Here are 100 books that The Quantum Dissidents fans have personally recommended if you like
The Quantum Dissidents.
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Since my first college course in quantum physics, I have been fascinated with this enigmatic, infinitely interesting theory. It's our most fundamental description of the universe, it's been found to be unerringly accurate, yet it's quite subtle to interpret. Even more intriguingly, "nobody really understands quantum physics" (as Richard Feynman put it). For example, the theory's central concept, the wave function, is interpreted radically differently by different physicists. I have always yearned to grasp, at least to my own satisfaction, a comprehensive understanding of this theory. Since retirement 23 years ago, I have pursued this passion nearly full-time and found some answers, leading to several technical papers and a popular book.
Guilder uses historical vignettes to describe how entanglement came to be regarded as a – or perhaps the – central pillar of quantum physics. For example, we share a streetcar ride through Copenhagen in 1923 with Niels Bohr, Albert Einstein, and Arnold Sommerfeld. Although we don't know precisely what they discussed, Guilder indicates what they probably discussed based on quotations from letters and other evidence. Thus, the book reads like a historical novel. It centers on the distant correlations, dubbed (by Einstein and Erwin Schrodinger) "spooky action at a distance." Since 1964, physicists have shown this astonishing phenomenon, now called "non-locality," to be clearly predicted by quantum theory and fully confirmed by experiment. This development is the "rebirth" of quantum physics referred to in the title. Guilder is a non-scientist who writes beautifully with a good grasp of physics.
In The Age of Entanglement, Louisa Gilder brings to life one of the pivotal debates in twentieth century physics. In 1935, Albert Einstein famously showed that, according to the quantum theory, separated particles could act as if intimately connected–a phenomenon which he derisively described as “spooky action at a distance.” In that same year, Erwin Schrödinger christened this correlation “entanglement.” Yet its existence was mostly ignored until 1964, when the Irish physicist John Bell demonstrated just how strange this entanglement really was. Drawing on the papers, letters, and memoirs of the twentieth century’s greatest physicists, Gilder both humanizes and dramatizes…
I am totally fascinated by the quest of how Nature does it. In particular, I love the fact that humans managed to enters the strange world of atoms and photons by just using their brute intellectual force and imagination. This world obeys precise rules, but very different ones from those we get used to since childhood. For example, the laws that govern the microscopic world allow for indeterminacy and randomness. Moreover, some random events may manifest themselves at several locations at once, leading to the phenomenon of quantum non-locality. I am very fortunate that I could spend all my professional time on such fascinating conceptual questions, combined with highly timely new technologies.
This little book introduces quantum physics at the level of high-school students. It starts with semi-transparent mirrors and interferometers. With figures, but no equations, the reader becomes familiar with wave-particle duality. Next, quantum cryptography, some experiments, and even quantum teleportation are presented in a truly pedestrian way. I much enjoyed reading this book.
Quantum physics is often perceived as a weird and abstract theory, which physicists must use in order to make correct predictions. But many recent experiments have shown that the weirdness of the theory simply mirrors the weirdness of phenomena: it is Nature itself, and not only our description of it, that behaves in an astonishing way. This book selects those, among these typical quantum phenomena, whose rigorous description requires neither the formalism, nor an important background in physics.
The first part of the book deals with the phenomenon of single-particle interference, covering the historical questions of wave-particle duality, objective randomness…
I am totally fascinated by the quest of how Nature does it. In particular, I love the fact that humans managed to enters the strange world of atoms and photons by just using their brute intellectual force and imagination. This world obeys precise rules, but very different ones from those we get used to since childhood. For example, the laws that govern the microscopic world allow for indeterminacy and randomness. Moreover, some random events may manifest themselves at several locations at once, leading to the phenomenon of quantum non-locality. I am very fortunate that I could spend all my professional time on such fascinating conceptual questions, combined with highly timely new technologies.
This is a wonderful and highly convincing analysis of quantum non-locality, written by one of the top expert philosophers of science. Personally, I learned a lot from this book, which clearly influenced me and helped me to become an expert in the field. The book goes deep into explaining why we live in a world full of non-local correlations and what that means. It analyses in depth the tension between quantum non-locality and relativity. Moreover, it contains several original ideas, like, e.g., how many bits of communication are needed to simulate quantum non-locality. It is still today a very timely book.
Modern physics was born from two great revolutions: relativity and quantum theory. Relativity imposed a locality constraint on physical theories: since nothing can go faster than light, very distant events cannot influence one another. Only in the last few decades has it become clear that quantum theory violates this constraint. The work of J. S. Bell has demonstrated that no local theory can return the predictions of quantum theory. Thus it would seem that the central pillars of modern physics are contradictory. Quantum Non-Locality and Relativity examines the nature and possible resolution of this conflict. Beginning with accurate but non-technical…
I am totally fascinated by the quest of how Nature does it. In particular, I love the fact that humans managed to enters the strange world of atoms and photons by just using their brute intellectual force and imagination. This world obeys precise rules, but very different ones from those we get used to since childhood. For example, the laws that govern the microscopic world allow for indeterminacy and randomness. Moreover, some random events may manifest themselves at several locations at once, leading to the phenomenon of quantum non-locality. I am very fortunate that I could spend all my professional time on such fascinating conceptual questions, combined with highly timely new technologies.
