|
HS Code |
138490 |
| Chemical Name | Acrylic Acid |
| Chemical Formula | C3H4O2 |
| Cas Number | 79-10-7 |
| Molar Mass | 72.06 g/mol |
| Appearance | Colorless liquid |
| Odor | Acrid, pungent odor |
| Melting Point | 13 °C |
| Boiling Point | 141 °C |
| Density | 1.051 g/cm³ at 20 °C |
| Solubility In Water | Miscible |
| Flash Point | 54 °C |
| Vapor Pressure | 3.8 mmHg at 20 °C |
| Refractive Index | 1.422 at 20 °C |
As an accredited Acrylic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Acrylic Acid is packaged in a 200-liter blue HDPE drum with clear hazard labeling, secure lid, and UN approved markings. |
| Container Loading (20′ FCL) | Acrylic Acid is loaded in 20’ FCL containers, typically in 200 kg drums, safely secured and compliant with hazardous material regulations. |
| Shipping | Acrylic acid should be shipped in tightly sealed, corrosion-resistant containers, such as stainless steel or polyethylene drums, under cool, well-ventilated conditions. It is classified as a hazardous material (flammable and corrosive), requiring proper labeling and documentation. Avoid exposure to heat, direct sunlight, and incompatible substances during transport. Wear protective equipment when handling. |
| Storage | Acrylic acid should be stored in a cool, well-ventilated area, away from direct sunlight, heat sources, and ignition points. Use tightly sealed, corrosion-resistant containers, ideally stainless steel or glass-lined steel. Prevent contact with oxidizers, bases, and strong acids. Maintain stable temperatures (below 25°C) to minimize polymerization risk, and add polymerization inhibitors if advised. Always store away from moisture and incompatible materials. |
| Shelf Life | Acrylic acid typically has a shelf life of 1 year if stored in a cool, dry, and well-ventilated area, away from sunlight. |
|
Purity 99%: Acrylic Acid with 99% purity is used in superabsorbent polymer production, where high purity ensures enhanced water retention and absorption rate. Molecular weight 72 g/mol: Acrylic Acid with molecular weight 72 g/mol is used in coating formulations, where consistent polymerization provides uniform film thickness and durability. Viscosity grade low: Acrylic Acid with low viscosity grade is used in adhesive manufacturing, where optimal flow properties facilitate efficient substrate wetting and bond strength. Stability temperature 25°C: Acrylic Acid stable at 25°C is used in pharmaceutical intermediates, where maintained stability prevents premature degradation during synthesis. Melting point 13°C: Acrylic Acid with melting point of 13°C is used in textile finishing agents, where proper phase transition allows controlled reaction kinetics and finish quality. Particle size <10 µm: Acrylic Acid with particle size under 10 µm is used in pigment dispersants, where fine dispersion leads to improved color distribution and suspension stability. Residual monomer <0.05%: Acrylic Acid with residual monomer below 0.05% is used in biomedical hydrogels, where low monomer content ensures high biocompatibility and reduced toxicity. |
Competitive Acrylic Acid prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to sales3@ascent-chem.com.
We will respond to you as soon as possible.
Tel: +8615365186327
Email: sales3@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
Acrylic acid shapes more of the modern world than most people realize. In our plant, we see its power and potential every day—right after raw propylene moves through reactors and straight through our tight quality checks. We talk about upstream and downstream all the time, but for us, this product sits right at the core of high-performing coatings, strong adhesives, durable plastics, and touchable, useful superabsorbent polymers for hygiene and personal care. We only use advanced catalytic oxidation processes, not because it’s trendy but because it gets the operational reliability and purity our customers demand with less waste and tighter carbon numbers.
Acrylic acid stands out with its sharp, pungent odor and clear, colorless liquid appearance. In practice, it brings strong reactivity. That’s what matters on the production floor. Across every batch, we keep water, aldehydes, and polymerization inhibitors in check—along with the inhibitor, MEHQ, so you avoid runaway reactions in your tanks. Model grades run at 99.5% minimum purity, kept in steel drums or ISO tanks by default.
Producing to these standards means no room for surprises. Storage and transport get handled with strict temperature controls and nitrogen blanketing. We track all tank turnovers and keep tight logs, not for show, but because quality slips, even minor, turn into lost time or rejected materials on the customer’s end. No one needs unexpected gels in product lines.
