Here are 100 books that The Idea of the Brain fans have personally recommended if you like
The Idea of the Brain.
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I have wondered about what goes on in the brains of animals and people since I was a youth. My research career began by studying how some genes affect behavior. Little surprise, it turns out, that many such “behavioral” genes influence the way the brain is built. So, I began to study brain development using embryos from a variety of experimental laboratory animals and developed a university course on this topic. When I retired, I decided to share what I learned. The other books on this list are great examples of readable books that would likely be exciting to anyone else interested in the story of how the human brain is built.
This book picks up brilliantly from where Zero to Birth leaves off. It’s the story of how the brain encodes the reality of the world outside the womb, how our experiences change the brain, and how we acquire knowledge, skills, and sociability.
I found this book to be extremely readable. It’s full of fascinating and illustrative examples of how the human brain continues to change to function effectively in the real world.
'This is the story of how your life shapes your brain, and how your brain shapes your life.'
Join renowned neuroscientist David Eagleman on a whistle-stop tour of the inner cosmos. It's a journey that will take you into the world of extreme sports, criminal justice, genocide, brain surgery, robotics and the search for immortality. On the way, amidst the infinitely dense tangle of brain cells and their trillions of connections, something emerges that you might not have expected to see: you.
I am fascinated with the relationship between our individual behaviors and the social structures and institutions in which we live—and how these influence each over time. I think this sort of understanding is important if we want to consider the kind of world we want to live in, and how we might get there from where we are. I take insights from many disciplines, from physics and biology to the cognitive and social sciences, from philosophy and art to mathematics and engineering. I am currently a professor of cognitive and information sciences at the University of California, Merced, and an external professor at the Santa Fe Institute.
Strictly speaking, there is very little math in this short book, but it nevertheless details precise models that yield loads of insight.
Using simple machines with sensors and motors, Braitenberg shows us how easy it is to generate behaviors that look purposeful and even emotional, and how hard it would be to guess how those behaviors were generated if we didn’t already know. This is a book I come back to again and again, not only for its valuable lessons, but also for its beautiful prose.
The models in this may be fictions, but, as Braitenberg advises, fiction is a necessary part of science “as long as our brains are only minuscule fragments of the universe, much too small to hold all the facts of the world but not too idle to speculate about them.”
These imaginative thought experiments are the inventions of one of the world's eminent brain researchers.
These imaginative thought experiments are the inventions of one of the world's eminent brain researchers. They are "vehicles," a series of hypothetical, self-operating machines that exhibit increasingly intricate if not always successful or civilized "behavior." Each of the vehicles in the series incorporates the essential features of all the earlier models and along the way they come to embody aggression, love, logic, manifestations of foresight, concept formation, creative thinking, personality, and free will. In a section of extensive biological notes, Braitenberg locates many elements of…
I’m a British neuroscientist and writer who’s been using computers to study the brain since 1998, and writing about it since 2016. How I ended up a neuroscientist is hard to explain, for my formative years were spent devouring science books that were not about the brain. That’s partly because finding worthwhile books about the brain is so hard – few delve into how the brain actually works, into the kinds of meaty details that, for example, Hawking offered us on physics and Dawkins on evolution. So I wrote one to solve that problem; and the books on my list are just that too: deep, insightful works on how the brain does what it does.
A magnificent synthesis of Bialek and colleagues’ research into how spikes from neurons send information. A strong contender for the most readable serious science book ever published. Even if you only understand a quarter of it (as I did on first reading as a math-shy grad student), the sheer quantity of ideas and the flow of the prose is mind-blowing. As essential a read now as it was in 1997, these ideas have not dated one bit.
What does it mean to say that a certain set of spikes is the right answer to a computational problem? In what sense does a spike train convey information about the sensory world? Spikes begins by providing precise formulations of these and related questions about the representation of sensory signals in neural spike trains. The answers to these questions are then pursued in experiments on sensory neurons. Intended for neurobiologists with an interest in mathematical analysis of neural data as well as the growing number of physicists and mathematicians interested in information processing by "real" nervous systems, Spikes provides a…
I’m a British neuroscientist and writer who’s been using computers to study the brain since 1998, and writing about it since 2016. How I ended up a neuroscientist is hard to explain, for my formative years were spent devouring science books that were not about the brain. That’s partly because finding worthwhile books about the brain is so hard – few delve into how the brain actually works, into the kinds of meaty details that, for example, Hawking offered us on physics and Dawkins on evolution. So I wrote one to solve that problem; and the books on my list are just that too: deep, insightful works on how the brain does what it does.
