The Shape of Inner Space and over one million other books are available for Amazon Kindle. Learn more



or
Sign in to turn on 1-Click ordering
More Buying Choices
Have one to sell? Sell yours here
Start reading The Shape of Inner Space on your Kindle in under a minute.

Don't have a Kindle? Get your Kindle here, or download a FREE Kindle Reading App.
Sorry, this item is not available in
Image not available for
Color:
Image not available

To view this video download Flash Player

 

The Shape of Inner Space: String Theory and the Geometry of the Universe's Hidden Dimensions [Hardcover]

Shing-Tung Yau , Steve Nadis
4.4 out of 5 stars  See all reviews (63 customer reviews)

List Price: $30.00
Price: $17.72 & FREE Shipping on orders over $25. Details
You Save: $12.28 (41%)
o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o o
Usually ships within 10 to 14 days.
Ships from and sold by Amazon.com. Gift-wrap available.
Free Two-Day Shipping for College Students with Amazon Student

Formats

Amazon Price New from Used from
Kindle Edition $10.44  
Hardcover $17.72  
Paperback, Bargain Price $7.60  
Unknown Binding --  
Rent Your Textbooks
Save up to 70% when you rent your textbooks on Amazon. Keep your textbook rentals for a semester and rental return shipping is free.

Book Description

September 7, 2010 0465020232 978-0465020232 First Edition
String theory says we live in a ten-dimensional universe, but that only four are accessible to our everyday senses. According to theorists, the missing six are curled up in bizarre structures known as Calabi-Yau manifolds. In The Shape of Inner Space, Shing-Tung Yau, the man who mathematically proved that these manifolds exist, argues that not only is geometry fundamental to string theory, it is also fundamental to the very nature of our universe.

Time and again, where Yau has gone, physics has followed. Now for the first time, readers will follow Yau’s penetrating thinking on where we’ve been, and where mathematics will take us next. A fascinating exploration of a world we are only just beginning to grasp, The Shape of Inner Space will change the way we consider the universe on both its grandest and smallest scales.


Frequently Bought Together

The Shape of Inner Space: String Theory and the Geometry of the Universe's Hidden Dimensions + Hyperspace: A Scientific Odyssey Through Parallel Universes, Time Warps, and the 10th Dimens ion + Parallel Worlds: A Journey Through Creation, Higher Dimensions, and the Future of the Cosmos
Price for all three: $43.09

Some of these items ship sooner than the others.

Buy the selected items together


Editorial Reviews

Review

AUTHORS' STATEMENT by SHING-TUNG YAU and STEVE NADIS
There is a certain irony running through this book that one of the smallest things you can possibly imagine--six-dimensional geometric spaces that may be more than a trillion times smaller than an electron--could, nevertheless, be one of the defining features of our universe, exerting a profound influence that extends to every single point in the cosmos. This book is, in many ways, the story of those spaces, which physicists have dubbed "Calabi-Yau manifolds." It tells how one of us, Yau, managed to prove the existence, mathematically, of those spaces, despite the fact that he had originally set out to prove that such spaces could not possibly exist. It then goes on to explain how this mathematical proof, which had initially been ignored by physicists (partly because it was steeped in difficult, nonlinear arguments), nevertheless made its way into the center of string theory, which now stands as the leading theory of the universe and our best hope yet of unifying all the particles and forces observed--and yet to be observed--in nature.

Of course, none of this could have been foretold more than a half century ago when a man named Eugenio Calabi--the first half of the Calabi-Yau duo--proposed that there could be multidimensional spaces with properties so special that many mathematicians, including one of this book's authors, considered them "too good to be true." Calabi had not been thinking about physics at the time, in the early 1950s, when he advanced the famous conjecture named after him. Following the proof of the Calabi conjecture, we have learned many new and wonderful things in both physics and mathematics--all of which suggest that Calabi-Yau spaces are not only too good to be true, as the skeptics used to say, but that they may be even better.


BLURBS
Brian Greene, Professor of Mathematics & Physics, Columbia University; author of The Fabric of the Cosmos and The Elegant Universe
The Shape of Inner Space provides a vibrant tour through the strange and wondrous possibility that the three spatial dimensions we see may not be the only ones that exist. Told by one of the masters of the subject, the book gives an in-depth account of one of the most exciting and controversial developments in modern theoretical physics.”

