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HS Code |
692389 |
| Cas Number | 21998-17-0 |
| Molecular Formula | C9H8N2O4 |
| Molecular Weight | 208.17 g/mol |
| Iupac Name | 4,5-dimethoxy-2-nitrobenzonitrile |
| Appearance | Yellow to orange crystalline powder |
| Melting Point | 124-126°C |
| Solubility | Slightly soluble in water; soluble in organic solvents like methanol, DMSO |
| Smiles | COC1=C(C=C(C#N)C(=C1)OC)[N+](=O)[O-] |
| Inchi | InChI=1S/C9H8N2O4/c1-14-7-3-6(5-10)8(15-2)9(4-7)11(12)13/h3-4H,1-2H3 |
| Synonyms | 2-Nitro-4,5-dimethoxybenzonitrile |
| Storage Temperature | Store at 2-8°C |
| Purity | Typically ≥97% |
| Hazard Statements | May cause irritation to eyes, skin, and respiratory tract |
As an accredited 4,5-Dimethoxy-2-Nitrobenzonitrile factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A sealed amber glass bottle containing 25 grams of 4,5-Dimethoxy-2-Nitrobenzonitrile, labeled with safety, chemical, and handling information. |
| Shipping | 4,5-Dimethoxy-2-Nitrobenzonitrile is shipped in tightly sealed, chemical-resistant containers away from light, heat, and incompatible substances. The package is clearly labeled in compliance with regulatory standards. Transport is conducted by trained personnel following safety guidelines for hazardous chemicals, including proper documentation and emergency procedures to ensure safe delivery. |
| Storage | 4,5-Dimethoxy-2-Nitrobenzonitrile should be stored in a tightly sealed container, protected from moisture and direct sunlight. Keep it in a cool, dry, and well-ventilated area, away from incompatible substances such as strong acids, bases, and oxidizers. Properly label the container and follow standard safety protocols for handling and storage of organic nitriles and nitro compounds. |
Applications of 4,5-Dimethoxy-2-Nitrobenzonitrile in Industrial ManufacturingAs the original manufacturer of 4,5-Dimethoxy-2-Nitrobenzonitrile, we supply this fine chemical intermediate to specialized industries where precise synthesis control, high-purity standards, and reliable sourcing are critical for regulated product lines. Below, we present key application domains where this molecule serves as an essential building block, highlighting each sector’s compliance requirements, process integration points, technical usage ratios, and the resulting end product classes. 1. Pharmaceutical Intermediate Synthesis—API Development4,5-Dimethoxy-2-Nitrobenzonitrile acts as an advanced intermediate in the multi-step synthesis of complex Active Pharmaceutical Ingredients, particularly for benzene-derived medicinal compounds. Major pharmaceutical manufacturers use it within strictly validated synthetic routes requiring controlled reaction profiles to ensure regulatory approval and batch-to-batch consistency. The compound’s high purity grades help maintain passing specifications throughout the route, supporting drug substance manufacturing for regulated markets. Industry compliance standards
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2. Agrochemical Active Ingredient ManufacturingMajor agrochemical formulators deploy this compound as a functionalized aromatic intermediate en route to producing specialty herbicides and selective insecticidal agents. Its electron-rich aromatic system and nitrile functionality allow efficient coupling and cyclization when constructing novel active backbones, where trace-level purity and contaminant control impact regulatory submission dossier approval for crop-protection products. Industry compliance standards
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3. Performance Dye and Pigment Intermediate ProductionProducers of specialty dyes and pigments for plastics and coatings applications employ this aromatic compound as a nitrile-functionalized intermediate. Its selective reactivity under diazotization and reduction processes enables the creation of vivid, thermally stable chromophores, crucial for durable colorants in high-end polymers and specialty printing ink markets, where trace impurities can otherwise lead to shade reproducibility failures. Industry compliance standards
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4. Electronic Chemical Synthesis—Liquid Crystal and OLED Material PreparationWithin the electronic materials sector, this compound finds specialized use in synthesizing nitroarylnitrile-based intermediates for advanced organic electronic materials, particularly for liquid crystal modulators and patterned organic light-emitting diode (OLED) substrates. Multinational device manufacturers require rigorously characterized intermediates for purity, isomer control, and absence of metal catalysis residue to comply with semiconductor-grade standards, as even minimal off-target byproducts can disrupt display performance or device longevity. Industry compliance standards
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5. Fine Chemical Synthesis—Research-Grade Specialty Chemical ProductionCROs and specialty chemical manufacturers leverage this compound in small to medium-scale custom syntheses, where its dual methoxy and nitro functionality opens pathways for structure–activity exploration, particularly for custom ligands, probe molecules, or non-commercial analytical standards used in regulatory method development. Researchers routinely require documentation of batch history, analytical traceability, and supply continuity for regulatory filings and patent chemistry work. Industry compliance standards
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In the specialty chemicals field, the details make all the difference, especially when purity, handling, and overall stability affect downstream progress for research and industrial manufacturing. For years, we have produced 4,5-Dimethoxy-2-Nitrobenzonitrile at scale, supplying it in consistent lots that meet the exacting requirements of organic synthesis and custom manufacturing. Our perspective comes from working day in and day out with this compound, seeing firsthand where it shines and where others run into trouble.
