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Simply Schrödinger
“A delightful and illuminating biography of one of the 20th century’s greatest scientists. His influence on physics and, at least indirectly, on biology was monumental and his unconventional private life was a continual challenge. There is never a dull moment in this fascinating book.”
— Gino Segrè, co-author with Bettina Hoerlin of The Pope of Enrico Fermi and the Birth of the Atomic Age
Born in Vienna, Austria, Erwin Schrödinger (1887-1961) was the only child of a Catholic father and an Austrian-English Lutheran mother. He attended the University of Vienna, receiving his doctorate in 1910. For the next 45 years, he held positions at many different universities in Europe, the U.K., and the U.S., a result both of his antipathy to Nazism, as well as his unconventional lifestyle, which often involved living with multiple women at a time. After appointments at Oxford, Princeton, and the University of Graz in Austria, Schrödinger was invited in 1938 to help set up the Dublin Institute for Advanced Studies, where, from 1940 until his retirement in 1955, he served as the director of the School for Theoretical Physics. In addition to his groundbreaking work in physics—for which he received the Nobel Prize in 1933—Schrödinger had a lifelong interest in philosophy and Eastern religion, and his lectures and writings included discussions of such topics as consciousness, free will, and the nature of reality. In Simply Schrödinger, acclaimed science writer John Gribbin takes the measure of this singular scientist, who stands with Einstein, Heisenberg, and Dirac as one of the creators of a new scientific reality. While the focus is primarily on Schrödinger’s particular contributions to quantum physics—including wave mechanics and wave-particle duality, as well as the famous feline—Gribbin also delves into Schrödinger’s fascination with Eastern philosophy and the other distinctive traits that differentiated him from his peers and made him who he was. Written in a personable and accessible style that minimizes jargon and doesn’t require a degree in physics, Simply Schrödinger is a fascinating introduction to one of the giants of the 20th century, who blazed his own trail in science and in life.
— Gino Segrè, co-author with Bettina Hoerlin of The Pope of Enrico Fermi and the Birth of the Atomic Age
Born in Vienna, Austria, Erwin Schrödinger (1887-1961) was the only child of a Catholic father and an Austrian-English Lutheran mother. He attended the University of Vienna, receiving his doctorate in 1910. For the next 45 years, he held positions at many different universities in Europe, the U.K., and the U.S., a result both of his antipathy to Nazism, as well as his unconventional lifestyle, which often involved living with multiple women at a time. After appointments at Oxford, Princeton, and the University of Graz in Austria, Schrödinger was invited in 1938 to help set up the Dublin Institute for Advanced Studies, where, from 1940 until his retirement in 1955, he served as the director of the School for Theoretical Physics. In addition to his groundbreaking work in physics—for which he received the Nobel Prize in 1933—Schrödinger had a lifelong interest in philosophy and Eastern religion, and his lectures and writings included discussions of such topics as consciousness, free will, and the nature of reality. In Simply Schrödinger, acclaimed science writer John Gribbin takes the measure of this singular scientist, who stands with Einstein, Heisenberg, and Dirac as one of the creators of a new scientific reality. While the focus is primarily on Schrödinger’s particular contributions to quantum physics—including wave mechanics and wave-particle duality, as well as the famous feline—Gribbin also delves into Schrödinger’s fascination with Eastern philosophy and the other distinctive traits that differentiated him from his peers and made him who he was. Written in a personable and accessible style that minimizes jargon and doesn’t require a degree in physics, Simply Schrödinger is a fascinating introduction to one of the giants of the 20th century, who blazed his own trail in science and in life.
- GenresScienceNonfiction
135 pages, Paperback
Published December 2, 2021
About the author
John Gribbin
295 books884 followersJohn R. Gribbin is a British science writer, an astrophysicist, and a visiting fellow in astronomy at the University of Sussex. His writings include quantum physics, human evolution, climate change, global warming, the origins of the universe, and biographies of famous scientists. He also writes science fiction.
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Displaying 1 - 5 of 5 reviews
December 15, 2021
I did not expect to read another book dealing with quantum theory so soon after Helgoland by Carlo Rovelli (which approached it starting with Heisenberg’s contribution). While, I don’t think it makes quantum theory very easy to understand (I doubt any book can as there are so many inherent complexities), it does an excellent job of covering Erwin Schrödinger’s personal life and his contribution to physics.
