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3,5-Diacetoxybenzoic Acid

    • Product Name 3,5-Diacetoxybenzoic Acid
    • Alias RA 237
    • Einecs 242-601-9
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    556707

    Chemical Name 3,5-Diacetoxybenzoic Acid
    Molecular Formula C11H10O6
    Molecular Weight 238.19 g/mol
    Cas Number 2417-73-4
    Appearance White to off-white solid
    Melting Point 191-194 °C
    Solubility Slightly soluble in water, soluble in organic solvents
    Pubchem Cid 3267
    Smiles CC(=O)Oc1cc(cc(c1)OC(=O)C)C(=O)O
    Inchikey VIJIEGUZDFHTKD-UHFFFAOYSA-N
    Storage Conditions Store at room temperature, protected from moisture

    As an accredited 3,5-Diacetoxybenzoic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 3,5-Diacetoxybenzoic Acid, 25g, supplied in a sealed amber glass bottle with tamper-evident cap and clear labeling for safety.
    Shipping **3,5-Diacetoxybenzoic Acid** is shipped in tightly sealed containers, protected from moisture and light. The chemical is labeled according to hazardous materials regulations and accompanied by a safety data sheet. During transit, it is kept at ambient temperature, ensuring safe handling and compliance with relevant transportation guidelines.
    Storage 3,5-Diacetoxybenzoic acid should be stored in a tightly sealed container, protected from light and moisture, in a cool, dry, and well-ventilated area. Keep away from heat sources, incompatible materials (such as strong oxidizers), and direct sunlight. Store in accordance with local chemical storage regulations and label containers appropriately to prevent accidental misuse.
    Application of 3,5-Diacetoxybenzoic Acid

    Applications of 3,5-Diacetoxybenzoic Acid in Industrial Manufacturing

    3,5-Diacetoxybenzoic Acid serves as a key intermediate for multiple industrial transformation routes. Our production integrates deep expertise in process control, batch traceability, and regulatory compliance, supporting global downstream users in specialty synthesis, polymer modification, fine chemicals, and pharmaceutical intermediates.

    1. Pharmaceutical Intermediate for Antibacterial Agents

    Many pharmaceutical manufacturers use 3,5-Diacetoxybenzoic Acid as an advanced intermediate in the synthesis of certain phenolic antibacterial compounds and prodrugs. It participates in selective acylation or hydrolysis steps, creating targeted structures essential for patented actives. Careful analytical monitoring and solvent selection, such as using acetic anhydride with pyridine, ensure reproducibility. End-users benefit from its high purity, which helps limit side products and simplifies downstream purification when preparing regulated antibiotics and related molecules.

    Industry compliance standards

    • Good Manufacturing Practices (GMP) for APIs (ICH Q7, EU GMP Annex 1)
    • 21 CFR Part 211 (US FDA finished pharmaceuticals)
    • Pharmacopoeia references (USP, EP) for raw material suitability
    • ISO 9001:2015 certified quality systems

    Typical usage ratio

    • 10% - 50% relative to active pharmaceutical ingredient batch, adjusted according to synthetic route and yield requirements

    Downstream process integration

    • Added during protected group installation in benzene ring synthesis steps
    • Involved in coupling or deprotection phase before final API crystallization

    Final product types

    • Antibacterial active pharmaceutical ingredients
    • Pro-drugs for extended-release dosage forms
    • Intermediate salts for further hydrogenation
    • Stabilized solutions for injectable drug formulations

    2. Monomer Modifier in Polyarylate Engineering Plastics

    Compounders in advanced polymer engineering employ 3,5-Diacetoxybenzoic Acid as a specialty modifying monomer for polyarylate and copolyester resins. It introduces controlled acetoxy functionality, enhancing resin processability, molecular weight control, and thermal performance. Tight color control, low ash content, and batch-to-batch reproducibility are required for specialty engineered plastics. Consistent reactivity supports precise polymer backbone modification, suited to both injection molding and extrusion environments for specialty films and molded articles.