Joe Polchinski, Professor of Physics, University of California - Santa Barbara; author of String Theory, Vols. 1 & 2
“Einstein’s vision of physical laws emerging from the shape of space has been expanded by the higher dimensions of string theory. This vision has transformed not only modern physics, but also modern mathematics. Shing-Tung Yau has been at the center of these developments. In this ambitious book, written

Newsletter of the European Mathematical Society
"An interested reader, even one with little background in mathematics, will be able to gather much new knowledge of, and appreciation for, both mathematics and physics from the elegant analogies and beautiful illustrations in this book...  The book gives insight into the mind of one of the world’s greatest mathematicians and will provide intellectual stimulation to interested readers with any kind of background." 

Simon Donaldson, Royal Society Research Professor in Pure Mathematics and President of the Institute for Mathematical Science, ImperialCollegeLondon
The Shape of Inner Space has a distinctive style: in part autobiography, in part an account of developments in geometric analysis and string theory over the past 40 years, and comments on future directions. It gives a unique insight into the thoughts of one of the most important and influential mathematicians of our times.”

Edward Witten, Professor, Institute for Advanced Study
“Shing-Tung Yau and Steve Nadis take the reader on a fascinating tour of many contemporary topics in geometry and physics. Readers will find many challenging ideas to explore in this book, and even specialists will enjoy Yau’s reminiscences about his education and work.”

Steven Strogatz, New York Times Opinionator contributor and professor of mathematics, Cornell University
“A fascinating first-hand account of how the math underlying string theory was discovered. Fields medalist Yau and ace science writer Nadis have teamed up to show the rest of us the deep geometry that just might lie at the heart of the universe. It’ll twist you into knots of pleasure!”

John Coates, Sadleirian Professor of Pure Mathematics, University of Cambridge
"This extraordinary book by Shing-Tung Yau and Steve Nadis gives the layman a remarkable glimpse into the mysterious inner world of one of the most beautiful and important parts of mathematics."

Andrew Strominger, Professor of Physics, Harvard University
“This book tells an inspiring story about how progress in science is made by breaking traditional boundaries in disciplines. It's really the only book of its kind—and, of course, written by someone who not only witnessed but also inspired and produced many of the major developments in this field over an exhilarating period of four decades.”

David Gross, Frederick W. Gluck Professor of Theoretical Physics, University of California – Santa Barbara; Nobel Prize-winning physicist
The Shape of Inner Space takes one on a marvelous journey that explores many beautiful areas of modern geometry and physics, and the people behind recent discoveries. It is a journey that I highly recommend to the intellectually curious.”

Michael D. Smith, Dean of the Faculty of Arts and Sciences, John H. Finley, Jr. Professor of Engineering and Applied Sciences, Harvard University
“Though this wonderful new book helped me to better understand the discoveries underpinning string theory, what I enjoyed most was what it reveals about the beauty of mathematical inquiry. This book shares a very human process of thought, discussion, and wonder that is enormously appealing, in addition to being quite obviously fertile ground for discovery. Words from Yau’s poem from the front pages—‘Inexhaustible, lovely in every detail’—provide an apt description of the book itself. Well done!”

 



REVIEWS
Publishers Weekly
“With the help of Astronomy magazine contributing editor Nadis, Yau relates the saga of [his] groundbreaking work which provided the foundations of string theory. Yau confidently draws readers into a realm of abstract concepts, from multiple dimensions to the exotic spaces called ‘manifolds,’ or Calabi-Yau spaces, whose curvature gives space its shape. From here it’s a hop, skip, and a jump to the geometry of space around the Big Bang, black holes, and the end of the universe.”

New Scientist
“It is a testimony to [Yau’s] careful prose (and no doubt to the skills of co-author Steve Nadis) that this book so compellingly captures the essence of what pushes string theorists forward in the face of formidable obstacles. It gives us a rare glimpse into a world as alien as the moons of Jupiter, and just as fascinating…. Yau and Nadis have produced a strangely mesmerizing account of geometry’s role in the universe.”

