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HS Code |
882975 |
| Chemical Name | 3-Acetoxy-O-Toluic Acid |
| Molecular Formula | C10H10O4 |
| Molecular Weight | 194.19 g/mol |
| Cas Number | 14319-24-3 |
| Appearance | White to off-white solid |
| Melting Point | 119-121°C |
| Solubility | Soluble in organic solvents such as ethanol and DMSO |
| Structure | An acetoxy group at the 3-position and a methyl group ortho to the carboxylic acid on a benzene ring |
| Synonyms | 3-Acetoxy-2-methylbenzoic acid |
| Storage Conditions | Store in a cool, dry place and keep container tightly closed |
As an accredited 3-Acetoxy-O-Toluic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 500g package of 3-Acetoxy-O-Toluic Acid comes in a sealed, labeled amber glass bottle with a tamper-evident cap. |
| Shipping | 3-Acetoxy-O-Toluic Acid is shipped in tightly sealed containers, protected from moisture and direct sunlight. Packages comply with chemical safety regulations, including labeling and documentation. Transport is generally at ambient temperature, with consideration for compatibility with other substances. Handle with care to avoid spills or exposure during shipment. |
| Storage | 3-Acetoxy-O-Toluic Acid should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from sources of ignition and incompatible substances such as strong oxidizers. Protect it from moisture and direct sunlight. Store at room temperature, avoiding excessive heat. Proper chemical labeling and secondary containment are recommended to prevent leaks or accidental exposure. |
Applications of 3-Acetoxy-O-Toluic Acid in Industrial ManufacturingWe manufacture 3-Acetoxy-O-Toluic Acid with process controls and traceability for advanced industrial applications. This intermediate plays an important role in organic synthesis across pharmaceuticals, agrochemicals, fine chemicals, and pigment manufacturing. Below we outline specific downstream uses and integration details for B2B customers in each domain. 1. Intermediate for Non-Steroidal Anti-Inflammatory Drug (NSAID) Synthesis3-Acetoxy-O-Toluic Acid serves as a critical acylation precursor during multi-step synthesis of select NSAID intermediates, including certain tolmetin and related analogs. Downstream pharmaceutical manufacturers use this compound in the stepwise construction of benzene ring modifications, controlling acetyl group transfer to achieve desired substitution patterns. Stringent documentation of starting material trace is required to pass regulatory inspection and to ensure final API purity. Handling includes in-process controls to prevent hydrolysis and guarantee batch consistency. Industry compliance standards
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2. Building Block for Agricultural Fungicide SynthesisThis material is integrated into the chemical synthesis of several benzene-based fungicide actives. Agrochemical formulators employ it for its acetoxy functionality, which can be selectively hydrolyzed or further functionalized to yield target triazole or strobilurin fungicide compounds. Controlled reaction sequences ensure no unwanted byproducts enter the final formulation, as regulatory authorities require residue analysis and impurity mapping for new agricultural active ingredients. Industry compliance standards
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3. Precursor for Organic Pigment ManufacturingProducers of specialty pigments leverage 3-Acetoxy-O-Toluic Acid to introduce specific ester functionalities on aromatic rings, optimizing chromophore structure for desired lightfastness and solubility. Its controlled reactivity makes it suitable for step-growth synthesis of anthraquinone and azo pigment intermediates. Downstream pigment plants use this raw material to maximize batch-to-batch color consistency designated for coatings, inks, and plastics where regulatory standards impose limits on extractables and leachables. Industry compliance standards
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4. Functional Group Donor in Fine Chemical EsterificationIn fine chemical manufacturing, formulators use this compound as an efficient acetyl group donor for custom esterification reactions, enabling functional group introduction onto benzenoid frameworks. Labs and plants synthesize performance additives, stabilizers, and intermediates where consistent ester placement influences the ultimate solubility and reactivity of specialty chemicals. Manufacturers document full traceability and batch blending to support technical dossiers for downstream partners. Industry compliance standards
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Crafting specialty chemicals demands precision, and not every facility puts in the work required to reach the strictest standards. Our team came to realize early that 3-Acetoxy-O-Toluic Acid sets itself apart from similar compounds both in terms of handling and end-use potential. Over years of batch production, we’ve seen requests climb in pharmaceutical projects, dyes, and the research sector. Customers choose our 3-Acetoxy-O-Toluic Acid because the outcome demonstrates what matters most: dependable quality, ease of use in the lab, and reliable mixing in process-scale batches.
