Gait patterns have been widely studied in different fields of science for their particular characteristics. A dynamic approach of human locomotion considers walking and running as two stable behaviors adopted spontaneously under certain levels and natures of constraints. When no constraints are imposed, people naturally prefer to walk at the typical speed (i.e., around 4.5 km.h-1) that minimizes metabolic energy cost. The preferred walking speed (PWS) is also known to be an indicator of mobility and an important clinical factor in tracking impairements in motor behaviors. When constrained to move at higher speeds (e.g., being late), people naturally switch their preference to running for similar optimization reasons (e.g., physiological, biomechanical, perceptual, attentionnal costs). Indeed, the preferred transition speed (PTS) marks the natural seperation between walking and running and consistently falls within a speed range around 7.5 km.h-1. This chapter describes the constraint-dependant spontaneous organisation of the locomotor system, specifically on the walk-to-run speed continuum. We provide examples of the possibility of long-term adaptations of preferred behaviors to specific constraints such as factors related to traditional clothing or practice. We use knowledge from studies on preferred behaviors and on the relationship between affect and exercise adherence as a backdrop to prescribing a walk exercise program with an emphasis on populations with overweight or obesity.
|Title of host publication||Sedentary lifestyle|
|Subtitle of host publication||predictive factors, health risks and physiological implications|
|Place of Publication||Hauppauge, NY|
|Publisher||Nova Science Publishers|
|Number of pages||18|
|Publication status||Published - 1 Apr 2016|
Majed, L., Hansen, C., & Alkhatib, A. (2016). Characteristics of preferred gait patterns: considerations for exercise prescription. In A. Alkhatib (Ed.), Sedentary lifestyle: predictive factors, health risks and physiological implications (pp. 97-114). Hauppauge, NY: Nova Science Publishers.