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6-Formaldehydecoumarin

    • Product Name 6-Formaldehydecoumarin
    • Alias 6-Formylcoumarin
    • Einecs 701-037-0
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
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    Specifications

    HS Code

    329412

    Chemicalname 6-Formaldehydecoumarin
    Casnumber 5957-17-3
    Molecularformula C10H6O3
    Molecularweight 174.15
    Appearance Pale yellow solid
    Meltingpoint 201-203°C
    Solubility Slightly soluble in water, soluble in organic solvents
    Purity Typically ≥98%
    Structure Coumarin ring with formyl group at position 6
    Iupacname 6-formyl-2H-chromen-2-one
    Synonyms 6-Formylcoumarin
    Storageconditions Store in cool, dry place, tightly closed

    As an accredited 6-Formaldehydecoumarin factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 6-Formaldehydecoumarin, 25g: Supplied in an amber glass bottle with a secure screw cap and detailed safety labeling for laboratory use.
    Shipping 6-Formaldehydecoumarin is shipped in tightly sealed containers under cool, dry conditions to prevent moisture absorption and degradation. It should be packaged according to hazardous material regulations, clearly labeled, and accompanied by safety documentation. Transport is typically conducted by licensed carriers specializing in chemicals, ensuring regulatory compliance and safe handling.
    Storage 6-Formaldehydecoumarin should be stored in a tightly sealed container, protected from light and moisture. Keep it in a cool, dry, and well-ventilated area, away from sources of ignition, oxidizing agents, and incompatible materials. Store at room temperature or as directed on the safety data sheet. Ensure proper labeling and restrict access to trained personnel only.
    Application of 6-Formaldehydecoumarin

    Applications of 6-Formaldehydecoumarin in Industrial Manufacturing

    As the direct manufacturer of 6-Formaldehydecoumarin, we supply this specialty molecule to multiple sectors requiring high-purity intermediates for functional additives, fluorescence labeling, and advanced material synthesis. Our expertise and vertically integrated operations ensure consistent quality and technical support for diverse application environments.

    1. Optical Brighteners for Laundry Detergents

    Leading formulators use this coumarin derivative as a key starting intermediate in the synthesis of specialized fluorescent whitening agents for powder and liquid detergents, ensuring enhanced brightness on textiles. Downstream processors integrate it during the condensation step to create optical brighteners with strong affinity for cellulose fibers and stable emission intensity under various washing conditions.

    Industry compliance standards

    • Regulation (EC) No 648/2004 on Detergents (Europe)
    • SAICM (UN Strategic Approach to International Chemicals Management)
    • REACH Registration for organic optical additives
    • China GB/T 13173-2008 for Detergent Ingredients

    Typical usage ratio

    • Precursor input: 0.2–0.5% w/w in the optical brightener synthesis step, with subsequent brightener dosing at 0.01–0.05% in final detergent formulations, exact ratio adjusted per formulation color strength required.

    Downstream process integration

    • Incorporated at the condensation or cyclization stage in optical brightener plant batch reactors before blending into detergent bases.

    Final product types

    • Domestic and institutional laundry detergents (powder, liquid, tablet)
    • Fabric softeners and textile aftercare additives
    • Stain removal laundry boosters

    2. Laser Dye Intermediate Manufacturing

    The coumarin core structure with the specific aldehyde substitution makes it a primary precursor in laser dye synthesis, particularly for blue-green and green emission dyes used in dye lasers and optical measurement devices. Scale-up manufacturers employ controlled condensation with amine compounds and subsequent quaternization to achieve dye purity and lightfastness suitable for precision photonics.

    Industry compliance standards

    • ISO 22197-3:2016 Functional Dyes – Performance Evaluation
    • EN 71-3:2019 (Safety requirements for fluorescent materials)
    • RoHS Directive 2011/65/EU for electronic and photonics applications
    • ASTM E2039 for Laser Dyes Performance

    Typical usage ratio

    • Intermediate step input: 0.4–0.8 molar equivalents relative to amine partners, final dye formulation as low as 0.001–0.02% in working laser dye solutions, tuned for required fluorescence yield.

    Downstream process integration

    • Coumarin derivative introduced in the primary dye formation reaction (often via Knoevenagel condensation), followed by purification and formulation into dye-doped solutions or solid-state media.

