Here are 100 books that The Classical Electromagnetic Field fans have personally recommended if you like
The Classical Electromagnetic Field.
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During Covid, I gave myself the Story-a-Month Challenge. I started a story on the first day of each month and stopped on the last day. A subconscious theme emerged: the struggles of grown people and their parents, done fantastically. By year’s end, I had twelve stories, placed in magazines somewhere. I collected them, adding earlier stories, longer and with younger protagonists, but with the same theme of arrested development. I called the book “Adult Children,” a wry reference to offspring of alcoholics (I am one). Also subconscious: my inspiration from other authors of fantastical collections, some of whom I’ve included here.
Unlike those of Richard Matheson, the stories of Italo Calvino are rarely adapted for stage or screen, his estate holding a heavy hand on the rights (I know—I’ve tried).
One of my favorite writers, Calvino specializes in eccentric, surreal stories as funny as they are moving.
Cosmicomics is a linked collection, each tale an imaginative fiction about the origins of a scientific idea, from the Big Bang (the narrator lives in a crazily cramped space with his family during the explosion) to evolution (his embarrassing old uncle still lives in the sea and refuses to make the trip to land). These stories combine whimsicality and gravity as few others do.
Introducing Little Clothbound Classics: irresistible, mini editions of short stories, novellas and essays from the world's greatest writers, designed by the award-winning Coralie Bickford-Smith.
Celebrating the range and diversity of Penguin Classics, they take us from snowy Japan to springtime Vienna, from haunted New England to a sun-drenched Mediterranean island, and from a game of chess on the ocean to a love story on the moon. Beautifully designed and printed, these collectible editions are bound in colourful, tactile cloth and stamped with foil.
Twelve enchanting and fantastical stories about the evolution of the universe from the giant of Italian literature,…
It is April 1st, 2038. Day 60 of China's blockade of the rebel island of Taiwan.
The US government has agreed to provide Taiwan with a weapons system so advanced that it can disrupt the balance of power in the region. But what pilot would be crazy enough to run…
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…
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.
I love this book! Of course, it teaches the mathematics of the Lagrangian and Hamiltonian approaches to classical mechanics. But its real uniqueness lies in how the author explains the basic concepts of the subject with a constant emphasis on intuitive physics. It was only after reading Lanczos that I finally understood what variational calculations were really about. Ditto for virtual work, non-holonomic constraints, Liouville’s theorem and Hamilton-Jacobi theory. I barely noticed that I was learning about the history and philosophy of classical mechanics at the same time.
Analytical mechanics is, of course, a topic of perennial interest and usefulness in physics and engineering, a discipline that boasts not only many practical applications, but much inherent mathematical beauty. Unlike many standard textbooks on advanced mechanics, however, this present text eschews a primarily technical and formalistic treatment in favor of a fundamental, historical, philosophical approach. As the author remarks, there is a tremendous treasure of philosophical meaning" behind the great theories of Euler and Lagrange, Hamilton, Jacobi, and other mathematical thinkers. Well-written, authoritative, and scholarly, this classic treatise begins with an introduction to the variational principles of mechanics including…
The Year Mrs. Cooper Got Out More
by
Meredith Marple,
The coastal tourist town of Great Wharf, Maine, boasts a crime rate so low you might suspect someone’s lying.
Nevertheless, jobless empty nester Mallory Cooper has become increasingly reclusive and fearful. Careful to keep the red wine handy and loath to leave the house, Mallory misses her happier self—and so…
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.
I learned the basics of statistical mechanics from the first edition of the textbook by R.K. Pathria. But only after studying Kubo did I learn how to apply those ideas to solve problems. Each of his six chapters begins with a concise overview of the theory. Next comes a set of worked examples, followed by an extensive collection of problems and their solutions. Overall, the book offers a remarkable 46 worked examples and 162 problems and solutions. These include all the standard problems and quite a few you will not see elsewhere. Particularly charming are 14 "divertissements” where Kubo discusses Maxwell’s demon, the ergodic theorem, the Gibbs paradox, the H-theorem, Onsager’s reciprocity relations, and other delights.
