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HS Code |
699391 |
| Chemical Name | 6-Methoxy-2-Naphthaleneboronic Acid |
| Cas Number | 137875-22-4 |
| Molecular Formula | C11H11BO3 |
| Molecular Weight | 202.02 g/mol |
| Appearance | White to off-white solid |
| Melting Point | 218-222°C |
| Purity | ≥98.0% |
| Smiles | B(C1=CC2=C(C=CC=C2OC)C=C1)(O)O |
| Synonyms | 6-Methoxy-naphthalen-2-ylboronic acid |
| Storage Conditions | Store at 2-8°C, protected from moisture |
| Solubility | Slightly soluble in water, soluble in organic solvents |
| Inchi | InChI=1S/C11H11BO3/c1-15-10-5-2-4-9-7-8(12(13)14)3-6-11(9)10/h2-7,13-14H,1H3 |
As an accredited 6-Methoxy-2-Naphthaleneboronic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 5-gram 6-Methoxy-2-Naphthaleneboronic Acid is supplied in a sealed amber glass bottle with a tamper-evident cap. |
| Shipping | 6-Methoxy-2-Naphthaleneboronic Acid is shipped in tightly sealed, chemical-resistant containers to prevent moisture and contamination. It is handled as a stable, non-hazardous organic reagent, complying with standard chemical shipping regulations. Proper labeling and documentation are included to ensure safe and traceable delivery, often via ground or air freight depending on destination. |
| Storage | 6-Methoxy-2-Naphthaleneboronic acid should be stored in a tightly sealed container, away from moisture and light. Keep it in a cool, dry, and well-ventilated area, ideally at room temperature (15–25°C). Avoid contact with strong oxidizing agents. Proper storage ensures the chemical’s stability and prevents hydrolysis or degradation. Always label the container with the substance’s name and hazard information. |
Applications of 6-Methoxy-2-Naphthaleneboronic Acid in Industrial Manufacturing6-Methoxy-2-Naphthaleneboronic Acid acts as a specialized boronic acid derivative widely used in advanced industrial sectors. Our manufacturing capabilities ensure reliable supply for essential downstream processes needing high-purity intermediates. The following sections highlight main use cases proven in industrial-scale production. 1. Pharmaceutical API Synthesis for Non-Steroidal Anti-Inflammatory Drugs (NSAIDs)Downstream pharmaceutical manufacturers utilize 6-Methoxy-2-Naphthaleneboronic Acid as a Suzuki coupling component when synthesizing selective NSAID APIs. Its boronic acid group enables palladium-catalyzed aryl-aryl bond formation, critical for Naphthalene-based API building blocks. Manufacturers require strict control over raw material purity, catalyst residue, and residual solvents under ICH guidelines to ensure pharmaceutical-grade intermediates. This material directly enters the final coupling stage prior to downstream purification and conversion to formulated APIs. Industry compliance standards
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2. Advanced OLED Materials ManufacturingSpecialty electronics firms deploy 6-Methoxy-2-Naphthaleneboronic Acid for constructing key conjugated naphthalene units in organic light-emitting diode (OLED) materials. As a boron source in Suzuki-Miyaura cross-coupling, it supports the build-up of hole-transport and emissive structures in small-molecule OLED emitters. Strict QC protocols apply for residual metals and boron byproducts due to their effects on device performance and lifespan. The compound typically enters at the late-stage oligomerization or functionalization step in emitter production lines. Industry compliance standards
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3. Agrochemical Intermediates in Herbicide SynthesisLarge-scale agrochemical manufacturers select 6-Methoxy-2-Naphthaleneboronic Acid as an activated coupling intermediate to construct key aromatic components for selective herbicides. The boronic acid moiety offers targeted reactivity for Suzuki coupling with halo-substituted aromatic precursors, forming robust diaryl motifs present in several herbicidal actives. Raw material meets regulatory and in-house testing for pesticide intermediate purity and absence of regulated impurities. Industry compliance standards
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4. Specialty Dye and Pigment IntermediatesDye and pigment industry producers leverage the naphthalene core of 6-Methoxy-2-Naphthaleneboronic Acid to synthesize extended conjugated chromophores. As part of advanced coupling schemes, it provides key functionalization points for anthraquinone or naphthalimide dye precursor construction. Color strength and product stability depend on strict control of raw material impurity profile, including trace boron and transition metals. Industrial dye synthesis integrates this material at targeted arylation process stages to achieve custom pigment shades. Industry compliance standards
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In the chemical industry, the journey from raw feedstock to specialty molecule calls for grit, know-how, and relentless attention to detail. Our 6-Methoxy-2-Naphthaleneboronic Acid reflects these principles in action. With years spent scaling reactions and debottlenecking yield challenges, the team at our plant has learned there’s no short cut to achieving consistent quality in these aromatic boronic acids. We synthesize this compound from base materials under carefully regulated conditions at each stage, controlling moisture exposure and batch parameters to prevent hydrolysis and minimize by-product formation.
