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HS Code |
780152 |
| Chemical Name | Laurophenone |
| Molecular Formula | C18H22O2 |
| Cas Number | 13826-57-6 |
| Appearance | White crystalline solid |
| Melting Point | 107-108°C |
| Solubility In Water | Insoluble |
| Structure Type | Phenolic ketone |
| Origin | Isolated from Laurus nobilis |
| Iupac Name | 1-(4-hydroxyphenyl)dodecan-1-one |
As an accredited Laurophenone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Laurophenone, 25 grams, is packaged in a sealed amber glass bottle with a tamper-evident cap, labeled with safety information. |
| Shipping | Laurophenone should be shipped in tightly sealed containers, protected from light and moisture. It must be clearly labeled and handled according to chemical safety standards. For bulk transport, use appropriate hazard classification and documentation. Ensure compliance with local and international regulations during shipping to prevent leaks or accidental exposure. |
| Storage | Laurophenone should be stored in a cool, dry, and well-ventilated area, away from sources of ignition, heat, and direct sunlight. Store it in a tightly sealed container, clearly labeled, and separate from incompatible materials such as strong oxidizing agents. Ensure access is limited to trained personnel, and follow appropriate chemical hygiene and safety protocols when handling and storing the substance. |
Applications of Laurophenone in Industrial ManufacturingAs a specialized manufacturer of aromatic ketones, we supply laurophenone for use across multiple industrial segments where its chemical structure delivers unique performance benefits within strictly regulated production environments. The following application scenarios reflect the authentic downstream utilization of laurophenone in real industrial formulations and processes. 1. UV-Curable Coatings for Plastic Electronics HousingsLaurophenone functions as an efficient photoinitiator for UV-cured coatings applied to ABS, PC, and PS housings found in consumer electronics, where rapid curing and high resistance to yellowing are critical. Major electronics OEMs require tight process control, and laurophenone enables consistent crosslinking during continuous feed spray or roll coating operations on assembly lines. Industry compliance standards
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2. Synthetic Fragrance Intermediate for Fine Perfume CompoundsIndustrial fragrance manufacturers utilize laurophenone as a key intermediate in the multi-step synthesis of proprietary musk and floral note enhancers. Its distinct aromatic structure serves as a building block in creating high-stability synthetic fragrance molecules, later used in fine fragrance compounding and high-end personal care formulations. Industry compliance standards
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3. Antimicrobial Additive for Polyurethane Synthetic LeatherLaurophenone can act as a non-leaching, surface-active antimicrobial additive in high-grade automotive and upholstery synthetic leathers used in public transport and healthcare furniture. Automotive tier suppliers incorporate it to support long-term odor control and material hygiene, while ensuring compatibility with foaming and finishing operations. Industry compliance standards
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4. Crosslinking Initiator for Photopolymer Printing PlatesLaurophenone serves as a high-efficiency free-radical photoinitiator in the production of flexographic and letterpress photopolymer plates. Plate manufacturers value its ability to reliably initiate surface and depth crosslinking under high-speed UV exposure, ensuring dimensional accuracy and consistent print quality for large format package printing operations. Industry compliance standards
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5. Key Intermediate for Specialty Agrochemical SynthesisCustom fine chemical processors select laurophenone as a key intermediate in multi-stage syntheses of selective herbicides. Its distinct aromatic ketone motif allows for tailored reactivity during halogenation, esterification, and coupling steps, crucial for the next generation of crop-specific agrochemicals with precisely defined activity windows. Industry compliance standards
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Years in chemical manufacturing have taught us what specialists seek. Laurophenone isn’t just another intermediate tucked away in research catalogues; it represents a blend of reliability and chemical character that has a clear place in synthesis routes. Our production centers harness decades of process know-how, which reflects directly in each lot and drum we deliver to both industrial and research partners.
We synthesize laurophenone in several recurring models, though the core remains the same: a solid, white to off-white powder or crystalline mass, supplied in purity ranges of 98% minimum (by HPLC). Chemists familiar with phenone-based compounds recognize its potential in flavor, fragrance, agrochemical, and pharmaceutical explorations. Subtle changes in crystalline structure stem from drying profiles and controlled cooling rates—factors often overlooked outside of manufacturing labs.
Our product offerings focus on two standard models: fine-grained and regular granule. Both meet minimum purity standards, though fine-grained finds preference in applications demanding tight solubility and minimal filter clogging. Particle size rarely commands attention in desk-bound research, but during scale-up and continuous processing, these differences translate directly to fewer headaches for operations teams. For customers running batch reactors, these practical distinctions can mean less time spent on resuspension and less mechanical scraping.
