Here are 100 books that The Essential Tension fans have personally recommended if you like
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As a professional, scientific researcher in astrophysics and philosopher, I have been observing many unfair situations in science: hard-working, talented scientists with bright and challenging ideas who get no attention and bureaucrats or administrators of science (I call them “astropolitics” within my field of research) who have no talent, have neither time nor interest to think about science, and however are visible as the most eminent scientists of our time.
A classical book on anarchy within science. I find the proposed pluralist approach as the right way to avoid the monopolies of truth in present-day science. Feyerabend identified science as an ideology, which I might have found exaggerated and difficult to understand when I started to study science, but I understand it much better now, after 30 years of working as a researcher.
Forgetting about the relativism implicit in his proposal, focusing on the sociological aspect, I think there are many good and brave observations there that can enlighten us.
Contemporary philosophy of science has paid close attention to the understanding of scientific practice, in contrast to the previous focus on scientific method. Paul Feyerabend's acclaimed work, which sparked controversy and continues to fuel fierce debate, shows the deficiencies of many widespread ideas about the nature of knowledge. He argues that the only feasible explanation of any scientific success is a historical account, and that anarchism must now replace rationalism in the theory of knowledge. This updated edition of this classic text contains a new foreword by Ian Hacking, a leading contemporary philosopher of science, who reflects on Feyerabend's life…
Deirdre Nansen McCloskey is Distinguished Professor Emerita of Economics and of History, and Professor Emerita of English and of Communication, adjunct in classics and philosophy, at the University of Illinois at Chicago. Trained at Harvard in the 1960s as an economist, she has written twenty-four books and some four hundred academic and popular articles on economic history, rhetoric, philosophy, statistical theory, economic theory, feminism, queer studies, liberalism, ethics, and law.
Collins is a brilliant and lucid exponent of the (mainly British) “strong programme” in the sociology of science. He is one of the numerous “children of Kuhn,” in the sense that like Kuhn he understands scientists to be (usually) honest and serious human beings, not machines implementing an alleged Scientific Method.
This fascinating study in the sociology of science explores the way scientists conduct, and draw conclusions from, their experiments. The book is organized around three case studies: replication of the TEA-laser, detecting gravitational rotation, and some experiments in the paranormal. "In his superb book, Collins shows why the quest for certainty is disappointed. He shows that standards of replication are, of course, social, and that there is consequently no outside standard, no Archimedean point beyond society from which we can lever the intellects of our fellows."--Donald M. McCloskey, Journal of Economic Psychology
Deirdre Nansen McCloskey is Distinguished Professor Emerita of Economics and of History, and Professor Emerita of English and of Communication, adjunct in classics and philosophy, at the University of Illinois at Chicago. Trained at Harvard in the 1960s as an economist, she has written twenty-four books and some four hundred academic and popular articles on economic history, rhetoric, philosophy, statistical theory, economic theory, feminism, queer studies, liberalism, ethics, and law.
Booth was a professor of English at the University of Chicago and a president of the Modern Language Association. Surprisingly, he wrote this elegant book showing that Cartesian doubt as the basis of science (or of anything else) is silly, not a dogma that anyone can actually live by. Like the other books here, he shows even science to have—or course—a “rhetoric,” that is, “the art of discovering good reasons, finding what really warrants assent because any reasonable person ought to be persuaded by what has been said.”
When should I change my mind? What can I believe and what must I doubt? In this new "philosophy of good reasons" Wayne C. Booth exposes five dogmas of modernism that have too often inhibited efforts to answer these questions. Modern dogmas teach that "you cannot reason about values" and that "the job of thought is to doubt whatever can be doubted," and they leave those who accept them crippled in their efforts to think and talk together about whatever concerns them most. They have willed upon us a "befouled rhetorical climate" in which people are driven to two self-destructive…
Deirdre Nansen McCloskey is Distinguished Professor Emerita of Economics and of History, and Professor Emerita of English and of Communication, adjunct in classics and philosophy, at the University of Illinois at Chicago. Trained at Harvard in the 1960s as an economist, she has written twenty-four books and some four hundred academic and popular articles on economic history, rhetoric, philosophy, statistical theory, economic theory, feminism, queer studies, liberalism, ethics, and law.
Polanyi, an eminent Hungarian Jewish chemist who spent his career at the University of Manchester, was the smarter brother of the more famous Karl Polanyi, the socialist economic historian. Michael (Mihály) shows in the book how science depends on ordinary, “personal” knowledge, as for example in riding a bicycle. He was a “liberal” in the European sense, unlike his brother, and saw the scientific community as analogous to a free market, and the free market as analogous to a scientific community.
The publication of Personal Knowledge in 1958 shook the science world, as Michael Polanyi took aim at the long-standing ideals of rigid empiricism and rule-bound logic. Today, Personal Knowledge remains one of the most significant philosophy of science books of the twentieth century, bringing the crucial concepts of “tacit knowledge” and “personal knowledge” to the forefront of inquiry.
