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HS Code |
255208 |
| Product Name | Methyl 3-Methoxy-4-Nitrobenzoate |
| Cas Number | 18747-99-8 |
| Molecular Formula | C9H9NO5 |
| Molecular Weight | 211.17 g/mol |
| Appearance | Yellow crystalline solid |
| Melting Point | 108-111°C |
| Solubility | Soluble in organic solvents such as ethanol and methanol |
| Purity | Typically ≥98% |
| Smiles | COC(=O)C1=CC(=C(C=C1)OC)[N+](=O)[O-] |
| Storage Conditions | Store in a cool, dry, and well-ventilated place |
| Synonyms | Methyl 4-nitro-3-methoxybenzoate |
| Hazard Class | Irritant |
As an accredited Methyl 3-Methoxy-4-Nitrobenzoate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White plastic bottle labeled "Methyl 3-Methoxy-4-Nitrobenzoate, 100g," with hazard pictograms, batch number, and handling instructions. |
| Shipping | Methyl 3-Methoxy-4-Nitrobenzoate is shipped in tightly sealed containers, protected from light, moisture, and incompatible substances. It should be transported per hazardous material regulations, with clear labeling and documentation. Handle with care to avoid spills and exposure, ensuring compliance with local, national, and international shipping and safety guidelines for chemicals. |
| Storage | Methyl 3-methoxy-4-nitrobenzoate should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from heat, moisture, and direct sunlight. Store separately from incompatible materials such as strong oxidizing or reducing agents. Ensure proper chemical labeling and keep out of reach of unauthorized personnel. Follow all local regulations for safe chemical storage. |
Applications of Methyl 3-Methoxy-4-Nitrobenzoate in Industrial ManufacturingMethyl 3-Methoxy-4-Nitrobenzoate functions as a critical intermediate in several specialized downstream chemical sectors. Our manufacturing expertise comes from large-scale production for advanced pharmaceutical synthesis, agricultural formulations, fine chemical reactions, and pigment manufacturing. Below, we outline the primary industrial application sectors and detail key regulatory, formulation, and operational considerations for each use case. 1. Pharmaceutical API Intermediate SynthesisAs a core intermediate, this compound contributes to the multi-step production of several active pharmaceutical ingredients, especially in the segment of non-steroidal anti-inflammatory drugs (NSAIDs) and select anti-tumor agents. Pharmaceutical companies source directly from us to ensure feedstock traceability and GMP-compliant batch release. The ester group participates in selective transesterification or hydrolysis pathways, often under monitored pH and solvent conditions. Grade, purity, and trace ion content remain critical during formulation, as they affect subsequent molecular scaffolding steps. Reactors typically receive this input at the intermediate phase, with further conversion completed within closed-system synthesis according to validated process protocols. Industry compliance standards
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2. Agrochemical Synthesis (Herbicide and Fungicide Intermediates)Leading global agrochemical producers use this ester as a targeted intermediate when assembling heterocyclic ring structures found in modern herbicide and fungicide active ingredients. Many commercial crop protection agents rely on aromatic nitro-benzoate derivatives for efficacy against resistant weed and pathogen populations. Tightly monitored for isomer and impurity profiles, raw material addition occurs at the fine synthesis stage, often before halogenation or amidation. Our bulk deliveries meet hazard communication regulations and support traceable, sustainable crop protection chemistry. Industry compliance standards
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3. Fine Chemical Custom SynthesisProducers of fine chemicals and specialty reagents utilize this compound for building complex benzoate scaffolds via esterification, nucleophilic substitution, or selective reduction reactions. Customers in analytical chemistry, electronic chemical etchants, and photographic chemistry value the purity and consistent particle size achieved by direct-from-manufacturer sourcing. Custom projects often specify this raw material for use in upscaling laboratory syntheses to multi-ton production, wherein batch-to-batch analytical control and order customization are critical. Facilities incorporate this intermediate at conversion phases that require high selectivity and minimal side-product formation. Industry compliance standards
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4. Organic Pigment ManufacturingManufacturers of high-end organic pigments and dyes select this nitrobenzoate derivative for controlled synthesis processes where both color consistency and thermal stability are crucial. The molecule acts as a key raw input for azo coupling and nitro reduction prior to dye salt formulation. Pigment producers rely on our technical team to advise on correct staging and blending parameters within their production lines, and implement raw material compliance checks in line with regulatory frameworks for downstream commercial and consumer pigment use. Industry compliance standards
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Every batch of Methyl 3-Methoxy-4-Nitrobenzoate that leaves our production facility comes with more than a verified purity certificate. It carries decades of accumulated manufacturing know-how, handling technique, and a thorough understanding of what chemists, formulators, and process engineers face at ground level. Raw material supply runs deeper than warehouse numbers and manifests. It calls for close control at every step—exactly what’s demanded by research labs and large-scale synthesis lines alike.
