Technologies for controlling biofouling in marine environments
Biofouling control technology has evolved toward advanced coatings that combine hydrodynamic efficiency, surface protection, and sustainability.
Biofouling control technology has evolved toward advanced coatings that combine hydrodynamic efficiency, surface protection, and sustainability.
The anchor profile in coatings determines the adhesion and durability of anticorrosive systems by defining the microgeometry where the coating mechanically bonds to the steel surface.
Anti-corrosion coatings in biofuels must withstand complex chemical environments to prevent polymer degradation and loss of structural integrity.
Within the framework of the circular economy, advanced chemical recycling transforms plastics through pyrolysis and depolymerization, recovering value, optimizing efficiency, and preserving the environment.
Galvanic isolation can mitigate stray current corrosion, preventing electrical failures and ensuring the infrastructure's service life.
Deep waste conversion increases the recovery of higher-value fractions and reduces coke generation.
Internal coating failure mechanisms and diagnostic approaches shaping AST tank integrity management through 2026.
Internal pipeline corrosion affects the integrity of industrial assets and is a costly process influenced by temperature and pressure.
The NACE TM0190 standard defines the test for validating the electrochemical performance of aluminum anodes.
Intergranular corrosion compromises sensitized stainless steels; ASTM A262 allows for its detection and metallurgical control.
Crevice corrosion is an electrochemical mechanism of localized corrosion that compromises structural integrity.
Sacrificial anode control in marine infrastructure ensures effective cathodic protection, structural integrity, and extended service life in seawater environments.