Every month, raw material allocation flexes around the biggest users: superabsorbent polymers for diapers and adult incontinence products take the biggest share, followed by coatings and adhesives. Each sector sets a different bar for performance. Absorbency in hygiene industries needs the lowest impurity load, with zero polymerization issues, since contaminant traces threaten the safety of the end product. Paint binders have some tolerance but can’t afford yellowing. Adhesive makers always check for color stability and odor in their end runs.
We get a lot of questions about the differences between acrylic acid and related products, especially methacrylic acid or crotonic acid. Methacrylic acid has slightly bulkier side groups, so its polymers act differently, giving higher glass transition points and a touch more chemical resistance. This matters for tougher coatings or where weathering is constant. Crotonic acid’s uses fall off quickly beyond specialty areas and lacks the versatility acrylic acid brings. We measure volatility, reactivity, and final polymer properties batch-to-batch in our lab—nobody wants surprises in a multi-ton order.
Acrylic acid’s reactive double bond, combined with the carboxylic acid group, lets it blend in with a broader family of copolymers. Its speed in copolymerization makes it the backbone of products like water-based sealants, dispersants, and textile treatments. That reactivity also means it demands strict inhibitor handling. MEHQ additions need regular checks, both before shipping and in customer warehousing, to keep polymerization at bay. Unlike more sluggish carboxylic acids, one small leak in storage can lead to rapid self-polymerization, which means hazardous cleanup and wasted raw material.
Batches that leave our facility might end up in diaper manufacturing plants on one continent, then as binder in paints crossing the seas to another. In diapers, its role is about as close to irreplaceable as anything gets: acrylic acid-derived polymers trap fluid with incredible efficiency. On coating lines, it lays down flexibility and resistance, so construction materials or cars won't flake, fade, or let the weather in. Some of the best-performing pressure-sensitive adhesives rely on copolymers built from our monomers.
We keep ongoing partnerships with downstream producers so they get the right molecular weight distribution and purity. Tight on specification doesn’t mean overkill; it means we keep dangerous aldehyde levels or cultural color issues off the table. Continuous investment in our production platform drives cost reductions, reduces flaring, and helps balance supply and demand year-to-year.
Safety management comes first, both for us and every customer who handles acrylic acid. Its volatility means robust storage: steel tanks lined for corrosion resistance, away from sparks or heat sources, and never exposed to open air. Regular training for everyone in our logistics and maintenance teams lowers the risk of accidental exposure to its vapors. Because the molecule is so reactive, local and international regulations watch its movement closely—handling documentation, compliance audits, and certification processes is routine in our daily workflow. Our teams see the paperwork as a backbone of trust, not just boxes to check.
We push to minimize environmental impact through closed-loop water cooling, vapor recovery, and sulfur scrubbers. These steps save money on clean-up and emission fees and keep relations good with our neighbors and regulatory agencies. Residual monomer levels always draw scrutiny, since nobody wants to be on the wrong end of a violation or product recall. Continuous improvement matters: we tweak catalyst composition, adjust reaction temperatures, and invest in process digitization whenever small improvements mean less waste or energy use.
Fluctuating propylene prices and shifting global demand make life unpredictable in acrylic acid production. We hedge inputs on the market, keep alternative sourcing open, and cooperate with customers who want to lock in longer-term contracts for supply stability. Short-term price swings happen with upstream outages or logistics snarls. Our operations team meets every week to review inventory, demand forecasts, and plant turnarounds. Raw material quality can swing rapidly, so incoming goods get analyzed before feeding into the process—rejecting substandard propylene can save thousands in lost throughput or unsellable monomer.
For us, transparency around inventory, plant schedules, and shipping lead times builds trust with customers fighting their own production battles. No one benefits from surprise shortages, so we’ve automated plant surveillance and tied lab analysis closely with operations to flag deviations early. That way, quality variations stay small, and we can make targeted corrections long before shipping deadlines approach.
Every operator on our plant floor understands the difference between textbook chemistry and what happens in a high-throughput, real-world reactor. Fouling, corrosion, pump failures, or a spike in raw material impurities can’t stall a 24/7 run. Senior techs help newer staff spot changes in flow rates or subtle shifts in product appearance—often the earliest warning signs of a fouling heat exchanger or a subpar catalyst load. We build systems for double-checking inhibitor concentrations and temperature distribution inside our storage farms. A slip in either case can mean big losses.