This is an excellent book - the elaboration of his life and work is very vivid and interspersed with the right amount of detail and references. Compared to many others, Schrödinger actually came into his own later – making significant contributions in his thirties and well into his fifties. Some of his personal life – including his tendency to jump in and out of several affairs make for amusing reading. He maintained strange & open relationships very unusual for the times. Though it lacks the women’s perspective, he apparently was able to be honest about his affairs with only one of them turning a little sour. His marriage with Anny did not rupture through all this and they supported each other when they were both old and ailing.
There was a lot of action in theoretical physics in Germany with Einstein, Heisenberg, Planck, Max Born & Schrödinger (separated by a few years in their prime). A lot of the ideas they were seized with, and Schrödinger’s many letter exchanges with Einstein make for fascinating reading. It was also a difficult period with Schrödinger having to enlist in the army during World War I. Later, Hitler coming to power prompted him to leave Germany as he opposed the rising ugly antisemitism. However, after periods of stay in Europe & UK, he was tempted to return to Austria and wrote a conciliatory note, the motivations of which are unclear. This damaged his image in UK, but he was to later move to Scotland after a short stay in Italy where he landed with almost no money and the physicist Fermi bailed him out. Wherever he went, apparently, his students loved his lectures and found it deeply inspiring.
The ‘Schrödinger Cat’ thought experiment is what he is best known for – but it is only after I read this book that I understood the full import of what he was trying to say. In several important areas, the author does well to provide the original correspondence and good explanations. This book also covers other areas Schrödinger contributed to including wave theory, colour theory, genetics, his essays on relativity and even life. He was influenced by philosophy, especially Advaita Vedanta with its message of all being one (arising & being sustained by Brahman) and each of us creating our reality. This he felt was the best expression of the truths of the real world – anything impacting something else affects us, as in some way it is connected to us – ours is a universe of relationships.
I found the book fascinating, and while it does not require a physics degree to read it, some of the material is still complicated (inherently so). This is really an excellent book to learn about Schrödinger’s life and contributions.
Thanks to Netgalley, the author and publisher for a free electronic review copy. The ebook did have a few issues in rendering on Kindle.
This is an excellent book - the elaboration of his life and work is very vivid and interspersed with the right amount of detail and references. Compared to many others, Schrödinger actually came into his own later – making significant contributions in his thirties and well into his fifties. Some of his personal life – including his tendency to jump in and out of several affairs make for amusing reading. He maintained strange & open relationships very unusual for the times. Though it lacks the women’s perspective, he apparently was able to be honest about his affairs with only one of them turning a little sour. His marriage with Anny did not rupture through all this and they supported each other when they were both old and ailing.
There was a lot of action in theoretical physics in Germany with Einstein, Heisenberg, Planck, Max Born & Schrödinger (separated by a few years in their prime). A lot of the ideas they were seized with, and Schrödinger’s many letter exchanges with Einstein make for fascinating reading. It was also a difficult period with Schrödinger having to enlist in the army during World War I. Later, Hitler coming to power prompted him to leave Germany as he opposed the rising ugly antisemitism. However, after periods of stay in Europe & UK, he was tempted to return to Austria and wrote a conciliatory note, the motivations of which are unclear. This damaged his image in UK, but he was to later move to Scotland after a short stay in Italy where he landed with almost no money and the physicist Fermi bailed him out. Wherever he went, apparently, his students loved his lectures and found it deeply inspiring.
The ‘Schrödinger Cat’ thought experiment is what he is best known for – but it is only after I read this book that I understood the full import of what he was trying to say. In several important areas, the author does well to provide the original correspondence and good explanations. This book also covers other areas Schrödinger contributed to including wave theory, colour theory, genetics, his essays on relativity and even life. He was influenced by philosophy, especially Advaita Vedanta with its message of all being one (arising & being sustained by Brahman) and each of us creating our reality. This he felt was the best expression of the truths of the real world – anything impacting something else affects us, as in some way it is connected to us – ours is a universe of relationships.
I found the book fascinating, and while it does not require a physics degree to read it, some of the material is still complicated (inherently so). This is really an excellent book to learn about Schrödinger’s life and contributions.
Thanks to Netgalley, the author and publisher for a free electronic review copy. The ebook did have a few issues in rendering on Kindle.
