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2-Methyl-3-(2-Furyl)Propenal

    • Product Name 2-Methyl-3-(2-Furyl)Propenal
    • Alias 2-Methyl-3-(2-furyl)acrolein
    • Einecs 234-409-2
    • 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
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    VTB
    Specifications

    HS Code

    726880

    Chemical Name 2-Methyl-3-(2-Furyl)propenal
    Molecular Formula C8H8O2
    Molecular Weight 136.15 g/mol
    Cas Number 10031-93-5
    Appearance Yellowish to brown liquid
    Boiling Point 251 °C
    Density 1.114 g/cm3
    Refractive Index 1.565
    Solubility In Water Slightly soluble
    Odor Sweet, spicy aroma
    Synonyms 2-Methyl-3-(2-furyl)acrolein
    Main Use Flavoring agent, fragrance intermediate

    As an accredited 2-Methyl-3-(2-Furyl)Propenal factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Amber glass bottle with secure cap, labeled “2-Methyl-3-(2-Furyl)Propenal, 25g,” featuring chemical formula, hazard symbols, and lot number.
    Shipping 2-Methyl-3-(2-Furyl)propenal is shipped in tightly sealed containers, protected from light and moisture. It must be handled as a flammable, potentially hazardous chemical. Transport complies with local and international regulations, including proper labeling, documentation, and use of secondary containment to prevent leaks during transit. Temperature control may be required.
    Storage **2-Methyl-3-(2-furyl)propenal** should be stored in a tightly sealed container, away from light and moisture, in a cool, well-ventilated area. Keep it separated from strong oxidizers and acids. Store under inert atmosphere if possible to prevent degradation, and avoid prolonged exposure to air. Label containers clearly and follow all local regulations regarding storage of flammable and potentially harmful chemicals.
    Application of 2-Methyl-3-(2-Furyl)Propenal

    Applications of 2-Methyl-3-(2-Furyl)Propenal in Industrial Manufacturing

    2-Methyl-3-(2-Furyl)Propenal serves as a specialized intermediate in several chemical sectors. Its functional groups and reactivity support downstream synthesis for advanced materials and fine chemical production. Following, we detail real industrial applications, their process roles, regulatory frameworks, process specifics, and end product outcomes.

    1. Pharmaceutical Intermediate for Heterocyclic Compound Synthesis

    Pharmaceutical manufacturers use 2-Methyl-3-(2-Furyl)Propenal as a key building block for heterocyclic ring structures in APIs, leveraging its furan moiety and aldehyde function for condensation and cyclization reactions. It enables scalable manufacturing of select antifungal actives and CNS agents via controlled batch or continuous flow synthesis, where strict impurity profiles and isomeric purity are crucial. Operations require validated cleaning procedures and regular process analytical technology (PAT) monitoring to ensure compliance.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • USP/NF Monograph Reference Standards (where applicable for final APIs)
    • European Pharmacopoeia (Ph. Eur.) requirements for intermediates
    • FDA 21 CFR Part 211 Current Good Manufacturing Practice in Manufacturing, Processing, Packing, or Holding of Drugs

    Typical usage ratio

    • 0.5–2.5 molar equivalents, adjusted based on downstream product stoichiometry
    • Higher excess may be required if kinase inhibitor synthesis demands complete conversion

    Downstream process integration

    • Charged as a primary reactant in condensation and Michael addition stages
    • Integrated during the intermediate API coupling or side-chain extension step
    • Typically reacted under nitrogen with controlled pH and temperature for purity retention

    Final product types

    • Triazole antifungal APIs (e.g., intermediates for fluconazole analogs)
    • Nootropic pyrrole derivatives for CNS applications
    • 2-furyl-based heterocycles in cardiovascular drug synthesis
    • Custom pharmaceutical intermediates for CDMO programs

    2. Synthesis of Aroma Compounds for Food & Flavors

    The natural furan structure with a conjugated unsaturated aldehyde makes this material a precursor for manufacturing artificial flavoring agents, offering nutty, caramel, and roasted profiles. Industrial flavor houses deploy it in regulated synthesis for flavor blends, mandating precise blending and continuous monitoring to avoid off-odors. All operations for flavor preparation must meet food safety and purity audits enforced by regulatory authorities in target markets.

