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Nonyl Acrylate

    • Product Name Nonyl Acrylate
    • Alias Acrylic acid nonyl ester
    • Einecs 268-366-7
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    823803

    Chemical Name Nonyl Acrylate
    CAS Number 2442-94-6
    Molecular Formula C12H22O2
    Molecular Weight 198.30 g/mol
    Appearance Clear colorless liquid
    Boiling Point 263°C
    Density 0.885 g/cm³ at 25°C
    Flash Point 123°C (closed cup)
    Refractive Index 1.430–1.440 at 20°C
    Solubility in Water Insoluble
    Odor Mild acrylic odor
    Purity Typically ≥ 98%
    Melting Point -57°C
    Viscosity 5.2 mPa.s at 25°C

    As an accredited Nonyl Acrylate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Nonyl Acrylate is supplied in 200 kg blue HDPE drums, featuring tight-seal lids and hazard labeling for safe chemical storage.
    Shipping Nonyl Acrylate should be shipped in tightly sealed, corrosion-resistant containers, protected from heat, ignition sources, and direct sunlight. Store and transport it as a flammable liquid, following all relevant regulations (such as ADR, IMDG, and IATA). Ensure labeling includes hazard information, and keep away from strong oxidizers and acids.
    Storage Nonyl Acrylate should be stored in a cool, well-ventilated area away from sources of heat, sparks, and direct sunlight. Keep the container tightly closed and protect it from moisture. Store it separately from oxidizers, acids, and bases. Use containers made from compatible materials, and ensure proper labeling. Avoid prolonged storage and monitor regularly for signs of polymerization or decomposition.
    Application of Nonyl Acrylate

    Applications of Nonyl Acrylate in Industrial Manufacturing

    As a manufacturer of high-purity nonyl acrylate, we support diverse industrial sectors with tailored grade selection and technical expertise. Our material integrates into downstream production lines thanks to its unique reactivity and performance within complex polymerization and compounding processes. Nonyl acrylate's branched alkyl chain structure brings enhanced flexibility, hydrophobicity, and adhesion, serving markets with demanding performance and regulatory standards.

    1. UV-Curable Coatings for Automotive Plastics

    Nonyl acrylate serves as an active monomer in formulations for UV-cured clear coats and pigmented finishes designed for automotive plastic interior and exterior components. Its incorporation impacts hardness, scratch resistance, and weatherability, allowing coating producers to meet evolving OEM requirements for both appearance and durability. Typical applications include instrument panels, dashboards, trim, and exterior door mirror housings, where performance under UV exposure is critical for product lifecycle.

    Industry compliance standards

    • OEM specifications (e.g., Daimler DBL 7381, Ford WSS-M99P55-A1)
    • ISO 11341 (Artificial weathering for plastics coatings)
    • REACH (EC 1907/2006) for chemical safety and SVHC management
    • RoHS Directive (2011/65/EU) for hazardous substance restriction

    Typical usage ratio

    • 5–15% by weight of total monomer content, adjusted based on flexibility and adhesion requirements; higher ratios increase hydrophobicity and reduce surface energy

    Downstream process integration

    • Introduced during the monomer mix and oligomer blending stage before UV photoinitiator addition
    • Fully miscible with other acrylate monomers and oligomers; mixing conducted under inert gas to minimize premature polymerization
    • Crosslinked on the substrate using medium- or high-pressure mercury lamps (320–400 nm wavelength)

    Final product types

    • Automotive exterior plastic clear coatings (e.g., bumper covers)
    • Textured and high-gloss interior plastic finishes
    • Scratch-resistant coatings for display bezels
    • Weatherable coatings for mirror housings and exterior trim

    2. Pressure-Sensitive Adhesives (PSA) for Protective Films

    This material operates as a soft monomer in acrylic PSA recipes targeting flexible protective films for electronics, home appliances, and automotive assembly. It delivers balance between peel strength and cohesive integrity, allowing converters to guarantee reliable adhesion with residue-free removal. Nonyl acrylate influences the glass transition temperature of the copolymer, offering application versatility in removable and repositionable label stock products.

