3-Nitroanisole

    • Product Name: 3-Nitroanisole
    • Alias: m-Anisole
    • Einecs: 210-627-4
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    671496

    Chemicalname 3-Nitroanisole
    Molecularformula C7H7NO3
    Molarmass 153.14 g/mol
    Casnumber 591-20-8
    Appearance Yellow to pale orange crystalline solid
    Meltingpoint 39-41 °C
    Boilingpoint 273 °C
    Density 1.25 g/cm³
    Solubilityinwater Slightly soluble
    Refractiveindex 1.599 (at 20 °C)
    Flashpoint 120 °C
    Smiles COC1=CC(=CC=C1)[N+](=O)[O-]

    As an accredited 3-Nitroanisole factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 3-Nitroanisole is supplied in a tightly sealed amber glass bottle, labeled with hazard symbols, containing 500 grams of the chemical.
    Shipping 3-Nitroanisole should be shipped in tightly sealed containers, protected from moisture and heat. It must be clearly labeled as a hazardous material, handled according to local and international regulations. Shipping should comply with standards for toxic substances, using appropriate safety precautions to prevent leaks or accidental exposure during transit.
    Storage 3-Nitroanisole should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances such as strong oxidizers and acids. Protect from light and moisture. Store it in a chemical storage cabinet designed for flammable or hazardous materials, and ensure all containers are clearly labeled.
    Application of 3-Nitroanisole

    Applications of 3-Nitroanisole in Industrial Manufacturing

    As a specialized producer of 3-nitroanisole, we support leading manufacturers through its established integration in advanced synthesis workflows. Our materials meet stringent industry-specific requirements for safety, quality, and traceability. Below, we present primary downstream segments where 3-nitroanisole plays a functional, formulation-critical role.

    1. Pharmaceutical Intermediate Synthesis

    In pharmaceutical API production, 3-nitroanisole acts as a key building block during the preparation of certain analgesics, antipyretics, and antimicrobial agents. Synthesis labs introduce this raw material during early-stage aromatic substitution to facilitate nitro-group retaining reactions, contributing to high-purity intermediates necessary for regulated pharmaceutical processing. Process engineers typically monitor strict handling and documentation for use in regulated environments where product genealogy and batch traceability are essential throughout multichemical synthesis rounds.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for APIs
    • USP and EP pharmaceutical ingredient monographs (for trace/intermediate handling)
    • 21 CFR Part 210/211 for controlled processing and documentation
    • ISO 9001:2015 for Quality Management Systems

    Typical usage ratio

    • Typically 15–30% of initial molar feedstock, adjusted for downstream yield and target compound complexity

    Downstream process integration

    • Charged in the initial condensation or nitration reactor stage as a reactant, after pre-dissolution in aprotic solvents or aqueous base

    Final product types

    • Bulk pharmaceutical intermediates (e.g., methoxy-substituted aniline derivatives)
    • APIs such as paracetamol precursors
    • Intermediate compounds for anti-infective synthesis (custom routes)

    2. Agrochemical Intermediate Manufacturing

    Within agrochemical plants, 3-nitroanisole is introduced as a methylated aromatic nitro donor for the stepwise construction of herbicide and fungicide actives, particularly those requiring aromatic ring modification with nitro/methoxy functionality. The ingredient supports industrial reactors where controlled kinetics improve throughput and byproduct minimization. Technical experts maintain compliance with national pesticide ingredient standards and record trace residuals for product stewardship.

    Industry compliance standards

    • FAO/WHO Specification for Pesticide Technical Raw Materials
    • REACH (EU) Registration for agrochemical use
    • China GB2763 Maximum Residue Limits (MRLs) for agrochemicals
    • ISO 17025 Quality Accreditation for analytical control

    Typical usage ratio

    • As intermediate: 10–20% weight of active ingredient precursor batch, depending on structural conversion requirements

    Downstream process integration

    • Fed as a starting substrate in aromatic substitution or reduction units after blending into solvent carrier(s)

    Final product types

    • Herbicide intermediates (e.g., methylated phenols, anilines)
    • Fungicide key intermediates
    • Aromatic nitration derivatives incorporated in formulation bases

    3. Dye and Pigment Intermediate Production

    Colorant producers employ 3-nitroanisole in the manufacture of azo, anthraquinone, and methoxy-substituted dye intermediates, where controlled aromatic substitution and diazotization benefit from its stable nitro group and methyl ether functionalities. Color laboratories introduce it to preparative vessels at closely managed rates to influence hue intensity, solubility, and downstream coupling efficiency, ensuring compliance with textile and plastics dye standards for purity and color fastness.

