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HS Code |
854952 |
| Product Name | N-(4-Amino-5-Methoxy-2-Methylphenyl)Benzamide |
| Molecular Formula | C15H16N2O2 |
| Molecular Weight | 256.30 g/mol |
| Cas Number | 878946-86-4 |
| Appearance | Solid |
| Solubility | DMSO, Methanol |
| Purity | Typically ≥98% |
| Storage Temperature | Store at 2-8°C |
| Smiles | COC1=CC(C)=C(N)C=C1NC(=O)C2=CC=CC=C2 |
| Synonyms | 4-Amino-5-methoxy-2-methyl-N-benzoylaniline |
As an accredited N-(4-Amino-5-Methoxy-2-Methylphenyl)Benzamide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Brown glass bottle containing 25 grams, sealed with a screw cap, labeled with chemical name, molecular formula, and safety information. |
| Shipping | N-(4-Amino-5-Methoxy-2-Methylphenyl)Benzamide is shipped in tightly sealed containers, protected from light and moisture. The chemical is labeled according to regulatory guidelines, with safety data included. Packaging ensures minimal risk of leakage or contamination. Shipping complies with local and international hazardous materials regulations, using temperature-controlled conditions if required. |
| Storage | Store **N-(4-Amino-5-Methoxy-2-Methylphenyl)Benzamide** in a tightly sealed container, protected from light and moisture, in a cool, dry, and well-ventilated area. Keep away from incompatible substances such as strong oxidizers and acids. Store at room temperature unless otherwise specified and ensure proper labeling. Follow all relevant safety and chemical hygiene protocols during storage and handling. |
Applications of N-(4-Amino-5-Methoxy-2-Methylphenyl)Benzamide in Industrial ManufacturingAs the direct manufacturer of N-(4-Amino-5-Methoxy-2-Methylphenyl)Benzamide, we support multiple downstream industries with consistent supply, strict quality control, and transparent technical documentation. Below we detail verified application scenarios, describing the specific role of our product within each sector, relevant compliance frameworks, formulation criteria, integration stages, and the types of finished goods produced. 1. Active Pharmaceutical Ingredient Intermediate for Antipyretic AnalgesicsPharmaceutical manufacturers source our raw material as an intermediate for the synthesis of specific antipyretic analgesic active ingredients. This segment demands precise impurity management and stringent process documentation to comply with regulatory filings. The compound enters multi-stage reactions, contributing to molecular cores required for finished APIs. Typical applications focus on production optimization, process validation, and analytical traceability for consistent batch performance. Industry compliance standards
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2. Synthesis of Specialty Dye IntermediatesOur compound serves as a key building block in synthesizing precursors for high-purity azo and anthraquinone dyes. Dye and pigment manufacturers leverage the methoxy and amino functionalities for precise color property control, especially for applications that require lightfastness and chemical resistance. Integration into diazotization and coupling stages demands rigid process control to ensure color strength and reproducibility in final dyestuffs. Industry compliance standards
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3. Fine Chemical Precursor for Polymer AdditivesIn specialty polymers, manufacturers use this compound as a synthetic precursor for developing additives that tailor optical and UV-absorbing properties of high-end engineering plastics and coatings. Unique methyl and methoxy substituents provide key reactivity for further functionalization, supporting downstream additive formulation targeting photo-stabilization and anti-yellowing in demanding environments. Industry compliance standards
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4. Intermediate for Agrochemical Synthesis (Herbicides and Fungicides)Our material enters the production lines of agrochemical formulators as a core intermediate in the synthesis of certain selective herbicides and fungicides. The compound’s specific substitution pattern supports structure-activity relationships necessary for targeted crop protection, responding to regulatory residue and metabolite safety requirements globally. Industry compliance standards
Typical usage ratio
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N-(4-Amino-5-Methoxy-2-Methylphenyl)Benzamide is one of those compounds that tells you a lot about how far fine chemical manufacturing has come. We have spent years refining its synthesis, and during that journey, it became more than just another CAS number in our portfolio. It emerges from a commitment to precision at every step—starting from high-purity starting materials, monitored reactions, and rigorous purification. We see its full value in sectors that count on consistent quality and batch-to-batch reliability. The compound has found its main demand in laboratories and formulation plants looking for specific intermediates that handle conditions where lesser-quality materials would fail or drive cost up with rework.
Our engineering team keeps a watchful eye from the reactor charge to the final QA sign-off. We typically offer it as a white to off-white crystalline powder, running at high purity—the latest batch analysis read 99.4% by HPLC with moisture beneath 0.3% as checked by Karl Fischer titration. The mix of methoxy, methyl, and amide groups creates a backbone with excellent versatility for modification, which our customers appreciate, especially when derivatives or next-step analogs are in their pipeline. The most immediate strength comes from the high selectivity during its manufacture. By keeping impurities—especially regioisomers—below detectable limits, we help partners avoid downstream surprises that derail projects or put compliance at risk.