This approach has made a measurable difference for our clients who depend on this molecule for complex cross-coupling reactions. Our 6-Methoxy-2-Naphthaleneboronic Acid, produced in kilogram lots, offers a white to off-white solid with a purity that typically exceeds 98% by HPLC. Customers in medicinal chemistry and agrochemical development have shared their preference for our batches, pointing to straightforward workups, minimal filtration headaches, and low palladium scavenging loads during Suzuki-Miyaura reactions. We don’t lose sight of what matters: reducing downtime on client benches, scrapping fewer runs, and helping chemists focus on discovery, not troubleshooting impure material.
Standard syntheses of aryl boronic acids appear routine on paper, but small inefficiencies compound during scale-up. Some suppliers cut corners on drying or let packaging steps drag on, pushing products out the door before confirming batch uniformity. We have seen — and corrected — crystallization inconsistencies that trigger clumping, reduce solubility, and frustrate researchers. Our process includes active drying, inert-gas handling, and custom packaging in glass or fluoropolymer containers to preserve material stability every step of the way.
Unexpected bottlenecks often come from overlooked aspects of purification. Boronic acids can show broad melting point ranges and suffer from protodeboronation, which erodes mass balance in scale-up. We use in-house GC and NMR to chase down trace impurities that, if unchecked, can poison catalysts or trigger sequence failures in downstream reactions. Our manufacturing records and in-process checks form the backbone of our reputation. Clients have told us these visible, humble efforts have saved significant resources and built trust over repeated campaigns.
In our experience, most chemists don’t ask for 6-Methoxy-2-Naphthaleneboronic Acid by name unless they have a difficult construction that other boronic acids can’t handle. This molecule’s methoxy substitution brings unique electronic character to the naphthyl core, giving their coupling products more flexibility in late-stage functionalization. The compound performs well in C-C bond formation, especially where electron-rich aryls pose coupling challenges. It shines in medicinal chemistry where bioactive structures demand fused aromatics. The ortho-methoxy group blocks some positions from unwanted side reactions, channeling reactivity to give cleaner transformations in Suzuki or Chan-Lam protocols.
Direct feedback from lab-scale users points to the value of starting with a high-purity, single-component product. Several clients moving into pilot-scale synthesis have faced issues with material from non-manufacturer sources. Lower-grade commercial lots have been known to co-elute with isomers or decomposition products, which ripple downstream into inconsistent assay results or poor yields. Our QC approach calls for routine confirmation by multiple orthogonal techniques, so even trace amounts of hydrolyzed naphthol or boroxine byproducts don’t get lost in the lot. Researchers often tell us this discipline translates to greater reproducibility, which is the core of their productivity.