    Industry compliance standards

    • Oeko-Tex Standard 100 (safety for textile applications)
    • EU REACH Chemical Safety Reporting
    • ISO 105-A02: Textile color fastness standards
    • EN71-3:2019 (for use in toy material coloring, where applicable)

    Typical usage ratio

    • Azo dye intermediates: 5–12% of total batch, modulated based on desired chromophore and shade

    Downstream process integration

    • Dosed into primary aromatic nitration/methylation steps or as a methoxy source prior to diazotization/coupling

    Final product types

    • Azo dye/mordant dye intermediates (for polyester, wool dyes)
    • Methoxybenzene pigment precursors
    • Specialty colorants for inks and plastics resin masterbatch

    4. Advanced Organic Synthesis (Specialty Chemicals)

    Chemical process companies utilize 3-nitroanisole as a targeted reagent for custom aryl ether building blocks, especially when manufacturing high-value performance materials, electronics-grade compounds, and complex organic intermediates. Synthesis chemists rely on its defined reactivity for step-efficient transformations in batch or continuous-flow processes, strictly monitoring for residual levels to support downstream reactions demanding minimal impurity carryover, often under ISO-certified GMP regimes specific to advanced materials production.

    Industry compliance standards

    • ISO 9001:2015 for documented quality protocols
    • Chemical Hazard Communication Standard (OSHA 29 CFR 1910.1200)
    • RoHS (EU Directive 2011/65/EU) and halogen content limitations (for electronics applications)
    • Company-specific GMP procedures if integrated into regulated processes

    Typical usage ratio

    • Ranges from 7–15% molar equivalence, guided by stoichiometric and process yield calculations for each specialty synthesis

    Downstream process integration

    • Added to multi-step organic transformation reactions, either as an etherification or nitro-functionalization intermediate, following in-situ solvent substitution as needed

    Final product types

    • Performance organic intermediates for polymer electronics
    • Custom synthesis blocks in contract R&D
    • Precursors to aryl ether specialties (e.g., advanced monomers or protecting-group chemistry components)

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    Certification & Compliance
    More Introduction

    Introducing 3-Nitroanisole: A Reliable Choice for Advanced Chemistry

    Understanding 3-Nitroanisole from a Manufacturer’s Perspective

    3-Nitroanisole has supported production lines for decades, bridging gaps in chemical synthesis and powering a range of important downstream applications. As a long-standing manufacturer, we craft this compound with a sharp focus on consistent quality, delivering reliability batch after batch. Many who approach us ask about its origins and why chemists often reach for this particular nitroaromatic. The answer stretches beyond purity, touching real-life needs that match our everyday experience in the plant.

    Core Qualities That Matter in Manufacturing

    Our product features a deep yellow to pale brown crystalline appearance—evidence of a process tuned for stability and accuracy. Workers know that even minor deviations in color or melt point can spoil a full day’s batch or introduce unintended variability downstream. Each lot we make is verified for purity (99% minimum, typically confirmed by GC), melting range, moisture, and insoluble matter. These checks are not just for show; small flaws will echo through further steps, whether someone is using 3-nitroanisole in laboratory development or on an industrial scale. Every sample comes from production lines where hourly attention ensures solvents, catalysts, and temperature stays within narrow bands, monitored by a team that has seen what happens when shortcuts tempt faster results.

    Speculation and Questions on Its Use

    People often ask, “Why not use similar nitrobenzenes or related methoxy compounds instead?” The answer usually comes down to specificity in physical and chemical properties. 3-Nitroanisole (O-methoxy-nitrobenzene) gives a unique reaction profile compared to isomers such as 4-nitroanisole or 2-nitroanisole. Positioning of the nitro and methoxy groups tunes reactivity, affecting everything from nucleophilic substitution to reduction or diazotization steps. Chemists who switch products midstream can watch yields fall or impurity loads skyrocket. Our own staff has rescued more than one client from “easy swap” attempts that quietly derailed months of optimization. Even an extra fraction of unreacted traces—detected by TLC or HPLC—tells the story; these subtle differences reshape batch output and downstream cost.

    Appreciating Its Value in Real-World Synthesis

    The world sees 3-nitroanisole as a stepping stone to specialty dyes, antioxidants, agricultural intermediates, or pharmaceuticals. It stays in demand for its role in complex coupling reactions, where the placement of that methoxy group boosts selectivity and yield in azo dye synthesis. One classic path passes from 3-nitroanisole to 3-aminoanisole through catalytic hydrogenation. That amine then becomes a backbone for many final products—including several APIs and colorants manufactured regionally. The value of our product for downstream users comes out during scale-up, where poor-quality material will bleed costs through repeated purification or wasted raw materials. When we studied customer feedback, clients emphasized time and resource savings when starting with high-purity 3-nitroanisole—sometimes cutting production costs by as much as 20 percent compared to variable supplier blends. This isn’t theory; process engineers see it each quarter on their material balances.

