Analysis of Bioelectrical Impedance Spectrum for Elbow Stiffness Based on Hilbert–Huang Transform
Author(s) -
Guodong Gao,
Ping Zhang,
Bin Xu,
Xiaogang Zhang,
Quan-Zeng Yang,
Rong Wang,
ShuHuan Han,
Zhen Quan
Publication year - 2022
Publication title -
contrast media and molecular imaging
Language(s) - English
Resource type - Journals
eISSN - 1555-4317
pISSN - 1555-4309
DOI - 10.1155/2022/5764574
Subject(s) - elbow , bioelectrical impedance analysis , stiffness , computer science , electrical impedance , signal processing , hilbert transform , physical medicine and rehabilitation , biomedical engineering , artificial intelligence , simulation , medicine , engineering , computer vision , digital signal processing , surgery , structural engineering , electrical engineering , computer hardware , pathology , body mass index , filter (signal processing)
With the advent of posttraumatic elbow rehabilitation, prevention of elbow stiffness has become a key part of the development of sports medicine. In order to clarify the time point of joint movement after internal fixation to the elbow and to provide a mechanical model for individualized diagnosis. This paper uses electromagnetic wave detection technology to quickly detect the bioelectrical impedance signal of the patient's lesion location, then passes the message to the upper control system for processing, summarizes the improved Hilbert–Huang transform to deep learning, and deep learning algorithms and computer technology are used to mine the bioelectrical impedance signal of the elbow joint. The simulation and human experiment results show that bioelectrical impedance signals can clarify the pathogenesis of elbow joint stiffness and the relationship between rehabilitation treatment time and duration. It has the advantages of low cost, high fitting accuracy, strong robustness, and noninvasiveness.
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