Methyl 3-Methoxy-4-Nitrobenzoate stands as a specialty aromatic ester with the molecular formula C9H9NO5. Chemists often refer to it by its CAS number, 29270-56-2. In our factory, each run begins with careful selection of starting aniline derivatives and precision use of methylating and nitration conditions. For us, the real challenge isn’t just ‘making’ this ester—it’s delivering reliable consistency and low trace impurity levels batch to batch.
Researchers and industrial engineers value this compound for several reasons. It plays a key part in synthesizing advanced pharmaceutical intermediates. It finds regular use as an intermediate in carbon-carbon coupling chemistry and builds blocks for specialty dyes and agrochemical substances. What many overlook is how the tiniest variation in content—like an extra trace impurity or minor byproduct—can sabotage complex downstream reactions. We keep this in mind during every single filtration and drying phase.
Safety within organic synthesis ranks high for many teams. Our experience with scale-up processes has shown that Methyl 3-Methoxy-4-Nitrobenzoate, due to its firm crystalline form and manageable melting point, provides both chemists and process operators with fewer handling hazards compared to more volatile or hygroscopic starting materials. From loading into reactors to recovery, stability remains a practical advantage across the workflow.
As a manufacturer, we have always believed that offering data is not enough. The standard specification for every shipment is straightforward: most routine production lots achieve purity at or above 99% by HPLC, with controlled residual solvents and strict limits on 3,4-dimethoxy or other substituted nitrobenzoate isomers. This doesn’t sound revolutionary—until the fifth or fiftieth scale-up batch needs to deliver exactly the same yield and color profile as the pilot run. Downstream steps—hydrolysis, reduction, or other coupling—simply fall apart if the starting material varies from drum to drum.
Customer feedback over years has shown that the most common sources of headache originate with background contamination, especially silica gel-derived traces or residual acids from crude work. We've focused on meticulous neutralization and purification steps, instead of rushing to the drying oven based only on visual inspection. It adds time, but these thoughtful measures save far more on repeat runs, unexpected filtration problems, or off-white crude intermediates.
Though several benzoate esters exist, only a few reach the necessary threshold demanded by pharmaceutical or fine chemical synthesis. Clients often ask whether they can substitute, for example, methyl 3,4-dimethoxybenzoate or methyl 4-nitrobenzoate in place of Methyl 3-Methoxy-4-Nitrobenzoate. Our technical experience says no: each compound behaves differently under reduction, nucleophilic substitution, and coupling chemistry. The singular 3-methoxy/4-nitro positioning doesn’t just affect electron distribution. It also drives the outcome in multi-step syntheses, especially at stages that tolerate little wiggle room.
Even among well-made batches from other plants, we’ve noticed real differences in appearance, ease of weighing, and solubility. Some sources produce product with a yellowish tinge, hinting at incomplete purification or side-product carryover. We built our factory processes with solid-liquid phase separations and strict mother liquor recycling to minimize these inconsistencies. Every drum that leaves our floor contains uniform, white or very faint yellow crystalline solid with a melting range typically between 91°C and 94°C.
