- Paperback: 276 pages
- Publisher: Cambridge University Press; 1 edition (January 27, 2003)
- Language: English
- ISBN-10: 0521010608
- ISBN-13: 978-0521010603
- Product Dimensions: 6.8 x 0.7 x 9.7 inches
- Shipping Weight: 1.4 pounds (View shipping rates and policies)
- Average Customer Review: 3 customer reviews
- Amazon Best Sellers Rank: #1,296,104 in Books (See Top 100 in Books)
Enter your mobile number or email address below and we'll send you a link to download the free Kindle App. Then you can start reading Kindle books on your smartphone, tablet, or computer - no Kindle device required.
To get the free app, enter your mobile phone number.
Sets for Mathematics 1st Edition
Use the Amazon App to scan ISBNs and compare prices.
See the Best Books of 2018 So Far
Looking for something great to read? Browse our editors' picks for the best books of the year so far in fiction, nonfiction, mysteries, children's books, and much more.
Frequently bought together
Customers who bought this item also bought
"...the categorical approach to mathematics has never been presented with greater conviction than it has in this book. The authors show that the use of categories in analyzing the set concept is not only natural, but inevitable." Mathematical Reviews
"To learn set theory this way means not having to relearn it later.... Recommended." Choice
Advanced undergraduate or beginning graduate students need a unified foundation for their study of geometry, analysis, and algebra. For the first time in a text, this book uses categorical algebra to build such a foundation, starting from intuitive descriptions of mathematically andphysically common phenomena and advancing to a precise specification of the nature of Categories of Sets. An Appendix provides an explicit introduction to necessary concepts from logic, and an extensive Glossary provides a window to the mathematical landscape.
Top customer reviews
There was a problem filtering reviews right now. Please try again later.
The book by Lawvere and Rosebrugh made me realise that the exercises I find exciting can be phrased in terms of properties of maps acting on sets, and - yes, indeed - the boring ones can't.
But then the book goes further - it shows that in fact all axioms of sets can be written down in the language of maps. Doesn't it strike you that as a consequence axiomatic set theory is not boring? :)
Some of the discoveries I made during reading are just invaluable. For example, I learned that the *reason* why a set cannot be of the same size as its powerset is that the two-element set have a self map with no fixed point, which is, admittely, the essence of Cantor's diagonal argument.
The Authors say in the Foreword that the book is for students who are beginning the study of algebra, geometry, analysis, combinatorics, ... Indeed, being a virtuoso of a particular implementation of set theory such as ZFC does not help much with these subjects. Instead one needs a good knowledge of how sets behave when measured, divided, added, towered, counted - name your favourite operation - and this is precisely the story told in the book.
The first few chapters of the book begin to detail a proposed axiomatization of the category of sets, which is finally concluded with the introduction of a natural number object in chapter 9 after being sidetracked for a few chapters by some interesting properties of exponentiation and power sets. This is definitely one of the most interesting mathematics texts I have come across, and I feel like I got a lot out of it.
Despite how deceptively simple the first few exercises were, the difficulty level rocketed up fast and I found the book to be extremely challenging overall. The material itself was hard enough, but the sophistication of the authors' writing only compounded the difficulty. Oftentimes the prose parts of the book felt like something you would see as a "reading comprehension" passage on the GRE, nothing indecipherable, but it certainly took time to process even small bits of content. I quit the book a mere ten pages from the end because I had become completely overwhelmed and was understanding the final material only at a very superficial level.
Someone with a better mind than I have might get a lot out of the things I struggled most with. However, the book does have some errors scattered throughout that cause mild confusion. In addition, there were several points in the book where terminology was invoked that I couldn't recall having read before and couldn't find in the index of terms. Often I could guess at what the intended meaning was by the context in which they were invoked, but sometimes I simply had to move on without understanding.
A word should be made on the appendices. Appendix A.1. may be the most interesting perspective on mathematical logic I have come across. A.2. requires some knowledge of algebra and to be honest I'm not sure why this section was even included in the book - it seems to have no bearing on the rest of the material. Only about sixty or seventy percent of the glossary is really accessible to what I would consider the book's target audience - for example if you've never really encountered adjoint functors before then trying to understand the sections on geometric morphisms or Grothendieck Topoi may be hopeless.
While there are parts of the book that invoke knowledge of topology or analysis, these are all brief and easily skipped. Some algebra may help as well, but the only prerequisites that are really important are determination and (as always) mathematical maturity.
To summarize: Very difficult, some flaws, but overall a worthwhile read.