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Barton, Craig – American Educator, 2018
In this article, the author asserts that asking and responding to diagnostic questions is the single most important part of teaching secondary school mathematics. He notes the importance of formative assessment and recommends a formative assessment strategy that requires students to be public about their answers to questions, displaying their…
Descriptors: Mathematics Instruction, Formative Evaluation, Student Evaluation, Evaluation Methods
Schoenfeld, Alan H. – Journal for Research in Mathematics Education, 2018
In this Research Commentary, the author explores what is meant by "teaching for understanding" and delves into these questions: How does teaching for understanding interact with the backgrounds of the students who experience it or the attributes of the contexts in which they learn? Which empirical findings are context dependent, and…
Descriptors: Mathematics Instruction, Mathematical Concepts, Concept Formation, Comprehension
Grady, Maureen – Mathematics Teaching in the Middle School, 2016
In 2001, Kilpatrick, Swafford, and Findell proposed a new way to look at what it means for students to be mathematically proficient. They described mathematical proficiency as comprising five intertwined strands: procedural fluency, conceptual understanding, adaptive reasoning, strategic competence, and productive disposition. The vision is that…
Descriptors: Mathematics Instruction, Mathematics Skills, Concept Formation, Mathematical Concepts
Sfard, Anna – Cognition and Instruction, 2010
There are infinitely many ways of talking about infinity. The assortment of discourses on learning infinity is infinite as well. When the author says "way of talking" or "discourse," she is concerned with much more than the question of how words are chosen and combined. Ways of talking are not just innocent "auxiliaries" to thinking--they shape…
Descriptors: Mathematical Concepts, Academic Discourse, Theories, Concept Formation
Williams, Julian – Educational Studies in Mathematics, 2009
I begin by appreciating the contributions in the volume that indirectly and directly address the questions: Why do gestures and embodiment matter to mathematics education, what has understanding of these achieved and what might they achieve? I argue, however, that understanding gestures can in general only play an important role in "grasping" the…
Descriptors: Mathematics Education, Nonverbal Communication, Classroom Communication, Mathematical Concepts
Dockweiler, Clarence J. – 1994
This paper describes a model of student attainment of mathematical concepts and its development. In this model three types of activities (developmental, connecting, and abstract) are considered as an overlay on the three ways of representing mathematical concepts (physical/visual, oral, and symbolic). Each activity type involves some means of…
Descriptors: Concept Formation, Elementary Secondary Education, Mathematical Concepts, Mathematics Education

Anghileri, Julia – For the Learning of Mathematics, 1995
Limitations in children's understanding of the symbols of arithmetic may inhibit choice of appropriate solution procedures. The teacher's role involves negotiation of new meanings for words and symbols to match extensions to solution procedures. (MKR)
Descriptors: Algorithms, Arithmetic, Concept Formation, Division

Koyama, Masataka – Hiroshima Journal of Mathematics Education, 1993
Summarizes research related to models of understanding mathematics, describes the fundamental conception of understanding mathematics, discusses basic components substantially common to the process models of understanding mathematics, and presents a theoretical framework of a process model consisting of two axes. (26 references) (MKR)
Descriptors: Concept Formation, Elementary Secondary Education, Mathematical Concepts, Mathematics Education
Kamii, Constance – Phi Delta Kappan, 1982
Too many approaches to mathematics instruction at the elementary level focus only on the production of correct answers rather than on the development of mathematical thinking skills. Author urges encouragement of children's own thought processes. (Author/PGD)
Descriptors: Concept Formation, Elementary Education, Elementary School Mathematics, Mathematical Concepts
Sawada, Daiyo – Elements: Translating Theory into Practice, 1980
Briefly discusses the importance of the idea of sets in the development of children's number concepts. (RH)
Descriptors: Concept Formation, Elementary Education, Elementary School Students, Fundamental Concepts

Fischer, Walther L. – Hiroshima Journal of Mathematics Education, 1993
Applies methods of formal concept analysis to an analysis of objectives in the domain of educational mathematics, including sequences and hierarchies of topics within the syllabi, establishing plans for single lessons, analysis of students' mistakes in calculating, and the development of students' mathematical concepts. (33 references) (Author/MKR)
Descriptors: Concept Formation, Elementary Secondary Education, Mathematical Concepts, Mathematics Curriculum

Nickerson, Raymond S. – American Journal of Education, 1985
Several experimental studies are reviewed, the results of which suggest that students often fail to acquire an understanding of some of the concepts, relationships, principles, and processes that are fundamental to traditional high school course material. Questions of what it means to understand something and of how to assess understanding are…
Descriptors: Cognitive Processes, Comprehension, Concept Formation, Definitions

Peck, Donald M.; Jencks, Stanley M. – Elementary School Journal, 1979
Argues the importance of teaching fractions and discusses examples of fundamental problems in students' conceptualization of common fractions and decimal fractions. (SS)
Descriptors: Concept Formation, Decimal Fractions, Fractions, Fundamental Concepts

Trzcieniecka-Schneider, Irena – Educational Studies in Mathematics, 1993
The author shows some causes of failure in the creation of mathematical concepts. One is the stiffening of concept cores, which prevents identification of atypical exemplars and solution of atypical problems and causes a bifurcation between the natural system of everyday concepts and the formal system of school concepts. (Author/MDH)
Descriptors: Cognitive Development, Concept Formation, Elementary Secondary Education, Mathematical Concepts

Towers, Jo; Anderson, Ann – Early Child Development and Care, 1998
Examines one preschooler's conversation with author to determine what concepts educators consider "difficult" for this age group. Finds that concepts such as "infinity" and "negative numbers," typically avoided by primary educators, were brought into view in the task-based conversations. Argues that individual…
Descriptors: Case Studies, Cognitive Development, Concept Formation, Difficulty Level