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HS Code |
351576 |
| Chemical Name | Piperonyl Acetone |
| Iupac Name | 1-(3,4-methylenedioxyphenyl)-2-propanone |
| Molecular Formula | C10H10O3 |
| Molecular Weight | 178.19 g/mol |
| Cas Number | 4676-39-5 |
| Appearance | Colorless to pale yellow oily liquid |
| Boiling Point | 161-163°C at 15 mmHg |
| Density | 1.142 g/cm3 at 25°C |
| Solubility | Insoluble in water, soluble in organic solvents |
| Melting Point | N/A (liquid at room temperature) |
| Refractive Index | 1.557-1.560 |
| Flash Point | 110°C |
As an accredited Piperonyl Acetone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle, 500 mL, fitted with a screw cap and safety seal. Labeled with chemical name, CAS number, and hazard symbols. |
| Shipping | Piperonyl Acetone is typically shipped in tightly sealed, airtight containers made of glass or high-density polyethylene to prevent exposure to air and moisture. Packages are clearly labeled and handled as a chemical product, complying with local and international transport regulations. Store and ship in a cool, dry, and well-ventilated environment. |
| Storage | Piperonyl Acetone should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from direct sunlight, heat, and sources of ignition. Keep it separate from strong oxidizing agents and acids. Proper labeling is important, and access should be limited to trained personnel. Store at room temperature and avoid excessive moisture to maintain stability. |
Applications of Piperonyl Acetone in Industrial ManufacturingPiperonyl acetone is a key specialty intermediate leveraged by several core industries. As a direct manufacturer, we supply this raw material to global customers seeking consistent quality for downstream processing. Below, we address the primary real-world sectors utilizing this ingredient, focusing on industrial standards, practical formulation, and integration across production lines. 1. Fragrance Intermediates for Perfume ManufacturingPerfumery houses and fragrance compounders rely on piperonyl acetone for producing high-value aroma ingredients. The molecule brings a warm, spicy floral nuance, often essential in formulating luxury and consumer market fragrances. It serves as a precursor for complex synthetic musks and as a component in modifying top and middle notes. Our partners typically incorporate this material during controlled blending steps, subject to rigorous sensory evaluation, and adjust concentration based on final fragrance performance and regulatory requirements for finished perfumes and toiletries. Industry compliance standards
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2. Synthesis of Pharmaceutical IntermediatesPharmaceutical manufacturers utilize piperonyl acetone to construct various active pharmaceutical ingredient (API) precursors, notably those in the central nervous system and cardiovascular drug segments. The building block enables selective condensation and ring closure steps, supporting multi-step organic synthesis under cGMP-compliant conditions. Controls on purity, traceability, and residual solvent levels are enforced at each batch operation. Industry compliance standards
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3. Manufacture of Agrochemical Synthesis IntermediatesAgrochemical formulators introduce piperonyl acetone as a core intermediate to construct active molecules for crop protection agents. It is employed in the synthesis of certain insecticides, herbicides, and synergist additives via controlled alkylation or condensation steps. Attention to trace allergenic impurities and compliance with international agrochemical standards is critical through every batch. Industry compliance standards
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4. Flavor and Aroma Compound Synthesis in Food AdditivesThe food ingredient sector applies piperonyl acetone as a specialty intermediate to create artificial flavor and aroma compounds. Its molecular structure forms the basis for spice, vanilla, and floral note enhancers incorporated into seasonings and processed foods. Each batch must observe food safety thresholds, trace impurities, and controlled blending to stay within legal intake limits set by international food authorities. Industry compliance standards
Typical usage ratio
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Every production run of piperonyl acetone in our facility starts with select raw materials—from stable supply chains we’ve vetted for years. The finished batch aligns with consistent purity and specific gravity specifications, but the value of this molecule runs deeper than lab metrics on a report sheet. In the field, piperonyl acetone gets noticed for its distinct aromatic profile, as well as its behavior in both fragrance and chemical synthesis. We shape its output for downstream use by perfumeries, flavor houses, and fine chemical processes, but not every batch is treated the same. Demand fluctuates around fine control of appearance (often a clear to pale yellow liquid), GC purity targets, and manageable volatility.
On site, technicians test in real time for the appearance of trace impurities, both by olfactory methods and instrument readings. The process doesn’t follow a one-size-fits-all recipe; in response, we tighten process control at each step, and our teams scrutinize every fraction—so anything headed for an aromatic or flavor application matches the customer’s expectation for consistency and odor note. Acetone by nature doesn’t mask flaws; a single percentage off-mark in GC traces can throw off a formulation, especially in delicate blends.