    Industry compliance standards

    • Food Chemicals Codex (FCC), Chapter on Flavoring Substances
    • US Food and Drug Administration (FDA) CFR 21 §172.515 (Synthetic flavoring substances)
    • EU Regulation (EC) No 1334/2008 on flavorings and certain food ingredients
    • ISO 22000 Food Safety Management System requirements in production facilities

    Typical usage ratio

    • 0.01–0.5% w/w in flavor concentrate blends
    • Adjusted based on desired intensity and target food matrix volatility

    Downstream process integration

    • Added during flavor compound synthesis before distillation/purification
    • Can be included in Maillard reaction setups to develop brown/baked notes
    • Frequently subject to GC purity testing and sensory panel screening post-production

    Final product types

    • Artificial nut, caramel, coffee, and cocoa flavor bases
    • Processed food flavor systems for confectionery and bakery
    • Ready-to-use liquid and spray-dried food flavor emulsions
    • Blended spice and seasoning flavor enhancers for packaged foods

    3. Fine Chemical Precursor for Agrochemical Active Ingredients

    Agrochemical formulators use this molecule in the elaboration of certain furan or pyrrole-based herbicide intermediates, especially where targeted weed selectivity depends on precise electronic structure. Process lines require high consistency in material quality and trace contaminant removal, as regulatory agencies strictly control potential ag residues and soil interactions. Implementation involves in-process QC for isomeric distribution and catalytic impurity removal.

    Industry compliance standards

    • ISO 9001 certified quality management for manufacturing agrochemical intermediates
    • OECD principles of Good Laboratory Practice (GLP) for pesticide development
    • REACH Registration, Evaluation, Authorisation and Restriction of Chemicals (EU) for precursor import and use
    • US EPA regulations for pesticide formulation under FIFRA standards

    Typical usage ratio

    • 5–20% w/w, depending on target molecule scaffold and conversion yield requirements
    • Ratio varies with downstream chlorination or amination step excess

    Downstream process integration

    • Reacted in furan ring functionalization or cyclization reactions toward specific actives
    • Often processed via continuous flow reactors to limit byproduct build-up
    • Incorporated as a late-stage intermediate to improve process geometry and batch throughput

    Final product types

    • Furan- and pyrrole-based weed control actives for crop protection
    • Furyl aldehyde precursors in selective post-emergent herbicides
    • Intermediate blocks for fungistatic crop treatment additives
    • Seed coating chemical formulations with furan-modified pesticidal properties

    4. Polymer Modifier in High-Performance Resins

    Specialty plastics and resin producers utilize this compound in crosslinking and copolymerization systems, exploiting the aldehyde and furan moieties to enhance thermal and chemical resistance. Applications focus on adjusting glass transition temperature and crosslink density, typically in electronics encapsulants and automotive coating resins. Facilities must implement stringent resin synthesis controls for uniform additive incorporation and to comply with industrial safety regulations.

    Industry compliance standards

    • ISO 14001 Environmental Management Standards for chemical processing
    • RoHS Directive 2011/65/EU for electrical/electronic applications
    • UL 94 Flammability Testing for plastics where applicable
    • ASTM D638 for mechanical testing of cured resin composites

    Typical usage ratio

    • 0.1–3% w/w as a reactive additive, adjusted based on matrix compatibility and end-use performance targets

    Downstream process integration

    • Introduced during prepolymer melt or solution blending phase
    • Crosslinked through thermal or peroxide curing with furan-derived linkers
    • Dosage controlled by in-line monitoring of viscosity and exothermic profile

    Final product types

    • High-gloss automotive coatings using furan-modified polyurethanes
    • Encapsulant resins for printed circuit board (PCB) protection
    • Thermostable varnishes for electrical insulation
    • Fiber-reinforced composites in aerospace or specialty construction panels

    5. Specialty Aldehyde for Organic Electronic Materials

    Manufacturers of advanced organic semiconductors and photovoltaic precursors employ this compound for constructing conjugated furan-aldehyde backbone molecules in high charge mobility applications. Synthetic pathways involve controlled condensation and aromatic substitution reactions, with process QC ensuring all electronic properties remain within device-grade specifications. Facility controls include inert atmosphere synthesis and advanced analytical verification through HPLC and NMR.