This book provides a series of concise lectures on the fundamental theories of statistical mechanics, carefully chosen examples and a number of problems with complete solutions.
Modern physics has opened the way for a thorough examination of infra-structure of nature and understanding of the properties of matter from an atomistic point of view. Statistical mechanics is an essential bridge between the laws of nature on a microscopic scale and the macroscopic behaviour of matter. A good training in statistical mechanics thus provides a basis for modern physics and is indispensable to any student in physics, chemistry, biophysics and engineering sciences…
I have always had a fascination with science. It came not from school or college, where lessons were sometimes dull, but from books about the discoveries and the people who made them. After careers as a soldier and as a government statistician I felt impelled to spread the word by writing, or at least try. After 40 rejections, my first book – about James Clerk Maxwell – was published and, to my joy, found many readers. My aim in writing is simply to share enjoyment with readers in an equal partnership. And I hope always to leave the reader feeling that he or she really knows the people I am writing about.
Malcolm Longair’s book is like a course of very good lectures that get behind the equations to reveal the context of their discovery. For example, we learn how Planck, who hated Boltzmann’s statistical approach to the theory of heat, was obliged to adopt it in order to solve the problem of black body radiation, and how this led to the concept of the quantum. There are plenty of equations but each chapter tells a compelling story of people at work, and the presentation all the way through is beautifully clear, with superb illustrations.
In this original and integrated approach to theoretical reasoning in physics, Malcolm Longair illuminates the subject from the perspective of real physics as practised by research scientists. Concentrating on the basic insights, attitudes and techniques that are the tools of the modern physicist, this approach conveys the intellectual excitement and beauty of the subject. Through a series of seven case studies, an undergraduate course in classical physics and the discovery of quanta are reviewed from the point of the view of how the great discoveries and changes of perspective came about. This approach illuminates the intellectual struggles needed to attain…
I’ve been teaching physics applied to biology for decades. When working at the National Institutes of Health, I realized that most biologists don’t know physics. While I appreciate the complexity that evolution generates, I find the simplicity and generality of physics in explaining life to be amazing and captivating. When I taught biological physics to undergraduates at Oakland University, I strived to find elementary “toy” models that the students could analyze and that provided valuable insight. The books on this list all adopt a similar point of view: physics provides unity to the diversity of life.
Philip Nelson is a giant in the field of biological physics. I’ve never seen anyone combine words, pictures, mathematical formulas, and computer code so seamlessly into physical models of living systems.
His book might not be as relaxing a read as some others—you really have to do the problems and assignments to get the most out of it—but I can think of no other text that will better teach you how to do science at the interface between physics and biology.
Award-winning prof brings you from first-year classes to the frontiers of systems and synthetic biology, epidemic modeling, and imaging. Physical Models of Living Systems is a university textbook that integrates those cutting-edge topics with classic results in statistical inference, control theory, biophysical chemistry and mechanobiology, immunology, and neuroscience, as well as guiding you to create your own stochastic simulations. Instead of offering a huge pile of facts, the discovery-style exposition frequently asks you to reflect on "How could anything like that happen at all?" and then shows how scientists have incrementally peeled back the layers of mystery surrounding these beautiful…
Don’t mess with the hothead—or he might just mess with you. Slater Ibáñez is only interested in two kinds of guys: the ones he wants to punch, and the ones he sleeps with. Things get interesting when they start to overlap. A freelance investigator, Slater trolls the dark side of…
As far back as I can remember, I’ve spent a lot of time worrying about things like why there is something instead of nothing, why we can remember the past but not the future, and how consciousness arises. Although I’m a professor of economics, I take such things seriously enough to have published some papers in philosophy journals, and even a whole book about philosophy called The Big Questions. These are some of the books that sharpened my thinking, inspired me to think more deeply, and convinced me that good writing can render deep ideas both accessible and fun.
I vividly remember reading this book some years ago. You probably don’t remember it at all, even if you’re going to take my advice and read it tomorrow. That’s pretty odd when you think about. Why should we remember the past but not the future?
