Journey Through Genius The Great Theorems Of Mathematics Pdf Download
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"For disciplines as diverse as literature, music, and art, there is a tradition of examining masterpieces -- the "great novels", the "great symphonies", the "great paintings" -- as the fittest and most illuminating objects of study. Books are written and courses are taught on precisely these topics in order to acquaint us with some of the creative milestones of the discipline and w
The preface to this book contains the following explanation, which I think suffices to explain its reason for being:"For disciplines as diverse as literature, music, and art, there is a tradition of examining masterpieces -- the "great novels", the "great symphonies", the "great paintings" -- as the fittest and most illuminating objects of study. Books are written and courses are taught on precisely these topics in order to acquaint us with some of the creative milestones of the discipline and with the men and women who produced them.
The present book offers an analogous approach to mathematics, where the creative unit is not the novel or symphony, but the theorem. ... "
On the whole, I think the author does a commendable job in fulfilling this promise. There are, however, some shortcomings: The book states that Fermat's Last Theorem is still unsolved, when it was in fact proved by Andrew Wiles and Richard Taylor in 1995. Of course, the book was published in 1990, so what it stated was true at the time of writing. A second shortcoming, in my estimation, is the total absence of any mention of Group Theory, its origins during the French Revolution (Evariste Galois and subsequent enhancements by Sophus Lie, both of whom have fascinating histories, albeit tragic ones). Perhaps the importance of Group Theory was not apparent in 1990, but I doubt that. Bottom line: The book needs a new edition.
Just as I would have a hard time going through one of the standard "great masterpieces of fiction" tomes because of my lack of appreciation of many so-called classics, so a typically non-mathematical reader would probably have a difficult time reading this book, at least in the sections that deal with the proofs of the theorems. Even I, with a strong mathematical background, found my eyes glazing over during some of the proofs -- especially those based on Euclidean style geometry (all the ancient Greek and other ancient cultures were based on this kind of geometry). You know, the kind of geometry where, in school, you were asked to prove that this angle is equal to that other angle. I was never very good at that -- perhaps I lacked the spatial aptitude, and there never seemed to be any real rules to follow; it was basically trial and error. I *was* good at what we called Coordinate Geometry (I think they call it Analytic Geometry now), probably because there were more easily identified rules.
I found the last two chapters, "The Non-Denumerability of the Continuum" and "Cantor and the Transfinite Realm", to be particularly interesting, because I had not previously learned about those areas.
One final comment, which applies not only to this book but to most if not all mathematics books I've read or studied: I feel that one of the reasons why so many people stop paying detailed attention (glazed eye onset) to a mathematical proof is not only that it's often difficult to understand, but that it's often presented in a very dense manner. Essential steps are subsumed into a single paragraph with no attempt to identify each step. I believe that, if there was an express attempt to present the proof using bulleted or numbered lists, with relatively short explanations in each item, more people could stay awake longer and be more likely to understand the proof. Perhaps this is because it would provide more of a visual aid than densely written paragraphs. Mathematicians often forget that they do this for a living, so it becomes second nature to them, while other mere mortals might benefit from a different approach and/or presentation.
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The chapter dealing with Sir Isaac Newton nearly had me in tears. His accomplishments and understanding are just mind boggling.
I took a course on the history of mathematics in college. It was horribly boring. I had to fight sleep off. This book would have been a brilliant text for that class. Sure it doesn't cover every blasted mathematical discovery since the beginning of time, but the approach this book takes seems so much more practical and well rounded. It has just the right mix of history and proofs, and was almost always very engaging and interesting. It covers so many of the really really important things. My class would have been much better if it had used this sort of approach verses the linear, this happened then this happened then this happened... approach. History can be so boring, but this book was very fun.
People who don't like math, and wouldn't care to follow a proof while reading won't like this one bit.
One final thought: Newton once explained that the reason he was so successful at solving problems was "by thinking on them continuously." I wish I could harness a small bit of that focus. Sure, I've got to be able to multitask a little, but wouldn't it be nice to use a bit more focus in our lives? I think I could get more done, and do it better, if I'd procrastinate less, and not do things in pieces, but just set about doing a task, and get it done. If that makes sense. Isn't Newton inspiring in so many ways? Don't we all wish we could be like him? Except maybe a little more well adjusted and happy?
