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HS Code |
819090 |
| Compound Name | 3'-Acetoxyacetophenone |
| Molecular Formula | C10H10O3 |
| Molecular Weight | 178.19 g/mol |
| Cas Number | 2580-80-1 |
| Appearance | White to off-white crystalline powder |
| Melting Point | 62-65 °C |
| Boiling Point | 321.5 °C at 760 mmHg |
| Density | 1.20 g/cm3 |
| Solubility In Water | Slightly soluble |
| Smiles | CC(=O)C1=CC(=CC=C1)OC(=O)C |
| Refractive Index | 1.536 |
| Purity | Typically ≥98% |
As an accredited 3'-Acetoxyacetophenone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 100g white plastic bottle is tightly sealed, clearly labeled "3'-Acetoxyacetophenone," and features hazard pictograms and handling precautions. |
| Shipping | 3'-Acetoxyacetophenone is shipped in tightly sealed containers, protected from moisture, light, and incompatible substances. It should be handled in accordance with standard chemical safety protocols and transported under ambient temperature conditions. Ensure proper labeling and documentation in compliance with relevant regulatory and safety guidelines for chemical shipments. |
| Storage | 3'-Acetoxyacetophenone 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 from light and moisture. Store at room temperature and ensure that the storage area is secure and clearly labeled. Avoid prolonged or repeated exposure to air and keep away from heat. |
Applications of 3'-Acetoxyacetophenone in Industrial ManufacturingAs a direct manufacturer of 3'-Acetoxyacetophenone, we supply this specialty intermediate into regulated sectors that require strict process control and high-purity input materials. Our technical support team assists with on-site trials, compliance interpretation, and continuous improvement for scale-up integration. Below, we outline real-world industrial applications where our material plays a critical technical and economic role. 1. Pharmaceutical Intermediate for Antifungal API SynthesisWe supply 3'-Acetoxyacetophenone as a key building block in the synthesis of specific azole-based antifungal active pharmaceutical ingredients (APIs). Major pharmaceutical plants initiate its use in the Friedel-Crafts acylation step to construct acetophenone derivatives required for advanced intermediates. Our material supports batch-wise and continuous-flow processes, enabling compliance with pharmacopoeial monographs and strict impurity profiles. Pilot studies confirm robust scalability with this intermediate, especially for triazole and imidazole derivatives where acetoxy substitution governs bioactivity and metabolic profile. Industry compliance standards
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2. Fine Chemical Intermediate in Fragrance ManufactureOur 3'-Acetoxyacetophenone supports perfumery and fragrance houses as a controlled intermediate for producing complex ketones and acetates. Downstream manufacturers utilize its acetoxy group to introduce specific olfactory notes during multi-step synthesis of key aromatic ingredients. Batch records document its flow from acetylation into aldehyde condensation, ensuring olfactory quality and low trace impurity content. Our batch-to-batch consistency aids formulators in predicting reaction outcomes and odor profile uniformity. Industry compliance standards
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3. Organic Electronic Material Synthesis (OLED Precursors)Downstream processors employ 3'-Acetoxyacetophenone as a linker or protecting group in the manufacture of advanced organic semiconductors. Its controlled reactivity and substituent placement enable specific condensation or coupling reactions that determine the electronic properties of OLED emitter layers. Material scientists report that usage of this intermediate improves molecular planarity and charge mobility in the final organic layer assemblies. Batch-level quality assurance ensures consistent melting point and controlled moisture for device reliability. Industry compliance standards
Typical usage ratio
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4. Intermediate for Agrochemical SynthesisAgrochemical producers use 3'-Acetoxyacetophenone as an essential intermediate in synthesizing certain herbicide and fungicide molecules. The acetoxy group introduces required substitution on aromatic rings, influencing selectivity and breakdown rates in target field applications. Our raw material meets stringent impurity thresholds critical for low-residue pesticides. Downstream engineers optimize its ratio in multi-step syntheses to balance yield, active content, and regulatory acceptance. Industry compliance standards
Typical usage ratio
Downstream process integration
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Years in the lab and on the production floor have taught us that customers expect more than pure molecules—they want deliveries they can plan around, bottles they trust, and feedback from a source that lives with the chemistry every day. 3'-Acetoxyacetophenone reflects this hands-on commitment. Its core formula, C10H10O3, comes together through a process we have optimized for repeatability and tailored towards requirements that we’ve encountered not just on spec sheets but through direct conversations with formulators in specialties ranging from pharmaceutical intermediates to research applications.