    Industry compliance standards

    • ASTM D3330 (Peel adhesion for pressure-sensitive tapes and films)
    • FDA 21 CFR 175.105 (Indirect food contact adhesives)
    • ISO 9001:2015 (Quality management system for adhesive manufacturers)
    • Prop 65 compliance for finished PSA tapes distributed in California

    Typical usage ratio

    • 12–25% of total acrylate monomer mass; formulations adjust based on end-use substrate (e.g., PET, PE, PVC) and desired peel performance

    Downstream process integration

    • Metered into bulk reactor during pre-emulsification with other acrylates (e.g., butyl, 2-ethylhexyl)
    • Polymerized through batch or semi-continuous emulsion polymerization using persulfate initiators
    • Emulsion or solution-applied to carrier films, followed by drying in cleanroom environments

    Final product types

    • Removable protective films for LCD, touchscreens, and glass panels
    • Surface-protection tapes for stainless steel and painted parts
    • Automotive assembly masking tapes and die-cut label stock
    • Resealable packaging tapes for consumer electronics

    3. Acrylic Emulsion Polymers for Architectural Paints

    In water-based paint binder production, nonyl acrylate upgrades emulsion polymer latexes used in premium architectural coatings. Its bulky nonyl side chain enhances water resistance and scrub durability of finished paints applied on both interior and exterior surfaces. Paint manufacturers incorporate it into copolymer matrices to tune block resistance, wet adhesion, and coalescent demand, all crucial for low-VOC or APEO-free paint technologies.

    Industry compliance standards

    • GB/T 9756 (China National Standard for interior wall paints)
    • EN 13300 (European paint classification)
    • US EPA 40 CFR Part 59 (VOC content for architectural coatings)
    • LEED v4 requirements for low-emitting materials (for green building ratings)

    Typical usage ratio

    • 3–8% by dry monomer weight; lower content for satin or eggshell finishes, higher for exterior weatherable grades

    Downstream process integration

    • Added during pre-emulsion preparation with core monomers (methyl methacrylate, ethyl acrylate)
    • Participates in seeded emulsion or starved-feed polymerization in stainless steel reactors
    • Monitored QC stages for particle size control and colloidal stability

    Final product types

    • Washable interior latex wall paints
    • Alkali-resistant exterior masonry coatings
    • Low-VOC acrylic facade paints
    • Elastomeric roof and wall coatings for commercial buildings

    4. Polymer Modifiers for Impact-Resistant Plastics

    Nonyl acrylate acts as a reactive modifier within toughening systems for engineering resins including PMMA and polycarbonate/acrylonitrile blends. It promotes phase separation and rubber domain formation, enabling compounders to engineer high impact resistance, clarity, and resistance to environmental stress cracking. Its use ensures reliable performance in automotive, electronics, and appliance housings where dimensional stability and durability are demanded under service stress.

    Industry compliance standards

    • ISO 527-2 (Tensile testing for plastics)
    • UL 94 (Flammability standard for safety of plastic materials)
    • RoHS Directive relating to restricted substances in electronics enclosures
    • REACH registration for safety data in downstream mixing

    Typical usage ratio

    • 8–18% by modifier system weight, optimized according to resin base (higher in high-impact PMMA, lower in blend masterbatches)

    Downstream process integration

    • Introduced during melt blending or prepolymer mixing, dispersed into the polymer matrix via twin-screw extrusion
    • Reactive extrusion encourages copolymerization or grafting onto rubbery phases
    • Integrated inline QA for domain size and phase distribution analysis

    Final product types

    • Impact-modified PMMA sheets for automotive lighting
    • Housings for power tool casings and electronics
    • Transparent protective barriers for public transport
    • High-resilience consumer appliance shells

    5. Functional Additives in Printing Ink Formulations

    The specialty structure of nonyl acrylate finds use as a flow and leveling aid in radiation-cured and water-based printing inks for packaging, publication, and label printing. Its effect on polymer network formation serves ink formulators seeking to suppress surface defects, enhance flexibility, and prevent ink film cracking during post-curing and substrate flexion. This raw material supports reliable performance under high-speed press and non-absorbent film substrates.