    Why Attention to Manufacturing Really Counts

    On the shop floor, controlling the synthesis of 3-nitroanisole means managing a careful balance. We rely on nitration, temperature-sensitive and exothermic, requiring trained operators to guide acid mixtures and safeguard both product yield and worker safety. Technicians understand that incomplete reaction means more than a paperwork headache—it invites downstream contamination. The process washes, distills, and tests each lot so contaminants such as unreacted anisole or over-nitrated byproducts stay well below acceptance thresholds. The whole team has learned that tools matter: using corrosion-resistant glass-lined reactors, and swapping out filters before flow rates drop, keeps product on specification. More importantly, every step is backed by records stretching back years, so regular audits track trends and catch outliers before they impact shipments.

    Environmental and Safety Notice from the Source

    Concerns about nitroaromatic compounds’ impact on people and surroundings need substance, not sales talk. We oversee every step from raw material selection to waste handling. That means solvent recycling, monitored stack emissions, and staff trained to handle both routine and rare incidents. Our facility underwent recent upgrades to reduce fugitive emissions, following both regulatory law and the internal drive that comes from years of seeing what slip-ups cost. Wastewater from synthesis, rich in organics and acids, moves through a multi-stage treatment line before leaving the plant. Operators know that missed steps translate into regulatory trouble and, more importantly, local trust lost. We have experienced more than once how rapid information sharing and practical hazard response courses keep small mistakes from growing. In practice, environmental performance means public transparency, more frequent monitoring, and upgrading older lines rather than waiting for a complaint.

    Difference in Supply – What Makes 3-Nitroanisole Stand Out

    Modern buyers compare products line by line, expecting analytical data to guarantee substitution. Yet differences go deeper than numbers. Years spent making 3-nitroanisole has shown how a compound’s behavior traces back to each processing detail, from the purity of hydrogen gas used in reduction steps, to fractionating distillation columns calibrated to a tight temperature profile. Poor distillation brings in high-boiling residues or cuts the recovery of desired fractions. Having control—every valve, every temperature rise—lets us offer lots where analysts easily verify composition down to ppm levels. It runs far beyond formaldehyde, acidity, or residual solvents on a test sheet. Finished batches receive storage and handling that keeps them within temperature and humidity bands; shipping uses containers compatible with the material’s chemical nature, stopping both loss and contamination in transit. More than once, we traced shipment problems not to production, but to handling after the product left the factory. A tightly integrated supply structure shortens rework and gives customers confidence.

    The Human Element—Experience in Each Drum

    Making 3-nitroanisole asks for more than textbook know-how. Operators learn from experience—how to judge reaction progress by smell, color, and viscosity, picking up clues machines sometimes miss. The best results come when each technician invests in a process as if their own paycheck depends on every kilogram delivered right. Over the years, the plant has seen teams improvise on the fly, responding to raw material shifts or sudden energy changes, and still meeting both output and quality promises. New employees learn not only from training manuals but also from walking the line with veterans whose eyes catch slight deviations long before alarms sound. That tradition, handed down, has prevented more trouble than any software package could document.

    Addressing Typical Challenges in Manufacturing and Use

    Manufacturers deal with constraints—rising energy costs, variable raw prices, and evolving safety guidelines. Handling aromatic nitro compounds calls for safeguards at each phase, not just at the end of the pipe. We redesigned sections of the synthesis loop, retrofitting nitrogen blanketing and real-time monitors, after reviewing incident logs from across the sector. Cost-cutting by skipping checks or extending equipment lifespans proved false economies after a few minor leaks or a failed gasket. Instead, investment in modern reactors and in-process sampling lets us tighten inventories and respond faster to customer needs. End-users sometimes ask for tailored physical profiles—fine powders or larger crystals to match their batch reactors or blending procedures. Shifts in demand or formula often lead us to batch-specific adjustments, drawing on decades of process notes and reaction data. This approach has built up a library of lessons, helping us work alongside customers who may only use a few tons a year but depend on trouble-free results.

    Comparative View with Related Aromatic Compounds

    The chemical sector offers a wide choice in aromatic nitro derivatives, but 3-nitroanisole stands alone in how it balances solvency, reactivity, and aromatic core modification. Unlike 2-nitroanisole, whose ortho effect shifts reactivity and handling, this compound gives predictability for electrophilic and nucleophilic additions. Its methyl ether function stabilizes the ring, offering improved yields for downstream reactions compared to unsubstituted nitrobenzenes. End-users report smoother processing, fewer byproduct concerns, and easier purification. The meta-nitro substitution distinctly differentiates reactivity compared to para or ortho isomers; these molecular-level details show up in analytical notes, but also day-to-day lab or plant troubleshooting. Some dye and pharmaceutical intermediates strictly require this configuration; alternate isomers mean whole new optimization cycles for process engineers.

