3D-Printed Sole with Variable Density using Foot Plantar Pressure Measurements

Trisha Singhal, Akshat Khare, Nikhil Gupta, T. Gandhi
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引用次数: 2

Abstract

With the increasing applications of 3D printing, podiatric research has received considerable attention from researchers worldwide. 3D-printed customized soles came into use to mitigate a patient foot’s pain and ameliorate comfortability. The presented work is aimed to provide customized foot sole with variable infills and appropriate depths in order to get the adequate pressure and comfort on the precise nerve areas, which are the origins of pain.In the proposed work, a 3D-sole is reconstructed conceptualizing variable infill density and appropriate depth fitting using foot plantar pressure measurements. The given work comprised of four phases: attaining foot plantar pressure readings, data processing, infill density distribution and 3D printing of the sole. Initially, the foot plantar data is obtained by a platform using an array of 32 X 32 piezo-electric sensors. Secondly, the input data is corrected with the removal of the rigid pattern from the foot sole via median filtering and interpolated via bicubic interpolation to obtain the smooth surface. Thereafter, modifiers are created to dispense different densities to distinct portions of the model. At last, the model is 3D-printed using fused deposition modeling (FDM) technology. The novel work can be extremely considerable in various medical and commercial applications.
3d打印鞋底与可变密度使用脚底压力测量
随着3D打印技术的应用越来越广泛,足病研究受到了世界范围内研究者的广泛关注。3d打印定制鞋底开始用于减轻患者足部疼痛并改善舒适度。本研究旨在提供具有不同填充物和适当深度的定制足底,以便在疼痛的精确神经区域获得足够的压力和舒适度。在提出的工作中,利用足底压力测量重建了3d鞋底,概念上定义了可变填充密度和适当的深度拟合。这项工作包括四个阶段:获得足底压力读数、数据处理、填充密度分布和鞋底3D打印。最初,脚底数据是由一个使用32 X 32压电传感器阵列的平台获得的。其次,对输入数据进行校正,通过中值滤波去除鞋底的刚性图案,并通过双三次插值进行插值,得到光滑表面;然后,修改器被创建来分配不同的密度到模型的不同部分。最后,采用熔融沉积建模(FDM)技术对模型进行3d打印。这项新工作在各种医学和商业应用中具有极其重要的意义。
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