ACRYLIC RESINS

Acrylic Resins are polymers and copolymers based primarily on acrylic acid, methacrylic acid, and their ester monomers.
Acrylic Resins function as binders, film formers, adhesion promoters, pigment carriers, and reactive polymer components in coatings, inks, adhesives, construction materials, textiles, paper, and specialised industrial products.
Monomer composition, molecular weight, glass-transition temperature, functional groups, carrier system, and curing mechanism determine the performance and commercial suitability of each grade.

CHEMICAL IDENTITY AND COMMON NAMES

Acrylic Resins are a polymer family rather than one chemically uniform substance.
The family includes thermoplastic acrylic polymers, crosslinkable acrylic copolymers, waterborne acrylic emulsions, solventborne acrylic solutions, solid acrylic resins, acrylic polyols, and specialised reactive grades.
Pure acrylic resins contain predominantly acrylic and methacrylic monomers.
Styrene-acrylic, vinyl-acrylic, silicone-acrylic, and other modified products incorporate additional monomers to achieve specific cost, hardness, adhesion, water-resistance, or application characteristics.

Synonyms and Common Names: Acrylic resin, Acrylic polymer resin, Acrylate resin, Polyacrylate resin, Acrylic copolymer resin, Acrylate copolymer resin, Acrylic binder resin, Acrylic coating resin, Acrylic film-forming resin, Acrylic polymer binder, Acrylic emulsion resin, Acrylic latex resin, Acrylic solution resin, Solid acrylic resin, Thermoplastic acrylic resin, Thermosetting acrylic resin

TECHNICAL IDENTIFICATION

Chemical Nature: Polymers and copolymers of acrylic and methacrylic monomers
CAS Number: Composition-specific
EC / EINECS Number: Composition-specific
Molecular Formula: Variable polymer composition
Molar Mass: Molecular-weight distribution defined by grade
Polymerisation Type: Primarily free-radical addition polymerisation
Polymer Backbone: Predominantly carbon-to-carbon
Commercial Forms: Waterborne emulsion, aqueous dispersion, water-reducible solution, solventborne solution, beads, flakes, powder, pellets, and reactive liquid
Film Formation: Physical drying, particle coalescence, chemical crosslinking, thermal curing, or radiation curing
Ionic Character of Waterborne Grades: Anionic, nonionic, cationic, or specially stabilised
Principal Functional Groups: Ester, carboxyl, hydroxyl, epoxy, amide, acetoacetoxy, and polymerisable acrylate groups

MONOMER COMPOSITION

Methyl methacrylate is commonly used to increase hardness, clarity, glass-transition temperature, block resistance, and surface durability.
Butyl acrylate, ethyl acrylate, and 2-ethylhexyl acrylate introduce softness, flexibility, impact resistance, and low-temperature film formation.
Acrylic acid and methacrylic acid introduce carboxyl functionality, polarity, adhesion, pigment interaction, alkali-neutralised water dispersibility, and crosslinking sites.

Hydroxyethyl acrylate, hydroxyethyl methacrylate, and hydroxypropyl methacrylate introduce hydroxyl groups for reaction with polyisocyanates or amino resins.
Glycidyl methacrylate introduces epoxy functionality for reaction with carboxylic acids, amines, and other nucleophiles.
Styrene increases hardness, water resistance, and cost efficiency in styrene-acrylic copolymers.
Vinyl acetate provides economical binders for interior coatings and general-purpose applications when copolymerised with acrylic monomers.
Silicone-containing monomers can improve water repellency, dirt resistance, and exterior durability in silicone-acrylic systems.