    Industry compliance standards

    • ISO 9001:2015 (polymer production)
    • REACH (for Europe, substance registration for use in polymers)
    • RoHS Directive for electronics component plastics
    • UL 94 flammability compliance as required by customer specification

    Typical usage ratio

    • 0.5% – 5% by weight in resin formulation; exact dosing based on molecular design targets and melt viscosity control

    Downstream process integration

    • Fed directly into polycondensation reactors as a comonomer with key diacids and diols
    • Supports in-situ acetylation control during resin backbone formation

    Final product types

    • High-performance thermoplastic films
    • Custom-molded electronic housings
    • Specialty optical-grade sheets
    • Injection-molded automotive interior components

    3. Building Block for Liquid Crystal Material Synthesis

    Specialty chemical producers source this molecule as a precursor in the synthesis of key mesogenic compounds used in liquid crystal device formulation. Its dialkoxy substituents contribute to precise molecular alignment characteristics, critical for stable LC phases. Manufacturers utilize it in highly controlled condensation and esterification steps under inert atmosphere, with continuous monitoring of purity and optical activity. Downstream, these compounds support development of advanced display, sensor, and imaging technology platforms, where traceability and consistent performance are required.

    Industry compliance standards

    • ISO 14001:2015 (environmental management for specialty chemicals)
    • IEC 61249 (materials for electrical and electronic assemblies)
    • ISO 9001:2015 quality assurance
    • REACH registration for synthesis intermediates

    Typical usage ratio

    • 5% – 20% referenced to total reactants in mesogen precursor reaction; optimized for purity and phase behavior

    Downstream process integration

    • Utilized in esterification or Williamson ether synthesis during core LC segment production
    • Enters process before final purification and product formulation into LC mixtures

    Final product types

    • Low-melting liquid crystal monomers
    • Display-grade biphenyl or terphenyl derivatives
    • Alignment coatings for LCD manufacturing
    • Organic electronic materials for sensor devices

    4. Fine Chemical Intermediate in UV Absorber Production

    Producers in the specialty additives sector incorporate 3,5-Diacetoxybenzoic Acid as an intermediate for selected benzophenone- and benzotriazole-based UV-absorbers. Its acetoxy groups act as reactive sites for subsequent etherification or hydrolysis, supporting the creation of tailored ultraviolet protection agents for coatings, plastics, and optical goods. Stringent upstream control of moisture, residual acid value, and color index ensures compatibility with sensitive downstream processes such as melt compounding, polymer blending, and solution mixing.

    Industry compliance standards

    • ISO 9001:2015 (production of fine chemicals)
    • Toy and food contact segment compliance (EU 10/2011, FDA 21 CFR 175.300 for coatings)
    • REACH registration obligations for UV absorber intermediates
    • Quality agreements for controlled substance use in formulated plastics

    Typical usage ratio

    • 5% – 15% of intermediate mass before final condensation step; precise level set by desired UV absorption spectrum and substitution pattern

    Downstream process integration

    • Charged during the initial synthesis of benzophenone or triazine derivatives
    • Subjected to condensation, etherification, and hydrolysis before blending into formulations

    Final product types

    • UV-absorber additives for masterbatch production
    • Transparent coatings for plastics and textiles
    • Light-stability additives for paints and varnishes
    • High-durability automotive surface treatments
    Free Quote

    Competitive 3,5-Diacetoxybenzoic Acid prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    3,5-Diacetoxybenzoic Acid: Quality Rooted in Reliable Chemistry

    Talking directly to researchers, formulation specialists, and chemical developers, there is a clear pattern in the kinds of needs that come back to our plant each quarter. Reliability, traceability, and performance in compounds matter deeply, especially in advanced intermediates. Among these, 3,5-Diacetoxybenzoic Acid stands out for multiple reasons that do not always come through in a typical datasheet or catalog. This compound, produced consistently in our facility, draws interest for its unique acetoxy-functionalized aromatic ring, which influences how it behaves during downstream synthesis and in finished products.

    Understanding the Model and Specifications From a Manufacturer’s Bench

    We have worked through several method adjustments to ensure that our 3,5-Diacetoxybenzoic Acid meets the tightest expectations demanded by chemical and pharmaceutical R&D teams. The material has the molecular formula C11H10O6, weighing in at 238.19 g/mol. Our current production uses a carefully controlled acetylation process to protect the hydroxy groups, which preserves the chemical integrity during scale-up.

    We typically supply in the pure, crystalline form, with a purity exceeding 99% as determined by HPLC and confirmed by NMR and FTIR. The melting point holds steady in the 161-164°C range, which gives consistent feedback on the absence of common impurities. Through our own QMS, we constantly monitor not only final purity, but also residual solvents, trace metal content, and moisture, since these often go underreported. Packed in tightly sealed, inert-lined containers at source, our batches show low degradation rates and stable shelf life over several years under recommended storage.

