Here are 100 books that A Universe from Nothing fans have personally recommended if you like
A Universe from Nothing.
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When I was a teenager, my dad decided he wanted to make an astronomical telescope, so he ground and polished the mirror for an 8-inch reflecting telescope. Then he also helped me make one in our basement. I ended up with something I’d made that showed me the pearly rings of Saturn and the wispy details of the Andromeda nebula! I was hooked and kept my interest in astronomy alive through years of math and physics courses.
While now somewhat dated, this book remains a masterpiece of science writing for the educated public. I love and recommend it because it never talks down to the reader. The book treats all of cosmology briefly but concentrates on the earliest moments of the extraordinary history of our cosmos.
In the fiery first few minutes of time, when the entire Universe was hotter than the center of the Sun, the helium that now fills party balloons was forged, and the structure of the current Universe was laid down. Weinberg presents the physics of the early Universe with care and precision.
A Nobel Prize-winning physicist explains what happened at the very beginning of the universe, and how we know, in this popular science classic.
Our universe has been growing for nearly 14 billion years. But almost everything about it, from the elements that forged stars, planets, and lifeforms, to the fundamental forces of physics, can be traced back to what happened in just the first three minutes of its life.
In this book, Nobel Laureate Steven Weinberg describes in wonderful detail what happened in these first three minutes. It is an exhilarating journey that begins with the Planck Epoch - the…
I have loved astronomy since high school when I built my first telescope. I subsequently have been lucky enough to become a professional astronomer. I studied physics and astronomy at Utrecht University. After obtaining my PhD, I was postdoc at Lick Observatory in California, and after that became professor of astronomy, first in Brussels and later in Amsterdam. I have always loved teaching as well as my research on the physics and formation and evolution of neutron stars and black holes in binary systems, on which I, together with my Danish colleague Thomas Tauris, published the first textbook, which came out in 2023 in the USA.
While in the 1960s Carl Sagan and Frank Drake, based on a simple equation (“Drake’s equation”) concluded that intelligent life is abundant in the Galaxy, with as many as a million such civilizations with which we might be able to communicate, the thesis of this book is that intelligent life is exceedingly rare in the Universe.
The authors do not argue that life itself is rare. Their thesis is that simple life, such as single-celled organisms like bacteria, may have developed on billions of planets in the Galaxy. But that, on the other hand, animal life on land (multicellular creatures, able to move around) is exceedingly rare. And that these animals developing intelligence is still very much rarer.
The arguments which the authors put forward are based on what we know from the history of life on Earth in connection with the very special position of Earth in our planetary…
What determines whether complex life will arise on a planet, or even any life at all? Questions such as these are investigated in this groundbreaking book. In doing so, the authors synthesize information from astronomy, biology, and paleontology, and apply it to what we know about the rise of life on Earth and to what could possibly happen elsewhere in the universe. Everyone who has been thrilled by the recent discoveries of extrasolar planets and the indications of life on Mars and the Jovian moon Europa will be fascinated by Rare Earth, and its implications for those who look to…
I am an associate professor of astrophysics at the University of Portsmouth’s Institute of Cosmology and Gravitation and a research associate at the American Museum of Natural History. I use telescopes on Earth and in space to study supernovae (the explosions of stars) and tidal disruption events (bright flares caused by supermassive black holes ripping apart nearby stars). I have wanted to be a scientist since second grade, and some of the books on this list have helped kindle my passion for physics and astronomy. I hope that my own popular science books will do the same for the next generation of astronomers.
There are many introductory books about cosmology out there, but this is the book I read when I was a teenager in high school, and it’s the one I still recommend to everyone (including my wife and my parents).
As its name suggests, this book describes the history and physics of the Big Bang theory, which is just an excuse to discuss cosmology in general. Some of the details are out of date or not quite right, but it’s still a great place to start.
The bestselling author of Fermat's Last Theorem and The Code Book tells the story of the brilliant minds that deciphered the mysteries of the Big Bang. A fascinating exploration of the ultimate question: how was our universe created?
Albert Einstein once said: 'The most incomprehensible thing about the universe is that it is comprehensible.' Simon Singh believes geniuses like Einstein are not the only people able to grasp the physics that govern the universe. We all can.
As well as explaining what the Big Bang theory actually is and why cosmologists believe it is an accurate description of the origins…
My passionate scientific interest in cosmology began several decades ago as a Stanford student while moon-lighting as a cloud chamber photo scanner at the Stanford Linear Accelerator Center (SLAC). An initial interest in particle physics merged with an interest in cosmology because the Big Bang theory is about both. Developing a unique cosmology model and collaborating with other cosmologists around the world was a natural extension. Following numerous peer-reviewed scientific publications, our book summarizing them was one, as well. Taking a passionate interest in anything and sharing it with others is an important first step!
