Products

O-Dimethoxybenzene

    • Product Name: O-Dimethoxybenzene
    • Chemical Name (IUPAC): 1,2-Dimethoxybenzene
    • CAS No.: 91-16-7
    • Chemical Formula: C8H10O2
    • Form/Physical State: Solid
    • Factroy Site: No. 1 Xuelin Street, Haining, Zhejiang, China
    • Price Inquiry: sales7@bouling-chem.com
    • Manufacturer: Jiangxi Brother Pharmaceutical Co., Ltd.
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    Specifications

    HS Code

    147070

    Chemical Name O-Dimethoxybenzene
    Iupac Name 1,2-Dimethoxybenzene
    Cas Number 91-16-7
    Molecular Formula C8H10O2
    Molar Mass 138.17 g/mol
    Appearance Colorless to pale yellow liquid
    Melting Point -1 °C
    Boiling Point 213 °C
    Density 1.076 g/cm³ at 20 °C
    Solubility In Water Slightly soluble
    Refractive Index 1.543 at 20 °C
    Flash Point 86 °C (closed cup)
    Odor Pleasant, aromatic
    Pubchem Cid 7425
    Synonyms Veratrole, 1,2-Dimethoxybenzene

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

    Packing & Storage
    Packing Amber glass bottle containing 100g O-Dimethoxybenzene, tightly sealed, labeled with chemical name, CAS number, and hazard warnings.
    Container Loading (20′ FCL) Container Loading (20′ FCL) for O-Dimethoxybenzene: Loaded in sealed drums or IBCs, maximizing space and ensuring safe, compliant transport.
    Shipping O-Dimethoxybenzene (CAS 91-16-7) is typically shipped in tightly sealed containers made of compatible materials, away from sources of ignition and strong oxidizers. It should be packaged following DOT and IATA regulations, labeled as a combustible liquid. Transport conditions must protect the chemical from extreme temperatures and physical damage.
    Storage **O-Dimethoxybenzene** should be stored in a tightly sealed container in a cool, dry, and well-ventilated area, away from heat, open flames, and incompatible substances such as oxidizers. Avoid exposure to direct sunlight. Proper labeling is essential, and the storage area should be equipped with appropriate spill and fire control measures. Use protective equipment when handling.
    Shelf Life O-Dimethoxybenzene typically has a shelf life of 2-3 years when stored tightly sealed in a cool, dry, and dark place.
    Application of O-Dimethoxybenzene

    Applications of O-Dimethoxybenzene in Industrial Manufacturing

    O-Dimethoxybenzene serves as an essential chemical intermediate supporting numerous high-value industrial processes. Its downstream uses cover specialty chemicals, fine organic synthesis, custom pigments, and advanced electronics manufacturing. As a primary manufacturer, we deliver strict quality grades for advanced downstream integration with full traceability.

    1. Pharmaceutical Intermediate Synthesis

    Pharmaceutical companies use o-dimethoxybenzene for production of key intermediates in anti-inflammatory and anti-tumor active pharmaceutical ingredients (APIs). In medicinal synthesis routes, it acts as a protected aromatic substrate or building block for further functionalization, alkylation, or selective oxidation. Leading players incorporate this raw material into tightly controlled continuous-flow production and batch-QC systems.

    Industry compliance standards

    • ICH Q7 GMP for Active Pharmaceutical Ingredients
    • Ph. Eur./USP compendial quality benchmarks for starting materials
    • FDA 21 CFR Part 210/211 (cGMP regulations)
    • European Medicines Agency (EMA) raw material documentation

    Typical usage ratio

    • Empirical ratios from 8% to 18% molar basis in multi-step syntheses depending on target impurity profile and process yield optimization
    • Adjusted based on downstream transformations and process validation results

    Downstream process integration

    • Charged in initial condensation or etherification step with protected functional groups
    • Subjected to further nitration, halogenation, or Friedel–Crafts reactions in automated reactor trains

    Final product types

    • Naproxen intermediates
    • Cancer therapy intermediate compounds
    • Custom small-molecule building blocks for contract research organizations (CROs)
    • Raw materials for API scale-up development

    2. Agrochemical Formulation

    Leading crop protection product manufacturers utilize o-dimethoxybenzene as a specialty intermediate to produce specific fungicide and herbicide molecules. It enables selective modification of aromatic rings in synthetic pathways, supporting the development of new active molecules with improved residue and environmental profiles. Highly regulated agrochemical plants demand batch-traceable supply and process-specific material purity.