The core of our process is grounded in direct oversight and regular refinement. 4,5-Dimethoxy-2-Nitrobenzonitrile, structurally defined by its two methoxy groups bonded to the benzene ring with a nitro and nitrile at positions 2 and 1, delivers reliable reactivity in aromatic substitution and cross-coupling chemistry. Several customers in the pharmaceutical sector have relied on its clean behavior as a building block for advanced intermediates, pointing out the value in minimizing side reactions and increasing throughput.
Every production run starts with reagents that we check in-house for content and stability. Ultimate purity isn’t a check box—it shows itself in the outcome. When we talk about 4,5-Dimethoxy-2-Nitrobenzonitrile, what sets ours apart is the consistency from one lot to the next. Batch records tell the story: odor, color, melting point, moisture, and trace impurity levels—these aren’t afterthoughts, but things we measure and control upstream in the process, long before analysts see the documentation. Customers have pointed to the way our product dissolves cleanly, forms uniform crystals, and integrates directly into their syntheses without the sudden surprises that come from contaminants or sloppy handling.
In several years of supplying this compound, most complications stem from poorly controlled synthesis routes elsewhere, which can introduce by-products that stubbornly hang on through further processing. From day one, we mapped out adjustments that filtered out such issues, so our lots show no persistent unknowns in spectroscopy or TLC. That saves time and resources for labs working on tight timelines.
End users approach this molecule from several angles. In our experience, it sees heavy use in aromatic substitution pathways. Its activation pattern, with electron-donating methoxy groups and an electron-withdrawing nitro, creates a useful reactivity balance that permits controlled modification at the ring, especially for pharmaceutical intermediate manufacture or as a precursor to more elaborated benzonitrile derivatives.
Unlike simpler nitrobenzonitriles, which can either be too reactive or not selective enough, 4,5-dimethoxy-2-nitrobenzonitrile occupies a practical midpoint. Chemists aiming to step up aryl amine or phenol syntheses want a core substrate that can be functionalized without a lot of protecting group manipulations. Expansion into ligand design, dye chemistry, and specialty polymer production arose from the same clean reactivity profile. Some clients have documented the value of our tighter spectral profile for process scale-up, where unknowns can turn into costly delays or failed regulatory submissions.
Patented routes that require para-oriented substitution benefit from this compound’s profile in ways that other, less-specific isomers can’t offer. Over the years, we’ve seen our product used in many medicinal chemistry programs, often right at the point where a lead candidate’s scaffold needs late-stage diversification.
In our operation, we routinely manufacture 4,5-Dimethoxy-2-Nitrobenzonitrile under process controls that tightly lock down batch-to-batch variation. We haven’t taken a ‘one size fits all’ approach; instead, lot sizes are matched to customer needs, with attention to the trade-offs between throughput and relaxation time. Our core product achieves a purity consistently above 99 percent by HPLC, with color and odor consistent for each campaign. Bulk density and particle size, while catalogs might overlook them, receive regular attention: we grind and sift as required to ensure proper dispersion for solution-phase feeding.