Nature
“Physicists investigate one cosmos, but mathematicians can explore all possible worlds. So marvels Fields medalist Shing-Tung Yau…. Relating how he solved a major theoretical problem in string theory in the 1970s, Yau explains how the geometries of the vibrating multidimensional strings that may characterize the Universe have implications across physics.”

Science Books & Films
“Concepts are introduced in a clear way, preceding more detailed discussions. The subjects examined include topology, geometries, general relativity, quantum physics, the standard model of particles, and other topics relevant to the pursuit of the understanding of extra dimensions in our universe. Among the volume’s especially interesting discussions are the possible experimental tests of the theory, the potential semistability of our universe, the five candidate string theories, and black-hole entropy.”

David Eicher, Astronomy.com
“[A] masterwork on its subject…. The book is an entertaining read, written with the absorbing style that characterizes Nadis’ feature stories in Astronomy…. Those interested in cosmology and nature as a whole will be delighted with this new work!”

New York Journal of Books
The Shape of Inner Space provides the opportunity to look over the shoulder of a giant in mathematics.”

MAA Reviews
“This fascinating book may well have a similar impact to Stephen Hawking’s A Brief History of Time…. I found this introduction to string theory totally absorbing, and well worth re-reading.”

Nature Physics
“An engaging exposition of elegant relations between geometry, topology, fields and strings, the book is also part memoir and part speculation about connections to physics…. Written with an easygoing sense of humour, and conscious of the distance between its subject and the daily concerns of the ‘average citizen’, the book in the end offers cautious optimism about the future of this ambitious programme of theoretical research. Altogether, Yau and Nadis’s effort covers some central developments in mathematical physics, and is well worth perusal by widely interested scientists as well as lay readers.”

The London Mathematical Society Newsletter                                                                                                                                         “This book tells the fascinating story of strange geometric objects that have achieved some fame outside of [mathematics] called Calabi-Yau manifolds... The collaboration between a mathematician and a science writer has worked wonders in this book. It's crowded with beautiful metaphors that clarify complex ideas and provide a peek into higher-dimensional worlds... One thing that comes through on every page of this book is the beauty of the [mathematics] and its power to shed light on the secrets of our Universe. If this is the kind of thing that fascinates you, then this is a great book to while away those dark winter evenings.”

PhysicsWorld.com
"It is fascinating to see the story of string theory told from a mathematician's point of view rather than that of a physicist... By bravely attempting to explain areas of mathematics that no one has ever tried to relate to the public before, The Shape of Inner Space takes a huge step forward... It will undoubtedly influence how string theory is taught and written about in the future."

Times Higher Education Supplement
"A very well-written book, and one that scientifically minded laymen will find easy to follow… It is strongly recommended to those seeking a first-hand, simply explained account of one of the most fascinating evolutions in modern science, whose impact in mathematics is significant and enduring, and whose impact in physics may be forthcoming.”

Choice
"This book provides an excellent insight into the current ideas about string theory."

Philip J. Davis, SIAM News
  
                                                                                                                                                                             "My experience in reading this book may be akin to that of a kibitzer in the presence of some moment of high creativity—perhaps of an onlooker in the atelier of Titian, watching how he painted the famous equestrian portrait of Charles V."

American Journal of Physics
The Shape of Inner Space is a portrait of a beautiful branch of geometric analysis as seen through the eyes of one of its pioneers, Fields medal winner Shing-Tung Yau… After describing the sequence of events that led him to the United States and to his enamoration with geometry, Yau explains as only a master could the conjecture by Calabi and the subsequent discovery of Calabi-Yau manifolds that are the centerpiece of this book. The reader is thrown into a world of complex manifolds, geometric analysis, and differential equations, yet the book is written so that the persistent layperson could follow all of the main ideas.”

Notes of the Canadian Mathematical Society
“In the fascinating book, The Shape of Inner Space… Shing-Tung Yau, along with coauthor Steve Nadis, describes the exciting development of the theory of what are now called Calabi-Yau manifolds and their relationship to the structure of the universe.”



Philippine Daily Inquirer
“A journey into the mind of a brilliant mathematician, The Shape of Inner Space will delight readers who are not afraid to use their minds.”

College Mathematics Journal
“A worthy successor to The Elegant Universe.”
 
