quality Solvent Based Solid Acrylic Resin & Waterborne Acrylic Resin factory

Executive Summary The Acrylic Styrene Acrylonitrile (ASA) resin market is projected to grow at a CAGR of 5.7% (2024–2030), driven by demand from automotive, construction, and electronics sectors. With superior weatherability and cost-performance ratios, ASA resins are increasingly replacing ABS in outdoor applications. This report analyzes key trends, regional dynamics, and future challenges. 1. Market Overview Current Valuation: 2024 Market Size: $6.41 billion (globally) 2030 Forecast: $9.34 billion Growth Drivers: Automotive Lightweighting: ASA’s UV resistance (10× longer lifespan than ABS) makes it ideal for EV exterior parts. Construction Boom: Asia-Pacific accounts for 42% of demand, fueled by infrastructure projects (e.g., China’s $111.7B construction output in 2021). Electronics Expansion: ASEAN’s 30–35% share in global electronics exports boosts demand for durable housings. Raw Material Dependency: Key feedstocks like acrylonitrile ($866B market in 2025) and styrene influence pricing volatility. 2. Competitive Landscape Top Players: LG Chem (South Korea), INEOS Styrolution (Germany), CHIMEI (Taiwan) dominate 44% of the market. Strategies: Bio-based ASA R&D (e.g., LG’s 30% plant-based resin) and closed-loop recycling initiatives. Regional Insights: Asia-Pacific: 58% market share; China leads production. Europe: Strict VOC regulations accelerate water-based ASA adoption. North America: Tariff policies may reshape supply chains post-2025. 3. Challenges & Innovations Key Barriers: Environmental Pressures: Solvent-based ASA faces bans under EU REACH. Raw Material Costs: Acrylate price fluctuations (2024: +18% YoY) squeeze margins. Emerging Solutions: Circular Economy: BASF’s ChemCycling™ transforms waste into ASA feedstock. Niche Applications: 3D-printable ASA grades gain traction in aerospace. 4. Future Outlook Sustainability: Carbon-neutral production targets will drive R&D investments. New Markets: Smart home devices and 5G infrastructure present untapped opportunities. Risk Alert: Geopolitical tensions may disrupt acrylonitrile supply chains.

Market Overview The solid grade thermoplastic acrylic beads resin market was valued at approximately $2.8 billion in 2024 and is projected to grow at a CAGR of 5.2% from 2025 to 2030. This growth is primarily driven by increasing demand from the automotive, construction, and consumer electronics sectors, particularly in Asia-Pacific regions. Key Properties and Advantages Excellent weatherability - Superior resistance to UV radiation and environmental stress High transparency - Over 92% light transmittance comparable to glass Good mechanical strength - Tensile strength ranging from 65-80 MPa Chemical resistance - Withstands exposure to many household chemicals Thermoformability - Can be processed at 150-190°C without significant degradation Major Application Areas Automotive Industry Interior trim components Light covers and lenses Decorative elements Accounted for 32% of total market demand in 2024 Construction Sector Skylights and transparent roofing Noise barriers Decorative panels Projected to grow at 6.1% CAGR through 2030 Consumer Electronics Smartphone camera lenses VR/AR device components Transparent protective covers Regional Market Analysis Region Market Share (2024) Growth Outlook Asia-Pacific 48% Strong (6.3% CAGR) North America 28% Moderate (4.1% CAGR) Europe 19% Steady (3.8% CAGR) Others 5% Emerging Key Market Players Mitsubishi Chemical Corporation Arkema S.A. Röhm GmbH LG Chem Chi Mei Corporation Emerging Trends Development of bio-based acrylic resins Increasing adoption in medical devices Growing demand for colored and special-effect resins Advancements in recycling technologies Challenges and Restraints Volatility in raw material prices Competition from alternative materials like polycarbonate Stringent environmental regulations High production energy requirements Future Outlook The market is expected to benefit from: Expansion of electric vehicle production Growth in smart city infrastructure projects Increasing demand for sustainable materials Technological innovations in resin formulations The Asia-Pacific region, particularly China and India, will likely remain the growth engine of this market through the decade.

