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HS Code |
319702 |
| Name | Farnesylacetone |
| Iupac Name | 4,8,12-Trimethyltrideca-1,3,7,11-tetraene-6-one |
| Molecular Formula | C18H28O |
| Molar Mass | 260.42 g/mol |
| Appearance | Colorless to pale yellow oil |
| Boiling Point | 160-165 °C at 0.5 mmHg |
| Density | 0.889 g/cm³ |
| Solubility In Water | Insoluble |
| Cas Number | 502-61-4 |
| Odor | Characteristic floral |
| Refractive Index | 1.500–1.502 |
| Flash Point | >100 °C |
| Pubchem Cid | 10939 |
| Storage Temperature | Store at 2-8 °C |
As an accredited Farnesylacetone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Farnesylacetone is packaged in a 25 g amber glass bottle with a secure screw-cap, labeled with product details and safety warnings. |
| Shipping | Farnesylacetone is shipped in tightly sealed containers, protected from light, moisture, and extreme temperatures. It should be handled as a chemical substance, following standard safety procedures. Packages must be clearly labeled, and transportation should comply with relevant regulations, including those for potentially hazardous or sensitive organic chemicals. |
| Storage | Farnesylacetone should be stored in a tightly sealed container, protected from light and moisture, in a cool, dry, and well-ventilated area. It should be kept away from incompatible substances, such as strong oxidizing agents. The storage area should be labeled appropriately and access restricted to trained personnel. Avoid excessive heat and sources of ignition to ensure chemical stability and safety. |
Applications of Farnesylacetone in Industrial ManufacturingFarnesylacetone serves as a specialty intermediate in carefully regulated industrial manufacturing settings, with well-documented roles in specific downstream sectors. We supply Farnesylacetone to dedicated customers in select markets where its use is validated and supported by existing process data, regulatory precedents, and established technical protocols. Each application listed here reflects actual usage supported by regulatory and industrial standards, ensuring both safety and product performance according to end-user requirements. 1. Flavors and Fragrance FormulationIn the flavors and fragrance industry, Farnesylacetone works as a complex aroma component—especially valued in the recreation of musk and woody notes, as well as in base accords for premium fragrance compositions. Its role leverages its unique odor profile and stability during seasoning, perfuming, and room scent formulation. Only regulated concentrations can be used, respecting organoleptic and toxicological assessments maintained by global standards organizations. Its integration must align with technical specifications from major fragrance houses and undergo strict batch quality testing prior to downstream blending and packaging. Industry compliance standards
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2. Food Flavorings ManufacturingFood industry formulators use Farnesylacetone as a specialty flavor building block for reconstructing natural notes, notably in tropical fruit (mango, pineapple) compounds and in certain beverage and confectionery flavors. Given its presence as a naturally occurring flavor constituent in some fruits and its FEMA GRAS status, its addition requires careful measurement, flavor profile matching, and validated analytical monitoring to comply with food safety requirements. Industrial usage must be supported by toxicological data and incorporation only within boundaries set by current food safety schemes in each destination market. Industry compliance standards
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3. Synthesis of Pro-Vitamin A IntermediatesChemical manufacturers employ Farnesylacetone as a crucial intermediate within multi-stage synthesis routes targeting the production of Vitamin A acetate and retinoid derivatives. Its reactivity profile and carbon skeleton make it a practical choice for controlled condensation and cyclization steps under strictly monitored GMP conditions. Process engineers must align input ratios and reaction parameters with validated batch production records to meet international standards for active ingredient manufacturing, especially for the use in pharmaceutical or food additive contexts. Industry compliance standards
Typical usage ratio
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4. Scent Microencapsulation MaterialsIn the scent delivery sector, manufacturers utilize Farnesylacetone during the controlled microencapsulation of aroma molecules, extending scent longevity in consumer and industrial products. Its stability and volatility pattern make it suitable for wall-core microcapsule formulations via coacervation or spray-drying. Industry operators must assess encapsulant compatibility, release kinetics, and batch repeatability under protocols governed by relevant chemical product and workplace safety regulations. End applications must ensure compliance with exposure and labeling standards specific to markets in which microcapsulated scents are deployed. Industry compliance standards
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Each batch of Farnesylacetone tells a story grounded in decades of precision chemistry. On our own production lines, we handle the entire process—from sourcing raw materials and designing reactors to packing the product on pallets—putting us in the best position to recognize what Farnesylacetone can truly deliver. The compound itself, also known as 6,10-dimethyl-5,9-undecadien-2-one, stands out as a specialty intermediate that can take on different roles, depending on the customer’s application. Whether you're in pharmaceuticals, fragrance, flavors, or specialty chemicals, our Farnesylacetone answers to varying production scales, always showing the clean characteristics and defined aromatic properties that prompt research chemists to come back to it.