    Process Sustainability—A Priority, Not an Afterthought

    Sustainable manufacturing today means choices at every corner—choosing greener solvents, improving energy capture, and tracking emissions not just for audits but as a matter of daily pride. Over the years, we have tested bio-based feedstocks and alternative nitration routes, sharing experience at sector forums and learning from other operations’ pilot failures and breakthroughs. Modifications to the conventional process are not always smooth: untested inputs can bring in new impurities or complicate work-up and purification steps. Our plant incorporates waste heat recovery in the nitration step, using excess energy elsewhere in the facility. Technicians participate in choosing upgrades, knowing they will use each new pump or reactor. This investment in both people and process suggests sustainability must go hand in hand with reliability, especially as more downstream users request eco-profile data or carbon disclosure.

    Practical Solutions for Better Handling and Application

    Proper use of 3-nitroanisole in downstream synthesis starts at the point of transfer. We counsel customers—whether they work on pilot lines or full-scale manufacture—to avoid prolonged exposure to air and light, which over time may shift color or generate trace impurities. Our shipment solutions focus on reducing oxygen ingress and temperature swings. On site, recommended closed transfer systems and minimal handling reduce volatilization or contamination. For larger operations, integrated pump and controller assemblies matched to container size have proven most effective in limiting operator exposure and reducing waste. As a practical tip, users observe that warming the material uniformly (never directly, always in a controlled water bath) ensures consistent melting or dissolution. We share worked examples of batch preparation, resulting from both internal trials and joint tests with experienced clients, and welcome feedback that feeds back into upgraded procedures and product handling guides.

    Client Concerns—What Really Matters in Choice and Use

    Feedback shapes our ongoing improvement. Clients often share questions about batch repeatability, impurity load, and long-term stability—especially for pharmaceutical or dye intermediates where failures can mean weeks of downtime. Older generation products sourced from inconsistent channels introduced both color and odor problems that complicated GMP compliance. We moved to tighter lot release criteria and enhanced analytical reporting, tracking more than standard purity and moisture—monitoring trace metals, solvent residues, and thermal stability profiles. This level of control means users can lock in process specifications, cut validation times on new product lines, and assure end-market compliance. Clients who have switched from alternative suppliers often report not just higher yield but reduced labor in clean-up and maintenance, as more consistent feedstocks keep equipment running longer. Our own experience shows that a failed batch at the user site hurts both reputation and future business, so preventive control beats high-volume churn every time.

    The Story Behind the Drum—Why It’s Worth Knowing Your Manufacturer

    Knowing who makes your chemicals can matter more than the certificate or datasheet. Over years of operation, we have built up a knowledge base about 3-nitroanisole—from optimal method for group nitration to troubleshooting shipment delays due to weather or global events. This background helps smooth the process from order to end use. Long-term relationships with clients mean we respond to urgent batch requests or special documentation within hours, not days. Our technical group takes pride in solving application issues, from melting point drift to trace impurity removal, by visiting sites or troubleshooting remotely. This collaboration has helped several customers switch production assets from legacy feedstocks to cleaner, safer, and easier processing with our 3-nitroanisole. More than one user credits these improvements not just to molecular purity but to steady dialogue and support. That is the difference a chemical producer with operating history and technical know-how can offer.

    Looking Forward—What Continuous Improvement Means for 3-Nitroanisole

    The field does not stand still. Rising standards for purity, environmental performance, and documentation demand constant upgrades. We actively track advances in process chemistry, alternative green reagents, and new detection technologies. Piloting new analytical tools lets us flag even lower level impurities, responding to requests from high-spec end-users. Energy audits drive maintenance schedules, with a view to both cost and reliability. Our regular review cycles test not only process innovations but also backup systems, ensuring delivery deadlines withstand market volatility. Experience says each improvement—large or small—reduces risk and strengthens business relationships. When a plant backs its promises with both old-school skill and the latest process data, buyers notice and return. These are the actions that underpin value, not just the numbers in a standard assay or published certificate.

    A Manufacturer’s Commitment to Consistency and Performance

    Every kilogram of 3-nitroanisole shipped reflects years of trial, adjustment, and close attention. End-users rely on us to deliver what’s specified, but also what’s needed—material that supports them through scale-up, regulatory review, or unexpected supply chain disruptions. Open channels for feedback, steady investment in infrastructure, and a culture of hands-on accountability shape every lot that leaves the factory. In our view, chemistry flourishes where trust and transparency allow innovation and reliability. That is why each drum tells not just the story of a product but also the people behind it, from operators running the nitration to technicians checking purity, and logistics staff ensuring prompt, safe delivery. Anyone choosing 3-nitroanisole for their process—whether for dyes, pharma, or specialty organics—benefits from the same dedication to practical excellence and honest business, built up through years of direct manufacturing experience.

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