Philippine Daily Inquirer
“A journey into the mind of a brilliant mathematician, The Shape of Inner Space will delight readers who are not afraid to use their minds.”

The Mathematical Intelligencer
“What makes this book unique is that Yau has a deep insight not only into the mathematics but also into the physics governing our universe, and he uses this knowledge to build a bridge between both worlds.”

About the Author

Shing-Tung Yau has won many awards, including the Fields Medal. He is a professor of mathematics at Harvard University and lives in Cambridge, Massachusetts.

Steve Nadis is a Contributing Editor to Astronomy Magazine. He has published articles in Nature, Science, Scientific American, New Scientist, Sky&Telescope, The Atlantic Monthly, and other journals. He has written or contributed to more than two dozen books. A former staff researcher for the Union of Concerned Scientists, Nadis has also been a research fellow at MIT and a consultant to the World Resources Institute, the Woods Hole Oceanographic Institution, and WGBH/NOVA. He lives in Cambridge, Massachusetts.

 


Product Details

  • Hardcover: 400 pages
  • Publisher: Basic Books; First Edition edition (September 7, 2010)
  • Language: English
  • ISBN-10: 0465020232
  • ISBN-13: 978-0465020232
  • Product Dimensions: 6.1 x 1.3 x 9.3 inches
  • Shipping Weight: 1.4 pounds (View shipping rates and policies)
  • Average Customer Review: 4.4 out of 5 stars  See all reviews (63 customer reviews)
  • Amazon Best Sellers Rank: #214,674 in Books (See Top 100 in Books)

More About the Authors

Discover books, learn about writers, read author blogs, and more.

Customer Reviews

Dr. Yau and Steve Nadis -- their writing is clear, and more importantly very engaging! Roger  |  17 reviewers made a similar statement
If you stick with this book, as I did, you will be amply rewarded. Martin H. Court  |  4 reviewers made a similar statement
Most Helpful Customer Reviews
79 of 83 people found the following review helpful
4.0 out of 5 stars How to think in (mostly) ten dimensions November 17, 2010
Format:Hardcover
This book, from a mathematician, covers the period from the first proof that Calabi-Yau spaces actually might exist to their current central place as a preferred model for String Theory's extra dimensions. Shing-Tung Yau is the Fields Medallist godfather of the eponymous manifolds and Steve Nadis had the unenviable task of writing it all down so that the rest of us could have a prayer of understanding it. He also did the interviews and fleshed out the physics side. The best way to review this book is just to explain what it says chapter by chapter.

Chapter 1: The universe is a big place, maybe infinite. Even if its overall curvature suffices to close it, observations suggest that its volume may be more than a million times the spherical volume of radius 13.7 billion light year we actually see. The unification programme of theoretical physics doesn't really work, however, if it's confined simply to three large spatial dimensions plus time. It turns out that replacing the point-like objects of particle physics with tiny one-dimensional objects called strings, moving in a 10 dimensional spacetime may permit the unification of the electromagnetic, weak and strong forces plus gravity. Well, today it almost works.

We see only four space-time dimensions. Where are the other six? The suggestion is that they are compactified: rolled up to be very small. But that's not all, to make the equations of string theory valid, the compactified six dimensional surface must conform to a very special geometry. That is the subject of the rest of the book.

Chapter 2: Yau was born in mainland China in 1949. His father was a university professor but the pay was poor and he had a wife and eight children to support. When Yau was 14 his father died leaving the family destitute: Yau's destiny seemed to be to leave school and become a duck farmer to pay his way but in a flash of inspiration he decided instead to become a paid maths tutor, teaching as he was learning. Yau's astounding talent led him from this humble background to the University of California at Berkeley by the time he was 20. As well as autobiographical details, this chapter also outlines the idea of a metric on curved spaces, introducing Einstein's theory of gravity.

Chapter 3: Yau's early work at Berkeley was in the area of geometric analysis, used in the proof of the Poincare conjecture (1904). This conjecture states that a compact three dimensional space is topologically equivalent to a sphere if every possible loop which can be drawn in that space can be shrunk to a point without tearing. The conjecture was proved in 2002 by the controversial Russian mathematician Grisha Perelman. Work in this area set the scene for Yau's celebrated proof of the Calabi conjecture: that what subsequently became known as `Calabi-Yau' (CY) spaces actually exist.

