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O-Nitroethylbenzene

    • Product Name O-Nitroethylbenzene
    • Alias 1-Nitro-2-phenylethane
    • Einecs 210-692-4
    • 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

    211414

    Iupac Name 1-(2-nitroethyl)benzene
    Cas Number 612-21-1
    Molecular Formula C8H9NO2
    Molar Mass 151.17 g/mol
    Appearance Colorless to pale yellow liquid
    Melting Point -6 °C
    Boiling Point 255-258 °C
    Density 1.14 g/cm³
    Solubility In Water Insoluble
    Flash Point 112 °C
    Refractive Index 1.544
    Smiles CC(C1=CC=CC=C1)[N+](=O)[O-]

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

    Packing & Storage
    Packing 250 mL amber glass bottle with screw cap, labeled “O-Nitroethylbenzene.” Includes hazard symbols, lot number, and safety instructions.
    Shipping O-Nitroethylbenzene should be shipped in tightly sealed containers, protected from light, heat, and incompatible substances. Transport must comply with hazardous material regulations, including proper labeling and documentation. Use appropriate packaging to prevent leaks or spills, and ensure handlers wear suitable personal protective equipment during loading and unloading procedures.
    Storage O-Nitroethylbenzene should be stored in a tightly closed container in a cool, dry, well-ventilated area, away from heat sources, direct sunlight, and incompatible substances such as strong oxidizers and reducing agents. Keep the chemical away from open flames and static discharge. Store at ambient temperature and ensure that all storage areas are clearly labeled and secure to prevent unauthorized access or accidental release.
    Application of O-Nitroethylbenzene

    Applications of O-Nitroethylbenzene in Industrial Manufacturing

    We produce O-Nitroethylbenzene to meet the technical demands of chemical syntheses that require stable nitroaromatic intermediates. Our material integrates into select downstream lines where it delivers process efficiency and meets strict compliance standards for specialty and fine chemicals. The following sections detail actual use scenarios within industrial sectors relying on high-purity, spec-controlled aromatic intermediates.

    1. Agrochemical Active Ingredient Synthesis

    Leading agrochemical manufacturers utilize O-Nitroethylbenzene as a key intermediate for synthesizing specific substituted anilines and benzimidazole derivatives that function as fungicides or herbicide agents. The aromatic nitro group provides reliable reactivity in catalytic hydrogenation and subsequent derivatization steps, unlocking high-yield conversion rates for end-use actives. Strict raw material quality control ensures regulatory acceptance and process consistency during scale-up formulations.

    Industry compliance standards

    • REACH Regulation (EC) No 1907/2006 – Raw material registration and use approval
    • FAO/WHO Specifications for Pesticides – Technical and formulation grade requirements
    • ISO 9001:2015 Quality Management System – Documented supply chain traceability
    • China GB/T 1601 and GB 22254 for intermediate chemicals safety

    Typical usage ratio

    • Intermediate loading: 10-30% by weight in crude reaction blot due to downstream consumption during reduction and substitution phases; ratio adjusted according to target molecule molar requirements and functional group selectivity.

    Downstream process integration

    • Feedstock in catalytic hydrogenation, entering as the nitro precursor to synthetic pipelines for aniline or heterocycle derivative formation; typically processed in batch or semi-continuous stirred reactors before isolation and post-processing.

    Final product types

    • Benzimidazole-based fungicides
    • Selective herbicide intermediates
    • Substituted aniline pesticidal compounds
    • Technical-grade agrochemical active ingredients

    2. Pharmaceutical Intermediate Manufacturing

    Our O-Nitroethylbenzene serves as a critical building block for Active Pharmaceutical Ingredient (API) and API intermediate producers. Manufacturers utilize the nitro group’s transformation capacity for controlled reductions and coupling into aromatic amines, which then form the backbone of specialty molecules used in anti-infective and CNS therapeutic classes. Control of feed impurity levels and detailed batch documentation supports end-user regulatory filings.

