|
HS Code |
867703 |
| Cas Number | 458-35-5 |
| Molecular Formula | C10H12O3 |
| Molecular Weight | 180.2 g/mol |
| Iupac Name | 4-hydroxy-3-methoxycinnamyl alcohol |
| Appearance | White to off-white crystalline solid |
| Melting Point | 90-95 °C |
| Boiling Point | 345 °C |
| Solubility In Water | Slightly soluble |
| Density | 1.18 g/cm³ |
| Pubchem Cid | 8587 |
| Smiles | COC1=CC=C(C=C1O)C=CCO |
| Flash Point | 184 °C |
| Refractive Index | 1.585 |
As an accredited Coniferyl Alcohol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Coniferyl Alcohol is typically supplied in a 25g amber glass bottle, labeled with product details, hazard warnings, and manufacturer information. |
| Shipping | Coniferyl Alcohol is shipped in tightly sealed containers made of glass or compatible plastic to prevent contamination and evaporation. It should be stored and transported in a cool, dry, well-ventilated area, away from heat, moisture, and direct sunlight. Proper labeling and adherence to relevant chemical transport regulations are required. |
| Storage | Coniferyl alcohol should be stored in a cool, dry, and well-ventilated area, away from sources of ignition and direct sunlight. Keep the container tightly closed and protected from moisture. Store separately from oxidizing agents and strong acids. Proper labeling and secure storage are essential to prevent accidental exposure or contamination. Follow all relevant safety guidelines and regulations for chemical storage. |
Applications of Coniferyl Alcohol in Industrial ManufacturingConiferyl alcohol is a key biochemical building block used in specialized sectors of industrial manufacturing, especially for advanced organic synthesis, fine chemicals, and high-value biochemical intermediates. Below are the major downstream applications where coniferyl alcohol is used as a functional ingredient or intermediate, supplied directly to industry under stringent manufacturing protocols. 1. Lignin-Based Resin ProductionIndustrial manufacturers use coniferyl alcohol as a primary precursor in the synthesis of lignin-based phenolic resins. These resins provide enhanced mechanical properties and eco-friendly composition for plywood, laminates, and moulded components. Resin plants incorporate coniferyl derivatives during initial polymerization with formaldehyde under alkaline conditions. Careful control over the phenol-to-aldehyde-to-coniferyl alcohol ratio enables tuning of curing speed and final rigidity, meeting strict physical property requirements for construction and engineered wood products. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Synthesis of Flavonoid Compounds for NutraceuticalsIn the nutraceutical industry, coniferyl alcohol serves as a core precursor for the synthesis of natural flavonoids through biocatalytic and chemo-enzymatic routes. Advanced manufacturers use it to produce intermediates like naringenin and catechins for functional foods and dietary supplements. The process involves oxidation and rearrangement of coniferyl alcohol under controlled pH and enzymatic conditions, with meticulous monitoring of by-product formation to ensure food-grade purity. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Vanillin Synthesis for Food and Fragrance IndustriesMany food and flavor manufacturers use coniferyl alcohol as an intermediate in the biotransformation route for vanillin. In controlled fermentation systems, coniferyl alcohol undergoes oxidative cleavage, yielding vanillin that meets global food additive standards. This method allows for "natural origin" labeling and traceability, especially valued in premium confectionery and beverage applications. Quality teams monitor each batch for compliance with food grade purity limits, minimizing residual precursors and by-products. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Phytochemical Synthesis in Research-Grade Fine ChemicalsConiferyl alcohol is integral to the preparation of reference phytochemicals for pharmaceutical R&D and analytical laboratories. Researchers use it for small-scale synthesis of lignans and coumarins, running tightly controlled reactions to ensure structural integrity and reproducibility. The substance enters the synthesis at the alkene functionalization stage, demanding anhydrous, inert conditions and traceability in accordance with laboratory quality management frameworks. These high-purity derivatives support assay validation and bioactivity testing in regulated environments. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Polymer Additive Manufacturing for CoatingsProducers of specialty coatings and biodegradable packaging integrate coniferyl alcohol-based oligomers into polymer formulations to modulate hydrophobicity and crosslink density. Factories blend this ingredient with acrylate or polyurethane precursors in melt or solution processes, directly influencing curing rate and final flexural strength. Regular QC checks verify integration at targeted polymer chain positions, adhering to industry-specific environmental and user safety standards. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive Coniferyl Alcohol prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: admin@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
Sourcing and producing coniferyl alcohol has always meant digging deep into nature's toolkit, and understanding how plants put together their cell walls. As a chemical manufacturer, our work borrows a page from that natural process. We look at how softwood trees, especially conifers, use coniferyl alcohol as a building block in their lignin structure. Replicating this in the lab, we learn a lot about what makes this molecule special—reactivity, purity, and consistency. Experience in fermentation, separation, and laboratory synthesis shapes the product we bring out to the market. Every batch reflects precise control over temperature, pressure, and feedstock selection, which in turn influences the crystal structure and chemical behavior of the final product.