Our process for synthesizing N-(4-Amino-5-Methoxy-2-Methylphenyl)Benzamide privileges both scalability and sustainability. We use water-based work-ups wherever possible and recycle solvents using fractional distillation. Supply interruptions, once a regular headache in the market for this compound, have become rare since we streamlined scheduling and warehousing. Our production runs echo what happens in the rest of the chemical industry: predictive maintenance, redundancy, solid relationship with upstream suppliers. These details rarely end up in product introductions, but they are the reason most of our batches ship on time and why customers trust their formulation work to our output.
This molecule answers a very specific demand from chemical and pharmaceutical development. It serves as a key intermediate in several heterocyclic syntheses. Medicinal chemistry teams working on exploratory libraries or lead optimization programs value reliable building blocks like this one, where functional group tolerance and subsequent cross-coupling steps demand robust purity. Analytical teams in quality control tell us that our material dissolves well in both organic solvents and polar aprotic systems, giving them reproducible chromatographic profiles. Product development managers have mentioned less reprocessing downtime, which typically comes from splitting off tiny fractions that fail QC checkpoints.
We manufacture this compound with clear-cut roles for raw material inspectors, lab technicians, and safety managers. Glitches in any link show up in the final product. Over the past year, we enhanced our in-line reaction monitoring so we can spot deviations in real time, not just during end-product testing. The control room receives full spectral data from FTIR, UV, and HPLC at critical steps, reviewed not just for numbers but for the story each batch tells. Details like a slightly wider melting range or faint yellowing at trace levels prompt direct adjustments to the next lot plan. That constant checking gives us repeatability that third parties often struggle to match.
We have also seen interesting uses beyond the expected process chemistry sphere. Some research groups in agricultural science have explored this molecule as a probe to design more selective enzyme inhibitors. Our technical support enjoys these requests. They usually start with routine paperwork but often lead to collaborative efforts—helping adapt purification methods, advising on analytical protocols, or even scaling down synthesis to fit university reactors. These exchanges keep us closely tuned to current research directions and emerging needs.
Unlike many chemically similar products circulating globally, our batches consistently achieve low ppm counts of residual solvents and starting material carrythrough. Peers have approached us about our chromatography practices because in their own attempts, certain aromatic impurities turn up that take extra resources and time to remove. We use a dual-column process for cleanup—first on silica to strip off general organics, then a finer separation by reverse-phase to tackle structurally related impurities. That cuts down on potential regulatory questions, which often arise during scale-up or when moving to human-use pipelines.
Another difference lies in documentation and traceability. Every batch of N-(4-Amino-5-Methoxy-2-Methylphenyl)Benzamide comes with full analytical files, but our lab doesn’t just run the basics. Each lot carries complete NMR spectra, mass spectrometry profiles, and both standard and extended impurity checks based on feedback from long-standing clients. Regulatory submissions become smoother, and plant managers spend less time justifying trace residues or ambiguous peak assignments.
We rarely rely on third-party tolling for this intermediate. Control over the supply chain cuts out inadvertent contamination or mix-ups that crop up when logistics get handed from one company to another. Regular walk-throughs in our facilities, from QA staff and external auditors, reinforce these standards. During a recent customer audit, our visitors focused on analytical reproducibility. They noted that repeated runs with our material didn’t drift over time, even under different temperature and humidity regimes. Such reproducibility isn’t simple—solvent composition, catalyst choice, holding temperatures, and equipment cleaning all line up precisely to secure these results.
Technical support follows every order. Our chemists—trained in the same methods as those who process the compound—answer questions from gram to kilo scale. Most customer feedback revolves around successful downstream reactions, clean spectra, and easy filtration—proof that the extra steps at our end pay off in end-user productivity.
We understand the margin for error shrinks when transitioning from early-stage research to scale-up or cGMP environments. Plant chemists and project leads often tell us horror stories about tail-end impurities that forced retesting or scrapped entire batches. N-(4-Amino-5-Methoxy-2-Methylphenyl)Benzamide’s strength comes from how it performs under real industrial workflows. In practice, our product maintains purity when subjected to repeated solvent exchanges, multiple filtrations, and varying temperature ramps during multi-step reactions. Feedback indicates the compound resists decomposition even during overnight stirring or prolonged exposure to reactive agents.
One manufacturing advantage shows up during solid handling and dissolution steps—grain size and crystal morphology. Rather than leaving this to chance, our production chemists adjust cooling rates and post-reaction workups to produce free-flowing powder that neither cakes nor absorbs moisture rapidly. Routine statistical checks monitor not just for moisture but also for flow properties and bulk density. This practical concern affects everything from batch charging to reactor emptying, an area often overlooked until the day a process grinds to a halt due to a plugged filter or inconsistent stirring.
Stability gets equal emphasis. Chemical manufacturers learn quickly that packaging and shelf-life can make or break a product’s utility. Air exposure, trace acid vapors from nearby production lines, even batch container materials have all shown measurable effects in our own early stability studies. Switching to triple-layered polyethylene and running nitrogen-insulated packaging lines addressed these headaches—lowering the incidence of out-of-spec product and reducing customer complaints about off-coloration or hardening over time. End users who run regular checks tell us our lots meet published shelf-life specs without need for requalification part-way through their storage window.
