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4-N-Octyloxybenzaldehyde

    • Product Name 4-N-Octyloxybenzaldehyde
    • Alias 4-n-octyloxybenzaldehyde
    • Einecs 629-662-6
    • 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
    VTB
    Specifications

    HS Code

    559485

    Product Name 4-N-Octyloxybenzaldehyde
    Cas Number 24643-81-8
    Molecular Formula C15H22O2
    Molecular Weight 234.33
    Appearance Colorless to pale yellow liquid
    Purity ≥98%
    Boiling Point 140-142°C (2 mmHg)
    Solubility Insoluble in water, soluble in organic solvents
    Density 1.01 g/cm3 (at 25°C)
    Flash Point 127°C
    Smiles CCCCCCCCOC1=CC=C(C=C1)C=O

    As an accredited 4-N-Octyloxybenzaldehyde factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The 25g quantity of 4-N-Octyloxybenzaldehyde is supplied in a sealed amber glass bottle with a tamper-evident screw cap.
    Shipping 4-N-Octyloxybenzaldehyde is shipped in tightly sealed containers to prevent leakage and protect from light and moisture. It is transported as a chemical product under standard hazardous material protocols, ensuring temperature control and safety compliance. Packaging follows regulatory guidelines for safety, and all relevant documentation accompanies the shipment for secure and traceable delivery.
    Storage 4-N-Octyloxybenzaldehyde should be stored in a tightly sealed container in a cool, dry, and well-ventilated area, away from direct sunlight and sources of heat or ignition. Keep the chemical away from incompatible substances such as strong oxidizing agents. Store it at room temperature and ensure the container is properly labeled to avoid accidental misuse or exposure.
    Application of 4-N-Octyloxybenzaldehyde

    Applications of 4-N-Octyloxybenzaldehyde in Industrial Manufacturing

    4-N-Octyloxybenzaldehyde serves as a key intermediate in advanced chemical synthesis, supporting specialized applications in fine chemicals manufacturing, liquid crystal material development, dye intermediates, and specialty polymer production. Drawing from production-scale experience, we highlight real-world downstream uses with precise technical insights tailored for industrial integration.

    1. Liquid Crystal Material Synthesis

    In liquid crystal material production, this raw material functions as a crucial mesogenic core modifier, enabling the fine-tuning of phase transition temperatures and improving solubility characteristics in high-performance liquid crystal mixtures. Its introduction during condensation steps influences molecular alignment and thermal stability, which are essential parameters in creating custom liquid crystal displays and related technologies for electronics manufacturing.

    Industry compliance standards

    • IEC 61249-2-43 for base materials
    • RoHS 2011/65/EU restrictions on hazardous substances
    • REACH Regulation (EC) No 1907/2006 for chemical registration
    • ISO 9001:2015 Quality Management Systems

    Typical usage ratio

    • 5–20 mol% in mesogen mixture, adjusted based on targeted clearing point and viscosity of the final liquid crystal composition

    Downstream process integration

    • Added during the condensation and etherification steps in mesogenic compound synthesis, followed by purification and integration into proprietary multi-component mixtures. Batch or continuous processing may apply depending on production scale.

    Final product types

    • Twisted nematic (TN) and in-plane switching (IPS) liquid crystal display panels
    • Ferroelectric and cholesteric liquid crystals for electronic signage
    • Flexible display films for mobile and automotive systems

    2. Aromatic Aldehyde-Based Dye Intermediate Manufacture

    This compound acts as an essential building block in creating specialty dye intermediates, particularly in the synthesis of azo, anthraquinone, and schiff base dyes. Its specific electron-donating group contributes to enhanced dye fastness and tinting strength when coupled with aromatic amines or active methylene groups during coupling reactions, assuring batch consistency and color uniformity in textile and plastics coloration solutions.

    Industry compliance standards

    • OEKO-TEX® Standard 100 for textiles
    • EN 71-3:2019 for toy safety (colorants)
    • REACH Annex XVII restrictions (aromatic amines in dyes)
    • ISO 14001:2015 Environmental Management in dyehouses

    Typical usage ratio

    • 3–10 mol% in dye synthesis, modified according to chromophore design and substrate compatibility

    Downstream process integration

    • Incorporated into initial aromatic aldehyde substitution or coupling reactions, followed by diazotization, condensation, and purification. The process is frequently run in semi-batch reactors to control yield and selectivity.