We monitor color, odor, moisture content (up to 0.3% w/w), and melting point (135–140°C typical). These parameters aren’t just numbers—they form the foundation for compatibility checks, impurity control, and successful downstream reactions. Running batches at scale, we’ve seen how slight shifts in melting point or residual moisture can cascade into stubborn filtration or yield drops downstream. By addressing these during production, we minimize interruptions for end users.
Laurophenone enters multi-step syntheses where its carbonyl functionality and long hydrocarbon tail open doors for configurational variation. Research chemists prize it as an intermediate in synthesizing specific aromatic ketones, fine chemicals, and even certain liquid crystals. Perfume houses turn to its structure to introduce stability and longevity in scent formulations. In our own application and toll-synthesis trials, we observed its gentle behavior during Friedel–Crafts acylation and selective hydrogenation. Downstream processes rely on the product’s ability to dissolve promptly in common organic solvents, from dichloromethane to ethanol.
On the production floor, the choice of laurophenone isn’t made in isolation. Formulators in specialty polymers, coatings, and lubricants aim for predictable handling, moderate volatility, and reactivity under controlled conditions. The compound’s molecular weight and hydrocarbon chain length give it just enough lipophilicity to enhance fluid blendability without introducing stubborn residues. Several larger batch projects used laurophenone to anchor esterification steps, and operators reported negligible byproduct carryover—a feat not always shared by analogous aromatic ketones.
Manufacturers like us routinely compare laurophenone against its close cousins: shorter chain alkylphenones, heavier symmetrical ketones, and branched-chain derivatives. Our customers’ feedback, paired with hands-on pilot runs, make clear patterns emerge. Among the most significant is laurophenone’s stability across a range of humidity and temperature swings. Compared to octanophenone or decanophenone, we document lower volatility losses and shelf-life degradation. Drums kept at room temperature for over 18 months consistently produce lot results mirroring those tested at shipment—this isn’t always the case with lighter or more branched versions, which can show aldehyde formation or off-odors if storage is less than ideal.
Another factor is the manageable nature of its reactivity profile. Some aromatic ketones suffer under oxidizing conditions, but laurophenone’s stability enables its use in both air and inerted reactors with ease. Operators never report spontaneous decomposition or polymerization, and even with periods of agitation in open tanks, product remains unchanged. As one of our supervisors noted, it makes planning less of a gamble.
In industrial practice, cost per kilogram tells only part of the story. Competitive pricing means little when a compound gums up expensive filtration units or triggers environmental headaches. With laurophenone, we’ve observed that wastewater treatment plants report little in the way of unexpected COD spikes, which supports broader process acceptance across sectors mindful of regulatory scrutiny.
One of the main issues production engineers face is fouling in transfer and storage lines, especially with heavier organic compounds. Some phenones and ketones, when handled in warm, moist conditions, develop residues or deposits that spell costly maintenance. Through trial and feedback loops with end users, we tailored drying conditions and particle size screens that keep blockages virtually nonexistent.
Another issue centers on purity drift. Many bulk-supplied aromatic ketones, especially from resellers and brokers, come with elevated side products—unreacted starting material, condensation byproducts, or even decomposition products from poorly controlled distillation. Having full process transparency and control, we cycle through acid-base washes, fractional distillation, and vapor-phase filtration steps, documenting levels of common organic and inorganic residues down to ppm. Our process engineers don’t hand off the job to third-party finishers—they remain on-site for every batch, every weigh-out, ensuring that promised levels match delivered product.
We keep a reserved focus on environmental and human toxicology. By controlling impurities—especially aldehydic or unsaturated byproducts—the final laurophenone batch aligns with internal standards on workplace air and effluent, removing unpleasant surprises for both operators and neighboring communities. This approach comes from direct experience retraining teams after odor incidents from off-spec material received years ago; easy fixes early on create better working environments and easier regulatory filings.
In our experience, downstream users often struggle with traceability: not knowing where and how critical chemicals originate. Being the original manufacturer, we chart every shipment—from the solvent tankers, raw materials, and temperature logs, through in-plant records of each stage of production, to the drums loaded on outbound trucks. This end-to-end record gives buyers confidence in claiming not only exact lot numbers for quality control but also the security of knowing there are no invisible brokers swapping inventory along the way.
