Finite Element study into the effect of footwear temperature on the forces transmitted to the foot during quasi- static compression loading

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Abstract

The determination of plantar stresses using computational footwear models which include temperature effects are crucial to predict foam performance in service and to aid material development and product design. Finite Element Method (FEM) provides an efficient computational framework to investigate the foot-footwear interaction. The aim of this research is to use FEM to investigate the effect of varying footwear temperature on plantar stresses. The results obtained will provide data which can be used to help optimise shoe design in terms of minimising damaging stresses in the foot particularly for individuals with diabetes who are susceptible to lower extremity complications. The FE simulation results showed significant reductions in foot stresses with the modifications from FE model (1) without footwear to model (2) with midsole only and to model (3) with midsole and insole. In summary, insole and midsole layers made from various foam materials aim to reduce the Ground Reaction Forces (GRF's) and foot stresses considerably and temperature variation can affect their cushioning and consequently the shock attenuation properties. The loss of footwear cushioning effect can have important clinical implications for those individuals with a history of lower limb overuse injuries or diabetes.

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Shariatmadari, M. R., English, R., & Rothwell, G. (2014). Finite Element study into the effect of footwear temperature on the forces transmitted to the foot during quasi- static compression loading. In IOP Conference Series: Materials Science and Engineering (Vol. 10). Institute of Physics Publishing. https://doi.org/10.1088/1757-899X/10/1/012126

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