Coniferyl alcohol, with its chemical structure rooted in the cinnamyl alcohol family, carries a hydroxyl and a methoxy group that set it apart. Our manufacturing process achieves a product purity upwards of 98%, which is the benchmark for advanced research and downstream applications. The crystalline, pale white powder is engineered for both solubility and stability. Melting point ranges consistently between 78°C and 80°C, confirming the product’s reliability during storage and subsequent processing. Water content registers below 0.5%, a crucial spec for those who depend on reaction predictability. Our labs conduct repeated HPLC and NMR analyses to ensure each lot matches these specifications, minimizing variability and satisfying strict regulations in customer protocols.
Chemists and product developers turn to coniferyl alcohol for its versatility. In biomaterials research, the compound serves as a reference standard to unravel the lignification process, supporting breakthroughs in sustainable papermaking and bio-composites. In flavors and fragrances, its subtle, plant-derived aroma underpins the creation of true-to-nature synthetics. Enzymology labs use coniferyl alcohol to screen laccases and peroxidases, building newer enzyme cocktails for eco-friendly pulp bleaching and textile processing.
Several industrial clients ask about coniferyl alcohol for its role in constructing higher-value vanillin and other aromatic aldehydes. Our process enables scalable access to this rare phenolic, bridging the gap between milligrams for research and kilograms for pilot production. Every shipment rests on a lot-specific certificate of analysis, which tracks chemical fingerprinting from sourcing through finished goods—crucial for audit trails and troubleshooting in regulated sectors, including pharmaceuticals.
Years of processing and feedback from diverse industries have reshaped how we think about quality. We don’t just supply a commodity; we deliver a high-purity biochemical precisely calibrated for predictable results. Much of our clientele works in fields where one minor impurity can derail an entire batch—be it in industrial fermentation, biopolymer formation, or enzymatic assays. Our production lines integrate in-house developed purification routines. These do more than filter out foreign matter; they cut down on isomers and degradation products, ensuring that every container meets the purity and performance profile demanded by cutting-edge labs.
Compared to standard grades often pushed through less controlled channels, our coniferyl alcohol undergoes additional layers of synthetic optimization and analytical scrutiny. We handpick batches that meet not just published specifications, but also internal markers for moisture stability, shelf-life, and photoreactivity. This speaks directly to the needs of those experimenting with stress-testing new materials, developing analytical reference standards, or searching for a robust base compound for value-added chemical synthesis.
Over the last decade, feedback from both small research teams and larger pilot operations has shaped the molecule’s reputation. Several institutes focused on lignin valorization consistently note that our product takes less time to dissolve, with fewer problems during scale-up. Food and flavor developers emphasize the reduction in off-notes and improved aroma balance when starting with a high-purity coniferyl alcohol. Technical partners experimenting with oxidative coupling appreciate that side-product formation stays minimal, thanks to a tighter distribution of starting material.
We’ve watched novel applications emerge, particularly in the pharmaceutical segment, where coniferyl alcohol derivatives serve as lead compounds. In polyphenol research, labs running multi-step syntheses from coniferyl alcohol often share that process losses dip when the input chemical comes precisely characterized. Not only does this trim costs—it also accelerates product launch timelines by cutting back on QC bottlenecks.
Meeting industry demand challenges more than raw production capacity. Weaves of global supply chain uncertainty, shifts in environmental legislation, and rising analytical standards keep us vigilant. Unlike materials with looser documentation or origin uncertainty, our coniferyl alcohol backs every shipment with traceability, from initial plant source or synthetic pathway through purification and packaging. This full line-of-sight answers questions during regulatory checks, helping clients avoid customs or registration hurdles.
Another challenge that returns year after year involves batch-to-batch consistency. Small impurities, or even slight shifts in physical texture, can cause issues in process development and regulatory submissions. To tackle this, in addition to NMR and GC-MS monitoring, we maintain a retained sample archive for every lot. In practice, this means that long-term projects—such as government-funded studies or clinical projects—never face setbacks due to source inconsistency. Our aim: to become an extension of the research workflow rather than just a supplier.
Green chemistry pressures drive both changes in production and client expectations. Sourcing choices reflect a balance between plant-derived precursors and synthetic alternatives, with each route tuned for atom economy and waste reduction. Process solvents undergo recycling, so we keep secondary waste streams to a minimum. Where feasible, we support chain-of-custody reporting, important for eco-certifications and sustainable manufacturing claims.