In our operation, we refer to the core production run as “Model PA-A,” our internal shorthand for bulk, unadulterated piperonyl acetone at 98% minimum GC assay. This specification emerged after dozens of pilot runs exposed how a few tenths of a percent in purity could disrupt downstream synthesis, particularly in medicinal chemistry routes where unpredictability can mean wasted effort and equipment hours. We emphasize thermal handling to guard against unintended condensation and oxidation events that have plagued less-controlled set-ups we’ve seen in case studies.
Beyond Model PA-A, we produce smaller lots for custom applications where customer R&D teams request a particular isomer distribution. Scaling these batches without introducing off-odors—especially phenolic or burnt traces—requires lining up the right reactor linings and process flow. Our workers observe color regularly, draining test pipettes into colorless glass so any drift towards straw or orange gets caught at the earliest moment.
Most of the piperonyl acetone moving out of our warehouse goes straight into the hands of perfumers and aromatic chemists. In fragrance applications, users describe it as having a sweet, balsamic, and spicy note, with some likening it to the warmth of safrole or vanilla undertones. Flavors and fragrances rely on predictable impact in supporting spicy or woody notes, where unpredictable shifts—either in top note or lasting power—can mean a whole reformulation. We’ve experienced requests from customers working on contemporary amber bases and high-load sandalwood recreations, who expect batch repeatability throughout quarterly and annual runs.
Pharmaceutical manufacturers rely on piperonyl acetone as a key intermediate. Here, trace residues from unreacted starting material, or minor byproducts from uncontrolled temperature gradients, can scupper a whole synthesis route. We’ve learned to flag and separate batches with even minimal off-peak GC readings; one small leak in a condenser or trace metal contamination from aging reactor gaskets can trigger a cascade of side reactions. These insights keep our site manager vigilant, verifying process parameters not once but multiple times over extended runs.
Within our plant, workers sometimes compare piperonyl acetone directly with its siblings—phenylacetone and methylenedioxybenzene derivatives. Unlike phenylacetone, piperonyl acetone introduces a methylenedioxy “ring” onto the aromatic system. What seems minor on a structural diagram carries major performance differences: piperonyl acetone resists discoloration during long-term storage better, especially under warehouse conditions where temperature swings are tough to avoid (above 25°C, phenylacetone darkens faster). In aroma profiles, piperonyl acetone’s sweet, spicy top lifts formulations where straight phenylacetone would add a harsher, almost medicinal edge. The unique ring also changes reactivity. Downstream, customers working on complex analogues or extended transformations for pharmaceutical actives appreciate how piperonyl acetone’s selectivity supports higher yield and fewer byproducts compared to some simpler analogs.
We often field inquiries from buyers who aren’t sure why their previous source yielded erratic color or poor stability. In those cases, the conversation turns to in-house handling: our piperonyl acetone gets stored in nitrogen-flushed drums, with sealed linings to keep out airborne moisture, as its slightly hygroscopic character otherwise leads to unplanned hydrolysis. Our previous experiments with atmospheric storage for “legacy” batches, especially during humid summer seasons, underscored that lesson—color change sped up, and more waste drums got filled. Attention to these details in both shipping and storage conditions distinguishes the quality we stand behind.
We never assume a data sheet tells the whole truth about a lot of piperonyl acetone. Real-world conditions—shifts in raw material quality, unexpected utility outages, or a stray solvent tank—demand constant vigilance. Our site’s best batches don’t just hit spec on a printout; they keep delivering predictable performance under formulation stress tests, from ambient exposure trials to direct addition side-by-side with established benchmark molecules. Over decades, customers remind us how a good batch from an ordinary data sheet might fail in process scale-up, especially where solvent recovery and residue management matter.
Our plant focuses on more than purity numbers. Each run’s ease of filtration, solubility profiles, response to pH adjustment, and even how a sample behaves when exposed to open air—all these come into play for those downstream. We report these observations directly, and invite customer QA teams to audit and request additional studies or sample subdivisions if their own process requires it.
Piperonyl acetone has low volatility compared to some ketones in our catalog, which allows safer, slower additions in batchwise mixing. Operators in flavor and fragrance compounding setups appreciate no unexpected exotherms or runaway loss in closed systems. The molecule’s relatively low vapor pressure means teams keep material loss and worker exposure manageable, a concern frequently voiced by customers facing tighter regulatory controls.
