Here are 100 books that The God Particle fans have personally recommended if you like
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My fascination with the Universe led me to become a high-energy physics and astrophysics researcher. I work at CERN (Geneva) working on elementary particles. Over many years, I have written and reviewed numerous scientific articles and served as the editor for two books. I have also reviewed books and co-written a few short popular science pieces. My reading interests encompass not only academic and literary works but also popular science, philosophy, and sociology. Understanding the Universe is difficult. With this collection, I hope to provide you with an authentic introduction to the study of the Universe and its evolution from various perspectives.
This is both a popular physics and philosophy book explaining at great length physics’ answer to life, meaning, and the Universe.
I like his clear account of the fundamental laws of nature, emergent theories and levels of reality, their implications and how we can talk about the Universe from the big bang to human experience, consciousness and meaning, without resorting to any mystical agents.
'Fascinating' - Brian Cox, Mail on Sunday Books of the Year
Where are we? Who are we? Do our beliefs, hopes and dreams hold any significance out there in the void? Can human purpose and meaning ever fit into a scientific worldview?
Award-winning author Sean Carroll brings his extraordinary intellect to bear on the realms of knowledge, the laws of nature and the most profound questions about life, death and our place in it all.
From Darwin and Einstein to the origins of life, consciousness and the universe itself, Carroll combines cosmos-sprawling science and profound thought in a quest to…
My fascination with the Universe led me to become a high-energy physics and astrophysics researcher. I work at CERN (Geneva) working on elementary particles. Over many years, I have written and reviewed numerous scientific articles and served as the editor for two books. I have also reviewed books and co-written a few short popular science pieces. My reading interests encompass not only academic and literary works but also popular science, philosophy, and sociology. Understanding the Universe is difficult. With this collection, I hope to provide you with an authentic introduction to the study of the Universe and its evolution from various perspectives.
This book explains what not to do to know the Universe, with examples from non-fiction postmodern nonsense "texts." These texts include discourses detached from experimental verification and scientific terms used completely out of context.
I love this book because I find pseudo- and postmodern science distasteful and harmful. I think it shows clearly how some famous postmodern intellectuals promote antipathy for facts, clear thinking, empirical tests, and, in general, science — our best shot at understanding the Universe. These postmodern intellectuals have huge influence and have helped spread the trend of rejection of reason and science throughout the World.
I adore this book stressing science is not an arbitrary "narration" or a collection of metaphors for postmodern essays. I share the authors’ dreams about a future after postmodernism.
In 1996 physicist Alan Sokal published an essay in Social Text--an influential academic journal of cultural studies--touting the deep similarities between quantum gravitational theory and postmodern philosophy.
Soon thereafter, the essay was revealed as a brilliant parody, a catalog of nonsense written in the cutting-edge but impenetrable lingo of postmodern theorists. The event sparked a furious debate in academic circles and made the headlines of newspapers in the U.S. and abroad.
In Fashionable Nonsense: Postmodern Intellectuals' Abuse of Science, Sokal and his fellow physicist Jean Bricmont expand from where the hoax left off. In a delightfully witty and clear voice,…
My fascination with the Universe led me to become a high-energy physics and astrophysics researcher. I work at CERN (Geneva) working on elementary particles. Over many years, I have written and reviewed numerous scientific articles and served as the editor for two books. I have also reviewed books and co-written a few short popular science pieces. My reading interests encompass not only academic and literary works but also popular science, philosophy, and sociology. Understanding the Universe is difficult. With this collection, I hope to provide you with an authentic introduction to the study of the Universe and its evolution from various perspectives.
This book is about the attempts of physicists to understand the nature of time. The author tells the story of the concept of time from ancient Greece to the end of the 20th century through the progress in relativistic astrophysics, cosmology, and particle physics.
The best thing about the book is the anecdotes about great physicists with whom Novikov met in the former Soviet Union and in the West, such as Zeldovich, Guseinov, Longair, Hawking, and Trimble. I also like how Novikov shows the readers that many new phenomena and laws of nature are waiting to be discovered. It is also inspiring to learn about how physicists have been able to contribute to the understanding of nature even under very difficult situations.
Can we change the past? The surprising answer to this question can be found in the final chapters of this book. Novikov details the development of our views on time from classical Greece to the modern day, presenting the figures who have contributed to the evolution of our knowledge as real people and placing them in the context of their own time. He also describes in detail the current state of research in such areas as time machines, the start of time and why does time pass: areas on which he himself has worked. The author's own personal experiences, of…
My fascination with the Universe led me to become a high-energy physics and astrophysics researcher. I work at CERN (Geneva) working on elementary particles. Over many years, I have written and reviewed numerous scientific articles and served as the editor for two books. I have also reviewed books and co-written a few short popular science pieces. My reading interests encompass not only academic and literary works but also popular science, philosophy, and sociology. Understanding the Universe is difficult. With this collection, I hope to provide you with an authentic introduction to the study of the Universe and its evolution from various perspectives.
I like the main idea promoted in the book that even laws of nature (including general relativity) result from "collective effects," i.e., many-body interactions. This is supported by examples from the material nature of the vacuum of elementary particles to proteins and daily life.
The discovery of the Higgs boson at CERN (after the book was written) already greatly increased our confidence that the vacuum is not empty but a type of matter from which elementary particle properties emerge.
I also like his thoughts on the philosophy of physics from the collective-effects (or non-reductionist) perspective. He claims that for a scientific measurement or even a law to be possible, nature should allow precisely measurable quantities via collective effects.
