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HS Code |
781197 |
| Iupac Name | 2-(Phenylmethoxy)naphthalene |
| Molecular Formula | C17H14O |
| Molecular Weight | 234.29 g/mol |
| Cas Number | 6335-76-2 |
| Appearance | White to off-white solid |
| Melting Point | 72-74 °C |
| Boiling Point | 408.7 °C at 760 mmHg |
| Density | 1.17 g/cm³ |
| Solubility In Water | Insoluble |
| Smiles | COC1=CC2=CC=CC=C2C=C1 |
| Refractive Index | 1.654 |
| Storage Condition | Keep in a cool, dry, and well-ventilated place |
As an accredited 2-(Phenylmethoxy)-Naphthalene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 100g of 2-(Phenylmethoxy)-Naphthalene supplied in a sealed amber glass bottle with tamper-evident cap, clearly labeled for laboratory use. |
| Shipping | 2-(Phenylmethoxy)-Naphthalene is typically shipped in tightly sealed containers to prevent contamination and evaporation. It should be transported according to chemical safety guidelines, away from sources of ignition and incompatible substances. The package must be labeled appropriately, indicating hazardous status if applicable, and handled with care to avoid spills or leaks. |
| Storage | 2-(Phenylmethoxy)-Naphthalene should be stored in a tightly sealed container at room temperature, away from direct sunlight, moisture, and sources of ignition. Ensure storage area is well-ventilated and segregated from incompatible substances such as strong oxidizers. Label the container clearly and keep it in a cool, dry place to maintain chemical stability and minimize decomposition or contamination risks. |
Applications of 2-(Phenylmethoxy)-Naphthalene in Industrial ManufacturingAs a specialized manufacturer of 2-(Phenylmethoxy)-Naphthalene, we supply this material to industrial customers involved in specialty chemical processes requiring reliable technical performance and strict adherence to sector-specific standards. Below we detail the core application areas, providing a focused overview of its integration into various downstream sectors. 1. Electronic Chemical Intermediates for Liquid Crystal Display (LCD) MaterialsMajor producers of advanced display technology employ this compound as a significant intermediate in the manufacture of highly engineered liquid crystal monomers used in LCD panels. The compound participates in fine-tuned condensation and derivatization steps, influencing the mesogenic core structure critical for display switching speed and stability. Processing demands precise control over purity and trace-level contaminants to maintain panel yield and end-device clarity. Most downstream integrators operate in accordance with international electronics material regulations and demand batch traceability for quality assurance. Industry compliance standards
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2. Pharmaceutical Intermediate for Active Pharmaceutical Ingredients (APIs) SynthesisPharmaceutical manufacturers utilize this compound as a controlled intermediate when assembling multi-ring aromatic scaffolds for advanced APIs, especially in oncology and neurological disorder treatments. The compound serves as a core building block in C–O coupling reactions, contributing to molecular frameworks that demand strict regulatory oversight. Downstream operators maintain full traceability back to source materials and monitor for genotoxic impurities due to the high-risk, high-compliance environment. Industry compliance standards
Typical usage ratio
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3. High-Performance Polymer Additive for Specialty Engineering PlasticsProducers of engineering plastics—particularly those targeting E&E housings and automotive interiors—integrate this raw material as an advanced aromatic additive to modify polymer backbone rigidity and enhance thermal stability. Exact dosing correlates with the resin system and targeted glass transition temperature, and downstream compounding processes require rigorous monitoring of thermal history and by-product minimization. Plant implementation occurs under strict documentation to meet downstream original equipment manufacturer (OEM) quality assurance protocols. Industry compliance standards
Typical usage ratio
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4. Organic Synthesis Intermediate for Functional Dyes & PigmentsLeading colorant producers incorporate this material in multi-step organic syntheses aimed at developing high-performance dyes with extended conjugation for improved absorption and photo-stability. The aromatic structure and ether linkage play a critical role during subsequent coupling and cyclization, controlling color strength and fastness attributes. Strict regulatory oversight exists for residual toxic by-products and finished pigment content, particularly for applications in graphic arts and industrial coatings. Industry compliance standards
Typical usage ratio
Downstream process integration
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Out on the factory floor, the qualities of a chemical compound speak for themselves. Our 2-(Phenylmethoxy)-Naphthalene, model 98-08, stands at the intersection of reliability and versatile design. Over the years, countless partners in fields such as advanced materials synthesis, pharmaceutical research, and electronics development have counted on our batches of this compound to maintain integrity from drum to reaction vessel. Painstaking selection of raw inputs and continual process reviews keep our product consistent, so colleagues in application laboratories don’t waste time on re-verification or troubleshooting.
Our technical team holds deep experience with aromatic ether derivatives, and 2-(Phenylmethoxy)-Naphthalene highlights what long-term process control delivers. Purity levels consistently exceed 99%, with trace impurities mapped on every lot by both GC and HPLC. Crystalline form comes standard—with sharp melting range between 90°C and 93°C—giving teams a familiar texture that handles well during weighing and addition. Typical batches present as off-white to pale yellow crystalline solids. While melting point and color seem like small details, years of feedback confirm that these small cues save time and keep projects moving without the bugbears of inconsistent product behavior.
