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Photodynamic Therapy under Diagnostic Control of Wounds with Antibiotic-Resistant Microflora

Background: Difficulties in the treatment of purulent wounds are caused by bacterial biofilms, which results in decontamination limitations. Infected wounds are not sufficiently susceptible to existing antibiotics, necessitating the search for alternative approaches to reduce the concentration of pa...

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Published in:Photonics 2024-07, Vol.11 (7), p.594
Main Authors: Shiryaev, Artem, Ivankov, Mikhail, Voitova, Arina, Kalyagina, Nina, Efendiev, Kanamat, Pisareva, Tatiana, Zavodnov, Sergey, Reshetov, Igor, Loschenov, Victor
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container_issue 7
container_start_page 594
container_title Photonics
container_volume 11
creator Shiryaev, Artem
Ivankov, Mikhail
Voitova, Arina
Kalyagina, Nina
Efendiev, Kanamat
Pisareva, Tatiana
Zavodnov, Sergey
Reshetov, Igor
Loschenov, Victor
description Background: Difficulties in the treatment of purulent wounds are caused by bacterial biofilms, which results in decontamination limitations. Infected wounds are not sufficiently susceptible to existing antibiotics, necessitating the search for alternative approaches to reduce the concentration of pathogenic microflora. Methods: This study describes an approach to the effective treatment of wounds by photodynamic inactivation or therapy (PDI/PDT) of antibiotic-resistant microflora under fluorescence control. For this purpose, laser and LED light (660–680 nm) and different groups of photosensitizers (PS) (1% solutions of methylene blue, aluminum phthalocyanine, chlorine e6 and nanocomposites containing these groups of PS) were used. The study included 90 patients with various wounds. Some patients were subjected to fluorescence diagnosis by laser spectral analysis before the PDT. Results: Positive results were achieved in 76 patients (84%, p < 0.05). After the first PDT session, a decrease in the concentration of microflora was noticeable. By the third and seventh days, a significant to complete inactivation of bacteria was obtained. In all patients who were photo-diagnosed before PDT, a significant PS concentration decrease of more than 75% after PDT was obtained. Conclusion: PDT is an effective method for the inactivation of antibiotic-resistant pathogens, including in long non-healing wounds, contributing also to early tissue regeneration.
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Infected wounds are not sufficiently susceptible to existing antibiotics, necessitating the search for alternative approaches to reduce the concentration of pathogenic microflora. Methods: This study describes an approach to the effective treatment of wounds by photodynamic inactivation or therapy (PDI/PDT) of antibiotic-resistant microflora under fluorescence control. For this purpose, laser and LED light (660–680 nm) and different groups of photosensitizers (PS) (1% solutions of methylene blue, aluminum phthalocyanine, chlorine e6 and nanocomposites containing these groups of PS) were used. The study included 90 patients with various wounds. Some patients were subjected to fluorescence diagnosis by laser spectral analysis before the PDT. Results: Positive results were achieved in 76 patients (84%, p &lt; 0.05). After the first PDT session, a decrease in the concentration of microflora was noticeable. By the third and seventh days, a significant to complete inactivation of bacteria was obtained. In all patients who were photo-diagnosed before PDT, a significant PS concentration decrease of more than 75% after PDT was obtained. 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subjects Aluminum
Antibiotic resistance
antibiotic-resistant microflora
Antibiotics
Antimicrobial agents
Bacteria
Biofilms
Chlorine
Deactivation
Decontamination
Drug resistance
Extracellular matrix
Fluorescence
fluorescence diagnosis
Inactivation
infected wound
Lasers
Methylene blue
Microflora
nano photosensitizers
Nanocomposites
Pathogens
Patients
Photodynamic therapy
Radiation
Regeneration (physiology)
Sanitation
Spectral analysis
Spectrum analysis
Tissue engineering
Wound healing
title Photodynamic Therapy under Diagnostic Control of Wounds with Antibiotic-Resistant Microflora
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