    The physical appearance of the product – white to off-white crystals – might not seem remarkable. What matters in daily lab operations is the low tendency to clump, the ease with which it can be weighed and transferred, and the absence of dustiness. We have made subtle changes to drying and sieving stages over the last decade based on customer feedback, so technicians do not find inconsistencies from one drum or bottle to the next.

    Usage: Insights Gained from Real Production Settings

    Most inquiries about 3,5-Diacetoxybenzoic Acid come from specialty chemical firms and pharmaceutical labs working on the synthesis of more complex benzoic acid derivatives. Its dual acetoxy groups, positioned meta- to each other, serve as protective groups that can be selectively removed, giving chemists the ability to build complexity in a controlled sequence. You will often see this compound used in the manufacture of advanced APIs, particularly where site-selective reactions on the aromatic ring are necessary.

    Beyond pharmaceutical synthesis, some of our partners employ this compound within polymers and cross-linking agents. The acetoxy substituents can be swapped for functionalities that control solubility or reactivity, which helps designers of specialty plastics and coatings fine-tune their formulations. Compared to unsubstituted benzoic acids, this molecule’s acetyl protection offers clear advantages for selective esterification or amidation steps.

    In practice, the biggest difference comes through during multi-step synthesis campaigns. The acetoxy-protected sites make it possible to introduce further substituents at chosen positions without unwanted side reactions. In our own experience supporting contract synthesis projects, chemists use this control to reduce the number of purification steps, resulting in cleaner intermediates and less wasted solvent. This has cost and environmental knock-on benefits that matter at scale, not just in gram-quantity experimentation.

    Customers developing analytical standards also value our batch-to-batch reproducibility. Chromatography labs, for example, do not need to revalidate retention times or set up long calibration curves after switching between lots – something we manage through process verification at each stage. Because quality variability leads to costly troubleshooting downstream, our team openly shares QC data for each shipment, and we welcome third-party verification from clients.

    Differences That Come from Firsthand Manufacturing Experience

    There are a number of suppliers who offer acetoxybenzoic acids. It’s easy for any trader to provide a CAS number, but the differences surface with actual use. Sourcing from a direct manufacturer means every batch comes with not just a CoA, but also full documentation on raw material origins, processing conditions, and trace impurity profiles.

    We invest heavily in closed-system handling to minimize risk of cross-contamination, critical for customers in regulated industries. Most third-party resellers do not operate at a scale where they can routinely analyze for iso-acetoxy impurities, or even guarantee that the process water used meets pharmaceutical standards. As a result, labs using off-grade material encounter more baseline noise in analytical runs, and sometimes find themselves chasing down issues that originate upstream.

    Over the years, we have responded to evolving expectations on sustainability, reducing both solvent load in our acetylation steps and improving energy-efficiency in our drying cycles. For clients with green chemistry targets, we document these improvements and participate in supplier audits. Our compliance team frequently discusses new REACH and FDA guidelines with clients, integrating their feedback directly into process validation runs.

    Direct feedback from clients has led to innovations that cannot come from simply passing product through hands. As a manufacturer, if a pharmaceutical partner identifies a trace impurity that’s surfaced in their final drug substance, we can go back through archived in-process samples and analytical data, troubleshooting and tracing the source down to a reactor or even a particular feedstock lot. This traceability is not theoretical – several times, being able to pinpoint such issues quickly has rescued months of client development effort.

    Our focus on in-house production also affects documentation. We maintain real records, not just paperwork pulled together for regulatory filings. This means tech transfer discussions – whether for scaling up a pilot run or adapting analytical methods for a customer’s instruments – start from actual batch and run history, not generic templates. If a partner wants to change granulation size or dewpoint tolerance, we can make those adjustments at the next scheduled run, instead of seeking approval through distant subcontractors.

    Supporting Research and Production with True Partnership

    Over time, the most successful relationships we have built come from working closely with customers on their specific challenges. For example, a contract research group focusing on benzofuran derivatives came to us after a run of inconsistent reactivity with competitors’ 3,5-diacetoxybenzoic acid. After walking through their process, reviewing our chromatograms side-by-side with theirs, and exchanging samples, it became obvious their previous material had a slowly building contaminant impurity profile – something only visible after several weeks’ storage.

