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Cinnamylideneacetophenone

    • Product Name Cinnamylideneacetophenone
    • Alias 1,3-Diphenyl-2-propen-1-one
    • Einecs 210-086-7
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry sales7@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    690292

    Cas Number 583-53-9
    Iupac Name 1-Phenyl-3-(phenylmethylidene)propan-1-one
    Molecular Formula C17H14O
    Molar Mass 234.29 g/mol
    Appearance Yellow solid
    Melting Point 118-121 °C
    Boiling Point 376.2 °C at 760 mmHg
    Solubility Slightly soluble in water, soluble in organic solvents
    Density 1.13 g/cm³
    Pubchem Id 10712

    As an accredited Cinnamylideneacetophenone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Cinnamylideneacetophenone is packaged in a 25-gram amber glass bottle with a secure screw cap and a clear identification label.
    Shipping Cinnamylideneacetophenone should be shipped in a tightly sealed container, protected from light, moisture, and incompatible substances. Transport in accordance with local, national, and international regulations for chemicals. The package should be clearly labeled, handled with care, and stored in a cool, dry place to ensure chemical stability and safety.
    Storage Cinnamylideneacetophenone should be stored in a tightly sealed container, away from light, moisture, and sources of ignition. It should be kept at room temperature or in a cool, dry, and well-ventilated area. Avoid storage with oxidizing agents or strong acids. Proper labeling and secure storage are essential to prevent contamination and ensure safe handling.
    Application of Cinnamylideneacetophenone

    Applications of Cinnamylideneacetophenone in Industrial Manufacturing

    Cinnamylideneacetophenone is a specialty intermediate with distinct reactive groups, supporting manufacturing across several chemical sectors. As a direct manufacturer, we provide this raw material to established industry partners seeking high-purity supply for advanced downstream processing. The following highlights concrete industrial applications based on market practice and regulatory expectations.

    1. Synthesis of Advanced UV-Absorbing Additives for Polymers

    Manufacturers in plastics and coatings incorporate cinnamylideneacetophenone as a key building block during the synthesis of non-hydrolyzable UV-absorbing additives, particularly for high-durability polymer resins. Chemical reactivity enables this compound to integrate into benzylidene-ketone frameworks, improving light stability in outdoor and automotive applications. Process engineers blend it during additive compound formation prior to masterbatch deployment. Formulation targets maximize UV shielding while maintaining optical and mechanical characteristics of the base resin.

    Industry compliance standards

    • REACH Annex XVII (EU) – Restrictions on chemical additives for consumer polymers
    • ROHS Directive 2011/65/EU – Limits on hazardous substances in electronics-related plastics
    • ASTM D5208 – Evaluation of UV resistance in plastic materials
    • GB/T 20120 (China) – Performance standards for light-resistant plastics

    Typical usage ratio

    • 1.0–3.5% by weight in additive premix formulations
    • Final content in polymers: 0.2–0.6%, adjusted based on UV exposure requirements and polymer matrix type

    Downstream process integration

    • Introduced during the organic additive synthesis stage via condensation or alkylation reactions
    • Subsequent blending with resin carriers to create masterbatch granules or coating mixtures
    • Dispersed uniformly in melt compounding or solvent-borne processing lines

    Final product types

    • Outdoor plastic housings and enclosures
    • Automotive interior and exterior trim components
    • Architectural and protective topcoat paints
    • High-performance UV-stabilized films

    2. Intermediate for Pharmaceutical Fine Chemicals

    In pharmaceutical synthesis, cinnamylideneacetophenone serves as a precursor for several research and development-stage molecules requiring conjugated enone scaffolds. Medicinal chemistry teams employ it in early-stage route scouting, targeting the generation of pharmacologically active derivatives through further functionalization steps. Its mechanism leverages high selectivity in Michael addition and cyclization protocols. Processing must comply with traceability and impurity control mandated for GMP pilot scale and up.

