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HS Code |
364435 |
| Chemical Name | 4-N-Butoxybenzaldehyde |
| Cas Number | 5748-44-1 |
| Molecular Formula | C11H14O2 |
| Molar Mass | 178.23 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 281-283 °C |
| Density | 1.027 g/cm3 |
| Refractive Index | 1.516 |
| Flash Point | 132 °C |
| Solubility In Water | Insoluble |
| Smiles | CCCCOC1=CC=C(C=C1)C=O |
| Pubchem Cid | 26082 |
As an accredited 4-N-Butoxybenzaldehyde factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 100 grams of 4-n-Butoxybenzaldehyde, fitted with a secure screw cap and labeled with safety information. |
| Shipping | 4-N-Butoxybenzaldehyde is shipped in tightly sealed, chemically resistant containers to prevent leaks and contamination. It is transported according to hazardous materials regulations, typically by ground or air with appropriate labeling and documentation. The container must be stored upright, away from heat, ignition sources, and incompatible substances during transit. |
| Storage | **4-N-Butoxybenzaldehyde** should be stored in a tightly sealed container, away from light, heat, and moisture. Keep it in a cool, well-ventilated area dedicated to chemicals. Avoid incompatible substances such as strong oxidizers. Proper labeling and secondary containment are recommended to prevent leaks or spills. Store following local regulations and ensure easy access to safety data sheets (SDS). |
Applications of 4-N-Butoxybenzaldehyde in Industrial Manufacturing4-N-Butoxybenzaldehyde is widely used as an intermediate in several specialized chemical manufacturing sectors. As a direct manufacturer, we support a range of downstream industries with consistent quality, high-purity material, and technical application insights for complex industrial processes. 1. Pharmaceutical Intermediate for Active Pharmaceutical Ingredient (API) SynthesisThis raw material is a valuable aldehyde building block employed in the synthesis of various APIs, including specialty antihypertensive and antifungal agents. Process engineers add our product during crucial condensation and cyclization steps, enabling efficient formation of complex molecular backbones required for high-value pharmaceuticals. Material selection, handling, and addition protocols must address strict impurity controls to meet regulatory specifications for the eventual API. Batch production facilities often select this intermediate for its reliable purity profile, minimizing purification demand in subsequent transformation steps. Industry compliance standards
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2. Fine Fragrance Aldehyde IntermediateOur material serves as an aromatic aldehyde intermediate in the fragrance industry, especially for manufacturing floral and green-note compounds. Leading perfumery houses use this aldehyde in multi-stage organic syntheses to introduce subtle fruity and powdery notes in both intermediate fragrance bases and downstream consumer products. Production technicians integrate it via controlled reactions to avoid unwanted side-products affecting olfactory purity, meeting IFRA and RIFM documentation obligations for product safety. Industry compliance standards
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3. Agrochemical Synthesis IntermediateThis raw material acts as a selective intermediate in the production of several agrochemical actives, such as systemic herbicidal and fungicidal agents. Downstream agrochemical plants implement controlled addition during key condensation or heterocycle-forming reactions. Plant engineers pay special attention to purity criteria and trace impurity mapping, since the final crop protection agents must fulfill stringent environmental and residue regulations. The material allows direct scale-up from kilo labs to full commercial production lines, supporting supply continuity for crop science manufacturers. Industry compliance standards
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4. Polymer Additive ModifierThe compound serves within polymer and resin modification, especially in producing specialty coatings, alkyd resins, and advanced engineering polymers. Production teams introduce the aldehyde during the resinification or crosslinking stages, which imparts specific performance attributes such as UV stability, modified gloss, or improved adhesion. Downstream QCs validate presence and stability post-curing using infrared or NMR techniques, validating batch acceptance for further compounding or extrusion. Industry compliance standards
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5. Liquid Crystal Intermediate for Display MaterialsThe material functions as a crucial benzaldehyde intermediate in the synthesis of custom liquid crystal (LC) compounds. Specialty materials manufacturers rely on precise introductions during the organic synthesis of mesogenic cores. Quality control routines enforce strict optical purity and trace contaminant profiles, since downstream LC performance directly affects display uniformity and device performance. The material’s reproducibility ensures device manufacturers can sustain consistent optical clearing points and dielectric behavior in the final LC formulations. Industry compliance standards
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In a world of endless chemical options, we keep returning to the practical performance of 4-N-Butoxybenzaldehyde. Over many years of manufacturing this compound, we have learned that real-world process stability depends on much more than a pureness percentage on a lab printout. It channels the right combination of reactivity and reliability, built for chemists who look beyond surface specs to demanding, long-run syntheses.