    Final product types

    • Pulsed and CW dye lasers
    • Fluorescent tracing solutions for optical instruments
    • Photonic calibration standards

    3. Fluorescent Markers for Security Printing

    Producers of anti-counterfeiting inks and taggants select this aldehyde-functional coumarin for its ability to produce highly specific fluorescent compounds. It reacts with amine-functionalized resins to yield markers with distinct excitation and emission profiles, enabling downstream finishing lines to verify document authenticity and traceability during production, and maintaining durability under prolonged UV exposure.

    Industry compliance standards

    • ISO 14298:2021 Management of security printing processes
    • OECD Good Laboratory Practice for chemical traceability
    • BS ISO/IEC 20248:2018 Digital Security Printing
    • NIJ Standard-0511.00 (security inks and taggants)

    Typical usage ratio

    • Chemical marker precursor: 0.1–0.25% in marker formulation; final ink concentration typically achieves 5–50 ppm active taggant per finished product, adjusted according to document type and regulatory sensitivity requirements.

    Downstream process integration

    • Added during taggant synthesis and resin blending; final fluorescent markers incorporated in gravure and flexo ink formulations prior to roll-to-roll printing and secure document lamination.

    Final product types

    • Banknote security threads
    • Passport and identification card overlays
    • Brand protection inks for packaging and tax stamps

    4. UV-Curable Coatings for Wood Finishes

    Industrial formulators employ this coumarin-based aldehyde for the in-situ generation of reactive photoinitiators, which, when blended with acrylate resins, enable rapid and robust UV crosslinking in high-speed wood flooring and furniture line applications. Correct integration assures mechanical hardness and color stability, vital for premium decorative markets with rigorous quality thresholds.

    Industry compliance standards

    • EN 13442:2013 Wood Flooring and Parquet - Resistance to chemical agents
    • ASTM D3023-98 for cured film hardness and durability
    • Directive 2004/42/EC (VOC content in paints and varnishes)
    • ISO 9001:2015 certified production (coating manufacturing)

    Typical usage ratio

    • Chemical input: 0.3–1.0% of total resin solids, adjusted for line speed and desired cure depth; lower levels for thin overlays, higher for multilayered parquet systems.

    Downstream process integration

    • Incorporated in the photoinitiator blending stage before direct mixing with UV-curable monomer and oligomer bases; applied by roller or spray before curing under high-intensity UV lamps.

    Final product types

    • Scratch-resistant parquet and laminate topcoats
    • Wood furniture UV finishes
    • Architectural panel lacquers

    5. Intermediates for Pharmaceutical Fluorescent Probes

    Research and diagnostic reagent manufacturers use the unique structural motif of this compound as a precursor in the preparation of highly selective fluorescent probes for biochemical assays. Through specific derivatization steps, users create molecular indicators tailored for high-sensitivity detection in pharmaceutical labs and clinical environments, complying with analytical traceability norms.

    Industry compliance standards

    • USP General Chapters <1040> Fluorescence
    • ICH Q7 Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • ISO 13485:2016 Medical devices – Quality management
    • OECD GLP (Good Laboratory Practice)

    Typical usage ratio

    • Probe synthesis: 0.05–0.2 mmol scale against primary amines, final probe formulation 10–200 μM for analytical kits, scaled based on sensitivity and matrix.

    Downstream process integration

    • Used in conjugation reactions with aldehyde-reactive bioligands during fluorescent probe synthesis, followed by purification and formulation with stabilizing buffers for ready-to-use diagnostic products.

    Final product types

    • Cell imaging reagents
    • Enzyme activity assays
    • Clinical diagnostic fluorescence kits
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    Certification & Compliance
    More Introduction

    6-Formaldehydecoumarin: Direct Insights from Our Plant

    What We See In the Workshop

    Anyone who steps into our production area will notice the methodical hum of activity each time we run a batch of 6-Formaldehydecoumarin. We’ve spent years tuning this process, not only getting the best yield but controlling every step to lock down purity. We don’t just source raw materials because they happen to tick boxes for spec sheets; we test and re-test to make sure the end product lives up to what synthetic chemists and formulators expect. 6-Formaldehydecoumarin’s output from our reactors has to meet our own in-house targets, not just general standards, because every run impacts our own downstream blends and fragrances too.

    Why Chemists Turn to 6-Formaldehydecoumarin

    The coumarin core structure opens the door for creativity in everything from perfumery to pharmaceuticals, but that little formaldehyde unit at position six shifts the chemistry. We see talented formulators reach for it in fine fragrance development, searching for more than the sweet vanilla warmth of standard coumarins. They look for that clean aldehydic layer—something sharper, a bit more green—without drowning out the heart notes. In our discussions with flavor chemists, this modification brings new character without straying into odd or off-putting tonalities. It’s why top developers don’t just settle for plain coumarin.