    Industry compliance standards

    • ICH Q7 – Good Manufacturing Practice for active pharmaceutical ingredients
    • 21 CFR Part 211 – US FDA GMP regulations for pharmaceuticals
    • USP-NF Monographs (where applicable for intermediates)
    • EudraLex Volume 4 – GMP requirements for investigational and commercial medicines in Europe

    Typical usage ratio

    • Stoichiometric usage in multi-step APIs synthesis; 0.8–1.2 mol equivalents based on target structure
    • Continuous adjustment depending on impurity profile, solvent batch, and downstream reaction yield

    Downstream process integration

    • Utilized at the intermediate step of heterocycle and aromatic compound synthesis
    • Reacts in batch reactors under controlled temperature and inert gas protection
    • Processed within closed systems to ensure GMP compliance and minimize cross-contamination risk

    Final product types

    • Enone-based pharmaceutical intermediates
    • Synthetic scaffolds for preclinical drug candidates
    • Specialty fine chemicals for medical R&D applications
    • Advanced starting materials for approved and investigational medicinal agents

    3. Aroma Chemicals for Fragrance Manufacturing

    Cinnamylideneacetophenone’s molecular motif brings distinctive spicy and sweet aromatic notes, qualifying it for specialty fragrance chemicals. Perfume compounders and aroma houses employ it for custom accords, particularly in creating woody, balsamic, and amber base notes. It may require further derivatization for enhanced performance in complex mixtures. Blending and QC procedures control olfactory purity and stability, minimizing off-notes in consumer products.

    Industry compliance standards

    • IFRA Code of Practice – Safety and purity standards for fragrance ingredients
    • EU Cosmetics Regulation EC 1223/2009 – Ingredient authorization and labeling for personal care
    • Good Manufacturing Practices for Cosmetics (ISO 22716)
    • Allergen declaration under Regulation (EC) No 648/2004 (for detergents and cleaning agents)

    Typical usage ratio

    • Concentration in fragrance oils: 0.1–2.5% depending on formulation intensity and sensory effect
    • Dosage limited in leave-on products based on IFRA safety assessments

    Downstream process integration

    • Blended during compound formulation after essential oil mixing
    • Dissolves in solvent or carrier oil prior to fine filtration and quality control
    • Batched in automated dosing systems for mass market and fine fragrances

    Final product types

    • Luxury perfumes and eau de toilette
    • Scented soaps and body washes
    • Home fragrance oils and air care products
    • Detergent fragrances and multipurpose cleaners

    4. High-Performance Dye and Pigment Intermediates

    The core enone structure of cinnamylideneacetophenone enables its use as a starting point in synthesizing specialty dyes for textiles and inks. Dye manufacturers utilize it in condensation reactions to produce chromophore-enriched molecules with tailored absorption curves. This application demands rigorous control of purity and color index, as well as compatibility with further sulfonation or metal complexation steps. Adjustments in process parameters influence batch tone, shade depth, and fastness properties.

    Industry compliance standards

    • OEKO-TEX® Standard 100 – Human-ecological requirements for textiles
    • EN ISO 105 Series – Color fastness test methods
    • ZDHC MRSL – Restricted substance list for textile and leather supply chains
    • US EPA TSCA Section 5 – Notification for new chemical dyes and colorants

    Typical usage ratio

    • Reactant: 0.7–1.5 molar equivalents during dye intermediate synthesis
    • Final dye usage in textile formulations: 0.2–1.0% by weight of finished dye paste
    • Specific loads depend on target color intensity and base substrate

    Downstream process integration

    • Reacted in batch synthesis with aromatic amines or anhydrides
    • Integrated during condensation or coupling reaction to form color bodies
    • Pulled into pigment paste finishing after filtration and drying

    Final product types

    • Disperse and reactive dyes for polyester, acetate, and polyamide fabrics
    • Colored printing inks for packaging and graphics
    • Organic pigment concentrates for plastics and coatings
    • Specialty marking and security dyes
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    Competitive Cinnamylideneacetophenone prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    Cinnamylideneacetophenone: An Insider's View from the Production Line

    A Closer Look at Cinnamylideneacetophenone

    In the fine chemicals field, cinnamylideneacetophenone comes up not just as another compound in our portfolio, but as a direct answer to several long-standing challenges in organic synthesis, fragrance, and pigment manufacturing. Our plant workers know every step it takes to turn raw benzalacetone and cinnamaldehyde into this unique compound. Giving you a quality product starts in the reactor, not at a sales desk, and every batch reflects our years of hands-on tweaking and improvement.

    Our Methods and Standards

    Turning out cinnamylideneacetophenone at scale is far from routine. Whether we’re working with kilo-scale custom orders or larger volumes for established customers, quality never takes a back seat. With a melting point usually observed between 105–108°C and a carefully managed purity, we control synthesis temperatures, solvent choices, and purification steps. Lab staff spot and iron out problems before full campaigns begin. We stick to analytical checks for every finished lot, using TLC and HPLC. If any batch falls outside our narrow product profile, you won’t ever see it leave our warehouse.

