Here are 100 books that Physical Models of Living Systems fans have personally recommended if you like
Physical Models of Living Systems.
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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.
This was one of those books that shaped my career.
I am constantly amazed by how crucial fluid dynamics is for organisms. Steven Vogel is a biologist who understands and can explain physics to a general audience. His book is full of insight and humor. You’ll never look at plants and animals the same way again.
Both a landmark text and reference book, Steven Vogel's Life in Moving Fluids has also played a catalytic role in research involving the applications of fluid mechanics to biology. In this revised edition, Vogel continues to combine humor and clear explanations as he addresses biologists and general readers interested in biological fluid mechanics, offering updates on the field over the last dozen years and expanding the coverage of the biological literature. His discussion of the relationship between fluid flow and biological design now includes sections on jet propulsion, biological pumps, swimming, blood flow, and surface waves, and on acceleration reaction…
A moving story of love, betrayal, and the enduring power of hope in the face of darkness.
German pianist Hedda Schlagel's world collapsed when her fiancé, Fritz, vanished after being sent to an enemy alien camp in the United States during the Great War. Fifteen years later, in 1932, Hedda…
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.
Diffusion is rarely taught in physics classes, yet it’s so important for biology.
I love Howard Berg’s first sentence: “Biology is wet and dynamic.” Few authors can make mathematics so engaging and meaningful.
This book is one of those little books that have a big impact. Diffusion is most important at small scales, so get ready to enter the fascinating realm of swimming bacteria and ions moving across cell membranes.
This book is a lucid, straightforward introduction to the concepts and techniques of statistical physics that students of biology, biochemistry, and biophysics must know. It provides a sound basis for understanding random motions of molecules, subcellular particles, or cells, or of processes that depend on such motion or are markedly affected by it. Readers do not need to understand thermodynamics in order to acquire a knowledge of the physics involved in diffusion, sedimentation, electrophoresis, chromatography, and cell motility--subjects that become lively and immediate when the author discusses them in terms of random walks of individual particles.
I have taught undergraduate and PhD students physics and biophysics for 36 years, and I never get tired of it. I always look for hot new topics and everyday things that we all see but rarely notice as interesting. I also look for “how could anything like that possibly happen at all?”-type questions and the eureka moment when some idea from physics or math pries off the lid, making a seemingly insoluble problem easy. Finally, I look for the skills and frameworks that will open the most doors to students in their future work.
This book will help you develop your own good ideas because the author respects you too much to give a jumble of just-so stories wrapped in glib human interest. Instead, he explains, often with brilliant metaphors from everyday experience. I especially liked the chapters on embryos, organs, the microbiome, and scaling, which are particularly fresh, insightful, and beautifully clear.
Also, unlike so many popularizations, this one is full of graceful but precise illustrations that pull you in and actually clarify key points—not just eye candy. This book will help you have your own ideas by interconnecting physics and biology ideas that are hardly ever mentioned in the same breath.
A biophysicist reveals the hidden unity behind nature's breathtaking complexity
The form and function of a sprinting cheetah are quite unlike those of a rooted tree. A human being is very different from a bacterium or a zebra. The living world is a realm of dazzling variety, yet a shared set of physical principles shapes the forms and behaviors of every creature in it. So Simple a Beginning shows how the emerging new science of biophysics is transforming our understanding of life on Earth and enabling potentially lifesaving but controversial technologies such as gene editing, artificial organ growth, and ecosystem…
In 1913, a 15-year-old pregnant girl was found dead of apparent suicide. Dr. James Wilson, a new graduate and the first doctor ever to start a practice in this rural town, feels guilty over her death because of his delayed intervention.
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 philosophy at New York University, but my interests have always fallen at the intersection of physics and philosophy. Unable to commit to just one side or the other, I got a joint degree in Physics and Philosophy from Yale and a PhD in History and Philosophy of Science at the University of Pittsburgh. My fascination with Bell’s Theorem began when I read an article in Scientific American in 1979, and I have been trying to get to the bottom of things ever since. My most recent large project is a Founder and Director of the John Bell Institute for the Foundations of Physics.
Beller did a lot of the historical work that Becker relies on, delving deeply into the personal interaction between Einstein, Bohr, Heisenberg, Schrödinger, and the other founders of quantum theory. The presentation is more scholarly than Becker’s but is a goldmine for anyone who wants to understand the fine details of how quantum theory emerged from that set of distinctive personalities.
This work seeks to show that science is rooted not just in conversation but in disagreement, doubt and uncertainty. Mara Beller argues that it is precisely this culture of dialogue and controversy within the scientific community that fuels creativity. Beller draws her argument from her reading of the history of the quantum revolution, especially the development of the Copenhagen interpretation. One of several competing approaches, this version succeeded largely due to the rhetorical skills of Niels Bohr and his colleagues. Using archival research, Beller shows how Bohr and others marketed their views, misrepresenting and dismissing their opponents as "unreasonable" and…
I am a philosopher of science who has an obsession with time. People think this interest is a case of patronymic destiny, that it’s due to my last name being Callender. But the origins of “Callender” have nothing to do with time. Instead, I’m fascinated by time because it is one of the last fundamental mysteries, right up there with consciousness. Like consciousness, time is connected to our place in the universe (our sense of freedom, identity, meaning). Yet we don’t really understand it because there remains a gulf between our experience of time and the science of time. Saint Augustine really put his finger on the problem in the fifth century when he pointed out that it is both the most familiar and unfamiliar thing.