    Specifications Handled In-House

    Across each drum of 6-Formaldehydecoumarin that leaves our plant, we log the molecular fingerprint: C10H6O3 with a distinctive mass and reactivity. Our QC lab runs GC-MS and FTIR on every lot, but we don’t just trust the numbers. The visual—pale crystals under the scope and a faint, crisp scent—tells our team they’re on the right path. Our tolerance for impurities stays tight, particularly with trace-forming byproducts that can compromise scent integrity in perfumery. Chemists often ask about solubility. We get reliable dissolution in ethanol and nonpolar solvents, removing headaches during mixing or formulation tweaks. From years of feedback, most customers want product at above 99% purity; that’s what we send.

    Why Not Just Use Coumarin?

    Each industry veteran knows the standard coumarin: sweet, hay-like, and vanilla-forward. Shift to 6-Formaldehydecoumarin and something subtle changes. In a fragrance base, that aldehyde fragment gives a controlled lift—edges become cleaner without making the blend harsh or losing the core softness. One formulator told us their attempt to replace it with simple coumarin flattened the whole top note. In dye chemistry, where slight structural differences completely change hue or fastness, the formaldehyde group at position six gives auxiliary properties, sometimes stabilizing color or shifting solubility; something basic coumarin can’t match.

    Inside the Synthesis

    Operators on our shift know that handling the reaction for 6-Formaldehydecoumarin isn’t about simply warming two compounds together. It takes accurate pH control and timed introduction of formaldehyde. The route we use avoids strong acids, so our downstream product doesn’t pick up lingering reactivity or corrosion risk. Every step matters—temperature swings by even a few degrees, and the yield of desirable isomer drops. We monitor endpoint by hands-on TLC in real time, not by waiting for the batch to finish and hoping the numbers line up. From scale-up to isolation, we’re checking for uniformity not in a generic sense, but batch-to-batch for real continuity.

    Common Issues and What We Hear From the Field

    Formulators discuss solvent compatibility routinely with us. Many try alternatives but return to our product because they get unpredictable residue or separation. We spend the necessary hours on post-crystallization washes—not just to remove unwanted color, but to minimize those faint off-notes that wreak havoc in fine fragrance. Dye manufacturers sometimes push us about particle size; they need powder that won’t clump or cause sedimentation mid-process. We built in a sieving and air-classification step, letting us ship consistent, free-flowing product by the drum.

    Applications Driving Our Work

    The biggest single push for 6-Formaldehydecoumarin over the last few years comes from perfumers in search of fresh, aldehydic lift without sacrificing coumarin’s familiar warmth. In flavors, the demand leans toward fine-tuning mouthfeel and aftertaste. Our customers in dye chemistry have explored rarely discussed applications where the 6-position modification influences lightfastness or substrate bonding on fabric. Specialty polymer additive manufacturers report value in this structure as a modulator for controlled-release additives, taking advantage of its measured breakdown profile.

    How Feedback Shapes Plant Decisions

    Over the last decade, we’ve made plant-level changes with each new customer challenge. One year, the demand focused on reducing trace benzaldehyde carryover. We reworked sections of the isolation line for better venting and spent a full quarter retesting washing reagents just to ensure a cleaner product. Years ago, fragrance companies started reporting that micro impurities left a stale undertone on long-term storage. We responded with a multi-stage filtration process, tested it at scale, and found the improvement stuck across seasonal production shifts. That sort of back-and-forth keeps compounding: we send out samples of a new batch, gather application results, and sometimes run production off-hours to accommodate tweaks—whether it means finer particle sizes, tighter purity or even repacking for specialized blending rooms.

    Key Differences from Similar Products

    We see a lot of requests for product comparisons: “Can I swap this for basic coumarin?” or “Is this just another benzaldehyde-coumarin hybrid?” Years in the field tell us these structures behave differently, sometimes in subtle but crucial ways. Plain coumarin misses the green clarity that a formyl group at position six adds. 3-formyl and 4-formyl analogs develop off-odors under storage that our 6-formaldehyde version avoids. In textile work, the way the molecule anchors to fiber or blends with resins shifts depending on its substitution—small structural tweaks cascade into real-world performance.