    Why We Focus on This Molecule

    Many customers ask why we push cinnamylideneacetophenone so hard. The answer comes from both demand and the chemistry itself. This molecule bridges the gap between basic aldehyde chemistry and more advanced functionalization for flavors and materials. Its structure—the conjugated double bond system—shows strong reactivity yet enough stability for shop-floor handling. You see the compound popping up in perfumery, as a key intermediate in coumarin synthesis, in the development of new dyes, and in specialty polymer applications. We didn’t pick it out of a catalog. We built our process because researchers and manufacturers asked for reliability, not just availability.

    Practical Applications Our Clients Care About

    The requests we receive span from fragrance formulation to materials R&D. A perfumer wants a cinnamylideneacetophenone fraction with faint spice notes, not off-odors. A pigment supplier needs a high-purity grade with no leftover cinnamaldehyde. For chemical synthesis, academic labs want small packages with complete spectral data, while larger partners need multi-barrel shipments with verified lot consistency. Every customer uses the compound differently, but our job stays the same: keep vital specifications under control and work openly with those testing new syntheses.

    Our exposure to these sectors lets us spot trends early. In aromatic research, this molecule’s extended pi-system opens the door to Schiff base creation and nitro-group functionalizations. We see experimentalists requesting ultra-dry material for lithium reagent additions. The pigment sector’s interest often means maintaining tight limits on trace metals, pushing us to keep stainless reactors cleaned on a tight schedule. Meeting those needs takes coordination on the floor, a sensible approach to raw material sourcing, and a willingness to waste a batch if it misses the mark.

    What Sets Our Cinnamylideneacetophenone Apart

    There’s no use comparing lab-scale lots with industrial ones unless you see the end-use. Our team gets regular feedback from formulators who hit snags with off-shore supply: missing COA data, small lot inconsistencies, or cross-contamination with close analogues like benzylideneacetophenone. We fight those issues with a two-pronged approach: tight batch-to-batch reproducibility and real transparency about limitations. If a client works in a strictly regulated fragrance segment, we document every step of the process, including full chromatograms and NMR traces.

    Some users come looking for alternatives and find themselves frustrated by competitive products that show higher impurities, inconsistent color, or questionable handling during shipping. Discoloration troubles often stem from prolonged exposure to humidity or improper drum sealing. Our packaging team cuts those problems off by vacuum packing or using welded liners depending on customer risk models. Even after a cross-country shipment, we keep random samples on file for a full year to help resolve customer claims with real data.

    Model Differentiation and Customization Approaches

    As a manufacturer, our customers rarely see just one “model,” because nearly every application calls for some adaptation. Some fragrance houses in Europe ask for a 99% pure product, completely free of cinnamyl alcohol or benzoin, while Eastern pigment manufacturers may only need material free of halogen residues. Each grade pulls on our resources differently: finer purification, longer column runs, more labor in quality checks. Offering these options comes from decades of hearing the same story—generic, off-the-shelf products often set back project timelines and cost more down the line when they require repurification or troubleshooting downstream. Our technical sales staff isn’t just reading spec sheets: they walk into the synth lab and see batches being made, so they know how production decisions affect each grade.

    Diving into bulk shipments, drum selection matters as much as the chemical process. We've seen plain steel drums leach trace iron into products stored too long—small at first, but showing up in highly sensitive pigment applications. To head that off, we work with lined drums or food-grade plastics for clients running mass spectrometry tests on incoming raw materials. If a non-standard grade with elevated dryness or filtered to 0.2 micron is needed, our operations team puts changes through a dry run before scaling up, passing the benefits on to analytical labs and manufacturers pushing for better reproducibility.

    Managing Purity and Handling: Hard Lessons from the Floor

    Producing pure cinnamylideneacetophenone isn't just about precise measurements—it’s about learning where most process hiccups start. Cross-contamination from earlier runs often carries over unnoticed unless solvent handling and glassware cleaning is enforced religiously. Every technician at our site understands that a shortcut in cleanup costs far more than the half-hour saved. We’ve invested in dedicated glassware for sensitive batches and train new staff on why slight shifts in pH or trace moisture can tip a batch off spec.

    Handling the outgoing product also matters. If storage rooms get above 30°C, subtle polymerization kicks off, giving a yellowed product that won’t pass most QC tests. Our warehouse staff monitors storage conditions and flags anything left for more than two months. These controls don’t just add bureaucracy—they lower our out-of-spec rate and keep customer feedback positive. Experience on the production line tells us that keeping cinnamylideneacetophenone fresh doesn’t stop after bottling; it continues with every link in the distribution chain.

