具有梯度模量的3D打印糖尿病鞋垫设计

Translated title of the contribution: Design of Three-Dimensional Printed Diabetic Insoles with Gradient Modulus
  • Siyao Zhu
  • , Dichen Li
  • , Lei Tang
  • , Changning Sun
  • , Jianfeng Kang
  • , Hongmou Zhao
  • , Yan Zhang
  • , Ling Wang

Research output: Contribution to journalArticlepeer-review

7 Scopus citations

Abstract

Objective: To propose a quick and low-cost personalized diabetic foot modeling and insole design scheme, so as to reduce the plantar pressure accurately. Methods: The foot model of the patient was constructed by scaling the model with foot feature parameters, to make biomechanical analysis on plantar pressure. By means of numerical mapping model of insole elasticity and plantar pressure, the three-dimensional (3D) personalized insole model with gradient modulus was constructed. The insole was then manufactured via 3D printing technology and used for experimental validation. Results: The related mechanical parameters from finite element prediction of the foot model constructed by the scaling modeling method were close to those of the CT reconstructed model, and the maximum error was controlled within 15%. Compared with wearing the normal insole, the peak pressure of the personalized insole was effectively reduced by 20%. The time and economic cost of this simplified design was reduced by approximately 90%. Conclusions: The design scheme of the diabetes insole shortens the design cycle, and the personalized insole can effectively and accurately reduce the sole pressure, and reduce the risk of foot ulcer, which provides a technical basis for the promotion of the personalized diabetes insole.

Translated title of the contributionDesign of Three-Dimensional Printed Diabetic Insoles with Gradient Modulus
Original languageChinese (Traditional)
Pages (from-to)102-109
Number of pages8
JournalYiyong Shengwu Lixue/Journal of Medical Biomechanics
Volume36
Issue number1
DOIs
StatePublished - Feb 2021

Fingerprint

Dive into the research topics of 'Design of Three-Dimensional Printed Diabetic Insoles with Gradient Modulus'. Together they form a unique fingerprint.

Cite this