Marine Coatings & Antifouling Systems — Formulation Handbook
About this book
Marine Coatings & Antifouling Systems — Formulation Handbook is a comprehensive technical formulations reference covering 40 starting-point formulations across 10 sub-categories: waterborne and solventborne epoxy anticorrosive primer for underwater hull steel, inorganic zinc silicate shop primer, IMO PSPC-compliant high-build epoxy ballast tank and cargo oil tank lining, silane-modified anticorrosive-to-antifouling tie-coats, tin-free biocidal antifouling spanning the controlled-depletion-polymer (CDP) to self-polishing-copolymer (SPC) spectrum, biocide-free polydimethylsiloxane silicone fouling-release coatings, copper-free antifouling for aluminium hulls, and waterborne/solventborne boot-top enamel. It gives marine coatings manufacturers, shipyard technical teams, and coatings entrepreneurs the chemical foundation to manufacture products validated against IMO, ISO, and ASTM test methods.
The technology
The handbook covers marine coating chemistry from first principles: binder film-formation across five distinct mechanisms — epoxy-amine catalytic crosslinking, ethyl-silicate moisture-cure condensation, rosin/self-polishing-copolymer controlled seawater hydrolysis, polydimethylsiloxane condensation/addition cure, and alkyd/acrylic oxidative cure or coalescence; PVC deliberately held above CPVC for zinc-silicate galvanic continuity and antifouling biocide release, a category-defining departure from the barrier-coating PVC logic used elsewhere in the series; cathodic disbondment resistance under sacrificial-anode and impressed-current cathodic protection; tin-free biocide packages (cuprous oxide, zinc pyrithione, DCOIT, tralopyril) compliant with the IMO AFS Convention; and the aluminium-hull galvanic-safety constraint that excludes copper-based biocides entirely from a dedicated sub-category.
Inside the formulations
All 40 formulations are structured across Economy, Mid-range, Premium, and Specialty tiers spanning the 10 sub-categories. Each formulation provides an IUPAC-named component table with % w/w, PVC/VOC and DFT recommendations, manufacturing method, and QC release targets citing the relevant IMO, ISO, or ASTM test method; every 2-pack epoxy and condensation/addition-cure silicone system is presented as a linked Part A/Part B table with mix ratio stated.
What you get
- 40 starting-point marine coating and antifouling formulations across 10 sub-categories
- Full WB/SB coverage for epoxy anticorrosive primer and boot-top enamel, with documented chemistry-family exceptions for zinc silicate, tie-coats, antifouling, and fouling-release
- IMO PSPC-compliant (MSC.215(82)/MSC.288(87)) high-build epoxy ballast tank and cargo oil tank lining with mandatory stripe-coat guidance
- Tin-free biocidal antifouling spanning the CDP-to-SPC spectrum, plus biocide-free silicone fouling-release including fluorosilicone and amphiphilic hybrid grades
- Copper-free antifouling engineered specifically to avoid galvanic corrosion on aluminium hulls
- Cathodic disbondment, biocide release rate, and fouling-release QC targets citing ISO 15711, ISO 15181, and ASTM D6442
- IUPAC-named component tables with % w/w, PVC/VOC/DFT recommendations per formulation block
- Manufacturing SOPs and a troubleshooting guide covering cathodic disbondment, weld porosity, stripe-coat holidays, antifouling exhaustion, and aluminium galvanic corrosion
Technical details
- Format
- A4 PDF · instant digital download
- Extent
- ~140 pages · 40 formulations · 10 categories
- System types
- Anticorrosive primer · Zinc silicate shop primer · Ballast tank lining · Tie-coat · Antifouling (CDP–SPC) · Silicone fouling-release · Boot-top enamel
- Standards
- IMO PSPC MSC.215(82)/MSC.288(87) · IMO AFS Convention · ISO 12944/20340/15711/15181/9227 · ASTM D4541/D6442/D3623/D2240/D5155/D523 · NORSOK M-501
- Tiers
- Economy (CDP ablative, standard epoxy) · Mid-range (MIO-reinforced, dual-biocide) · Premium (SPC, phenalkamine-cured, addition-cure silicone) · Specialty (IMO PSPC, offshore/NORSOK, triple-biocide)
- Audience
- Marine and offshore coatings manufacturers · shipyard/drydock technical teams · coatings entrepreneurs
- Series
- Paints & Coatings Handbook Series · Volume 4 — Specialty & Functional Coatings
Formulate the full marine coating stack — anticorrosive primer, zinc silicate shop primer, IMO PSPC ballast tank lining, tie-coats, tin-free antifouling from CDP through self-polishing copolymer, silicone fouling-release, and copper-free antifouling for aluminium hulls — with 40 validated starting-point formulations spanning ten distinct product categories.
Who is this book for?
Marine & Offshore Coatings Manufacturer
You manufacture protective and antifouling coatings for shipyards and need validated starting formulations across epoxy anticorrosive primer, zinc silicate shop primer, IMO PSPC ballast tank lining, and tin-free antifouling — with cathodic disbondment, biocide release rate, and DFT targets tied to named test methods.
Shipyard / Drydock Technical Team
You specify or apply hull coating systems for newbuild or repaint drydocking and need a technical reference on chemistry selection — cathodic disbondment resistance under CP, stripe-coat compliance for IMO PSPC ballast tanks, tie-coat compatibility ahead of fouling-release topcoats — to evaluate supplier systems and troubleshoot in-service failures.
