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HS Code |
217107 |
| Chemical Name | m-Acetanisole |
| Iupac Name | 1-(3-methoxyphenyl)ethan-1-one |
| Cas Number | 587-60-6 |
| Molecular Formula | C9H10O2 |
| Molecular Weight | 150.18 |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point Celsius | 263 |
| Melting Point Celsius | 14 |
| Density G Per Cm3 | 1.09 |
| Solubility In Water | Insoluble |
| Refractive Index N20 | 1.545 |
| Flash Point Celsius | 134 |
| Smiles | COc1cccc(C(C)=O)c1 |
As an accredited m-Acetanisole factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Brown glass bottle labeled 'm-Acetanisole, 99%.' Net content: 100g. Features safety symbols and supplier information, tightly sealed cap. |
| Shipping | m-Acetanisole should be shipped in tightly sealed containers, protected from light and moisture. Store and transport at room temperature, away from incompatible substances (strong oxidizers). Ensure proper labeling and documentation. Handle with appropriate personal protective equipment as per MSDS recommendations. Comply with all relevant local, national, and international regulations during shipping. |
| Storage | m-Acetanisole should be stored in a cool, dry, and well-ventilated area away from sources of ignition, heat, and incompatible materials such as strong oxidizers. Keep the container tightly closed when not in use, and protect from direct sunlight. Store in a tightly sealed, properly labeled chemical container to prevent moisture entry and ensure safe handling. |
Applications of m-Acetanisole in Industrial ManufacturingOur factory-grade m-Acetanisole serves as a specialized chemical intermediate, widely integrated across several industrial downstream sectors. The following sections detail distinct uses, regulatory protocols, compounding guidelines, process steps, and end outputs for each segment based on verified industrial demand. 1. Fragrance Compounding for Aroma Chemical SynthesisAromatics manufacturers employ m-Acetanisole during the formulation of fine fragrance bases, particularly as a precursor or scent fixative. It imparts a sweet, slightly balsamic note, useful for blending in floral, woody, and oriental profiles. Our material supports stability in aroma reactions, suited for complex molecule design in perfumery labs and mass-scale blending plants. Technicians dose it precisely according to batch and product line, with ongoing control of purity and trace components. Industry compliance standards
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2. Pharmaceutical Intermediate for API Synthesism-Acetanisole functions as a selective intermediate for certain Active Pharmaceutical Ingredients (APIs), mainly in the custom synthesis of analgesic and antispasmodic molecules. Process chemists use it in multi-step syntheses due to its stability and well-defined reactivity, supporting high-yield pathways with limited side reactions. The raw material undergoes strict incoming QC to meet trace impurity requirements and batch reproducibility. Industry compliance standards
Typical usage ratio
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3. Dye and Pigment Intermediate in Specialty Colorants ManufacturingSpecialty dye producers rely on m-Acetanisole as a reactant for the synthesis of high-performance organic pigments and azo dyes. Its phenolic substitution pattern enables targeted azo coupling and condensation reactions, supporting high-purity dye lot production. Color development technicians select m-Acetanisole for its solubility and compatibility with various coupling agents, ensuring consistent color shade and processability in final pigment dispersions. Industry compliance standards
Typical usage ratio
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4. Chemical Intermediate in Agrochemical SynthesisAgrochemical manufacturers utilize m-Acetanisole as a key building block in the development of selective herbicides and synthesis of fungicidal agents. Its controlled reactivity allows precise functionalization in heterocyclic ring formations required for modern crop protection chemistries. Formulation engineers track the input level for yield management and environmental compliance, while maintaining batch traceability for downstream identification. Industry compliance standards
Typical usage ratio
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5. Polymer Additive Intermediate for Engineering PlasticsPlastics formulations include m-Acetanisole-based intermediates to enhance processability and thermal stability in engineering resins. During the synthesis of specialty monomers or additives, compounders ensure compatibility with polyamide, polycarbonate, and polyacetal matrices. Material loading is carefully balanced to optimize dispersion, limit volatilization, and comply with end-market safety requirements. Processing engineers use on-line analytics to track incorporation and support property consistency in the finished resin. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Decades of experience in aromatic chemical manufacturing have taught us how quality isn’t just about ticking boxes on a specification sheet — it’s about the actual, dependable materials and the trust our customers place in what we make. m-Acetanisole found its way into our catalog long ago, spurred by feedback from perfumers, flavorists, and technical teams looking for a reliable supply of this versatile compound. Over the years, we refined our process for making m-Acetanisole, guided by continual quality checks and careful response to customer needs.
Any manufacturer who works with benzoic derivatives understands the subtle differences that can impact the character of the finished product. m-Acetanisole (3’-Methoxyacetophenone) has always stood apart for us in the way it carries its own aromatic fingerprint — distinctly floral, slightly sweet, and with a clean finish in fragrance and flavor formulations. We control purity through our distillation methods, and our teams ensure each drum that leaves our plant meets a narrow specification for color and odor.
