Abstract
Zusammenfassung. Inwieweit die motorische und kognitive Entwicklung von Kindern miteinander verbunden ist, wird seit langem kontrovers diskutiert. Insbesondere für die frühkindliche Förderung ist es von Bedeutung, das Zusammenspiel beider Entwicklungsbereiche genau zu analysieren, um passgenaue Fördermöglichkeiten zu entwickeln. Ziel dieser Arbeit ist es, den Zusammenhang von motorischen und kognitiven Leistungen zu untersuchen. Es wurden die Testergebnisse von 87 Kindern im Alter von drei bis sechs Jahren im Motoriktest LoMo 3 – 6 mit denen in der WPPSI-IV korreliert. Die Ergebnisse sprechen dafür, dass motorische Leistungen insbesondere mit visuellen Leistungen und der Verarbeitungsgeschwindigkeit assoziiert sind. Ein Subgruppenvergleich zwischen motorisch unterdurchschnittlich, durchschnittlich und überdurchschnittlich entwickelten Kindern zeigt, dass sich diese besonders in den Indizes Visuell-Räumliche Verarbeitung und Verarbeitungsgeschwindigkeit unterscheiden. Programme zur Bewegungsförderung sollten Aspekte der feinmotorischen Koordination, Objektkontrolle sowie der bilateralen Körperkoordination beinhalten, da diese Bereiche motorischer Kompetenz eng mit visuell-räumlichen Funktionen sowie der kognitiven Verarbeitungsgeschwindigkeit in Verbindung gebracht werden.
Abstract. The relationship between motor skills and cognitive development is a controversial topic in child development. However, it is particularly important for early childhood education and child care to analyze the connection between the two development areas in more detail. The first aim of this work was to investigate the relationship between motor and cognitive performance in children aged between 3 and 6 years. For this purpose, motor skills were measured by the German movement assessment LoMo 3 – 6. The cognitive performances on the primary indices and the Full Scale IQ of the Wechsler Preschool and Primary Scale of Intelligence – Fourth Edition (WPPSI-IV) were chosen as the variables to be predicted. The second aim of this study was to examine the differences in cognitive performances dependent on motor development. Data of 87 children (41 girls, 46 boys) aged from 37 to 81 months were collected using the LoMo 3 – 6 and the WPPSI-IV. The test interval was 0 – 138 days. If both tests were completed on the same day, the WPPSI-IV was always performed first. To analyze the relationship between motor skills of the LoMo 3 – 6 and primary indices as well as Full Scale IQ of the WPPSI-IV, Pearson correlation coefficients were calculated and complemented by a linear regression analysis. Differences in cognitive performances between the three groups of children with different motor skills (below average motor performance, average motor performance, above average motor performance) were analyzed by pairwise post hoc group comparisons. The total value of the LoMo 3 – 6 explained 19 % of the variances of the index Processing Speed. When using Full Scale IQ and Visual Spatial as criterion variables instead, the regression models clarified 15 % and 13 % of the overall variance. Measures of explained variance for Verbal Comprehension (5 %) and Working Memory (4 %), however, were relatively low. There was no significant correlation between Fluid Reasoning and the total value of the LoMo 3 – 6. The pairwise comparisons between the groups below average motor performance and average motor performance as well as the groups above average motor performance and below average motor performance showed significant differences in Verbal Comprehension, Visual Spatial, Processing Speed, and Full Scale IQ. The results of the present study demonstrate that motor skill programs should include aspects of fine motor coordination, object control, and bilateral body coordination because these motor skills are closely linked to visual–spatial processing speed.
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