    Industry compliance standards

    • FAO/WHO Guidelines for the Quality Control of Pesticides
    • ISO 9001:2015 for quality management in agrochemical production
    • REACH chemical registration (EU)
    • China ICAMA pesticide registration specifications

    Typical usage ratio

    • Primarily 3%–7% molar ratio as an intermediate in multi-step synthesis
    • Adjusted according to synthetic route and crop protection activity requirements during pilot plant scale-up

    Downstream process integration

    • Introduced in the aromatic etherification stage or as a masked phenol group in active ingredient backbone assembly
    • Subsequent transformation and purification before formulation blending

    Final product types

    • Benzimidazole-based fungicides
    • Triazole herbicide intermediates
    • Custom active ingredient scaffolds for new pesticide registrations
    • Seed coating specialist chemicals

    3. Custom Dye and Pigment Manufacturing

    Producers of specialty dyes and high-performance pigments use o-dimethoxybenzene to develop colorant molecules for plastics, fibers, and printing inks. It serves as a precursor for methoxy-substituted aromatic pigments, which offer improved lightfastness, chroma, and solubility performance. Downstream processes require strict batch color consistency and purity monitoring for large-scale masterbatch and dispersant production.

    Industry compliance standards

    • EN 71-3 safety requirements for toy colorants
    • OEKO-TEX Standard 100 for textile chemical inputs
    • ISO 787-24 (Methods of test for pigments and extenders—Colorimetry)
    • REACH Annex XVII for restricted substances in colorants

    Typical usage ratio

    • Used at 4%–12% molar ratio in aromatic coupling or diazotization schemes for azo or anthraquinone pigment synthesis
    • Varies based on desired chromophore substitution and product grade (automotive, textile, or inkjet dye)

    Downstream process integration

    • Added at condensation or etherification step in pigment molecule assembly
    • Supports sidechain introduction and tuning of electronic absorption properties

    Final product types

    • High-chroma yellow and orange azo colorants
    • Soluble organic pigments for plastics
    • Dispersible dyes for industrial inkjet printing
    • Synthetic colorants for technical fiber applications

    4. Fine Fragrance and Flavors Ingredient Production

    Manufacturers of fine fragrances and flavors employ o-dimethoxybenzene as a key building block for complex aroma chemicals, esters, and perfumes. It contributes selective methoxy group introduction to aromatic cores, enhancing odor stability, volatility, and sensory profile of perfumery bases. International compounding houses rely on precisely controlled grades and impurity levels in accordance with food and cosmetic safety systems.

    Industry compliance standards

    • IFRA Code of Practice for fragrance ingredient safety
    • US FDA 21 CFR for food contact substances (where applicable)
    • ISO 9001 for flavor and fragrance compounding
    • EU Cosmetics Regulation (EC) No 1223/2009

    Typical usage ratio

    • Formulators use at 0.5%–5% w/w in aroma chemical reaction charges depending on desired volatility and odor impact
    • Concentration adjusted by sensory panel profiling and downstream compatibility with fixatives and accessories

    Downstream process integration

    • Charged at methylation or etherification stages to construct the desired aromatic ether
    • Undergoes subsequent esterification, acetylation, or integration into reaction mass for blending

    Final product types

    • Ortho-methoxy aromatic esters
    • Fine perfume compounding bases
    • Flavor intermediates for processed foods
    • Fragrance components for detergents and home care sprays

    5. Advanced Polymer and Resin Modifier Synthesis

    In the specialty polymer sector, manufacturers use o-dimethoxybenzene as a monomer modifier for high-performance plastics and resins. Its aromatic ether structure provides improved polymer backbone flexibility, dielectric balance, and thermal resistance, especially for electronic encapsulation and engineering material applications. Stringent process controls and advanced QC systems routinely monitor incorporation efficiency and residual content in final resin systems.

