Acrylic Emulsion supplier

Acrylic emulsion, as a core material in water-based coating and ink systems, has been widely recognized for its excellent transparency, gloss, film-forming properties, and environmental friendliness. Driven by global environmental policies, technological innovations, and the upgrading of downstream application demands, the product is ushering in a new stage of high-quality development. Its future trends will focus on green sustainability, functional upgrading, application expansion, and digital transformation, forming a multi-dimensional evolution pattern.   Leading the Transformation of Low-Carbon Materials Firstly, bio-based and renewable raw material substitution will accelerate. Traditional acrylic emulsions rely heavily on petroleum-based monomers, but with the pressure of carbon reduction and the development of bio-refining technology, the application of bio-based monomers is becoming a mainstream direction. International giants such as Dow have launched emulsion products using more than 30% renewable carbon sources, which have been scaled up in LEED-certified projects . In the future, the proportion of bio-based monomers in high-performance emulsions is expected to exceed 50%, significantly reducing the carbon footprint of the entire life cycle. At the same time, the development of surfactant-free emulsion systems will further eliminate the environmental risks associated with traditional APEO surfactants, meeting the strict requirements of the EU REACH regulation and Green Deal for chemical safety .   Secondly, high-solid-content and low-VOC technologies will become mainstream. With the tightening of VOC emission standards globally—for example, the US EPA has set VOC limits for coatings at ≤50 g/L, and China’s emission standards for the printing industry are gradually converging with international levels—high-solid-content acrylic emulsions (solids content ≥55%) will replace traditional products on a large scale . These emulsions not only reduce environmental pollution but also improve application efficiency by reducing drying time and energy consumption, which is particularly critical for water-based inks and overprint varnishes in the packaging and printing industry .   Thirdly, circular economy models will be widely adopted. European countries have taken the lead in promoting closed-loop recycling of emulsion raw materials, with the industry average recycling rate reaching 18.7% in 2025 . In the future, enterprises will build a full-chain circular system covering raw material recycling, waste emulsion treatment, and product remanufacturing. For example, waste emulsions from the printing industry can be degraded and reused as raw materials for low-grade emulsions, realizing resource recycling and reducing environmental pressure.   Meeting the Demands of High-End Application Scenarios As downstream industries such as packaging, electronics, and automotive continue to upgrade, the performance requirements for acrylic emulsions are becoming more refined and specialized. Functional upgrading will focus on improving core performance indicators and developing intelligent characteristics:   In terms of basic performance enhancement, the focus will be on optimizing low-temperature film-forming properties, weather resistance, and adhesion. The minimum film-forming temperature (MFFT) of emulsions will be further reduced to below 5°C, enabling stable film formation in cold environments without the need for coalescents . At the same time, through core-shell structure design and nano-composite modification technology, the emulsion’s resistance to water, alcohol, and UV aging will be significantly improved, meeting the requirements of high-end applications such as outdoor advertising printing and automotive interior coatings . For water-based inks and overprint varnishes, the development of self-crosslinking emulsions will enhance the scratch resistance and wear resistance of printed films, solving the problem of poor durability of traditional water-based products .   In terms of intelligent functional development, smart response emulsions will emerge. These emulsions can adjust their performance according to external environmental changes (such as temperature, humidity, and light), enabling applications such as anti-counterfeiting labels and intelligent packaging. For example, temperature-sensitive acrylic emulsions can change color with temperature changes, meeting the anti-counterfeiting and freshness preservation needs of food packaging . In addition, the combination of emulsions with conductive materials will promote the development of flexible electronic printing, providing key materials for the production of flexible sensors and electronic labels .   Exploring Emerging High-Value Markets The application fields of acrylic emulsions will no longer be limited to traditional construction coatings, printing inks, and adhesives, but will expand to emerging high-value sectors, driving market growth with new demand points:   The new energy and electronic manufacturing fields will become important growth engines. In the field of new energy vehicles, acrylic emulsions are widely used in battery packaging adhesives and interior water-based coatings due to their excellent adhesion and high-temperature resistance, benefiting from the rapid development of the global new energy vehicle industry . In electronic manufacturing, the demand for high-purity, low-impurity acrylic emulsions for semiconductor packaging and electronic component bonding is growing rapidly, with annual growth rates exceeding 15% .   