    Industry compliance standards

    • ICH Q7 GMP for Active Pharmaceutical Ingredients
    • US FDA 21 CFR Part 211 – Good Manufacturing Practice for Finished Pharmaceuticals
    • European Pharmacopoeia monographs for purity and impurity testing (when converted to actives)
    • ISO 9001:2015 for traceability of raw materials and process QC

    Typical usage ratio

    • 5-15% w/w within the overall reaction mixture, in accordance with API intermediate batch calculations and considering downstream reduction efficiency; precise formulation ratios determined by output yields of target aminated intermediates.

    Downstream process integration

    • Charged to hydrogenation units or reduction reactors for nitro-to-amino group conversion, serving as the immediate precursor to pharmaceutically active aromatic amines; utilizes continuous monitoring during reduction and purification.

    Final product types

    • Aniline-based pharmaceutical intermediates
    • Aromatic amine building blocks for CNS and anti-infective APIs
    • Custom-synthesized fine chemicals for pharmaceutical R&D
    • Bulk pharmaceutical chemical intermediates

    3. Dye and Pigment Industry

    Producers of performance dyes and specialty pigments use our material chiefly as a nitroaromatic intermediate for synthesizing azo dyes and other chromophoric systems. The structured feedstock ensures controlled diazotization and coupling reactions, maximizing color purity and reducing by-product formation. Our consistent supply supports competitive colorant production cycles in both batch and continuous operations.

    Industry compliance standards

    • ISO 9001:2015 for specialty colorant manufacturing
    • EN 71-3 Safety of Toys – migration limits for colorants in toy paints and coatings
    • REACH Annex XVII – Restriction of certain azo compounds
    • China HG/T 5209 Technical standard for organic pigments

    Typical usage ratio

    • 8-25% by weight in the input reaction mass; loading is modified according to the target chromophore type and final pigment shade intensity requirements.

    Downstream process integration

    • Supplied to diazotization units for preparation of diazonium salts, followed by coupling with other aromatic compounds to build the azo dye structure; frequently used in stepwise colorant production (monoazo, disazo synthesis).

    Final product types

    • Azo dyes for textile, paper, and leather sectors
    • Nitro-based pigments for specialty paints
    • Color paste intermediates for inks and coatings
    • High-purity dye intermediates for formulation companies

    4. Fine Chemical Synthesis for Polymer Additives

    Specialty polymer additive producers integrate O-Nitroethylbenzene as a feedstock in the tailored synthesis of nitroaromatic stabilizers and curing agents for high-performance resins. The product enters critical modification reactions enabling the production of custom polymer additives aimed at improving resin performance for end-use in adhesives, coatings, and engineering plastics. Emphasis on stringent raw material lot control ensures additive function consistency.

    Industry compliance standards

    • ISO 14001 – Environmental management for chemical processing
    • EU Directive 2011/65/EU (RoHS) for restricted substances in electronic plastics
    • UL 94 Flammability Standard (for downstream polymer applications)
    • China GB/T 2283 – Organic chemical additive technical requirements

    Typical usage ratio

    • 5-20% by weight in the initial batch, determined via target functional group incorporation levels in the additive synthesis reaction; proportion tuned for specific stabilization or crosslinking effect in finished polymer systems.

    Downstream process integration

    • Reacted in controlled nitration, reduction, or condensation steps to yield functionalized nitroaromatic compounds, subsequently formulated into additive masterbatches or resin blends via compounding or melt extrusion processes.

    Final product types

    • Phenolic/nitroaromatic stabilizers for thermoset resins
    • Curing agents for specialty epoxies and adhesives
    • Color-stabilizing intermediates for engineering polymers
    • Process additives for plastic compounding

    5. Explosive Intermediate Preparation (Industrial Use Only)

    In tightly regulated facilities, O-Nitroethylbenzene enters the synthesis of key explosive and propellant intermediates, especially where controlled aromatic nitration and stability is paramount. This application leverages consistent raw material input and strict process control, as demanded by explosive precursor fabrication and quality protocol in the defense and civil blasting industries.

    Industry compliance standards

    • UN Recommendations on the Transport of Dangerous Goods (Model Regulations)
    • ATEX Directive 2014/34/EU for explosive atmospheres
    • US ATF Federal Explosives Regulations
    • China GB 50058 Code for design of explosives manufacturing plants

    Typical usage ratio

    • 15-40% by mass as a primary ingredient in the controlled nitration step; usage is strictly modulated through process safety calculations and final required energetic molecule yield.

