Study of Multiobjective Genetic Algorithm on Taylor External Fixation

The rapid development of today’s society and the rapidly increasing incidence of skeletal injuries caused by traffic and industrial accidents have led to a significant increase in the number of patients with fractures accompanied by severe soft tissue injuries, as well as an increased inc...

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Main Authors: Jianmin Guo, Jialong Su
Format: Article
Language:English
Published: IEEE 2022-01-01
Series:IEEE Access
Subjects:
Online Access:https://ieeexplore.ieee.org/document/9766206/
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author Jianmin Guo
Jialong Su
author_facet Jianmin Guo
Jialong Su
author_sort Jianmin Guo
collection DOAJ
description The rapid development of today’s society and the rapidly increasing incidence of skeletal injuries caused by traffic and industrial accidents have led to a significant increase in the number of patients with fractures accompanied by severe soft tissue injuries, as well as an increased incidence of osteomyelitis and bone defects. Many of these patients cannot be treated with internal fixators and can only be treated with external fixators. The Taylor Bone External Fixator is the most advanced bone external fixation brace in the field of orthopedics, in which the algorithm study of the forward and backward solution of the computer software that accompanies the Taylor Bone External Fixator is the key. In this paper, we analyze the positional kinematic model based on the Taylor Spatial Frame and derive the equations for solving the six positional parameters of the fracture segment in the dynamic platform with this model. A multi-objective genetic algorithm and Pareto optimization theory are combined to propose a solution to the kinematic positive solution problem. The algorithm proposed in this paper has a minimum accuracy improvement of about 0.8 mm compared to the conventional Newton-Raphson in terms of the accuracy of the Taylor frame mounting parameters solution. Finally, based on the human tibial fracture as the test object, the healing process of the tibial fracture end was simulated using the prescription data generated by the orthopedic system, and the experimental results proved the accuracy and feasibility of the software system, and achieved the expected orthopedic effect.
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spelling doaj.art-9b3cfcdd370045f69d15c2e3fe1b1f212022-12-22T00:28:31ZengIEEEIEEE Access2169-35362022-01-0110469864699910.1109/ACCESS.2022.31704529766206Study of Multiobjective Genetic Algorithm on Taylor External FixationJianmin Guo0https://orcid.org/0000-0002-2834-0782Jialong Su1School of Computer Science and Technology, Tiangong University, Tianjin, ChinaSchool of Computer Science and Technology, Tiangong University, Tianjin, ChinaThe rapid development of today’s society and the rapidly increasing incidence of skeletal injuries caused by traffic and industrial accidents have led to a significant increase in the number of patients with fractures accompanied by severe soft tissue injuries, as well as an increased incidence of osteomyelitis and bone defects. Many of these patients cannot be treated with internal fixators and can only be treated with external fixators. The Taylor Bone External Fixator is the most advanced bone external fixation brace in the field of orthopedics, in which the algorithm study of the forward and backward solution of the computer software that accompanies the Taylor Bone External Fixator is the key. In this paper, we analyze the positional kinematic model based on the Taylor Spatial Frame and derive the equations for solving the six positional parameters of the fracture segment in the dynamic platform with this model. A multi-objective genetic algorithm and Pareto optimization theory are combined to propose a solution to the kinematic positive solution problem. The algorithm proposed in this paper has a minimum accuracy improvement of about 0.8 mm compared to the conventional Newton-Raphson in terms of the accuracy of the Taylor frame mounting parameters solution. Finally, based on the human tibial fracture as the test object, the healing process of the tibial fracture end was simulated using the prescription data generated by the orthopedic system, and the experimental results proved the accuracy and feasibility of the software system, and achieved the expected orthopedic effect.https://ieeexplore.ieee.org/document/9766206/Taylor bone external fixatormulti-objective genetic algorithmPearson correlation coefficientkinematic positive solutioncorrection prescription
spellingShingle Jianmin Guo
Jialong Su
Study of Multiobjective Genetic Algorithm on Taylor External Fixation
IEEE Access
Taylor bone external fixator
multi-objective genetic algorithm
Pearson correlation coefficient
kinematic positive solution
correction prescription
title Study of Multiobjective Genetic Algorithm on Taylor External Fixation
title_full Study of Multiobjective Genetic Algorithm on Taylor External Fixation
title_fullStr Study of Multiobjective Genetic Algorithm on Taylor External Fixation
title_full_unstemmed Study of Multiobjective Genetic Algorithm on Taylor External Fixation
title_short Study of Multiobjective Genetic Algorithm on Taylor External Fixation
title_sort study of multiobjective genetic algorithm on taylor external fixation
topic Taylor bone external fixator
multi-objective genetic algorithm
Pearson correlation coefficient
kinematic positive solution
correction prescription
url https://ieeexplore.ieee.org/document/9766206/
work_keys_str_mv AT jianminguo studyofmultiobjectivegeneticalgorithmontaylorexternalfixation
AT jialongsu studyofmultiobjectivegeneticalgorithmontaylorexternalfixation