We can't find the internet
Attempting to reconnect
Something went wrong!
Hang in there while we get back on track
Two Coat Inorganic Coatings System for Corrosion Resistance and Long-Life
Summary
Researchers evaluated a two-coat inorganic corrosion protection system for offshore wind towers combining a zinc silicate primer with a zinc-free silicate topcoat, designed to extend service life while reducing environmental impact. The silicate resin formulation was specifically noted as low-carbon and non-contributing to microplastic accumulation in the ocean, offering multi-decade corrosion inhibition.
Abstract Extending service life of an offshore wind tower brings value to the owner and has the added benefit of reducing environmental impact. Arguably the biggest threat to service- life is degradation. When constructing with steel, corrosion is the threat to mitigate. Coatings formulated with zinc dust have been the primary strategy for protection. Zinc dust incorporated into silicate resins is considered an inorganic zinc coating. In recent years silicate finishes made without zinc have entered the market to create a two- coat inorganic system offering unmatched corrosion protection in a finish with various color options. The silicate resin is low carbon and won’t contribute to microplastic accumulation in the ocean. This paper will explain what a two- coat inorganic corrosion resistant system is, how it works, what it looks like and most importantly how it extends the life- cycle of wind towers by inhibiting corrosion for decades.
Sign in to start a discussion.
More Papers Like This
Two-Coat Inorganic Coating System for Corrosion Resistance
Researchers examined a two-coat inorganic coating system — comprising a zinc-rich primer and a zinc-free silicate topcoat — for corrosion protection of offshore wind towers. The silicate resin is low in carbon and does not contribute to microplastic accumulation in the ocean, offering a more environmentally compatible approach to extending wind tower service life.
Environmental impact of microplastic shedding from offshore wind turbine coatings
Researchers investigated the environmental impact of microplastic shedding from protective coatings applied to offshore wind turbine structures, as the expansion of offshore wind energy raises concerns about plastic pollution from installation and operation. Different coating types were shown to vary in their microplastic shedding potential under marine conditions.
Environmental impact of microplastic shedding from offshore wind turbine coatings
The PREMISE project investigated microplastic shedding from protective coatings used on offshore wind turbine structures, examining how different coating types vary in their microplastic emission potential under real marine conditions. The study aims to develop best practices for coating selection that minimize plastic particle release into the marine environment during wind energy operations.
Exploring Sustainable Coating Solutions for Applications in Highly Corrosive Environments
This review evaluates sustainable alternatives to petroleum-based polymer coatings for protecting carbon steel from corrosion, examining bio-based and recycled materials as replacements for conventional multilayer paint systems.
Global Decarbonization Enabled by a Novel Strategy of Biomineralization for Concrete Corrosion Inhibition
Despite its title referencing concrete corrosion and coastal infrastructure, this paper studies a biomineralization-based method for protecting marine concrete structures from corrosion in order to extend their lifespan and reduce greenhouse gas emissions — not microplastic pollution. It examines life-cycle carbon accounting for this construction technique and is not relevant to microplastics or human health.