Most buyers for 2-(Phenylmethoxy)-Naphthalene work in precision environments, from organic synthesis labs to pilot-scale custom manufacturing. Uses often focus on formation of extended π-conjugated systems—these are central to both OLED research and next-generation solar cell prototypes. Medicinal chemists have picked this molecule for selective functionalization studies, using our product as a backbone because it holds up under a variety of reaction conditions. Electronic materials developers value the robust aromatic core, especially when aiming to modify the naphthalene moiety with specific side chains. Our formulation keeps the compound dry and tightly sealed, and each drum’s internal liner survives transit and extended storage.
As a manufacturer rather than a trader or warehouse operator, we feel every link in the supply chain personally. Technicians in our batch-processing rooms have learned how crucial each step is, aligning synthesis timing and filtration with a repeatable, hands-on approach. Routine recalibration of distillation towers eliminates contamination by other naphthalene ethers. For solidification, our cooling protocols prevent amorphous clumps, ensuring a granular material that scoops and pours predictably. When partners audit our facility, these decisions resonate—each run of 2-(Phenylmethoxy)-Naphthalene finishes its journey under a trained eye, with records kept back over decades.
Plenty of molecules on the market share some backbone with 2-(Phenylmethoxy)-Naphthalene, but firsthand feedback from R&D teams tells an important story. Most substitutions, whether naphthol-ethers or biphenyl derivatives, stray from the ideal melting point, solubility, or stability required for sensitive syntheses. Compounds like 1-benzyl-2-naphthol sometimes claim similar features but can fall short under the stresses of stepwise functionalization. Process yields suffer, and finished product variability creeps in. In our own synthetic runs, swapping out for bulk-sourced alternatives consistently introduced side reactions, lowering purity and complicating downstream workup.
Differences extend beyond the laboratory. In electronics, for example, end-use device reliability hinges on subtle properties—slight variations in conjugation, steric bulk, or impurity content become costly down the line. Our 2-(Phenylmethoxy)-Naphthalene, processed under carefully monitored temperature and pressure, delivers exacting standards needed for device-level reproducibility. Teams working with our product typically report smoother polymerization and greater success when pursuing high-mobility organic semiconductors or light-emitting layers. Small process improvements—narrowing melting point range or clarifying solubility in common dopant solvents—pay off in tangible advances.
Manufacturing 2-(Phenylmethoxy)-Naphthalene at scale calls for more than equipment; it demands know-how earned through direct work with every reaction variable. We’ve spent years optimizing solvent combinations for both safety and yield, refusing to relax attention on side-product formation. Each time a new research partner pushes the boundaries of molecular design, our team asks what changes in the process might be needed for their precise end goals. Small shifts—extended drying, closer cut-points in vacuum distillation, refining purge gas purity—may not drive headlines but have built trust and long-lasting customer relationships.
This product started as a specialized order for one application and grew into an established tool as word spread among peer manufacturers and academic researchers. Now, requests cross international boundaries, but every drum reflects the same high bar set through daily, hands-on oversight. Such a work ethic marks the difference between a true manufacturing operation and a remote reseller. It lets us spot trends, address subtle complaints, and continuously push the boundaries of what this molecule can achieve.
Having stood in the warehouse during humid summer months or brisk winter mornings, our staff knows that container design and closure integrity affect how well 2-(Phenylmethoxy)-Naphthalene handles under real-world conditions. By using multiple barrier linings and quick-sealing closures, losses to air or ambient moisture stay negligible. We feel a responsibility to flag even minor shifts in stability, so we monitor batch retention samples over extended periods and encourage feedback from regular users. Our process design eliminates hazardous reagents wherever possible and treats residual solvent streams for near-total capture, reusing or safely disposing of everything according to current regulations.
Partnership means more than just fulfilling a spec sheet. We share detailed batch analytics with every shipment, including full chromatograms and impurity breakdowns rather than abbreviated summaries. If an R&D manager raises a question about trace content or notices something unexpected during a scale-up, our technical staff engage directly, drawing on real production metrics rather than stock answers or vague technical bulletins. We have lived through raw input shortages, new regulatory guidelines, and the ever-increasing demands of international customers—always keeping open channels between production and application.
Colleagues in downstream synthesis sometimes encounter problems with solubility or reactivity as processes scale up. Long before these issues crop up in a customer’s workflow, our internal teams have already run pilot trials under diverse conditions. Temperature variations and batch-to-batch solvent tolerance factor into our quality checks; each step gets logged from start to finish in real time. If any drift in standard parameters threatens to creep in—such as appearance or trace halide content—adjustments begin immediately, not months later. Repeated shipping feedback led us to redesign our packaging for both bulk and smaller research units, toughening up drums against flexing or rough handling.
