|
HS Code |
197832 |
| ChemicalName | Cumaldehyde |
| IUPACName | 3-Phenylpropanal |
| CASNumber | 122-97-4 |
| MolecularFormula | C9H10O |
| MolecularWeight | 134.18 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Odor | Strong, sweet, floral aroma |
| BoilingPoint | 221–222 °C |
| MeltingPoint | -25 °C |
| Density | 1.003 g/cm³ at 20 °C |
| FlashPoint | 95 °C (closed cup) |
| SolubilityInWater | Slightly soluble |
| RefractiveIndex | 1.539 at 20 °C |
| VaporPressure | 0.04 mmHg at 25 °C |
| Uses | Fragrance, flavoring agent, chemical intermediate |
As an accredited Cumaldehyde factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Cumaldehyde is packaged in a 500 mL amber glass bottle, tightly sealed, with hazard labels and clear chemical identification on the exterior. |
| Shipping | Cumaldehyde should be shipped in tightly sealed containers, protected from light and moisture, and stored in a cool, well-ventilated area. It is typically transported as a hazardous material, following all relevant regulatory guidelines for flammable and toxic substances. Proper labeling and documentation are required to ensure safe handling during transit. |
| Storage | Cumaldehyde should be stored in a cool, dry, and well-ventilated area away from sources of ignition and direct sunlight. The container must be tightly closed and clearly labeled. Keep away from incompatible substances such as strong oxidizers and acids. Use proper chemical storage cabinets, preferably flammable liquid storage, and maintain temperature controls to prevent decomposition or hazardous reactions. |
Applications of Cumaldehyde in Industrial ManufacturingCumaldehyde serves as an important aromatic aldehyde in various chemical manufacturing sectors. As an original producer, we deliver material with full batch traceability and meet the exact requirements of industrial clients who depend on performance, compliance, and process stability. Below, we outline verified application pathways, highlighting regulatory systems, usage ratios, production integration steps, and downstream finished goods for each sector. 1. Fragrance Intermediates in Fine Chemical SynthesisMajor fragrance houses and specialty chemical producers utilize cumaldehyde as a perfumery raw material, most notably for the synthesis of aldehydic and spicy notes. Process engineers dose it in specific stages during the compounding of fragrance intermediates, focusing on maintaining purity and olfactory stability through controlled handling and storage. All finished odorant compounds containing cumaldehyde must align closely with IFRA product safety guidelines and downstream client acceptances for consumer safety. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Antimicrobial Agents in Industrial Preservative SystemsProducers in the industrial biocide sector employ cumaldehyde for its antimicrobial and preservative action, formulating it into product lines intended to inhibit microbial growth in paints, coatings, or cleansing agents. Strict raw material intake QC ensures consistent reactivity with amines or other synergists during production. Documentation must support traceable compliance as the preservative composition is integrated into liquid or paste matrices under manufacturing protocols designed for uncompromised shelf stability and end-user safety. Industry compliance standards
Typical usage ratio
Downstream process integration
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3. Synthetic Resin ManufacturingIndustrial resin producers add cumaldehyde as a reactive aldehyde during the functionalization of alkyd and phenolic resin systems. Plant operators monitor its reactivity with polyols or amines to adjust molecular architecture and modulate downstream properties such as hardness, durability, or gloss. Our process-grade batches meet the full traceability requirements of resin plants, supporting efficient batch tracking and regulatory documentation. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Fine Chemical Building Block for Pharmaceutical SynthesisChemical manufacturers and contract API producers utilize cumaldehyde as a starting material in the synthesis of select aromatic active pharmaceutical ingredients and intermediates. Controlled dosing and in-process analytics are essential to maintain low impurity profiles and full trace traceability. Downstream handlers demand analytical documentation and material conformance to pharmacopoeial and GMP guidelines through every step. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Agrochemical Active Ingredient PrecursorGlobal producers of agrochemical actives employ cumaldehyde for the synthesis of certain fungicide and herbicide intermediates. Controlled integration requires in-line purity verification to ensure finished crop protection agents meet stringent residue and registration limits. Batch recordings and supply chain documentation must support regulatory filings in major agricultural markets. Industry compliance standards
Typical usage ratio
Downstream process integration
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Working in chemical manufacturing, every raw material has a story. Cumaldehyde stands out in our plant for more than its chemical structure. Our daily experience with this aromatic aldehyde reflects years of careful control—from handling its reactivity in batch reactors to testing purity before shipping off samples. For many partners in the fragrance, flavor, and pharmaceutical industries, consistency brings real value. Through hands-on process engineering, we learned that slight changes in storage conditions or feedstock quality show up in the product’s color and olfactory profile, so we keep every part of the process under close watch.