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And in Bertrand Russels's words: Mathematics, rightly viewed, possesses not only truth, but supreme beauty—a beauty cold and austere, like that of sculpture, without appeal to any part of our weaker nature, without the gorgeous trappings of painting or music, yet sublimely pure, and capable of a stern perfection such as only the greatest art can show.
What a merry walkthrough over the work of History's mathematical geniuses!, faith in Humanity: Restored!And in Bertrand Russels's words: Mathematics, rightly viewed, possesses not only truth, but supreme beauty—a beauty cold and austere, like that of sculpture, without appeal to any part of our weaker nature, without the gorgeous trappings of painting or music, yet sublimely pure, and capable of a stern perfection such as only the greatest art can show.
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The chapter I had the most difficulty with was the one on Heron's formula. Theorems are presented without any indicator of where they are headed. Dunham keeps promising that the formula will eventually be derived, but I gave up beforehand.
The other chapter I would criticize is the one on Euler's number theory, but for different reasons. In developing Fermat's Little Theorem,
The math history presented is very good. The mathematical exposition is uneven. Some of it is good and some not so good.The chapter I had the most difficulty with was the one on Heron's formula. Theorems are presented without any indicator of where they are headed. Dunham keeps promising that the formula will eventually be derived, but I gave up beforehand.
The other chapter I would criticize is the one on Euler's number theory, but for different reasons. In developing Fermat's Little Theorem, Dunham derives the result that (a+1)^p - a^p -1 is divisible by p, by asking us to assume that the expression for 1/p((a+1)^p - a^p -1) is a whole number. I don't know why this was done, since it is easy to prove the divisibility directly, using the Binomial Equation discussed at length in the book. Later in the same chapter, mentioning the formula for geometric series would have made much clearer Euler's work on factoring Fermat numbers.
Overall I would recommend the book. If you are not that much into proofs, there is much of interest in the biographical and historical material. If you are willing to do a little work in following the proofs, there is much to appreciate.
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Sometimes the story may be too good. My confidence in the history I did not know was reduced by two errors (both on page 129) in the history that I do know. Th
I enjoyed this tour through the history of the development of mathematics, from Euclidean geometry to the more abstract challenges of modern theory. The author tells a good story, and there is plenty of mathematical detail for those who are interested. In particular, the explanation of Cantor's work on infinity is the clearest I have seen.Sometimes the story may be too good. My confidence in the history I did not know was reduced by two errors (both on page 129) in the history that I do know. There is no evidence that the Arabs burned the Library of Alexandria in 621, as it was probably long gone by then. And Muhammad did not die in Jerusalem. How many other old myths are being recycled here?
However, I am sure the math is good, even if the story behind it might occasionally be questionable. I recommend this book for those with an interest in mathematics, but do not expect an advanced treatment of the ideas in question.
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Dunham has done an excellent job of selecting exemplary theorems that can be explained to an interested reader having no special mathematical training, that are associated with the most greatest mathematicians of all time, and that i
The title is a fair description: Dunham presents highlights from math history as great works of art. He carries this analogy through the book consistently, for example identifying Georg Cantor (-1918) as the mathematical parallel of his contemporary Vincent van Gogh.Dunham has done an excellent job of selecting exemplary theorems that can be explained to an interested reader having no special mathematical training, that are associated with the most greatest mathematicians of all time, and that influenced the future of mathematics. In addition to the "great theorems," he finds time to describe many other masterpieces.
Of Dunham's twelve "Great Theorems," Heron's formula and Newton's general binomial theorem have by far the weakest credentials. Looking for candidates to replace them, though, gives a good idea of why they were chosen. Dunham certainly had a clear idea of his intended audience, and decided on that basis not to include any calculus beyond the Cauchy/Weierstrass definition of the limit -- this eliminates some clearly Great Theorems, most notably the Fundamental Theorem of Calculus, and explains the inclusion of the binomial theorem: "It was a must, for example, to have selections from ...Newton." (p. vii) On the other hand, the beautiful results of graph theory (particularly Euler's polyhedron formula) could hardly have been included without requiring a third chapter about Euler.
