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The use of medical devices (e.g., catheters, implants, and probes) is a common and essential part of medical care for both diagnostic and therapeutic purposes. However, these devices quite frequently lead to the incidence of infections due to the colonization of their abiotic surfaces by biofilm-growing microorganisms, which are progressively resistant to antimicrobial therapies. Several methods based on anti-infective biomaterials that repel microbes have been developed to combat device-related infections. Among these strategies, surface coating with antibiotics (e.g., beta-lactams), natural compounds (e.g., polyphenols), or inorganic elements (e.g., silver and copper nanoparticles) has been widely recognized as exhibiting broad-spectrum bactericidal or bacteriostatic activity. So, in order to achieve a better therapeutic response, it is crucial to understand how these infections are different from others. This will allow us to find new biomaterials characterized by antifouling coatings with repellent properties or low adhesion towards microorganisms, or antimicrobial coatings that are capable of killing microbes approaching the surface, improving biomaterial functionalization strategies and supporting tissues’ bio-integration.
Medicine --- Candida --- biofilms --- diabetes --- medical devices --- candidiasis --- metabolic disorder --- hyperglycemia --- infection --- Candida glabrata --- candidemia --- echinocandins --- resistance --- micafungin --- caspofungin --- in vivo --- titanium dioxide --- nanotubes --- autoclaving --- titanium alloy --- biocompatibility --- wettability --- mechanical properties --- silver nanoparticles --- titanium dioxide nanotubes --- silver ions release --- biointegration --- antimicrobial activity --- polyethylene terephthalate --- PET --- electrospinning --- nanofibers --- antimicrobial agents --- Taguchi method --- antimicrobial efficiency --- cold atmospheric-pressure plasma jet (CAPJ) --- Escherichia coli --- DNA double-strand breaks --- scanning electron microscopy --- Ti6Al4V implants --- anodization process --- XPS --- genotoxicity assessment --- anti-inflammatory properties --- oral biofilm --- infection control --- Streptococcus mutans --- Candida spp. --- natural compounds --- antimicrobial resistance --- n/a
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The use of medical devices (e.g., catheters, implants, and probes) is a common and essential part of medical care for both diagnostic and therapeutic purposes. However, these devices quite frequently lead to the incidence of infections due to the colonization of their abiotic surfaces by biofilm-growing microorganisms, which are progressively resistant to antimicrobial therapies. Several methods based on anti-infective biomaterials that repel microbes have been developed to combat device-related infections. Among these strategies, surface coating with antibiotics (e.g., beta-lactams), natural compounds (e.g., polyphenols), or inorganic elements (e.g., silver and copper nanoparticles) has been widely recognized as exhibiting broad-spectrum bactericidal or bacteriostatic activity. So, in order to achieve a better therapeutic response, it is crucial to understand how these infections are different from others. This will allow us to find new biomaterials characterized by antifouling coatings with repellent properties or low adhesion towards microorganisms, or antimicrobial coatings that are capable of killing microbes approaching the surface, improving biomaterial functionalization strategies and supporting tissues’ bio-integration.
Candida --- biofilms --- diabetes --- medical devices --- candidiasis --- metabolic disorder --- hyperglycemia --- infection --- Candida glabrata --- candidemia --- echinocandins --- resistance --- micafungin --- caspofungin --- in vivo --- titanium dioxide --- nanotubes --- autoclaving --- titanium alloy --- biocompatibility --- wettability --- mechanical properties --- silver nanoparticles --- titanium dioxide nanotubes --- silver ions release --- biointegration --- antimicrobial activity --- polyethylene terephthalate --- PET --- electrospinning --- nanofibers --- antimicrobial agents --- Taguchi method --- antimicrobial efficiency --- cold atmospheric-pressure plasma jet (CAPJ) --- Escherichia coli --- DNA double-strand breaks --- scanning electron microscopy --- Ti6Al4V implants --- anodization process --- XPS --- genotoxicity assessment --- anti-inflammatory properties --- oral biofilm --- infection control --- Streptococcus mutans --- Candida spp. --- natural compounds --- antimicrobial resistance --- n/a
Choose an application
The use of medical devices (e.g., catheters, implants, and probes) is a common and essential part of medical care for both diagnostic and therapeutic purposes. However, these devices quite frequently lead to the incidence of infections due to the colonization of their abiotic surfaces by biofilm-growing microorganisms, which are progressively resistant to antimicrobial therapies. Several methods based on anti-infective biomaterials that repel microbes have been developed to combat device-related infections. Among these strategies, surface coating with antibiotics (e.g., beta-lactams), natural compounds (e.g., polyphenols), or inorganic elements (e.g., silver and copper nanoparticles) has been widely recognized as exhibiting broad-spectrum bactericidal or bacteriostatic activity. So, in order to achieve a better therapeutic response, it is crucial to understand how these infections are different from others. This will allow us to find new biomaterials characterized by antifouling coatings with repellent properties or low adhesion towards microorganisms, or antimicrobial coatings that are capable of killing microbes approaching the surface, improving biomaterial functionalization strategies and supporting tissues’ bio-integration.