what is the hydroxyl group ? Fundamental Definition The hydroxyl group (-OH) is a functional group composed of one oxygen atom covalently bonded to one hydrogen atom. As one of the most prevalent functional groups in chemistry, it serves as the defining characteristic of two major compound classes: Alcohols: Where -OH binds to sp³ hybridized carbon Phenols: Where -OH attaches to aromatic rings Key Chemical Properties Electronic Structure • Polar covalent bond (O-H bond dipole moment: ~1.51 D) • Oxygen's electronegativity (3.44) creates partial charges: δ⁻ on O, δ⁺ on H • sp³ hybridized oxygen with two lone electron pairs Reactivity Characteristics • Hydrogen bonding capability (donor and acceptor) • pKa range: ~15-18 (alcohols), ~10 (phenols) • Nucleophilic substitution reactions • Oxidation susceptibility (to carbonyl compounds) Industrial and Biological Significance  Material Science Applications • Polyols in polymer production (polyurethanes, polyesters) • Surface modification through hydroxylation • Solvent formulations (methanol, ethanol, glycols)  Biochemical Roles • Carbohydrate structure (sugar -OH groups) • Protein post-translational modifications • Membrane lipid hydrophilic heads Analytical Identification Common characterization methods include: Infrared spectroscopy (broad ~3200-3600 cm⁻¹ stretch) NMR (chemical shift: 1-5 ppm for alcohols) Chemical tests (Lucas test, chromic acid oxidation)

1. Core Chemistry Hydroxyl acrylic resins (OH-value 50-200 mg KOH/g) are waterborne/ solvent-based copolymers containing reactive -OH groups. Their molecular weight (2,000-50,000 Da) and Tg (-20°C to +80°C) determine: Crosslinking density with isocyanates (NCO:OH ratio 1.1:1 to 1.5:1) Film flexibility vs. hardness balance 2. Top 5 Industrial Applications Automotive refinish (85% of 2K PU coatings use hydroxyl acrylic binders) Plastic coatings (ABS/PC substrates with adhesion promoters) Industrial maintenance (corrosion-resistant primers) Wood finishes (UV-curable hybrid systems) Marine coatings (high-flexibility topcoats) 3. Market Drivers (2025 Data) 45% CAGR in waterborne hydroxyl acrylic demand (vs. 12% for solvent-based) REACH compliance: 78% formulators now prefer low-VOC variants Emerging tech: 30% of new patents focus on nanoparticle-modified resins 4. Selection Criteria ParameterAutomotive GradeIndustrial GradeOH Value120±5 mg KOH/g80±10 mg KOH/gViscosity800-1,200 cPs2,000-5,000 cPsPot Life2-4 hours6-8 hours 5. Troubleshooting Guide Problem: Poor humidity resistanceSolution: Increase crosslink density (NCO:OH →1.3:1) + add 0.5-1% silane adhesion promoter Problem: Cissing in high-build applicationsSolution: Adjust surface tension with 0.1-0.3% fluorosurfactant