    Industry compliance standards

    • EuPIA Guidelines for printing ink manufacturers (Europe)
    • BfR XXXVI/1 (Inks for food packaging, indirect contact)
    • ISO 2834 (Printing ink laboratory testing methods)
    • ASTM D5946 (Adhesion of inks to plastic films)

    Typical usage ratio

    • 2–7% by formulation mass; adjusted according to desired flexibility and target film thickness on packaging materials

    Downstream process integration

    • Dosed into monomer preblend or latex during ink base mixing
    • Thermal or UV curing induces grafting within the polymer matrix
    • QC verification using flow cup and leveling tests

    Final product types

    • UV-cured inks for flexible food, shrink-sleeve, and beverage packaging
    • Heat-resistant publication inks
    • Label printing inks for pharmaceuticals or industrial goods
    • Resilient inks for laminated and high-gloss packaging papers

    6. Reactive Diluents in Fiber-Reinforced Composites

    In unsaturated polyester and vinyl ester composite systems, nonyl acrylate is used as a reactive diluent, reducing viscosity while integrating into crosslinked matrix. Its structure promotes impact resistance and hydrolytic stability, essential for high-performance composite profiles, FRP panels, and construction pultrusions. Compounders balance its ratio to maximize end-use strength while maintaining processability in continuous casting or spray applications.

    Industry compliance standards

    • ASTM D790 (Flexural properties of reinforced plastics)
    • EN ISO 527-4 (Tensile tests on composite materials)
    • UL 746C (Polymeric materials for use in electrical equipment)
    • REACH monomer registration for worker safety in pultrusion lines

    Typical usage ratio

    • 10–20% of total resin system by weight; directly correlates to viscosity reduction and processing requirements for spray-up vs. pultrusion

    Downstream process integration

    • Blended with base resin and initiators prior to injection or spray application
    • Participates in crosslinking during thermal or UV cure, yielding higher fracture toughness within cured matrix
    • Inline QC assessment for resin viscosity and cure profile

    Final product types

    • Fiber-reinforced panels for industrial enclosures
    • Pultruded construction profiles for bridges, walkways, and gratings
    • Lightweight composite components for transportation
    • Corrosion-resistant tanks and piping in chemical plants
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    Certification & Compliance
    More Introduction

    Nonyl Acrylate: The Backbone for Modern Performance Polymers

    Understanding Nonyl Acrylate

    Every day, our factory floor buzzes with the distinct and familiar scent of acrylates, and Nonyl Acrylate has earned its place as a hero among our product lineup. Produced through the reliable esterification of acrylic acid with nonyl alcohol derived from propylene oligomerization, Nonyl Acrylate brings a blend of moderate reactivity and unique hydrophobic character. Over years of scaling batch reactors and optimizing purification, we have seen the chemistry hold steady despite ever-rising quality demands from adhesives, coatings, and specialty polymer clients.

    Specifications and Physical Qualities

    In our process, we target material of at least 98% purity, minimizing residual monomers for cleaner, safer handling. The liquid emerges clear and colorless, sporting a faint aromatic odor, and avoids excessive yellowing—a feature valued heavily by formulators chasing longer shelf lives or consistent optical properties. Viscosity ranges moderate compared with shorter-chain analogues, with a boiling range that settles above 230°C under standard pressure, thanks to the heavy, branched nonyl group. Its specific gravity tracks slightly higher than lighter acrylates, favoring applications that expect more robust migration resistance.

    Why Nonyl Acrylate Means Progress in Polymer Design

    We have known methyl, ethyl, and butyl acrylates for decades, yet each brings its own quirks: butyl and ethyl give soft, flexible films but with higher volatility and lower water resistance. Methyl acrylate brings speed but not durability. When requests began coming in for higher alkyl chain acrylates ten years ago, it was not just for novelty—it was a clear sign that end users outgrew the limits of these legacy choices.

    Nonyl Acrylate, because of its bulky side chain, delivers polymers with enhanced hydrophobicity. In practice, coatings resist water pick-up, adhesives withstand humidity cycles, and functional films last longer outdoors. We have run side-by-side tests for years: formulations with nonyl instead of butyl or 2-ethylhexyl steadily beat legacy products on block resistance and moisture uptake by double-digit percentages. Facing the relentless expansion of Asian monomer synthesis, it became vital for us in manufacturing to push for products with visible, testable end-use superiority—not just commodity output.