July 4, 2026
Erwin Schrödinger was one of the greatest pioneers of the quantum revolution, along with Einstein, Bohr, Heisenberg, and Dirac. He is famous for his paradoxical thought experiment called ‘Schrödinger’s cat’. He was a complex genius who made contributions to quantum physics, biology, and genetics. The author of this book, John Gribbin, is an astrophysicist and science writer. He has condensed Schrödinger’s multifaceted life and his fascinating physics into a concise and understandable story for the average non-technical reader. This is a vivid biography and also a primer on Schrödinger’s work in quantum physics. Gribbin has kept the complex mathematics aside, making it a book for the non-specialist. However, a broad knowledge of the ideas behind quantum mechanics will help in grasping the greatness of Schrödinger’s ideas.
Schrödinger was born in 1887 in Vienna as the only child of a Catholic father and an Austrian-English Lutheran mother. This multicultural origin foreshadowed a life traversing borders, both geographical and intellectual. He had a professional career as a quantum physicist for almost five decades in Vienna, Oxford, and Dublin. Beyond his scientific achievements, Schrödinger’s life was notable for its “unconventional lifestyle.” This included cohabitation with several women and the practice of “open relationships” within his marriage, both of which were unusual for that era. Britain, Germany, and Ireland reacted differently to his open marriage when he lived there. Schrödinger commented on their attitudes, stating that Germans prohibited what their society did not allow and England permitted whatever was not prohibited. Whether permitted or prohibited, Austrians and the Irish did it if they desired. His complex private life receives an unvarnished depiction in this work. These anecdotes humanize the Austrian scientist, showing a man who blazed his own independent trail both in the sciences and his social life.
The core of the book, though, is Schrödinger’s role in the quantum revolution alongside giants like Einstein, Bohr, Heisenberg, and Dirac as creators of a new scientific reality. Schrödinger’s specific contributions were wave mechanics and wave-particle duality. Wave mechanics, developed by him in 1926, is a mathematical technique that describes the behavior of particles that also exhibit wavelike properties, like electrons. It explains the energies and spatial distributions of electrons in atoms. Wave-particle duality suggests that particles can exhibit both wavelike and particle-like properties. Besides, he wrote essays on relativity and contributed to colour theory, biology, and genetics. The Hindu philosophy of Advaita Vedanta influenced him with its message of all being one (arising and being sustained by Brahman) and each of us creating our own reality. Anything affecting something else affects us because of its connection. Shankara, an eighth-century philosopher from southern India, advanced this philosophy. Schrödinger believed this explained real-world truths best. This “universe of relationships” influenced his scientific outlook, consciousness, free will, and the nature of reality.
Now, we shall look at some of his ideas in depth. Deterministic models preceded quantum mechanics. General relativity served as one example of those models describing how reality works. These models believed current events dictate subsequent ones with exactitude. Quantum mechanics introduced a probabilistic universe. Electrons leap between orbits without traversing intervening space. It does not “move” in the conventional sense. It appears here, then yonder. This is the famous quantum leap. It smacks of magic, and it worried many people, including Schrödinger.
By the mid-1920s, the Copenhagen interpretation, developed by Niels Bohr and Werner Heisenberg, became the foundational interpretation of quantum mechanics. It states that a quantum system exists in a superposition of multiple states until measured. This is the wave-particle duality. This quantum phenomenon can have two mutually exclusive, yet necessary, properties depending on how they’re measured, but you cannot observe both aspects simultaneously. If you set out to measure waves, you will find waves, but if you set out to measure particles, you will find particles. This is called complementarity, a key principle developed by Niels Bohr. The other essential features of the Copenhagen Interpretation are Max Born’s statistics, Heisenberg’s uncertainty principle, and Schrödinger’s wave equation, interpreted as a “wave of probability”. The detector observes the wave collapse, revealing a real electron whose location follows probabilistic rules. It could show up in many locations, some being more probable than others. But the important thing is, when we are not looking at it—when it is not being detected—, the electron does not exist.
“Wave function collapse” proved the most vexing element of the package, especially for Schrödinger and Einstein. Schrödinger said right up front it is “ridiculous.” Through his famous thought experiment of ‘Schrödinger's Cat’, he offered an example of the absurdity of the Copenhagen Interpretation. He did not believe it is the right way to view nature.
