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McCartney, M. – International Journal of Mathematical Education in Science & Technology, 2005
A simple problem relating to birds chasing each other gives rise to a homogeneous differential equation. The solution draws on student skills in differential equations and basic co-ordinate geometry.
Descriptors: Geometry, Geometric Concepts, Equations (Mathematics), Mathematics Education
Berger, Margot – Educational Studies in Mathematics, 2004
The question of how a mathematics student at university-level makes sense of a new mathematical sign, presented to her or him in the form of a definition, is a fundamental problem in mathematics education. Using an analogy with Vygotsky's theory (1986, 1994) of how a child learns a new word, I argue that a learner uses a new mathematical sign both…
Descriptors: Mathematical Concepts, Calculus, Mathematics Education, College Students
Dubinsky, Ed; Weller, Kirk; Mcdonald, Michael A.; Brown, Anne – Educational Studies in Mathematics, 2005
This paper applies APOS Theory to suggest a new explanation of how people might think about the concept of infinity. We propose cognitive explanations, and in some cases resolutions, of various dichotomies, paradoxes, and mathematical problems involving the concept of infinity. These explanations are expressed in terms of the mental mechanisms of…
Descriptors: Mathematical Concepts, Mathematics, Logical Thinking, Mathematics Education
Dubinsky, Ed; Weller, Kirk; McDonald, Michael A.; Brown, Anne – Educational Studies in Mathematics, 2005
This is Part 2 of a two-part study of how APOS theory may be used to provide cognitive explanations of how students and mathematicians might think about the concept of infinity. We discuss infinite processes, describe how the mental mechanisms of interiorization and encapsulation can be used to conceive of an infinite process as a completed…
Descriptors: Logical Thinking, Philosophy, Mathematical Concepts, History
Burn, Bob – Educational Studies in Mathematics, 2005
This paper proposes a genetic development of the concept of limit of a sequence leading to a definition, through a succession of proofs rather than through a succession of sequences or a succession of epsilons. The major ideas on which it is based are historical and depend on Euclid, Archimedes, Fermat, Wallis and Newton. Proofs of equality by…
Descriptors: Genetics, Mathematical Concepts, Mathematics, History
McCallum, Elizabeth; Skinner, Christopher H.; Turner, Haley; Saecker, Lee – School Psychology Review, 2006
A multiple-probes-across-tasks design was used to evaluate the effects of a taped-problems intervention on the multiplication fact fluency of 18 students from an intact general education third-grade classroom. During the classwide taped-problems intervention, students were given lists of problems and instructed to attempt to complete each problem…
Descriptors: Intervention, Intervals, Multiplication, General Education
Zandieh, Michelle J.; Knapp, Jessica – Journal of Mathematical Behavior, 2006
In this paper we examine the roles that metonymy may play in student reasoning. To organize this discussion we use the lens of a structured derivative framework. The derivative framework consists of three layers of process-object pairs, one each for ratio, limit, and function. Each of the layers can then be illustrated in any appropriate context,…
Descriptors: Mathematics Instruction, Mathematical Logic, Thinking Skills, Problem Solving
Vardeman, Stephen B.; Wendelberger, Joanne R. – Journal of Statistics Education, 2005
There is a little-known but very simple generalization of the standard result that for uncorrelated random variables with common mean [mu] and variance [sigma][superscript 2], the expected value of the sample variance is [sigma][superscript 2]. The generalization justifies the use of the usual standard error of the sample mean in possibly…
Descriptors: Statistics, Statistical Analysis, Mathematical Concepts, Mathematics Instruction
Burch, Kimberly Jordan; Choi, Youngna – PRIMUS, 2006
It has been widely acknowledged that there is some discrepancy in the teaching of vector calculus in mathematics courses and other applied fields. The curl of a vector field is one topic many students can calculate without understanding its significance. In this paper, we explain the origin of the curl after presenting the standard mathematical…
Descriptors: Mathematical Formulas, Calculus, Mathematics Instruction, Mathematical Concepts
Leyendekkers, J. V.; Shannon, A. G. – International Journal of Mathematical Education in Science and Technology, 2002
Using the modular ring Zeta[subscript 4], simple algebra is used to study diophantine equations of the form (x[cubed]-a=y[squared]). Fermat challenged his contemporaries to solve this equation when a = 2. They were unable to do so, although Fermat had devised a rather complicated proof himself. (Contains 2 tables.)
Descriptors: Equations (Mathematics), Number Concepts, Algebra, Mathematics Education
Yueh, Wen-Chyuan; Cheng, Sui Sun – International Journal of Mathematical Education in Science and Technology, 2002
The discrete dynamical system of absolute differences defined by the map [psi]( x[subscript 1] , x[subscript 2] , x[subscript 3] , x[subscript 4] ) = ([vertical line] x[subscript 2] - x[subscript 1] [vertical line], [vertical line] x[subscript 3] - x[subscript 2] [vertical line], [vertical line] x[subscript 4] - x[subscript 3] [vertical line],…
Descriptors: Criterion Referenced Tests, Educational Games, Mathematical Concepts, Mathematical Logic
Dunning-Davies, J. – International Journal of Mathematical Education in Science and Technology, 2003
The importance of the mathematical notion of concavity in relation to thermodynamics is stressed and it is shown how it can be useful in increasing the enthusiasm of physics' students for their mathematics' courses.
Descriptors: Thermodynamics, Mathematics Instruction, Mathematical Concepts, Physics
Siebert, Daniel; Gaskin, Nicole – Teaching Children Mathematics, 2006
For students to develop meaningful conceptions of fractions and fraction operations, they need to think of fractions in terms other than as just whole-number combinations. In this article, we suggest two powerful images for thinking about fractions that move beyond whole-number reasoning. (Contains 5 figures.)
Descriptors: Mathematics Instruction, Mathematical Concepts, Concept Formation, Misconceptions
Ayoub, Ayoub B. – Mathematics and Computer Education, 2005
A triple (x,y,z) of natural numbers is called a Primitive Pythagorean Triple (PPT) if it satisfies two conditions: (1) x[squared] + y[squared] = z[squared]; and (2) x, y, and z have no common factor other than one. All the PPT's are given by the parametric equations: (1) x = m[squared] - n[squared]; (2) y = 2mn; and (3) z = m[squared] +…
Descriptors: Geometric Concepts, Equations (Mathematics), Mathematical Concepts, Problem Solving
Gordon, Sheldon P. – Mathematics and Computer Education, 2005
The chain rule is one of the hardest ideas to convey to students in Calculus I. It is difficult to motivate, so that most students do not really see where it comes from; it is difficult to express in symbols even after it is developed; and it is awkward to put it into words, so that many students can not remember it and so can not apply it…
Descriptors: Calculus, Graphing Calculators, Mathematical Concepts, Student Motivation

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