Here are 100 books that The God Particle fans have personally recommended if you like
The God Particle.
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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.
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’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’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.
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…
I became Buddhist while I was working in Southeast Asia, in Thailand specifically. Here’s one of the great lessons I learned, or perhaps it’s merely a koan, and that is this, no true Buddhist is Buddhist. It’s my own saying and one that I live by because Zen, Tibetan or Theravada are all structured disciplines with ritual and even recognized leaders. And I think the Buddha would laugh one of his full bellied roars to learn that there were, in some cases, global organizations all named in his honor. That’s not to make light of the way of organized Buddhism, merely to say that it isn’t my way.
I first encountered the philosophy of physicist Bohm in another book by the philosopher Renée Weber (Dialogues with Scientists and Sages) in which she, the Dalai Lama, and Bohm (among others) explore, well, everything. But Bohm’s own exploration blends Buddhist concepts with physics. One of the many reasons I am Buddhist myself is its architecture and allowance for new concepts including physics theory and the reality of light itself. His implicate order for the universe explains more about its reality than accepted current theory. I’m no physicist nor towering intellectual, but I am following the Buddha’s advice to figure it out for myself. This book helped immensely. Sadly his work is overlooked by the scientific community.
There are few scientists of the twentieth century whose life's work has created more excitement and controversy than that of physicist David Bohm (1917-1992). For the first time in a single volume, The Essential David Bohm offers a comprehensive overview of Bohm's original works from a non-technical perspective. Including three chapters of previously unpublished material, each reading has been selected to highlight some aspect of the implicate order process, and to provide an introduction to one of the most provocative thinkers of our time.
I’m a geoscientist and writer, and ever since my childhood explorations of the ponds, creeks, cliffs and forests of my native Ontario I’ve been fascinated with the natural world. During my PhD studies and subsequent academic career I’ve been fortunate to experience the thrill of experiment and discovery, and I’m passionate about communicating the wonders of science to others. I try to do that in my own books. Those I’ve recommended here, in my opinion, do it superbly.
This book is a collection of essays, letters, and lectures about the intrinsic value, importance, and beauty of science by one of its most talented and passionate communicators. Dawkins’s clear and often witty treatment of complex scientific issues is a breath of fresh air in this time of misinformation and ‘fake news.’ He writes primarily about biology, his own specialty, but ranges widely from ecology to evolution to genetics and even life beyond planet earth. Throughout, his incisive prose conveys the thrill and wonder of scientific discovery.
Richard Dawkins - author of The Selfish Gene, The Blind Watchmaker, and The God Delusion - is one of science's greatest communicators. This anthology of more than forty pieces is a kaleidoscopic argument for the power and the glory of science.
Breathtaking, brilliant and passionate, these essays, journalism, lectures and letters make an unanswerable case for the wonder of scientific discovery and its power to stir the imagination; for the practical necessity of scientific endeavour to society; and for the importance of the scientific way of thinking - particularly in today's 'post-truth' world.