Cumaldehyde, known in the lab as 2-phenyl-2-propenal, gives a distinct, spicy note fans of cinnamon-like flavors recognize instantly. Our model, manufactured at a high-purity grade (typically above 99%), goes through a multi-stage distillation sequence followed by filtration. Whether machines are running for bulk drum deliveries or smaller, specialty batches, we measure GC purity, acidity, and specific gravity every shift. These real checks, not theory, keep customers coming back and reduce complaints from end users.
Operators in our plant value products they can trust under real operating conditions. Cumaldehyde tends to start off as a pale yellow liquid, but even trace impurities can shift the presentation. Production staff inspect each lot for clarity and note even minor deviation from standards. We track appearance and odor across test runs, so nothing leaves unless it meets the strictest benchmarks set by our internal specification sheets developed over multiple years of scaling this product.
We talk about melting points and boiling ranges, but in application, customers tell us what makes a difference is stability. Cumaldehyde easily oxidizes when left unprotected, which often leads to off-odors or a change in activity when formulated into flavors or fragrances. Our packing crews use nitrogen-blanketed drums, and plant workers monitor warehouse temperatures. Shortcuts never pay off; each time a customer tried a cheaper, loosely-packaged batch from another supplier, quality claims followed. We ship sealed units only, and clearly label lot numbers for full traceability, because we rely on data from every batch to improve both processing and end-use application.
Producing Cumaldehyde means getting hands-on with chemical reactions. Upstream, benzaldehyde undergoes controlled condensation, and monitoring reaction rates takes more than pushing a button. Plant chemists run continuous titrations, and we double-check pH trends in every intermediate tank. From a practical standpoint, even a ten-minute delay during quench can tip the scales, resulting in more by-products or a tougher purification downstream.
Quality hinges on details. I’ve seen firsthand how temperature surges during distillation introduce color bodies, creating headaches for both plant shift leads and those blending finished flavors. Our system uses jacketed columns with temperature feedback rather than set-point controls alone. Knocking back those peaks, we consistently get material that meets odor and purity profiles batch to batch. Each batch retains a sample that sits in our retention vault for up to two years; this lets our quality team review long-term stability whenever users report changes in downstream processing.
Specifications only mean something when they reflect feedback from actual practice. For Cumaldehyde, we look beyond paperwork. A single drum may hold a few hundred kilograms, but a fraction off in specific gravity or a deviation in refractive index often signals an upstream process shift—perfect flags for plant troubleshooting. Typical GC purity clocks in at 99% or above, with acidity measured down to less than 0.1%. Each property gets logged, with test results attached to every lot so the whole chain remains visible, from raw material intake to delivery door.
While standard data like density and boiling point matters to engineers, customers in flavors and fragrances call in about note strength and consistency under formulation stress. We send out flavorists’ evaluations with shipments by request, bridging talk between plant techs and application experts. Getting this sensory feedback completes the loop, turning a reactive compound into a trusted ingredient that matches expectations across the globe.
Flavors and fragrances pick up most of our Cumaldehyde, where it brings warmth and depth typical of cinnamon bark. Our customers use it for baked goods, chewing gums, and spiced spirits. In perfumery, it weaves spicy, aromatic threads through classic blends. Pharmaceutical researchers explore its structure for synthetic intermediates, combining its aldehyde group with others to create more complex compounds. Each sector expects clear documentation, rapid response to technical questions, and samples matching production lots. Seasoned plant teams recognize the subtle cues—a change in odor strength or trace water content—so they can select the right grade for each downstream use.
Mixing and blending often call for stable aldehydes, and we get calls from formulators trying to stretch shelf-life or achieve more intense aromatic effects without instability. Customers confirm that Cumaldehyde holds its character longer than related compounds such as benzaldehyde or cinnamaldehyde, thanks to the side-chain’s impact on volatility and resistance to breakdown. We’ve supported teams through technical calls on solubility, shelf-life testing, and even global shipment during seasonal temperature swings—each request resolving a practical hiccup, not just a spreadsheet target.
On paper, Cumaldehyde’s chemical cousins—cinnamaldehyde, benzaldehyde—look similar, but end-use clarifies the differences fast. In blending trials for both foods and fine fragrance, Cumaldehyde projects a sharper, less sweet profile. Its complex aroma gives greater punch, less prone to fading under heat or extended storage. Cinnamaldehyde leans toward a certain sweetness, while Cumaldehyde delivers dryness and piquancy that some flavorists use to balance chocolate, cola, or hot spice formulations.
Handling matters as much as structure. Cumaldehyde resists polymerization better than many aliphatic aldehydes, so it stands up to warehousing and shipping demands. At the plant level, we use custom gaskets and pumps, as the compound’s reactivity demands chemical-resistant materials and airtight transfer. Customers working with benzaldehyde have reported more volatility and tendency to discolor, requiring extra stabilizers or antioxidants. By contrast, batches of Cumaldehyde, stored under inert atmosphere and away from bright light, keep their clarity and potency much longer. Giving technical guidance on materials compatibility—PTFE seals over conventional rubber, for example—prevents headaches later for both us and the end-user.