Coatings Brand Entrepreneur
You want to add marine and antifouling coatings to your portfolio, tiered from economy CDP ablative antifouling to specialty self-polishing copolymer and silicone fouling-release, backed by IMO PSPC, AFS Convention, and ISO/ASTM-aligned formulations.
Table of Contents
- Cathodic disbondment resistance and IMO PSPC/AFS Convention compliance as the category-defining constraints
- PVC deliberately held above CPVC for both zinc-silicate galvanic continuity and antifouling biocide release/self-polishing rate
- Binder chemistry across the book: epoxy, ethyl silicate, rosin/self-polishing copolymer, polydimethylsiloxane, alkyd/acrylic
- Galvanic and biocide compatibility constraints: steel vs. aluminium substrates
- Specifications and standards: IMO Resolution MSC.215(82)/MSC.288(87), IMO AFS Convention, ISO 12944/20340, NORSOK M-501
- Waterborne and solventborne epoxy anticorrosive primer for underwater hull steel, phenalkamine-cured for low cathodic disbondment
- Inorganic zinc silicate shop primer — self-cured, fast-weld-through, and acid-catalysed post-cured grades
- IMO PSPC-compliant high-build epoxy ballast tank and cargo oil tank lining with mandatory stripe-coating
- Silane-modified tie-coats bridging epoxy anticorrosive primer to biocidal antifouling and silicone fouling-release topcoats
- Tin-free biocidal antifouling spanning controlled-depletion-polymer (CDP) soluble-matrix through self-polishing copolymer (SPC) chemistry
- Biocide-free polydimethylsiloxane silicone fouling-release, including fluorosilicone and amphiphilic hybrid grades
- Copper-free antifouling engineered specifically to avoid galvanic corrosion on aluminium hulls
- Waterborne and solventborne boot-top/waterline enamel, including 2-pack aliphatic polyurethane and waterborne PUD grades
- Manufacturing SOPs: mill-base/let-down processing, zinc dust handling, platinum-catalyst contamination controls for addition-cure silicone
- QC testing: cathodic disbondment (ISO 15711), biocide release rate (ISO 15181), fouling-release performance (ASTM D6442)
- Cathodic disbondment, amine blush, and weld porosity on shop-primed steel
- IMO PSPC stripe-coat holidays and premature antifouling biocide exhaustion
- Silicone tie-coat delamination and platinum-catalyst poisoning
- Aluminium-hull galvanic corrosion from copper-contaminated antifouling
See what's inside
Frequently asked questions
They are validated starting points. You will need to bench-test and adapt treat rates to your specific raw material lots, but you start from a working formulation — not a blank sheet.
The handbook is a PDF — high-resolution A4, printable, with bookmarks and a linked table of contents. You receive an instant download link and it is also available in your library indefinitely.
Up to 5 downloads are included with your purchase. If you need more, contact us and we will reset your download limit.
Yes. The handbook opens with a fundamentals section that explains the underlying chemistry and ingredient functions before presenting formulations — so beginners can follow the rationale, not just the recipe.
Because each has a genuine, documented chemistry constraint rather than an arbitrary omission. Ethyl-silicate zinc silicate cure depends on a hydrolysed tetraethyl-orthosilicate/alcohol system with no established aqueous-emulsion equivalent — the same exception the series applies to zinc-rich primers generally. Tie-coats depend on a physically drying, non-reactive resin (or, for fouling-release compatibility, a reactive silane) with no established waterborne marine equivalent. Antifouling and silicone fouling-release depend on continuous, controlled seawater hydrolysis or a non-aqueous elastomer cure, and neither has a commercially established waterborne counterpart. The book states each exception explicitly rather than forcing a waterborne variant that doesn’t exist in real practice. Waterborne chemistry is fully covered where it is commercially real — the epoxy anticorrosive primer and boot-top enamel sub-categories each carry a complete waterborne cluster alongside their solventborne counterpart.
Every antifouling and fouling-release formulation in this book is tin-free by design, consistent with the IMO AFS Convention’s prohibition on organotin (TBT) biocides. The biocidal antifouling sub-category is structured as a single continuum from controlled-depletion-polymer (CDP, rosin-based soluble-matrix) chemistry at Economy/Mid-range through true self-polishing copolymer (SPC, copper-carboxylate acrylate) chemistry at Premium/Specialty — mirroring how the commercial antifouling market itself segments by service life and chemistry, rather than varying tier within one fixed binder as most other sub-categories in the series do.
Because there is no safe intermediate copper loading for an aluminium substrate — aluminium is anodic to copper in the galvanic series, so any copper-bearing coating on an aluminium hull risks accelerated corrosion at every holiday, scratch, or thin spot where the film contacts bare metal in seawater. Section 08’s four formulations exclude cuprous oxide and cuprous thiocyanate entirely, relying instead on zinc pyrithione, zineb, DCOIT, and tralopyril as primary rather than booster biocides, with batch-release copper-content testing recommended as a QC target.
Yes — Section 05 includes a premium silane-modified epoxy tie-coat (F19) and a universal biocidal/fouling-release-compatible hybrid grade (F20) specifically because polydimethylsiloxane fouling-release topcoats do not adhere adequately to cured epoxy anticorrosive primer or to the vinyl tie-coats used elsewhere in the book. The aminosilane coupling agent in F19/F20 presents reactive surface silanol groups that bond covalently into the silicone topcoat during its own cure, which is the specific mechanism Section 07’s entire fouling-release performance depends on — a detail that is easy to miss and causes real field delamination failures when a generic tie-coat is substituted.