    Downstream process integration

    • Enters as a charge in batch nitration reactors to synthesize dinitro or polynitro derivatives under monitored temperature and agitation, followed by separation, stabilization, and safety validation prior to downstream blending.

    Final product types

    • Energetic intermediates for civil explosives
    • Propellant precursor compounds
    • Industrial blasting additives
    • Military specification energetic intermediates
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    Certification & Compliance
    More Introduction

    O-Nitroethylbenzene: Purpose-Driven Production for Consistent Performance

    Why O-Nitroethylbenzene Matters in Chemical Synthesis

    Chemical manufacturers working with nitroaromatics know the trouble that comes from impure feedstocks or inconsistent reactivity. O-Nitroethylbenzene, as we make it, delivers clear results where precision counts. With its straightforward molecular structure—a nitro group positioned ortho to the ethyl group on the benzene ring—it shows a reliable profile in reactions that depend on controlled substitution or reduction. Every production batch must withstand close scrutiny, because downstream processes in fine chemicals, active pharmaceutical ingredient intermediates, and specialty polymers rely on this stability to avoid surprises during scale-up. From direct lab work to full-scale reactors, our team has watched this product help process engineers keep error margins tight, reaction selectivity high, and material waste in check.

    Our Commitment to Purity and Consistency

    Consistency stands at the core of why customers return. Every O-Nitroethylbenzene lot we ship reflects years spent dialing in temperature profiles, reaction timeframes, and purification cycles. We never cut corners on raw materials; phenylethylene feeds and nitrating agents are qualified against rigorous thresholds. By controlling flow rates and reaction temperatures during nitration, the product reaches a defined color and refractive index long before final rectification.

    Experienced operators—those who’ve run columns late into the night, tested fractions by hand—understand the chain reaction that impurities cause: side products accumulate, distillation columns load unevenly, yields nosedive. Our fractionation trains reduce this risk. Tight cuts, in-line analytics, and careful solvent recovery mean each drum arriving at a user’s plant holds a high concentration of target molecule, not just a minimum specification.

    Understanding O-Nitroethylbenzene’s Place in the Chemical Portfolio

    Not every aromatic nitro compound performs alike. Where para- or meta-substituted nitroethylbenzenes dominate in explosives and dyes, our ortho-variant stands out for its behavior in building block chemistry. Its reactivity remains manageable; there’s no abrupt exotherm during hydrogenations as happens with some higher nitrated compounds. This lets process chemists hold reaction conditions near optimal, rather than bandaging runaway events with excess cooling or diluents.

    The ortho position lends unique selectivity in multi-step syntheses. We’ve seen clients leverage this structure for coupling reactions where regioselectivity counts. There’s less risk of unwanted cross-linking versus the para-isomer—something that saves real time and resource down the chain. Researchers accustomed to working up separations on benchtop quickly notice the minimized byproduct spectrum. This is rooted in how we monitor and adjust every plant run, not just at the end-point.

    Key Physical and Chemical Characteristics

    We keep O-Nitroethylbenzene available as a clear, pale yellow liquid under standard conditions. Typical boiling point falls in the range familiar to workers handling similar nitro compounds, which means it suits established reactor settings and heat exchange parameters. Bulk density, refractive index, and moisture parameters—each measured lot by lot—satisfy strict downstream requirements for predictable distillation and blending.

    Where other sources depend on broader fraction cuts or slacken their purification to keep output high, we favor extra column time. This produces a cleaner distillate and keeps trace impurities below levels that might poison catalysts or complicate formulation. Customers developing hydrogenation routes know how ruthenium, platinum, or Raney nickel proofs can stall when nitroaromatics carry over unknown contaminants. Low sulfur, halide, and residual acid values reduce the risk of unplanned rework, and that’s a lesson we’ve learned through direct feedback from plant chemists and QC labs.