PHYSICAL AND CHEMICAL PROPERTIES

Product Type: Synthetic polymer or copolymer resin
Dry-Film Appearance: Generally clear and colourless unless pigmented or modified
Waterborne Appearance: Translucent to milky-white liquid
Solution-Resin Appearance: Clear, colourless to pale yellow liquid
Solid-Resin Appearance: Clear to white beads, granules, flakes, pellets, or powder
Waterborne Polymer Solids: Commonly 35–60%
Solution-Resin Nonvolatile Content: Commonly 40–70%
Solid-Resin Content: 100% polymer
Waterborne Density: Commonly approximately 1.02–1.10 g/cm³
Waterborne pH: Commonly neutral to mildly alkaline for stabilised anionic emulsions
Glass-Transition Temperature: Engineered through monomer composition
Minimum Film-Forming Temperature: Defined for each waterborne dispersion grade
Molecular Weight: Controlled according to film formation, solution viscosity, mechanical strength, and processing requirements
Acid Value: Expressed as mg KOH required to neutralise the acidic groups in 1 g of resin
Hydroxyl Value: Expressed as mg KOH equivalent per gram of resin
Viscosity: Defined at a stated solids content, temperature, spindle, and rotational speed
Particle Size: A critical parameter for waterborne emulsions and dispersions
Solubility: Determined by polymer composition, molecular weight, functionality, and solvent system
Weathering Resistance: Strong in appropriately designed acrylic and methacrylic grades
Ultraviolet Resistance: Strong in pure acrylic grades containing weather-stable monomer combinations
Colour Retention: Strong in non-yellowing acrylic coating systems
Gloss Potential: High in compatible, well-levelled formulations
Thermal Behaviour: Thermoplastic grades soften with heat, while crosslinked grades form permanent networks

No single melting point, boiling point, flash point, density, viscosity, or solubility value represents the complete Acrylic Resins family.
These properties are defined directly by the selected polymer composition and commercial form.

FUNCTIONAL CHARACTERISTICS

Acrylic polymers contain a stable carbon-to-carbon backbone that supports outdoor durability, oxidation resistance, and long-term colour retention.
The ester side groups permit broad control over hardness, flexibility, polarity, adhesion, and compatibility.
Hard monomers increase glass-transition temperature, surface hardness, block resistance, abrasion resistance, and cohesive strength.
Soft monomers lower glass-transition temperature and improve flexibility, impact resistance, film formation, and pressure-sensitive tack.
Functional monomers introduce sites for neutralisation, substrate interaction, pigment dispersion, or chemical crosslinking.

Crosslinking increases solvent resistance, chemical resistance, water resistance, hardness, heat resistance, and resistance to permanent deformation.
Thermoplastic grades retain melt and solvent sensitivity because the polymer chains remain physically associated rather than chemically crosslinked.
Thermosetting grades undergo irreversible network formation during ambient, thermal, or radiation curing.

PRODUCTION

Acrylic Resins are primarily manufactured through controlled free-radical polymerisation.
Initiators generate reactive radicals that add to acrylic, methacrylic, and selected vinyl monomers.
Monomer selection and feed ratio establish the polymer composition and glass-transition temperature.
Initiator concentration, reaction temperature, chain-transfer agents, and feed profile control molecular weight and molecular-weight distribution.
Solution polymerisation produces acrylic polymers directly in an organic solvent or solvent blend.
The resulting solution can be adjusted to the required solids content, viscosity, acid value, hydroxyl value, and solvent composition.
Emulsion polymerisation uses water as the continuous phase together with monomers, surfactants, water-soluble initiators, buffers, and process-control additives.
Polymerisation occurs within stabilised particles and produces an acrylic latex or polymer dispersion.

Seeded, core-shell, gradient, and multistage emulsion processes can combine hardness, flexibility, adhesion, and film-forming properties within one particle system.
Suspension polymerisation produces discrete polymer beads that can be isolated, washed, dried, and classified.
Bulk polymerisation produces high-solids or solid acrylic materials without a permanent solvent carrier.
Post-polymerisation operations can include residual-monomer reduction, neutralisation, filtration, solids adjustment, pH adjustment, and addition of storage-protection components.

COMMERCIAL TYPES

Thermoplastic acrylic resins

Thermoplastic Acrylic Resins form films through solvent evaporation, water evaporation, particle coalescence, or melt processing.
They provide fast drying, clarity, gloss, colour retention, weather resistance, and straightforward single-component application.
They remain susceptible to softening by heat or suitable solvents because no permanent crosslinked network is formed.

Thermosetting acrylic resins

Thermosetting Acrylic Resins contain reactive groups that form chemical crosslinks during curing.
Crosslinking provides higher hardness, solvent resistance, chemical resistance, abrasion resistance, heat resistance, and block resistance.
These grades are used in one-component baking systems, two-component polyurethane systems, epoxy-reactive systems, and self-crosslinking waterborne coatings.

Waterborne acrylic emulsions

Waterborne acrylic emulsions contain stabilised polymer particles dispersed in water.
The particles approach each other as water evaporates and coalesce into a continuous film above the minimum film-forming temperature.
Coalescent demand, particle size, surfactant system, glass-transition temperature, pH, and application temperature determine film development.
Waterborne acrylic dispersions support low-VOC coatings, adhesives, construction compounds, textile binders, and paper applications.