It does no good to echo platitudes like “the future hasn’t happened yet”. You could as well say “the past is already over”, which is equally true and equally irrelevant. The laws of physics tie the past to the present and the future to the present in exactly the same way. Any process that can run one direction in time can run in the other. So if the past can leave imprints on our memory, why can’t the future?
David Albert wants to make you appreciate the question, and then he wants to tell you the answer. Albert is that rarest of birds: A philosopher…
This book is an attempt to get to the bottom of an acute and perennial tension between our best scientific pictures of the fundamental physical structure of the world and our everyday empirical experience of it. The trouble is about the direction of time. The situation (very briefly) is that it is a consequence of almost every one of those fundamental scientific pictures--and that it is at the same time radically at odds with our common sense--that whatever can happen can just as naturally happen backwards.
Albert provides an unprecedentedly clear, lively, and systematic new account--in the context of a…
I got hooked on superheroes from a very early age. My mom grew up in the Golden Age of comics and loved superheroes. She'd bring home a random assortment of adventures—Batman, Iron Man, Flash, Avengers, Justice League, Iron Fist, Captain America. I was especially keen on the martial arts mayhem so many could bring to bear. That got me started (and I've never stopped since) in martial arts as a teen and took me into a career in science. I bring my own interest, my knowledge of martial arts, and my extensive career and training as a sensorimotor neuroscientist as I explore the science of human achievement through the lens of comic book superheroes.
I love learning cool and niche nerdy science stuff. James Kakalios unpacks fundamental physics and the fun of superheroes in a crazy solid read.
Trust me, you need to know how many cheeseburgers the Flash would need to eat in order for his metabolism to power his runs around the Earth. Why Gwen Stacy’s death wasn’t Spider-Man’s fault and more. Also how high Superman could really jump, how Iron Man's suit would really work and more.
C'mon. These are fundamental truths of modern civilization and they are all laid bare in this fun and engaging foray into physics!
A complete update to the hit book on the real physics at work in comic books, featuring more heroes, more villains, and more science
Since 2001, James Kakalios has taught "Everything I Needed to Know About Physics I Learned from Reading Comic Books," a hugely popular university course that generated coast-to-coast media attention for its unique method of explaining complex physics concepts through comics. With The Physics of Superheroes, named one of the best science books of 2005 by Discover, he introduced his colorful approach to an even wider audience. Now Kakalios presents a totally updated, expanded edition that features…
I’ve been teaching physics applied to biology for decades. When working at the National Institutes of Health, I realized that most biologists don’t know physics. While I appreciate the complexity that evolution generates, I find the simplicity and generality of physics in explaining life to be amazing and captivating. When I taught biological physics to undergraduates at Oakland University, I strived to find elementary “toy” models that the students could analyze and that provided valuable insight. The books on this list all adopt a similar point of view: physics provides unity to the diversity of life.
Mark Denny manages to explain much of biology by analyzing the physical properties of just two substances: air and water.
I love how he progresses through seemingly mundane concepts—density, viscosity, heat capacity, surface tension—and uses them to unravel how biology works. My favorite feature of the book is when Denny applies simple physics and engineering principles to explain the inner workings of oddball organisms.
All I can say about his book is that I wish I had written it.
Addressing general readers and biologists, Mark Denny shows how the physics of fluids (in this case, air and water) influences the often fantastic ways in which life forms adapt themselves to their terrestrial or aquatic "media."
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!
In How to Teach Quantum Physics to Your Dog Chad Orzel has an imaginary conversation about quantum physics with his dog, Emmy. Orzel explains each of the features of quantum physics, like superposition and entanglement, by starting first with an analogy in Emmy’s understandably dog-like behavior.
Quantum physics has never been more popular. Once thought of as an obscure science, it reached the masses via the notion of teleportation in Star Trek and, more recently, as an integral part of the popular TV series Lost and Fringe. Now, inspired by his hugely popular website and science blog, Chad Orzel uses his cherished mutt Emmy to explain the basic principles of quantum physics. And who better to explain the magical universe of quantum physics than a talking dog?
