Epoxy Coatings Formulations is a focused technical reference for the full range of protective and industrial epoxy coating systems — anti-corrosive primers (conventional and zinc-rich), high-build industrial maintenance coatings and epoxy mastics, self-levelling and broadcast flooring systems, anti-static ESD and food-grade floor coatings, and tank linings and chemical-resistant coatings (epoxy novolac, bisphenol-F and solvent-free grades). Every formulation is a two-pack starting point structured as Part A and Part B with stoichiometrically calculated mix ratios, validated for use by coatings manufacturers, industrial flooring contractors and plant engineers.
The handbook develops epoxy resin chemistry from first principles: the bisphenol-A diglycidyl ether (BADGE) EEW–viscosity–Tg relationship, the higher chemical resistance and lower viscosity of bisphenol-F resins, and the multi-functional crosslink density of epoxy novolac for aggressive immersion service. The curing agent matrix — aliphatic and cycloaliphatic amines, polyamides (flexibility and adhesion), amidoamines (fast cure, water tolerance), Mannich base (low-temperature, phenalkamine variants), anhydrides (electrical grade) — is treated mechanistically with stoichiometry and AHEW calculation explained for each system. Zinc-rich primer cathodic protection, pigment volume concentration and zinc dust particle size are developed for both inorganic and organic zinc-rich grades. Flooring technology covers self-levelling epoxy flow and levelling, quartz-broadcast decorative systems, ESD conductive network design, and food-grade compliance. Anti-corrosion performance is framed through ISO 12944 corrosivity categories C1–Im3.
All formulations are structured as Part A (resin / pigment / extender — % w/w) and Part B (hardener — % w/w) with mix ratio, induction time, pot life at 23°C, application temperature range, DFT target, QC targets (gel time, adhesion, hardness, chemical resistance) and the stoichiometric basis for the mix ratio. Surface preparation requirements (Sa 2.5, Sa 3, SSPC-SP 6) and application conditions (ambient temperature, substrate temperature, dew point clearance) are specified for each system.
Epoxy coatings fail for three reasons — wrong resin-hardener stoichiometry, inadequate surface preparation and incorrect cure schedule. This handbook solves all three for every epoxy application: primers, maintenance coatings, flooring and tank linings.
You make anti-corrosive and protective coatings and want a technically rigorous reference for developing two-pack epoxy systems — zinc-rich primers, high-build mid-coats, epoxy mastic and fast-cure maintenance formulations — across solventborne and waterborne platforms.
You install or supply industrial epoxy flooring and want to develop or private-label your own self-levelling, broadcast quartz, anti-static ESD and food-grade floor coating systems with verified mix ratios, cure profiles and substrate preparation standards.
You specify coatings for tank linings, pipe coatings and chemical-resistant surfaces in food, pharmaceutical, water or petrochemical plants — you need formulation-level understanding of epoxy novolac, bisphenol-F and solvent-free lining chemistry to evaluate products and diagnose failures.
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.
Yes. Every two-component formulation is structured as Part A (resin, pigment, extender) and Part B (hardener/curing agent) with stoichiometrically calculated mix ratios by weight and volume, induction/sweat-in time, pot life at 23°C and application window guidance.
Yes. For anti-corrosive primers and floor coatings where waterborne systems are technically viable, both waterborne (BADGE emulsion + cycloaliphatic amine dispersion) and solventborne (BADGE in aromatic/ketone solvents + polyamide hardener) formulations are provided with performance comparison notes.
Zinc-rich epoxy primers — inorganic (85% Zn in dry film) and organic (40–60% Zn) — provide cathodic protection to steel in addition to barrier effect, and are weldable without significant fume increase. Conventional epoxy anti-corrosive primers rely on barrier and inhibitive pigments (zinc phosphate, strontium chromate-free alternatives). Both are formulated in this handbook with their intended service environment defined.
Yes. A food-grade epoxy floor coating is formulated to comply with FDA 21 CFR and EU EC 1935/2004 food-contact material regulations, using non-toxic curing agents (cycloaliphatic diamine or phenalkamine), and a separate NSF 61-compliant solvent-free lining is provided for potable water contact.
Yes. Epoxy novolac (phenol-formaldehyde glycidyl ether, multi-functional EEW 170–180) provides high crosslink density for immersion in acids, alkalis, solvents and oxidising media. Bisphenol-F has lower viscosity than BADGE, enabling higher solids and thicker films without solvent. Both are formulated as tank and vessel linings with chemical resistance charts.