Academic researchers and development labs use N-(4-Amino-5-Methoxy-2-Methylphenyl)Benzamide as a primary intermediate in synthesizing bioactive candidates. Some customers have published on its role as a precursor to fused heterocycles—structures commonly explored for anti-inflammatory drug candidates. Those working in industrial process labs focus on its compatibility with a wide range of dehydrating and coupling agents. From practical use, the methoxy and methyl substitutions reduce unwanted side-reactions under standard coupling protocols, giving cleaner profiles and minimizing tarring during workup.
Teams in analytical development cite fewer unknown peaks during LC-MS runs, pointing to minimal coeluting byproducts. We have noticed many research institutions order multiple lots for method development and validation, citing previous experiences with erratic purity or shifting retention times from alternative sources. We deliver consistent retention and peak purity, making regulatory filings—especially IND (Investigational New Drug) packages—simpler for customers. Some clinical researchers mentioned time saved not having to adapt analytical procedures with every fresh batch.
Feedback from scale-up and kilo lab users often centers around handling and batch reproducibility rather than on-paper specifications. Chemists evaluating side-by-side runs against samples from bulk traders noted less dust formation, consistent hydration, and robust filtration during application setups—especially in closed-system reactors. By observing these variations, we tailored our production finishing and packaging standards to match actual plant requirements, rather than just meeting the minimum listed specs. That reduces headaches both in the lab and on the production floor.
We work with the realities of import controls, testing protocols, and cross-border paperwork. Customers in regulated countries have confirmed smoother customs clearance and predictable compliance because of our established documentation. We maintain full batch traceability, which regulators now increasingly demand, and this helps end-users trace raw material origins if any issues come up during scale-up validation.
Many suppliers claim high purity, but in practice, subtle variations make a big difference to downstream chemists. Tests from our QC confirm every lot stays within the specified melting range, giving assurance that batch-to-batch variation stays low. We remove trace iron and silica picked up during synthetic workups, which could otherwise trigger side reactions or complicate scale-up. Routine impurity checks extend to heavy metals and inorganic anions, not just because of regulatory requirements but due to case studies where such contaminants affected research outcomes for our partners.
Document control and sample archiving back up our claims—each run’s production logs, spectra, and inspection reports are accessible for years. Many long-term partners request archived samples for reverse-engineering or forensics if downstream formulations show variance. We keep these records and reserve samples as part of routine GMP alignment, even for R&D-grade batches. This has resolved more than one supply chain mystery or regulatory question during customer audits.
We also keep every shift trained on the specifics of this molecule: typical impurity profiles, correct handling, and physical characteristics. We run scenario drills with operator teams to spot rare problems—from power outages to off-spec yields—so corrective steps can be activated fast. Unlike third-party aggregators or resellers, we can modify the process or intervene in minutes if anything shifts outside the normal operation range. That kind of rapid troubleshooting means customers see fewer delays, especially under tight development timelines.
N-(4-Amino-5-Methoxy-2-Methylphenyl)Benzamide isn’t just another entry in a catalog. Each batch directly influences client research, development timelines, and cost calculations. As producers, we recognize supply chain risks—raw material shortages, shipping volatility, and evolving purity standards. By contracting directly with base chemical makers for our key inputs and setting safety stocks for critical items, we predict and smooth over most of the volatility others deal with.
We regularly run failure mode analyses based on actual customer complaints or returns. For instance, an uptick in reported brown discoloration a year ago led us to overhaul not just product filtration but the cleaning schedule of reactor lines and the standard for incoming cooling water. These real-world lessons shape how we update and operate our facility and processes. The feedback loop between customer experience and plant practice ensures we keep ahead of changing needs and standards.
Emergent markets continually test our readiness. Countries with shifting regulatory requirements, or those developing new pharma infrastructure, expect higher documentation standards and faster response times. We invest in both IT systems and personnel training to handle such shifts, often before authorities or customers make them official. This means we deliver consistent product and paperwork, even if regulatory frameworks change mid-cycle.
What defines our success with this compound comes down to reliability, transparency, and practical know-how. Customers return not because of clever marketing, but because their teams get chemical that works—no constant surprises, no long explanations, no need to patch around unpredictable quality. The day-to-day care from start to finish makes N-(4-Amino-5-Methoxy-2-Methylphenyl)Benzamide a trusted tool, not just a line item.
Producing N-(4-Amino-5-Methoxy-2-Methylphenyl)Benzamide has taught us that technical details matter as much as relationships. The tighter the process control, the more predictable the results for everyone down the supply chain. Our team engages with every lot—checking, adjusting, and learning from every run. These efforts ensure our partners have the material they need to move forward with confidence.
Every specification we report has undergone scrutiny, but beyond numbers lies the value of human skill. It’s the technician who double-checks a reading, the operator who catches a pressure anomaly, the supervisor who invests an extra hour to tighten up documentation. With every order, we commit more than just a product; we commit the care, expertise, and transparency that come from seeing every stage up-close. If your work hinges on reliability, technical support, and consistency at every step, this compound shows what a hands-on manufacturing approach can deliver—as told by those who actually make it.