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HS Code |
184588 |
| Cas Number | 79-10-7 |
| Molecular Formula | C3H4O2 |
| Molecular Weight | 72.06 g/mol |
| Iupac Name | Prop-2-enoic acid |
| Appearance | Colorless liquid |
| Odor | Acrid, pungent odor |
| Boiling Point | 141 °C |
| Melting Point | 13 °C |
| Density | 1.051 g/cm3 at 20°C |
| Solubility In Water | Miscible |
| Flash Point | 54 °C (Closed cup) |
| Vapor Pressure | 3.9 mmHg at 20°C |
| Refractive Index | 1.422 at 20°C |
| Pka | 4.25 |
| Un Number | 2218 |
As an accredited Acrylic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
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Purity 99%: Acrylic Acid with purity 99% is used in superabsorbent polymer production, where it enables high water retention capacity. Viscosity Low: Acrylic Acid of low viscosity grade is used in coating formulations, where it ensures smooth application and uniform film formation. Molecular Weight 72.06 g/mol: Acrylic Acid with molecular weight 72.06 g/mol is used in emulsion polymerization, where it facilitates controlled particle size distribution. Melting Point 14°C: Acrylic Acid with melting point 14°C is utilized in textile finishing, where it provides enhanced flexibility and durability. Stability Temperature 40°C: Acrylic Acid with stability temperature 40°C is applied in detergent manufacture, where it maintains performance under storage conditions. Particle Size <100 nm: Acrylic Acid with particle size less than 100 nm is incorporated in adhesives, where it delivers improved bonding strength and clarity. pH Range 2–3: Acrylic Acid at pH range 2–3 is used in leather tanning, where it ensures effective penetration and consistent processing results. Anhydrous Form: Acrylic Acid in anhydrous form is used in water treatment chemicals, where it allows for efficient scale inhibition. Reactivity High: Acrylic Acid with high reactivity grade is utilized in pressure-sensitive adhesives, where it provides rapid curing and strong adhesion. Density 1.051 g/cm³: Acrylic Acid with density 1.051 g/cm³ is applied in paint formulations, where it contributes to optimal viscosity and pigment dispersion. |
| Packing | Acrylic Acid is typically packaged in 200-liter blue HDPE drums, clearly labeled with hazard symbols, product name, and handling instructions. |
| Container Loading (20′ FCL) | Acrylic Acid is loaded in 20′ FCL ISO tanks or drums, securely packed, meeting safety and regulatory standards for chemical transport. |
| Shipping | Acrylic acid is shipped in tightly sealed, corrosion-resistant containers such as drums or IBC totes, stored in cool, well-ventilated areas away from heat and incompatible substances. During transport, it is classified as a hazardous material (UN 2218), requiring proper labeling, documentation, and compliance with safety regulations to prevent leaks and exposure. |
| Storage | Acrylic acid should be stored in a cool, well-ventilated area away from heat sources, direct sunlight, and incompatible materials such as oxidizers or bases. Containers must be tightly sealed and made of corrosion-resistant materials. To prevent polymerization, storage areas should be equipped with inhibitors and kept below 25°C. Proper labeling and secondary containment are essential for spill prevention and safety compliance. |
| Shelf Life | Acrylic acid typically has a shelf life of one year when stored below 25°C in tightly sealed, inhibitor-containing containers, away from sunlight. |
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.
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Tel: +8615365186327
Email: sales3@ascent-chem.com
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Every batch of acrylic acid that leaves our site reflects the result of strict process control and years of experience working with propylene oxidation technology. We have spent years scaling up from early pilot programs, investing in catalytic efficiency, air handling improvements, and purification cycles. What matters most in acrylic acid production is consistency— controlling raw material input, managing catalytic beds, and keeping a sharp eye on waste streams like acetic acid and formaldehyde. Off-gas scrubbing and energy recovery are not afterthoughts; they are built into plant design from day one. We use reactor temperatures tuned to maximize single-pass conversion without compromising yield, and we monitor all batches against well-tuned chromatograph routines.
Our technical staff understand that downstream customers rely on certain purity thresholds, so GC data from every tank is checked against customer formulas for polymer-grade acrylic acid. Any hint of aldehyde carryover, color instability, or water content above accepted norms is flagged immediately. We don’t compromise in acid distillation stages— even if it adds hours to a run— because customers feel the effects in gel clarity and polymer performance.
Acrylic acid forms the backbone of a vast range of modern polymers, coatings, and absorbent materials. Our plant runs select grades, including glacial purity at above 99.5 percent for demanding polyacrylate manufacturing, and lower-purity technical grades for specialty uses in surfactants and adhesive fields. We target water and inhibitor content specifically; residual water above 0.1 percent in high-conversion batches causes problems for superabsorbent polymer (SAP) production, so careful handling and atmospheric exclusion are routine in our work.