I’ve never met Nahin but I recognize in him a kindred spirit of someone similarly obsessed with time. If you want to know about time travel, here it is in all its glory. The “tech notes” at the end show that this is a labor of love. Not only will you encounter some of the most fascinating physics (in the works of Godel, Novikov, Thorne, Tipler, and dozens more), but you’ll also learn about early science fiction, the threat of fatalism, the history of the idea that time is the fourth dimension, and more.
This book explores the idea of time travel from the first account in English literature to the latest theories of physicists such as Kip Thorne and Igor Novikov. This very readable work covers a variety of topics including: the history of time travel in fiction; the fundamental scientific concepts of time, spacetime, and the fourth dimension; the speculations of Einstein, Richard Feynman, Kurt Goedel, and others; time travel paradoxes, and much more.
Voyager 1 was launched on September 5, 1977, and Voyager 2 was launched on August 20, 1977. Both began a historic journey with unique 'time capsules' on board intended to communicate a story of our world to extraterrestrials. The Voyager message is carried by a phonograph record 12-inch gold-plated disk…
By Andrée Ehresmann & Jean-Paul VanbremeerschAuthor
Why are we passionate about this?
An accident of professional life led us, Jean-Paul Vanbremeersch and Andrée Ehresmann, to meet in 1979. Jean-Paul was then a young physician who was also interested in problems of emergence and complexity. Andrée was a mathematician working in Analysis and, more recently, in Category Theory with Charles Ehresmann (her late husband). With Charles, she shared the idea that: “a category theory approach could open a wealth of possibilities to the understanding of complex processes of any kind.”This idea appealed to Jean-Paul who suggested that we both try applying it to problems of emergence, complexity, and cognition. It led to our 40 years old development of MES.
Thom's work on the "physics of meaningful forms," also known as Semiophysics, deeply influenced our approach to modeling structural changes in Memory-Evolutive Systems (MES). Indeed, in ‘natural’ systems, he classifies these changes as one of four standard changes—Birth, Death, Confluence, and Scission—which offer valuable insights into how components and interactions evolve over time within these systems. Integrating Thom's framework has enriched our understanding of MES dynamics.
In MES, this led us to formulate the "Complexification Theorem," which characterizes the resulting category following structural changes: Birth or Death corresponds to adding or removing components, while Confluence leads to the formation of a colimit for a specific pattern of interconnected components, and Scission results in the decomposition of a given colimit.
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…
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…
Deputy Jenna Hart has only been working in her sleepy hometown of Pearl Springs for seven months when city officials begin to be targeted by a killer. Twenty years ago, the construction of a dam caused people to lose their land to eminent domain. That wound has not healed with…
My undergraduate physics textbook asked, “What is an electric field? Is it something real, or is it merely a name for a factor in an equation which has to be multiplied by something else to give the numerical value of the force we measure in an experiment?” Here, I thought, is a good question! But the textbook said that since electromagnetic theory “works, it doesn’t make any difference" what an electric field is! Then it said, "That is not a frivolous answer, but a serious one.” I felt ashamed. But my physics teacher helpfully suggested that I “speak to the philosophers.” I am very pleased that I decided to become one!
When a world-class philosopher of physics is also a spectacularly gifted writer, you have the makings of an extraordinary book. This book offers a comprehensive introduction to various interpretations of quantum mechanics, while Maudlin's companion volume on the philosophy of space and time is equally highly recommended. Maudlin is a (very) opinionated guide, which makes these books even more valuable (and enjoyable to read). I especially enjoy Maudlin’s refusal to tolerate any of the nonsense that one often finds in quantum mechanics textbooks that depict the “Copenhagen interpretation” of quantum mechanics as indeed a genuine interpretation of quantum mechanics. Rather, as Maudlin forthrightly says, the “Copenhagen interpretation” amounts to a failure to offer any interpretation at all of quantum mechanics. Instead, it treats quantum mechanics merely as a device for predicting the chances of our making various observations.
A sophisticated and original introduction to the philosophy of quantum mechanics from one of the world's leading philosophers of physics
In this book, Tim Maudlin, one of the world's leading philosophers of physics, offers a sophisticated, original introduction to the philosophy of quantum mechanics. The briefest, clearest, and most refined account of his influential approach to the subject, the book will be invaluable to all students of philosophy and physics.
Quantum mechanics holds a unique place in the history of physics. It has produced the most accurate predictions of any scientific theory, but, more astonishing, there has never been any…