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HS Code |
873295 |
| Chemical Name | 2-Benzylacrylic Acid |
| Synonyms | α-Benzylacrylic acid |
| Molecular Formula | C10H10O2 |
| Molecular Weight | 162.19 g/mol |
| Cas Number | 6140-10-7 |
| Appearance | White to off-white crystalline powder |
| Melting Point | 115-117 °C |
| Boiling Point | 352.3 °C at 760 mmHg |
| Density | 1.162 g/cm³ |
| Solubility In Water | Slightly soluble |
| Refractive Index | 1.574 |
| Storage Conditions | Store in a cool, dry place, tightly closed |
As an accredited 2-Benzylacrylic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 25 grams of 2-Benzylacrylic Acid, labeled with chemical name, formula, purity, hazard, and safety information. |
| Shipping | 2-Benzylacrylic Acid is typically shipped in sealed, chemically-resistant containers to prevent contamination and moisture ingress. It is packed according to safety regulations for hazardous chemicals, clearly labeled, and accompanied by its Safety Data Sheet (SDS). The shipment is handled by authorized carriers, ensuring compliance with relevant local and international transport regulations. |
| Storage | 2-Benzylacrylic acid should be stored in a tightly sealed container, protected from light and moisture, in a cool, dry, and well-ventilated area. Avoid exposure to strong oxidizing agents and bases. Store at room temperature or lower if specified by the supplier’s recommendations. Proper labeling and compliance with local chemical storage guidelines are essential for safe handling and storage. |
Applications of 2-Benzylacrylic Acid in Industrial Manufacturing2-Benzylacrylic Acid is a specialized aromatic acrylic acid derivative used across several fields within industrial synthesis. Our direct manufacturing expertise enables us to provide this compound with precise control over purity and traceability for regulatory-critical industries. This section details major application areas, referencing downstream standards, recommended usage ratios, integration steps, and the typical manufactured products relying on this raw material. 1. Specialty Polymer Additives for High-Performance CoatingsPolymer and coatings manufacturers use 2-Benzylacrylic Acid as a co-monomer in acrylic resin formulations to improve weather resistance, adhesion, and chemical inertness of specialized coatings. Its unique benzyl and acrylic functionality enables crosslinkable sites, raising durability for automotive, aerospace, and marine coatings. Technicians add this acid during the polymerization process, adjusting ratios based on the end-use performance demanded by each specification. Manufacturers rely on this approach to meet stringent standards for outdoor and industrial finishes. Industry compliance standards
Typical usage ratio
Downstream process integration
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2. Pharmaceutical Intermediate for Active Ingredient SynthesisIn pharmaceutical synthesis, chemists use 2-Benzylacrylic Acid as a key intermediate for constructing aromatic α,β-unsaturated carboxylic acid motifs in small-molecule APIs. The acid’s reactive sites support selective modification steps under GMP-compliant manufacturing controls. Integration into batch reaction sequences enables downstream steps such as esterification, amidation, or cyclization essential for drug molecule assembly. Strict traceability and impurity profiles must be documented throughout pharmaceutical campaigns. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Fine Chemical Synthesis for Fragrance and Flavor PrecursorsManufacturers in the fine chemicals sector employ 2-Benzylacrylic Acid as a substrate for fragrance and flavor molecule precursors, leveraging its styrene-like aromatic core and alkene functionality. Process engineers use well-defined hydrogenation or cyclization methods to derive downstream aldehydes, alcohols, and lactones. The input acid must consistently meet organoleptic purity benchmarks, and its introduction point directly influences reaction selectivity and conversion efficiency in flavorant production. Industry compliance standards
Typical usage ratio
Downstream process integration
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4. Chemical Intermediate in Agrochemical SynthesisAgrochemical producers utilize 2-Benzylacrylic Acid as a core intermediate for the synthesis of selective herbicides and pesticide formulations containing aromatic acrylic derivatives. The unique structure enables conjugate addition and coupling reactions with functional groups required in active ingredients. Our supplied material supports scale-up under QC-validated conditions to address formulation stability and field application requirements. The stage and amount of this acid in multi-step synthesis directly impact the yield of high-value crop protection chemical actives. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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We have been manufacturing 2-Benzylacrylic Acid for more than a decade, witnessing its fundamental roles in demanding synthesis and materials science projects. In our production lines, quality takes definition from batch consistency and a pinpoint level of control over impurities—down to fractions of a percent. Over the years, our chemists have built process controls around minimizing unconverted precursors, ensuring each shipment reaches benchmarks well above the minimum purity typical in the market.