    Industry compliance standards

    • IEC 62321 for hazardous substance assessment in electronics
    • ISO 9001 for electronic materials process quality management
    • ASTM D789 standard for polymeric materials used in electronics
    • RoHS compliance for all materials targeting consumer device applications

    Typical usage ratio

    • 0.2–2 molar equivalents depending on the specific electronic polymerization pathway
    • Scaling based on end application’s charge transfer specification

    Downstream process integration

    • Charged into batch reactors during oligomer chain formation
    • Employed in Suzuki or Stille coupling for conjugated material build-up
    • Requires controlled thermal profile and post-reaction monomer recovery

    Final product types

    • Organic thin-film transistor base polymers
    • Bulk heterojunction materials for solar cell layers
    • Printable conductive ink additive for flexible electronics
    • Photonic crystals in sensor and display devices
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    Certification & Compliance
    More Introduction

    2-Methyl-3-(2-Furyl)Propenal: Practical Insights from the Manufacturer’s Bench

    Introduction

    At our production facility, every step that goes into synthesizing 2-Methyl-3-(2-Furyl)Propenal comes from a deep understanding of its role in the chemical sector. Over the last decade, we’ve logged countless production batches, navigated changing raw material supplies, and watched customers in flavors, fragrances, and pharmaceutical intermediates seek more from the same molecule.

    The Chemistry Behind 2-Methyl-3-(2-Furyl)Propenal

    Chemists know this molecule by several names. Some call it Furfuryl Cinnamaldehyde; others stick with its formal IUPAC name. Structurally, it features a furan ring fused with a side chain derived from propenal, accented by a methyl group. These chemical details shape its profile. Our laboratory team approached production with focus on two things: reducing side reactions at scale and keeping yields high while meeting tight impurity tolerances.

    Through optimized synthetic pathways, we’ve established a process that maintains low residual solvents and high purity (>98%, GC). That purity makes all the difference, particularly for customers in fields where trace contaminants can disrupt downstream synthesis or lead to flavor off-notes.

    Product Model and Typical Specifications

    Each batch undergoes analytical review by GC, HPLC, and NMR. We don’t just aim for the usual certificate of analysis numbers; we check sample lots against reference standards developed and refined onsite. Chemical identity gets confirmed using authentic spectra on our reference library.

    Some properties matter more in practice than on a data sheet. Experienced end users value our clear, low-viscosity liquid form. That reduces waste during transfer and dosing. The pale yellow to amber coloring signals fresh material. We track this metric because extended storage, especially in sunlight or at improper temperatures, leads to discoloration and unreliable quality. Strict temperature controls in our warehouse – and the insistence on inert atmosphere exports – grew out of learning this the hard way.

    Product is shipped in sealed containers rated for volatile organics. From our loading dock, every outgoing drum receives a double-check on seal integrity and a barcode scan. Traceability proves essential when a process issue must be tracked back to a specific container or batch.

    How Application Drives Formulation Choices

    Where this compound ends up shapes the details of our process. For fine chemical producers, 2-Methyl-3-(2-Furyl)Propenal often acts as a bridge in multi-step reactions. In flavor houses it’s used for its sweet, nutty-woody aroma evocative of caramelized sugar and baked goods. Each industry expects something slightly different.

    Pharmaceutical companies reach out for a version free from suspected genotoxic impurities, following stricter guidelines. On the flavor side, the talk revolves around headspace aroma and the absence of off-smells, which only fresh product delivers. We keep a dialogue going with technical buyers on both sides, always updating our process in light of fresh analytical data or revised regulatory lists.

    In our experience, a bakery flavors specialist can detect the faintest difference between grades intended for aroma use and standard technical grades. Their feedback loops directly into upgrades to our purification and sampling. We can always pinpoint batches that came through post-reaction with minor aromatic deviations, and those never reach demanding customers.

    Balancing Batch Size and Consistency

    Scaling matters. Small-volume orders for R&D labs move quickly; production-scale lots require careful planning. We never split a single batch across multiple orders for critical use cases, as that would leave customers with variability hard to explain when validation time rolls around. Our mid-scale reactors were designed, and frequently upgraded, to allow both pilot and full-scale synthesis with equal process control. Temperature management at all stages and inert gas blanketing have made a real difference, reducing polymerization and unwanted residue formation.

