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HS Code |
644002 |
| Chemical Name | 4-Acetylamino-2-(Diethylamino)Anisole |
| Molecular Formula | C13H20N2O2 |
| Molecular Weight | 236.31 g/mol |
| Cas Number | 90-29-9 |
| Synonyms | N-(4-Methoxy-2-(diethylamino)phenyl)acetamide |
| Appearance | Solid, usually light brown to tan crystals |
| Melting Point | 94-96 °C |
| Solubility | Soluble in organic solvents such as ethanol and chloroform |
| Usage | Intermediate in dye manufacturing |
| Pubchem Cid | 7325 |
| Functional Groups | Acetylamino, Diethylamino, Methoxy |
As an accredited 4-Acetylamino-2-(Diethylamino)Anisole factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 25 grams of 4-Acetylamino-2-(Diethylamino)Anisole, tightly sealed, tamper-evident cap, labeled with hazard information. |
| Shipping | 4-Acetylamino-2-(Diethylamino)anisole is shipped in tightly sealed containers, protected from light and moisture. It is transported as a chemical substance, following relevant hazardous material guidelines. Ensure proper labeling and documentation. Handle with gloves and eye protection during unpacking. Store in a cool, dry, and well-ventilated area upon receipt. |
| Storage | 4-Acetylamino-2-(Diethylamino)anisole should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from sources of heat, light, and incompatible materials such as strong oxidizers and acids. Avoid moisture exposure. Ensure proper labeling and keep away from food and drink. Recommended storage temperature is typically at room temperature (15–25°C) unless otherwise specified. |
Applications of 4-Acetylamino-2-(Diethylamino)Anisole in Industrial ManufacturingAs a direct manufacturer of 4-Acetylamino-2-(Diethylamino)Anisole, we supply this specialty aromatic amine primarily to established B2B sectors where its molecular properties fulfill precise technical and regulatory demands. The downstream adoption of this raw material is limited to a select set of high-standards applications, each requiring tailored compliance, exact dosing, controlled manufacturing sequences, and producing clearly defined end products. The following scenarios reflect authentic industrial deployments recognized by regulatory and market practices worldwide. 1. Oxidative Hair Dye Synthesis for Permanent ColorantsLeading hair color producers use this intermediate to manufacture permanent oxidative dyes found in professional salon and consumer products. Its electron-donating and coupling characteristics influence final color shade consistency. Formulators select the raw material to achieve enhanced color depth and longevity while maintaining compliance with the safety requirements of the cosmetics industry. Industry compliance standards
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2. Technical Intermediate for Colorant Manufacturing (Diazo/Diphenylamine Dyes)Industrial dye manufacturers incorporate this compound as a key intermediate to synthesize specialized diazo and diphenylamine class dyes, particularly for non-food textile and paper coloration. Its molecular structure permits targeted azo-coupling reactions crucial for producing high-stability colorants with precise spectral absorption. Industry compliance standards
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3. Electronics-Grade Advanced Dye Precursors (For Printing & Photolithography)Manufacturers of electronics and specialty printing chemicals use this amine derivative to create performance dyes and imaging agents for photoresist, inkjet, and thermal transfer applications. The compound’s substituent pattern supports formation of highly pure chromophores needed to minimize electrical noise or image loss in precision electronics printing. Industry compliance standards
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4. Trace Analytical Reference Standards (HPLC Calibration Agents)Specialty laboratories and certified reference material producers use the high-purity grade of this compound as a quantitative calibration agent for HPLC and trace analysis of aromatic amines in compliance and forensic environments. Due to its well-defined structure and consistent retention characteristics, it serves as a reliable internal standard for method validation and instrument calibration. Industry compliance standards
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On the production line, each drum of 4-Acetylamino-2-(Diethylamino)Anisole represents months of development and rigorous monitoring. We do not just ship a code or a compound; we physically verify clarity, measure consistency in melting point, and run HPLC traces for purity. With the product’s unique structure—anchored by an anisole backbone, an acetylamino group at the para position, and a diethylamino group—there is no one-size-fits-all approach. We keep technical files open throughout every run. Experience teaches us that adding a diethylamino group does not only modify the electron density but also affects solubility and color stability, especially under strong pH swings.