The authors hilariously claim in their acknowledgements that this is a short book. It is not. Instead, it is a volume that explains ten key principles of why brains work the way they do, from why they do so much computation with chemistry to the irreducible smallness of a brain’s components. A densely argued, fiercely detailed book, not one for the faint of heart – but one that has pride of place on the shelves of many neuroscientists, mine included.
Two distinguished neuroscientists distil general principles from more than a century of scientific study, “reverse engineering” the brain to understand its design.
Neuroscience research has exploded, with more than fifty thousand neuroscientists applying increasingly advanced methods. A mountain of new facts and mechanisms has emerged. And yet a principled framework to organize this knowledge has been missing. In this book, Peter Sterling and Simon Laughlin, two leading neuroscientists, strive to fill this gap, outlining a set of organizing principles to explain the whys of neural design that allow the brain to compute so efficiently.
I’m a British neuroscientist and writer who’s been using computers to study the brain since 1998, and writing about it since 2016. How I ended up a neuroscientist is hard to explain, for my formative years were spent devouring science books that were not about the brain. That’s partly because finding worthwhile books about the brain is so hard – few delve into how the brain actually works, into the kinds of meaty details that, for example, Hawking offered us on physics and Dawkins on evolution. So I wrote one to solve that problem; and the books on my list are just that too: deep, insightful works on how the brain does what it does.
We neuroscientists know a lot about how brains are, but not how they come to be. This book fills that huge hole: it explains how genetics and development shape the growing brain, and the consequences this has for our personalities and our mental disorders. Mitchell’s thesis is that the stochastic nature of development is key to understanding much of the variation between brains, and it has changed the way I think about the wiring of brains.
A leading neuroscientist explains why your personal traits are more innate than you think
What makes you the way you are-and what makes each of us different from everyone else? In Innate, leading neuroscientist and popular science blogger Kevin Mitchell traces human diversity and individual differences to their deepest level: in the wiring of our brains. Deftly guiding us through important new research, including his own groundbreaking work, he explains how variations in the way our brains develop before birth strongly influence our psychology and behavior throughout our lives, shaping our personality, intelligence, sexuality, and even the way we perceive…
I have wondered about what goes on in the brains of animals and people since I was a youth. My research career began by studying how some genes affect behavior. Little surprise, it turns out, that many such “behavioral” genes influence the way the brain is built. So, I began to study brain development using embryos from a variety of experimental laboratory animals and developed a university course on this topic. When I retired, I decided to share what I learned. The other books on this list are great examples of readable books that would likely be exciting to anyone else interested in the story of how the human brain is built.
This is basic developmental biology written in a way that is fully accessible to a lay reader. I found that it provides clear and intuitive insights into the conceptual framework rather than primarily descriptive account of human development in the womb.
I am fascinated by questions such as how creatures as complicated as animals and humans can arise from a single fertilized egg, and this book does a great job of getting down to the nitty-gritty of this complex process without using overly technical language.
Where did I come from? Why do I have two arms but just one head? How is my left leg the same size as my right one? Why are the fingerprints of identical twins not identical? How did my brain learn to learn? Why must I die?
Questions like these remain biology's deepest and most ancient challenges. They force us to confront a fundamental biological problem: how can something as large and complex as a human body organize itself from the simplicity of a fertilized egg? A convergence of ideas from embryology, genetics, physics, networks, and control theory has begun…
I’m a law professor who has been teaching and writing in the area of intellectual property for 20 years. As my career went along, I came to realize how important it is to not just mechanically apply the legal rules but to think about why they are there. Intellectual property law—a 7 trillion-dollar legal regime governing one-third of the U.S. economy—continually guesses as to how the minds of artists and audiences work. The more I read about neuroscientific advances, the more I realized that these guesses are often wrong and need to be updated for a new technological age.
This book does a great job of describing what is possible and what is not when it comes to neuroscience. Poldrack, a professor of psychology at Stanford, makes sure we don’t lose the forest for the trees, boiling down the basics of functional magnetic resonance imaging (fMRI) in a way that anyone can understand. He is particularly strong on describing about how this technology might be used outside of university laboratories, discussing potential applications in law, advertising, and treatment of mental illness.