Chapter 4: The Calabi conjecture is simple to state if not to understand: it asks whether a complex Riemann surface (conformal, orientable) which is compact (finite in extent) and Kähler (the metric is Euclidean to second order) with vanishing first Chern class has a Ricci-flat metric. All these concepts are explained in this chapter. One of the more interesting features of a space satisfying Calabi's conjecture (if it existed) was that it would satisfy Einstein's vacuum field equations automatically.

Chapter 5. Yau initially didn't believe the Calabi conjecture and at a conference held at Stanford in 1973 went so far as to give a seminar "disproving" it. Calabi contacted Yau a few months later asking for details and Yau set to furious work, the argument slipping out of his hands the harder he tried to make it rigorous. Yau concluded that in fact the conjecture must be correct and spent the next three years working on the problem. In 1976 he got married and on his honeymoon the last piece of the puzzle dropped into place. The conjecture was proved correct.

Chapter 6. What Yau had proved was a piece of mathematics but he was sure there must be applications in theoretical physics. However, nothing happened until 1984. Parallel developments in string theory (ST) had determined that ten dimensions were needed to allow sufficiently diverse string vibrations to occur to capture the four fundamental forces and to induce `anomaly cancellation'. The search was on for a six dimensional compactified space to complement four dimensional space-time. The chapter describes how physicists came to CY spaces via supersymmetry and holonomy.

CY manifolds within ST are very small (a quadrillion times smaller than an electron) and are riddled with multidimensional holes (up to perhaps 500). The way strings wrap around the CY surface, threading through holes, is intended to reproduce observed particles and their masses. This has proven a fraught task as it requires a very special CY manifold to even get close. Yau has estimated there might be 10,000 different manifolds but no-one really knows.

The chapter closes with a discussion of M-theory, Edward Witten's framework for uniting the five different string theories developed in the 1990s. M-theory is defined in 11 dimensions and includes `branes' of anything from 0-9 dimensions. Apparently the universe could have 10 and 11 dimensions simultaneously but the mathematics (via CY spaces) works better in 10.

Chapter 7 discusses a challenge to the applicability of CY spaces due to the quantum field theory requirement for conformal and scale invariance. The CY metric doesn't (without tweaking) allow for this. This research led to a concept called mirror symmetry which associates CY manifolds with distinct topologies with the same Conformal Field Theory (CFT). This proved important for calculation.

Chapter 8 talks about the success of ST in deriving the Bekenstein-Hawking formula for (supersymmetric) black hole entropy. The very large number of required black hole microstates are constituted by wrapping branes around sub-surfaces of a CY manifold to build the black hole. The chapter ends by extending these ideas to the celebrated AdS/CFT correspondence.

Chapter 9 notes that ST has yet to reproduce the Standard Model (SM) and recounts some of the attempts being made. Yau's favourite is E8 x E8 heterotic ST and the technique is to break the many symmetries of E8 down to the 12 required by the SM [SU(3) with 8D symmetry, 8 gluons; SU(2) with 3D symmetry, W+, W-, Z; U(1) with 1D symmetry, photon]. We are not there yet.

Chapter 10 talks about mechanisms to keep the compactified dimensions small when energetically they would prefer to be large. The CY manifolds are stabilised by quantised fluxes. Suppose there are 10 values (0-9) for a flux loop and 500 holes in a CY manifold then there are 10 ** 500 different stable states. This extraordinary crude estimate has been widely publicised as "The Landscape Problem" for those who were hoping that there would be exactly one CY model for the universe. Yau is unimpressed, never having believed in such uniqueness in the first place. Chapter 11 continues the theme of `explosive decompactification' and recommends not being around if and when it happens.

Chapter 12 surveys the search for hidden dimensions. They may be visible `out there' for telescopes to pick up. Alternatively there's the LHC. Chapter 13 is an essay on truth and beauty in mathematics.

The final chapter raises a deep question. CY manifolds are solutions to Einstein's gravitational field equations in a vacuum. But Einstein's theory is classical - smooth all the way down (except for rare singularities). However, the QM view of space-time at the Planck scale is anything but smooth: the term `quantum foam' has been coined. What kind of geometry - quantum geometry - could model this?