Ask any mid-size or large-scale facility manager—no one welcomes material that triggers rework, instability, or incomplete reactions. That’s why we closely manage purity, water content, melting point, and crystalline structure. Our standard product, Model: 3426, meets a purity threshold of 99.0% on a dry basis. Melting point ranges reliably in the low-120°C window, with particle sizing that supports both benchtop and automated process feeders. Each batch is sealed against moisture risk, shipped with a clear batch record, and derived from proven, scalable synthesis routes. The acetoxy and toluic acid core delivers the reactivity chemists expect, anchored by O-position isomer selectivity.
Manufacturing this compound has taught us that even minor impurities and batch-to-batch fluctuations harm downstream processing. A small slip in crystallization temperature can push the melting point out of range, which ruins feedstock predictability for pharmaceutical syntheses. Experienced operators notice the difference: consistent particle size and reproducibility beat high-theoretical purity every time when moving product from gram-scale runs to drums or tote loads.
Handling characteristics influence every stage from warehousing to dissolution. Raw material vendors often overlook the stickiness or flow problems that turn up after a few months on the rack. We keep a close eye on moisture content and how it affects not only the immediate process but long-term storage. Material that seems fine in the QC lab can clump or degrade after a cross-country shipment; our production line addresses these real-world stresses, aiming for a shelf-stable product that performs the same, batch after batch.
Over the past decade, colleagues in research, pharmaceutical development, and advanced materials have come to rely on our 3-Acetoxy-O-Toluic Acid. The most common applications involve esterification reactions, intermediates for active pharmaceutical ingredients, and stepping stones in dye synthesis. Chemists choose this molecule because it offers a stable, readily handled source of an acetoxy group in substitution chemistry.
Users value the high selectivity at the ortho position, which smooths downstream synthesis steps. In benchtop drug development, teams focus on aggregate yield, minimal by-products, and reaction clarity. We’ve shared practice notes with project managers scaling up from pilot to full production lines. Time and again, our lots have supported gentle conversions, modest temperature requirements, and strong working yields across different catalytic setups.
Every chemical company touts purity, but what differentiates ours comes down to how we treat trace contaminants and control the process environment. Years ago, we faced issues with trace metal leaching from legacy equipment, an issue resolved only by overhauling reaction vessels and investing in advanced analytics. Now, ICP-OES screening and routine HPLC tie-outs leave no guesswork about inorganic or organic contaminants.
Our technicians emphasize batch repeatability and stability post-synthesis. During purification, temperature ramping, and final packaging, we monitor for off-spec batches. Some competitors may offer a slightly higher nominal purity, but regular users note the ease of solution preparation and reliable process performance only from our production methods. Talking to long-term partners brings out the importance of not just high numbers on a lab report but consistency with real, measurable advantages in day-to-day chemistry.
Chemical synthesis is rarely trouble-free. Early on, we confronted challenges with substitution side products, particularly from uncontrolled acetylation conditions. Process intensification, especially at scale, introduced batch variability until tighter temperature and pH controls stabilized output quality. In response, we added redundant temperature sensors to each reactor, mixing baffles for improved heat dispersal, and routine spot-titration during esterification phases.
Transport poses its own risks—moisture and jar-breakage top the list. Our team switched to more robust double-lined packaging and improved silica-gel loading that made a measurable difference in clumping and hydrolysis over long journeys. Regular feedback from partners using automated dosing equipment led us to screen for particle sizing that resists bridging and reduces unplanned downtime.
It’s worth highlighting what separates our 3-Acetoxy-O-Toluic Acid from relatives such as 2- or 4-acetoxy isomers and alternative protected benzoic acids. Many labs try off-the-shelf alternatives only to discover unpredictable reactivity or difficult downstream deprotection. The ortho-acetoxy group in our product influences both steric and electronic effects during subsequent reactions, which helps avoid unhelpful side products.
Lab teams remark on reduced waste disposal complexity and smoother purification cycles with our compound. Alternative sources sometimes deliver high color or odor levels due to incomplete reaction quenching. Through multiple recrystallization cycles, we keep the color low, minimizing by-product contamination and giving users peace of mind about trace impurities. Our acetylation process was fine-tuned to eliminate stuck-on acetic acid byproducts, which means less risk of uncontrolled reactivity in downstream work.