3'-Acetoxyacetophenone, known by its chemical name 1-(3-acetoxyphenyl)ethanone, offers a unique acetylated functionality, separating it from the broader family of acetophenone derivatives. With a molecular weight of 178.18 g/mol, its crystalline purity reaches standards developed for both small-batch innovators and larger scale users who need uninterrupted supply chains. Our routine batch testing emphasizes clear melting points, residue on ignition, and solvent trace analysis. Each time a batch leaves our plant, the quality assurance measures reflect both international requirements and the tweaks we’ve had to make based on real performance feedback over time.
The market houses many acetophenones, each carrying its own functional group at different positions on the aromatic ring. Chemists who’ve worked with both para- and ortho-substituted versions notice how small changes flip solubility patterns, melting points, and downstream reactivity. With 3'-acetoxy substitution, the product offers both electron-withdrawing and donating influences that usually result in smoother transitions during further chemical transformations. This isn’t just textbook lore; actual feedback from customers in fine chemical synthesis has shown that its selectivity often leads to fewer by-products and, in some reactions, more consistent yields. For projects bound by tight quality targets, it helps that this is not a generic, off-the-shelf intermediate—each lot pays attention to minute variances that influence practical outcomes.
On the research side, 3'-Acetoxyacetophenone often sees early-stage projects—structure-activity relationship investigations, library synthesis for medicinal chemistry, and as a stepping stone toward more complex protected aromatic ketones. Those in custom manufacturing for the pharmaceutical industry tell us it behaves more predictably in Friedel-Crafts reactions compared to some para or ortho analogues, thanks to steric effects balancing electron density at the desired positions. Analytical and method development teams have asked for this molecule repeatedly when optimizing for selectivity in process chemistry.
Beyond research, this intermediate finds its way into agrochemical development and, on occasion, fragrances and specialty polymers, either serving as a precursor or as a group that imparts distinct olfactory or physical properties. Where control over acetyl group position is important, we hear that our consistent isomer purity saves time in purification, reducing unnecessary waste. For contract manufacturers under regulatory or cost pressures, every bit of downstream efficiency counts.
As the manufacturer, our experience tells us scale-up rarely happens in clean textbook increments. Demand for 3'-Acetoxyacetophenone peaks and dips as projects get funded or advance through developmental milestones. We keep flexible batch sizes and maintain buffer stocks to avoid the “production gap” that plagues less prepared supply networks. Real-life examples show how academic labs can run up against industry buyers at any moment, so we established packaging lines that adapt to both kilogram and multi-ton orders with the same lot identity standards. Tracking batch lineage means any customer can ask us for full upstream traceability, even years down the road.
Learning from years in the industry, we moved away from one-size-fits-all containers. Our shipments use glass, HDPE, or steel drums based on actual transit conditions and customer storage requirements. We have seen too many cases where an “industry standard” pack-out was—in practice—a source of contamination, so we audit logistics as intensively as production.
Start with melting point: for 3'-Acetoxyacetophenone, tighter control narrows the range in each lot, acting as a practical fingerprint for composition and contamination. Several years ago, a contract partner pointed out inconsistencies in solvent residues across suppliers, so we invested in headspace GC analysis for every batch. Technical specifications aren’t just compliance; they are roadmaps for solving real headaches. Chromatographic purity, moisture content, and color aren’t byproducts—they tell us, as much as the buyer, whether something meets the tough regulatory or process needs expected downstream.
Labels grow more detailed each year, but our approach puts as much relevant information up front, based on patterns we track during day-to-day usage by our own in-house teams. As manufacturers, we often encounter that formulation tolerances aren’t always obvious at the outset—one team’s trace water is another team’s process halter. Our direct support staff draw from actual troubleshooting experience, not just manuals, so outliers get flagged before they disrupt a production window.
Everyone knows 4’-substituted acetophenones for their widespread use, but the 3’-acetoxy group imparts different reactivity, physical stability, and trace impurity profiles. Manufacturing both allows for perspective: we’ve watched as researchers, switching from para to meta, gain previously unachievable selectivity, while industrial users appreciate how the isomer shift alters workup and isolation conditions. Our real-world experience suggests it makes sense to have access to both, but many times, a specific activity or protection pattern in downstream chemistry favors properly produced 3'-Acetoxyacetophenone. Sourcing from the producer, not a reseller or repacker, keeps these “hidden” molecular differences from causing scale-up failures.
We maintain both hydrogenation and oxidation lines in the facility to allow production in either direction from precursor stocks depending on need. Our team has encountered and systematically addressed issues unique to the 3' position, such as higher volatility of certain byproducts and sensitivity of the acetoxy group to moisture in storage or shipment. That’s the benefit of making it ourselves—quick process adjustment, real outcomes, lower down-line troubleshooting costs for the user.