On the modeling and specification side, we classify batches by EN ISO and ASTM benchmarks, not just plant-specific codes. For bulk shipping, we stabilize acrylic acid with precisely dosed MEHQ (monomethyl ether hydroquinone) inhibitor, allowing customers to delay use for several months without polymerization risks. Every drum or isotank carries full batch history, so traceability down to reactor sequence is available. For more specialized users, we produce low-inhibitor grades under nitrogen to suit quick polymerization lines.
Much of the acrylic acid we produce supports superabsorbent polymers used in hygiene products— diapers, adult incontinence materials, and hygiene pads. These polymers demand purity and low odor, so we eliminate process residues and byproducts through deep vacuum stripping and fractional distillation. The product’s strong reactivity with alcohols, amines, and other acrylic monomers lets our customers create a full spectrum of polyacrylates, from water-soluble thickeners for paints and coatings to ion-exchange resins for water treatment. Years of cooperations with downstream industries have shown us the critical importance of consistent acid value and a low impurity fingerprint in these applications.
Paint and adhesive formulators draw on our technical-grade acrylic acid for dispersions and latex products. The acid’s carboxyl groups let resin networks form stable, emulsifiable matrices with pigments or other additives. Clean feedstock means fewer gel particles and blocked lines in high-speed reactors, so our operators pay close attention to copper, iron, and magnesium carryover from all reactant sources.
Water soluble polyacrylic acid is popular among scale-inhibitor manufacturers. Many cities use these copolymers for cleaner water distribution; our sales teams routinely receive requests for process-specific grades and shipping configurations to minimize downtime at municipal treatment plants.
The textile industry continues to evolve toward more sustainable materials, but acrylic acid-based thickeners, binders, and textile finishes still underpin many printing, dyeing, and nonwoven production steps. Our production schedules often line up with peak demand cycles in these sectors, and the plant must balance large SAP orders with nimble batch runs for smaller polymer customers.
Electronics and optics manufacturers use bespoke acrylic acid grades for anti-reflective coatings, specialty adhesives, and encapsulants where clarity and low ionic content are critical. This segment has taught us to take “clean” to the next level— down to trace levels of metallics and volatiles that could otherwise trigger product failures downstream.
Every chemical company offers “acrylic acid,” but real experience lies in tuning production for target applications. Compared to acrylic esters such as ethyl acrylate or butyl acrylate, acrylic acid offers higher reactivity due to its free acid group. This leads to rapid chain propagation in polymerization, making it essential for SAPs and performance polymers. Acrylic esters, by contrast, suit more flexible, lower-odor applications like paint films and leather finishes. We have invested in separating acid lines from esterification plants to avoid any cross-contamination.
Methacrylic acid sometimes appears as an alternative for polymer modification, adding extra rigidity and weathering resistance. For applications like glazing or specialty adhesives, methacrylic acid’s methyl group does limit certain crosslinking patterns, so the flexibility and water compatibility of acrylic acid stand out, especially in high-absorbency formulations. Adjustments to pH, monomer purity, and inhibitor systems all matter in choosing the right feedstock.
Our team works closely with SAP customers to trace the interplay between trace color bodies, aldehyde content, and residual catalyst levels. These subtle factors make the difference between a polymer that passes textile or pharmaceutical requirements and one that falls short. Years of root-cause analysis have taught us how small upstream changes ripple forward into gel clarity, swelling index, and application-specific tolerances.
Safety and storage form a less-discussed but vital differentiator. Acrylic acid, with its tendency to auto-polymerize, demands robust inhibitor and temperature management in bulk. Many companies opt for higher MEHQ doses, but too much stabilizer complicates downstream processes. We tune every batch for storage period, shipment conditions, and final use, reducing red-tag hold-ups at customer sites. This attention ensures fewer offloads, cleaner lines, and predictable cure times for resin and adhesive manufacturers.
Environmental footprint also matters. We have replaced older process-water quenching with newer solvent extraction to reduce effluent loading and recover more product from side streams. Continuous emissions monitoring lets our plant meet or exceed regulatory requirements while keeping fugitive losses to a minimum. Solvent and acid fumes get scrubbed through multi-stage systems before venting, reducing neighbors’ complaints and regulatory citations.
In the lab, our technical team routinely benchmarks our acrylic acid against both in-house – and third-party standards. We focus as much on downstream “processability” as on theoretical purity, meaning we don’t overlook lot-to-lot viscosity or gel fraction variability that can drive big differences in application outcome.
We have learned over decades that the success of our acrylic acid business doesn’t rely solely on output volume. Uninterrupted plant availability requires close coordination between maintenance crew, logistics teams, and product quality analysts. A prolonged turnaround, a catalyst bed upset, or a raw material spec shift could affect product on an order-by-order basis.
Customer support often means troubleshooting on the fly. We’ve worked with polymer makers facing unexpected gel formation due to tiny peroxides, or coating formulators with haze issues traced back to upstream contaminant spikes. Sometimes, the fix comes from adjusting purification steps, increasing inhibitor dosing, or holding a batch for re-distillation. Every upstream choice— propylene quality, air-to-reactant mix, process catalyst— shows up in downstream usability, so our people keep communication lines open across departments and with our customers.