Our chemists and engineers often consult closely with customers on process adaptation. Process developers pushing the limits of high-throughput and fragment-based drug discovery find our O-acetoxy toluic acid more than just a commodity input; it acts as a dependable building block for analog exploration. Modern standards in regulated industries demand full traceability, low metal content, and documentation covering each production run. Our ongoing commitment includes real batch data, stability testing, and customer-facing reports.
Scaling up from discovery to full-scale manufacturing has underscored the value of consistency and transparency. We routinely batch-produce at the multi-ton scale yet serve research and pilot setups with small-lot fills straight from our main line. Direct communication with end-users gives us firsthand insight into hurdles they face, and that feedback shapes every adjustment or improvement we make to our processes. Our team’s door remains open to improvement suggestions based on lab or plant experience.
Over the last several years, raw material supply shocks and global logistics challenges reshaped chemical manufacturing priorities. We still see many companies competing mainly on price, chasing bulk volume at the expense of reliability or regional responsiveness. Our strategy includes multi-source feedstock validation and on-site testing of every tank or drum before use. Taking the time for real chemical verification at goods-in avoids the batch failures and lost time that risk downstream projects.
The drive toward greener processes has inspired us to gradually transition to solvent recovery and closed-loop acetylation steps, which curtails hazardous waste streams. We’re not content to rest on simple compliance with regulations; instead, practical reduction of operator exposure and energy demand reflects a commitment to sustainable chemistry that partners appreciate when vetting suppliers.
No two installations use our product quite the same way. Biotech startups may require small, ultra-pure lots for application in medicinal chemistry. Industrial dye houses need steady supplies for high-throughput colorant synthesis, focusing on consistent color value and purity rather than record-setting analysis numbers. Our manufacturing team routinely shares best practices in dilution, premixing, and troubleshooting to help customer teams adapt to shifting project requirements.
Supporting seasoned R&D chemists or engineers means moving beyond simple technical data. We field questions on scaling from kilogram to multi-ton batches, storage and shelf-life, and safe cleanup of accidental spills. Lessons learned from mishaps—like runaway exotherms or ragged endpoint titrations—make their way into revised process notes, lab handbooks, and even packaging tweaks. Our priority is to keep customers out of avoidable trouble, learning from past mistakes and applying each lesson to improve reliability.
We don’t rely exclusively on certificates of analysis. In-house analytics run alongside third-party lab checks for purity, residual solvents, and potential cross-contaminants. Regular process audits and environmental monitoring go hand in hand with operator training and batch traceability. Raw material certification, on-line NMR, and rapid chromatography tools tighten our feedback loop. Customers can request full origin and lot histories, and our technical support team handles real-world troubleshooting—right down to helping R&D chemists interpret spectral data or resolve tricky yields.
Regulatory changes and evolving laboratory protocols drive ongoing product reviews. We track updates from agencies and scientific bodies to ensure compliance for sensitive or high-purity applications. By building quality and communication into every level of production, from raw purchase to packed carton, we deliver a product that keeps research on track and plants running smoothly.
Customer priorities shift as new chemistry emerges or regulations tighten. Our ongoing dialogues with procurement officers, lab managers, and technical leads shape our priorities, whether that means adjusting grade splits, offering additional testing, or adopting tamper-proof packaging. Results from fieldwork and honest customer conversations guide us more than market trends or analyst forecasts.
Choosing a specialty intermediate doesn’t just come down to specification sheets. In our experience, process reliability, transparency, and direct support prove every bit as valuable as stated purity or packing configuration. By focusing on the specific needs of active users, not just transactional buyers, we deliver a 3-Acetoxy-O-Toluic Acid that stands up to demanding synthesis in research and industry alike.
Ongoing investment in production control, hands-on support, and pragmatic risk management ensures our O-acetoxy toluic acid continues to anchor high-yield, efficient processes for our partners. Whether for routine bench work or complex, regulated manufacturing, our product brings together the practical benefits of experience, steady quality, and an open line for ongoing improvement. Our focus remains clear: supply a product that matches the demands of today’s—and tomorrow’s—advanced chemistry.