In this remarkable treatise, Polanyi attests that our personal experiences and ways of sharing knowledge have a profound effect on scientific discovery. He argues against the idea of the wholly dispassionate researcher, pointing out that even in the strictest of sciences, knowing…
My father was a NASA scientist during the Mercury, Gemini, and Apollo programs, so while most people knew the Space Race as a spectacle of thundering rockets and grainy lunar footage, I remember the very human costs and excitement of scientific progress. My space-cadet years come in snippets–the emotional break in my dad’s voice when Neil Armstrong hopped around the Moon; the strange peace I felt as I bobbed on a surfboard and watched another Saturn 1b flame into the sky. Later, as a journalist and author, I would see that such moments are couched in societal waves as profound and mysterious as the wheeling of hundreds of starlings overhead.
On the surface, this seems a dry treatise on the process of scientific change, but as you get into it, you encounter again and again the stories of hardheaded researchers convinced that the world explained by current theory just doesn’t make sense and shows how they were driven, often reluctantly, to make sense of things. Priestley’s and Lavoisier’s experiments are included with many others but always set within the framework of a discipline in a “crisis” that needs to be resolved.
The personal costs are not neglected–ridicule, isolation from the accepted “establishment,” sometimes far worse. Scientific progress is often portrayed as a triumph of individual imagination confirmed by wider testing and collaboration. Kuhn’s work took that self-serving myth and tossed it out the window.
A good book may have the power to change the way we see the world, but a great book actually becomes part of our daily consciousness, pervading our thinking to the point that we take it for granted, and we forget how provocative and challenging its ideas once were-and still are. "The Structure of Scientific Revolutions" is that kind of book. When it was first published in 1962, it was a landmark event in the history and philosophy of science. And fifty years later, it still has many lessons to teach. With "The Structure of Scientific Revolutions", Kuhn challenged long-standing…
A childhood friend says that I am the only person he knows who grew up to be exactly what he said he wanted to become. But he is mistaken because I was born a scientist. I have no memories when I was not thinking about science, learning it, doing it, teaching it, trying to improve it, pondering it, or sharing it with others. Over my life and career as a scientist, I have been further fulfilled by undergirding my scientific work with reflection and introspection through reading the history, philosophy, and practice of science revealed and disclosed in books like the five I recommend here. Enjoy them as I have!
Though I have been a scientist for nearly all of my life, as a student and as a professional, not until I read this book did I understand what an amazing human activity science is. I had never imagined a world without the word or practice of “science” or even “scientist,” as I do now because of this captivating book.
Wootton’s book is more than a history of how humankind invented and developed one of its most powerful tools. It also reveals the many simply exquisite workings of that tool over the centuries. After pondering its many remarkable revelations, interconnections, and insights, even as a scientist, my appreciation of the significance of science and scientists in the world has re-blossomed.
We live in a world made by science. How and when did this happen? This book tells the story of the extraordinary intellectual and cultural revolution that gave birth to modern science, and mounts a major challenge to the prevailing orthodoxy of its history.
Before 1492 it was assumed that all significant knowledge was already available; there was no concept of progress; people looked for understanding to the past not the future. This book argues that the discovery of America demonstrated that new knowledge was possible: indeed it introduced the very concept of 'discovery', and opened the way to the…
A childhood friend says that I am the only person he knows who grew up to be exactly what he said he wanted to become. But he is mistaken because I was born a scientist. I have no memories when I was not thinking about science, learning it, doing it, teaching it, trying to improve it, pondering it, or sharing it with others. Over my life and career as a scientist, I have been further fulfilled by undergirding my scientific work with reflection and introspection through reading the history, philosophy, and practice of science revealed and disclosed in books like the five I recommend here. Enjoy them as I have!
As a professor at MIT, I used this book to introduce undergraduates in my course in environmental science to the love of statistics. No doubt it is a fun read because students in disciplines like engineering, biology, physics, and mathematics actually read it! I decided to use it for my course because of its entertaining approach to introducing fundamental statistical concepts and methods as it develops the history of the discipline with amusing color commentary about the principal players who starred in it.
Without sound statistical analyses, experimental data are figments of scientists’ imagination. It is a must-read to enjoy how analysis of something as frivolous as whether a lady can tell if the milk or the tea were added first to a cup inspired one of the most powerful statistical methods.
An insightful, revealing history of the magical mathematics that transformed our world. The Lady Tasting Tea is not a book of dry facts and figures, but the history of great individuals who dared to look at the world in a new way.