Why everything we think about fundamental physical laws needs to change, and why the greatest mysteries of physics are not at the ends of the universe but as close as the nearest ice cube or grain of salt Not since Richard Feynman has a Nobel Prize-winning physicist written with as much panache as Robert Laughlin does in this revelatory and essential book. Laughlin proposes nothing less than a new way of understanding fundamental laws of science. In this age of superstring theories and Big-Bang cosmology, we're used to thinking of the unknown as being impossibly distant from our everyday lives.…
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.
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…
I'm a PEN Award-winning historian of alternative spirituality and a writer-in-residence at the New York Public Library. I track the impact and substance of supernatural beliefs—a source of fascination since my Queens, NY, boyhood—in books including Occult America, The Miracle Club, and Uncertain Places. I often say that if you do not write your own history, it gets written for you—usually by people who may not care about or even understand the values that emanate from your work. Given my personal dedication to the spiritual search, I call myself a believing historian (which most historians of religion actually are). I labor to explore the lives, ideas, and practices behind esoteric spirituality.
The most controversial aspect of nearly a century of research in quantum mechanics is how the perspective of an observer, either sentient or mechanical, determines reality on the subatomic scale. What does this say—if anything—about life in our above-ground, macro world? With zero sensationalism and great rigor, not to mention witty and accessible writing, physicists Rosenblum and Kuttner sort out questions of particle mechanics, quantum theory, and consciousness in a manner that is understandable to the layperson yet faithful to the findings of this most confounding of the hard sciences.
In trying to understand the atom, physicists built quantum mechanics, the most successful theory in science and the basis of one-third of our economy. They found, to their embarrassment, that with their theory, physics encounters consciousness. Authors Bruce Rosenblum and Fred Kuttner explain all this in non-technical terms with help from some fanciful stories and anecdotes about the theory's developers. They present the quantum mystery honestly, emphasizing what is and what is not speculation. Quantum Enigma's description of the experimental quantum facts, and the quantum theory explaining them, is undisputed. Interpreting what it all means, however, is heatedly controversial. But…
I’m a scientist at the University of Cambridge who’s worked on
environmental research topics such as jet streams and the Antarctic
ozone hole. I’ve also worked on solar physics and musical acoustics.
And other branches of science have always interested me. Toward the
end of my career, I became fascinated by cutting-edge issues in
biological evolution and natural selection. Evolution is far
richer and more complex than you’d think from its popular description
in terms of ‘selfish genes’. The complexities are central to
understanding deep connections between the sciences, the arts, and
human nature in general, and the profound differences between human
intelligence and artificial intelligence.
It achieves an important and unusual cross-fertilization between two
very different kinds of expertise. Both authors are highly
innovative, and creative, thinkers, Cohen in biology and Stewart in
mathematics.
Cohen is a biologist fascinated by the complexity
observed in the living world, and Stewart is an expert on the
mathematics of chaos and complexity. The result is a profound and
multifaceted view of many natural phenomena, and of evolution in
particular. It becomes very clear how selfish-gene theory fails to
take account of important evolutionary mechanisms.
Moving on from his books on chaos ("Does God Play Dice?") and symmetry ("Fearful Symmetry"), the author of this book deals with the wider field of complexity theory. The book tackles the question of how complexity arises in nature, of how life overcomes chaos and entropy to create developing order. Co-written with biologist Jack Cohen, the book will range across the central areas of modern science, from quantum mechanics and cosmology to evolution and intelligence, looking at the central questions of order, chaos, reductionism and complexity.
For as long as I can remember, I have passionately wanted to understand both the nature of the universe, what it is that is of most value in life, and how it is to be achieved. When a child, I wanted above all to understand the nature of the world around me; later, when a young adult, I suddenly discovered the fundamental significance of the question: What is of most value in life, and how is it to be achieved? I became a lecturer in Philosophy of Science at University College London, where I was able to devote myself to these issues.
This book also gives a vivid and dramatic account of the way science proceeds, but one that is strikingly different from that of Popper’s account. According to Kuhn, much of science is what he calls “normal” science: a basic theory, or “paradigm,” is taken for granted, and scientists seek to increase its experimental range and accuracy. But then “anomalies” begin to accumulate; crisis sets in until a new paradigm is proposed, a revolution occurs, the old paradigm is defeated, and a new phase of normal science begins.
I loved the drama Kuhn finds in this procedure of normal and revolutionary science, his depiction of the tragedy of those scientists left behind who remain devoted to a paradigm that has been rejected and superseded. There is no doubt that both normal and revolutionary science are features of science as they actually exist.
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…
I was once an academic philosopher, but I found it too glamorous and well-paid so I became a novelist and private intellectual mentor instead. I wroteYou Are Herebecause I love whatscience knows, but an interest in howscience knows drew me into the philosophy of science, where a puzzle lurks. Scientists claim that the essence of their craft is captured in a 17th Century formula, “the scientific method”... and in a 20th Century litmus test, “falsifiability.” Philosophers claim that these two ideas are (a) both nonsense and (b) in any case mutually contradictory. So what’s going on?
There are many short, accessible introductions to what current philosophers of science spend their time arguing about; this is one of the best. It wisely doesn’t cover everything, but instead uses Francis Bacon’s crucial break with the authority of Aristotle as a point of entry into current debates on half a dozen core issues such as inductive inference, progress, and realism.
Few can imagine a world without telephones or televisions; many depend on computers and the Internet as part of daily life. Without scientific theory, these developments would not have been possible.
In this exceptionally clear and engaging introduction to philosophy of science, James Ladyman explores the philosophical questions that arise when we reflect on the nature of the scientific method and the knowledge it produces. He discusses whether fundamental philosophical questions about knowledge and reality might be answered by science, and considers in detail the debate between realists and antirealists about the extent of scientific knowledge. Along the way, central…
