Trap, kill, and release: An antimicrobial cationic surface can effectively kill bacterial cells and switch to a nonfouling zwitterionic surface which releases dead microorganisms upon hydrolysis (see picture). This biocompatible nonfouling surface can prevent further attachment of proteins and microorganisms and the formation of a biofilm on the surface
The rapid accumulation of dead bacteria or protein on a bactericidal surface can reduce the effectiv...
The effects of biomaterials on their environment must be carefully modulated in most biomedical appl...
Bacteria-responsive surfaces popularly exert their smart antibacterial activities by bacteria-trigge...
Trap, kill, and release: An antimicrobial cationic surface can effectively kill bacterial cells and ...
Mitigation of bacterial adhesion and subsequent biofilm formation is quickly becoming a strategy for...
Contact-active antimicrobial polymer surfaces bear cationic charges and kill or deactivate bacteria ...
Not AvailablePreventing bacterial biofilm formation on medical devices and implants in vivo still re...
Infections by microorganisms are a major problem in public health throughout the world. Artificial m...
The control of microbial infections is a very important issue in modern society. In general there ar...
Although polycationic surfaces have high antimicrobial efficacies, they suffer from high toxicity to...
One of the harmful factors of the interaction of microorganisms with the technosphere is the formati...
The tendency of microorganisms to develop detrimental biofilms has been well documented for a number...
The problem of bacteria-induced infections threatens the lives of many patients. Meanwhile, the misu...
Bacterial fouling on surfaces is considered a major problem in modern society. Conventional methods ...
A new strategy integrating antimicrobial and nonfouling/biocompatible properties is presented. A mil...
The rapid accumulation of dead bacteria or protein on a bactericidal surface can reduce the effectiv...
The effects of biomaterials on their environment must be carefully modulated in most biomedical appl...
Bacteria-responsive surfaces popularly exert their smart antibacterial activities by bacteria-trigge...
Trap, kill, and release: An antimicrobial cationic surface can effectively kill bacterial cells and ...
Mitigation of bacterial adhesion and subsequent biofilm formation is quickly becoming a strategy for...
Contact-active antimicrobial polymer surfaces bear cationic charges and kill or deactivate bacteria ...
Not AvailablePreventing bacterial biofilm formation on medical devices and implants in vivo still re...
Infections by microorganisms are a major problem in public health throughout the world. Artificial m...
The control of microbial infections is a very important issue in modern society. In general there ar...
Although polycationic surfaces have high antimicrobial efficacies, they suffer from high toxicity to...
One of the harmful factors of the interaction of microorganisms with the technosphere is the formati...
The tendency of microorganisms to develop detrimental biofilms has been well documented for a number...
The problem of bacteria-induced infections threatens the lives of many patients. Meanwhile, the misu...
Bacterial fouling on surfaces is considered a major problem in modern society. Conventional methods ...
A new strategy integrating antimicrobial and nonfouling/biocompatible properties is presented. A mil...
The rapid accumulation of dead bacteria or protein on a bactericidal surface can reduce the effectiv...
The effects of biomaterials on their environment must be carefully modulated in most biomedical appl...
Bacteria-responsive surfaces popularly exert their smart antibacterial activities by bacteria-trigge...