    Safety and Handling Knowledge Earned On-the-Ground

    No seasoned producer treats nitroethylbenzenes lightly. There’s a learned respect baked into the shipping, storage, and in-plant handling routines that only comes with long-term experience. Drums are packed under nitrogen and kept in shaded, temperature-controlled warehouses where atmospheric moisture can’t trigger hydrolysis or decomposition. All transfer lines run with full grounding, checked every shift, so operators stay out of harm’s way.

    Site safety managers review every Material Safety Data Sheet update before the first container leaves the yard. Close work with local regulatory inspectors means our flammable liquid storage never ranks as an afterthought. Factory teams run through spill drills, fire suppression, and ventilation response as standard routine—not because regulators demand it, but because the memory of an unexpected spill always lingers in a real chemist’s mind. Each new foreman and technician learns direct from trainers about cut-resistant gloves, eye protection, and restricted-access areas—this knowledge travels with the product so no one learns the hard way.

    Applications Across Diverse Industries

    O-Nitroethylbenzene plays a quiet but fundamental role in several value chains. For agricultural chemical makers, it’s a favored intermediate for nitroaromatic herbicides or fungicides where other nitro groups might add risk without clear efficacy. In dyes and colorants, the ortho configuration influences shades and fastness; color chemists value this for meeting designer samples or regulatory limits.

    Pharmaceutical formulators choose O-Nitroethylbenzene as a precursor due to its manageable toxicology profile relative to more heavily substituted nitro compounds. Several emerging APIs use it as a starting point; integration with downstream hydrogenation or reduction processes simplifies transfer into aminoethylenes or related moieties. This flexibility allows both research and pilot plants to adjust synthetic targets without needing to overhaul solvent or equipment settings.

    Polymer chemists—especially those working with custom resins and additives—blend O-Nitroethylbenzene for chain extension, modifying flow characteristics in specialty plastics, or tailoring crosslinking density in select adhesives. This kind of targeted molecular modification helps our customers push boundaries in automotive, packaging, and construction materials without slipping outside established safety margins.

    Comparison With Related Nitroaromatics

    Customers fresh to nitroaromatic chemistry often ask about the differences between ortho, meta, and para-nitroethylbenzene isomers. In practical process terms, ortho offers more controlled reactivity. It produces fewer over-oxidized byproducts, especially in reductive processes, than the para version. Solubility in common organic solvents matches or outpaces similar compounds, which opens flexibility for those blending retrofitting processes.

    From a plant operator’s viewpoint, O-Nitroethylbenzene resists spontaneous crystallization—translating to easier pumping and less clogging. Where some less refined sources foam or generate off-gas during bath heating, our product runs quietly through preheated lines, keeping system downtime to a minimum. Contrast this with lower-grade materials that may contain trace metals, excess acids, or polymeric tars: our purification cycle trims those out, leaving a shelf-stable, pumpable liquid that responds predictably in both batch and continuous processes.

    Experienced R&D teams report that selectivity and yield improvements trace back to our product’s low absorption at key UV/vis wavelengths and low particle load—detail that matters most during high-throughput screening or analytical validation. Testers seeing inconsistent chromatography with less pure compounds generally report cleaner, sharper peaks with our O-Nitroethylbenzene, reducing troubleshooting time and unnecessary reruns.

    Production Experience Shapes Reliability

    There’s a marked difference between laboratory preparation and production-scale manufacture of O-Nitroethylbenzene. Our engineers spent early years tracking minor impurities—sometimes just parts per million—that could show up as sticky residues on glassware or subtle color changes in finished goods. That practice embedded a discipline of double-checking everything: calibration, test sample storage, pilot run-up procedures.

    We built our current plant layout to minimize cross-contamination, with process streams dedicated to nitroaromatic units, clean-in-place systems for every major line, and static dissipation technology installed years ahead of industry mandates. Quality control runs with methodical precision—each lot earns approval from at least two cross-trained analysts, comparing GC-MS, HPLC, and IR data to historical trendlines. This tight workflow pulls every batch toward the same end result: a material that doesn’t surprise either bench chemists or reactor operators as scale grows.