    Testing and Real-World Results

    We run every new lot through in-house application testing: fragrance stability over time, solvent compatibility in alcohol and glycol bases, and exposure to acid and base conditions that match our customers’ processes. Product passes or fails based on how it performs in real blends—not just on analytic purity alone. One R&D chemist in a partner flavor house described how a generic substitute left their formulation with an off-flavor that storage only intensified, while 6-Formaldehydecoumarin held its profile for weeks. We repeat “real-life” shelf simulations year-round, because actual applications matter a lot more than theoretical charts.

    Safety and Handling Experience

    Safety in manufacture starts at raw material verification. Every truck of feedstock gets checked for contaminants that could lead to unexpected byproducts. We run a closed system for formaldehyde addition, sharply limiting worker exposure. Operators get regular training—no cutting corners—and our packaging includes strong, sealed liners to prevent dust escape. Downstream users tell us our standardized packaging saves time in their own weighing and dispensing steps. Disposal of waste streams from the process follows best practice, with active oversight and routine external audits.

    Challenges in Sustainability

    Over the years, environmental pressure on all aromatic builders has only ramped up. Since 6-Formaldehydecoumarin draws on both phenolic and aldehyde inputs, we get periodic scrutiny on supply chain traceability. We shifted to greener synthetic steps, reducing use of heavy metals and chlorinated reagents. The wastewater from synthesis passes through a full biological and carbon scrubber unit—an upgrade we invested in after noticing groundwater quality readings climb. We invest in feedstock traceability, staying logged with third-party auditors who come through each year. Even with these investments, balancing production cost and sustainability demands constant improvement.

    Market Realities and Price Pressure

    Raw material costs rarely go in reverse. This reality means that we continually tune our reaction efficiency and waste reduction strategies to soften the blow of upstream jumps. We run reduced-batch trial lots when price-sensitive customers request lower spec material, but the bulk of demand always comes back to high-purity product: a little goes a long way in most applications, and customers don’t save much by trading down in grade—too much time and energy goes into cleaning up after lower-quality intermediates. Our team negotiates long-term contracts with major benzaldehyde and phenol suppliers directly, cutting out margin padding that sometimes clouds true market pricing.

    Product and Packaging in the Real World

    We ship in moisture-proof lined fiber drums; internal liners help keep the powder bone-dry and odor-free up to the end user. Some customers request smaller packs for bench-scale or R&D trials; we accommodate whenever possible, swapping drums for smaller pails with matching inner liners. Every drum gets a unique lot code, matching back to lab data held for years. For users needing just a small sample, we provide glass bottles with flame-sealed stoppers to ensure no outside contamination, since even a trace of foreign odor will throw off a whole perfume batch. We get repeat customers telling us a clean, reliable package cuts deep into their prep time. Lift a drum and you’ll find it stacks safely on racks without caving—details our warehouse team prioritized after a single bad shipment made a mess on a customer dock.

    Long-Term Customer Relationships

    Any manufacturer who’s lasted as long as we have learns that steady customers want more than just a one-time delivery of product. We keep detailed logs of every lot shipped, often connecting directly with application chemists by phone or video call when issues appear. Our sales team knows to forward any technical question to the plant—nothing gets lost in translation. Over many years, this way of working has let customers troubleshoot and refine their own processes faster, and we learn from them right back. Efficient, reliable technical support—not just a sales hotline—grows confidence across both sides.

    Why Do We Keep Pushing for Better?

    Seeing a formulation that hits the right note for a perfumer, or a dye batch that matches lightfastness targets, means more to our team than just pure capacity numbers. Experienced chemists keep asking for purer, cleaner, more predictable product—so our targets rise. Small changes in consumer taste or downstream regulation force us to adapt quickly, reshaping plant practice and QC screening within months, not years. Our operators and engineers take pride every time a customer shares a successful product launch, crediting a reliable ingredient at the core.

    Looking Ahead

    Researchers keep calling for smarter, greener, more tailored intermediates. We collaborate with universities and downstream partners, developing methods for renewable feedstocks and biocatalysis routes for coumarin derivatives. Years from now, the approach to making 6-Formaldehydecoumarin will likely bear little resemblance to today’s thermal and catalytic steps. But it’s the demands of the brands and manufacturers using this compound now that push us forward in the right direction.

    Closing Thoughts

    We keep our doors open to feedback from real users: companies large and small in fragrance, dyes, flavor houses, and specialty polymers. The plant team absorbs every bit of advice, chasing after better process control, cleaner product, safer workflow, and more creative solutions. Delivering 6-Formaldehydecoumarin isn’t a single step—it’s day-to-day attention in the field, in the lab, on the phone. Our story reflects the realities and challenges of real-world chemical manufacturing—built on knowledge, driven by customer need, and shaped by constant progress.