Solventborne acrylic resins

Solventborne Acrylic Resins are supplied as polymers dissolved in an organic solvent or solvent blend.
They provide rapid wetting, good flow, strong clarity, controlled drying, and broad substrate application.
Solvent type and evaporation profile influence viscosity, spray behaviour, levelling, film formation, and VOC content.

Solid acrylic resins

Solid Acrylic Resins are supplied as beads, granules, flakes, powders, or pellets.
They are dissolved, dispersed, melted, compounded, or extruded during formulation and processing.
Solid grades are used in printing inks, lacquers, adhesives, road-marking coatings, powder coatings, plastics, and resin modification.

Hydroxyl-functional acrylic resins

Hydroxyl-functional Acrylic Resins are acrylic polyols designed primarily for reaction with polyisocyanates or amino crosslinkers.
Hydroxyl value and hydroxyl equivalent weight determine crosslinker demand.
Two-component acrylic polyurethane systems provide high gloss, outdoor durability, chemical resistance, scratch resistance, and mechanical strength.

Carboxyl-functional acrylic resins

Carboxyl-functional grades provide adhesion, pigment interaction, neutralised water dispersibility, and reactive sites.
Acid value controls the amount of carboxyl functionality and affects water sensitivity, neutralisation demand, viscosity, and crosslinking behaviour.
Carboxyl groups can react with epoxy, carbodiimide, aziridine, and selected metal-ion crosslinking systems.

Self-crosslinking acrylic resins

Self-crosslinking grades contain complementary reactive groups or latent crosslinking functionality within the resin system.
They develop improved water, solvent, wash, block, and abrasion resistance without a separately packaged curing agent.
Cure temperature and film-drying conditions remain important to full performance development.

Modified acrylic resins

Styrene-acrylic resins combine acrylic monomers with styrene to provide hardness, water resistance, alkali resistance, and cost-efficient binding.
Vinyl-acrylic resins are widely used in interior architectural coatings, general adhesives, textile treatments, and economical binder systems.
Silicone-acrylic resins are selected for exterior coatings requiring improved water repellency, weatherability, and dirt resistance.
Epoxy-acrylic, urethane-acrylic, and polyester-acrylic hybrids combine acrylic weatherability with additional adhesion, toughness, flexibility, or curing characteristics.

APPLICATIONS AND INDUSTRIES

Architectural paints and coatings

Acrylic Resins are primary binders in interior and exterior wall paints, primers, sealers, textured coatings, façade coatings, and decorative finishes.
The resin binds pigments and fillers while forming the continuous film that adheres to plaster, masonry, concrete, gypsum board, and previously coated surfaces.
Pure acrylic emulsions are selected for exterior durability, ultraviolet resistance, colour retention, water resistance, and wet adhesion.
Styrene-acrylic and vinyl-acrylic binders serve interior and cost-balanced architectural formulations.
Glass-transition temperature and minimum film-forming temperature must balance low-temperature application with hardness, dirt pickup resistance, and block resistance.

Industrial metal coatings

Hydroxyl-functional Acrylic Resins are used with polyisocyanate curing agents in durable two-component industrial topcoats.
Crosslinked films provide gloss, colour retention, hardness, chemical resistance, abrasion resistance, and exterior durability.
Applications include machinery, agricultural equipment, commercial vehicles, steel structures, general metal components, and protective clearcoats.
Carboxyl-functional and adhesion-promoted grades improve wetting and bonding to prepared metal surfaces.

Automotive coatings

Acrylic Resins are used in automotive original-equipment and refinish primers, basecoats, topcoats, and clearcoats.
Thermosetting acrylic-amino systems provide baking-cure hardness and appearance.
Acrylic polyols crosslinked with aliphatic polyisocyanates provide gloss, weather resistance, scratch resistance, and colour stability in two-component coatings.
High-solids grades support reduced solvent demand while maintaining spray application and film appearance.

Wood and furniture coatings

Waterborne and solventborne Acrylic Resins are used in transparent and pigmented wood coatings.
They provide clarity, rapid drying, colour stability, grain definition, block resistance, and resistance to household staining.
Soft grades improve flexibility and adhesion, while harder or crosslinked grades improve scratch, chemical, and blocking resistance.
The selected resin must accommodate the movement, porosity, and extractive content of the wood substrate.

Plastic coatings

Acrylic Resins provide clear and pigmented finishes for compatible plastic components.
They contribute gloss, colour development, ultraviolet resistance, fast drying, and surface protection.
Polymer polarity, solvent strength, film flexibility, and glass-transition temperature are selected for the plastic substrate and moulded-part geometry.