Einstein felt unhappy introducing probability into quantum equations, calling it “a weakness of the theory.” But he also pointed out another feature of the theory. If we could prepare many identical atoms in identical high-energy states, then a photon with the right energy could nudge them. When this happens, they all can emit photons with the same energy, creating an intense burst of light. It would make an intense beam of light of a single, pure color. Light Amplification by Stimulated Emission of Radiation—LASER - puts it in practice. Einstein’s theories find validation in lasers, confirming the probabilistic nature of subatomic realms, despite his personal reservations. Solid evidence by 1920 more clearly showed light existed as a wave and also as a particle stream.
Author Gribbin clarifies one important misconception that is common among even physicists about Heisenberg’s Uncertainty Principle. Uncertainty, many believe, stems from measurement issues. If you measure an electron’s position, you are bound to give it a nudge, which will change its velocity and therefore its momentum. If you measure the electron’s momentum, you will give it a nudge which changes its position or its trajectory. All true, but besides the point. What Heisenberg’s principle tells us is that a quantum entity such as an electron never has a precise momentum and a precise position. The uncertainty is intrinsic to quantum reality, built into the workings of the universe. The rule applies in our daily lives as well, but because Planck’s constant is of infinitesimal magnitude, the consequences are unnoticeable. Regarding this, Einstein presented a crucial philosophical point that even Heisenberg failed to fully appreciate when he voiced it. Einstein remarked, “It is quite wrong to try founding a theory on observable magnitudes alone. In reality, the very opposite happens. It is the theory that describes what we can observe.” So, does a fundamental reality exist beneath quantum phenomena, conforming to Einstein’s wishes?
Schrödinger made the startling suggestion that all the laws of physics might be statistical. The notion of “law” as conceived, similar to Newton’s laws of motion, is nonexistent. Within a few years, however, he and Einstein would lead the opposition against the idea that chance governs events at the atomic and subatomic levels. Scientists believed atoms radiated light outward uniformly, like expanding spheres. Schrödinger saw this as the problem. Moving out that way, carrying momentum, how could the atom recoil? Uniform forces from all sides would keep the atom motionless. Schrödinger concluded that the law of conservation of momentum did not hold at the atomic level. He questioned that if a fundamental "law" of physics failed at the quantum level, what grounds remain for accepting others, such as the law of conservation of energy? His next step was to challenge causality, focusing on the assumption that time unfolds linearly, with events always occurring after the factors that brought them about.
This book is a masterful example of popular science writing on a topic that does not lend itself to popular science. It clarifies a challenging subject, and I found it more enlightening than any other book on quantum physics I have read. Even physics students at university would find this text a valuable resource for grasping quantum mechanics’ core concepts. Anyone curious about the science that underpins nature will find this book rewarding.
Schrödinger was born in 1887 in Vienna as the only child of a Catholic father and an Austrian-English Lutheran mother. This multicultural origin foreshadowed a life traversing borders, both geographical and intellectual. He had a professional career as a quantum physicist for almost five decades in Vienna, Oxford, and Dublin. Beyond his scientific achievements, Schrödinger’s life was notable for its “unconventional lifestyle.” This included cohabitation with several women and the practice of “open relationships” within his marriage, both of which were unusual for that era. Britain, Germany, and Ireland reacted differently to his open marriage when he lived there. Schrödinger commented on their attitudes, stating that Germans prohibited what their society did not allow and England permitted whatever was not prohibited. Whether permitted or prohibited, Austrians and the Irish did it if they desired. His complex private life receives an unvarnished depiction in this work. These anecdotes humanize the Austrian scientist, showing a man who blazed his own independent trail both in the sciences and his social life.
The core of the book, though, is Schrödinger’s role in the quantum revolution alongside giants like Einstein, Bohr, Heisenberg, and Dirac as creators of a new scientific reality. Schrödinger’s specific contributions were wave mechanics and wave-particle duality. Wave mechanics, developed by him in 1926, is a mathematical technique that describes the behavior of particles that also exhibit wavelike properties, like electrons. It explains the energies and spatial distributions of electrons in atoms. Wave-particle duality suggests that particles can exhibit both wavelike and particle-like properties. Besides, he wrote essays on relativity and contributed to colour theory, biology, and genetics. The Hindu philosophy of Advaita Vedanta influenced him with its message of all being one (arising and being sustained by Brahman) and each of us creating our own reality. Anything affecting something else affects us because of its connection. Shankara, an eighth-century philosopher from southern India, advanced this philosophy. Schrödinger believed this explained real-world truths best. This “universe of relationships” influenced his scientific outlook, consciousness, free will, and the nature of reality.