Our process for m-Acetanisole centers on keeping purity above 99%. We monitor the residual solvents and key impurities batch by batch. Most customers want a pale yellow liquid with a minimum freezing point and low moisture — achieved with careful distillation and thorough drying. UV absorption and GC analysis keep us confident that what goes out matches what chemists and perfumers expect to see in their labs.
Industrial professionals often look for consistency from batch to batch, so we keep our raw material sourcing locked down to avoid surprises. Trace metals and color bodies get special scrutiny in our QC lab, since technical teams downstream don’t want unpleasant surprises in scale-up or pilot runs. Typical specs run as follows: purity >99.0% by GC, water content below 0.2%, with a stable color under the APHA scale that rarely even tips 20. Appearance falls in line with a clear, faintly yellow liquid, and our batches always show the right boiling point and refractive index.
Years ago, we moved away from using old stainless-steel vessels for critical steps, switching to inert-lined reactors after feedback about metal pickup. These upgrades came out of direct conversations with our biggest perfumery customers, not from a marketing push, but straight from practical challenges our clients faced. We learned to keep things simple: start with good raw materials, avoid cross-contamination, and never push equipment beyond what it can handle. Mistakes in process show up in the end product, and discerning buyers can always tell.
m-Acetanisole earns its place in the fragrance industry as a powerful heart note. Many perfumers reach for it to balance sweet florals and lend depth to powdery blends, especially when working with heliotropin or violet-like accords. We’ve watched it move from a supporting material to a star when paired with ionones and vanilla-rich bases. The compound’s robustness in the presence of other chemicals means it survives compounding, dilution, and long-term shelf storage without breaking down or yellowing.
Flavor houses have told us that m-Acetanisole brings a creamy, sweet vanilla note to baked goods and confectionaries. It creates roundness in powder drink formulations and smoothes out high notes in chocolate and dairy-flavored toppings. Anyone who has worked with baked flavorings that need heat stability will find that m-Acetanisole rarely polymerizes or throws off off-odors even during extended processing. Performance in use inspires commercial food scientists to keep us posted on new application ideas, as their recipes often depend on subtle aromatic building blocks.
Research chemists using m-Acetanisole in synthesis come to us looking for a reliable aromatic ketone. It’s a handy intermediate for constructing tailor-made pharmaceuticals and fine chemicals. Our technical support team fields regular calls about solvent compatibility and downstream reactions — most recently we talked through a process for prepping organic photosensitizers, where trace metals can cause photobleaching if not tightly controlled. Years of troubleshooting have taught us to spot specification details that matter most in sensitive pharma applications.
Some new entrants to aromatic organics see ‘acetophenone’ and assume the methoxy position makes little difference. This misses the real impact the m-methoxy group has compared to o- or p- placements. Only m-Acetanisole carries the unique balance of sweet and clean floral notes with moderate tenacity. We’ve worked with flavorists who once tried to swap it with p-acetanisole — the resulting flavors end up too powdery, or sometimes too medicinal, which never happens with our m-variant.
Compared with plain acetophenone, m-Acetanisole sheds the harsh, solventy edge while keeping good volatility, making it easier to blend in fragrance top and middle notes. Plain acetophenone wears off too fast in most fragrance profiles, but the methoxy group anchors the scent. Some competing materials — like o-acetanisole — can create instability in light or heat, but our m-form resists breakdown when exposed to ordinary process conditions in most production environments.
Suppliers on the open market sometimes tout ‘multipurpose’ grades, but rigorous users see differences quickly once they begin compounding or scaling up. Cheap batches, which usually come in from re-sellers, can suffer from trace impurities; many still carry detectable catalyst residues or residual solvents that influence the end product’s character. As true manufacturers, we bear direct responsibility for the batch from raw material through to packing. Our regular, audited sources keep us from chasing price dips that can introduce inconsistency.
Real-world tests often reveal differences invisible on paper. A batch of m-Acetanisole that falls out of color spec or carries faintly phenolic notes will ruin a day in a perfume lab. In our early years, a few off-color batches forced us to trace every step, from solvent quality to packing drum linings. These moments made clear how fragile trust can be with materials used for high-value consumer goods. We know clients watch for oxidation products, so we take every step to minimize air exposure, right down to packing and nitrogen-blanketed deliveries for key repeat customers.
With m-Acetanisole, consistency challenges start well before the final step. Getting the methoxy group in the meta position means careful reaction control and smart catalyst selection. Over-chlorination or trace iron can show up as off-odors far downstream. We built our process to minimize unwanted side products and audit every step, sometimes slowing output to pull extra batch samples until results line up with our approved standards.