    Industry compliance standards

    • UL 94 standard for plastics flammability testing
    • ISO 9001 for specialty resins manufacturing
    • IEC 61249-2 standards for base materials in printed circuit boards
    • RoHS Directive 2011/65/EU for electronics components

    Typical usage ratio

    • Typically 0.5%–3% by weight as a co-monomer or chain modifier in functionalized resin synthesis
    • Adjusted for performance in thermal stability and mechanical property testing

    Downstream process integration

    • Introduced during pre-polymerization resin functionalization step
    • Typically reacts with di- or tri-functional monomers in the melt, solution, or suspension polymerization process

    Final product types

    • Encapsulation resins for PCBs
    • Moldable high-temperature plastics
    • Flexible electronic insulating materials
    • Specialty adhesives for automotive and consumer electronics

    Free Quote

    Competitive O-Dimethoxybenzene prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    O-Dimethoxybenzene: A Practical Solution With Reliable Results

    Introducing O-Dimethoxybenzene

    O-Dimethoxybenzene, also known as 1,2-dimethoxybenzene or veratrole, takes its place in our product range as a dependable aromatic ether, recognized for its versatility and performance. Chemical manufacturing demands solutions that perform under pressure, in both small-batch research and full-scale production settings. Over the years, our operations have relied on O-Dimethoxybenzene for its notable purity, straightforward handling, and consistent quality. Its molecular formula, C8H10O2, makes it a compact yet impactful intermediate for a variety of end uses.

    Understanding Our Standards

    Supplying O-Dimethoxybenzene isn't simply a matter of sourcing and packaging. Each batch we produce undergoes GC testing to confirm purity beyond 99%. Appearance and odor don’t always tell the full story; residual water content and trace impurities matter when downstream processes turn sensitive. Each bottle or drum shipped out meets the same thresholds that we use for our own internal synthesis and development. Our standard model supports requirements ranging from a few grams for research to multiple tons for industrial needs.

    Applications That Rely on Real-World Performance

    O-Dimethoxybenzene works as an intermediate in synthesizing pharmaceuticals, agrochemicals, high-performance polymers, and complex dyes. In practice, its methylation pattern allows for controlled reactions during aromatic substitution. In the lab, its reactivity opens doors for ortho-directed metalation and can anchor multi-step synthesis where protecting groups must yield clean separations. In plant settings, it helps achieve batch-to-batch reproducibility with fewer cleanup demands, supporting process safety. Demand from manufacturers of antioxidants and UV stabilizer additives reflects the compound's ability to integrate into core chemical frameworks.

    We find particular value in O-Dimethoxybenzene during Grignard and Friedel-Crafts reactions, where its stability cuts side reactions and lowers yield loss. On the catalyst front, its electron-donating methoxy groups make it a practical substrate when exploring oxidative coupling and C-H activation. In our experience, it poses fewer handling issues compared to more substituted aromatic ethers. End-users working with phenolic resins or in total synthesis consistently select it where predictability matters.

    Purity, Handling, and Storage Considerations

    Each shipment leaves our site in HDPE or glass-lined steel containers, with vapor-tight caps minimizing exposure and loss. O-Dimethoxybenzene's boiling point—around 206°C—enables distillation without excessive decomposition, lending itself to recycling and closed-loop systems. Its relative resistance to oxidation translates to superior shelf stability, even after multiple transfers or partial use. For less experienced handlers, this characteristic reduces the likelihood of off-odors or unexpected byproducts. From our side, we advise storing the product in cool, dry, and well-ventilated areas, away from strong oxidizers or light sources. For those scaling up, available bulk pack sizes streamline drum changeouts, lowering the risk of contamination during transfer.

    We take regular feedback from technicians running both pilot and continuous production lines. They regularly cite the low-hazard, manageable nature of O-Dimethoxybenzene, contrasting it with compounds featuring free phenolic or amine groups, which often require more intensive ventilation or special equipment. Maintenance and downtime decrease thanks to fewer deposits in piping or vessels compared with less stable ethers. This is a point often overlooked in datasheets yet critical in practical use.