Alkyd and Polyester Resins: Understanding the Differences In the world of chemistry and materials science, alkyd and polyester resins are two important classes of synthetic resins with distinct properties and applications. While both are polymers used in various industries, understanding their differences can be crucial for selecting the right material for specific needs. What are Alkyd Resins? Alkyd resins are a family of synthetic resins derived from oils and fatty acids, combined with polyols and acids. They are primarily used in paints and coatings due to their excellent drying properties, flexibility, and adhesion. Alkyd resins are known for their versatility and are often used in automotive paints, marine coatings, and general-purpose paints. They offer a good balance of hardness, gloss, and resistance to chemicals and water. What are Polyester Resins? Polyester resins, on the other hand, are synthetic resins produced by polycondensation of dicarboxylic acids with glycols. These resins are valued for their high strength, rigidity, and chemical resistance. Polyester resins are widely used in industries such as composites, adhesives, and coatings. They are particularly popular in the production of fiberglass-reinforced plastics (FRP) due to their excellent mechanical properties and relatively low cost. Key Differences ‌Chemical Structure‌: Alkyd resins are based on oil and fatty acid chemistry, incorporating long hydrocarbon chains. Polyester resins are formed through the condensation of acids and glycols, resulting in an ester linkage (-COO-) within the molecular structure. ‌Physical Properties‌: Alkyd resins offer good flexibility and are often used in flexible coatings. Polyester resins are more rigid and are used in applications requiring high strength and durability. ‌Solvent Resistance‌: Alkyd resins are somewhat susceptible to attack by certain solvents. Polyester resins exhibit better resistance to solvents, making them suitable for use in environments where chemical exposure is a concern. ‌Application Areas‌: Alkyd resins are predominantly used in paints and coatings for wood, metal, and automotive applications. Polyester resins are widely used in composites, adhesives, and high-performance coatings. ‌Curing Mechanism‌: Alkyd resins typically cure through oxidation drying, which involves the absorption of oxygen from the air. Polyester resins often require heat to cure, forming cross-linked structures that enhance their mechanical properties. Conclusion Both alkyd and polyester resins serve important roles in various industries, each with unique properties and applications. Understanding the differences between these two types of resins can help in selecting the most appropriate material for specific needs, ensuring optimal performance and durability in different environments. Whether it’s the flexibility and adhesion of alkyd resins in coatings or the strength and chemical resistance of polyester resins in composites, each has its own set of advantages that make it invaluable in its respective field.

  A water-based varnish formulated for ‌PVC substrates, plastic films, and wallcoverings‌ in gravure printing must balance ‌adhesion, flexibility, and environmental compliance‌ while meeting the unique demands of high-speed gravure processes.     The Solution represents our combined polymers expertise.     In a wide range of industrial applications, especially in packaging and printing inks where we excel, we have developed a range of solutions and production formulas based on our own products. In the following table, considering the specific fine-tuning, we have not written out the proportion of each component. We hope that customers who need to contact our sales team in time for further information.   Water Based Varnish For PVC & Film & Wallcovering (Gravure) No. Raw Materials   ① WQ-2017 (flm-forming) ② WQ-2021(acrylic resin solution) or WQ-109 solution or use WQ-2028 with better performance ③ WQ-290/WQ-290 (non-film forming)   ④ DOWSIL™ 51 : Ethanol (1:1)* Dow Corning ⑤ Wax emulsion   ⑥ Defomaer ⑦ Ethanol Technological process: 1.①+②+③+④+ ⑤+⑥, add the above materials and stir at the same time, at a constant speed, finally add ⑦. stirring time: about 30 minutes/300 rpm. 2.*: DOW CORNING DOWSIL™ 51 Additive diluted with Ethanol =l:1 3. 4#cup:11 seconds ± 2 PH value:8.30 ± 0.5 4. Special notes: Please do not directly add ethanol, When the mixer is stirring at a slow speed, slowly add ethanol, the effeet is better (Because direetly adding ethanol will cause demulsification and slag). 5. Final inks:-(Ajusting it accoring to needs) varnish 75%+pigment paste 25%=100 Note: The pigment paste is mixed slowly and finially,the effeet is the most friendly.

Flexible packaging inks not only elevate the visual appeal of packaging but also ensure functional durability, maintaining image integrity throughout manufacturing, distribution, and end-use. These products are engineered to meet diverse demands across flexible packaging applications, combining performance with compliance for high-speed production and stringent regulatory standards. We offer a comprehensive range of water-based dispersions and resins specifically engineered for the packaging industry. To address diverse substrate requirements, our team has formulated customized solutions supported by production formulas derived from our proprietary technology platforms. While specific formulation ratios are not disclosed in this document due to proprietary considerations and case-specific requirements, we invite interested parties to contact our dedicated sales team at your earliest convenience for personalized technical consultation and product specifications.   Suggested Formula For Water-based Varnish Water Based Varnish For Plastic Substrate (Flexography) - With High Adhesion No. Raw Materials   ① WQ-2015 (flm-forming) ② WQ-2011 (non-film foming) ③ WQ-2028(acrylic resin solution)or WQ-109 solution ④ Wax cmulsion ⑤ DOWSIL™51:Ethanol(1:1)* Dow Corning ⑥ Defoamer TEGO Foamex 825 Total   Remark: 1.①+②+③+④+⑤+⑥ Add the above materials and stir at the same time, at a constant speed,stirring time: about 30 minutes/300rpm. 2.*:DOWSIL™51 Additive diluted with Ethanol=1:1 3.4# cup:25 seconds±2 PH value 8.5±0.5% 4.Final inks: vamish70%+pigment paste 30%=100 (Ajusting it accoring to needs)