Large industrial clients, especially in pharmaceuticals and aroma chemicals, rely on timely and consistent deliveries. Unexpected parameters—such as transit time changes in summer and winter or revised container storage regulations—change the timetable. By operating our own storage and logistics, we sidestep many delays typical of multi-level distribution, keeping material in predictable condition and enabling rapid turnaround.
Strong relationships with academic and commercial R&D groups shape continual process refinement. Requests for tailored particle sizes or alternate solvent rinses have led to refinements in crystallization and drying. In one recent collaboration, we supplied laurophenone as a specially micronized powder to a group testing new catalytic methods under strict surface area requirements. Only by running these batches in-house, with real-time particle size monitoring, could we respond quickly and adapt to unique project needs. Speed and flexibility come from not outsourcing crucial steps or waiting for commercial labs to fill orders.
From time to time, custom blends or multi-functional intermediates have arisen as byproducts. Our pilot teams keep test lots ready for unconventional synthetic plans, offering feedback and stability data as projects scale up. Publications or patents that cite our laurophenone prompt detailed internal reviews, ensuring that feedback cycles shrink and each season’s runs reflect the needs of those actually using the compound in novel ways.
Over the years, production teams hear continuous stories from the field. Sometimes, customers request tighter color or odor ranges for consumer-exposed products. Learning from these requests, we added additional activated carbon filtration steps in certain product lines. In other cases, teams required more granular lot documentation for regulatory filings in new markets—resulting in expanded batch sheets and voluntary third-party auditing.
Challenges aren’t always anticipated. One winter, tanks exposed to sudden subzero temperatures risked crystal blockages. Rather than wait for repeated freeze-thaw cycles, we installed heat-tracing lines and adjusted tank insulation, reducing product hold-up and minimizing risk of contamination. In other stretches, unexpected international shipping delays forced us to expand regional warehousing, cutting lead times and risk of moisture intrusion.
Continuous attention to small issues—surface impurities, unexpected foaming in downstream reactions, or requests for specific solvent-free finishes—ensures the laurophenone sent out actually fits the workflow of everyday chemists. Teams pride themselves on integrating advice from clients, learning both from success stories and less-than-perfect feedback.
Chemical quality goes deeper than numbers on a certificate. Having our own QC labs attached to the production line enables rapid pump-back and in-process retesting if any deviation appears. Analysts understand that running sequential HPLC and GC checks may catch out-of-profile impurities invisible to less thorough processes. For laurophenone, in-process checks mean every drum heading to a client starts its journey with the same baseline as material kept for internal reference.
Routine FTIR and UV/Vis analyses, supplemented with periodic NMR confirmation on retained samples, round out verification. Samples from each lot join a growing reference bank—providing future analysts comparison snapshots for both batch history and any evolving customer preference.
Global shifts in chemical synthesis, from green chemistry mandates to new product development cycles in consumer goods, push manufacturers to adapt. Laurophenone’s enduring structure, moderate molecular weight, and compatibility with bio-based solvents help formulators seeking to replace older, more hazardous aromatic ketones without sacrificing process reliability. Component-level substitution means headaches in larger syntheses can be avoided when time runs tight, leaving less process disruption and material loss.
As consumer products cycles shorten, demand for intermediates that slot into a variety of final goods rises. Laurophenone’s consistency from batch to batch lets research and production groups plan around process times, clean-up cycles, and waste-stream management. No need to run secondary tests for each lot received or keep backup intermediates on standby—long-term users commonly move to single-source supply on account of just such reliability.
Decision-makers balance price, quality, process compatibility, and supply stability with every chemical order. Focusing on process details and minimizing cycle time, we prevent issues that chew up budget in labor, lost raw material, or unplanned process shutdowns. With every kilo made on-site, we focus on maximizing usable yield and minimizing batch-to-batch surprises.
Our teams refine logistics, documentation, and customer support based on the realities of chemical processing work, delivering product so that it fits into production lines rather than demanding inconvenient workflow changes. Each piece—handling, storage, delivery, process compatibility—draws directly on feedback from those running the equipment, not theoretical guidance from outside.
Laurophenone represents a harmonization of practical chemical design and real-world process feedback. Reliable specifications, documented manufacturing, robust stability, and flexible application routes reflect years of fine-tuning based on daily manufacturing life. Its consistent performance, from raw input to finished output, enables scientists and plant operators to meet schedules and technical requirements without extra guesswork or corrections. Experience shapes every step of our production, supporting clients with real answers, not just claims.