The development of an electrochemical detector to monitor the in situ formation of biofilms is described. The detector consisted of an electrochemical cell containing three electrodes, whose response to the application of a potential profile to the working electrode was sensitive to the amount of biofilm present on the surface. The electrochemical technique used was repetitive cyclic voltammetry. Differences between the response of the uncolonised electrode and after Pseudomonas fluorescens biofilms of different ages were grown on its surface were determined. The results show that cyclic voltammetry applied to platinum electrodes can be used to detect young biofilms. The development of the shape of the voltammogram as the potential is cycle...
Reliable and accurate in situ sensors capable of detecting and quantifying troublesome marine biofil...
This work demonstrates that electrochemical reactions can be catalysed by the natural biofilms that ...
Investigating and understanding dynamic biofilm growth mechanisms is challenging, often because stat...
The development of an electrochemical detector to monitor the in situ formation of biofilms is desc...
The effect of experimental conditions on cyclic voltammetry experiments on platinum electrodescovere...
The effect of experimental conditions on cyclic voltammetry experiments on platinum electrodes cover...
On-line detectors of biofilm - platinum electrodes - were calibrated and validated in the laboratory...
The fast and non-destructive detection of bacterial attachment on food contact surfaces is important...
International audienceUnderstanding and sensing microbial biofilm formation onto surfaces remains hi...
In this paper we explored the use of an electrochemical quartz crystal microbalance (QCM) to follow ...
Electroactive microbial biofilms and the microorganisms embedded therein are not only of crucial fun...
Bacteria are ubiquitous, forming biofilms on nearly any surface in an aqueous environment. The accum...
International audienceAims: To design a cyclic voltammetry (CV) procedure to check the electrochemic...
The negative impact of biofilms in both the industry and the human health, demands the development o...
The study of electroactive microbial biofilms often requires knowledge of the biofilm thickness. Unf...
Reliable and accurate in situ sensors capable of detecting and quantifying troublesome marine biofil...
This work demonstrates that electrochemical reactions can be catalysed by the natural biofilms that ...
Investigating and understanding dynamic biofilm growth mechanisms is challenging, often because stat...
The development of an electrochemical detector to monitor the in situ formation of biofilms is desc...
The effect of experimental conditions on cyclic voltammetry experiments on platinum electrodescovere...
The effect of experimental conditions on cyclic voltammetry experiments on platinum electrodes cover...
On-line detectors of biofilm - platinum electrodes - were calibrated and validated in the laboratory...
The fast and non-destructive detection of bacterial attachment on food contact surfaces is important...
International audienceUnderstanding and sensing microbial biofilm formation onto surfaces remains hi...
In this paper we explored the use of an electrochemical quartz crystal microbalance (QCM) to follow ...
Electroactive microbial biofilms and the microorganisms embedded therein are not only of crucial fun...
Bacteria are ubiquitous, forming biofilms on nearly any surface in an aqueous environment. The accum...
International audienceAims: To design a cyclic voltammetry (CV) procedure to check the electrochemic...
The negative impact of biofilms in both the industry and the human health, demands the development o...
The study of electroactive microbial biofilms often requires knowledge of the biofilm thickness. Unf...
Reliable and accurate in situ sensors capable of detecting and quantifying troublesome marine biofil...
This work demonstrates that electrochemical reactions can be catalysed by the natural biofilms that ...
Investigating and understanding dynamic biofilm growth mechanisms is challenging, often because stat...