    What Sets O-Dimethoxybenzene Apart?

    Chemical manufacturers often debate the best aromatic ethers for their operations. O-Dimethoxybenzene stands out against meta- and para-dimethoxybenzene analogues due to its ortho-substituted structure. This impacts both reactivity and selectivity in follow-on chemistry, including regioselective transformations and protective group tactics. The proximity of methoxy groups strongly influences outcomes in both nucleophilic aromatic substitution and electrophilic aromatic substitution schemes. In practice, this translates to fewer steps or simpler purification in complex multi-step production routes.

    For users accustomed to working with anisole or other monomethoxy aromatics, O-Dimethoxybenzene provides enhanced electron density and positional control. In methylation-sensitive pathways, its reactivity profile can suppress formation of unwanted side products. We see material efficiency gains on our own lines when substituting it for less substituted aromatics. Customer case studies have reported measurable reductions in both solvent consumption and reaction time due to the compound’s higher solubility and compatibility with standard solvents—glycols, chlorinated hydrocarbons, and ethers all maintain strong performance benchmarks.

    Comparisons to Alternatives

    Within our range, O-Dimethoxybenzene occupies a middle ground between high-reactivity, low-boiling ethers and heavily substituted aromatics with limited versatility. Unlike tri- or tetra-methoxybenzenes, which sometimes introduce steric hindrance and purification headaches, this compound delivers a balance of reactivity and manageability. Handling metrics on our shift reports show fewer incident logs associated with spills or process hiccups, a consequence of its manageable vapor pressure and consistent physical properties. This is a detail that sometimes flies under the radar in office discussions, but it makes a marked difference on production floors.

    We continually review usage data and product feedback. Customers operating high-throughput syntheses often comment on the lower maintenance requirements—heat exchangers and filters see less fouling, and purification systems don't need as frequent adjustment compared to runs using heavily chlorinated or sulfur-based intermediates. Our internal QC team logs less particulate contamination and more stable assay results, supporting our commitment to delivering material that performs across a wide spectrum of applications.

    Focusing on environmental impact, O-Dimethoxybenzene emits fewer volatile organic compounds during handling than some lower-boiling ethers, supporting plant air quality and compliance with more stringent emission controls. The relative ease of removal from waste streams, compared to polycyclic ethers or halogenated analogues, aids closed-cycle recovery. These points matter as plants continue integrating green chemistry principles and respond to evolving regulatory scrutiny.

    O-Dimethoxybenzene in Research and Development

    Years of internal work with O-Dimethoxybenzene reinforce its value at the bench and in pilot stages. R&D teams appreciate its reproducibility across a range of synthetic protocols. Its behavior in lithium-halogen exchange, Suzuki coupling, and transition-metal-catalyzed cross-coupling aligns closely with predictability expectations. We’ve noted sharper NMR spectra and cleaner chromatographic separations when compared to other substituted benzenes—an underappreciated but valuable property for those troubleshooting stuck reactions.

    Our own chemists prefer this compound for developing building blocks used in new materials, specialty coatings, and catalyst supports. The straightforward scalability from gram-level syntheses to kilo-scale batches reduces delay and engineering headaches. Compliance officers value its regulatory profile, especially regarding REACH and GHS status, easing the documentation burden during audits or transport. The end result: less time spent on remediation, more time advancing process improvement initiatives.

    In collaborative customer projects, we've run side-by-side process trials: O-Dimethoxybenzene consistently brings forward higher yields and easier process control, particularly where pH variation poses a risk or where trace metal contaminants can derail catalyst performance. This isn’t merely a footnote in annual reports—it’s a real contributor to keeping project budgets and timelines on track.

    Challenges and Solutions in Sourcing and Logistics

    No material comes without challenges, and sourcing O-Dimethoxybenzene at scale requires planning and vigilance. Supply chain fluctuations arise from shifts in demand for precursor materials, including catechol and aromatic methylating agents. Over the years, we've learned that running parallel supply sources and holding buffer inventory cushions against sudden outages and raw material spikes. Staff training on safe handling and transfer pays off in reducing bottlenecks at decanting and blending stages.