You don't just get a name and a number—quality runs through every step. Real-time analysis and skilled chemists keep the process tight, and we are quick to notice if anything goes out of line. Our farnesylacetone isn’t just a raw material off a spec sheet. You'll notice the difference in color, clarity, and performance. We carefully tune our process to avoid harsh by-products and avoid thermal damage—it's an approach developed from dozens of full-scale campaigns. This care plays out both in the lab and in your process equipment.
Every specification listed on our typical Certificate of Analysis comes directly from internal measurements. We control purity to over 98% on a GC basis for Farnesylacetone. In our tanks and glass-lined reactors, careful distillation under inert atmosphere prevents oxidation and off-odors. You won’t find residual solvents outside confirmed process limits, and we document water content, color on the Gardner scale, and boiling point for each lot before shipment leaves our facility. Our process engineers keep a steady eye on batch reproducibility, which means the profile remains constant run after run.
Working from raw plant-derived starting materials, our process eliminates a lot of the supply chain risk you see with brokers and distributors cobbling together product from multiple origins. You want clear documentation of starting materials and processing aids, and we share that upfront with clients during audits and new production runs. This transparency builds confidence for scale-up, validation, and commercial agreements.
Those who work with terpenoid ketones understand that small changes in process and raw material quality change the outcome in synthesis, formulation work, and biological evaluation. Farnesylacetone finds steady use as a building block in the synthesis of vitamins, carotenoids, and specialty aroma chemicals. Its three double bonds and terminal carbonyl group let chemists launch selective transformations, while the backbone structure introduces farnesyl-type functionality for further derivatization.
In pharmaceutical routes, farnesylacetone forms part of multi-step strategies for synthesizing complex molecules. Clean isolation at each step remains essential for maintaining downstream yields, and that’s why our product undergoes additional purification for projects that demand it—while still offering the same signature profile recognized by scale-up chemists. In the fragrance and flavor fields, the naturalistic, slightly woody aroma works well as a nuance note, and also as a useful precursor for higher-value aroma molecules.
Fine chemicals customers often encounter a mix of technical and regulatory questions—traceability, documentation, and reprocessing requirements come up frequently. Our position as the manufacturer lets us provide supporting documentation for Kosher, Halal, and Reach compliance, because each of those documents ties directly back into our tightly recorded batch logs and source records. You aren’t guessing at origin, nor pulling through another middleman’s paperwork—traceability is direct and current.
Many chemists ask how Farnesylacetone lines up with similar compounds: for example, nerolidol, farnesol, and ionone derivatives. The main functional difference comes down to the ketone at the second carbon and the double bond arrangement. These structural changes profoundly affect reactivity, odor impact, and downstream chemical modification. Farnesylacetone’s carbonyl provides a more reactive handle for condensation and cyclization chemistry, setting it apart from its allied alcohols and hydrocarbons.
Our clients often bring in materials from multiple sources for benchmarking. They see side-by-side how precision manufacturing upgrades yield consistency and reduces batch-to-batch drift in their final products. In contrast to mixtures of isomeric or lower-purity terpenoids, Farnesylacetone comes to you as a single, sharply defined entity, with minimal side products. This aspect makes isolation by downstream chromatography or distillation much easier and less wasteful. You will see this in higher isolated yields and fewer hours spent troubleshooting.
On occasion, customers working on pilot projects find price-sensitive alternatives looking attractive—cheaper materials, bulked with simpler terpenoids. Our input has been clear: switching to such materials almost always causes more work than it solves. You lose spectral clarity and find more variation in analytical reads. That’s not just a talk track; our technical support teams field requests every month from those who “cut corners” and ended up needing to remediate the process or spend extra cycles cleaning up by-products. Consistency isn’t just comfort—it represents fewer unknowns as you scale.
For over two decades, we have taken Farnesylacetone from benchtop synthesis to full tanker trucks, navigating the shifts in market regulation and supply chain security that come with growth. By holding every key process in-house, right down to recyclable packaging and temperature-stable logistics, we minimize risks of cross-contamination and mislabeling. Handling hundreds of metric tons a year, our facility is built to shift quickly between kilogram samples for R&D and full-scale import/export lots for multinational customers.
Sourcing directly from us gives you full visibility into the process, which matters most during regulatory filings, product validations, and technical transfer. We have walked teams through qualification audits from multinationals in pharmaceuticals, flavors, and agriscience. Site visits turn up fewer questions—customers see real, robust quality controls and years of working documentation. If an issue does arise, our technical staff jumps in for root cause analysis, not just a surface fix; you work with the team that actually made the material, not a third party passing along incomplete info.
Making Farnesylacetone at scale brings up questions about energy use, solvent management, and biological feedstock sourcing. We take each of these concerns seriously—our evaporative neutralization pits, process water recovery, and onsite generator optimize both environmental compliance and cost control. Because we control our own raw material sources, we trace each shipment back to certified growers and harvesters. Third-party audits add transparency, but our own environmental officers are onsite daily to monitor compliance and push improvement.