Innovating solutions for printing inks, over print varnishes and functional packaging coatings for food packaging, flexible packaging, paper, paper board, corrugated board and labels.   In the broad field of industrial applications, packaging and printing inks represent our long-term expertise. Leveraging our proprietary products, we have developed a series of solutions, including various functional inks and formulations compliant with hygiene and food safety standards. We also provide production formulas tailored to industrial needs. In the table below, specific component ratios are intentionally omitted to allow flexibility for adjustments based on varying application scenarios. For detailed technical specifications or customized requirements, please contact our sales team promptly to obtain valuable information.    Suggested formula for water based printing ink for PVC & Film & Wallcovering (Gravure) General Pigment Paste For Gravure Printing For Plastie Substrate No Raw Materials   ① WQ-2028 The pigment paste for plastie substrates shouldbe ground with WQ-2028 ② Ethanol ③ Deionized Water   ④ Toner (Pigment powder)   ⑤ TEGO-3062 Defoamer   Total   Remark: 1. Firstly mix ①+②+③+④, and finally add ⑤, Stir at a constant speed when adding the above ingredients. 2. Stir and disperse raw materials for 30 minutes→Grind with a grinder for 3 to 4 times→Check the fineness within 5 to10µm. 3.4# cup: 17±5 seconds PH value: 8.30+0.5 Basie test conditions: 1. Should seleet pigment powder with more than 5 levels aleohol resistance. After a constant temperature of 50 degrees for one week, the color paste is qualified ifit isn't thixntropic. 2. The color paste should have good waterproof performanee. 3. The dyne value of the test printing substrate should be greater than 38.

A water-based varnish solution tailored for PE double-coated paper in flexographic printing must prioritize ‌sustainability, food safety compliance, and functional performance‌ for cold drink cups and liquid packaging (e.g., milk/juice boxes). Below is a comprehensive technical outline: ‌1. Key Performance Requirements‌ ‌Regulatory Compliance‌: Meets ‌FDA 21 CFR, EU 10/2011, REACH, and LFGB‌ standards for food-contact materials. Zero migration of harmful substances (e.g., phthalates, heavy metals). Low VOC content (①②③④⑤⑥⑦①②③④⑤⑥⑦

    We are a leading global supplier of high-quality polymer emulsions, dispersions, resins In diverse industrial applications, particularly in packaging and printing inks—areas where we have long specialized and demonstrated expertise—we have developed a comprehensive suite of solutions based on our proprietary products. These include functional ink solutions meeting hygiene, food safety, and regulatory standards, along with customized production formulas.     While the table below outlines our core offerings, we intentionally omit specific component ratios to accommodate the dynamic requirements of varying application scenarios. To achieve optimal performance tailored to your unique needs, please contact our sales team directly. Our experts will provide actionable insights, formulation adjustments, and technical support to ensure your success. Water Based pigment concentration For PE double-coated paper (Flexography) No. Raw Materials   ① WQ-2028 ② Ionized water ③ Toner (Pigment powder) ④ TEGO-3062 Defomaer Remark: 1.First mix(①+②+④), then add③, Stir at a constant speed when adding the above ingredients. 2. Stir and disperse raw materials for 30 minutes→Grind with a grinder for 3 to 4 times - Check the fineness within 10 to 5 µm. 3.4# cup: 19±5 seconds PH value 8.3±0.5 Basie test conditions: 1.Choosing pigment powder with UV-resistant pigments level 5 or above to make pigment paste. Pigement paste requirements: at 50 '℃ constant temperature and humidity for a week pigment paste is not false thick. 2. Using pigement paste for double PE paper and blow 10 minutes, then rub it with wet paper towel,without decoloring is qualified. 3. $pecial attention: Perfom small test with different defoamers and check if there are pinhole or shrinkage, choose the one with good effect.