This fine control gives process chemists the confidence to plan long synthesis runs, minimize unanticipated downtime, and conserve solvent and energy resources. Chemical manufacturers, like us, see first-hand how even a small deviation in intermediate ester quality can lead to dozens of hours lost in troubleshooting, re-filtration, or even failed campaigns. Consistency doesn’t just keep customers happy; it supports the reliability of entire downstream chemical value chains.
Methyl 3-Methoxy-4-Nitrobenzoate bridges research and industry. Analysts in R&D settings see value in both high purity and tightly defined melting points, especially if their projects involve synthesizing novel small-molecule scaffolds. Scale-up groups, usually pushing through kilograms at a time, focus squarely on drying efficiency and crystal handling ease. Both groups turn to our product for its low dustiness, predictable solubility in organic solvents like dichloromethane, and minimal tendency to cake inside containers. We discovered during pilot-plant trials that the handling characteristics of our material save significant labor time as compared to more hygroscopic or statically charged intermediates.
Outside the walls of chemistry labs, this ester becomes a precursor in dyes, pigments, and more complex bioactive compounds. Market demand has shifted notably in the past five years toward custom syntheses and advanced intermediates that demand adaptable, dependable inputs. Process managers repeatedly highlight the importance of source reliability—not only for audit trails but due to ever-tighter regulations surrounding product traceability and process validation. Our on-site batch tracking and long-term storage approach grew out of this real demand, supporting both single-batch R&D and multi-campaign industrial buyers.
Scaling up aromatic esters presents a different set of headaches than small-scale lab preparations suggest. Some local traders or brokers can obtain a handful of grams sourced anywhere. In contrast, setting up for a consistent weekly production takes a steady, clean source of starting materials, validated process flows, modern equipment, and strict internal training.
Early in our manufacturing journey, scale-ups often revealed hidden process flaws. Concentrated acid treatments and variations in mixing speed could produce local overheating, which burned material along vessel walls. Through years of hands-on experimentation and customer feedback, we learned by direct observation: batch size and cooling rate must be lined up far more tightly than textbook equations suggest. Our current processes rely on in-depth thermometric tracking, staged reagent addition, and in-house crystallization protocols to lock down crystal habit and purity. In practice, this attention to scale translates to fewer surprises for our partners, whether they’re refining gram-scale batch sequences or driving hundred-kilogram campaigns.
The downstream impact is real: fewer filter blockages, cleaner reaction workups, and less need to adjust purification steps mid-stream. In one example, an agrochemical synthesis customer reduced their solvent waste by nearly 20% simply because they could sidestep excess column work, thanks to upstream improvements at our plant.
Manufacturers who cut corners might slip batches with hidden defects or uncertain origin onto the market. For those of us focused on long-term relationships and regulatory transparency, traceability becomes a core tenet. Every lot produced in our facility carries full record-keeping—from starting material verification to in-process control signatures and final characterization. These documents don’t live in a marketing folder. They underpin registration dossiers, support audits, and give our direct buyers the comfort that every kilogram is backed by traceable, repeatable steps.
As international regulations for chemicals tighten each year, the burden rests squarely on primary producers. Certification bodies require not only analytic print-outs but detailed histories of batch processing, cleaning logs, and records of any deviations during manufacture. We have shaped our data protocols to match these needs, with digital archives stretching back over a decade. For major customers, we’ve provided not only specification sheets but also production flowcharts and sampling logbooks to strengthen their internal audits. Our approach goes beyond filling out paperwork for compliance’s sake. It matters for genuine quality assurance and peace of mind—ours and theirs.
Problems arise despite the best intentions. Customers sometimes report lower than expected yields, solubility challenges, or appearance anomalies. In our experience, most such issues begin with missing links between intended use and prior exposure conditions—temperature swings, bulk packing stress, or exposure to light during transit can all alter an organic solid’s handling. We encourage dialogue. Our technical team routinely works alongside chemists and engineers to understand how material was stored, prepared, and used at customer sites. Many times, we’ve isolated problems down to a single parameter in filtration speed or a forgotten delay, allowing clients to avoid unnecessary rework.