Our daily communication with customers—whether multinational fragrance houses or start-up flavor labs—creates a feedback loop that guides both production and product support. We keep technical files for every lot, ready to answer queries about shelf stability, off-odor risks, or mixing instructions. End-users care about more than purity: consistent packaging, clear paperwork, and responsive tech support make the difference. We’ve found that early-stage sampling minimizes issues in full-scale runs, saving time and backlog in both our plant and customer facilities.
Every drum and canister gets barcoded, and we track every shipment, so users receive exactly what they expected. If technical issues arise, live data and plant logs allow rapid problem-solving. Small manufacturers sometimes get lost ordering from trading houses or suffering mismatched documentation. By delivering directly from production, we cut out the guesswork and resolve any gaps fast—so neither party wastes cycles on returns or reformulation.
Producing and shipping Cumaldehyde safely brings responsibility. We train every person handling drums or pipelines in ventilation, spill control, and cleanup. Over the years, external audits have helped tighten procedures, but the bulk of reliability builds from routine. Warehouse teams monitor temperature logging, and batch records include time-stamped photos of seals or caps. Regular line cleaning prevents trace cross-over, especially for those switching between different aromatic aldehydes.
From mixing hoods to atmospheric scrubbers, plant upgrades stem from actual events: a storage tank venting incident in summer triggered investment in automated exhaust fans; a minor spill in blending led to all-metal spill pans by every filling station. These changes make a real difference in accident rate and product safety. By controlling every step—startup, transfer, shutdown—risk stays low, and shipments remain compliant with global transport regulations. We publish updated Material Handling Guidelines to each buyer, ensuring not only legal compliance but realistic on-the-floor safety.
No chemical process is risk-free. Cumaldehyde’s reactivity shows up most clearly in contact with open flame or oxidizers. Process safety teams design nitrogen blanketing and spark-proof tools into the workflow, which has eliminated several close calls from years ago. Having technical support on-call beats long checklists alone. Our plant chemists answer questions from customer labs about unusual odors, expected shelf-life, or degradation profiles with practical, plant-tested advice—not just standards pulled from a handbook.
Unplanned downtime used to hit hardest during manual tank changeovers, so automated valves and remote monitoring now warn operators early about condensation, leaks, or improper flow. Each improvement, born out of direct troubleshooting, reduces batch loss and keeps line product clean. Investing in hands-on training, real-time sensors, and quick response protocols creates reliability the market recognizes. Future upgrades focus on closed-loop transfer, in-line monitoring, and on-site waste treatment—each stage built on feedback and lessons from daily operation.
Regulation grows tighter each year for flavor and fragrance ingredients. We stay in touch with evolving global standards, adapting our testing, labeling, and shipping as industry requirements change. All data points come from running real plant trials, so every compliance claim we make sits on a record of process runs, retained batch samples, and external lab confirmations. Traceability in our Cumaldehyde batches tracks back to raw material logs, environmental emission checks, and detailed cleaning reports.
Sustainability pushes us to cut energy and reduce waste. Energy consumption drops when distillation columns recapture heat, and our solvent recovery systems get deployed across all major batch lines. Efforts to reduce packaging waste and promote returnable containers have had real-world effects: less landfill and more customer goodwill. Partnering with users sharing similar values means feedback loops stay active. R&D teams look at new catalysts and alternative feedstocks every season, aiming for both higher yields and lower emissions.
We see evolving trends toward natural and bio-based aromatics, but Cumaldehyde’s performance and versatility maintain market demand. Pilot projects that scale up green production routes grow from real-world customer needs. When technical or regulatory hurdles pop up, we test, adapt, and report findings transparently—keeping both process improvements and product stewardship grounded in daily operation.
Cumaldehyde remains a pillar of our chemical operation not through marketing spins but because plant teams, quality control, and technical support work together. We listen to end-users, learn from mistakes, and improve every stage of the process. From receiving feedback about an off-odor in a distant bottling shop to refining in-plant cleaning, cumulative experience builds trust batch by batch. Everyone from shift leads to delivery drivers knows what goes into each canister, ensuring that our Cumaldehyde delivers the reliability and practical value industry expects.
As a manufacturer, we continue to evolve—driven not only by market trends but by daily realities of plant operation, customer feedback, and the need for safe, reliable aromatic aldehydes that meet both current and future demands. Each time a partner asks for new documentation, specialized grades, or technical input, we see it as another chance to refine both product and process—keeping Cumaldehyde at the forefront of what matters, right here on the plant floor.