I recommend this book to a general reader interested in the history of mathematics, and particularly to undergraduate students of mathematics: it's a great chance to pick up the folklore that "everyone knows" but that isn't always taught explicitly.
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From everybody's favorite theorem (the Pythagorean theorem that is) to the dreaded nightmare-inducing calculus (thank you, Sir Isaac Newton!) and beyond this li
This was a class book for a 'History of Math' course I took during my undergrad and it remains one of the few books from that era in my life that I actually return to now and then... Geeky, sure. Dorky, definitely, but this book provides a fascinating account of how advances in mathematics follows progress in civilization and vice versa.From everybody's favorite theorem (the Pythagorean theorem that is) to the dreaded nightmare-inducing calculus (thank you, Sir Isaac Newton!) and beyond this little book packs quite the punch. Even if math isn't your thing, you can skip the proofs and just read the blurbs about the life, times and genius-inspiring circumstances of great historical figures.
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Mathematics, rightly viewed, possesses not only truth, but supreme beauty -a beauty cold and austere, like that of sculpture, without appeal to any part of our weaker nature, without the gorgeous trappings of painting or music, yet sublimely pure, and capable of a sterBad habits die hard, so let's start with a quotation, shall we? Make it a double one, since in the book, it originally is a quotation already. (And, like I said, bad habits die hard, so this is actually the conclusion of the book.)
Mathematics, rightly viewed, possesses not only truth, but supreme beauty -a beauty cold and austere, like that of sculpture, without appeal to any part of our weaker nature, without the gorgeous trappings of painting or music, yet sublimely pure, and capable of a stern perfection such as only the greatest art can show.
If you ask me, this quite sums up the idea of the book in the sense that, by going through the history behind some of mathematics' greatest theorems, it shows the beauty of mathematics... but it should be noted that it's quite difficult to go through the book if you don't have some basics (and maybe more than basics) in the domains of mathematics explored in there. In other words, I don't think it suits people who would only be interested in the historical side of mathematics, you need to know a bit of the mathematics themselves. Well, maybe not for all chapters, because some of these theorems are easy concepts to grasp and/or are explained quite simply-ish (and Dunham even writes at times that such theorem goes beyond the level of the book)... but other chapters, not so much. Or maybe you can just skip over the proof and technical details, but I'm not sure if it's enjoyable to read this book that way.
That aside, from a (kinda) mathematics student POV, it's a very enjoyable reading. When you go through years of studies, you usually only get the technical side of stuffs (unless you have special profs who like to add anecdotes to their classes --those are the best, it makes it more interesting imo) and all history is swept under the rug. With this book, I got to catch up a bit on history. I think there's only Cardano's solution of the cubic (chapter 6) and Cantor's infinites (chapters 11-12) for which I knew most of the story already. In any case, all through the book, I was reminded of my many many classes, a small trip down memory lane so to say.
It covers a variety of domains: geometry (that I feel like I haven't been in touch with for a couple of years), algebra, number theory (the one I've, most likely, been studying more thoroughly), calculus (the one I've never really got along with)... And although the table contents seems to indicate that only a couple of great mathematicians are included in the book, there are actually so many more that come into the picture as you go through the chapters (a couple of them I've never even heard of). Another interesting point was to be confronted to those long-ass sentences they used to use. Maybe it's because my classes were all taught in French and the phrasing is slightly different from the modern English one, but sometimes I had to read it over a couple times to grasp the idea.
The only bad point I have in mind is that it was too short (although I do admit that a longer book might have been harder to digest). I feel like there's a good amount of other interesting theorems/theories that could have fitted in the book (not that I have specific ones in mind right now though), but maybe the history behind them isn't as fascinating as those included...
