Integrating Cognitive Load Theory and Embodied Cognition to Enhance Mathematics Learning

Abstract

Abstract

This study analyzes the integration of psychological aspects in mathematics learning through

Cognitive Load Theory (CLT) and embodied cognition as strategic efforts to reduce cognitive

burden and improve students’ learning performance. The research employs a narrative literature

review approach by examining scientific sources relevant to instructional design, cognitive

function, physical activity, and their implications in mathematics learning. The findings indicate

that managing intrinsic, extraneous, and germane cognitive load contributes to more effective

information processing and concept comprehension. Furthermore, sensorimotor engagement

through physical activities, gestures, and object manipulation strengthens cognitive

representation and supports understanding of abstract mathematical concepts. The integration of

CLT and embodied cognition creates a complementary instructional framework: CLT structures

information to prevent overload, while embodied cognition enhances schema construction

through physical interaction. This review provides a theoretical foundation for developing

mathematics learning designs that balance cognitive management with sensorimotor

experiences, resulting in more meaningful, adaptive, and effective learning.

Keywords: narrative literature review, cognitive load theory, embodied cognition, physical

activity, mathematics learning.