Printing inks and overprint varnishes

Solid, solution, and water-reducible Acrylic Resins are widely used as binders and pigment-dispersing resins in printing inks.
They support colour strength, gloss, transparency, print definition, adhesion, drying, rub resistance, and resolubility.
Acid-functional solid resins can be neutralised with volatile bases to produce water-reducible ink vehicles.
Applications include flexographic inks, gravure inks, screen inks, packaging inks, ceramic-transfer inks, and overprint varnishes.

Adhesives and pressure-sensitive adhesives

Low-glass-transition Acrylic Resins are used in pressure-sensitive adhesives for labels, tapes, protective films, laminates, and specialty adhesive constructions.
Soft acrylate monomers provide tack and substrate wetting.
Hard monomers, molecular weight, and controlled crosslinking provide cohesive strength and shear resistance.
The balance among tack, peel adhesion, shear strength, ageing resistance, and removability determines grade selection.

Construction materials

Acrylic emulsions are used in cement modification, repair mortars, waterproof coatings, roof coatings, flexible membranes, plasters, sealers, and construction adhesives.
They improve adhesion, flexibility, water resistance, abrasion resistance, crack accommodation, and cohesion.
Alkali resistance is important for products applied to fresh concrete, cementitious mortar, masonry, and mineral substrates.
Particle size, solids, ionic stability, and compatibility with cement, fillers, pigments, and additives govern formulation performance.

Road-marking coatings

Thermoplastic solventborne Acrylic Resins are used in fast-drying traffic paints.
Rapid solvent release shortens the time before a marked surface can return to service.
Hardness, adhesion, weather resistance, colour retention, and abrasion resistance support use on roads, parking areas, industrial floors, and transportation infrastructure.

Textile printing and finishing

Acrylic emulsions bind pigments to natural and synthetic fibres in textile-printing pastes.
Soft grades preserve fabric handle and flexibility, while harder or self-crosslinking grades improve rubbing, washing, and dry-cleaning resistance.
Acrylic binders are also used in textile backcoatings, blackout coatings, flocking, lamination, and technical-fabric finishing.
Shear stability, thickener response, film softness, cure behaviour, and compatibility with printing auxiliaries are key selection parameters.

Nonwoven materials

Acrylic binders bond fibres in filtration media, wipes, interlinings, insulation products, coated fabrics, and technical nonwovens.
Low-viscosity dispersions support impregnation, while higher-solids systems support spray, foam, and coating processes.
Glass-transition temperature and crosslink density determine softness, stiffness, tensile strength, wet strength, and heat resistance.

Paper and packaging coatings

Acrylic dispersions provide pigment binding, surface strength, printability, gloss, water resistance, grease resistance, and heat-seal behaviour in paper and packaging applications.
Water-reducible solid acrylic resins are also used in inks and overprint coatings.
Food-contact packaging applications require grades with specifically documented migration, residual-monomer, additive, and regulatory characteristics.

Leather finishing

Acrylic polymer dispersions are used in leather impregnation, basecoats, pigment coats, and surface finishes.
They improve grain adhesion, flexibility, filling, pigment binding, abrasion resistance, and coating continuity.
Softness, penetration, particle size, film clarity, and compatibility with polyurethane dispersions influence the final handle and appearance.

Powder coatings

Solid functional Acrylic Resins are used in thermosetting powder-coating systems.
Glycidyl, hydroxyl, and carboxyl functionality permits crosslinking during baking.
Acrylic powder coatings provide gloss, clarity, stain resistance, weatherability, and controlled surface appearance.

Moulding and transparent plastic applications

Polymethyl methacrylate and related thermoplastic acrylic resins are processed into transparent sheets, profiles, optical components, display materials, lighting parts, and moulded articles.
These grades are selected by molecular weight, melt-flow behaviour, optical clarity, impact modification, heat resistance, and colour.
Coating and emulsion grades are not interchangeable with extrusion or injection-moulding grades.

Dental and medical acrylics

Specialised polymethyl methacrylate systems are used in denture bases, provisional restorations, orthodontic appliances, bone-cement systems, and medical components.
These applications require separately controlled monomer purity, residual monomer, polymer particle size, initiator system, colour, mechanical properties, and biocompatibility documentation.
General industrial Acrylic Resins are not used as substitutes for qualified dental or medical grades.