A revealing insider's account of the power-and limitations-of functional MRI
The ability to read minds has long been a fascination of science fiction, but revolutionary new brain-imaging methods are bringing it closer to scientific reality. The New Mind Readers provides a compelling look at the origins, development, and future of these extraordinary tools, revealing how they are increasingly being used to decode our thoughts and experiences-and how this raises sometimes troubling questions about their application in domains such as marketing, politics, and the law.
Russell Poldrack takes readers on a journey of scientific discovery, telling the stories of the visionaries…
I’m a law professor who has been teaching and writing in the area of intellectual property for 20 years. As my career went along, I came to realize how important it is to not just mechanically apply the legal rules but to think about why they are there. Intellectual property law—a 7 trillion-dollar legal regime governing one-third of the U.S. economy—continually guesses as to how the minds of artists and audiences work. The more I read about neuroscientific advances, the more I realized that these guesses are often wrong and need to be updated for a new technological age.
Sure, this book was written way back in 1956, but its dark tale of “mind reading” police is still just as captivating and relevant today. In Dick’s imagined future, three mutants are able to foresee crime before it occurs, allowing the cops to stop crime before it gets started. Like the mutants, today’s neural imaging machines are heralded as ways to see what people are thinking, revealing what they can’t or won’t voluntarily describe. The novel explores questions about expectations of privacy, the dangers of authoritarian regimes controlling invasive technologies, and the nature of free will—all issues that society will need to wrestle with as our understanding of the brain advances.
Imagine a future where crimes can be detected before they are committed, and criminals are convicted and sentenced for crimes before committing them. This is the scenario of Philip K. Dick's classic story, now filmed by Steven Spielberg, starring Tom Cruise.
In addition to MINORITY REPORT this exclusive collection includes nine other outstanding short stories by the twentieth century's outstanding SF master, three of which have been made into feature films.
I’m a law professor who has been teaching and writing in the area of intellectual property for 20 years. As my career went along, I came to realize how important it is to not just mechanically apply the legal rules but to think about why they are there. Intellectual property law—a 7 trillion-dollar legal regime governing one-third of the U.S. economy—continually guesses as to how the minds of artists and audiences work. The more I read about neuroscientific advances, the more I realized that these guesses are often wrong and need to be updated for a new technological age.
The lion’s share of commentary about the influence of neuroscience on our system of laws has focused on criminal law. What does it mean to punish people for actions that are really the product of biology rather than conscious choice? Alces grapples with what this means for criminal law and its concepts of moral responsibility and builds a thoughtful and compelling argument. But what I really liked was his equally sharp analysis of what this different conception of human agency means when it comes to tort and contract law—legal regimes that we are much more likely to confront in our daily lives.
Law relies on a conception of human agency, the idea that humans are capable of making their own choices and are morally responsible for the consequences. But what if that is not the case? Over the past half century, the story of the law has been one of increased acuity concerning the human condition, especially the workings of the brain. The law already considers select cognitive realities in evaluating questions of agency and responsibility, such as age, sanity, and emotional distress. As new neuroscientific research comprehensively calls into question the very idea of free will, how should the law respond…
I have always been fascinated by psychology and the science behind why people are the way they are. This is probably why as a journalist, I’ve always been drawn to writing personal profiles of fascinating people, digging deeper into how they overcame various obstacles and setbacks. I have read so many leadership books that focus on success, but really found a gap when it came to those in-depth stories, which is why I wrote The Setback Cycle, a career advice book that focuses specifically on that messy middle part of leadership. My goal was to share the stories of people who overcame setbacks while offering an actionable framework that guides us through our own.
I was fascinated while reading this book because it taught me so much about how the brain works, why we are the way we are, and how our brains differ. I enjoyed how the author debunked that if we’re more “right-brained,” we’re more creative, and if we’re more “left-brained,” we’re more creative.
The concept is a whole lot more nuanced than that. I also appreciated her take on nature vs. nurture and how that impacts the way our brains work. It took me a long time to read this because there was so much information to digest, but I felt like the education I received from this book was invaluable.
From University of Washington professor Chantel Prat comes The Neuroscience of You, a rollicking adventure into the human brain that reveals the surprising truth about neuroscience, shifting our focus from what’s average to an understanding of how every brain is different, exactly why our quirks are important, and what this means for each of us.
With style and wit, Chantel Prat takes us on a tour of the meaningful ways that our brains are dissimilar from one another. Using real-world examples, along with take-them-yourself tests and quizzes, she shows you how to identify the strengths and weakness of your own…