Our 4-N-Butoxybenzaldehyde brings value across fine chemical and pharmaceutical labs not only as a precursor to more complex molecules, but also as a robust building block for specialty organic syntheses. We have refined our process over a decade to ensure every batch has consistent appearance, fragrance, and assay. The physical fingerprint—pale yellow liquid, clear and free of water traces—speaks as much to our attention to detail as any number on a certificate.
The role of manufacturing starts long before the first flask ever leaves the line. We source raw 4-n-butoxytoluene and work only with suppliers who meet in-house protocols, not just general industry standards. That’s because trace impurities, or minute changes in feedstock, can affect not only downstream processes but also outcomes in the lab for customers who need reliable reaction profiles.
During production, careful temperature control stands out as one of the critical steps. Small variations in exotherm management or solvent handling can lead to unwanted side reactions, introducing benzoic acid impurities that compromise reactivity. Our operators monitor GC profiles in real time and coordinate adjustments without delays—human experience complements the equipment. Years of hands-on feedback from end users have prompted us to tune our purification protocol, especially vacuum distillation sharpness and phase separation, to deliver the repeatability nations’ R&D centers require.
More labs approach us today with deeper questions about minor constituents, color stability, and sensory profile. We take these seriously, adjusting filtration thresholds and inventory cycling, so each drum matches the clear standard that our regulars expect.
Our 4-N-Butoxybenzaldehyde typically registers a purity greater than 99.5%, frequently outperforming benchmarks set ten years ago. Density measurements, refractive index, and residual water control are reported transparently. The aim is to limit water below 0.05%—high moisture can derail even routine Grignard reactions and results in unreliable yields.
Unlike catalog offerings that accept lower alpha byproducts, our product ship with a narrow impurity range—less than 0.2% by GC—helping researchers avoid costly column runs or repetitive preps. Sensory characteristics, such as gentle, slightly floral aroma, receive as much attention as technical data. Avoiding visual haze, which often signals clouding agents or water dissolution, signals the degree of real-world process management behind every container.
Users often ask whether alternatives, like 3-n-butoxybenzaldehyde or lower-alkylated variants, could work for the same end reactions. The answer comes down to several practical issues. Our 4-N-Butoxybenzaldehyde shows distinct performance in condensation reactions and arylation processes. The position of the butoxy moiety at the para position (versus meta or ortho) reduces steric hindrance and brings about better coupling yields in Suzuki and Wittig protocols.
During oxidation steps, the para orientation stabilizes the aromatic ring, leading to more predictable conversion. Where ortho- and meta-substituted versions often form side products under base or strong acid, 4-N-Butoxybenzaldehyde maintains a clean pathway, which reduces downstream purification steps. If a customer is scaling up from gram to multi-kilogram, reduced byproduct formation pays off in greater column throughput and less solvent waste.
Compared to aldehydes with shorter chain alkoxy groups, ours delivers higher solubility in non-polar solvents and is less prone to hydrolytic degradation. During Knoevenagel condensations or intermediate arylations, a well-placed butoxy chain can prove decisive, ensuring the desired intermediate doesn’t revert or hydrolyze under ambient humidity.
Development processes for dyes, fragrances, various intermediates, and even promising API candidates all benefit from the predictable reactivity and stability our product brings. In fragrance and flavor syntheses, 4-N-Butoxybenzaldehyde is a sought-after core intermediate—its structure lends itself to building longer-chain, high-boiling notes. Unlike simple benzaldehyde, which volatilizes easily and suffers unwanted oxidation, our product offers resistance to air and thermal breakdown. These characteristics find appreciation among chemists scaling processes beyond lab glassware—rising demand in perfumery and advanced organic electronics underscores its expanding market.
In agrochemicals, where product performance hinges on low impurity profiles and batch-to-batch consistency, customers report that our material’s low trace benzyl alcohol levels reduce false readings and off-target activities in screening. We take pride in supporting teams running parallel syntheses, as reliable intermediates mean less troubleshooting and fewer unexpected results.
Across advanced material applications, including conductive polymers and specialty resins, the para-butoxy moiety supports improved compatibility with various monomers, including electron-deficient and electron-rich systems. Cross-linking reactions depend on precise structural inputs; here, the specific electronic environment stemming from the butoxy placement controls reactivity and optical clarity.
Feedback is not a buzzword for us—it shapes every stage from order planning to final inspection. Over multiple years we have fielded requests to lower aldehyde polymer content, particularly from research centers focused on new pharmaceuticals. Polymerization leads to fouling during scale-up and damages column equipment, especially when users operate beyond the bench to pilot levels. We consulted with synthesis teams, reworked inhibitor protocols, and reduced these residuals to trace levels, resulting in cleaner, easier processes for our customers.