The medical and health field will open up new application spaces. Medical non-woven fabrics require adhesives and coatings with biocompatibility and antibacterial properties, and acrylic emulsions, as water-based materials with low toxicity and environmental friendliness, are ideal choices for this field . In addition, the demand for water-based coatings for medical devices and pharmaceutical packaging is also increasing, driving the development of medical-grade acrylic emulsions with high purity and sterilization resistance.   The 3D printing and advanced manufacturing fields will provide new opportunities. Acrylic emulsions can be used as support materials for 3D printing, with the advantages of easy removal and environmental friendliness, replacing traditional toxic and harmful chemical support materials . At the same time, in advanced manufacturing fields such as lightweight materials and composite materials, the emulsion’s excellent film-forming properties and compatibility will promote its application in surface modification and bonding of composite materials.   Reshaping the Industrial Chain Ecology Digital technology is deeply integrating with the acrylic emulsion industry, optimizing the entire process from R&D, production to supply chain management, and improving industrial efficiency and product quality:   In R&D and formulation optimization, AI-driven technology will become mainstream. By building machine learning models based on massive experimental data, enterprises can predict the performance of emulsions and optimize formulations, shortening the R&D cycle by more than 40% . For example, using high-throughput experiments and data analysis, researchers can quickly screen the best combination of monomers and emulsifiers, significantly improving R&D efficiency. In addition, digital simulation technology can simulate the film-forming process and performance changes of emulsions under different conditions, reducing the cost of trial production and experiments.   In intelligent production, the construction of digital factories will accelerate. Leading enterprises have realized automated control of production processes through IoT sensors and intelligent control systems, reducing product batch fluctuations to within ±1.5% . The application of technologies such as automated feeding, real-time quality monitoring, and intelligent packaging not only improves production efficiency but also ensures product stability. For example, in the production of high-end emulsions, real-time monitoring of particle size and viscosity can be achieved through online detection equipment, adjusting process parameters in a timely manner to avoid quality problems.   In supply chain management, digital platforms will enhance coordination efficiency. The construction of digital supply chain systems enables information sharing and collaborative management among raw material suppliers, manufacturers, and downstream customers, improving inventory turnover rate by 31% and delivery on-time rate to over 98% . Through blockchain technology, the traceability of product quality can be realized, ensuring the transparency and credibility of the entire supply chain. For example, downstream printing enterprises can query the production batch, raw material source, and quality inspection report of emulsions through the digital platform, enhancing trust in product quality.   Summary The future development of acrylic emulsions will be driven by the dual engines of environmental protection and innovation, showing the core trends of greenization, functionalization, application expansion, and digitalization. In the context of global carbon reduction and stricter environmental regulations, green and low-carbon products represented by bio-based emulsions and high-solid-content emulsions will become the mainstream of the market. Functional upgrading will focus on meeting the high-performance requirements of high-end application scenarios, while emerging fields such as new energy, electronics, and medical care will provide new growth space for the industry. Digital transformation will reshape the industrial chain ecology, improving R&D efficiency, production stability, and supply chain coordination.   For enterprises in the industry, it is crucial to grasp these trends, strengthen basic research and technological innovation, break through key technologies such as bio-based monomers and intelligent emulsions, and accelerate the integration of digital technology and industrial development. At the same time, bying international environmental and performance standards, enterprises can enhance their global competitiveness and seize opportunities in the fierce market competition. In the next 5-10 years, the acrylic emulsion industry will undergo a profound transformation from scale competition to value competition, and enterprises with technological advantages, digital capabilities, and sustainable development capabilities will become the leaders of the new market pattern.  