    Final product types

    • High-fastness synthetic dyes for polyester and polyamide fibers
    • Colorants for engineering plastics (polycarbonate, ABS)
    • Special effect pigments for inks and coatings

    3. Intermediate in Pharmaceutical Fine Chemical Synthesis

    Within the pharmaceutical fine chemicals sector, this chemical operates as a selective intermediate for heterocycle assembly and the synthesis of bioactive ligands. Its substitution pattern allows precise control in the formation of benzylidene derivatives, which serve as precursors in active pharmaceutical ingredient (API) research and development, particularly for compounds that require specific lipophilicity and metabolic profiles.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice Guide for APIs
    • USP-NF for pharmaceutical intermediates
    • 21 CFR Part 211 (US cGMP)
    • EU EudraLex Volume 4 GMP Guidelines

    Typical usage ratio

    • 1–5 mol% in key step reactions for medicinal chemistry, with optimization based on target compound structure and reaction efficiency

    Downstream process integration

    • Introduced during Grignard or Wittig-type condensation reactions to generate functionalized benzaldehyde scaffolds, such as intermediates for benzofuran or benzopyran cores. Follows strict in-line QC for purity and trace solvents.

    Final product types

    • Research phase active pharmaceutical substance intermediates
    • Building blocks for small molecule API development
    • Semi-synthetic derivatives for lead optimization libraries

    4. Monomer and Plastic Additive Precursor for High-Performance Polymers

    This compound is widely used as a functional additive or a co-monomer in synthesizing specialty polymers, particularly in applications requiring high flexibility, hydrophobicity, and controlled molecular architecture. As a monomeric benzaldehyde derivative, it facilitates nucleophilic addition-polymerization, and its octyloxy substitution tailors glass transition temperatures and compatibility in copolymer chains for advanced material engineering.

    Industry compliance standards

    • ASTM D5630 for polymer additive characterization
    • UL 94 for flammability ratings of polymer materials
    • ISO 1043 for plastics, designation and coding
    • RoHS requirements for electronics-related polymer parts

    Typical usage ratio

    • 0.5–5 wt% as additive or co-monomer, adjusted depending on required physical-mechanical properties and polymer matrix type

    Downstream process integration

    • Dosed in the monomer feed stage for polycondensation or copolymerization processes. Integration may involve melt or solution polymerization, with subsequent extrusion or solvent casting as dictated by product end-use.

    Final product types

    • Flexible specialty films for electronics and solar applications
    • Polymer-based capacitor dielectrics
    • High-performance engineering resins for automotive or industrial components
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    Certification & Compliance
    More Introduction

    Introducing 4-N-Octyloxybenzaldehyde: From Our Factory to Your Formulation

    The Product at a Glance

    Our experience in manufacturing specialty aromatic aldehydes runs deep. Among our most talked-about offerings is 4-N-Octyloxybenzaldehyde, a compound we’ve produced for more than a decade, thanks to steady demand across performance materials and specialty chemicals markets. Carrying the chemical formula C15H22O2, and with a CAS number of 34884-69-8, this product features an aldehyde group on the para position of an octyloxy-substituted benzene. Its molecular backbone sets it apart from simpler benzaldehyde derivatives commonly encountered on the market.

    We’ve structured our manufacturing process around high precision and purity, continually refining techniques from raw material handling through final filtration. This attention to detail enables us to consistently offer 4-N-Octyloxybenzaldehyde with high assay values, low moisture content, and a clear pale-yellow appearance. Such quality factors are more than numbers on a report; we’ve seen how small variations impact downstream formulations. Our reliability here is what our partners tend to mention most.

    What Sets This Molecule Apart

    Much of the chemical industry contains subtly different products that serve dramatically different roles. Compared to simple benzaldehyde or shorter alkoxy-benzaldehyde analogues, 4-N-Octyloxybenzaldehyde brings an extended hydrophobic tail, courtesy of the octyloxy group. For our customers, this lengthened chain translates into specific solubility characteristics, altered reactivity, and a tendency to improve compatibility in non-polar media. A handful of years ago, a client in the liquid crystal field specified the critical effect of this molecule’s alkoxy chain on phase transition temperatures—something not achieved with shorter or longer substitutions. The blend of reactivity and physical property modulation is why this product holds a favored position on custom material lists.

    Our technical staff often gets questions about why to choose this variant over related materials. Consider methyl and ethyl analogues, which are easier for competitors to offer at lower cost but rarely match the performance necessities in advanced coatings, photonics, or specific electronic liquid crystals. With longer chains, steric hindrance can hamper subsequent reactions, and purity drops as side-reactions multiply in extended syntheses. We’ve honed our process to maximize yield and suppress these issues, giving formulators a product they can trust for batch-to-batch repeatability.