John Steward Bell is one of the giants of the twentieth-century sciences, sitting beside Einstein, Bohr, Shannon. I don’t hesitate to predict that history will set him at the firmament of all sciences, thanks to his revolutionary discovery of quantum non-locality. This biography is a must for everyone willing to understand the personality of John Bell, the father of what became after his sudden death the second quantum revolution.
This book gives a readable non-mathematical account of the upbringing, education and academic achievement of John Stewart Bell, the celebrated physicist from Belfast, who was born in 1928.
Bell has become famous for what he described as his 'hobby', analysing the fundamental aspects of quantum theory, where he clarified a long-standing debate between the two most important figures of twentieth century physics, Albert Einstein and Niels Bohr, and showed that, contrary to belief over the previous thirty years, quantum theory could be supplemented with extra 'hidden variables'. His crucial 'Bell's Theorem' or 'Bell's Inequalities' demonstrated a contradiction between quantum theory…
I’ve been fascinated by the universe since childhood – ever since my parents took me to the countryside in rural Nova Scotia, where the stars shone with wondrous intensity. At first, I borrowed books about space and the universe from our local library for fun; now, as a full-time science writer, I read these books to stay informed about the latest ideas shaping our understanding of the cosmos. (I also read them in order to review them on BookLab, a podcast I host together with science writer Amanda Gefter.) I hope you enjoy the books on this list as much as I have!
If you struggled with physics in high school – or even if you didn’t – this is the book for you. Rovelli, an Italian physicist, manages to take the most difficult concepts in physics, from relativity and quantum mechanics to the nature of space and time, and explain them in straightforward, everyday language. He spells out not only what these idea are, but why they matter. Thanks to Rovelli’s easy-going style, after a few pages you’ll forget that you’re even reading a physics book. It is, in a word, delightful.
INDEPENDENT, ECONOMIST, TELEGRAPH, GUARDIAN, NEW SCIENTIST, EVENING STANDARD BOOKS OF THE YEAR 2015
THE SUNDAY TIMES BESTSELLER
Everything you need to know about modern physics, the universe and our place in the world in seven enlightening lessons
'Here, on the edge of what we know, in contact with the ocean of the unknown, shines the mystery and the beauty of the world. And it's breathtaking'
These seven short lessons guide us, with simplicity and clarity, through the scientific revolution that shook physics in the twentieth century and still continues to shake us today. In this beautiful and mind-bending introduction to…
I am a professor of quantum physics—the most notoriously complicated science humans have ever invented. While the likes of Albert Einstein commented on how difficult quantum physics is to understand, I disagree! Ever since my mum asked me—back while I was a university student—to explain to her what I was studying, I’ve been on a mission to make quantum physics as widely accessible as possible. Science belongs to us all and we should all have an opportunity to appreciate it!
Baby Loves Quantum Physics is a cute book about Schrodinger’s Cat, which was featured in a “thought-experiment” nearly 100 years ago about what quantum physics ought to look to big things like humans or cats. The illustrations are engaging for young readers and the language is pitched at a suitable level. This a great step on baby’s quantum quest!
Accurate enough to satisfy an expert, yet simple enough for baby, this clever board book engages readers in a game of hide-and-seek with Schrodinger's famous feline. Can cat be awake and asleep at the same time? Beautiful, visually stimulating illustrations complement age-appropriate language to encourage baby's sense of wonder. Parents and caregivers may learn a thing or two, as well!
With tongue firmly in cheek, the Baby Loves Science series introduces highly intellectual science concepts to the littlest learners.
I am a physics professor with a passion for teaching. When I was a graduate student, I took required courses in classical mechanics, classical electrodynamics, quantum mechanics, and statistical mechanics. Some of the textbooks assigned by my professors were good; some were not so good. In every case, it was extremely helpful to read what other authors had to say about these foundational subjects. Four of the five books I recommend below are my personal favorites among these serious physics books. My fifth book choice is less serious and does not teach physics, but it will improve your graduate student experience nonetheless.
This book helped me pass my PhD qualifying exam. The writing style is crisp and qualitative arguments abound. Baym treats perturbation theory and scattering theory particularly nicely and your interest will never flag because he illustrates the formal theory with wonderfully chosen examples like K-meson interference effects, the Van der Waals interaction, Cooper pairing, spin resonance, multipole radiation, Klein’s paradox, and the Hanbury-Brown and Twiss experiment. A special treat not found in other textbooks is a discussion of Julian Schwinger’s unique take on the quantum theory of angular momentum.