Quality in chemicals depends on real numbers, not just words. By sticking to specifications drawn from firsthand studies, we hold our 6-Methoxy-2-Naphthaleneboronic Acid to a narrow purity window. Our typical batch presents as a crystalline or powdery solid, with melting points matching the literature values for this structure. Moisture content rides below 0.5%, and each lot undergoes LC and GC trace impurity screening. Each step, from filtration to packaging, steers away from contamination by silica, halides, or trace metals — critical for labs where downstream palladium, nickel, or ligand compatibility rests on the input’s integrity.
More than one customer has tried blends from trading companies or improvised syntheses. Their stories often end with solubility issues, batch-to-batch speculation, and unexplained NMR peaks that slow down development timelines. We hear about gels in reaction flasks and incomplete conversions — all traced back to off-specification raw materials, often with lingering solvent signals or water pickup from hasty storage. By controlling each part of our operation, from lyophilization to sealed shipment, we have minimized these setbacks for end users.
No single boronic acid solves every challenge. We never promise our 6-Methoxy-2-Naphthaleneboronic Acid can outperform simpler analogues in all applications. The presence of the 6-methoxy group steers reactivity and creates steric and electronic effects distinct from other naphthaleneboronic acids or simpler phenylboronic acids. Customers report that this material offers superior performance in systems where a robust, electron-rich aromatic is necessary, but it isn’t always the perfect fit. Certain high-throughput screens prefer boronic acids with different substitution, and some polymer chemistries benefit from smaller aromatic footprints or greater solubility.
Our conversations with both small startups and top pharmaceutical process chemists have highlighted the strengths and limits of each class of boronic acid. What separates our product is honest feedback drawn from those working to assemble novel molecules. The true test remains in the field, not in promotional language, and we keep our role clear: provide the purest, most consistent building block for the job at hand. Our technical support team fields questions on compatibility, reaction profiles, and troubleshooting. This close engagement gives us insight into synthetic hurdles faced by those who make real things happen in the lab, not just those who talk about it.
Each decision in our plant has an impact, both on worker safety and on the communities around us. Naphthyl boronic acids require vigilant solvent management and air handling. Our team continually improves venting systems and invests in secondary containment for spill prevention. Material transfer and drying steps use closed vessels to limit any operator contact or airborne exposure. These incremental changes, forged over several years, add up to certifiable improvements in safety audits and reduce our overall emissions.
Waste minimization shapes how we scale reactions. The boronic acid class frequently comes with mother liquors containing excess boron byproducts, which need proper neutralization. Rather than treat as a disposal burden, we work internally to recover and recycle boron residues whenever feasible, putting economics and stewardship in the same basket. This commitment doesn’t come from blanket sustainability promises, but from actual operational choices governed by the real world of chemical manufacturing.
Chemists and process engineers tell us time and again: full visibility into production and batch records builds trust. For our clients, requesting certificates of analysis and detailed chromatograms is routine. We go deeper, offering batch-wise tracking of solvent use, catalyst charges, and moisture controls for each kilo produced. Our field teams visit user labs to answer questions on packaging integrity, helping to close the loop between bench chemistry and plant-scale practices.
One takeaway from years on the manufacturing floor is that surprises during use almost always have roots further up the chain. We maintain open books on our QA procedures, encouraging customers to audit our practices and ask hard questions. If a result ever misses a spec, we work with the affected user to trace the issue back, trusting relationships forged through honesty, not just paperwork. That difference in attitude has won us repeat business from customers who value joint problem-solving more than empty guarantees.
Many aromatic boronic acids flood the market, but laboratory experience has taught us where finer distinctions actually change outcomes. The methoxy-equipped naphthyl ring isn’t just window dressing. It can dictate regioselectivity in coupling, facilitate otherwise stubborn substitutions, and support advanced functional group compatibility that lower-tier materials can’t deliver. Unlike generic phenylboronic acid, its structure encourages selectivity that pairs well with complex ligand systems, driving new chemical space for both academic and industrial chemists.