Packaging reinforces our hands-on approach. For gram-to-multikilogram lots, we select inert, moisture-proof containers. Every shipment includes actual lot analysis, not a generic certificate. For larger users, we integrate direct supply programs to maintain in-plant inventory and minimize interruptions.
Over time, we adjusted process parameters to dial down the tendency for caking and lump formation, which can otherwise slow down bench work and lead to measurement error. The absence of organic solvent residues gives our compound a clean start, whether you’re feeding it into a heated-phase reactor or running chromatography downstream.
In practice, not all material labeled as 4,5-Dimethoxy-2-Nitrobenzonitrile performs equally. Some lab-supply sources cut corners on isolation or post-process drying, increasing the chance for batch spoilage, solvent carryover, and reactivity loss. Bulk grades from commodity sources can introduce chromatography headaches, with non-volatile by-products that linger through process steps, affecting crystallization and yield.
Our colleagues in scale-up have told us of lines halting for hours to purge column fouling tied back to poor starting material. Those stories led us to routinely benchmark incoming purity and check against archived IR, NMR, and HPLC profiles. Small differences in trace impurity or hydration carry serious cost in regulated drug manufacture or fine chemical synthesis, so we follow a stricter protocol than what commodity resellers offer.
During crystallization, we follow precise time and solvent composition steps, not just for show, but because we’ve seen directly how hasty precipitation can lock in occluded solvent or form broad-melting solid. Experience in the plant environment proves out the claims listed in technical literature—until you scale up, small quirks grow into big costs. Solutions that work on paper fail without granular process control, so our technical team constantly reviews campaign histories to root out drift and maintain improvement.
Producing a compound for consistent, global-scale use means balancing cost, output, and safety. We invested in contained manufacturing systems and real-time monitoring, not just for regulatory reasons, but because our crews know that even a minor slip can trigger off-quality finished material or environmental excursions. We use batch records, not just as compliance forms, but as live documents to capture improvements and anticipate bottlenecks.
Technical teams work more than assembly-line shifts—they guide every campaign, from charging the reactor, monitoring pH and color, through isolation. By embedding that mindset, we respond in hours to changes or customer queries. Some years, regulatory hurdles demanded tighter traceability and environmental controls; those years sharpened our practice, leading to more robust finished lots and less off-grade output.
Quality control doesn’t end at the shipping line. Every customer question or abnormal finding triggers an internal review and on-the-floor check. This is how we stay ahead of slow-drift quality loss, packaging faults, or shipping hazards. Shipping a high-purity, stable lot of 4,5-Dimethoxy-2-Nitrobenzonitrile demands live adjustment, not just copy-paste SOPs. We learned firsthand that being a manufacturer, not just a supplier, is about owning shortcomings and sharing improvements back to the people who trust our material for breakthrough projects.
Whether your work focuses on small batch discovery, advanced intermediate building, or pilot-plant demonstration, you depend on predictable materials. Our role isn’t just shipping something labeled as 4,5-Dimethoxy-2-Nitrobenzonitrile—it’s delivering certainty each time a reactor charges or a purification is set. Over time, we’ve shaped our entire process around feedback from people running synthesis routes, tuning chromatographic purifications, or troubleshooting development blockades.
Supply interruptions, inconsistent quality, and variable delivery speed can topple carefully structured project timelines. We talk directly with researchers and production managers, adjusting volume, batch split, or reorder lead time in a way that lets you plan around plant events, not against them. Some institutions work with short project cycles, others on lock-step, monthly batch routines. After years in production, we tuned forecasting not to speculation but to ongoing collaboration. When a client brings a sudden scale jump or route switch, we’re already mapping lot allocation and process window adjustments before production kicks off.
Chemical production isn’t only about the molecules. It’s about shared goals, open communication, and proven results under real-world stress. Questions about new catalyst series, regulatory updates, or material compatibility spark regular exchanges with our crew. Telling us about observed kinetics or unexpected side reactions helps us tweak upstream washing or drying, improving the end result on both ends.