Our company, Runshine, offers resin products that include this category, specifically the RHERI7090, and possesses considerable knowledge of its application fields.RHERI7090 is a milky white, semi-transparent liquid emulsion. It is characterized by high gloss and exceptional adhesion, making it commonly used in plastic coatings, metal coatings, and wood coatings. It is a distinctive waterborne acrylic emulsion. Waterborne acrylic resin emulsions represent a type of waterborne acrylic resin with extensive applications, primarily focused on coatings and adhesives.   In Coatings: Emulsion-type acrylic resins are mainly applied in four major coating categories: architectural, automotive, wood, and industrial maintenance. Architectural applications include interior wall paints, exterior wall paints, floor finishes, roof waterproofing coatings, sealants, caulks, and flooring adhesives. Automotive and wood coatings can be subdivided into putties, primers, and topcoats. Industrial maintenance primarily involves primers and topcoats for metal protective coatings and coatings for certain machinery products.   In Adhesives: Emulsion-type acrylic resin adhesives are widely used in industries such as textiles, packaging, construction, automotive, wood products, electrical appliances, toys, and pharmaceuticals. In textiles, they are used for pigment printing, fabric labels, and garment interlinings. The packaging industry commonly utilizes them as pressure-sensitive adhesives. They are also used for automotive interior trim bonding and for direct bonding of wood, cardboard, plastics, etc.RHERI7090 (a waterborne resin product from Runshine) is primarily used in coating applications, including plastic coatings, metal primers and topcoats, and industrial wood coatings. It finds relevance in automotive, wood, and industrial maintenance sectors. This resin offers good hardness, high gloss, alcohol resistance, a certain degree of water resistance, and outstanding adhesion. In summary, RHERI7090 delivers excellent performance and fulfills its role effectively in applications such as automotive plastic coatings, metal primers, wood topcoats and primers, primers for industrial metal maintenance coatings, and corrosion protection coatings for other mechanical metal parts.

In the ever-evolving landscape of polymer chemistry, waterborne acrylic emulsion has emerged as a cornerstone material, redefining sustainability and performance across countless industries. Unlike solvent-based acrylic systems that rely on volatile organic compounds (VOCs) for dispersion, waterborne acrylic emulsion suspends acrylic polymer particles in water—creating a low-toxic, eco-friendly alternative without compromising on functionality. Let’s dive into what makes this material a game-changer, where it shines, and why it’s become a staple for manufacturers worldwide. What is Waterborne Acrylic Emulsion? At its core, waterborne acrylic emulsion is a colloidal dispersion of acrylic polymers in an aqueous medium. The emulsion is stabilized by surfactants and emulsifiers, which prevent the polymer particles from clumping together and ensure uniform dispersion in water. The manufacturing process typically involves emulsion polymerization—a cost-effective, scalable method that occurs at moderate temperatures, reducing energy consumption compared to solvent-based production. The resulting product is a milky, viscous liquid that can be tailored to specific performance needs by adjusting monomer ratios, particle size, and cross-linking density. From soft, flexible emulsions to rigid, high-hardness formulations, waterborne acrylic emulsions are highly customizable to fit diverse application requirements. Key Applications of Waterborne Acrylic Emulsion 1. Architectural Coatings This is the largest application segment for waterborne acrylic emulsion. It is the primary binder in interior and exterior wall paints, wood coatings, and masonry coatings. Exterior acrylic emulsion paints offer exceptional weather resistance—resisting UV degradation, rain, and temperature fluctuations—while interior formulations provide low odor, fast drying, and excellent washability. They are also compatible with pigments and additives, allowing for a vast spectrum of colors and finishes (matte, satin, gloss). 