These lecture notes comprise a three-semester graduate course in quantum mechanics at the University of Illinois. There are a number of texts which present the basic topics very well; but since a fair quantity of the material discussed in my course was not available to the students in elementary quantum mechanics books, I was asked to prepare written notes. In retrospect these lecture notes seemed sufficiently interesting to warrant their publication in this format. The notes, presented here in slightly revised form, consitutute a self-contained course in quantum mechanics from first principles to elementary and relativistic one-particle mechanics. Prerequisite to…
Since my first college course in quantum physics, I have been fascinated with this enigmatic, infinitely interesting theory. It's our most fundamental description of the universe, it's been found to be unerringly accurate, yet it's quite subtle to interpret. Even more intriguingly, "nobody really understands quantum physics" (as Richard Feynman put it). For example, the theory's central concept, the wave function, is interpreted radically differently by different physicists. I have always yearned to grasp, at least to my own satisfaction, a comprehensive understanding of this theory. Since retirement 23 years ago, I have pursued this passion nearly full-time and found some answers, leading to several technical papers and a popular book.
Baggott's book is a rich, readable account of quantum physics as viewed at 40 key "moments" in its history. These moments range from the trouble with classical physics in 1900, leading to the notion of discrete "quanta" of energy, to the hunt for the Higgs particle at the CERN accelerator laboratory. Other moments include the invention of Schrodinger's equation, the Uncertainty Principle, and the Standard Model of particle physics. The author is an experienced science writer and former academic scientist.
The twentieth century was defined by physics. From the minds of the world's leading physicists there flowed a river of ideas that would transport mankind to the pinnacle of wonderment and to the very depths of human despair. This was a century that began with the certainties of absolute knowledge and ended with the knowledge of absolute uncertainty. It was a century in which physicists developed weapons with the capacity to destroy our reality, whilst at the same time denying us the possibility that we can ever properly comprehend it.
Almost everything we think we know about the nature of…
Since my first college course in quantum physics, I have been fascinated with this enigmatic, infinitely interesting theory. It's our most fundamental description of the universe, it's been found to be unerringly accurate, yet it's quite subtle to interpret. Even more intriguingly, "nobody really understands quantum physics" (as Richard Feynman put it). For example, the theory's central concept, the wave function, is interpreted radically differently by different physicists. I have always yearned to grasp, at least to my own satisfaction, a comprehensive understanding of this theory. Since retirement 23 years ago, I have pursued this passion nearly full-time and found some answers, leading to several technical papers and a popular book.
Given the radically distinct and often incongruent views of what quantum physics means, it is wise to glean a balanced sense of many views by studying the topic's history. Kumar's telling of the great, decades-long debate between two of the field's leading practitioners is authoritative and excitingly told. The book centers on the founding of quantum physics during the 1920s, the famous 1927 Solvay Conference on photons and electrons, and the thoughtful debate between Bohr and Einstein concerning the nature of reality. The author is a physicist, philosopher, and science writer.
'This is about gob-smacking science at the far end of reason ... Take it nice and easy and savour the experience of your mind being blown without recourse to hallucinogens' Nicholas Lezard, Guardian
For most people, quantum theory is a byword for mysterious, impenetrable science. And yet for many years it was equally baffling for scientists themselves.
In this magisterial book, Manjit Kumar gives a dramatic and superbly-written history of this fundamental scientific revolution, and the divisive debate at its core. Quantum theory looks at the very building blocks of our world, the particles and processes without which it could…
As a professor, I see students fascinated by science, but petrified to take a science class. This is in part because we have dehumanized science, removed the story, edited out the human, deleted the parts that allow people to connect with it. Science does not get delivered by gods, but is created by people: smart, quirky, sometimes immoral people. As a writer, my hope is to be able to reinsert life into readers’ understanding of our greatest advances. As a reader myself, I am deeply appreciative when other authors do it too.
The early period of the development of quantum mechanics were heady days, full of fascinating characters and factional infighting. As Europe was about to tear itself apart again, the physics community had also fractured. Jones explains the scientific fault lines and the personal relations (some of them quite racy!) that were in play as the modern theory of the atom unfolded.
Theoretical physics is in trouble. At least that's the impression you'd get from reading a spate of recent books on the continued failure to resolve the 80-year-old problem of unifying the classical and quantum worlds. The seeds of this problem were sewn eighty years ago when a dramatic revolution in physics reached a climax at the 1927 Solvay conference in Brussels. It's the story of a rush to formalize quantum physics, the work of just a handful of men fired by ambition, philosophical conflicts and personal agendas. Sheilla Jones paints an intimate portrait of the key figures who wrestled with…
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