Growing-up (habitually) barefoot influences the development of foot and arch morphology in children and adolescents

Karsten Hollander, Johanna Elsabe de Villiers, Susanne Sehner, Karl Wegscheider, Klaus-Michael Braumann, Ranel Venter, Astrid Zech, Karsten Hollander, Johanna Elsabe de Villiers, Susanne Sehner, Karl Wegscheider, Klaus-Michael Braumann, Ranel Venter, Astrid Zech

Abstract

The development of the human foot is crucial for motor learning in children and adolescents as it ensures the basic requirements for bipedal locomotion and stable standing. Although there is an ongoing debate of the advantages and disadvantages of early and permanent footwear use, the influence of regular barefootness on foot characteristics in different stages of child development has not been extensively evaluated. A multicenter epidemiological study was conducted to compare the foot morphology between habitually barefoot children and adolescents (N = 810) to age-, sex- and ethnicity-matched counterparts that are used to wearing shoes. While controlling for confounders, we found that habitual footwear use has significant effects on foot-related outcomes in all age groups, such as a reduction in foot arch and hallux angles. The results indicate an impact of habitual footwear use on the development of the feet of children and adolescents. Therefore, growing up barefoot or shod may play an important role for childhood foot development, implying long-term consequences for motor learning and health later in life.

Conflict of interest statement

The authors declare that they have no competing interests.

Figures

Figure 1
Figure 1
Diagram showing the flow of participants through the study.
Figure 2
Figure 2
Forrest plots depicting confounder effects estimates for hallux angle, dynamic foot arch index, static arch height index and pliability ratio.
Figure 3
Figure 3
Marginal effects of habitual barefoot vs. habitually shod children by age in stages of development showing estimated means and 95%CI for foot length, foot width, hallux angle, static arch height index, dynamic arch index and pliability ratio.

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Source: PubMed

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