Long-term supply contracts shape how we schedule maintenance and optimize runs. Maintenance cycles can’t undercut critical SAP and hygiene customers, especially during peak cycles. This kind of forward planning, based on both real-time plant diagnostics and close market monitoring, lets us protect both output and quality.
We also build flexibility into our production lines. Some customers need acrylic acid in railcars with pre-installed insulation and stricter temperature monitoring, especially during cold spells. Others expect flexible totes or drums, where rapid turnover and short inhibitor windows mean tighter shipping deadlines and fewer technical hiccups at the offload point. Internally, our engineering staff tracks storage tank conditions, inhibitor levels, and shipment timelines day and night, reducing polymerization incidents and material returns.
Regular training keeps our operations crew alert to the hazards and challenges of acrylic acid— handling leaks, promoting safe venting, and preventing cross-reactivity are part of safety protocols. We treat every reported incident as an opportunity for process improvement. This focus on learning improves reliability for both our plant team and our customers’ lines.
Technology shifts quickly in the chemicals world. We stay connected to both technical forums and green chemistry groups to monitor the evolution of catalyst choices and more sustainable process steps. We began introducing higher-efficiency catalysts to cut down side reactions, and partnered with recycling plants to reclaim spent solvents, lowering our waste intensity. Feedback from customers on polymer clarity, residual monomer limits, and absorption rates feed directly into our R&D loop.
Markets for acrylic acid have their ups and downs, and raw inputs like propylene can swing in price or supply, affecting margins. We learned to hedge inputs and invest in energy efficiency, sometimes halting certain lines to safeguard contractual obligations. This level of flexibility has kept us a dependable partner to our customers through tight supply seasons and competitive bidding cycles.
Our commitment to safer chemistry shapes every upgrade. We invest in process water recycling and air scrubbers, burning off fugitive vapors and minimizing community odors. Flaring, a last resort, is monitored for both efficiency and compliance. Any spill event triggers full root-cause analysis, worker and neighbor notifications, and upgraded engineering controls.
We recognize that our position as a bulk manufacturer means managing not only product purity but overall plant impact — water use, energy draw, emissions targets, and workplace health. Our leadership team allocates resources to environmental monitoring well beyond baseline regulatory scope, strengthening community trust and long-term access to operating permits. Our process optimization targets don’t just boost margins, they safeguard worker health and community relations.
More customers each year ask us about lifecycle thinking— how much recycled content we can use, what energy sources power our plant, or how to ensure safe end-of-life for acrylic acid-based products. So we contribute to research coalitions exploring bio-based routes and greener catalysis. A portion of our output supports internal R&D on renewable sourcing and low-temperature processes. Out of these partnerships come real lessons: not every “greener” route works at scale, and some yield variability or storage challenges. We take those lessons back to the lab and to industry forums, sharing what works for product safety and long-term market needs.
As regulators introduce tougher standards for emissions and product labeling, we stay engaged with the technical details. Our compliance team updates MSDS and handling protocols in lockstep with new findings on human health and safe handling. We know the right labeling, up-to-date documentation, and supply chain transparency matter to our customers and to everyone down the distribution line.
Some critics focus on the hazards of acrylic acid in transport or bulk storage, so we have built a robust training and emergency-preparedness culture. Routine drills, updated equipment, and transparent reporting means we can answer customer and community questions with facts and clear documentation.
From our earliest days, we saw that success in acrylic acid isn’t about commoditizing the product, but about mastering upstream process control and downstream application fit. The market constantly evolves; superabsorbent demand grows while technical markets demand ever-cleaner, more specific acid types. Our plant equipment and people have evolved in tandem, adding control systems or distillation upgrades where customer feedback singles out a need for better purity or safer handling.
We don’t claim perfection. Batches sometimes confront unforeseen contamination or exotherm events, but our long-term investment in analytics and staff training pays off in fewer customer complaints and higher line uptime. Our experience convinces us that the future lies in tighter integration across the supply network, technology upgrades in purification, and continual improvement in plant management practices.
Polymer research continues to pull acrylic acid into new territory— from hydrogels for medical and wound care to next-generation adhesives and green coatings. We treat each iteration as a challenge to our team’s technical range: can we tweak purification, minimize free radicals, or improve stability windows to fit a new customer spec or novel application? Our staff bring insights from every part of the operation— from dock workers to process engineers— to make each delivery more reliable and each customer partnership more productive.
Trust doesn’t build overnight, and we work to earn it batch by batch, shipment by shipment. Reliable acrylic acid means high performance for our customers’ products, from the softness of a diaper core to the durability of a high-tech coating. As we look ahead, we remain committed to applying our experience and innovation, ensuring customers receive the quality and service they count on, and advancing the possibilities for acrylic acid in every new market it enters.