|
HS Code |
236679 |
| Productname | 4-N-Pentyloxybenzaldehyde |
| Casnumber | 63372-45-6 |
| Molecularformula | C12H16O2 |
| Molecularweight | 192.25 |
| Appearance | Colorless to pale yellow liquid |
| Boilingpoint | 305.1°C at 760 mmHg |
| Density | 1.02 g/cm³ |
| Solubility | Insoluble in water; soluble in organic solvents |
| Flashpoint | 127.8°C |
| Refractiveindex | 1.533 |
| Purity | Typically ≥98% |
| Synonyms | 4-(Pentyloxy)benzaldehyde, p-Pentyloxybenzaldehyde |
| Structure | C5H11OC6H4CHO |
| Storagetemperature | Store at room temperature, tightly closed |
As an accredited 4-N-Pentyloxybenzaldehyde factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 25 grams of 4-N-Pentyloxybenzaldehyde, tightly sealed with a screw cap and tamper-evident label. |
| Shipping | 4-N-Pentyloxybenzaldehyde is shipped in tightly sealed chemical-grade containers to prevent leakage. It is transported under standard ambient conditions, away from heat and direct sunlight. Proper labeling in accordance with regulatory guidelines ensures safe handling. The package includes safety documentation and is typically shipped as a non-hazardous or low-hazard substance. |
| Storage | 4-N-Pentyloxybenzaldehyde should be stored in a tightly closed container, kept in a cool, dry, and well-ventilated area away from sources of ignition and incompatible materials such as strong oxidizers. Protect from direct sunlight and moisture. Ensure proper labeling, and store at room temperature or as recommended by the manufacturer. Use appropriate safety measures to prevent accidental exposure. |
Applications of 4-N-Pentyloxybenzaldehyde in Industrial ManufacturingAs a direct manufacturer of 4-N-Pentyloxybenzaldehyde, we supply this specialty aromatic aldehyde to several precision chemical sectors where molecular structure and process reliability are critical. Below, we detail the key downstream manufacturing scenarios that leverage this intermediate, outlining the specific compliance, dosage ranges, process stage, and resulting end products in each sector. 1. Pharmaceutical Intermediate Synthesis (API Manufacturing)Leading pharmaceutical facilities utilize 4-N-Pentyloxybenzaldehyde as a customizable building block in the multi-stage synthesis of selective drug intermediates. Manufacturers value its stable aromatic backbone during high-purity transformations such as reductive amination, Grignard addition, and further functional group modifications, particularly for the creation of CNS-active and antihypertensive agents. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Liquid Crystal Material Formulation (Display and Device Manufacturing)Downstream manufacturers in the electronics sector formulate specialty liquid crystal mixtures requiring targeted polarizability and molecular alignment properties. 4-N-Pentyloxybenzaldehyde provides a terminal substituent for tailor-making mesogenic core structures, supporting advanced nematic and smectic mixtures for high-performance LCD and OLED display panels. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Fragrance and Aroma Compound Manufacture (Specialty Chemicals)Fine chemical producers employ 4-N-Pentyloxybenzaldehyde as a unique aromatic note for synthetic fragrance creation, specifically as a precursor in aldehyde-rich compositions for luxury perfumes and technical odorants. Its reactivity allows for subsequent formation of Schiff bases and acetal derivatives, contributing lasting woody-floral top notes in batch formulations. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Organic Synthesis of Functional Dyes (Technical Textile Manufacturing)Advanced materials manufacturers produce electron-rich dye molecules by introducing 4-N-Pentyloxybenzaldehyde as a key starting aldehyde in the synthesis of azomethine and Schiff base chromophores. The pentyloxy side chain enhances dye solubility and affinity on technical textiles used in functional coating applications including anti-static and conductive fabrics. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Advanced Polymer Additive Synthesis (High-Performance Plastics)Producers of high-performance polymers use 4-N-Pentyloxybenzaldehyde as a customizable monomeric unit during the fabrication of specialty resin additives. Its aromatic-aldehyde reactivity supports the design of resin modifiers for improving flexibility, UV-resistance, and process stability in engineering plastics, with compatibility checks guided by downstream extrusion and molding conditions. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive 4-N-Pentyloxybenzaldehyde 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!
Working inside a chemical plant, long before finished goods ever see an invoice, everything starts with people watching over reactors, weighing small buckets of raw materials, monitoring color changes and batch temperatures. With 4-N-Pentyloxybenzaldehyde, every step gets close attention. We produce it for real-world labs and pilot lines where performance and purity matter more than brand brochures. The compound, known structurally as pentyloxy-substituted benzaldehyde, lands somewhere between pure research and industry synthesis—used in specialized intermediates, but also as a stepping stone in the creation of pharmaceuticals, agrochemicals, and advanced fragrance molecules.