I love Stephan Hawking’s A Brief History of Time because it was the first book that inspired me to become a cosmologist. It is a terrific overview of the science behind the modern belief in the Big Bang and what has followed.
It is told with Hawking’s wry sense of humor and unique ability to make complex concepts understandable to the layperson and budding scientist, which I was at the time. It is a fantastic start for my readers of all persuasions.
Was there a beginning of time? Could time run backwards? Is the universe infinite or does it have boundaries? These are just some of the questions considered in an internationally acclaimed masterpiece by one of the world's greatest thinkers. It begins by reviewing the great theories of the cosmos from Newton to Einstein, before delving into the secrets which still lie at the heart of space and time, from the Big Bang to black holes, via spiral galaxies and strong theory. To this day A Brief History of Time remains a staple of the scientific canon, and its succinct and…
I have loved astronomy since high school when I built my first telescope. I subsequently have been lucky enough to become a professional astronomer. I studied physics and astronomy at Utrecht University. After obtaining my PhD, I was postdoc at Lick Observatory in California, and after that became professor of astronomy, first in Brussels and later in Amsterdam. I have always loved teaching as well as my research on the physics and formation and evolution of neutron stars and black holes in binary systems, on which I, together with my Danish colleague Thomas Tauris, published the first textbook, which came out in 2023 in the USA.
This is a wonderful book by an author who made one of the greatest discoveries of theoretical cosmology of the past fifty years: Inflation, a very early phase of the Big Bang during which the Universe increased in size by a gigantic factor (10 to the power 30).
The author herewith solved two great problems which already for decades had puzzled astronomers: the so-called “flatness problem” (why is the Universe flat?) and the “horizon problem”. The flatness of the Universe means that it neither has a positive nor a negative curvature. This implies that its total energy - sum of kinetic energy (positive) and potential energy (negative) - is exactly zero.
The book gives a very nice personal description of the process of how fundamental discoveries in theoretical physics and cosmology are made. In addition, it gives a crystal-clear overview of the present state of our knowledge of the…
This is the compelling, first-hand account of Alan Guth's paradigm-breaking discovery of the origins of the universe,and of his dramatic rise from young researcher to physics superstar. Guth's startling theory,widely regarded as one of the most important contributions to science during the twentieth century,states that the big bang was set into motion by a period of hyper-rapid inflation," lasting only a billion-trillion-billionth of a second. The Inflationary Universe is the passionate story of one leading scientist's effort to look behind the cosmic veil and explain how the universe began.
I have loved astronomy since high school when I built my first telescope. I subsequently have been lucky enough to become a professional astronomer. I studied physics and astronomy at Utrecht University. After obtaining my PhD, I was postdoc at Lick Observatory in California, and after that became professor of astronomy, first in Brussels and later in Amsterdam. I have always loved teaching as well as my research on the physics and formation and evolution of neutron stars and black holes in binary systems, on which I, together with my Danish colleague Thomas Tauris, published the first textbook, which came out in 2023 in the USA.
This is the fascinating personal account, by physics Nobel laureate Mather, of the discovery with NASA’s COBE satellite, of the tiny variations in intensity over the sky (“ripples”) of the microwave background radiation of the universe. This background radiation originates from the time when the universe first became transparent, about 380 000 years after the Big Bang.
Theorists had predicted that this radiation may hold information on density fluctuations in the first fraction of a second of the expanding hot universe. Mather and his colleagues succeeded in detecting the predicted very small intensity variations, which earned him and his colleague George Smoot the Nobel Prize. These “ripples” are the seeds for the formation of the presently observed structures in the universe.
The book is very well written and is wonderful reading for everyone interested in the origin and evolution of the universe and in how great scientific discoveries are made.
The inside story behind one of the most important cosmological findings of our generation, the mapping of the cosmic background radiation, by the leader of the scientific team that made the discovery. . In this no-holds-barred account, the Cosmic Background Explorer (COBE) projects originator and project scientist, John Mather, and science writer John Boslough provide the intimate and startling details of how big science is done today. They tell of the discovery of the cosmic background radiation and of the fifteen-year struggle to design, build, and launch the COBE satellite, including the unwelcome controversy when one team member breached the…
I have loved astronomy since high school when I built my first telescope. I subsequently have been lucky enough to become a professional astronomer. I studied physics and astronomy at Utrecht University. After obtaining my PhD, I was postdoc at Lick Observatory in California, and after that became professor of astronomy, first in Brussels and later in Amsterdam. I have always loved teaching as well as my research on the physics and formation and evolution of neutron stars and black holes in binary systems, on which I, together with my Danish colleague Thomas Tauris, published the first textbook, which came out in 2023 in the USA.