    From a logistics perspective, temperature stability during long-haul shipment and storage supports the product’s shelf stability and helps keep returns and quality claims low. We developed in-house procedures for rapid sampling at receipt and outbound transport, making sure each container matches the batch certificate and user needs. Adhering to proper container filling ratios and tight stowage prevents leaks or vapor loss, further safeguarding against material loss during transit.

    Sustainability and Regulatory Compliance

    Complying with evolving sustainability and safety standards shapes both our internal workflows and recommendations to partners. With O-Dimethoxybenzene, integrating closed-loop distillation units has cut solvent input by over 15% across some of our product lines. Waste minimization doesn’t just support environmental benchmarks—it makes economic sense, freeing capacity for expanding synthesis of specialized intermediates. Employee feedback from plant audits emphasizes the importance of keeping chemical inventories clean, secure, and well-labeled, supporting both regulatory compliance and process efficiency.

    Documentation stacks matter. Safety data, regulatory filings, and export documents reflect our operational realities. REACH and TSCA listings, combined with updated GHS labeling, streamline customs clearance and hazard communication in every region we serve. Our on-site chemists and regulatory experts regularly revise training protocols to address new findings in occupational safety or environmental risk, maximizing the practical utility of O-Dimethoxybenzene in modern manufacturing.

    Perspective From Years on the Plant Floor

    Looking at O-Dimethoxybenzene through the lens of a manufacturer’s day-to-day operations, lessons learned run deeper than any data sheet can suggest. Reliable reaction outcomes begin with reliable raw materials. When a compound keeps reactivity manageable, speeds up clean-up, and minimizes special storage needs, line workers and process operators notice the difference in their routines. Maintenance staff log fewer filter changes and less corrosion in equipment, especially where other aromatic ethers might lead to build-up or fouling.

    Plant managers appreciate the flexible order volumes: managing just-in-time inventory without being pushed into inefficient order cycles. Shifting production schedules and batch sizes demands trust in supply reliability and consistent quality, not just technical compliance. O-Dimethoxybenzene helps plant teams deliver both without stretching resources thin.

    In our own process development, O-Dimethoxybenzene has contributed to reducing troubleshooting time. Problems stemming from batch-to-batch variability, solvent residues, or inconsistent reaction yields grow less frequent. This experience shapes our confidence in recommending the product to other technical teams navigating new product launches, scale-ups, or efficiency pushes.

    Future Directions: Ongoing Improvement

    Driven by demands in electronic materials, advanced pharmaceutical intermediates, and specialty coatings, our approach to O-Dimethoxybenzene continues evolving. We see clear advantages in digital inventory tracking, sample retention plans, and process analytics to assure that every outgoing shipment delivers as promised. Our R&D teams keep exploring next-generation derivatives that leverage the ortho-dimethoxy structure for greater selectivity, environmental compatibility, and process efficiency.

    We track customer feedback in every operational cycle. While regulatory compliance and documentation support keep climbing in importance, on-the-ground users value transparency, technical support, and rapid answers to complex handling or substitution questions. As customers adjust to new quality and environmental standards, we adjust our protocols and quality systems, keeping trust and communication open.

    Commitment to Quality and Practical Use

    For chemical manufacturers, purchase decisions carry consequences across cost, throughput, and workplace safety. Our experience with O-Dimethoxybenzene proves that informed choices—supported by hands-on data, technical rigor, and operational feedback—deliver the best outcomes. Every batch reflects years of internal refinement, process optimization, and ongoing dialogue with end-users.

    O-Dimethoxybenzene stands as more than a reagent or intermediate: it anchors critical steps in production schemes that power modern industry, research, and new product development. Reliable physical properties and reactivity, combined with safe handling and consistent performance, keep it central in our operations and those of our long-term partners. Investing in quality sourcing, safe practices, and open technical support keeps us ahead in delivering material that works under real manufacturing conditions.