areas are doing some thorough soul searching as they attempt to understand why the published results of psychology studies fail to replicate as often as they should (OSF, 2015). In particular, the OSF (2015) provided evidence that roughly 60% of all studies published in top psychology journals fail to replicate perfectly and 30% fail to replicate even approximately. These and related findings have led to a number of publications, news articles, and blog posts that attempt to (i) assess the extent to which there actually are systematic problems in how psychological science is being carried out (ii) understand the root causes of such problems and (iii) offer practical solutions for systematically improving scientific output. Philosophers have been notably absent in these discussions. This is a missed opportunity, as philosophers of science, mind, or even economics can offer a valuable perspective on these issues, as well as philosophers versed into experimental methods more broadly. To encourage philosophical engagement with the questions of replicability and systematic in cognitive science, we are inviting contributions to this special issue. -
Sacred Rhetorical Invention in the String Theory Movement
University of Nebraska - Lincoln DigitalCommons@University of Nebraska - Lincoln Communication Studies Theses, Dissertations, and Student Research Communication Studies, Department of Spring 4-12-2011 Secular Salvation: Sacred Rhetorical Invention in the String Theory Movement Brent Yergensen University of Nebraska-Lincoln, [email protected] Follow this and additional works at: https://digitalcommons.unl.edu/commstuddiss Part of the Speech and Rhetorical Studies Commons Yergensen, Brent, "Secular Salvation: Sacred Rhetorical Invention in the String Theory Movement" (2011). Communication Studies Theses, Dissertations, and Student Research. 6. https://digitalcommons.unl.edu/commstuddiss/6 This Article is brought to you for free and open access by the Communication Studies, Department of at DigitalCommons@University of Nebraska - Lincoln. It has been accepted for inclusion in Communication Studies Theses, Dissertations, and Student Research by an authorized administrator of DigitalCommons@University of Nebraska - Lincoln. SECULAR SALVATION: SACRED RHETORICAL INVENTION IN THE STRING THEORY MOVEMENT by Brent Yergensen A DISSERTATION Presented to the Faculty of The Graduate College at the University of Nebraska In Partial Fulfillment of Requirements For the Degree of Doctor of Philosophy Major: Communication Studies Under the Supervision of Dr. Ronald Lee Lincoln, Nebraska April, 2011 ii SECULAR SALVATION: SACRED RHETORICAL INVENTION IN THE STRING THEORY MOVEMENT Brent Yergensen, Ph.D. University of Nebraska, 2011 Advisor: Ronald Lee String theory is argued by its proponents to be the Theory of Everything. It achieves this status in physics because it provides unification for contradictory laws of physics, namely quantum mechanics and general relativity. While based on advanced theoretical mathematics, its public discourse is growing in prevalence and its rhetorical power is leading to a scientific revolution, even among the public. -
Introduction to Philosophy of Science
INTRODUCTION TO PHILOSOPHY OF SCIENCE The aim of philosophy of science is to understand what scientists did and how they did it, where history of science shows that they performed basic research very well. Therefore to achieve this aim, philosophers look back to the great achievements in the evolution of modern science that started with the Copernicus with greater emphasis given to more recent accomplishments. The earliest philosophy of science in the last two hundred years is Romanticism, which started as a humanities discipline and was later adapted to science as a humanities specialty. The Romantics view the aim of science as interpretative understanding, which is a mentalistic ontology acquired by introspection. They call language containing this ontology “theory”. The most successful science sharing in the humanities aim is economics, but since the development of econometrics that enables forecasting and policy, the humanities aim is mixed with the natural science aim of prediction and control. Often, however, econometricians have found that successful forecasting by econometric models must be purchased at the price of rejecting equation specifications based on the interpretative understanding supplied by neoclassical macroeconomic and microeconomic theory. In this context the term “economic theory” means precisely such neoclassical equation specifications. Aside from economics Romanticism has little relevance to the great accomplishments in the history of science, because its concept of the aim of science has severed it from the benefits of the examination of the history of science. The Romantic philosophy of social science is still resolutely practiced in immature sciences such as sociology, where mentalistic description prevails, where quantification and prediction are seldom attempted, and where implementation in social policy is seldom effective and often counterproductive. -
What's So Bad About Scientism? Moti Mizrahi Florida Institute Of
What’s so bad about Scientism? Moti Mizrahi Florida Institute of Technology Abstract: In their attempt to defend philosophy from accusations of uselessness made by prominent scientists, such as Stephen Hawking, some philosophers respond with the charge of “scientism.” This charge makes endorsing a scientistic stance a mistake by definition. For this reason, it begs the question against these critics of philosophy, or anyone who is inclined to endorse a scientistic stance, and turns the scientism debate into a verbal dispute. In this paper, I propose a different definition of scientism, and thus a new way of looking at the scientism debate. Those philosophers who seek to defend philosophy against accusations of uselessness would do philosophy a much better service, I submit, if they were to engage with the definition of scientism put forth in this paper, rather than simply make it analytic that scientism is a mistake. Keywords: inference to the best explanation; epistemological scientism; scientistic stance; success of science 1. Introduction In their attempt to defend philosophy from accusations of uselessness made by prominent scientists, such as Hawking and Mlodinow (2010, p. 5), who write that “philosophy is dead,”1 some philosophers accuse these scientists of “scientism.” According to Pigliucci (2010, p. 235), the term ‘scientism’ “is in fact only used as an insult.” By “scientism,” Pigliucci (2010, p. 235) means, “the intellectual arrogance of some scientists who think that, given enough time and especially financial resources, science will be able to answer whatever meaningful questions we may wish to pose—from a cure for cancer to the elusive equation that will tell us how the laws of nature themselves came about” (emphasis added).2 And Sorell (2013, p.