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The most striking point of the entire book to me was how miserable the vast majority of the featured mathematicians lives
At times the proofs can be a little hard to follow, but the book was definitely written for the layman with some calculus background. However, since the book covers such diverse mathematical topics, it is difficult to fully appreciate every theorem. The author does try to present every theorem in its historical context and give background on the great minds of the discoverers.The most striking point of the entire book to me was how miserable the vast majority of the featured mathematicians lives were. They lived lonely lives and suffered from bouts of mental illness. I wonder if people like Cardano, Cantor, Newton, and Turing succeeded because of their faults or in spite of them. Their work was a great service to humanity, but was it worth it in the end for them. Would they have traded their greatness for a normal, happy life? Reading about their lives is enough to make one hope that they never accomplish anything great. Of course, there are plenty of people who lead miserable lives without accomplishing anything too.
The example that really sits with me was the final one illustrated by Cantor. He was a brilliant man who tackled the problem of the infinite. He spent much of his life struggling to prove or disprove his continuum hypothesis. It is believed that his obsession over this problem contributed to his bouts of mental illness and the complete breakdowns that he suffered. It may have even expedited his death. Twenty years after his death it was proven that this hypothesis could not be disproved. Another twenty years later it was also proven that the hypothesis could not be proven. This meant that he spent his life obsessing over a problem that could not be solved.
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Dunham teaches (or taught, I don't know) a history of math
I read this book for a history of mathematics course I took in college. It was an excellent introduction to the history of mathematics. Talking to William Dunham was also an interesting experience. He mentioned that the publishers didn't want anything to be included that required more knowledge than some basic calculus, and he also didn't like the title "Journey Through Genius" at first though it grew on him as the book gained popularity.Dunham teaches (or taught, I don't know) a history of math course himself, and is obviously an expert on the topic. It would have been nice to have included more advanced material, but the math covered is both important to the history of math and engaging enough that you will not forget it. Aside from the math, Dunham also includes historical bits about the mathematicians themselves. From the outrageous Pythagorean response to the discovery of irrational numbers to the battle of Tartaglia vs Cardano, the bizarre history of mathematicians lightens the more rigorous concepts introduced. A must-read for anyone unfamiliar with the history of math.
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"Mathematics, rightly viewed, possesses not only thruth, but supreme beauty - a beauty cold and austere, like that of sculpture, without appeal to any part of our weaker nature, without the gorgeous trappings of painting or music, yet sublimely pure and capable of a stern perfection such as only the greatest art can show."
William Dunham perfectly transports this feeling. 5/5.
A quote from Bertrand Russel, which is offered in the afterword, perfectly sums up the contents of this book:"Mathematics, rightly viewed, possesses not only thruth, but supreme beauty - a beauty cold and austere, like that of sculpture, without appeal to any part of our weaker nature, without the gorgeous trappings of painting or music, yet sublimely pure and capable of a stern perfection such as only the greatest art can show."
William Dunham perfectly transports this feeling. 5/5.
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One of the first questions anyone might have before reading a book about mathematics is what level of m
In a phrase, this is one of my favorite books on mathematics. I read it first when it was recommended by my Calculus I professor and thought it was great. I read it again when I took a course in the history of mathematics and thought it was brilliant. Now it remains one of my favorites and I return to it regularly for discussion of some remarkable theorems and the great minds who produced them.One of the first questions anyone might have before reading a book about mathematics is what level of mathematical sophistication is required on the part of the reader. In this case, the reader can feel pretty safe. While these are real and deep mathematical theorems, their proofs only require high-school level mathematics. In the vast majority of cases, the reader familiar with basic algebra and a little bit of geometry will have no trouble following the discussions. One theorem (Newton's approximation of pi) requires a little bit of integral calculus and another (the discussion of some of Euler's sums) requires a smidge of elementary trigonometry. In both cases, the author holds the reader's hand through the discussion so even if you haven't taken a course in trigonometry or calculus, you'll still be able to follow most of the conversation.
