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E-grāmata: The Origins of Mathematical Knowledge in Childhood

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This book examines the origins and development of children’s mathematical knowledge. It contrasts the widely held view that counting is the starting point for mathematical development with an alternative comparison-of-quantities position. According to the comparison-of-quantities position, the concept of number builds upon more basic concepts of equality, inequality, and less-than and greater-than relations, which derive from comparisons between unenumerated quantities such as lengths. The concept of number combines these basic comparative concepts with the concept of a unit of measure, which allows one quantity to be described as a multiple of another.
 
Sophian examines these alternative accounts of children’s developing mathematical knowledge in the light of research:
*on children's counting;
*on their reasoning about continuous quantities such as length and area;
*on the development of the concept of unit;
*on additive and multiplicative reasoning; and
*on knowledge about fractions.
 
In the closing chapters, Sophian draws out the developmental and the educational implications of the research and theory presented. Developmentally, the comparison-of-quantities position undermines the idea that numerical knowledge develops through domain-specific learning mechanisms in that it links numerical development both to physical knowledge about objects, which is the starting point for the concept of unit, and to the acquisition of linguistic number terms. Instructionally, the comparison-of-quantities perspective diverges from the counting-first perspective in that it underscores the continuity between whole-number arithmetic and fraction learning that stems from the importance of the concept of unit for both. Building on this idea, Sophian advances three instructional recommendations: First, instruction about numbers should always be grounded in thinking about quantities and how numbers represent the relations between them; second, instruction in the early years should always be guided by a long-term perspective in which current objectives are shaped by an understanding of their role in the overall course of mathematics learning; and third, instruction should be directly toward promoting the acquisition of the most general mathematical knowledge possible.
 
The Origins of Mathematical Knowledge in Childhood is intended for researchers, professionals, and graduate students in developmental psychology, educational psychology, and mathematics education, and as a supplementary text for advanced undergraduate courses in cognitive development, educational psychology, and mathematics education.

Recenzijas

"Sophian presents a tautly reasoned and compelling challenge to schooling-as-usual, that is, to instruction that takes counting as the basis for teaching children arithmetic... She argues for highlighting the unit as the foundation of mathematics instruction [ and] goes on to trace the implications of unit not only for instruction on conventional topics, such as rational number, multiplication, and division, but also for a wider mathematics education that knits number, measure, data, and geometry."Richard Lehrer Vanderbilt University

"Sophian does a masterful job of organizing and presenting one of the major success stories of developmental and educational research understanding the developmental roots of mathematical competence.... This book will interest and benefit both those interested in understanding children's cognitive development and those interested in developing ways of promoting mathematical competence. Sophian's research has contributed greatly to our understanding of both aspects of mathematical development; her book provides a timely and accessible introduction to the state of the art in research on children's mathematical development." Kevin Miller University of Michigan "Sophian presents a tautly reasoned and compelling challenge to schooling-as-usual, that is, to instruction that takes counting as the basis for teaching children arithmetic... She argues for highlighting the unit as the foundation of mathematics instruction [ and] goes on to trace the implications of unit not only for instruction on conventional topics, such as rational number, multiplication, and division, but also for a wider mathematics education that knits number, measure, data, and geometry." Richard Lehrer Vanderbilt University

"Sophian does a masterful job of organizing and presenting one of the major success stories of developmental and educational research understanding the developmental roots of mathematical competence.... This book will interest and benefit both those interested in understanding children's cognitive development and those interested in developing ways of promoting mathematical competence. Sophian's research has contributed greatly to our understanding of both aspects of mathematical development; her book provides a timely and accessible introduction to the state of the art in research on children's mathematical development." Kevin Miller University of Michigan