For customers facing increasingly intricate compliance regimes, product documentation becomes an asset. We respond to requests for regulatory support—not just by attaching a generic data sheet, but by producing full composition breakdowns, impurity profiles, and if needed, REACH or RoHS covering letters. This proactive support creates value downstream, since many customers later face audit requests or product stewardship reviews where details matter.
Customers working in advanced materials often ask for a tailored approach—sometimes for higher-purity, sometimes for specific particle sizes for optimized dissolution. Our development labs have responded by piloting small-batch customizations alongside the main production run. Scale-up testing, reactivities, and storage trials become part of our service, so customers get what’s required without months of hard negotiation or switching to new products.
Research collaborations have also led us to investigate crystal structure variants and polymorphs, since these impact reactivity for certain biopolymer and fermentation projects. Providing options—such as differing hydration states or micronized forms—means researchers carry out experiments with the right starting materials, instead of reworking protocols or losing weeks of development time.
Structurally, coniferyl alcohol is closely related to sinapyl alcohol and p-coumaryl alcohol. Many clients come to us for clarity on why one would serve better than another. In the lignin biosynthesis pathway, coniferyl alcohol forms guaiacyl units, making it the dominant monomer for softwoods. This leads to downstream differences in the polymers and degradation products obtained during chemical pulping or advanced oxidative breakdown. Choosing the right monolignol matters: you see distinct performance in enzymatic study outputs, resistance to fungal breakdown, and final polymer mechanical properties.
From a practical perspective, coniferyl alcohol’s melting point, solubility, and oxidation profile make it more manageable on the benchtop than bulkier or less stable relatives. For oxidation reactions, it tends to form well-defined quinone methide intermediates, easing kinetic studies and facilitating targeted derivatization. This advantage carries across into practical flavor, fragrance, and pigment synthesis, granting process control and cleaner separation in final steps.
Other phenylpropanoids—such as ferulic acid, eugenol, or cinnamyl alcohol—offer different reactivity patterns. Customers wanting rapid oxidation or free-radical polymerization learn that coniferyl alcohol’s methoxy substitution modulates these pathways. Trials in our application labs routinely reveal lower side-product rates during peroxidase-driven biosynthetic mimics, sharpening results in both yield and analyte identification.
Our teams have navigated every wrinkle—from solubility issues during large-volume synthesis to scale-up quirks that smaller labs often miss. We’ve learned that controlled temperature ramps and careful management of oxidative atmosphere protect coniferyl alcohol’s integrity. Routine attention keeps the product from forming resinous byproducts or losing activity before it reaches the customer.
Long-term experience shows that product performance in the field correlates tightly with production discipline. Research teams testing new enzymes report higher reproducibility when coniferyl alcohol starts in a cleaned and inert-packed bottle. Anecdotal but recurring, we’ve even had flavor chemists say they build product launch timelines presuming our coniferyl alcohol arrives to spec, since reformulations due to off-product mean expensive test panels and lost market timing.
Over the years, the conversation with customers has shifted from “What’s the price per kilogram?” to “How does your coniferyl alcohol perform in this challenging process?” We answer with documentation, technical data, and an openness to problem-solving. Clients facing new regulations come for detailed impurity profiles and get into discussions about crystal morphology. Others developing bio-based adhesives want supply reliability above all else, especially when governmental policies squeeze global logistics.
We listen when research teams struggle to clean up reactions, and adjust our synthesis route if it improves the downstream process—even if it means taking a step back in the short term for a stronger long-term relationship. Trust, built from consistently clean and reliable chemistry, forms the basis for repeat business. Developers launching new papers, patents, or products give us early notice of tight deadlines, secure in knowing that close coordination remains possible.
Pressure grows every year to push science along faster, with fewer errors and lower environmental impact. As regulations tighten and as research grows increasingly complex, coniferyl alcohol stands as a trusted backbone for chemists, engineers, and analysts who can’t afford surprise results. We remain dedicated to developing the product in response to field-tested needs, grounded in decades of experience and real-world feedback.
Through pilot plant upgrades, laboratory investments, and ongoing staff training, we keep pace with the demands of modern, data-driven research. Supply reliability, technical transparency, and a willingness to collaborate shape our everyday approach. From early-stage R&D labs to high-throughput pilot production, we focus on making coniferyl alcohol a problem-solver instead of just another chemical in the catalog.
Open communication and continuous improvement keep us connected to the needs of scientists and innovators worldwide. Ultimately, we see coniferyl alcohol as both a product and a dialogue—a partnership that invites new breakthroughs, supports rigorous research, and helps sustainable industries to flourish.