    Practical Use Cases Drawn from Real Industry Needs

    End-users who transition to Nonyl Acrylate often do so after direct experience with problems that older acrylate types cannot solve. Water-based pressure-sensitive adhesives need to stick and peel in the presence of sweat or kitchen grease; alkyd-acrylic hybrid paints often show white streaks or blistering when confronted by rain. Nonyl Acrylate-modified co-polymers, after practical field tests, reveal remarkable resistance to surfactant leaching, a lingering concern for waterborne finishes. While some customers cite modest cost increases, our own line trials and downstream pilot runs find large gains in both performance consistency and end-user satisfaction, enough to more than justify the switch.

    In acrylic pressure-sensitive adhesives, our customers return again and again for Nonyl Acrylate as a modification agent. Tape manufacturers use it to boost peel and shear, especially in humid environments where conventional formulations sag. In the textile coating sector, water-repellent finishes containing this monomer easily outlast those based on shorter alkyl acrylates, as confirmed by repeated laundering and outdoor exposure. The automotive body shop coatings sector has reported to us how Nonyl Acrylate offers resistance to automotive fluids and road salt, two challenges regular butyl acrylate blends struggle to handle over time.

    Production Insights Direct from Our Plant Floor

    Producing Nonyl Acrylate at scale is not the same as turning out butyl acrylate. The heavier nonyl group demands more thorough distillation, as small variations in side chain purity affect the final monomer’s color and odor. We learned early—99.5% distilled purity targets matter. For some years, we saw only sporadic orders. Today, amid rising global environmental regulations, demand is steady and supports investment in continuous reactors and better, shorter-residence-time distillation. Polymerization runs smoother with our high-purity material, as confirmed by lower rates of gel formation or runaway exotherms in customers’ pilot plant reactors.

    Our operators routinely inspect the color and odor—as oxidation products cause customer rejections quickly at this quality tier. Double-checking inhibitor content saves ruined downstream batches. Temperature-controlled logistics and sealed, inert-gas cylinders became standard after too many field failures with previous open-drum practices. Even small pH shifts from container walls affect the stability of this less reactive monomer, making chemical housekeeping a daily priority.

    Safety Realities and Handling — A View from the Trenches

    Nonyl Acrylate needs respect in storage and transport. Lower volatility compared to methyl or ethyl variants means lower inhalation risk for our staff, yet the viscous liquid can sting with prolonged skin contact and releases irritating fumes if splashed, so we run robust personal protective schemes. Our docks switched fully to closed pumping systems after training staff on flash point limits and vapor control. Training sessions focus on recognizing lesser-known symptoms of acrylate sensitization; we’ve found prevention is miles cheaper than handling medical complaints later.

    Environmental Pressures and Regulatory Pushback

    Years ago, we faced growing regulatory scrutiny as local authorities tightened effluent standards and emissions controls. Lower volatility helped us reduce some air emissions, but the non-biodegradability of many acrylate derivatives drew public and regulatory concern. Persistent lobbying from green groups focused on microplastic and aquatics toxicity. In response, we shifted to rigorous containment, enhanced on-site UV treatment for post-reaction water, and paid for third-party waste resin incineration when permitted. Our process development team is working with academic partners on bio-based alternatives for both the acid and the alcohol side—progress is slow, but pilot samples already show promise in specialty paint trials.

    On the export front, registration under global chemical notification regimes took time and money, but customers needed REACH registration numbers and GHS labeling for which our compliance office built dedicated tracking databases. This usually means more upfront paperwork and investment, but markets opened up sharply as customers squeezed out anonymous supply chains and demanded product pedigree.

    Comparing Nonyl Acrylate to Other Acrylate Monomers From A Practical Perspective

    While methyl acrylate wins for reactivity, it falls short for applications needing weather or moisture resistance. Butyl acrylate polymerizes quickly and costs little, yet gives softer, weaker films—its stickiness turns to weakness with water or cold. 2-Ethylhexyl acrylate, long used in premium adhesives, approaches the performance level of Nonyl Acrylate, but we consistently see Nonyl developing less odor and stronger UV stability in finished applications. The longer side chain of Nonyl Acrylate results in higher glass transition temperatures for co-polymers, allowing paints or adhesives to avoid creep, even on warm, vertical outdoor surfaces.