Now, we shall look at some of his ideas in depth. Deterministic models preceded quantum mechanics. General relativity served as one example of those models describing how reality works. These models believed current events dictate subsequent ones with exactitude. Quantum mechanics introduced a probabilistic universe. Electrons leap between orbits without traversing intervening space. It does not “move” in the conventional sense. It appears here, then yonder. This is the famous quantum leap. It smacks of magic, and it worried many people, including Schrödinger.
By the mid-1920s, the Copenhagen interpretation, developed by Niels Bohr and Werner Heisenberg, became the foundational interpretation of quantum mechanics. It states that a quantum system exists in a superposition of multiple states until measured. This is the wave-particle duality. This quantum phenomenon can have two mutually exclusive, yet necessary, properties depending on how they’re measured, but you cannot observe both aspects simultaneously. If you set out to measure waves, you will find waves, but if you set out to measure particles, you will find particles. This is called complementarity, a key principle developed by Niels Bohr. The other essential features of the Copenhagen Interpretation are Max Born’s statistics, Heisenberg’s uncertainty principle, and Schrödinger’s wave equation, interpreted as a “wave of probability”. The detector observes the wave collapse, revealing a real electron whose location follows probabilistic rules. It could show up in many locations, some being more probable than others. But the important thing is, when we are not looking at it—when it is not being detected—, the electron does not exist.
“Wave function collapse” proved the most vexing element of the package, especially for Schrödinger and Einstein. Schrödinger said right up front it is “ridiculous.” Through his famous thought experiment of ‘Schrödinger's Cat’, he offered an example of the absurdity of the Copenhagen Interpretation. He did not believe it is the right way to view nature.
Einstein felt unhappy introducing probability into quantum equations, calling it “a weakness of the theory.” But he also pointed out another feature of the theory. If we could prepare many identical atoms in identical high-energy states, then a photon with the right energy could nudge them. When this happens, they all can emit photons with the same energy, creating an intense burst of light. It would make an intense beam of light of a single, pure color. Light Amplification by Stimulated Emission of Radiation—LASER - puts it in practice. Einstein’s theories find validation in lasers, confirming the probabilistic nature of subatomic realms, despite his personal reservations. Solid evidence by 1920 more clearly showed light existed as a wave and also as a particle stream.
Author Gribbin clarifies one important misconception that is common among even physicists about Heisenberg’s Uncertainty Principle. Uncertainty, many believe, stems from measurement issues. If you measure an electron’s position, you are bound to give it a nudge, which will change its velocity and therefore its momentum. If you measure the electron’s momentum, you will give it a nudge which changes its position or its trajectory. All true, but besides the point. What Heisenberg’s principle tells us is that a quantum entity such as an electron never has a precise momentum and a precise position. The uncertainty is intrinsic to quantum reality, built into the workings of the universe. The rule applies in our daily lives as well, but because Planck’s constant is of infinitesimal magnitude, the consequences are unnoticeable. Regarding this, Einstein presented a crucial philosophical point that even Heisenberg failed to fully appreciate when he voiced it. Einstein remarked, “It is quite wrong to try founding a theory on observable magnitudes alone. In reality, the very opposite happens. It is the theory that describes what we can observe.” So, does a fundamental reality exist beneath quantum phenomena, conforming to Einstein’s wishes?
Schrödinger made the startling suggestion that all the laws of physics might be statistical. The notion of “law” as conceived, similar to Newton’s laws of motion, is nonexistent. Within a few years, however, he and Einstein would lead the opposition against the idea that chance governs events at the atomic and subatomic levels. Scientists believed atoms radiated light outward uniformly, like expanding spheres. Schrödinger saw this as the problem. Moving out that way, carrying momentum, how could the atom recoil? Uniform forces from all sides would keep the atom motionless. Schrödinger concluded that the law of conservation of momentum did not hold at the atomic level. He questioned that if a fundamental "law" of physics failed at the quantum level, what grounds remain for accepting others, such as the law of conservation of energy? His next step was to challenge causality, focusing on the assumption that time unfolds linearly, with events always occurring after the factors that brought them about.