We have also handled requests for derivative forms and related coupling partners, including halogenated or multi-substituted naphthyl systems. Learning from these custom runs, we have optimized the parent 6-Methoxy-2-Naphthaleneboronic Acid to avoid typical sticking points — uncontrolled oxidation, incomplete neutralization, and batch stratification. The net result is a material whose performance has stood up to internal pilot plants and external critical audits.
Case studies from long-term customers illustrate the practical payoffs of getting quality right the first time. Several pharmaceutical partners have reported clear improvements in overall yield and lower by-product formation after switching to our 6-Methoxy-2-Naphthaleneboronic Acid during SAR series. One process chemist described a difficult coupling sequence: After failed attempts with lower-grade commercial lots, our product gave selective cross-coupling in two successive steps, eliminating purification headaches and shaving two weeks off a milestone timeline for their project lead. Another partner developing high-performance dyes pointed to batch-after-batch consistency in color properties and purity of end products.
Supporting each user from inquiry to delivery — and troubleshooting unexpected results — has built credibility that speaks louder than generic testimonials. We keep communication lines open, supply technical notes and spectral data, and offer real-world advice earned through running our own scale-ups. If a customer’s reaction fails to deliver, we will dig in with them, review conditions, and resend fresh lots if needed — recognizing that in chemical manufacturing, accountability goes both ways.
Demand for specialty boronic acids keeps shifting as synthetic chemistry advances. Our R&D team stays focused on improving synthetic routes and expanding product lines beyond commoditized options. While many competitors cut costs through outsourcing or batch pooling, our model continues to emphasize small-lot, in-house control tailored around direct user needs. We invest in greener alternatives, both upstream and downstream, and cultivate dialogue with researchers in need of more elaborate scaffolds or substitution patterns.
Recently, surge interest in automated and high-throughput reaction conditions has put new pressure on the purity and predictability of building blocks. A single failed well in a compound library can cascade into missed timelines and wasted screening efforts. We have responded by tightening our release specs, using additional techniques such as quantitative NMR to support those customers running multiple parallel couplings. As major institutions adopt greener, lower-temperature protocols, we support with stability data and modified handling strategies, always rooted in experience rather than speculative claims.
Not all chemical suppliers operate with visibility into where inconvenience or failure originates. Boiling down to basics, making and shipping 6-Methoxy-2-Naphthaleneboronic Acid means more than ticking boxes — it draws on years of plant operation which have taught us that end-user pain can usually be traced back to overlooked details in isolation, drying, or packaging. Some larger resellers ride on procurement scale, not process knowledge, and their lots can flip in quality unpredictably. Our identity as a true manufacturer gives customers ready accountability and a direct path to technical insights without middle-layer filter.
The true benchmark for any chemical building block rests not just on its immediate use, but on its proven reliability under changing conditions. Over many campaigns, labs relying on our product have come to see the difference that a direct line to manufacturing support makes. Each interaction, each improvement, and each troubleshooting session strengthens a foundation built on day-to-day chemistry, careful record keeping, and ongoing willingness to solve real problems as they emerge.
Our plant’s journey — from scaled-up glassware to kilo production, through regulatory review and customer feedback loops — shapes how we view every molecule we offer. 6-Methoxy-2-Naphthaleneboronic Acid represents not just a catalog entry, but a carefully refined output influenced by both crew on-site and customers at the frontlines of discovery. This molecule, with its nuanced combination of reactivity and selectivity, owes its reputation to the repeated cycles of learning from and adapting to real-world laboratory needs.
At the end of the day, our team stands behind each lot, shipping only what meets our internal confidence. We see this compound not as just another SKU, but as a symbol of the trust that builds between makers and users. Reliable boronic acids open new paths for inventors; careful hands in manufacturing keep those paths clear. That’s been our mission since the first batch left the plant, and it remains our promise as chemistry continues to shift forward.