    We adjusted storage practices, shared stability data, and set up a shared calendar for batch release and pickup, eliminating surprise downtime for the research team. This is the sort of practical problem-solving that only comes with control over the manufacturing process. Each partner gets to tap into the historical process optimization, not just the present batch. Our technical staff have come out to customer labs to help troubleshoot instrument compatibility and even confirm degradation pathways together.

    3,5-Diacetoxybenzoic Acid might not draw the same broad attention as some blockbuster industrial chemicals, but where it’s required, precision and trust count heavily. Errors at this step usually mean lost time on high-value syntheses or unreliable product data, so we focus on keeping direct lines of communication between our operations team and customer labs. This tight loop narrows down issues faster than rotating support desks or web forms ever could.

    We also recognize that no two customers treat the compound in exactly the same way. Some ask for custom packaging to minimize static, others need a special inert atmosphere for opening and transfer, a few prefer detailed impurity breakdowns alongside each drum or bottle. Having deep process knowledge in-house, along with a responsive logistics setup, allows us to accommodate these needs without the lag you see from dropship models.

    Safety, Storage, and Handling—Practical Guidance Direct From the Floor

    Daily experience in production and packaging lines has given us a granular understanding of how to safely move, store, and handle 3,5-diacetoxybenzoic acid. It is stable under dry, cool, and light-protected conditions, and we discourage any exposure to strong bases or moisture, which risks slow hydrolysis of the acetoxy groups. Our packing rooms use filtered dry air, and our staff apply basic personal safety measures—gloves, dust masks, splash protection—to guard against skin or eye irritation.

    Technicians appreciate that the material does not give off strong odors, nor does it readily become airborne. Any spills remain easy to sweep and collect, lowering cleanup times. For facility managers considering bulk storage, we advise temperature monitoring and, for longer-term storage, vacuum-sealed packaging to preserve purity. Over the years, we have filtered out dozen minor practical issues in the field that never show up in literature but make a difference in day-to-day handling.

    Why Source 3,5-Diacetoxybenzoic Acid Direct From a Dedicated Manufacturer?

    There’s a noticeable distinction in transparency and reliability between purchasing direct from a real chemical producer and dealing with resellers or bulk traders. Direct manufacturers answer for the quality and source of every raw material. If there’s a seasonal variation in acetic anhydride supply, we adjust schedules to preserve continuity. If a customer reports a sensitivity to specific trace metals, we can actually access old batch records, not excuses.

    Many users, especially those working to create APIs, biologically active compounds, or critical intermediates, hit stumbling blocks when their supply partners cannot provide traceability or documentation that matches up to audit requirements. Half the issues we see from remediation projects stem from poorly characterized lots or incomplete compliance paperwork provided by non-producers. In contrast, direct manufacturers have no ambiguity about batch genealogy, intermediate sampling, process water testing, or impurity carryover between runs.

    Our approach goes well beyond shipping on time or matching a purity spec. In a real manufacturing environment, documentation is only part of the story; active process control, open technical support, and real-time adjustment to changing customer demand matter just as much. By keeping every stage, from raw material validation through to packing and transport, under our own roof, we supply not just a chemical, but the experience and reliability that support demanding applications.

    Closing the Loop: Integrating Feedback for Ongoing Improvement

    Years of direct customer interaction, technical validation, and process refinement have taught us what sticks in the minds of innovators in chemical development. 3,5-diacetoxybenzoic acid serves as a tool for creative synthesis, the kind that stands up to strict regulatory review or solves a tricky selectivity challenge. The pathway from raw material to final product never unfolds exactly as it does in theory, so being able to tweak a drying schedule, update impurity reporting, or recalibrate a process according to real customer input makes the difference.

    By working as a long-term production partner, not just a one-time supplier, we help our clients adapt to shifting regulatory, commercial, and scientific demands. In practice this means planning ahead for supply chain disruptions, investing in cleaner and more efficient factory upgrades, and opening up all of our analytical data for real-world scrutiny—not just what is calculated to pass a procurement screen. Flexible, responsive, and invested in every shipment, we remain committed to delivering 3,5-diacetoxybenzoic acid that meets both today’s and tomorrow’s needs in specialty chemical synthesis.