Each specification follows real-world complications. A major customer once needed tighter color control to eliminate batch-to-batch drift in their oxidative dye process. We found that minute tweaks in reaction time, not simply raw material grade, impacted hue source intensity. There's no routine repetition here. We record temperature swings of our reactors, reassess catalyst dosing, and even measure ambient lab humidity during final crystallization. This matters because even one percent deviation in purity can force a downstream customer to adjust their formulation or run expensive corrective blending.
The end-users mostly work in hair dye synthesis, and a few serve as intermediates in specialty pigment manufacturing. They call us when results fail to match expectations, not mid-way through delivery, but when color sits uneven or fade-out appears after stability testing. As manufacturers, we hear the frustration. The difference with our 4-Acetylamino-2-(Diethylamino)Anisole has always been that we commit to a purity and dryness level you can see—crystals without clumping, free-flowing even in humid packaging environments.
Customers often require GC/MS and HPLC data from every single lot, not a representative sample, because each use-case tugs at different parameters. For dye applications, stability against light degradation carries more weight than slight water content increases. In pigment manufacturing, trace amines need quantification down to the ppm, as even a subtle impurity can alter final optical density. By investing in dedicated analytical chemists on our production floor, we address these priorities at source—not only through downstream QA checks.
Similar-sounding intermediates sometimes crowd market listings, and confusion stems from shared roots like 4-nitroanisole or other alkyl amino anilines. In practice, the addition of the diethylamino group brings a boost in alkali resistance and improved shelf stability. Regular monoethylamino analogs, though less expensive, degrade under certain storage conditions. The acetyl moiety uniquely protects the amino portion, fending off oxidation during long-term storage. That makes a difference to customers who keep their inventory for half a year or longer.
The reaction setup for 4-Acetylamino-2-(Diethylamino)Anisole requires more than standard glassware. We maintain jacketed reactors with high-efficiency agitation, because precipitation issues quickly clog lesser systems. Through years of practice, we have learned that slow cooling yields larger, purer crystals while abrupt chillers risk occlusion and off-color fractions. This feedback loop from QC to production never stops. Documentation standards push us beyond local compliance—external audits and customer-driven traceability audits are now the norm. Records track every gram of incoming and outgoing material.
Customers who use this compound in oxidative dye systems care about the after-effects—fade rate in sunlight, skin irritation profiles, and migration in various pH matrices. Technical sheets only scratch the surface. We discover the full story through complaint handling and returns. The best feedback we receive comes from end-users testing dyes on multiple hair types and reporting back on uneven uptake at sample scale. Through these stories, we find new process improvements; for instance, extra steps in recrystallization to curb side product formation became standard after field complaints about dye performance on highly porous hair.
On the factory floor, batch reproducibility outweighs theoretical high yields. Our raw materials supplier once altered particle size, and crystal growth rates shifted enough to interfere with filtration, cutting yield by a measurable percentage. As a direct manufacturer, we do not have room for unexplained differences; our performance is measured in customer returns and line halts. Every specification sheet we print includes date, lot, and operator initials because the smallest variables—from solvents to glassware cleaning—show up downstream. No two days look the same; even a rainfall down the road changes local humidity enough to trigger us to recalibrate drying procedures.
A column packed for a different amine displays growth of byproducts that some resellers might ignore. We face this at source. Exhaustive solvent exchanges, as well as triple washing intermediate solids, protect the product’s stability. These steps add cost, but skipping them would ricochet through the production chain: Tell-tale yellow tints, unstable solutions, or rapid decay in storage. We have invested in real-time NIR analysis to flag transition points before batch end, cutting losses and preventing substandard lots from leaving the site. Operators work on shift rotations, bring direct process experience, and watch for the smallest signals during runs.
Much of today’s market emphasizes generic chemical offerings. We live in the details that do not show on shipping manifests: solvent residue, thermal stability, and handling properties. Direct manufacturing lets us tweak process parameters specifically suited for 4-Acetylamino-2-(Diethylamino)Anisole—slower morpholine additions, prolonged agitation, and tighter control of filtration temperatures. These differences matter when customers measure their own compliance with internal quality systems or with external auditors querying chain of custody.
We source all upstream intermediates with documented chain-of-custody and test inbound lots for potential cross-contaminants. Variable upstream quality remains a risk all manufacturers face; raw material suppliers change mining locations, refining routes, or even just packaging. We keep reserves of validated lots for critical customers needing continuity beyond standard documentation. Internal scale-up from pilot batch to full production sometimes takes several campaigns, and every ramp-up uncovers the unexpected. Staff update manufacturing records in real-time, so notes from start-up end up in next year’s process optimizations.