    Although most clients prefer standard drum sizes, we have, over the years, filled thousands of smaller bottles for laboratories and kilo-lot customers. Our family of filling lines can switch over rapidly, and we regularly review cleaning procedures to avoid cross-contamination with unrelated aromatic aldehydes, such as cinnamaldehyde or crotonaldehyde.

    Handling Stability and Shelf Life Challenges

    2-Methyl-3-(2-Furyl)Propenal looks stable on paper. Real-world storage presents different challenges. Both heat and UV exposure speed up oxidation and polymerization, resulting in color changes and, sometimes, a sticky residue at the base of the container. Some years back, we fielded a string of returns from customers storing product on sunlit shelves. Since then, all product leaves our warehouse with a caution for cool, dark storage and a recommended shelf life of twenty-four months.

    Chemists at our plant noticed that samples left uncapped, even briefly, discolor and lose potency. Modern packaging and inert atmospheres aren’t marketing fluff; they grew out of lessons learned at real customer sites. Shelf life means little if the packaging cuts corners.

    Differences from Similar Aromatic Aldehydes

    Every manufacturer sees a steady stream of quotations for related molecules. Customers sometimes compare this compound with furfural, cinnamaldehyde, or 2-methyl-3-furaldehyde, assuming similar properties. They quickly find differences. Furfural, for example, packs a sharper, more pungent aroma and typically comes from agricultural waste streams rather than precise organic synthesis. Our compound’s nuanced profile and purity attract users crafting fine scents or detailed reaction intermediates.

    Relative to cinnamaldehyde, which features in cinnamon oil and food flavoring, 2-Methyl-3-(2-Furyl)Propenal brings in the furan ring for pronounced caramel notes. The presence of the methyl group sets it apart from simpler structures, both in reactivity and in olfactory impression. In synthetic applications, that methyl group leads to cleaner downstream coupling and less side reactivity—a point we’ve backed up with internal side-by-side reactivity studies conducted over years of supporting custom synthesis clients.

    Quality Control: More than Just Testing

    QC sits at the heart of our daily routine. We long ago stopped viewing it as a mere hurdle; for any serious supplier, it’s the difference between building trust and fighting complaints. Our lab techs run fingerprints by GC/MS as well as simpler wet chemical tests, depending on lot size and urgency. Most of the flavor houses we supply send incoming material straight to their own labs—an extra check we value as much as they do. If questions come up, full transparency wins the day. We keep detailed logs of every analytic step. If a number looks out of line, the lot is held, retested, or discarded rather than risk a problematic shipment. We’ve found this approach pays off far more often than it costs us in product write-offs.

    Routine doesn’t mean old habits. Each year, regulatory frameworks like REACH, TSCA, and specific food safety standards trigger new analytic projects here. We participate in industry groups and share feedback with technical staff at partner firms, often trading reference standards to sharpen our own calibration procedures. Over time, this lifts our understanding of the product and the industry’s collective bar for purity and transparency.

    Customer Requests and Customization

    Production is rarely one-size-fits-all. Large users in the aroma industry occasionally ask for product filtered to even tighter purity levels or with expanded impurity testing to meet proprietary guidelines. We aim to build flexibility into our system. Our customers want to know that each drum or bottle delivered matches previous lots not just in the core assay, but in color, aroma, handling, and reactivity. That consistency underpins long business relationships.

    Facing unusual requests—such as a pre-diluted formulation for easier dosing or a specific packaging to fit limited storage—gives us incentive to innovate on the production floor. Our technical team meets weekly to review special orders, and adjustments to parameters such as reaction temperature, feed rates, or post-production filtration emerge out of this back-and-forth. Many times, improvements trickle down into the factory-standard process, raising the reliability of every lot, not just the custom runs.

    Scaling Environmental Responsibility

    Efficient production must walk hand-in-hand with responsible waste handling. We source furyl precursors from verified upstream suppliers who comply with environmental regulations, and we invest in solvent recovery systems. Over the years, those investments have brought down both loss rates and compliance risk. By making waste solvent recovery standard, we reduce the risk of hazardous discharges that can threaten local water tables. Audits by both internal and external teams keep everyone honest and tuned to emerging issues—not just regulatory but reputational.