We don’t wait for supply chain disruptions to test our backup plans. Each year, we conduct full-trace dry runs through all critical utility and raw material lines. The past few years, with their mixture of pandemic shutdowns and freight delays, proved that only fully integrated operations ride out the disruptions with minimal loss or lag. Orders keep moving because we can hold buffer inventory, switch to secondary feedstock, or pivot execution—all with zero drop in documentation or consistency.
Developers building out new routes, or launching pilot trials, lean on our technical teams for samples, side-by-side comparisons, and direct material data. We bring chemists and application specialists together to close the loop quickly—if a process shift causes an unexpected impurity or altered product profile, our analytical staff investigates the source with you. Our R&D team routinely runs joint projects for custom purification or variant production, giving process users a chance to explore alternate grades, isomer ratios, and even scaled-up side products.
Students and industrial researchers alike reach us for authentic reference standards and in-depth material histories. Every sample ships with supporting spectral records—GC, NMR, and IR—test reports, and storage recommendations. Questions on shelf life, packaging compatibility, and temperature cycling? Those come from practical experience—we share real stability test results over two-year and longer studies, not just data projected from limited starts.
Compliance has changed significantly over the years. Global flavor and fragrance standards, national pharmaceutical ingredient registration, and food contact regulation all touch Farnesylacetone. With experience in multiple regulatory frameworks, we help customers streamline their own registration, site audit, and process validation. Providing a full suite of GMP documentation, off-site stability storage, and validated analytical methods, we expect the unexpected and match regulatory lingo with documentation from the line itself, not after the fact.
From a safety perspective, Farnesylacetone’s chemical properties require careful handling—chemical engineers and technicians rely on our firsthand process knowledge for correct storage and safe transfer. For certain end uses, like injectable formulations or food-contact amendments, we supply detailed migration, leachate, and extractable substance reports. These go beyond standard SDS practice to incorporate batch-level trending, history of solvent lots, and extended impurity profiling.
Distributors and repackagers rarely offer the option to trace a shipment’s complete lifecycle; by going direct, you gain oversight at all key points. From drummed shipments for specialty synthesis to tankers for industrial use, we optimize packaging, vapor containment, and temperature control specifically for each route. Problems like bulk crystallization or headspace odor can occur in poorly handled material. Our packaging lines allow fast secondary containment and real-time leak monitoring, a result of facing these challenges in full-scale operations for years.
Scale-up often uncovers unexpected problems—stirring speed, heating rates, and filtration throw off conversion rates. Our plant engineers and lab technicians have made plenty of mistakes and learned what truly matters for Farnesylacetone. These lessons help partners reduce loss points, minimize polymer formation, and avoid cross-contamination in shared process lines. You won’t find this kind of practical advice in books; it comes from years of running, cleaning, re-running, and watching the product move from reactor to formulation to finished good.
If you encounter issues around analytical variation, stability under heat, or by-product drift, we work closely to resolve those—not just with advice, but by sharing analytic results, running comparative stress tests, or setting up small-volume production runs for process troubleshooting. Customers scaling to higher throughputs often want faster cycle times and tighter impurity control; our engineering teams can share strategies and plant layouts that have helped previous projects boost both speed and quality.
Terpenoid chemistry continues to grow in importance, with increased attention to sustainable feedstocks and advanced functional materials. Farnesylacetone’s profile as a versatile intermediate places it at the hub of many next-generation projects, whether for pharmaceuticals, nutraceuticals, or specialty aroma compounds. Our teams regularly participate in cooperative research efforts to improve catalyst systems, green extraction methods, and low-waste transformation technologies. With investment in better analytics and process control, our Farnesylacetone production anticipates customer requirements—not just for purity and compliance, but for future green chemistry benchmarks.
In specialty fragrance and flavor production, subtle shifts in molecular structure lead to big changes in aroma and sensory impact. Having access to pure, well-characterized intermediates such as Farnesylacetone extends creative options for formulators and allows repeated evaluation with confidence. Whether you're working on a tight-lipped startup R&D campaign or supporting established product lines, the quality and consistency we deliver translate directly to performance on the bench and in the marketplace.
Every bottle, drum, and bulk lot of Farnesylacetone carries the full weight of decades in chemical manufacturing. There’s a reason formulating chemists, process engineers, and technical directors value direct producer relationships—troubles get solved faster, new ideas move from concept to scale more smoothly, and no critical detail is lost in translation. In an industry that runs on trust, direct knowledge, and the real evidence of time-tested process, our Farnesylacetone remains the anchor for teams who demand both performance and accountability. If you’re seeking more than just a material code on a list, step inside the production world and see Farnesylacetone as a living, evolving benchmark in specialty chemicals.