    How End Users Apply 4-N-Octyloxybenzaldehyde

    Our direct customers are usually formulating advanced mixtures, searching for a reliable component to fine-tune performance or solve a sticking point in their own synthesis. In the world of liquid crystals, 4-N-Octyloxybenzaldehyde acts as a versatile starting material, the aldehyde group opening doors to forming more complex molecules that arrange themselves in predictable patterns. For makers of novel display materials and smart windows, this compound offers a platform for developing key intermediates with specific molecular shapes and electronic properties.

    Research teams at several major institutions have purchased this aldehyde from our plant, reporting success leveraging the amphiphilic character: the juncture of polar and non-polar structure enables integration into organic semiconductors and specialty lubricants. In scent chemistry, the longer alkoxy chain modulates volatility, making this compound a subtle fixative for high-value fragrance formulations. We see much interest in similar niche uses—UV absorbers and specialty polymers, for example, appreciate the rigid aromatic core and flexible tail, each contributing to thermal stability, flexibility, and compatibility.

    Production Realities and Technical Details

    Consistency is not just a buzzword at the plant level. Our process relies on clean air handling, deionized water, and highly purified starting materials sourced after rigid supplier qualification. Tracking each batch’s purity and water content with gas chromatography and Karl Fischer titration forms the backbone of our in-house QC. One year, a global electronics maker stressed over formulating a new panel type. Only trace amines and minimal acid residue would suffice. Our team ran dozens of trial batches, using feedback to optimize vacuum stripping and final drying. The resulting product not only fit their specs—its reproducibility inspired a longer supply contract.

    Beyond process control, product protection matters from the moment synthesis ends. Packing under nitrogen, use of glass or PTFE-lined drums, and real-time batch tracking safeguard product integrity, especially for aldehydes sensitive to oxidation and polymerization. Shipping this compound across continents brings its own list of challenges. We’ve learned to anticipate problems from delayed transport, customs holdups, and storage in hot climates. Solutions include specialized temperature-stable containers and joint scheduling with clients to minimize the time between our reactor and their warehouse.

    Why Our 4-N-Octyloxybenzaldehyde Matters to the Industry

    Everything in chemical manufacturing revolves around the impact of tiny differences at the molecular level. Substituting the octyloxy group on a benzaldehyde backbone generates real outcomes—more stable LCD mixtures, resistant coatings for flexible electronics, and enhanced UV blocking in plastics. The need for high-purity material is not an academic exercise; it is a bottom-line issue on large production runs, reducing rejects and improving yields. We see purchasing teams and research engineers come back to our product specifically for that repeatable quality—because it means saved costs, faster regulatory compliance, and greater freedom in end-formulation.

    Our position as an actual producer—not just a middleman—lets us tweak parameters rapidly and share feedback from the R&D bench all the way up to full-scale output. One example stands out: a customer’s scale-up revealed byproducts interfering with their catalyst. Our plant team investigated, traced the impurity back to a supply fluctuation on a minor input, and requalified the lot. That responsiveness comes with vertical integration and a willingness to pull in chemists, operators, and logistics professionals to solve quality problems together.

    Comparisons and Market Considerations

    Buyers often ask about differences from analogues with shorter or longer alkoxy chains, as well as other substituents like nitro or methyl. Here, practical experience teaches a clear lesson: longer chains in benzaldehyde derivatives generally boost solubility in organic phases but can trigger issues with synthesis yields and viscosity. We’ve refined a process window that hits a balance between chain length and manufacturability. In the hands of our customers, the octyloxy version solves problems of phase separation or phase transitions in multi-component mixes, while still providing enough rigidity from the aromatic core to anchor complex molecular assemblies.

    From a pricing and availability standpoint, direct-from-manufacturer supply makes a substantial difference. Over the years, we have weathered raw material fluctuations—whether a typhoon in an upstream factory or a local transport strike on our end. Thanks to robust sourcing and real-time process adjustments, we’ve kept our product in stock even during tight global markets. Resellers lack this direct line of control. Chemists needing exact specifications do not want to risk mysterious changes between batches, and the service that comes straight from our own plant makes their technical questions much easier to answer.