Demand for this aldehyde isn’t about meeting stock lists—it’s about repeatable, predictable results. Our staff adjusts each batch depending on reaction behavior. In some years, getting starting materials free of certain trace impurities makes more difference than clever new reactor designs. We focus on reaction conditions: solvent dryness, agitation rates, the way aldehyde sticks to filters or washes out. The care poured into the final filtration rivals the concern given to more glamorous chemicals like specialty resins or catalysts. It takes skill to avoid “burning” the product or producing sticky byproducts, especially at scale.
Nobody buys 4-N-Pentyloxybenzaldehyde just for its name. Researchers and engineers order by model number, sure, but they ask about the smell, the solubility, and how it tinkers with downstream reactions. We learned early on that even one percent off in purity can poison a process or force extra recrystallizations. Small differences in isomer distribution lead to major variances in final product performance. We won’t ship a drum unless it matches our own internal GC specs. In our lab, we test every batch against spectral libraries and check melting point for signs of unwanted byproducts.
Laboratories order aldehydes like ours for different reasons. One group cares deeply about color—traces of yellow or pink mean trouble for photoinitiator work. In pharmaceutical contexts, even microgram impurities might snowball into downstream process interruptions. Our product—the pentyloxy function at position 4 of the ring—offers predictable reactivity in condensation reactions, often outperforming similar para-alkoxybenzaldehydes with shorter chains like ethoxy or propoxy. Where some competitors see a “close enough” attitude, we aim for more. Documentation of every reaction, shipment, and sample allows us to defend each batch’s history, not just its spec sheet.
Some clients use our 4-N-Pentyloxybenzaldehyde as a core building block for high-value pharmaceutical intermediates. In their hands, the extended alkoxy chain adds both steric and electronic effects, improving selectivity in their next transformations. Others blend it into custom fragrance syntheses, banking on the stability and faint aromaticity that sets it apart from shorter-chain derivatives. One partner told us our product cut their side-product formation by half, after years of erratic yields from inconsistent suppliers. Process engineers have flagged the material as the gatekeeper for high conversion yields in certain Wittig and Knoevenagel reactions.
4-N-Pentyloxybenzaldehyde stands out because the length of the alkoxy group tunes both physical and chemical properties. Short-chain analogs such as 4-ethoxybenzaldehyde dissolve faster in polar solutions but sometimes create issues in organic layers. Our product offers improved solubility in nonpolar media—a feature for those blending into waxes and resins. It also tends to crystallize better, giving smoother, more predictable filterability in process workups. From a reactivity viewpoint, the pentyloxy substituent subtly shifts electron density across the ring, which can affect product selectivity and yield in multi-step syntheses.
Through hundreds of batches, we’ve realized that process chemists value direct support when new challenges surface. We run our own real-world validation—titration, moisture checks, residual acidity—and ‘batch talk’ forms the backbone of quality. Matching a competitor’s price while raising the standard has attracted customers, but it’s the on-the-ground adjustments and simple honesty that keep them coming back.
Inside our production facility, raw material logs mix with handwritten notes about minor issues—slight browning in an early distillation run, a sticky phase separation that needed troubleshooting. Clients don't often see these small fixes, but they shape the product arriving at their plant. For cosmetics and perfumery, you can’t tolerate even tiny levels of off-odors or tint. Certain fine chemical makers request more than 99.5% purity, while industrial resin formulators care about bulk pack stability and consistent melting characteristics, rather than pushing for analytical-grade performance. We adjust storage and packaging in line with each batch’s actual output, not a blanket standard.
Customers often ask whether the pentyloxy chain creates logistical hurdles or special safety concerns. In truth, with care in handling and ventilated storage, the material remains stable and straightforward to blend, thanks to its higher boiling point and manageable volatility. In some fine synthesis steps, its hydrogen-bonding profile makes downstream separation less of a pain. For makers in the field, small headaches get magnified over large batches: a material that resists discoloration in storage and keeps residues low after distillation can save substantial time and cost.
In all honesty, supply chain certainty ranks just as high as laboratory specs. Over the years, sudden interruptions in key starting raw materials forced us to design backup approaches. Tight specifications on intermediates like pentyloxybenzene—or regional disruptions—can bottleneck operations unless supplier relationships run deep. We build multi-source reliability by forging direct partnerships upstream, even helping a couple of suppliers troubleshoot their own plants. Some problems, such as moisture intrusion or packaging defects, have required more work at our site, but we bear the cost so customers can rely on us for clean, well-documented deliveries.
We learn about downstream trouble not at fancy trade shows, but through after-hours phone calls: a batch failed someone’s in-house test, or the color shifted a subtle shade overnight. Sharing data and failures builds trust. Feedback from polymer researchers or reaction engineers has led us to refine everything from in-process chillers to our small-scale drying protocols. Decades working near reactors show that small gains in process cleanup and tracking can boost reproducibility far more than new equipment alone can.