Our in-house chemists, most with direct experience running small- and large-scale reactions, answer questions daily about solvent selections, reaction temperatures, or suitable workup methods using our compound. Years of feedback helped us build a response library that pinpoints practical, actionable fixes. Collaboration matters—a manufacturer’s advice grounded by real plant-floor knowledge supports not only quick fixes but smoother planning on future projects.
As process technology in our industry evolves, so do unexpected hurdles. Global supply line shocks sometimes disrupt precursor deliveries, so we invested early in buffer stock of reliable starting materials. This lets us keep lead times tight, even when the broader market stumbles. To fight against degradation risk, we maintain temperature-controlled, low-humidity storerooms; each drum gets checked routinely, instead of relying on sporadic sampling. This approach has helped numerous partners avoid sudden raw material stockouts and unpredictable delays in their own process pipelines.
Every chemical plant faces the critical task of reducing waste, ensuring staff safety, and minimizing risk to the environment. Our approach to Methyl 3-Methoxy-4-Nitrobenzoate production gives equal priority to output and responsible management. We built our infrastructure to contain and neutralize spent acids and organic solvents, reducing the chance of accidental release. Filtration effluents get analyzed before treatment, with waste recycling and separation as a constant goal, not an afterthought.
Worker protection gets real attention, starting with low-dust, sealed charging methods and up-to-date air monitoring. Our staff is trained to recognize the signs of process deviation or unsafe handling conditions. Years of hands-on factory practice taught us that complacency leads to surprise—so routine safety drills, cross-checked chemical labeling, and careful container handling never take a backseat. We operate with the belief that community trust cannot be rebuilt once lost, so every shipment that leaves our facility must meet not only product purity but also regulatory and environmental commitment standards.
Serving direct customers shapes the way we manufacture and ship. Each inquiry informs production planning long before we weigh out any powder. Purchase orders tell a story about a client’s core processes: frequent small batches hint at ongoing R&D adjustments, while bulk requests flag regular, reliable consumption. We tailor our packing, batch sizes, and delivery schedules accordingly. It’s common for us to coordinate with buyers’ technical teams not only before purchase but weeks after delivery, helping them integrate our material into their broader manufacturing aims.
This feedback loop sharpens our awareness of the end applications and lets us make incremental adjustments for better outcomes. The improvements limit waste, cut unnecessary repackaging, and align our scheduling with what users genuinely need—not just what an abstract forecast predicts. Where contract synthesis partners require specific documentation or tailored product handling, we share our own internal reasoning and workflows. True technical partnership can’t be rushed and never stops at order fulfillment; it builds over projects and seasons, shaped by honest communication and shared respect for real-world constraints.
The market for advanced intermediates like Methyl 3-Methoxy-4-Nitrobenzoate continues to shift as new pharmaceuticals, crop protection agents, and specialty materials come online. We see fresh opportunities emerging, shaped not by commodity pricing but by the value of direct, honest manufacturing. Sustainability now drives more purchasing decisions than at any time in the last decade. Buyers ask not just about the product, but about the people and processes behind each batch. Our responsibility grows as the industry demands tighter oversight and responsible production.
We will keep expanding our capabilities and strengthening our knowledge base—through staff education, process analytics upgrades, and closer engagement with our partners. Supply chain disruptions, changing regulations, and rapid innovation add complexity, but they also reward flexibility and transparency. We’re ready to meet these demands, guided by years of hands-on experience and an open-door approach to customer questions and challenges. The success of each batch isn’t measured only in purity, but in the cumulative confidence earned by every delivery and every resolved problem.
The journey of Methyl 3-Methoxy-4-Nitrobenzoate from our reactors to your production line depends on collaboration and grit. Our team welcomes hard questions and technical discussions—every exchange sharpens our shared craft, supporting better science, safer workspaces, and more responsible chemistry for tomorrow.