In fact, even if you don't really have a lot of algebra and geometry, the bulk of the book will still be accessible to you. The majority of the text is a history of mathematics wherein the author discusses the context and importance of the theorems and some biographical details of their discoverers. While I find the recreations of the proofs themselves to be perhaps the most interesting part, the reader with a general interest (even if that interest is not supported by mathematical skill) will find the book fascinating. For those of us who do have some knowledge of mathematics, though, the recreations of the theorems presented in their historical context provides a rich and inspiring series of vignettes from the history of mathematics.
This brings us to another important point. While this is a book about the history of mathematics. it is not *a* history of mathematics, and the theorems selected are not the only "great" theorems of mathematics, but a cross-section thereof. Many readers of sufficient mathematical background may quibble over the inclusion of some theorems at the expense of others--personally I would like to have seen more from combinatorics--but no one can deny that these theorems are remarkable in their elegance and in their importance in the development of mathematics from the Ancient Greeks to the very end of the nineteenth century.
It might be helpful to know what theorems are actually included in the book. Aside from a handful of lemmas and minor results presented before or after each of the "Great Theorems," the book consists of a single major result per chapter. They are:
*Hippocrates' quadrature of the lune
*Euclid's proof of the Pythagorean Theorem
*Euclid's proof of the infinitude of primes
*Archimedes' determination of a formula for circular area
*Heron's formula for triangular area
*Cardano's solution of the cubic
*Netwon's approximation of pi
*Bernoulli's proof of the divergence of the harmonic series
*Euler's evaluation of the infinite series 1+1/4+1/9+1/16+...
*Euler's refutation of Fermat's conjecture
*Cantor's proof that the interval (0,1) is not countable
*Cantor's theorem that the power set of A has strictly greater cardinality than A
Each of these theorems is surrounded by the historical discussion that makes this book a triumph not merely of teaching a dozen results to students but of actually educating students on the human enterprise of mathematics. It is not only interesting but, I think, important to be reminded of the human side of a field as abstract as mathematics, and Dunham bridges the mathematical and the biographical with remarkable dexterity. It is useful for the student of mathematics to understand that Cantor's work on the transfinite was resisted by the mathematicians of his day just as much as students struggle with it when they're exposed to it in today's lecture halls. It might further be useful to know that, perhaps partly due to his demeanor and perhaps partly due to the attacks on his work, Cantor spent much of his life in mental hospitals--and yet, despite his unhappy life his work has achieved immortality as one of the great developments in mathematical history.
I can't recommend this book highly enough for the mathematician, the math student, or the merely curious. In fact, I recommend reading it twice. First, just read it straight through and enjoy the story of mathematics told through these vignettes. Then read it again with pencil and paper in hand and work through the theorems and proofs with the author as your guide. You'll come away with a much deeper understanding of and appreciation for these great theorems in particular and mathematics in general.
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A decent trawl through a few millennia of mathematics, focusing on specific theorems that the author describes as "the great theorems of mathematics". The pen pictures of the mathematicians are good but what sets the book apart from the large number of similar books is the focus on specific theorems and their proofs. So there's quite a lot of actual mathematics in the book. For me this is both a strength and a weakness - the former because it makes the achievements more real but the latter becau
A decent trawl through a few millennia of mathematics, focusing on specific theorems that the author describes as "the great theorems of mathematics". The pen pictures of the mathematicians are good but what sets the book apart from the large number of similar books is the focus on specific theorems and their proofs. So there's quite a lot of actual mathematics in the book. For me this is both a strength and a weakness - the former because it makes the achievements more real but the latter because it's been many years since I had the patience to go through a mathematical proof properly.
I wasn't entirely enamoured of the choice of theorems but I understand the author's dilemma in wanting to choose theorems whose proofs could be understood by non-mathematicians and also wanting to include contributions from the most important mathematicians in his list. Ultimately, I felt that the book was only partially successful in convincing me of the beauty of the proofs and I suspect that this was partly down to the choice of theorems covered. Cantor's diagonal arguments being some of the more successful examples in this regard.