Purchasing directly from a chemical manufacturer should never feel like a black box. Our technical team shares sample batch records and typical impurity patterns with customers who request them, and we routinely support larger project users by tailoring shipment documentation to simplify customs clearance and regulatory checks. Many times, having the right handling advice—drawn from what we’ve seen in our own plant, rather than generic material safety datasets—means customers use less product, waste less time, and avoid unnecessary downtime.
Technical conversations extend well beyond laboratory protocols. Whether feedback arrives after pilot trials or after long-term storage tests, our technical support staff channels these notes back to process engineers and QC teams every week. Real user input shapes both how we make and deliver 3'-Acetoxyacetophenone. Consistent purity and delivery timelines matter, but catching the subtle, recurring feedback about handling quirks leads to product and process improvements—saving both us and the customer time and resources.
Supplying to regulated and non-regulated applications, we rely on layered controls developed from years of dealing with both minor hiccups and large-scale nonconformities. Every production cycle incorporates checks that our auditors helped design after seeing field failures or analytical disputes. This means full certificates of analysis, cross-checked instrument calibration, and environmental monitoring—all the details that only come after plenty of lessons learned the hard way.
As tightening regulatory scrutiny becomes a reality across global markets, sourcing directly from a manufacturer with documented, traceable procedures can mean the difference in getting a product registered or approved. We routinely maintain compliance evidence for chemical registration authorities, so customers know paperwork fights aren’t going to slow their projects. Our internal auditing cycles have led to real process upgrades—hitting better quality metrics and reducing rework and hold-up in the plant.
3'-Acetoxyacetophenone isn’t without its quirks on the plant floor. Early in process development, we encountered solubility swings under small temperature shifts. Rather than chalk these up to “lab oddities,” our scale-up chemists built new solvent profiles and crystallization protocols to stabilize quality at production scale. Purging trace byproducts required updated purification routes. Over the years, these adjustments reduced batch rejection rates and customer troubleshooting requests. We prioritize sharing process changes whenever they impact specification points that end-users rely on.
One recurrent challenge appears in the consistency of input raw materials. We tackled this by signing long-term contracts with vetted suppliers, running random incoming inspection programs, and batch-tracking all precursor lots. Whenever an upstream issue hit, our quality systems made quick root-cause analysis possible. We don’t shirk feedback that reveals shortcomings; in fact, tough customer audits have repeatedly shaped policy and process alike.
Success in specialty chemicals starts after the product arrives. Our internal customer support specialists draw from records of real troubleshooting events—whether blocked filters in a pilot system or unexpected discoloration on storage. Each year’s customer reports feed back into staff training and even plant floor modifications. As a manufacturer, the goal stretches beyond “acceptable quality.” Each batch that leaves our tanks threads through lessons learned under tough, real-world conditions, not least of which come directly from the users themselves.
We devote serious resources to regulatory support: up-to-date SDS, RoHS and REACH status, and harmonized documentation for global trade. Regulatory teams often need rapid responses as new requirements come down; our in-house staff stays in regular contact with these groups, updating documentation and flagging issues before they cause project setbacks. No outsourced or second-hand help—real compliance, direct from where the chemistry happens.
Purchasing through layers of intermediaries introduces risk—from relabeling errors to unknown sources of contamination. Several long-running clients have shared stories of supply delays and quality disputes that vanished after sourcing directly. Our site visits and factory audits remain open to qualified partners. Transparency remains a pillar; we show our facility, batch records, and process improvements, understanding that confidence comes from seeing real operations—not reading about them through third parties.
Building these relationships means more than email traffic. Users drop in for pilot runs, method development, or troubleshooting. Our process engineers join calls to walk through purification or scale-up steps based on actual experience. Over time, this hands-on support reduces guesswork. It empowers formulators, process chemists, and plant managers to build on genuine, evidence-based understanding of what stands inside every container.
From the earliest stage of contact, we look for details that matter to the project—batch size fit, analytical needs, special packaging, regulatory hurdles. Orders get matched with a dedicated technical coordinator. Through this process, delivery shortfalls, packing errors, and specification mismatches drop off almost entirely.
If issues arise, customers reach our technical team directly—not through a call center, but with individuals who have steered the plant through major product revalidation and routine production alike. We don’t treat support as a ticketing exercise. Real-time responses save weeks in troubleshooting, reduce costly downtime, and ensure steady product flow for downstream integration.
Real progress in manufacturing comes from incremental, user-driven improvements. Only by actively courting feedback and adapting production on the shop floor do we maintain a standard that isn’t static but evolves in step with user expectations. As global regulatory, performance, and application challenges shift, we invest time and resources to stay ahead—never just to meet a baseline, but to shape better chemical intermediates and smoother partnerships. 3'-Acetoxyacetophenone, made and delivered direct, stands as one outcome of this philosophy. We look forward to seeing how our direct, experience-driven approach continues solving real user challenges, one batch at a time.