The marine bacterium, Vibrio natriegens, grows quickly in a marine environment and can significantly accelerate the corrosion of steel materials. Here, we present an approach to inhibit V. natriegens-induced corrosion by biomineralization. The corrosion of steel is mitigated in seawater via the formation of a biomineralized film induced by Bacillus subtilis. The film is composed of extracellular polymeric substances (EPS) and calcite, exhibiting stable anti-corrosion activity. The microbial diversity and medium chemistry tests demonstrated that the inhibition of V. natriegens growth by B. subtilis was essential for the formation of the biomineralized film
There is an important need for the development of new “environmentally-friendly” antifouling molecul...
Biofouling proceeds in successive steps where the primary colonizers affect the phylogenetic and fun...
Several studies of biofilms must accept that biofilms may develop in an enormous number of environme...
The marine bacterium, Vibrio natriegens, grows quickly in a marine environment and can significantly...
Steel corrosion is a global problem in marine engineering. Numerous inhibitory treatments have been ...
It is well known that microorganisms tend to form biofilms on metal surfaces to accelerate/decelerat...
In marine environments and water systems, it is easy for many structures to form biofilms on their s...
The effect of filtration-UV irradiation of seawater on the biofilm activity on several offshore stru...
© The Author(s) 2017. The understanding of microbial influenced corrosion (MIC) in aerobic mixed bio...
This paper tackles bacteria of the genus Bacillus as both biodamaging/biodegrading and biocontrollin...
Biofilm formation is a global, $multi-billion phenomenon spanning a plethora of stakeholders. This t...
Present work investigated the role of five different bacteria species as a corrosion inducer as well...
Microbial colonization can be detrimental to the integrity of metal surfaces and lead to microbiolog...
Purpose – The purpose of this paper is to study the metal-Microbe interaction playing a crucial role...
Microbial colonization can be detrimental to the integrity of metal surfaces and lead to microbiolog...
There is an important need for the development of new “environmentally-friendly” antifouling molecul...
Biofouling proceeds in successive steps where the primary colonizers affect the phylogenetic and fun...
Several studies of biofilms must accept that biofilms may develop in an enormous number of environme...
The marine bacterium, Vibrio natriegens, grows quickly in a marine environment and can significantly...
Steel corrosion is a global problem in marine engineering. Numerous inhibitory treatments have been ...
It is well known that microorganisms tend to form biofilms on metal surfaces to accelerate/decelerat...
In marine environments and water systems, it is easy for many structures to form biofilms on their s...
The effect of filtration-UV irradiation of seawater on the biofilm activity on several offshore stru...
© The Author(s) 2017. The understanding of microbial influenced corrosion (MIC) in aerobic mixed bio...
This paper tackles bacteria of the genus Bacillus as both biodamaging/biodegrading and biocontrollin...
Biofilm formation is a global, $multi-billion phenomenon spanning a plethora of stakeholders. This t...
Present work investigated the role of five different bacteria species as a corrosion inducer as well...
Microbial colonization can be detrimental to the integrity of metal surfaces and lead to microbiolog...
Purpose – The purpose of this paper is to study the metal-Microbe interaction playing a crucial role...
Microbial colonization can be detrimental to the integrity of metal surfaces and lead to microbiolog...
There is an important need for the development of new “environmentally-friendly” antifouling molecul...
Biofouling proceeds in successive steps where the primary colonizers affect the phylogenetic and fun...
Several studies of biofilms must accept that biofilms may develop in an enormous number of environme...