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Dunham does a great job at linking It took me a while to finally read this book but I believe it to be an all time classic. This sets the example for great math history books. Of course there is an inherent risk at choosing to tell certain stories (in this case, certain theorems) above others, Dunham really does make a great selection of great, unexpected, brilliant theorems that are easy to explain, easy to understand, that had a great impact and with solutions that were truly a work of genius.
Dunham does a great job at linking each theorem of his choosing to the next, telling the little anecdotes that happened in between, keeps us updated with important characters in the story that were incredibly decisive even if their work was not chosen as the protagonist.
Along with the story, we get to read a simplified and modern version of both the theorem and its proof, so it is not only history but some great math in as well. I would absolutely recommend this book to every math aficionado. ...more
Readers will get some sense on the broad pattern of mathematics development and how it fits into human civilization progression. Readers will also find detailed stories such as how Issac Newton left his work on Calculus unpublished for years.
Dunham shares with readers several
Journey Through Genius contains mathematics histories and technical details on important subjects, written for layman. With this huge subject, Dunham probably put a lot of thoughts into selecting what to include, and how.Readers will get some sense on the broad pattern of mathematics development and how it fits into human civilization progression. Readers will also find detailed stories such as how Issac Newton left his work on Calculus unpublished for years.
Dunham shares with readers several scenes that demonstrate the beauty of mathematics. These scenes vary in the level of details from almost-complete technical proofs to hand waving description of critical ideas.
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The author concludes with Proclus (5th Century): 'This, therefore, is mathematics: she gives life to her own discoveries; she awakens the mind and purifies the intellect; she brings light to our intrinsic ideas; she abolishes the oblivion and
An enjoyable romp through the history of mathematics, some of its most remarkable theorems, and the brains behind them. Giants galore with shoulders to stand on. A pyramid of most intriguing discoveries and proofs. Newton, Euler, Cantor - to name just a few.The author concludes with Proclus (5th Century): 'This, therefore, is mathematics: she gives life to her own discoveries; she awakens the mind and purifies the intellect; she brings light to our intrinsic ideas; she abolishes the oblivion and ignorance which are ours by birth.'
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The real detraction for me is Dunham's overt prejudices: anti-Oriental; anti-Islamic; anti-German; and, anti-Catholic.
Leave this book on the shelf.
The author had an interesting idea for a book. Unfortunately, by only scratching a tiny portion of the surface, he executed that idea very poorly. I know ... I should have expected that from reading the Contents.The real detraction for me is Dunham's overt prejudices: anti-Oriental; anti-Islamic; anti-German; and, anti-Catholic.
Leave this book on the shelf.
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News & Interviews
'All these points [of mathematics], I say, are supposed and believed by certain rigorous exactors of evidence in religion, men who pretend to believe no further than they can see... But he who can digest a second or third fluxion, a second or third differential, need not, methinks, be squeamish about any point in divinity.'
As if that were not devastating enough, Berkeley added the wonderfully barbed comment:
'And what are these fluxions? The velocities of evanescent increments. And what are these same evanescent increments? They are neither finite quantities, nor quantities infinitely small, not yet nothing. May we not call them the ghosts of departed quantities...?'
Sadly, the foundations of the calculus had come to this - to 'ghosts of departed quantities.' One imagines hundreds of mathematicians squirming restlessly under this sarcastic phrase.
Gradually the mathematical community had to address this vexing problem. Throughout much of the eighteenth century, they had simply been having too much success - and too much fun - in exploiting the calculus to stop and examine its underlying principles. But growing internal concerns, along with Berkeley's external sniping, left them little choice. The matter had to be resolved.
Thus we find a string of gifted mathematicians working on the foundational questions. The process of refining the idea of 'limit' was an excruciating one, for the concept is inherently quite deep, requiring a precision of thought and an appreciation of the nature of the real number system that is by no means easy to come by. Gradually, though, mathematicians chipped away at this idea. By 1821, the Frenchman Augustin-Louis Cauchy (1789-1857) had proposed this definition:
'When the values successively attributed to a particular variable approach indefinitely a fixed value, so as to end by differing from it by as little as one wishes, this latter is called the limit of all the others."
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Journey Through Genius The Great Theorems Of Mathematics Pdf Download
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