2. Adhesives & Sealants Waterborne acrylic emulsions are widely used in pressure-sensitive adhesives (PSAs) for tapes, labels, and stickers, as well as in structural adhesives for wood, paper, and textiles. They offer strong bonding strength, good flexibility, and easy application—either by brushing, rolling, or spraying. In sealants, they provide excellent adhesion to substrates like concrete, metal, and plastic, while remaining elastic enough to accommodate minor movements without cracking. 3. Industrial Coatings Beyond architecture, waterborne acrylic emulsions are used in industrial coatings for metal, plastic, and concrete substrates (e.g., machinery, automotive parts, flooring). They offer corrosion resistance, chemical resistance, and durability, while meeting strict environmental regulations on VOC emissions.                                         Standout Features of Waterborne Acrylic Emulsion 1. Eco-Friendly & Low VOC The biggest advantage is its low VOC content (often below 50 g/L, and even zero VOC in premium formulations), which aligns with global environmental regulations (e.g., EU REACH, US EPA standards). Unlike solvent-based systems that release harmful VOCs into the air, waterborne acrylic emulsions minimize air pollution and reduce health risks for workers during application and handling. 2. Versatile Performance Acrylic emulsions can be formulated to deliver a wide range of properties: • Weather resistance: Excellent UV stability and hydrolysis resistance, making them ideal for outdoor applications. • Flexibility & toughness: Can withstand impact, bending, and thermal expansion/contraction without cracking or peeling. • Adhesion: Strong bonding to almost all common substrates (wood, metal, concrete, plastic, paper). • Chemical resistance: Resistant to water, mild acids, alkalis, and detergents. 3. Easy Application & Handling The aqueous base makes acrylic emulsions easy to dilute with water (no hazardous solvents needed) and apply via standard methods (brushing, rolling, spraying). They dry quickly at room temperature, reducing production time and energy costs for manufacturers. 4. Cost-Effective Production & Use Emulsion polymerization is a low-cost manufacturing process compared to other polymer synthesis methods. Additionally, the water-based formulation reduces raw material costs (water is cheaper than organic solvents) and disposal costs for waste materials. 5. Compatibility with Additives Waterborne acrylic emulsions blend well with pigments, fillers, plasticizers, and other additives, allowing formulators to customize products for specific end-use requirements without sacrificing performance. Conclusion Waterborne acrylic emulsion is more than just a sustainable alternative to solvent-based polymers—it’s a high-performance material that has become the backbone of countless industries, from construction and packaging to textiles and adhesives. Its eco-friendly profile, customizable performance, and cost-effectiveness make it a win-win for manufacturers, workers, and the environment. As global demand for sustainable materials continues to rise, waterborne acrylic emulsion will only grow in importance. Innovations in formulation (e.g., cross-linked acrylic emulsions for enhanced durability, bio-based acrylic monomers) are further expanding its capabilities, ensuring it remains a versatile and forward-looking choice for years to come. Whether you’re a formulator, manufacturer, or end-user, waterborne acrylic emulsion offers a reliable, responsible solution for meeting today’s performance and environmental goals. This blog balances technical accuracy with readability, suitable for industry professionals, potential customers, or anyone interested in polymer materials. If you want to adjust the tone (more technical/ casual), add specific product data (e.g., viscosity, Tg values), or focus on a particular application area (e.g., only architectural coatings), feel free to let me know and I’ll refine it accordingly.