Researchers pointed out that trace chloride, often introduced during some industry-standard Friedel-Crafts processes, could jeopardize halide-sensitive reactions—such as those making certain aryl amines. In response, our team modified aqueous washing and drying sequences, now regularly delivering chloride readings below detection limits on routine QA runs.
Not every challenge comes from end users. Within our facility, operators discover practical choke points that only emerge during repeated handling—such as minor leaching from gasket materials used in older stainless transfer lines. Durable container choices followed, as we updated our logistics to retain product integrity during both hot and cold shipping seasons.
Volatility in raw material pricing pushes many producers to cut corners. Over the years, large-scale consumers running into supply shocks with other aldehydes arrived at our doorstep pointing to strange color shifts, unusual odor, and unexplained reaction stalls sourced elsewhere. We made a conscious choice not to accept “good enough” when shipping to clients who turn intermediate into high-value, regulated products like APIs or high-purity chemicals. During market crunches, we focus on shortening lead times while never taking shortcuts in process checks or QC review.
Customs regulations and safety requirements tighten every year. Our batch documentation travels in lockstep with the drum, every lot traceable not simply by batch number, but with a trail of process data reflective of hands-on chemical management. Full ingredient traceability and transparent reporting fend off compliance issues for pharma and FMCG clients, who frequently face longer audits.
We hear from custom compounders who have wrestled with “mystery” foreign-sourced shipments where labeling diverges from the actual molecular content. We ship only product that matches exact IUPAC descriptors and International Chemical Identifier keys, never substituting structurally similar substances or downblending with lower-cost fractions.
Industry pressure to move toward greener chemistry guides every incremental process revision inside our plant. Classic aldehyde syntheses often suffer from poor atom economy and excessive solvent use. In our facility, steps have been implemented to recover and repurpose process solvents, lowering both input costs and emissions. More recovery, less incineration—the land and the bottom line both benefit.
We have invested in cycling heat recovery units, reusing process heat between different manufacturing stages—a change that has trimmed natural gas use. Our in-plant team tracks actual on-stream emissions using third-party sensors, catching leaks or vapor inefficiencies before they translate into waste or off-spec shipments. The knowledge that these efficiencies translate to smaller carbon footprints energizes team members as much as cost savings.
Sourcing greener starting materials takes time. Collaborations with aromatic compound suppliers who deliver benzene and toluene derivatives through more sustainable routes help us gradually move toward a cradle-to-gate approach, reducing the fossil fuel imprint of every drum we dispatch.
Tough problems don’t appear on specification sheets. Sometimes, a slight increase in product viscosity in cold weather can challenge typical transfer pumps for multinational customers. Our plant maintenance team began offering advice about heated coil use and container inversion routines—practical support that site chemists recognize as a sign of real stakeholder engagement.
Consistency doesn’t come for free. It results from refusal to cut steps on cleaning, documentation, or shipment validation, even when large orders put the schedule under stress. Relationships built on long-term batch experience, not just single orders, drive our willingness to review client feedback and internally debrief every unusual result.
Years in the manufacturing field confirm a simple point: products like 4-N-Butoxybenzaldehyde don’t fill a niche by accident. It outperforms simple isomers and matches the repeatability rigorous chemistry demands—not just in the world’s largest labs, but in every R&D effort that grows into scaled production.
We do not consider ourselves unique for producing quality intermediates—we know there are other players, and some try to market through fancy packaging or catchwords. What sets us apart is continual investment in both plant and people, attention to every feedback loop, and openness about what goes in and out of the process.
Every kilo tells a story of small, sometimes invisible, manufacturing choices. Quality isn’t just a line on a safety data sheet, but a living result of crafting a supply chain that supports pioneering discovery, safe production, and minimized waste. The best results show up not as accolades, but as stable yields, faster scale-ups, and fewer headaches for every scientist or production manager we serve.
For anyone seeking a simple substitute—or a shortcut to making specialty aldehydes—we recommend rigorous comparison not just on up-front cost, but on every tangible aspect that real-world usage reveals. We see time and again that batch-to-batch performance, disposition against hydrolysis, and sensitivity to air prove more decisive than theoretical calculations or blanket purity guarantees.
Trust has never been a theoretical concept for us. It grows with every phone call from a chemist facing a tough process bottleneck, every drum that leaves our warehouse for a distant continent, and each new project where 4-N-Butoxybenzaldehyde quietly supports compounds the world doesn’t even know about yet.