    Sustainability, Compliance, and R&D Commitment

    We recognize that specialty organics like 4-N-Octyloxybenzaldehyde rarely draw attention for sustainability, but waste minimization and greener chemistry still drive our shop floor discussions. Capturing solvents for recovery and piloting alternative safer oxidants are not just for appearances—regulators and downstream customers increasingly scrutinize product provenance. Our documentation offers traceability from the truck that brought the starting material to the final drum that leaves our dock. Internal audits and customer-initiated reviews push us to tighten controls, improve yields, and lower energy intensity by tuning process conditions and managing plant utilities efficiently.

    Hazard management and product stewardship never stay static. Staff training on handling aromatic aldehydes, monitoring for off-gassing and temperature stability, and building in engineering safeguards occupy a regular part of our operating schedule. For customer labs or plants, this means the information we share—on handling, storage, or safe disposal—is backed by our real-world use. Through dialogue with buyers and regulatory bodies, we contribute to shared best practices across sectors.

    Our R&D lab keeps one foot in academia and another in commercial demands. Ongoing projects focus on next-generation derivatives, route modifications for lower-waste streams, and analytical packages for ever-finer impurity detection. Recently, collaborative work with an advanced materials group shed new light on how our aldehyde serves as a key node in high-performance organic semiconductors. Tangible lab data reinforced what many of us suspected—a properly prepared 4-N-Octyloxybenzaldehyde unlocks higher order in liquid crystal and organic electronic applications. We responded by providing custom spec runs, adjusting water content and impurity controls past standard ranges.

    Serving Customers: Order Sizes and Logistics—From Kilos to Bulk

    Most orders come from industrial buyers ready to scale to production, though our facility supports custom batch sizes for pilot studies right up to multi-metric ton annual contracts. Handling small volumes for R&D groups gives us insight into formulation challenges, and our flexibility strengthens relationships that often grow over time into supply partnerships. Warehouse processes at our plant can accommodate special requests—finer sieved fractions, custom packaging, or even just synchronized shipment timing to align with downstream process schedules.

    Shipping regulations around aldehydes demand precision and diligence. Our team works with transport and freight specialists to avoid mishandling. Each batch leaves with clear labels, batch certificates, and, if needed, analytical data far beyond standard COAs, because we know a development team halfway across the world may need to match results as closely as our own internal lab. That level of attention has meant fewer disruptions, direct troubleshooting for unexpected transit delays, and better outcomes for our partners.

    Continuous Improvement and Customer Collaboration

    Running a chemical manufacturing plant means finding balance between standardized production and creative, collaborative problem solving. As markets evolve, especially for advanced functional chemicals like 4-N-Octyloxybenzaldehyde, the ability to respond to change sets one producer apart from another. Over the last few years, we’ve shifted from a pure output orientation to one that blends technical support, process transparency, and open collaboration. Our goal—shared by our whole plant team—is never just to sell a molecule, but to support its best use in the field, with advice both on specification choices and on practical concerns like long-term storage, blending into sensitive formulations, or troubleshooting unforeseen reactions.

    Requests from end-users push our technical staff to document best handling practices, recommend stabilizers for long-term shelf life, and adjust packing configurations to reduce waste or support automation. Success stories abound: last year, a startup needed smaller than normal pack sizes to meet synthesis quotas. We adapted not only the volume, but also the drum type and labeling, to fit their workflow and even slotted their delivery into our weekly schedule despite very short notice. This kind of responsiveness has built relationships that drive both sides towards improvement.

    Ethics, Reliability, and Looking Forward

    Producing fine chemicals like 4-N-Octyloxybenzaldehyde involves more than reaction conditions and purity data. The trust our industry partners put in us comes from knowing that each ton of product has been made to strict standards, and that we can account for what goes in, what comes out, and how the entire process aligns with not only technical metrics, but ethical and safety commitments too. Our people know the plant and the product, many from decades of experience, and they take pride in seeing our materials perform in high-stakes projects around the globe.

    The challenges our customers face rarely come from the same old problems. Climate concerns, rapid product cycles, and regulatory shifts all force new solutions. As a manufacturer, we carry responsibility to innovate, conserve, and share what we’ve learned. That means listening as much as talking, taking seriously both minor complaints and major innovations, and never resting on last year's specifications.

    Our commitment to quality, responsiveness, and long-term supply determines not just our reputation, but our success together with every company who chooses our 4-N-Octyloxybenzaldehyde. From the first inquiry to the final drum, our team focuses on practical benefits, real-world performance, and the trust that only comes from hands-on manufacturing experience.