Manufacturing piperonyl acetone means confronting both environmental compliance and worker safety on a daily basis. The methylenedioxy ring structure resists most rapid air oxidation steps, reducing fugitive emissions. Still, every tank car gets a full vapor collection check, and emissions monitoring doesn’t pause on weekends or holidays—tiny leaks mean regulatory headaches. Our solvent recovery loop now captures more than 95% of auxiliary solvent waste, based on years of tweaking condenser design and train operating temperatures. Process hazards persist, since concentrated vapors react with strong oxidants, so all drums get labeled with batch-specific QR codes that tie back to detailed processing logs—nothing leaves the plant without a clear trail for later verification.
Long-term handling means protecting operators as well. Standard gloves and splash shields do the job, but process upsets—faulty pressure gauges or startup valve slams—place acute stress on less experienced staff. We devote hours to onboarding and regular safety drills, not just because regulators demand it, but because a single incident can shut down multiple lines or sideline key workers. In the last decade, our record shows constant refinement of incident response plans as learnings from other plants and industries accumulate.
Some of the sharpest feedback we get comes not in annual review meetings, but in routine call-ins from R&D teams or plant managers who actually run blends with piperonyl acetone. Product flow isn’t smooth when a “minor” change upstream knocks out a familiar note in a flavor mix or triggers an unwanted off-smell in a high-profile candle or fine fragrance. Openness to feedback—sending out split samples, hosting video reviews, and opening up operator notes—builds trust that outlives contractual cycles. Our approach leans on transparency, since real-world use rarely fits the tidy margins of a certificate of analysis.
Over the years, certain repeat buyers have shared their own in-house modifications and blending methods for maximizing performance. Some add stabilizers or tweak reaction environments, noting that our high-purity piperonyl acetone supports these processes without introducing hidden contaminants. This sort of mutual knowledge exchange strengthens long-term partnerships and helps raise industry standards for piperonyl acetone as a category, not just our own supply.
Manufacturing piperonyl acetone never stands apart from global market pressures. Availability of core precursors can swing wildly based on crop yield, shifts in export rules, or upstream chemical plant outages. Everyone in the plant watches pricing dashboards and forward contract forecasts, knowing a rough storm in South America or regulatory change in Europe can ripple through to supply within days. We don’t hide from customers when markets tighten or a shipment gets delayed; after decades in manufacturing, we know that upfront communication beats surprises that frustrate planning cycles down the road.
We steer bulk buyers toward early commitments, allowing greater flexibility for their planned mixes and forward blending. Spot pricing works in neutral market years, but volatile seasons draw out contracts and regular volume reviews—protecting both sides against missed windows and cost overruns. Experience drives home the point: keeping a good supply of piperonyl acetone flowing means both buyer and producer planning, not leaving inventory to chance or wishing away global constraints.
Every few years, we review and revamp our process setups, targeting both efficiency and sustainability. Polyurethane linings, upgraded reactor thermocouples, and switchovers to low-residue solvents have come in as lessons from past incidents and customer audits. Better heat exchangers limit localized overheating, which can cause piperonyl acetone to decompose into stubborn residues, hampering recovery and adding to waste. These investments don’t make headlines but do show up in product quality and smoother operation for downstream users.
Digitization steps—barcode tracking, trend analytics, batch genealogy—further reduce risk of off-batch stock reaching mixers or reactors. These upgrades help trace back root causes in rare cases of off-spec feedback, and they ease regular cross-production comparisons that help us fine-tune process variables for every new market demand. Even as production scales or customer spec drift emerges, we keep a core focus on hands-on, real-world reliability, knowing buyers bet production schedules and their own supplier ties on every batch we ship.
Manufacturing piperonyl acetone means more than chasing a GC number or blending according to a set point. In our plant, teams leverage years of hands-on troubleshooting, anticipate shipment and regulatory shifts, and connect directly with users across industries to shape not only a repeatable product, but one that supports innovation in fragrance, flavor, and chemical synthesis. The difference lies not simply in a data sheet or technical bulletin, but from up-close handling, batch discipline, and openness to feedback.
From the securement of trusted raw materials to the delivery of finished drums and drums, those of us at the point of manufacture don’t see piperonyl acetone as just another code in the system. Each batch represents an intertwining of knowledge, attentiveness, and a commitment to supporting the diverse and evolving world of chemistry and product creation beyond the factory gate.