Medicine --- Candida --- biofilms --- diabetes --- medical devices --- candidiasis --- metabolic disorder --- hyperglycemia --- infection --- Candida glabrata --- candidemia --- echinocandins --- resistance --- micafungin --- caspofungin --- in vivo --- titanium dioxide --- nanotubes --- autoclaving --- titanium alloy --- biocompatibility --- wettability --- mechanical properties --- silver nanoparticles --- titanium dioxide nanotubes --- silver ions release --- biointegration --- antimicrobial activity --- polyethylene terephthalate --- PET --- electrospinning --- nanofibers --- antimicrobial agents --- Taguchi method --- antimicrobial efficiency --- cold atmospheric-pressure plasma jet (CAPJ) --- Escherichia coli --- DNA double-strand breaks --- scanning electron microscopy --- Ti6Al4V implants --- anodization process --- XPS --- genotoxicity assessment --- anti-inflammatory properties --- oral biofilm --- infection control --- Streptococcus mutans --- Candida spp. --- natural compounds --- antimicrobial resistance
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This reprint describes recent advances made in the field of antifungal development, especially the discovery of new drugs and drug repurposing. The articles presented in this book provide useful information and insight for the development of new antifungal drugs or intervention strategies. The identification of new, safe molecules, and cellular targets, as well as the elucidation of their antifungal mechanisms of action, will further the effective control of fungal pathogens, especially those resistant to current therapeutic agents.
Research & information: general --- Biology, life sciences --- nanoparticles --- fungi --- drug delivery systems --- marine --- biological synthesis --- myconanotechnology --- canesten --- clotrimazole --- vulvovaginal --- vaginitis --- mycosis --- candidosis --- yeast infection --- candida --- candida albicans --- vaginal health --- anticandidal activity --- indazole --- pyrazole --- 3-phenyl-1H-indazole --- drug design --- acetylsalicylic acid (ASA, aspirin) --- capsule --- CAP64 --- Cryptococcus --- membrane potential (ΔΨM) --- photodynamic treatment --- photosensitiser --- ultrastructure --- drug repurposing --- antifungals --- repositioning --- yeasts --- emerging fungi --- multidrug resistance --- therapeutic alternatives --- new targets --- Candida auris --- Aspergillus spp. --- antifungal --- beta-glucan --- polycations --- Galleria mellonella model --- retinoids --- Candida spp. --- onychomycosis --- Malassezia spp. --- dermatophytes --- microbiology --- mycology --- all-trans retinoic acid --- Acanthamoeba --- free-living ameba --- Acanthamoeba keratitis --- isavuconazonium sulfate --- cyst --- drug --- drug discovery --- drug targets --- invasive aspergillosis treatment --- invasive fungal infections --- fission yeast --- cell wall --- β(1,3)-D-glucan synthase --- antifungal drugs --- echinocandin drugs --- echinocandin resistance --- Fks resistance hot spots --- cytokinesis --- septation --- cell separation --- cell integrity --- cell lysis --- sporotrichosis --- Felis catus --- quinones --- hydrazones --- zoonoses --- host-directed drug therapy --- azoles --- polyenes --- echinocandins --- viral infections --- azole --- synergy --- resistance --- Candida --- natural products --- n/a
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This reprint describes recent advances made in the field of antifungal development, especially the discovery of new drugs and drug repurposing. The articles presented in this book provide useful information and insight for the development of new antifungal drugs or intervention strategies. The identification of new, safe molecules, and cellular targets, as well as the elucidation of their antifungal mechanisms of action, will further the effective control of fungal pathogens, especially those resistant to current therapeutic agents.