This book is a masterful example of popular science writing on a topic that does not lend itself to popular science. It clarifies a challenging subject, and I found it more enlightening than any other book on quantum physics I have read. Even physics students at university would find this text a valuable resource for grasping quantum mechanics’ core concepts. Anyone curious about the science that underpins nature will find this book rewarding.
November 30, 2021
An insightful and informative summarised biography on Schrödinger and it's so much fun to read this book.
I was really curious about Schrödinger's cat term used in some contexts in the contents I watch or hear but I wasn't ready to read a long history regarding the same.
However, this book hit different and I got what I needed.
All the basic information that one needs to know about the personality and the contribution made are well presented in such a manner that the contents are given an illusion of short read in a short book but we come to know what's basic that we need to know.
Awesome read. Everyone can go for this one as the language is quite fit even for beginners.
Thank you, author and the publisher, for the advance reader copy.
I was really curious about Schrödinger's cat term used in some contexts in the contents I watch or hear but I wasn't ready to read a long history regarding the same.
However, this book hit different and I got what I needed.
All the basic information that one needs to know about the personality and the contribution made are well presented in such a manner that the contents are given an illusion of short read in a short book but we come to know what's basic that we need to know.
Awesome read. Everyone can go for this one as the language is quite fit even for beginners.
Thank you, author and the publisher, for the advance reader copy.
December 16, 2021
Simply Schrödinger by John Gribbin is part biography and part a book about Schrödinger's contributions to quantum physics. Written for a wide readership it offers wonderful insight into the man as well as the dynamics of the world of physics at the time.
I am hesitant to call this a biography though it is certainly biographical. It tells us about his personal life as well as his professional, but not a lot of setting up by going into his youth. That decision, while making it less of an actual biography, does make it more interesting since many readers want to know about his work and his personal life during the time he was active. In other words, I was satisfied with the amount of his life I learned about.
Like every book I've read about quantum physics, as well as some courses, the ideas and the math can be daunting. Even the parts that can be explained well, and Gribbin does it as well as most, can still be confusing because our minds are not used to thinking of the world in this way. What I will say is that Gribbin makes the science as accessible as possible, though the reader should still expect to put in some effort to make (some) sense of it. I have found that the couple of rigorous courses I've had, though helping me to understand some mathematical aspects, did less to help me with a big picture understanding than reading a number of books like this that focus on some aspect(s) and tries to make it less opaque. Piecing all of them together has given me at least a rudimentary understanding.
I would recommend this book for someone interested in the personal as well as the theoretical beginnings of quantum physics. It isn't a textbook by any means but does make some of the ideas more understandable through both good explanations and contextualizing them within the work of those working on it. Some ideas just make more sense when you follow how they came to be rather than simply that they are.
Reviewed from a copy made available by the publisher via NetGalley.
I am hesitant to call this a biography though it is certainly biographical. It tells us about his personal life as well as his professional, but not a lot of setting up by going into his youth. That decision, while making it less of an actual biography, does make it more interesting since many readers want to know about his work and his personal life during the time he was active. In other words, I was satisfied with the amount of his life I learned about.
Like every book I've read about quantum physics, as well as some courses, the ideas and the math can be daunting. Even the parts that can be explained well, and Gribbin does it as well as most, can still be confusing because our minds are not used to thinking of the world in this way. What I will say is that Gribbin makes the science as accessible as possible, though the reader should still expect to put in some effort to make (some) sense of it. I have found that the couple of rigorous courses I've had, though helping me to understand some mathematical aspects, did less to help me with a big picture understanding than reading a number of books like this that focus on some aspect(s) and tries to make it less opaque. Piecing all of them together has given me at least a rudimentary understanding.
I would recommend this book for someone interested in the personal as well as the theoretical beginnings of quantum physics. It isn't a textbook by any means but does make some of the ideas more understandable through both good explanations and contextualizing them within the work of those working on it. Some ideas just make more sense when you follow how they came to be rather than simply that they are.
Reviewed from a copy made available by the publisher via NetGalley.
April 29, 2022
Interesting, not too complicated, talks about the man and his story more than his work.
Displaying 1 - 5 of 5 reviews