Innovation on our customers' side, such as novel dyeing techniques or eco-friendly product launches, pushes us to tweak synthesis routes or adopt upgraded filtration media. Standardized production manuals get rewritten when a key buyer requests lower trace metals or altered solvent residues for VOC compliance. We work out these modifications without external intermediaries, standing behind every lot we document. Close technical partnerships keep us evolving, and on more than one occasion, our on-site lab teams have flagged minor isomer formation, prompting dialogue and solution-seeking before minor differences could spiral into major market issues.
Some third parties provide periodic trend reports. We find immediate value in daily data—not monthly aggregations. This includes pH checks on rinse tons, particle size scans, and residual solvents at every key step. By analyzing spectral data on the fly, we can adjust inputs or alter phases before deviations impact the batch, reducing resource waste and production downtime. If a run sits slightly outside normal ranges, we rerun purification or adjust crystal triturations, always ensuring the physical product matches established benchmarks our customers depend on.
Many clients never see the production facilities or meet operators. Their experience with 4-Acetylamino-2-(Diethylamino)Anisole turns entirely on whether their finished goods work as expected, or better. Failures are rarely dramatic; the most challenging problems often start small—a bit too much dust, a slight tan cast in a masterbatch, or fading on the customer’s quality test panel. Routine engagements with those end-use clients push our development teams to look past just hitting a purity spec, but to ask about actual impact, report back, adapt, and correct on future runs.
Regulatory audits walk the factory floor, read marred logs, check for proper labeling, and ask about the handling of side streams. We have responded to questions about minuscule contaminant profiles, how we handle multi-use reactor decontamination, and how standards for 4-Acetylamino-2-(Diethylamino)Anisole differ from other similar aromatic amines. Transparency carries real implications: Any failure to track non-conformances from a lot triggers retraining and, if needed, revalidation of that line. We endorse E-E-A-T not because it’s fashionable, but because these values protect both our own operations and our customers’ finished products.
Disruptions—whether sudden spikes in demand, raw material shortfalls, or logistics bottlenecks—force local action faster than theoretical models can predict. We keep not just safety stock, but contingency process setup steps, ready to ramp or flex according to real-world changes. When the COVID pandemic disrupted freight, our factory teams ran triple shifts, and production managers slept on-site to hit critical timelines. This flexibility cannot be mimicked by resellers. Each variant and modification arises from deep product familiarity, stored process data, and people invested from start to finish.
Customers buying directly connect to process engineers and chemists, not just account managers. Clarifying the underlying cause of a failed application test, sometimes even running parallel lab trials at customer request, allows us to speed root-cause analysis. Batch-level communication proves decisive in avoiding shipment errors, qualifying for regulatory registration, and documenting every deviation for future improvement. We encourage customer site visits and regularly provide full traceability records for inspection.
A central lab, staffed around the clock, underwrites our quality guarantee—not just with equipment, but with experience. Every HPLC calibration, melting point check, or residue analysis is performed with oversight from teams who have hands-on knowledge across multiple campaigns. On-site consistency trumps third-party certificate claims because our QA personnel have authority to block shipments if even a hint of inconsistency appears. This regularly improves our defect record, increasing confidence on both sides of the order chain.
Our manufacturing teams take pride in every package shipped because they understand the intimate connection between their own work and the customer’s next successful batch. It has been said inside our plant that a well-run shift today plants the seeds for customer trust tomorrow. The direct line from production floor to customer application table means every improvement is a tangible success. Direct manufacturing brings lessons—failures hurt harder, but successes carry lasting credibility.
We hold decades of operational know-how specific to aromatic amine intermediate manufacturing, layered with real-time analytics and a strong emphasis on physical quality at every scale. Our ability to understand customer processes, translate practical needs upstream to chemical production, and implement changes with minimal friction, provides a living feedback loop. This transforms a basic listing into a product with provenance, consistency, and support. Anyone can handle logistics or warehousing; few invest in robust process improvement and deep end-application knowledge as a chemical producer must.
Collaboration with global and local partners, whether in upgrading storage for heat-sensitive batches or modifying solvents for lower environmental impact, shapes ongoing improvements. Listening to customer feedback on performance remains the ultimate measure of value delivered. Each step in the manufacturing chain bears scrutiny—from initial material reception, to in-process adjustments, to final inspection. People bring accountability, and real manufacturing brings the transparency and reliability that only decades of refined, hands-on experience can build.