GRADE SELECTION AND PRODUCT SUITABILITY

Pure Acrylic Grade

Pure acrylic grades provide strong ultraviolet resistance, weatherability, gloss retention, colour stability, and exterior durability.
They are selected for exterior architectural coatings, transparent finishes, roof coatings, industrial topcoats, and applications exposed to sunlight.

Styrene-Acrylic Grade

Styrene-acrylic grades provide hardness, water resistance, alkali resistance, pigment binding, and economical formulation.
They are used in architectural paints, primers, textured coatings, construction compounds, paper coatings, and adhesives.

Vinyl-Acrylic Grade

Vinyl-acrylic grades provide balanced application properties and economical film formation in interior coatings, general adhesives, textiles, and paper products.
They are primarily selected where interior performance and formulation economy are more important than maximum exterior durability.

Thermoplastic Grade

Thermoplastic grades provide rapid physical drying, clarity, resolubility, and straightforward one-component processing.
Molecular weight and glass-transition temperature determine solution viscosity, film hardness, drying, and solvent resistance.

Hydroxyl Acrylic Grade

Hydroxyl acrylic grades are selected by solids, hydroxyl value, hydroxyl equivalent weight, molecular weight, viscosity, solvent composition, and intended curing agent.
The NCO-to-OH ratio controls crosslink density, pot life, hardness, flexibility, chemical resistance, and cure development in polyurethane systems.

Carboxyl Acrylic Grade

Carboxyl-functional grades are selected by acid value, neutralisation requirement, water resolubility, adhesion, and crosslinking chemistry.
Higher acid functionality improves neutralisation and pigment interaction but also increases polarity and water sensitivity before complete cure.

Self-Crosslinking Grade

Self-crosslinking grades support one-component formulations requiring stronger wash, solvent, water, block, and abrasion resistance after cure.
The cure schedule must match the temperature tolerance of the substrate and production process.

Pressure-Sensitive Adhesive Grade

Acrylic pressure-sensitive adhesive grades are defined by tack, peel adhesion, shear strength, coat weight, molecular weight, crosslinking response, and service temperature.
Removable, permanent, repositionable, low-surface-energy, and high-shear adhesives require different polymer designs.

FORMULATION AND PROCESS CONSIDERATIONS

Waterborne Acrylic Resins require control of pH, ionic compatibility, shear, temperature, and addition order.
Rapid addition of strong acids, concentrated electrolytes, incompatible surfactants, or multivalent ions can destabilise an emulsion.
Pigments and fillers should be dispersed with additives compatible with the resin’s ionic character.
The application and substrate temperature must remain above the effective minimum film-forming temperature.
Application below the film-forming range can produce cracking, powdery films, poor gloss, weak adhesion, and reduced water resistance.
Coalescents lower the effective film-forming temperature and assist particle deformation during drying.

Excessive coalescent can slow hardness development, increase dirt pickup, or reduce early block resistance.
Solventborne Acrylic Resins require a solvent blend with adequate solvency and a balanced evaporation profile.
Fast solvents improve early drying but can cause dry spray, poor flow, pinholing, or surface defects.
Slow solvents improve levelling and application latitude but extend drying and increase retained solvent.
Hydroxyl acrylic systems require accurate crosslinker proportioning and thorough mixing.

The mixed coating must be applied within its defined pot life.
Baking acrylic systems require coordinated resin functionality, crosslinker type, catalyst concentration, film thickness, oven temperature, and curing time.

QUALITY, SPECIFICATIONS AND DOCUMENTATION

Nonvolatile content determines the quantity of film-forming polymer delivered by a liquid resin.
Viscosity influences pumping, mixing, pigment dispersion, application, coating weight, and spray behaviour.
Glass-transition temperature controls hardness, flexibility, tack, block resistance, and low-temperature performance.
Minimum film-forming temperature determines the lowest practical temperature for continuous film formation from a dispersion.
Acid value indicates carboxyl functionality and affects neutralisation, water dispersibility, adhesion, and crosslinking.
Hydroxyl value establishes the reactive OH content of acrylic polyols and determines curing-agent demand.
Molecular weight and molecular-weight distribution affect solution viscosity, mechanical strength, flow, adhesion, tack, and resolubility.