    Scrutiny of chemical synthesis continues to rise. We have adjusted our cleaning and venting protocols, paying close attention to lower fugitive volatile organic emissions. Sometimes, responding to these challenges means redesigning parts of our facility, swapping out standard valves for high-integrity models or optimizing scrubber systems. These investments aren’t window dressing; they came directly from experience handling issues from earlier years.

    Core Uses: Supporting Downstream Innovation

    Our product finds its way into many kinds of applications. In flavors, its rich, caramel-tinged backbone brings warmth and depth to bakery profiles, confectioneries, syrups, and ready-to-use aroma formulations. Many users combine it with vanillin, maltol, or furaneol to construct a layered sensory experience. Across Europe and Asia, beverage formulators rely on its profile for syrups and cola bases.

    Pharmaceutical intermediates use the molecule in reaction steps building up complex ring systems or as a masked aldehyde functionality. For researchers, batch-to-batch reproducibility means they can focus on novel synthesis rather than controlling for raw material changes.

    We’ve also worked with customers using the compound in developing next-generation high-performance materials, where side-chain control and low residual catalyst content matter more than taste or aroma. The feedback loop between our team and theirs improved reactor conditions and pushed us to invest in auxiliary purification columns, especially for grams-to-kilograms pilot projects that spin off into larger contracts.

    What We’ve Learned Along the Way

    Manufacturing specialty chemicals is never a static business. Over time, we’ve collected lessons—sometimes the hard way. The difference between thinking you understand a customer's needs based on market sheets and really grasping their daily challenges shows up most when problems surface. Every product variant on our line reflects years of tuning based on those lessons. Even a familiar compound like 2-Methyl-3-(2-Furyl)Propenal will trip up those who treat it as a simple "commodity.” Early mistakes with shelf life, packaging, and documentation now inform the training for every new lab tech, operator, and logistician joining our team.

    Staying responsive built the long-term partnerships that drive both our reputation and our revenue. For us, every purchase order links to a network of real users: food chemists, formulators, research scientists, QA managers, sourcing directors. We encourage regular technical dialogue, not just for troubleshooting but for forward-looking planning. Some of our best process refinements started with customer questions.

    Troubleshooting and Continuous Improvement

    Inevitably, even the best-run processes encounter issues. Over the years, contamination scares, purity downgrades, or analytical instrument hiccups taught us always to look for root causes instead of scapegoats. We employ statistical process control, but personal accountability trumps paperwork: a problem reported, analyzed, and solved earns respect from both customers and regulators.

    Whenever recurrent problems with a production step arise, we set up task forces drawn from R&D, production, QA, and maintenance. Shared expertise usually uncovers creative solutions. In recent years, these efforts led to a switch from a multistage washing system to a continuous-flow setup. Scrap rates fell, and product throughput increased, without measurable changes in product quality.

    Our focus stretches to downstream challenges too. Flavor manufacturers occasionally report customer complaints about shelf life or aroma shifts. Our technical team works directly with their QA staff, sometimes reviewing archived batch samples together to pinpoint sources of deviation—be it oxidation, leaching from packaging, or something else. This full-chain approach helps keep our reputation secure and our customers' products competitive.

    Looking Forward

    Where the market leads, production must follow. The trend toward cleaner, purer, more traceable chemicals isn’t fading. Demand from the natural and “clean label” segments requires even more transparency, both in sourcing raw materials and in explaining every step of synthesis. At the same time, regulatory scrutiny continues to increase across borders. We see customers asking for extra documentation, ever-finer impurity thresholds, and, more recently, a fuller breakdown of process-related trace elements.

    On the factory floor, this means more investments: new detectors, more frequent calibration, tighter release criteria. These changes are not about marketing—they are answers to real, documented needs passed down the supply chain by the people using our 2-Methyl-3-(2-Furyl)Propenal to make things that reach consumers. We have grown comfortable with the rhythm of continual improvement and quick iteration.

    In our view, a specialty chemical only earns its place when both factory and field users can rely on its profile and performance. We continue to tailor our production, quality control, and support precisely toward that end.