The model we produce today is referenced by its specific molecular structure, C10H10O2, with a formula weight of 162.19 g/mol. We target a purity of no less than 98%, and our specs tighten against the most relevant impurities because we recognize the impact on downstream reactions. Color, crystallinity, and free acidity are tracked lot by lot, not just for database purposes, but because our longtime partners—whether developing new polymers or specialty intermediates—quickly feel such differences in their own yields and scalability tests.
Many in the industry treat acid intermediates as generic commodities. Our daily experience with both small-batch and tonnage customers shows otherwise. 2-Benzylacrylic Acid occupies a unique slot next to more established acrylic acids and cinnamic derivatives, but its active benzyl group grants a reactivity profile that many find essential for obtaining selectivity in alkylation or cross-coupling steps. During some syntheses, that difference can mean the gap between a clean pathway and labor-intensive purification, or between a project that scales and one that stalls at pilot stage.
Our technical team supports development of high-value molecules as well as advanced polymers, so we see first-hand how critical intermediate purity is. 2-Benzylacrylic Acid provides a backbone for pharma intermediates, photosensitive resins, and certain specialty adhesives where standard acrylic acids lack the necessary molecular arrangement. We’ve worked directly with process engineers as they fine-tune reaction parameters and find that our acid’s clean profile, free of cross-contaminants, can trim unnecessary filtration cycles and reduce side-product formation.
Basic acrylic acid can serve in bulk commodity production, but for synthetic targets requiring the benzyl group, users find alternatives like cinnamic acid can generate double bonds in the wrong position or lead to unwanted byproducts due to conjugation. 2-Benzylacrylic Acid’s structural specificity, with the benzyl group attached to the acrylic backbone, fosters different nucleophilic and electrophilic behaviors. This real-world difference shows up as higher conversions or better selectivity—results that matter for research groups and pilot planners under tight deadlines and budgets.
In our own lab, we’ve compared 2-Benzylacrylic Acid to both phenylacrylic and cinnamic acid derivatives in photochemistry trials and catalytic hydrogenation reactions. The benzyl variant provides a richer palette for modification, especially in peptide and oligonucleotide building block design. Researchers exploring new routes to specialty surfactants, crosslinkers, or heterocycle frameworks rely on this compound to create unique linkages. Because our teams work in applied synthesis, not just paper chemistry, we are keenly aware how even small deviations in the starting acid’s integrity lead to major headaches in isolation and analysis steps.
Some competitors gloss over the distinction between technical-grade and high-purity batches. In manufacturing, failure to control residual benzyl chloride or monosubstituted acrylics can sabotage entire runs. Over the years, we have responded to cases where end users received material described as “high purity,” only to discover unacceptably high levels of low molecular weight impurities or poor solubility due to excessive water content. 2-Benzylacrylic Acid is sensitive to both air and light; packaging and handling procedures must prevent oxidation and pyrophoric risks. We train staff at every site to follow validated transfer and storage practices, driven by the reality that minor lapses can wipe out expensive downstream experimentation.
Where others simply list assay values, we advise partners to ask for GC and LC chromatograms, as well as heavy metal analysis. Our investments in HPLC and spectrophotometric techniques produce clear, regular data clients can use in their own quality audits. Storage conditions—ambient, cool, or inert—have been optimized based on real shipping routes and warehouse histories, not assumptions.
From growing experience in the market, we know some buyers operate with very short timelines or changing development targets. For this reason, we maintain both vial and drum-scale inventory for rapid dispatch. Post-shipment follow-up is part of our daily workflow, whether the batches wind up in university research, process development labs, or full commercial reactors.
2-Benzylacrylic Acid extends value to several areas where the competition falls short. In current practice, it finds roles in pharmaceutical intermediate development, high-value monomer synthesis, and as a component in UV-curable materials. Research chemists pursuing specific branching in their products rely on the compound’s controlled reactivity. We see it deployed in advanced materials research as well—finding its way into flame retardants, plastic modifiers, and coatings that require robust performance under stress.
Our materials enter pilot studies where consistent melting point, minimal color impact, and predictable solubility shifts are non-negotiable. Recent collaborations in the adhesives and carbon materials spaces highlight how sensitive end uses can be to even subtle differences in precursor quality. In one case, a plastics manufacturer switched to our lots after their previous supplier delivered off-spec material; the corrective cost on the final blend exceeded their original acid purchase many times over. Such cases reinforce our conviction to validate each campaign, not just rely on vendor declarations.
We have observed confusion in technical circles between 2-Benzylacrylic Acid and hyphen variants such as 3-benzylacrylic acid or benzylvinylacetic acid, both of which generate distinct outcomes in hydrogenation or condensation reactions. Some commercial offerings mislabel their products, but our product’s analytical fingerprints—NMR, FTIR, melting point behavior—have been calibrated to matched literature standards and real-world process feedback. Longtime users tell us the difference appears not only in bench-scale repeats, but also when scaling up or transferring technology to new facilities.