QA teams keep our operation running with regular proficiency testing. Every newly delivered raw material gets barcode tracked, and operators rely on in-line analytics to catch issues long before the final tanker is filled. We’ve seen how slight moisture drift in the process can ramp up byproducts; this convinced us years ago to double the number of Karl Fischer checks per shift. Simple interventions like extra silica drying and making sure the nitrogen supply is true zero-oxygen have made huge impacts in final product stability. Lessons like these flow directly to our customers, who trust us to pick up on weak links before they become product recalls.
The real-world test is always performance in the customer’s formulation. Perfumers, for example, let us know right away if a fresh batch seems to linger too long or turns color in their blends. We log every complaint and treat every failed sample as a full-scale investigation. That’s part of being a manufacturer, not a distributor. We stand behind every lot, open to feedback and eager to learn from challenges.
Products like m-Acetanisole deserve consideration in handling, since quality can deteriorate with exposure to air, moisture, and heat. Our customers run demanding operations, so they count on stability from the time they open a drum until the last drop is used. To protect the contents, we pack only in lined steel drums or high-density polyethylene containers. Each lot gets a quality seal signed by an inspector who knows how to spot problems before the product leaves our facility.
Temperature swings can trigger both condensation and slow color changes — that’s why our warehouse maintains climate control, and we never store aromatic ketones alongside more aggressive acids or reactives. Our packers use vapor-barrier seals and keep storage time short, pushing product out using a just-in-time approach rather than letting drums linger. This isn’t just about appearance; flavor houses have shown us side-by-side baking tests where improperly stored m-Acetanisole picks up faint plastic or oxidized notes, easily avoided with careful packing and fast turnover.
We support clients with detailed storage and handling guidance, distilled from our own experience troubleshooting off-spec batches. This means regular reminders about storage below 25°C, tight sealing, and using clean, dry transfer equipment. Years of shipping experience taught us that transit conditions matter; we work closely with logistics partners to prevent long delays or exposure at loading docks, since temperature spikes during shipping can cause metallic pickup or unwanted reaction byproducts.
Markets have flooded with ‘sourced’ and ‘repacked’ aromatic chemicals. Many are delivered with incomplete documentation and batch history. We often hear from new clients burned by fragmented supply chains — a process interrupted by unexpected changes in physical properties. Our approach removes these risks, as we track every raw component, run batch-level analytics, and provide direct technical support with formulation questions. Buying direct means better access to technical records and a consistent point of contact for improvement or troubleshooting.
Direct, accountable manufacturing gives us the independence to act fast when process upgrades would benefit clients. Last year, a customer flagged occasional off-odors in high-dilution fragrance trials. Because we control every stage, we investigated feedstock purity and adjusted our catalyst loads, sending out side batches for rapid user feedback. Distributors or brokers simply lack this kind of direct process visibility or the incentive to invest in rapid improvement.
Open feedback loops make the biggest difference in performance-critical applications. A perfumer’s nose or a flavor technologist’s palette picks out issues that never show up in a standard COA, and this information heads straight back to our R&D. We give equal weight to operator notes and customer complaints; each pushes us to upgrade process steps, packaging, or logistics.
Global regulations and buyer preferences keep shifting. In response, we invest in refining our process documentation and staying ahead on trace contaminant control. The move toward clean-label formulations and allergy awareness has touched flavor and fragrance industries, pushing us to minimize byproducts and design better analytical checks. Recent tightening in EU regulations on trace allergens prompted us to study and improve our purification strategy, staying ahead of requirements and protecting both our operations and client brands.
We’re always working to improve sustainability and reduce waste, even for intermediates like m-Acetanisole. Our solvents are re-cycled wherever possible, and we capture vapor emissions for abatement and reuse. Technical teams challenge us to cut energy costs and select raw materials from responsible suppliers. Every process upgrade shows up downstream as cleaner, more reliable end product, ready for new generations of consumer and industrial formulations.
The journey with m-Acetanisole shows what happens when a manufacturing plant listens close to clients, keeps its own house in order, and invests in people who care about results. Customers keep us on our toes by demanding better performance, reliability, and full documentation, and we grow alongside them — pushing the possibilities of where this aromatic building block can go.
Anyone who works closely with specialty chemicals knows the difference real manufacturing makes. m-Acetanisole’s character comes from process controls at every step, close ties with customers, and teams who know that every drum represents a promise. As we look at the next decade of fine and specialty chemical manufacturing, collaborations with end users and continuous upgrades stand out as the main way forward. The needs of perfumers, flavor developers, and formulation chemists shape our priorities every day on the production line.
Sourcing m-Acetanisole direct from a hands-on manufacturer brings reliability — not just in the product, but also in support, technical understanding, and continuous improvement. As regulations change and applications expand, users can rely on our commitment to deliver consistent quality, clear documentation, and open doors for collaboration. Our lines remain open to those aiming higher in formulation, and we welcome every challenge — it’s what makes real manufacturing worth all the effort and learning along the way.