Waterborne Acrylic Emulsion: Advanced Composition, Functional Performance, and Future Innovations   Waterborne acrylic emulsions represent a critical class of colloidal systems in which discrete acrylic polymer particles are stabilized in an aqueous continuous phase. These systems have gained prominence as sustainable alternatives to solvent-borne coatings due to their low volatile organic compound (VOC) content and compliance with increasingly stringent global environmental regulations. The continued evolution of waterborne acrylic emulsion technology reflects a convergence of polymer science, industrial requirements, and ecological responsibility.     Chemical Composition and Classification The performance of a waterborne acrylic emulsion is fundamentally governed by the selection and ratio of monomers, the emulsification system, and the polymerization process. Based on their chemical architecture, these emulsions can be categorized into several functional types: Pure Acrylic Emulsions Comprising monomers such as methyl methacrylate (MMA), butyl acrylate (BA), and acrylic acid (AA), pure acrylic emulsions exhibit superior UV stability, oxidative resistance, and color retention. The absence of hydrolytically sensitive esters contributes to their durability in exterior applications. Such emulsions are particularly suitable for long-term weatherable coatings where chalk resistance and gloss retention are required. Styrene-Acrylic Emulsions Introducing styrene into the copolymer composition enhances mechanical rigidity and reduces raw material costs. However, phenyl groups in styrene impart susceptibility to UV degradation, limiting use in indoor applications such as interior wall paints and paper coatings. Advancements in stabilization technologies have partially mitigated these issues, allowing expanded use under moderate exposure conditions. Functionalized and Crosslinkable Acrylic Emulsions Incorporation of functional monomers—hydroxyethyl acrylate (HEA), glycidyl methacrylate (GMA), or acetoacetoxyethyl methacrylate (AAEM)—enables post-crosslinking during film formation. These crosslinked networks improve solvent resistance, hardness, and tensile strength. Self-crosslinking systems using diacetone acrylamide (DAAM) with adipic dihydrazide (ADH) are also widely employed in high-performance industrial coatings.    Key Performance attributes and Application-Specific Design The formulation of waterborne acrylic emulsion must be tailored to application-specific requirements through careful control of particle size, glass transition temperature (Tg), minimum film-forming temperature (MFFT), and colloidal stability. Architectural Coatings In decorative paints, the balance between hardness and flexibility—modulated via Tg adjustment—is critical for crack resistance and dirt pickup resistance. High pigment binding capacity, alkaline resistance, and rheological control ensure uniform coverage and long-term service life on mineral substrates. Industrial and Protective Coatings For metal substrates, acrylic emulsions are often modified with phosphorous-based monomers or corrosion-inhibiting pigments to enhance anti-corrosive performance. Compatibility with polyurethane dispersions (PUDs) or epoxy hybrids further expands their utility in automotive, machinery, and coil coatings. Adhesives and Nonwovens Low-Tg emulsions facilitate low-pressure film formation and high tack in pressure-sensitive adhesives (PSAs). Particle size distribution and surfactant type are optimized to achieve balance between peel strength and shear resistance. In textile and fiber bonding, soft and flexible films provide mechanical durability without compromising hand feel.   Future Innovations and Technological Trends Ongoing research aims to transcend conventional performance boundaries and introduce multi-functional characteristics: Nanocomposite and Hybrid EmulsionsIntegration of nano-silica, ZnO, or layered silicates enhances barrier properties, scratch resistance, and thermal stability. Encapsulation of nano-additives within polymer particles improves dispersion stability and prevents agglomeration. Hybrid systems such as acrylic-siliconized emulsions are being developed for extreme weather resistance. Bio-based and Circular MaterialsEmulsions derived from bio-acrylic acid, itaconic acid, or lignin-based surfactants are gaining traction. Lifecycle assessment (LCA) and carbon footprint reduction are driving adoption in green building certifications such as LEED and BREEAM. Stimuli-Responsive and Smart CoatingspH-responsive, thermochromic, or self-healing waterborne acrylic emulsions represent the next frontier. Microencapsulated healing agents or conductive polymers (e.g., PEDOT:PSS) are incorporated for specialized applications in smart packaging and electronic coatings. Process and Regulatory AdvancementsAdvances in semi-batch and seeded emulsion polymerization allow better control over particle morphology and molecular weight distribution. Compliance with regulations such as REACH, EPA TSCA, and China GB 18582-2020 necessitates continuous reduction of residual monomers and APEO-free surfactants.   Conclusion Waterborne acrylic emulsions continue to evolve as a backbone of sustainable coating and adhesive systems. Their versatility stems from tunable chemistry and compatibility with a wide array of additives and modifiers. Future developments will likely focus on high-performance hybrid systems, intelligent functionalities, and deeper integration of circular economy principles. As material science and process technology advance, waterborne acrylic emulsions are expected to further displace solvent-based systems while enabling new applications in emerging industries.