This is one of the books I love most. It is a delightful small book in which Nobel Laureate Frances Crick, who together with James Watson discovered the double-helix structure of DNA, addresses the questions: “What is Life?” and “How did it originate?”
This takes him to the origin and evolution of the Universe and to how life may have originated from the world of atoms and molecules, either here on Earth or, in his view more likely: long before the Solar System and Earth formed, in other places in our Galaxy. His idea is that from its place of origin, long ago near another star, it spread to other planetary systems, in the form of spores of bacteria.
His speculations in this book are scientifically well founded and ingenious. Crick is a wonderfully clear writer and this book, with its brilliant explanations and ideas, is a beauty, which I…
Addresses the ultimate scientific question of the nature of life, using the hypothetical scenario that life originated on earth when a rocket carrying primitive spores was sent to earth by a higher civilization
My passionate scientific interest in cosmology began several decades ago as a Stanford student while moon-lighting as a cloud chamber photo scanner at the Stanford Linear Accelerator Center (SLAC). An initial interest in particle physics merged with an interest in cosmology because the Big Bang theory is about both. Developing a unique cosmology model and collaborating with other cosmologists around the world was a natural extension. Following numerous peer-reviewed scientific publications, our book summarizing them was one, as well. Taking a passionate interest in anything and sharing it with others is an important first step!
I love P.G.E. Peebles’ book because it is a history with a personal perspective from one of the greatest academic cosmologists of our time. Peebles did more than anyone else to make cosmology a respectable field for academic study, including for myself.
His personal anecdotes give a unique and priceless “insider’s” point of view at the elbow of cosmology’s greatest teacher. I could put myself right there as he and his colleagues discovered Nature’s most closely held secrets!
From Nobel Prize-winning physicist P. J. E. Peebles, the story of cosmology from Einstein to today
Modern cosmology began a century ago with Albert Einstein's general theory of relativity and his notion of a homogenous, philosophically satisfying cosmos. Cosmology's Century is the story of how generations of scientists built on these thoughts and many new measurements to arrive at a well-tested physical theory of the structure and evolution of our expanding universe.
In this landmark book, one of the world's most esteemed theoretical cosmologists offers an unparalleled personal perspective on how the field developed. P. J. E. Peebles was at…
My expertise on the origins of our universe comes out of fascination, nothing more. I am a long-time children’s writer who began my approach to this topic with awe. Just awe. In order to write The Stuff of Stars I read widely to expand my own understanding. A single line in this text can come out of hours of reading. The books I’m suggesting here, though, are not the scientific ones that informed my telling. Rather, I have searched out books that are exceptionally creative, accessible, interesting. Some are for the very young and some for those who share their learning with the very young.
It Started with a Big Bang: The Origin of Earth, You and Everything Else is another picture book that covers the same territory for the very young as The Stuff of Stars. The writing is conversational and accessible. The illustrations are compelling. The two books read side by side would support and inform one another.
In this accessible informational picture book, young readers can follow the fascinating story of how we got from the very beginning of the universe to life today on the “bright blue ball floating in space” called Earth. They'll learn about the big bang theory, how our solar system was formed, how life on Earth began in the oceans and moved to land, what happened to the dinosaurs and how humans evolved from apes to explore and build communities all over the planet ... and even travel to space. It's an out-of-this-world look at the beginning of everything!
Many believe the planet's energy needs can be provided carbon-free, with solar, wind, and water carrying the load. Coal, oil, and natural gas use will fade away. It’s an appealing vision. But the numbers don’t back it up for seven billion people, many looking in on the comfortable lifestyles of the wealthy countries and thinking: “What about us?”. Humanity needs a mix of energy sources, and nuclear energy is a carbon-free power source that can deliver at scale. I’m a nuclear physicist by training, recently retired from North Carolina State University, with interests in cosmology, energy research and policy, science education, and neutron and neutrino physics.
The numbers in physics have always fascinated me. Many think of physics as full of impenetrable equations. Some, like E=mc squared and F=ma, are associated with famous names, Einstein and Newton. But on their own, equations don’t tell us what’s happening. Numbers breathe life into equations, giving meaning to the symbols. In Rees’s beautiful book, he identifies six numbers that have led to the universe around us and to the extraordinary complexity of the world we live in.
And they are just numbers, like 3 or 0.007. Only six numbers? So few seem astonishing. Modern physics and cosmology do identify others. But in all cases, the conclusion is that you can’t change them, not even a little, and still end up with a universe and world like ours.