In the world of chemical manufacturing, serious attention is given to reaction control and workup. 2-Benzylacrylic Acid synthesis involves several delicate balance points—especially during condensation and subsequent purification. Temperature swings or inconsistent solvent removal can foster isomerization or polymeric byproducts. As a manufacturer operating on dedicated lines, we apply inline analytical tools and frequent batch checks, extending quality far beyond statistical sampling.
Process adjustments—pH control, drying regimes, anti-solvent additions—are fine-tuned batch-wise, based on lessons learned from previous campaigns. This serial improvement means our latest shipments reflect cumulative refinements. We also maintain batch traceability for years, so clients can refer to specific lots if they need analytical cross-reference or regulatory support.
We value open feedback from customers, which has led us to redesign portions of our crystallization setup and invest in safer packaging. A solvent-free drying line implemented after several requests now produces lower-residual-solvent lots, improving safety and shelf life for long-distance transport. Real disruptions, such as international freight slowdowns and container shortages, have further validated our decision to keep local stocks ready and to design packaging that withstands temperature and moisture stress across geographies.
Our manufacturing experience has taught us that environmental controls are inseparable from cost and product integrity. Handling of benzylated intermediates creates unique waste streams; strict air, water, and solid phase emissions management directly benefits both local communities and downstream customers. We maintain and update our process safety and mitigation systems against evolving standards. Operators receive both annual and on-demand safety refreshers, reflecting real learning curves, not just pamphlet briefings.
We offer detailed documentation for safe handling, but our input comes from direct observation—from small lab spills to plant-level events over a working lifetime in chemical synthesis. Conversations with our on-site safety managers, as well as compliance verification by authorities, keep us vigilant. We favor closed transfers and low-permeable drums because open transfers in humid or high-dust environments have, in the past, led to off-spec lots or operator exposures. No solution remains static; as new best practices emerge, we adopt those that actually work in field conditions.
Our approach avoids excessive bureaucracy in favor of targeted, transparent risk management. We share practical tips from the field, such as preferred PPE types and the importance of storing acids on corrosion-resistant shelving, because we know superficial compliance can mask lingering vulnerabilities.
Feedback from diversified partners brings steady learning. Some academic teams value our 2-Benzylacrylic Acid for small-molecule innovation and structure-activity relationship research. Organic synthesis start-ups count on batch repeatability to move from milligram to multi-kilogram scale-up with confidence. Polymer manufacturers note the compound’s distinctive response in co-polymerizations; the benzyl's electron-donating nature produces tunable mechanical and flow characteristics.
Repeat customers have pointed out that differences between true 2-Benzylacrylic Acid and its close cousins are not always obvious at a glance, but become dramatically clear after reaction workup or in application properties. Knowledge born from hands-on experience, not just catalog copy, saves projects from costly detours.
As patent filings and regulatory documentation become more demanding, they underscore the need for full characterization data—impurities, stability under simulated use, reactivity in prolonged storage. Our relationships with third-party labs, both domestic and international, support independent verification, which is vital for clients submitting data to government agencies or industrial boards.
Looking forward, our focus stays on realistic user challenges. Research directions are moving toward more sustainable syntheses, pushing manufacturers like us to optimize not just endpoint purity, but also raw material sourcing, waste reduction, and energy consumption per batch. We have launched energy audits, invested in byproduct valorization, and are collaborating with academic partners to investigate catalyst alternatives that reduce both cost and environmental load.
Supply chain uncertainties remain—raw material spikes, logistic bottlenecks—but our longstanding relationships with upstream producers and freight partners cushion volatility. We communicate clearly about lead times and contingencies, drawing from real supply experience, not just market assumptions. Plant outages and regulatory delays can impact schedules, so we maintain transparency and flexibility; our internal systems track batch status in real time and update clients directly.
As user goals broaden, we support projects requiring customized documentation or technical support—tailoring services based on what actually drives their product performance. Our laboratory staff often engage in knowledge exchange with client R&D teams, reviewing reaction conditions and troubleshooting alongside end users instead of simply shipping material with a packing slip.
Real mastery in producing 2-Benzylacrylic Acid grows from daily hands-on work—not from recycled sales copy or abstract claims. For manufacturers, staying close to the product means responding to challenges as they arise, using collective memory and systematic improvement to raise standards. Whether the need is for cutting-edge innovation or tried and true consistency, field experience shapes a product that earns trust through real performance. Our aim is to keep building on lessons learned from every new reaction run, every logistics challenge, and every user outcome—advancing with the industries and the people that rely on our acid to move their science and manufacture forward.