Book contents
- Frontmatter
- Preface
- Introduction
- Contents
- Learning from the Medieval Master Masons: A Geometric Journey through the Labyrinth
- Dem Bones Ain't Dead: Napier's Bones in the Classroom
- The Towers of Hanoi
- Rectangular Protractors and the Mathematics Classroom
- Was Pythagoras Chinese?
- Geometric String Models of Descriptive Geometry
- The French Curve
- Area Without Integration: Make Your Own Planimeter
- Historical Mechanisms for Drawing Curves
- Learning from the Roman Land Surveyors: A Mathematical Field Exercise
- Equating the Sun: Geometry, Models, and Practical Computing in Greek Astronomy
- Sundials: An Introduction to Their History, Design, and Construction
- Why is a Square Square and a Cube Cubical?
- The Cycloid Pendulum Clock of Christiaan Huygens
- Build a Brachistochrone and Captivate Your Class
- Exhibiting Mathematical Objects: Making Sense of your Department's Material Culture
- About the Authors
Introduction
- Frontmatter
- Preface
- Introduction
- Contents
- Learning from the Medieval Master Masons: A Geometric Journey through the Labyrinth
- Dem Bones Ain't Dead: Napier's Bones in the Classroom
- The Towers of Hanoi
- Rectangular Protractors and the Mathematics Classroom
- Was Pythagoras Chinese?
- Geometric String Models of Descriptive Geometry
- The French Curve
- Area Without Integration: Make Your Own Planimeter
- Historical Mechanisms for Drawing Curves
- Learning from the Roman Land Surveyors: A Mathematical Field Exercise
- Equating the Sun: Geometry, Models, and Practical Computing in Greek Astronomy
- Sundials: An Introduction to Their History, Design, and Construction
- Why is a Square Square and a Cube Cubical?
- The Cycloid Pendulum Clock of Christiaan Huygens
- Build a Brachistochrone and Captivate Your Class
- Exhibiting Mathematical Objects: Making Sense of your Department's Material Culture
- About the Authors
Summary
With the advent of computers and classroom projectors, educators have a world of resources at their fingertips. However, when we let our fingers do the walking in the virtual world, we and our students miss the physical and creative aspects of learning. Numerous studies have shown that doing (as opposed to simply listening or reading) is the best way to learn.
Educators have always employed physical models to aid in instruction. During much of the nineteenth century and the twentieth up to the advent of classroom computers, makers of mathematical devices for the classroom abounded. See Multi-Sensory Aids in Teaching Mathematics (1966) of The National Council of Teachers of Mathematics, and reprinted by the American Mathematical Society for a look at the types and diversity of mathematical models and apparatus used in classrooms during the first half of the twentieth century.
Historically, scientists and mathematicians have constructed models to help them explore the physical world, be it in engineering, chemistry, physics, astronomy, or the realm of pure mathematics. In addition, the daily practice and use of mathematics was tied to the use of devices such as counting boards and the abacus, and in science with the use of astrolabes, quadrant finders, and the like. The physical items used both in the practice of mathematics and its teaching, are an important part of our mathematical heritage. I believe exploring these items adds a level of understanding that is not available with computer simulations.
- Type
- Chapter
- Information
- Hands on HistoryA Resource for Teaching Mathematics, pp. ix - xPublisher: Mathematical Association of AmericaPrint publication year: 2007