Preface xv
Cognitive Development and Mathematics Learning
1(14)
Two Perspectives on the Development of Mathematical
3(5)
Knowledge in Childhood The Position That Counting is Foundational
4(2)
The Comparison-of-Quantities Position
6(2)
Nature, Nurture, and Domains of Development
8(2)
Sense Making and the Distinction Between a Mathematics of Quantities and a Mathematics of Symbols
10(2)
Coming Attractions
12(3)
Children's Counting
15(27)
Numerical Knowledge in Infancy
16(16)
Are Infant Discriminations Based on Continuous Properties Rather Than Number?
17(3)
Object Files and Numerical Collections
20(3)
Forms of Numerical Representation
23(4)
Large-Number Discrimination in Infancy
27(2)
Interpretive Issues Surrounding Infancy Research
29(3)
Counting and Cardinality
32(7)
Understanding That Counting Yields a Cardinal Value
33(2)
Counting and Comparisons Between Sets
35(2)
Which Comes First: Principles or Performance?
37(2)
Where Do We Go From Here?
39(3)
Quantitative Comparison Without Numbers
42(22)
Comparing Numerical Quantities Without Numbers
43(9)
Differentiating Number From Other Quantitative Dimensions
44(6)
Using Correspondence Relations to Make Numerical Comparisons
50(2)
Comparing Lengths
52(4)
Distinguishing Length From Other Quantitative Properties
53(1)
Measuring Length
54(2)
Comparing Areas
56(3)
Comparing Spatial Proportions
59(2)
Quantity Comparison in Developmental Perspective
61(3)
Understanding Units
64(20)
Counting With Units Other Than Discrete Objects
66(4)
Developmental Implications
69(1)
Using Units in Measuring Continuous Quantities
70(3)
Relationships Between Unit Size, Number of Units, and Aggregate Quantity
73(2)
Understanding Hierarchies of Units
75(7)
Composing and Decomposing Large Numbers
78(2)
Place Value
80(2)
The Importance of Incorporating the Concept of Unit in Early Mathematics Instruction
82(2)
Relations Among Quantities in Arithmetic: Additive and Multiplicative Reasoning
84(22)
Additive Reasoning
86(11)
Problem Solving
86(3)
Additive Part-Whole Relations
89(6)
Principles of Commutativity, Associativity, and Inversion
95(2)
Multiplicative Reasoning
97(6)
Ratios and Units
97(1)
Reasoning About Many-to-One Relations
98(1)
Multiplicative Situations and Conceptualizations of Multiplicative Relations
99(2)
Principles of Commutativity, Associativity, and Inversion
101(2)
The Conceptual Relation Between Additive and Multiplicative Reasoning
103(3)
Understanding Fractions
106(25)
From Counting Numbers to Fractions
108(6)
Early Forms of Fraction Knowledge
111(1)
When Less is More
112(2)
Fraction Subconstructs
114(1)
The Information-Processing Demands of Fractions
115(3)
Parts and Wholes in Understanding Fractions
118(2)
Fractional Measurement Units
120(3)
Successful Fraction Instruction
123(5)
The Rational Number Project
124(1)
A Curriculum Building on Percentages
125(1)
What the Programs Share
126(2)
Mathematical Development Through the Elementary Years
128(3)
Implications for Developmental Psychology
131(20)
Origins of the Concept of Unit and its Ramifications for Domain Specificity
132(9)
Co-optation and the Distinction Between Biologically Primary and Biologically Secondary Cognitive Abilities
135(2)
Domain Specificity
137(4)
Domain-General Processes in the Development of Mathematical Knowledge
141(6)
Language as a Sociocultural Tool in Mathematical Development
142(2)
Capacity Limitations and Developmental Malleability
144(3)
The Developmental Origins of Mathematical Knowledge: A Reprise
147(4)
Starting Points for Mathematical Development
147(1)
Conceptual Transitions in Mathematical Development
148(2)
What Have We Learned?
150(1)
Implications for Mathematics Education
151(20)
Conceptual Goals for Mathematics Instruction
153(3)
Coherence in Numerical Concepts Across Grade Levels
154(1)
Abstraction as an Instructional Goal Across Grade Levels
155(1)
Integrating Concepts and Computational Skills
156(6)
Instruction With Manipulatives
157(1)
Alternative Solution Methods
158(2)
Justifications
160(1)
The Primacy of Concepts in Instruction
161(1)
Beyond Arithmetic
162(3)
Measurement
162(1)
Algebra
163(1)
Geometry
164(1)
Instructional Recommendations
165(3)
The Need for a Long-Term Perspective
165(1)
A Focus on Units
166(1)
Teaching for Generality
166(1)
Implementing the Recommendations: The El'konin-Davydov Curriculum and Beyond
167(1)
A Fresh Look at Mathematics Instruction
168(3)
References 171(14)
Author Index 185(6)
Subject Index 191


Sophian, Catherine