Photomodulation for scar mechanics neurostimulation

Photochemical cross-linking technology helps to "strengthen" biological tissues, which in turn produces hardness changes after biomechanical changes; this technology is expected to create a model of proliferative keloid in organisms, and through the created keloid model, the pathogenesis of proliferative keloid on the surface of skin can be investigated; most of the current studies are based on the pathology of organisms. Most of the current research is based on the pathology of the organism, and the pathology research lacks the monitoring of the growth mechanism of the keloid under the survival state of the organism; therefore, there is an urgent need to have an animal model of keloid to promote the research; this paper proposes a photochemical cross-linking optical array stimulation circuit, and establishes a New Zealand rabbit animal model to validate and optimize the control parameters of the hardware; the system can be validated through the measurement of the tensile strength of the organism and the pressure of the organism in the pre- and post-operation period; this paper designs a system that is effective; the system is designed in this paper. The effectiveness of this system; the photostimulation circuit method designed in this paper provides a new technical method for the study of skin keloids.

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Published
2025-02-20
DOI
https://doi.org/10.1117/12.3060491
Primary Topic
Laser Applications in Dentistry and Medicine
Type
article
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Photomodulation for scar mechanics neurostimulation

J. S. Li, Shuo Cao, Xiao Wu, Boyan Zhao et al.
Laser Applications in Dentistry and Medicine
article

Photomodulation for scar mechanics neurostimulation

J. S. Li, Shuo Cao, Xiao Wu, Boyan Zhao, Yanping Ji, Wensi Wang
article en

Abstract

Photochemical cross-linking technology helps to "strengthen" biological tissues, which in turn produces hardness changes after biomechanical changes; this technology is expected to create a model of proliferative keloid in organisms, and through the created keloid model, the pathogenesis of proliferative keloid on the surface of skin can be investigated; most of the current studies are based on the pathology of organisms. Most of the current research is based on the pathology of the organism, and the pathology research lacks the monitoring of the growth mechanism of the keloid under the survival state of the organism; therefore, there is an urgent need to have an animal model of keloid to promote the research; this paper proposes a photochemical cross-linking optical array stimulation circuit, and establishes a New Zealand rabbit animal model to validate and optimize the control parameters of the hardware; the system can be validated through the measurement of the tensile strength of the organism and the pressure of the organism in the pre- and post-operation period; this paper designs a system that is effective; the system is designed in this paper. The effectiveness of this system; the photostimulation circuit method designed in this paper provides a new technical method for the study of skin keloids.

Beijing University of Technology (CN), Hexi University (CN)
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Laser Applications in Dentistry and Medicine
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