Cognitive Science · 1978 · 173 citations · 12 references
EducationMathematicsMathematics EducationElementary Mathematics EducationMathematical CommunicationMathematics InstructionMathematical ExplanationMathematical KnowledgeMathematical ReasoningMathematical VocabularyMathematics PedagogyExplanation Of Mathematical ConceptsMathematical Conceptual UnderstandingMathematical Knowledge For TeachingMathematical Sense MakingMathematics Learning TheoriesMathematics ReasoningRepresentations In Mathematics LearningStudent Thinking In Mathematics
The paper develops a conceptual framework for understanding mathematical knowledge by examining its ingredients and processes. The authors analyze and organize elements of mathematical knowledge into coherent categories, then use this representation to model how understanding is acquired. Classroom experiments demonstrate the applicability of the framework.
In this paper we look at some of the ingredients and processes involved in the understanding of mathematics. We analyze elements of mathematical knowledge, organize them in a coherent way and take note of certain classes of items that share noteworthy roles in understanding. We thus build a conceptual framework in which to talk about mathematical knowledge. We then use this representation to describe the acquisition of understanding. We also report on classroom experience with these ideas.
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Linear Algebra and Its Applications
E. I., Gilbert Strang · Mathematics of Computation · 1976 · 1.9K citations
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Numerical Analysis: A Second Course.
Stewart Venit, James M. Ortega · American Mathematical Monthly · 1974 · 267 citations