At a summer tea party in Cambridge, England, a guest states that tea poured into milk tastes different from milk poured into tea. Her notion is shouted down by the scientific minds of the group. But one man, Ronald Fisher, proposes to scientifically test the hypothesis. There is no better person to conduct such an experiment, for Fisher…
A childhood friend says that I am the only person he knows who grew up to be exactly what he said he wanted to become. But he is mistaken because I was born a scientist. I have no memories when I was not thinking about science, learning it, doing it, teaching it, trying to improve it, pondering it, or sharing it with others. Over my life and career as a scientist, I have been further fulfilled by undergirding my scientific work with reflection and introspection through reading the history, philosophy, and practice of science revealed and disclosed in books like the five I recommend here. Enjoy them as I have!
I don’t remember how this book made it into my hands, but I am so glad it did! This book has made me a better scientist because it taught me scientific humility. Popper rips apart the very fabric of experimental science’s unique and most powerful tool, the scientific method.
When I taught students at MIT how to apply experimental analysis with the scientific method to establish that an observed effect was, in fact, caused by an identified factor, always in my head, I would hear the words of Popper. Past relationships between factors and effects are not necessarily maintained in the future. This understanding of the nature of the universe reveals the imperfections of science, which rarely proves the world’s truths but often does elucidate them.
Described by the philosopher A.J. Ayer as a work of 'great originality and power', this book revolutionized contemporary thinking on science and knowledge. Ideas such as the now legendary doctrine of 'falsificationism' electrified the scientific community, influencing even working scientists, as well as post-war philosophy. This astonishing work ranks alongside The Open Society and Its Enemies as one of Popper's most enduring books and contains insights and arguments that demand to be read to this day.
I’ve always had equally balanced interests in the arts/humanities and the natural sciences. I started as a physics major in college but added a second major in philosophy after encountering the evolutionary theories of Hegel, Bergson, Alexander, Whitehead, and Teilhard de Chardin. This interest continued in graduate school at Northwestern, where my first year coincided with the arrival of Prof. Errol E. Harris, who had a similar focus and would direct my doctoral dissertation in philosophy, whose title was From Ontology to Praxis: A Metaphilosophical Inquiry into Two Philosophical Paradigms. One of the “paradigms” was reductionist; the other was emergentist.
This is a collection of twenty-four essays by thirty-six prominent researchers, demonstrating how important this topic has become for both scientific and philosophical research. In 2016 (after I had published ESSENTIAL DIFFERENCE: Toward a Metaphysics of Emergence [2012], where I discuss Paul Humphreys’ view on pp. 231-2), he published EMERGENCE: A Philosophical Account, Oxford University Press, New York.
What I find especially significant in this more recent (and more challenging) work is that, in effect, emergence theory has developed into both a metascience and a metaphilosophy–as is evident in Humphreys’ Chapters 2, “Ontological Emergence” and 5, “Conceptual Emergence,” as well as Chapters 6, “Philosophical Topics Related to Emergence,” and 7, “Scientific Topics Related to Emergence.” This parallels very closely my own perspective on both scientific and philosophical conceptions of emergence.
Contemporary classics on the the major approaches to emergence found in contemporary philosophy and science, with chapters by such prominent scholars as John Searle, Stephen Weinberg, William Wimsatt, Thomas Schelling, Jaegwon Kim, Daniel Dennett, Herbert Simon, Stephen Wolfram, Jerry Fodor, Philip Anderson, David Chalmers, and others.
Emergence, largely ignored just thirty years ago, has become one of the liveliest areas of research in both philosophy and science. Fueled by advances in complexity theory, artificial life, physics, psychology, sociology, and biology and by the parallel development of new conceptual tools in philosophy, the idea of emergence offers a way to understand…
I’ve been a philosopher before I knew what philosophers were: asking questions to challenge the starting points for conversations. My biggest pet peeve has always been people who were sure they entirely understood something. While scientists conduct science to help learn about the world, philosophers of science like me study science to try to figure out how it works, why (and when) it’s successful, and how it relates to human concerns and society. Humans ultimately invent science, and I think it’s fascinating to consider how its features relate to our interests and foibles and how it’s so successful at producing knowledge and practical abilities.
This book takes what seems to be an incredibly basic feature of the world—temperature—and shows how a tremendous amount of scientific ingenuity and choices made over two centuries contributed to defining and measuring temperatures.
Showing how concepts taken for granted today emerged over time and could have been different helps reveal how little of what we know comes from direct observation.
What is temperature, and how can we measure it correctly? These may seem like simple questions, but the most renowned scientists struggled with them throughout the 18th and 19th centuries. In Inventing Temperature, Chang examines how scientists first created thermometers; how they measured temperature beyond the reach of standard thermometers; and how they managed to assess the reliability and accuracy of these instruments without a circular reliance on the instruments themselves.
In a discussion that brings together the history of science with the philosophy of science, Chang presents the simple yet challenging epistemic and technical questions about these instruments, and…
