TY - JOUR
T1 - How should educational neuroscience conceptualise the relation between cognition and brain function? Mathematical reasoning as a network process
AU - Varma, Sashank
AU - Schwartz, Daniel L.
PY - 2008/6
Y1 - 2008/6
N2 - Background: There is increasing interest in applying neuroscience findings to topics in education. Purpose: This application requires a proper conceptualisation of the relation between cognition and brain function. This paper considers two such conceptualisations. The area focus understands each cognitive competency as the product of one (and only one) brain area. The network focus explains each cognitive competency as the product of collaborative processing among multiple brain areas. Sources of evidence: We first review neuroscience studies of mathematical reasoning-specifically arithmetic problem-solving and magnitude comparison-that exemplify the area focus and network focus. We then review neuroscience findings that illustrate the potential of the network focus for informing three topics in mathematics education: the development of mathematical reasoning, the effects of practice and instruction, and the derailment of mathematical reasoning in dyscalculia. Main argument: Although the area focus has historically dominated discussions in educational neuroscience, we argue that the network focus offers a complementary perspective on brain function that should not be ignored. Conclusions: We conclude by describing the current limitations of network-focus theorising and emerging neuroscience methods that promise to make such theorising more tractable in the future.
AB - Background: There is increasing interest in applying neuroscience findings to topics in education. Purpose: This application requires a proper conceptualisation of the relation between cognition and brain function. This paper considers two such conceptualisations. The area focus understands each cognitive competency as the product of one (and only one) brain area. The network focus explains each cognitive competency as the product of collaborative processing among multiple brain areas. Sources of evidence: We first review neuroscience studies of mathematical reasoning-specifically arithmetic problem-solving and magnitude comparison-that exemplify the area focus and network focus. We then review neuroscience findings that illustrate the potential of the network focus for informing three topics in mathematics education: the development of mathematical reasoning, the effects of practice and instruction, and the derailment of mathematical reasoning in dyscalculia. Main argument: Although the area focus has historically dominated discussions in educational neuroscience, we argue that the network focus offers a complementary perspective on brain function that should not be ignored. Conclusions: We conclude by describing the current limitations of network-focus theorising and emerging neuroscience methods that promise to make such theorising more tractable in the future.
KW - Arithmetic
KW - Dyscalculia
KW - Educational neuroscience
KW - Large-scale cortical networks
KW - Magnitude comparison
KW - Mathematics education
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U2 - 10.1080/00131880802082633
DO - 10.1080/00131880802082633
M3 - Review article
AN - SCOPUS:45849135635
SN - 0013-1881
VL - 50
SP - 149
EP - 161
JO - Educational Research
JF - Educational Research
IS - 2
ER -