    From approach to troubleshooting, our crew never assumes a problem will fix itself. If a distillation deviation or unexpected color forms during final draw-off, we pause, test, and backtrack. Each lesson from prior runs feeds into updated standard operating procedures. The result: we produce O-Nitroethylbenzene with an eye to long-term relationships, not just next-month sales.

    Benefits Grounded in Practical Use

    Clients notice real differences in uptime and throughput. By holding purity steady and sizing shipments to fit their weekly drum usage, they can plan maintenance and output without scrambling for auxiliary purification or late-game blending to bring off-grade material in spec. Less time spent monitoring off-gas, scrubbing columns, or reviewing returned lots means their chemists focus more on core projects, not side fixes.

    Field experience tells us that consistent odor profile, manageable vapor pressure, and balanced solvency combine to make loading, unloading, and batching run smoother. Operators who remember stubborn residues left from off-brand nitroaromatics prefer material that rinses from process lines without endless solvent flushes. This translates directly into saved labor and faster plant changeovers—a metric our downstream partners track closely.

    Solutions for Industry-Specific Challenges

    Specialty manufacturers in regulated spaces face ever-tighter controls over trace metal, halogen, and inorganic residue content. We continually invest in analytical equipment capable of flagging these trace components at sub-ppm levels. As demand ramps up for ever-cleaner intermediates, we adjust our purification stages to stay ahead, adding capacity for re-distillation or charcoal polishing as needed. Rather than waiting for customer complaints, we benchmark each run’s impurity fingerprint against international standards and published customer requirements.

    Startups and established players both benefit from this focus on transparency and responsiveness. Our technical liaisons regularly visit customer plants, not just to deliver product but to review storage, line washing, and handling routines. Many troubleshooting sessions have uncovered fixable bottlenecks—sometimes a matter of repacking a valve or tweaking line temperatures. We’ve learned to share these insights widely, helping others avoid known issues, whether switching from a different isomer or starting new synthesis campaigns.

    As regulatory requirements tighten—whether in Europe, Asia, or the Americas—we update safety and compliance documentation in line with the latest global best practices. By preemptively reducing classified impurities and formalizing documentation, our customers avoid shipment delays, site audits, or unexpected push-back from regulatory authorities. Real-world knowhow trumps generic assurances.

    Continuous Improvement Driven by Direct Experience

    Our journey with O-Nitroethylbenzene reflects more than process control and certificates. We build on direct dialogue with chemists and engineers pushing the compound’s performance in all kinds of applications: some routine, some braving the edge of what’s possible with aromatic nitro chemistry. Each improvement—whether a yield boost at our plant or a troubleshooting session at a partner facility—feeds back into our practice.

    Listening attentively to customer results helps drive these incremental upgrades. Out in the field, small changes—a new pump, a slightly altered solvent composition—can reveal better ways to process, package, and deliver O-Nitroethylbenzene. We learn from these tweaks, passing the benefits along, keeping the product relevant, not just available.

    Investments go toward plant modernization, advanced sensors, and higher-resolution chromatographic analysis not just for compliance, but to predict trends and catch subtleties in batch-to-batch variation before they reach a finished drum. Our legacy in this specialty chemical comes from never assuming “good enough” will do, whether for old customers or those new to working with nitroethylbenzenes.

    Growing with Customers: A Manufacturer’s View

    We stand behind every shipment, knowing the value comes from what’s inside and the knowledge that supports it. Long-term customers rely on product repeatability for both incremental improvements and market innovations. Early feedback from developmental projects and scale-up trials informs adjustments, all carried out by people who have worked hands-on with the product and understand the impact of even minor process changes.

    Distributors and resellers may move volumes, but making O-Nitroethylbenzene—fit for high-critical applications or tight specification jobs—requires a combination of technical patience and pragmatic plant sense. Our knowledge base grows with every question from the field, every post-shipment follow-up, and every new application that stretches what this molecule can deliver.

    Decades making, testing, and improving O-Nitroethylbenzene have reinforced one fundamental lesson: end-product quality depends on care at every stage, from sourcing base chemicals to pumping the final blend into sealed drums. We welcome input from customers and prospects looking for reliable performance, supportive technical dialogue, and a product that won’t falter when the next process change or regulatory hurdle shows up.