nanoparticles --- fungi --- drug delivery systems --- marine --- biological synthesis --- myconanotechnology --- canesten --- clotrimazole --- vulvovaginal --- vaginitis --- mycosis --- candidosis --- yeast infection --- candida --- candida albicans --- vaginal health --- anticandidal activity --- indazole --- pyrazole --- 3-phenyl-1H-indazole --- drug design --- acetylsalicylic acid (ASA, aspirin) --- capsule --- CAP64 --- Cryptococcus --- membrane potential (ΔΨM) --- photodynamic treatment --- photosensitiser --- ultrastructure --- drug repurposing --- antifungals --- repositioning --- yeasts --- emerging fungi --- multidrug resistance --- therapeutic alternatives --- new targets --- Candida auris --- Aspergillus spp. --- antifungal --- beta-glucan --- polycations --- Galleria mellonella model --- retinoids --- Candida spp. --- onychomycosis --- Malassezia spp. --- dermatophytes --- microbiology --- mycology --- all-trans retinoic acid --- Acanthamoeba --- free-living ameba --- Acanthamoeba keratitis --- isavuconazonium sulfate --- cyst --- drug --- drug discovery --- drug targets --- invasive aspergillosis treatment --- invasive fungal infections --- fission yeast --- cell wall --- β(1,3)-D-glucan synthase --- antifungal drugs --- echinocandin drugs --- echinocandin resistance --- Fks resistance hot spots --- cytokinesis --- septation --- cell separation --- cell integrity --- cell lysis --- sporotrichosis --- Felis catus --- quinones --- hydrazones --- zoonoses --- host-directed drug therapy --- azoles --- polyenes --- echinocandins --- viral infections --- azole --- synergy --- resistance --- Candida --- natural products --- n/a
Choose an application
This reprint describes recent advances made in the field of antifungal development, especially the discovery of new drugs and drug repurposing. The articles presented in this book provide useful information and insight for the development of new antifungal drugs or intervention strategies. The identification of new, safe molecules, and cellular targets, as well as the elucidation of their antifungal mechanisms of action, will further the effective control of fungal pathogens, especially those resistant to current therapeutic agents.
Research & information: general --- Biology, life sciences --- nanoparticles --- fungi --- drug delivery systems --- marine --- biological synthesis --- myconanotechnology --- canesten --- clotrimazole --- vulvovaginal --- vaginitis --- mycosis --- candidosis --- yeast infection --- candida --- candida albicans --- vaginal health --- anticandidal activity --- indazole --- pyrazole --- 3-phenyl-1H-indazole --- drug design --- acetylsalicylic acid (ASA, aspirin) --- capsule --- CAP64 --- Cryptococcus --- membrane potential (ΔΨM) --- photodynamic treatment --- photosensitiser --- ultrastructure --- drug repurposing --- antifungals --- repositioning --- yeasts --- emerging fungi --- multidrug resistance --- therapeutic alternatives --- new targets --- Candida auris --- Aspergillus spp. --- antifungal --- beta-glucan --- polycations --- Galleria mellonella model --- retinoids --- Candida spp. --- onychomycosis --- Malassezia spp. --- dermatophytes --- microbiology --- mycology --- all-trans retinoic acid --- Acanthamoeba --- free-living ameba --- Acanthamoeba keratitis --- isavuconazonium sulfate --- cyst --- drug --- drug discovery --- drug targets --- invasive aspergillosis treatment --- invasive fungal infections --- fission yeast --- cell wall --- β(1,3)-D-glucan synthase --- antifungal drugs --- echinocandin drugs --- echinocandin resistance --- Fks resistance hot spots --- cytokinesis --- septation --- cell separation --- cell integrity --- cell lysis --- sporotrichosis --- Felis catus --- quinones --- hydrazones --- zoonoses --- host-directed drug therapy --- azoles --- polyenes --- echinocandins --- viral infections --- azole --- synergy --- resistance --- Candida --- natural products
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