    Pitfalls of Low-Grade or Unverified Sources

    Many customers burn time recovering from buying from discount vendors, usually based offshore. Low-purity material comes with unanticipated side products or color instability. Syntheses fail midstream. We often end up as the fallback supplier, working to clean up batch runs and run “tank tests” to give clients confidence in switching sources. Keeping our standards up saves industry partners time and money, but also reinforces the value placed on chemical know-how and on-the-ground feedback from real users.

    Supporting New R&D and Scale-Up

    Our involvement starts before customers even place a purchase order. Academics sometimes approach us when designing a new method involving the chalcone backbone, asking for input on batch-to-batch stability, or tolerance to different solvents. Process chemists need starter material that won’t introduce variability during scale-up. By sharing our own NMR and TLC fingerprints with clients, we let researchers align their protocols to what they actually receive, not just what appears on a theoretical structure.

    As regulatory standards evolve, especially in dye production or fine fragrance, teams regularly consult us about allowable trace elements, anticipated side products, or compliance with European and East Asian safety criteria. We never guess or rely on “industry standard” generalizations; instead, we test with real samples and report our findings, letting our customers adjust their downstream processes in advance. If the compound passes muster in the lab, we offer support ramping up, gathering extra reserve material to avoid interruptions once new formulations hit the market.

    Sustainability and Waste Reduction

    Manufacturers like us can’t ignore our footprint, particularly with aromatic intermediates like cinnamylideneacetophenone. Over the years, we found solvent recovery one of the biggest savings, both in cost and in lowering emissions. Each year, we tune distillation columns and solvent recovery tanks, logging improvements and recalibrating workflows to cut waste. Finding greener purification steps remains a work-in-progress. Some customers ask for product with minimized solvent residue, so our lab staff continually explores new drying agents and filtration media. Our focus on continuous improvement isn’t driven by marketing—it comes from dealing with real regulatory audits and learning from every inspection.

    Feedback Loops and Production Evolution

    Direct contact with formulators, QC staff, and R&D labs drives our development. No matter how well we think we know cinnamylideneacetophenone, real-world use always brings surprises. A pigment lab once noted an unexpected color shift after weeks in storage. We traced it back to an overlooked plastic palleting material that interacted under certain temperatures. Fixing that problem led to new packaging standards across all temperature-sensitive products. In another case, repeated customer mention of “musty” notes in early fragrance batches revealed a supplier contamination that our regular GC checks enabled us to spot quickly. We built in new upstream audits as a result.

    Sizing Up Competition and Overcoming Market Challenges

    Chemical manufacturing never stays static. We notice shifts in global supply as raw materials tighten or competitors drop quality. Patience, hard-won technical discipline, and a willingness to invest in process upgrades matter more than chasing the cheapest feedstock or working with intermediate brokers. By owning each stage of the chain, from sourcing through packaging, mistakes get trapped early and trust builds with repeat clients. Several long-standing partners started out skeptical, hoping to cut costs by trying multiple vendors, but told us later the stability of our lots and willingness to troubleshoot side-by-side saved them headaches as they scaled up projects.

    Fostering Transparency and Trust

    Companies serious about progress in synthesis and formulation increasingly demand full transparency. Our openness with process notes, real spectra, and a clear record of deviations sets us apart from firms who prefer hiding behind vague assurances of “meeting standards.” In two decades, our approach has paid off: instead of anonymous complaints, we get actionable feedback and a steady flow of new inquiries based on word-of-mouth within the chemical community.

    Looking Ahead – Adaptation and Responsiveness

    We keep expanding our process controls and analytical capacity. The next few years will likely see shifts toward tighter trace analysis, greater automation, and higher purity levels. Small tweaks—like automation in basic NMR runs or colorimetric checks—already speed up testing and lower costs. As market needs change, we keep staff training current, both in safety and in real chemical troubleshooting. Several of our senior chemists started in the bottle-washing room and have helped us improve yields and product handling with on-the-ground knowledge, not theory.

    Standards Without Compromise

    A quality cinnamylideneacetophenone requires discipline throughout the manufacturing chain. Holding strong on purity levels, material handling, and timely feedback makes all the difference between a lagging chemical producer and a dependable supply partner. Our experience tells us that end users, whether dye chemists or fragrance developers, depend on more than certificates—they rely on expertise and a willingness to adapt on the floor. That human factor sets well-run manufacturing apart, letting us deliver a product that solves your technical problems, not one that introduces new ones.