Yau's view is that at present no-one has much of a clue although he describes some ideas exploring CY topology changes via singularity introduction - the flop transition -which could shed some light on what quantum geometry could look like.

In summary this is not a book for the faint-hearted. It gives a mountain-top view of the research area which is Calabi-Yau theory and its application to String Theory. One never forgets however how much inaccessible mathematics and physics lies behind Steve Nadis's persuasive and fluent writing.
Was this review helpful to you?
89 of 96 people found the following review helpful
5.0 out of 5 stars A Rewarding Read August 23, 2010
Format:Hardcover
Before reading "The Shape of Inner Space," I knew almost nothing (actually, nothing at all) about complex geometry or physics. So when a friend handed me an advance copy, I was reluctant to read it. But from the first chapter I found myself being guided quite easily through the fascinating backstory of string theory.

There are so many mathematical concepts and discoveries--each one complex and fascinating in its own right--that one has to understand in order to make sense of string theory. Amazingly, the authors manage to tease apart all these ideas, describe them clearly (with lots of very manageable images and examples), and weave them back together. I'm so glad I read this book!
Was this review helpful to you?
39 of 42 people found the following review helpful
5.0 out of 5 stars AN EXHILIRATING AND CHALLENGING BOOK! September 7, 2010
Format:Hardcover
Simply put, this is a sensational book. The authors expertly guide readers through some really difficult terrain concerning "extra" dimensions, string theory, geometry, and topology. Most of the subject matter was new to me, and I am amazed that, with some effort, I was able to understand this unfamiliar material quite well. I regard that as a tribute to the authors' considerable expository skills. I'm really glad a friend recommended THE SHAPE OF INNER SPACE to me. And I'm now returning the favor by recommending it to anyone interested in our universe and the possibility of there being higher dimensions that might control everything, behind the scenes as it were. If you stick with this book, as I did, you will be amply rewarded.
Comment | 
Was this review helpful to you?
Most Recent Customer Reviews
5.0 out of 5 stars fantastic book
you may not be able to see it, you may not be able to prove it, you may not even be able to understand it, but math makes the existence of extra dimensions so, so obvious that you... Read more
Published 3 months ago by jumpingcoco
1.0 out of 5 stars An autobiography and nothing more
I purchased this book mistakenly thinking I would learn something about String Theory. But that's not the book's purpose. Read more
Published 4 months ago by A. Woronow
4.0 out of 5 stars Good Intro to Modern Geometry
No Math Needed! If you took geometry in high school, as I did, this book will open your eyes to the new horizons that geometry continues to explore. Prof. Read more
Published 5 months ago by GregC
5.0 out of 5 stars Thought provoking
This book covers: topology, manifolds, metric tensors, geometric analysis, non-linear partial differential equations. Read more
Published 6 months ago by K. Roy
2.0 out of 5 stars Didn't finish it
Too complex and too narrow a field. Unless you have a physics degree this is too technical in my opinion. Read more
Published 6 months ago by Andy kelsall
5.0 out of 5 stars The Nature of Reality
It is possible that the world is much different than you think it is. Shing-Tung Yau won the Fields Medal as a geometer. Read more
Published 7 months ago by W. Clement
4.0 out of 5 stars String Theory
I was looking for something not too expensive to get some understanding of string theory. This describes a mathematical approach which has been used by physicists to outline string... Read more
Published 10 months ago by engineer P
4.0 out of 5 stars Topical read
This is a great read with interesting history about the development of the modern theories of quantum physics. Read more
Published 10 months ago by Ian McEachern
5.0 out of 5 stars good book but may require a little math background from reader
While I've not yet finished reading the book, it is a very good layman's introduction to the mathematical developments which enter into the development of modern physics such as... Read more
Published 12 months ago by H. Schisa
3.0 out of 5 stars Good read
Most popular physics books jump into conclusions with little discussion of the tools used. Yau made effort to describe his tools. Read more
Published 12 months ago by Lulu Cerne
Search Customer Reviews
Only search this product's reviews


Forums

There are no discussions about this product yet.
Be the first to discuss this product with the community.
Start a new discussion
Topic:
First post:
Prompts for sign-in
 





Look for Similar Items by Category