    Customers running block copolymerizations see fewer crosslinking problems and report smoother molecular weights. Adhesive formulators tell us that tapes modified with Nonyl Acrylate resist delamination better than those with 2-ethylhexyl acrylate—especially after cycles of hot and cold storage. We also recorded higher resistance against alkali and mild acid attacks, which matters for electronic applications or colored coatings facing routine cleaning.

    Voices from Our Partners and Clients

    Much of what we know about Nonyl Acrylate’s advantages comes not from lab books, but from repeat orders and feedback. Coating manufacturers in the northern coastal regions noticed improved rain resistance since transitioning to our product. Local label converters have flagged that their end customers praised the peel-off performance and base clarity of Nonyl Acrylate-based films over previous choices. In one memorable case, a client in Southeast Asia cited ten percent reduction in field failures after tweaking their pickling-resistant primer blends with just five percent Nonyl Acrylate content.

    These results have little to do with fancy marketing and everything to do with how a well-controlled, high molecular weight acrylate monomer performs outside controlled lab conditions. Through decades of dealing with complaints and urgent technical visits, we find that consistent manufacturing, not just clever chemistry, ultimately keeps Nonyl Acrylate ahead of alternatives.

    The Manufacturing Perspective—Blunt Realities and Industry Expectations

    Operating a chemical plant brings relentless focus on safety, consistency, and output. Spikes in Nonyl Acrylate demand forced us to invest in newer reactors with integrated condenser systems to handle heavier monomers and maintain batch-to-batch color fidelity. We adopted inline NMR monitoring and digital process controls—a sharp change from the visual, batch-by-batch checks of yesterday. Our QC team still keeps hands in final, manual inspections; instrument readings never replace a trained eye for color or an experienced nose for trace contamination.

    Supply chain interruptions, be it propylene price shocks or delays in catalyst shipments, challenge us to build bigger raw material stocks. We learned that even a half-percent drop in raw material quality can cascade, causing color drifts and downstream hard stops at customer acceptance lines. Our shipping department invested in new steel-lined ISO tanks. Gone are the days of bulk drum trucking, replaced by just-in-time dispatches coordinated daily with customer plants, often across multiple time zones.

    For all our trade show banners and technical datasheets, what stays true is this: Nonyl Acrylate, as manufactured in our facility, looks simple but represents years of trial, error, and steady improvement. The chemistry is just the start—getting quality output on time as per constantly evolving customer requests—remains our true test.

    Challenges Ahead—and Practical Solutions

    The biggest threat to the future of Nonyl Acrylate lies in balancing performance with environmental footprint. We work under pressure from both clients and legislators to lower VOC profiles, cut waste, and seek greener raw materials. Some large adhesives buyers already conduct on-site audits of plant water and energy management, expecting their suppliers to share the same discipline they apply in their own operations. Several ink makers requested full traceability for every Nonyl Acrylate batch, from alcohol origin to final packaging; this required a top-to-bottom overhaul of our bookkeeping and tamper-proof seals on outbound shipments.

    We have seen first-hand that customer loyalty depends on honest dialogue. Failures—rare, but inevitable—draw faster, more generous support from us, not endless loops of finger-pointing. Upgrades to process automation and analytics gave us the edge, allowing faster detection of impurities and immediate process adjustments. By investing directly in waste stream cleanup, and embracing lower batch sizes with flexible lines, we meet smaller, specialty clients without delays or big inventory build-up.

    Looking ahead, as recycled and bio-derived inputs begin reaching commercial scale, our team prepares for the transition. Already, pilot reactors have trialed plant-based acrylic acid replacements and biogenic nonanol streams. Our hope rests in molecules with the same reliable, flexible properties but made from less fossil-intensive feedstocks. Until then, the focus stays on meticulous process control, tight logistics, and unfiltered customer feedback.

    Summary: A Manufacturer’s Perspective on Nonyl Acrylate’s Role

    Decades on the factory floor convince us that chemistry does not live in a vacuum. Nonyl Acrylate stands apart for its mix of performance gains, handling ease, and process reliability. Our relationships with customers grew with each batch delivered on time, each complaint resolved, and each innovation developed together. Nonyl Acrylate’s evolution mirrors the chemical industry’s—driven by need, tested by practice, and measured daily by the real-world realities faced by our own workers and those of our downstream partners. From flexible adhesives to durable coatings, it remains a key ingredient for genuine progress, built on real experience and manufacturing know-how.