: Peter J. Taylor, Edward J. Barbeau
: Edward J. Barbeau, Peter J. Taylor
: Challenging Mathematics In and Beyond the Classroom The 16th ICMI Study
: Springer-Verlag
: 9780387096032
: 1
: CHF 132.60
:
: Schulpädagogik, Didaktik, Methodik
: English
: 337
: Wasserzeichen/DRM
: PC/MAC/eReader/Tablet
: PDF
In the mid 1980s, the International Commission on Mathematical Instruction (ICMI) inaugurated a series of studies in mathematics education by comm- sioning one on the influence of technology and informatics on mathematics and its teaching. These studies are designed to thoroughly explore topics of c- temporary interest, by gathering together a group of experts who prepare a Study Volume that provides a considered assessment of the current state and a guide to further developments. Studies have embraced a range of issues, some central, such as the teaching of algebra, some closely related, such as the impact of history and psychology, and some looking at mathematics education from a particular perspective, such as cultural differences between East and West. These studies have been commissioned at the rate of about one per year. Once the ICMI Executive decides on the topic, one or two chairs are selected and then, in consultation with them, an International Program Committee (IPC) of about 12 experts is formed. The IPC then meets and prepares a Discussion Document that sets forth the issues and invites interested parties to submit papers. These papers are the basis for invitations to a Study Conference, at which the various dimensions of the topic are explored and a book, the Study Volume, is sketched out. The book is then put together in collaboration, mainly using electronic communication. The entire process typically takes about six years.
Preface6
References7
School years7
Contents9
The Authors11
Introduction14
0.1 Challenging: a human activity14
0.2 Challenges and education16
0.3 Debilitating and enabling challenges18
0.4 What is a challenge?18
References22
Challenging Problems: Mathematical Contents and Sources23
1.1 Introduction23
1.2 Challenges within the regular classroom regime24
1.2.1 Challenge from observation26
1.2.2 Challenge from a textbook problem27
1.2.3 Increasing fluency with fractions28
1.2.4 Engaging with algebra29
1.2.5 Pedagogies to help development31
1.2.6 Combinatorics31
1.2.7 Geometry32
1.2.8 Other settings for school challenges34
1.3 Challenges in popular culture38
1.3.1 Another schoolyard problem40
1.3.2 A Russian problem40
1.3.3 The Microsoft problem41
1.3.4 A problem from children s literature42
1.3.5 A probabilistic element43
1.3.6 Concluding comments43
1.4 Challenges from inclusive and other teacher-supported contests43
1.4.1 Diophantine equations44
1.4.2 Pigeonhole principle45
1.4.3 Discrete optimization and graph theory 46
1.4.4 Cases 47
1.4.5 Proof by contradiction47
1.4.6 Enumeration48
1.4.7 Invariance 49
1.4.8 Inverse thinking 49
1.4.9 Coloring problems50
1.4.10 Concluding comments51
1.5 Challenges from Olympiad contests: Students independent of classroom teacher51
1.6 Content and context57
1.6.1 Three groups of requirements for assignments57
1.6.2 Challenges in classrooms: identifying patterns in their appearance59
1.6.3 The psychology of the art of writing problems as a research problem60
1.6.4 Using different areas of mathematics in different contexts60
1.6.5 The structure of problems and the form of their presentation as a means of responding to context and transforming it61
1.6.6 The issue of mathematics teacher education61
1.6.7 Conclusion62
References62
Challenges Beyond the Classroom-Sources and Organizational Issues64
2.1 Introduction64
2.1.2 Working as individuals and in teams66
2.1.2 Involvement of teachers66
2.2 Environments for challenging mathematics66
2.2.1 Mathematics competitions68
2.2.1.1 Inclusive competitions70
2.2.1.2 Different types of competition71
2.2.1.3 Some general comments74
2.2.2 Mathematics journals, books and other published materials (including Internet)75
2.2.3 Research-like activities, conferences, mathematics festivals77
2.2.3.1 Jugend Forscht (youth quests), Germany and Switzerland78
2.2.3.2 Research Science Institute (RSI), USA 78
2.2.3.3 High School Students Institute for Mathematics and Informatics, Bulgaria79
2.2.3.4 Mathematics festivals, Iran80
2.2.4 Mathematical exhibitions80
2.2.4.1 Historical background81
2.2.4.2 Examples of exhibitions83
2.2.5 Mathematics houses86
2.2.6 Mathematics lectures87
2.2.7 Mentoring mathematical minds88
2.2.8 Mathematics camps, summer schools88
2.2.8.1 International Mathematics Tournament of Towns summer camp89
2.2.8.2 International mathematics kangaroo summer camps89
2.2.8.3 Summer School Festival UM+89
2.2.8.4 The Canadian seminar89
2.2.8.5 Isfahan summer camps90
2.2.8.6 The Institute for Advanced Study in USA90
2.2.9 Correspondence programs90
2.2.10 Web sites93
2.2.11 Public lectures, columns in newspapers, magazines, movies, books, general purpose journals93
2.2.12 Math days, open houses, promotional events for school students at universities94
2.2.13 Mathematics fairs 94
2.2.13.1 Canadian Andy Liu model95
2.2.13.2 A mathematical house for younger children (Years 1 to 5)95
2.2.13.3 Mathematics day at universities95
2.2.13.4 Long night of mathematics at the high school, Karlsruhe96
2.2.13.5 India96
2.2.14 Mathematical quizzes96
2.2.14.1 The mathematical organization Archimedes 97
2.3 Concluding remarks: challenging infrastructure-a powerful motivational factor97
2.4 Appendix98
2.4.1 Iran: what is a Mathematics House?99
2.4.1.1 History99
2.4.1.2 Audiences100
2.4.1.3 Activities100
2.4.1.4 Activities for high school students101
2.4.1.5 Activities for university students101
2.4.1.6 Activities for teachers101
2.4.1.7 Other activities102
2.4.1.8 Library102
2.4.1.9 Laboratories102
2.4.1.10 Achievements102
2.4.2 Serbia: the mathematics organization Archimedes 103
2.4.2.1 Activities103
2.4.2.2 Lessons learned104