Responsible production is a moving target, but it starts on the plant floor. With 4-N-Pentyloxybenzaldehyde, minimizing side streams during etherification reduces both solvent consumption and off-spec waste. We have learned to recover and recycle process solvents whenever feasible, which shapes both cost structure and environmental footprint. Our waste management planners run real data on filtration cakes, washings, and atmospheric losses—a reaction that runs 2% more efficiently earns real-world savings and less environmental impact, not just nice words in a CSR report.
Some of these lessons come from correcting earlier mistakes: a rushed cleanout led to cross-contamination, teaching us to increase buffer times between product runs. End-of-pipe solutions—extra absorption beds or longer vent condensing lines—aren’t nearly as effective or economical as prevention built into reaction design and purification. Sustainability doesn’t end at our property line, either. By working closely with select packaging and logistics partners, we cut down on transit damage and product loss. These details add up for both the environment and our bottom line.
A promise to help doesn’t stop with the shipment. Formulators often ask for technical evaluations: how does our aldehyde behave under unusual pH, in new blend partners, or at elevated temperature? Instead of referencing patent filings or literature abstracts, we go back and run the experiments in-house, sharing spectra and product stability data as the basis for any claims. More than once, a customer sent us a half-spent sample for troubleshooting—sharing back our assessment of contaminant profiles and handling tips for their future runs. That real dialogue makes our product more than an interchangeable commodity.
Specific technical discussions matter. Some researchers want guidance around catalyst compatibility or downstream purification methods—our process leaders cut through guesswork with direct advice. For example, the slightly higher lipophilicity of the pentyloxy group enables some customers to extract more target product in biphasic systems, shaving hours on downstream processing. In continous-flow scale-ups, our process team offers insights drawn from actual plant challenges, not just textbook models. What matters is not selling a claim, but directly helping users push their processes to higher throughput or reliability.
With regulatory and market shifts, customers want both technical assurance and a lower environmental burden. Our feedback loop with formulation labs helps us refine every step, from raw material vetting to post-production analytical review. As more users move toward continuous synthesis, we adapt our batches to tighter impurity thresholds, often running early pilot campaigns in tandem with development chemists. Documentation no longer sits in a drawer—auditors and customers alike ask for full transparency, batch genealogy, and evidence of traceability for every shipment.
We don’t pretend every run delivers perfection. Key differences between years—batch size, temperature profiles, solvent changes—can all affect yield and downstream usability. Revealing this information, instead of glossing over it, creates a partnership with our buyers. Demand trends, especially around advanced pharma and functional resins, continue to grow, but with them comes higher pressure for fast adaptation and authentic performance data.
Market price, documentation, and product appearance only tell part of the story. Years of production have taught us to trust process records over marketing claims. The best batches come from stable upstream links and teams empowered to halt a run if anything smells or looks wrong. Hidden defects rarely begin with someone overlooking a document—they start with small lapses in plant discipline and communication. Consistent education, both inside our own teams and with buyers, reduces those weak links.
For many long-term users, our track record with 4-N-Pentyloxybenzaldehyde matters at least as much as its formal purity or color. We field requests for smaller test samples, share retention data, and recommend drying or storage changes suited to their unique lines. Sometimes a quick phone call solves a shelf-life puzzle or a crystallization block, saving days of wasted time for our customer and production team alike. Lessons learned the hard way help shape procedural improvements—whether a tweak to a cleanup step or a revision to our customer documentation.
The production of 4-N-Pentyloxybenzaldehyde is not a static process. Every new scale-up, every change in raw material delivery, brings fresh learning. We document each failure and improvement, feeding those lessons back to users through honest, frequent communication. By keeping our processes open to review and adapting to each new regulatory test or customer application, we turn past mistakes into future reliability.
Teamwork stands behind every drum, cube, or small glass bottle shipped out the door. A commitment to traceability means producing the materal you ordered—consistent, genuine, and evolved through experience. While technical advances alter how the compound is made, respect for process, customer partnership, and in-house diligence dictate how it is delivered. Those who work daily with this aldehyde—batching, filtering, drying, and checking—know each detail ripples through downstream value far beyond our gates.
Real difference in 4-N-Pentyloxybenzaldehyde comes from more than the right CAS number or purity on the label. Reliable intermediate quality, deep technical support, and a drive for process accuracy take years to build and even longer to maintain. At our core, we’re partners—not just suppliers. Our aldehyde takes shape in our hands and lends certainty to critical synthesis, innovation, and manufacturing efforts well beyond our own walls. Genuine manufacturing experience, paired with direct feedback from the world’s labs and factories, shapes both the product and the people behind it.