eBook ISBN: | 978-1-61444-100-7 |
Product Code: | CLRM/28.E |
List Price: | $45.00 |
MAA Member Price: | $33.75 |
AMS Member Price: | $33.75 |
eBook ISBN: | 978-1-61444-100-7 |
Product Code: | CLRM/28.E |
List Price: | $45.00 |
MAA Member Price: | $33.75 |
AMS Member Price: | $33.75 |
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Book DetailsClassroom Resource MaterialsVolume: 28; 2006; 173 pp
Is it possible to make mathematical drawings that help to understand mathematical ideas, proofs, and arguments? The authors of this book are convinced that the answer is yes and the objective of this book is to show how some visualization techniques may be employed to produce pictures that have both mathematical and pedagogical interest.
Mathematical drawings related to proofs have been produced since antiquity in China, Arabia, Greece, and India, but only in the last thirty years has there been a growing interest in so-called “proofs without words”. Hundreds of these have been published in Mathematics Magazine and The College Mathematics Journal, as well as in other journals, books, and on the internet. Often a person encountering a “proof without words” may have the feeling that the pictures involved are the result of a serendipitous discovery or the consequence of an exceptional ingenuity on the part of the picture's creator.
In this book, the authors show that behind most of the pictures, “proving” mathematical relations are some well-understood methods. As the reader shall see, a given mathematical idea or relation may have many different images that justify it, so that depending on the teaching level or the objectives for producing the pictures, one can choose the best alternative.
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Table of Contents
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Chapters
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Part I. Visualizing Mathematics by Creating Pictures
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1. Representing Numbers by Graphical Elements
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2. Representing Numbers by Lengths of Segments
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3. Representing Numbers by Areas of Plane Figures
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4. Representing Numbers by Volumes of Objects
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5. Identifying Key Elements
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6. Employing Isometry
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7. Employing Similarity
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8. Area-preserving Transformations
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9. Escaping from the Plane
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10. Overlaying Tiles
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11. Playing with Several Copies
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12. Sequential Frames
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13. Geometric Dissections
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14. Moving Frames
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15. Iterative Procedures
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16. Introducing Colors
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17. Visualization by Inclusion
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18. Ingenuity in 3D
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19. Using 3D Models
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20. Combining Techniques
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Part II. Visualization in the Classroom
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Mathematical drawings: a short historical perspective
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On visual thinking
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Visualization in the classroom
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On the role of hands-on materials
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Everyday life objects as resources
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Making models of polyhedra
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Using soap bubbles
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Lighting results
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Mirror images
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Towards creativity
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Part III. Hints and Solutions to the Challenges
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Chapter 1
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Chapter 2
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Chapter 3
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Chapter 4
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Chapter 5
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Chapter 6
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Chapter 7
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Chapter 8
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Chapter 9
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Chapter 10
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Chapter 11
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Chapter 12
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Chapter 13
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Chapter 14
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Chapter 15
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Chapter 16
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Chapter 17
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Chapter 18
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Chapter 19
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Chapter 20
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Reviews
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Indeed any teacher of mathematics at the high school level or above should have a copy. Let me take that a bit further; anyone with an interest in mathematics should have a copy! ... The visuals (and the wonderfully clear text which accompanies them) are wonderfully conceived and masterfully executed. This is a book you will find yourself picking up again and again.
Richard Wilders, MAA Reviews
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RequestsReview Copy – for publishers of book reviewsAccessibility – to request an alternate format of an AMS title
- Book Details
- Table of Contents
- Reviews
- Requests
Is it possible to make mathematical drawings that help to understand mathematical ideas, proofs, and arguments? The authors of this book are convinced that the answer is yes and the objective of this book is to show how some visualization techniques may be employed to produce pictures that have both mathematical and pedagogical interest.
Mathematical drawings related to proofs have been produced since antiquity in China, Arabia, Greece, and India, but only in the last thirty years has there been a growing interest in so-called “proofs without words”. Hundreds of these have been published in Mathematics Magazine and The College Mathematics Journal, as well as in other journals, books, and on the internet. Often a person encountering a “proof without words” may have the feeling that the pictures involved are the result of a serendipitous discovery or the consequence of an exceptional ingenuity on the part of the picture's creator.
In this book, the authors show that behind most of the pictures, “proving” mathematical relations are some well-understood methods. As the reader shall see, a given mathematical idea or relation may have many different images that justify it, so that depending on the teaching level or the objectives for producing the pictures, one can choose the best alternative.
-
Chapters
-
Part I. Visualizing Mathematics by Creating Pictures
-
1. Representing Numbers by Graphical Elements
-
2. Representing Numbers by Lengths of Segments
-
3. Representing Numbers by Areas of Plane Figures
-
4. Representing Numbers by Volumes of Objects
-
5. Identifying Key Elements
-
6. Employing Isometry
-
7. Employing Similarity
-
8. Area-preserving Transformations
-
9. Escaping from the Plane
-
10. Overlaying Tiles
-
11. Playing with Several Copies
-
12. Sequential Frames
-
13. Geometric Dissections
-
14. Moving Frames
-
15. Iterative Procedures
-
16. Introducing Colors
-
17. Visualization by Inclusion
-
18. Ingenuity in 3D
-
19. Using 3D Models
-
20. Combining Techniques
-
Part II. Visualization in the Classroom
-
Mathematical drawings: a short historical perspective
-
On visual thinking
-
Visualization in the classroom
-
On the role of hands-on materials
-
Everyday life objects as resources
-
Making models of polyhedra
-
Using soap bubbles
-
Lighting results
-
Mirror images
-
Towards creativity
-
Part III. Hints and Solutions to the Challenges
-
Chapter 1
-
Chapter 2
-
Chapter 3
-
Chapter 4
-
Chapter 5
-
Chapter 6
-
Chapter 7
-
Chapter 8
-
Chapter 9
-
Chapter 10
-
Chapter 11
-
Chapter 12
-
Chapter 13
-
Chapter 14
-
Chapter 15
-
Chapter 16
-
Chapter 17
-
Chapter 18
-
Chapter 19
-
Chapter 20
-
Indeed any teacher of mathematics at the high school level or above should have a copy. Let me take that a bit further; anyone with an interest in mathematics should have a copy! ... The visuals (and the wonderfully clear text which accompanies them) are wonderfully conceived and masterfully executed. This is a book you will find yourself picking up again and again.
Richard Wilders, MAA Reviews