Our on-site teams respond to real-time packaging and shipping issues—whether vacuum-sealing liners for tropical climates or flagging unexpected friction buildup in cold storage transit. Many resellers only become aware of such problems after multiple cycles of complaints; by contrast, true manufacturers spot trends at the dock, adjust stock, and continue learning from every outcome.
2-(Phenylmethoxy)-Naphthalene’s aromatic platform sets it apart for those pursuing advanced molecular architectures. Conjugation and stability enable stepwise cross-coupling and functional group transformations, opening access to compounds used in OLEDs, specialty dyes, and even pharmaceutical screening libraries. By maintaining upper-tier purity and absence of color body contamination, our product supports procedures sensitive to contaminants—such as palladium-catalyzed couplings or photolytic rearrangements. This seemingly simple molecule enables hundreds of new products in the hands of creative chemists.
Direct feedback from clients has driven innovation too: ranging from requests for custom particle sizing, suggestions on improving bulk flow, and adjustments to moisture-proof packaging. Each application uncovers new facets, and together we’ve found routes to enhanced optical applications and greater reaction throughput, leveraging the resilient structure of the naphthalene core.
True understanding of chemical production starts where the solvent hits the reactor. We have stood beside the filtration line, adjusting pH and cooling protocols to meet changing requirements from customers running updated synthetic routes. A trader never sees the nervous anticipation during the first filter press of a new run, or the satisfaction of clear, crystalline product dropping neatly into collection trays. Such experience creates a sense of responsibility—every lot number ties to operators, shift records, and a tangible promise of repeat performance.
Every improvement, whether tweaking a reflux ratio or shortening a vacuum hold, emerges from real production pressure. By listening to the challenges innovators face—whether demanding new levels of purity, earlier shipment, or reassurance on long-term storage stability—we remain engaged in the daily work, shaping both our products and our conviction about best practices.
Researchers in academic settings and production chemists in industry both press 2-(Phenylmethoxy)-Naphthalene into action. On the research side, the compound’s consistent properties allow deep exploration of novel organic transformations and high-performance electronic materials. Industrial labs count on the same material handling characteristics to streamline pilot plant batch runs, lowering batch variance and reproducibility headaches. Feedback loops tighten as we hear from each side—our development cycles benefit from seeing both bench-top breakthroughs and the scale-up realities of commercial synthesis.
Raw experience with thermal stability, solvent blending, and impurity tracking keeps us ahead of regulatory changes. Teams working under evolving pharmaceutical manufacturing guidelines have pushed us toward more transparent documentation and shorter response times when questions arise. In electronics, requests for ROHS certifications, and focus on trace-level metal impurity data, have prompted new investments in analytics and raw material sourcing. Manufacturers moving from lab to large-volume supply want to see firsthand proof that quality will hold as orders climb into the thousands of kilograms. We’ve spent years refining procedures to make those guarantees with confidence.
Each new market trend—whether driven by green chemistry, legislation on solvent use, or demand for new optoelectronic materials—echoes in how we approach 2-(Phenylmethoxy)-Naphthalene production. We invest in process improvements based not just on reacting to standards, but by forecasting how customers will use the compound in tomorrow’s products. By controlling process steps from start to finish, making careful raw material audits, and running in-depth impurity analytics, we stand by the consistency demanded in high-precision industries.
Every improvement ties back to how the compound behaves in the field. Partners have asked for documentation and batch certification that extend beyond standard registration, so we supply extended chromatograms and chemical tracking logs. Requests for tailored documentation or on-demand technical consultations fit right into our workday, owing to deep familiarity with the molecule and its quirks.
We anticipate change by maintaining internal R&D programs. Each experimental batch of 2-(Phenylmethoxy)-Naphthalene informs possible scale-up shifts, giving us insight before new standards become formal requirements. Test reactions run under higher throughput or novel catalyst systems inform how we set our own limits on residual metals or trace byproducts. The cooperation between our operations, R&D, and technical support groups closes the loop, letting us answer customer inquiries with both up-to-the-minute lab results and a long view of how organic synthesis is moving.
Routine adaptation isn’t just about switching filters or changing drum sizes. It extends to how we train our staff, invest in analytics, and build out reporting infrastructure to keep all partners updated. Good manufacturing means continuous learning—the difference shows up on analysis reports, customer reviews, and every reorder.
As research and industry demand more from each organic intermediate, the backbone that 2-(Phenylmethoxy)-Naphthalene delivers earns new respect. Our work producing this compound has taught us the value of continuous dialogue with the people creating next-generation electronics, pharmaceuticals, and materials. By opening our process to scrutiny and feedback, we remain deeply invested in delivering not just a chemical, but a toolkit of trusted properties and support practices refined by daily hands-on experience.
Over time, success in specialty chemical manufacturing depends on more than just compliance or even technical know-how—it stands on the simple act of getting things right, every single run, for a network of users who count on each shipment to perform under pressure. This is what grounds our approach and ensures 2-(Phenylmethoxy)-Naphthalene remains a first-choice tool for anyone asking more of their chemistry.