Particle size and particle-size distribution influence emulsion stability, penetration, gloss, film formation, and rheology.
Waterborne resin evaluation includes solids, pH, viscosity, density, particle size, coagulum, freeze-thaw stability, mechanical stability, and residual monomer.
Solution-resin evaluation includes solids, viscosity, colour, acid value, hydroxyl value, molecular weight, solvent composition, and residual monomer.
Solid-resin evaluation includes appearance, softening behaviour, glass-transition temperature, molecular weight, acid value, moisture, bulk density, and solution clarity.
A Certificate of Analysis provides batch-specific results for the principal release parameters.
A Technical Data Sheet defines resin chemistry, commercial form, application characteristics, physical properties, and formulation guidance.
A Safety Data Sheet identifies the hazards associated with the polymer, carrier, neutraliser, preservative, residual monomers, and other formulation components.

SAFETY AND REGULATORY CONSIDERATIONS

Acrylic Resins do not have one universal hazard classification because the family includes waterborne dispersions, solvent solutions, solid polymers, reactive oligomers, and functional crosslinking systems.
Waterborne grades based predominantly on water have a lower fire load than solventborne resin solutions.
Aerosol or spray mist should still be controlled through effective ventilation.
Preservatives, residual monomers, neutralising agents, and co-solvents can cause irritation or sensitisation.
Solventborne Acrylic Resins can be flammable or combustible and can produce hazardous vapour concentrations.
They require ignition control, grounded transfer equipment, explosion-protected ventilation, and suitable respiratory protection.

Solid powders and fine beads can generate nuisance dust and combustible dust clouds.
Dust formation should be controlled through enclosed charging, local exhaust, grounding, and careful housekeeping.
Reactive acrylic grades and separately supplied curing agents require controls appropriate to their functional chemistry.
Isocyanates, amino resins, epoxy curing agents, aziridines, carbodiimides, peroxides, and photoinitiators each introduce their own handling requirements.
Liquid Acrylic Resins should not be released into drains or natural waterways.
Waterborne emulsions can coagulate and produce persistent solids in wastewater systems.

FIRST AID

Inhalation: Move the affected person to fresh air and keep the person comfortable for breathing.
Obtain medical attention following significant inhalation of solvent vapour, spray mist, decomposition fumes, or dust.

Skin Contact: Remove contaminated clothing and wash the skin thoroughly with soap and water.
Obtain medical attention if irritation, redness, or an allergic reaction develops.

Eye Contact: Rinse cautiously with clean water for at least 15 minutes.
Remove contact lenses when this can be done easily and obtain medical attention for continuing discomfort.

Ingestion: Rinse the mouth and do not induce vomiting.
Obtain immediate medical assistance after ingestion of solventborne, reactive, or crosslinker-containing material.

HANDLING AND STORAGE

Waterborne Acrylic Resins should be stored in tightly closed containers between 5 °C and 35 °C.
Protect emulsions and dispersions from freezing, direct sunlight, excessive heat, and microbiological contamination.
Freezing can destabilise the particle system and cause irreversible coagulation, grit, viscosity change, and loss of film-forming performance.
Use clean equipment and avoid returning contaminated material to the original container.
Gentle mixing restores uniformity after normal storage without introducing excessive foam.
Solventborne Acrylic Resins should be stored in a cool, dry, well-ventilated area away from flames, sparks, hot surfaces, and oxidising agents.

Containers, pumps, and transfer lines should be grounded and bonded.
Keep solvent-resin containers tightly closed to control vapour release and prevent solvent loss.
Solid Acrylic Resins should be stored dry and protected from heat, moisture, contamination, and dust accumulation.
Reactive grades should be segregated from incompatible crosslinkers, catalysts, initiators, acids, bases, and oxidising agents.

PACKAGING AND PROCUREMENT CONSIDERATIONS

Waterborne Acrylic Resins are commonly supplied in pails, drums, intermediate bulk containers, and dedicated bulk systems.
Solventborne grades require packaging approved for their solvent composition and fire classification.
Solid resins are supplied in moisture-resistant bags, lined cartons, fibre drums, or bulk containers.
Procurement requests should identify the required resin chemistry, carrier, polymer solids, viscosity, glass-transition temperature, minimum film-forming temperature, molecular weight, acid value, hydroxyl value, particle size, ionic character, pH, solvent composition, and curing mechanism.
The intended substrate, application method, drying conditions, film hardness, flexibility, gloss, adhesion, weatherability, chemical resistance, and regulatory requirements define the appropriate grade.

Ataman Kimya supports the selection of Acrylic Resins for coatings, printing inks, adhesives, construction materials, textiles, paper, packaging, leather, road marking, and specialised polymer applications.
Technical and commercial requests can include the intended application, resin form, functional chemistry, required specifications, documentation, packaging, destination, and annual quantity.

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