Historically, simple process changes, such as careful adjustment in the oxygen-to-propylene ratio or catalyst bed depth, have brought our yields up by measurable percentages. These lessons stick with us and end up shaping the guidelines we pass along to every new technical team. A process that looks smooth in a book often needs dozens of field fixes to get uptime and throughput steady. Maintaining this knowledge pipeline—from shift logs to senior supervisor insights—keeps our plant output stable even as operators rotate between teams.
Customer needs don’t stand still, and neither does technology. We keep investing in new reactor designs and digital monitoring. Reactors now run with more precise temperature gradients, and distributed sensors catch small leaks or deviations before quality loss escalates. On-line chromatographs analyze product samples within minutes, allowing hands-on adjustments to catalyst reloads or flow rates. Digital batch tracking now supports rapid root-cause analysis, so we work out problems faster and cut down the risk of non-compliance or delayed deliveries.
Our R&D efforts push for pathways that reduce waste, switch to more sustainable solvents, and recover more heat from exothermic reactions. Over the past decade, we’ve cut emissions and water use per ton shipped by double-digit percentages. Customers in hygiene or food-contact industries keep raising the bar, so every adaptation matters.
Every few years, regulatory shifts bring new challenges. Stricter residual monomer limits or lower-emission targets push us to tighten process control and sometimes invest in equipment upgrades. We work directly with certification agencies and auditors, making sure all parties recognize our systems for traceability and real-time monitoring. These changes often turn into opportunities for operational upgrades—either by automating manual sampling steps or integrating smart control valves to trim energy consumption. Shared best practices with peer facilities help everyone respond to new global and national requirements without unnecessary duplication of effort.
Feedback from production lines, co-suppliers, and even equipment service personnel shapes our daily work. End users in hygiene, coatings, and adhesives tell us where purity or inhibiting agents make a direct impact. Their input brought about changes in drum design for longer shelf life, better inhibitor stabilization under temperature swings, and updated bulk filling practices to fight unintended polymerization in transit. Collaborating on logistics drops accident rates and spoilage, so both sides see their pain points addressed quickly. We value this loop—what seemed minor to us sometimes signals a production bottleneck on the customer’s end.
Our job doesn’t end with shipment. Shared technical support and troubleshooting across the supply chain builds practical success. Product specialists field calls on managing storage, adjusting for seasonal temperature swings, or diagnosing end-use performance questions. We make annual site visits—looking at installation conditions, maintenance routines, and safety checks with users. Industry networking drives shared problem solving, from emergency product swaps after supply shocks to planning shutdown schedules to fit shared distribution channels. On-site audits of our biggest customers help us understand evolving needs and adapt our processes for the future.
Plant upgrades and investment in process optimization aim for efficiency gains, energy reduction, and a lighter environmental footprint. From smarter control of the oxidizer units to improved solvent recovery and heat integration, every tweak cuts operating costs and potential emissions. We audit energy use annually, always targeting reductions based on demand shifts and new benchmarks. Emission controls on both stacks and wastewater lines now operate continuously, tying performance to automatic process shutdowns if readings stray off limits—this system helps safeguard our working environment as well as the community outside our gates.
Supply chains keep all of us in the chemical business on our toes. Port delays, regulatory changes on raw propylene, or transportation bottlenecks demand flexibility and transparency. Advance planning with trusted logistics partners makes rush deliveries rare and ensures no batch falls out of registration or loses stabilizer in transit. Our approach builds redundancy: alternate truck routes, backup propylene suppliers, and robust communication channels between our customer service, production, and shipping teams. Regular stress tests on our supply system make sure we’re ready for surprises.
Years of making acrylic acid at industrial scale teach lessons technical textbooks often overlook. Real-world production rewards steady operator hands, precise quality control, and tight safety practices. Listening to customers—long-term and brand new alike—shows where process improvements deliver the biggest results. Each ton of high-purity monomer signals another round of learning and adaptation, so every day on the plant floor brings new chances for improvement. We aim to keep reliable, responsible, and responsive production at the center of everything we do, no matter how the market or technology landscape shifts.