Being at the manufacturing core, we see how batch qualification drives trust downstream. Certifications and regulatory documentation matter—not as paperwork, but as tools for smooth tech transfer and predictable compliance. We gather site histories, investigator feedback, and repeat measurement logs so each charge leaving our plant arrives as a known quantity.
Our transparent approach means we never push a lot out the door without full data and on-file sample archiving. Years in the field taught us that what doesn’t get checked, often comes back in bottlenecks or field complaints. We maintain close relationships with most of our client base well after initial qualification, adjusting lot preparation, storage, or delivery modes as new technical demands come up. Several scale-up partners worked hand-in-hand with our technical team to solve problems unique to their reactors or solvent platforms, illustrating how open dialogue can prevent the costly mistakes so common when buying commodity-grade alternatives.
We routinely follow up on application reports and investigate root causes of run-outs, fouling, or unexpected reactivity drops. Not every downstream issue links back to starting material, but our role doesn’t end at the plant’s loading dock. We keep open channels with researchers and engineers to make quick corrections—either with additional testing, reviewing lot stability, or amending handling guidelines.
On a few occasions, larger partners have needed detailed impurity tracking for regulatory filings or internal investigations. Those interactions gave shape to broader process upgrades, from new filtration steps to more refined particle size grinding. Nobody sees every possible pathway in advance, but repeated field feedback reveals what really impacts material workability: dryness on arrival, clean filtration in solution, and confidence each order aligns with the last.
The world of fine chemical manufacturing isn’t static. Legislative demands, environmental expectations, and technical advances all nudge processes to higher standards over time. We field those challenges with direct accountability, able to adapt methods, batch size, and characterization faster than indirect handlers or bulk traders. This connects our operation directly with your breakthroughs, instead of leaving you with excessive handoff and bureaucracy.
Direct manufacturing of 4,5-Dimethoxy-2-Nitrobenzonitrile has given us keen familiarity with safe handling and storage. Each new field shipment draws from standard storage protocols—dry, dark, and sealed conditions prove out as best practice over hundreds of deliveries. Bulk packaging matches the intended use, scaled for lab transfer or industrial feeding, always with full labeling and hazardous communication. Training staff across logistics lines ensures each shipment avoids cross-contamination or accidental exposure.
Years of first-hand transport experience added practical steps—temperature monitoring during season swings, redundant labeling, and clear communication with receiving docks, all aimed at keeping the product exactly as qualified from door to door. Regular drills and review with handling teams on both ends allow us to spot emerging risk before they break into actual events. Many customers pointed to this consistency as the reason for switching from less hands-on sources.
Material safety data can spell out nominal requirements, but living through a few unforeseen transport or storage upsets shapes a stronger, more reliable protocol than words on a page. Our attention to correct containerization, documentation, and shipment timing has prevented headaches for end users and made unplanned production interruptions rare.
We treat every campaign not as routine but as a chance to learn and improve. Observing how small changes in reaction order or solvent type affect the finished product leads directly to tweaks in equipment setup, washing programs, or drying protocols. Routine cross-training helps every team member—from plant floor to analytical lab—understand how their work impacts both process yield and customer satisfaction.
Sometimes, technical challenges arise that testing alone can’t solve. In those moments, direct communication between our technical support and customers allows for rapid troubleshooting, helping avoid costly production delays or out-of-spec material batches. Over the years, this hands-on approach became central to how we operate, informing both minor process tweaks and larger capital investment for future demand.
By viewing every shipment, inquiry, and follow-up as a step in a shared process, we keep advancing both reliability and technical understanding. Customer feedback, both positive and critical, feeds our ongoing process review sessions, ensuring that future lots reflect lessons learned from every past experience. Staying committed to this ongoing learning loop lets us deliver quality that stands out in a crowded field—and helps set a new standard for specialty chemical production.
At every step, we see 4,5-Dimethoxy-2-Nitrobenzonitrile as not just a product, but a partnership between our manufacturing team and your research or industrial operation. Through years of hands-on experience—from raw material screening through final shipment—we maintain our commitment to purity, lot consistency, and real-world usability. By tuning our operation based on practical results and ongoing customer engagement, we create lasting value, not just for our clients but for the broader technical community that drives progress in science and industry.