|
HS Code |
593077 |
| Chemical Name | 3-(Dimethylamino)-Phenol |
| Cas Number | 99-07-0 |
| Molecular Formula | C8H11NO |
| Molecular Weight | 137.18 g/mol |
| Appearance | Light brown to beige solid |
| Melting Point | 73-77 °C |
| Boiling Point | 265-267 °C |
| Solubility In Water | Soluble |
| Density | 1.08 g/cm³ |
| Flash Point | 138 °C |
| Pka | 9.18 (Phenol group) |
| Refractive Index | 1.610 |
| Synonyms | 3-Hydroxy-N,N-dimethylaniline |
As an accredited 3-(Dimethylamino)-Phenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 250g of 3-(Dimethylamino)-Phenol is supplied in a sealed amber glass bottle with a screw cap, labeled with safety information. |
| Shipping | 3-(Dimethylamino)-Phenol is shipped as a solid chemical in sealed, clearly labeled containers. Transport must comply with local, national, and international regulations. It should be kept away from ignition sources and incompatible materials. Appropriate hazard labeling and documentation, including Safety Data Sheets (SDS), must be included with all shipments. |
| Storage | 3-(Dimethylamino)phenol should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from direct sunlight and sources of ignition. Keep separate from strong oxidizing agents, acids, and bases. Use secondary containment to prevent spills. Label storage clearly and ensure access to appropriate safety data sheets (SDS) and personal protective equipment (PPE). |
Competitive 3-(Dimethylamino)-Phenol prices that fit your budget—flexible terms and customized quotes for every order.
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In our chemical plant, 3-(Dimethylamino)-Phenol stands out for its consistency and versatility across multiple synthesis pathways. We see this material, often referred to as DMAP, play a key role in the dye industries, pharmaceutical intermediates, and laboratory research. Over two decades in synthesis, our team avoids solely focusing on lab performance; we pay closer attention to the challenges customers face once the drums leave the dock: reactivity, shelf-life, and handling at scale.
Chemical production offers no shortcuts. To manufacture DMAP at high purity, we rely on advanced distillation, strict reaction control, and careful packaging. Our typical batch provides purity at or above 99.0% by GC, with trace moisture and iron content controlled far below levels that might affect downstream formulating or reactions. The physical form—white to light brown crystalline powder—signals a clean reaction and a monitored workup. Some manufacturers lean towards batches with color issues, but this often signals residual byproducts or thermal instability. We dedicated time to perfect re-crystallization steps that remove colored impurities, so end users don’t inherit our headaches.
The chemical structure of 3-(Dimethylamino)-Phenol, defined by its para-dimethylamino group relative to the phenol, gives the compound unique nucleophilicity and base strength. Substituting the amino group at the meta position—the ‘3’ in the name—results in different reaction kinetics compared to ortho or para isomers. This specificity breaks open new applications, especially in modern dye and resin chemistry. Unlike bulk phenol or simple dimethylamino substituted aromatics, our product does not degrade in storage due to oxidative side reactions, provided proper packaging follows.
We’ve seen substitutions: Some users try 4-(Dimethylamino)-Phenol or the ortho variant as replacements. Over time, we watched yields fall off in azo dye coupling or coupling with active halides. Side reactions and off-color products increase operating costs, especially for sensitive colorants or pharmaceutical intermediates demanding tight batch-to-batch performance. Our DMAP consistently gives sharper yields, more predictable product color, and easier purification compared to those isomers.
We have shipped DMAP to international partners in the dye sector for over 15 years. These clients employ it for fast base coupling, where its unique electron-donating effect speeds azo dye synthesis. The end-use textile or ink customers report better lightfastness and shade reproducibility. In our view, process reliability cuts waste. The compound’s tendency not to darken over time on storage, thanks to our stabilization and drum management, directly reduces raw material write-offs for clients with seasonal production.
API makers rely on 3-(Dimethylamino)-Phenol for synthesis of local anesthetic intermediates, and our customers in specialty chemical sectors seek it for modifiers in epoxy curing and resin hardening. Conventional phenol does not offer the same level of catalytic improvement or bond activation. Because DMAP’s structure provides higher nucleophilicity than either 2- or 4- isomers, users report tighter control of polymer molecular weights and reduced side reactions in final curing, which matters for coatings and adhesives exposed to UV or heat.
We think about process as much as product. Much of the global feedback around DMAP price volatility or unreliable shipments arises from technical barriers in manufacturing. Our continuous-flow reactor platform maintains temperatures within two degrees during the core amination step, minimizing side products like mequinol or toluidines. Our plant’s closed system picks up less airborne moisture, meaning the powder delivers reproducible results year-round.
End-users often face material inconsistencies when sourcing from brokers or batch-based plants. Some shipments clump or degrade due to improper sealing. Our packaging lines begin nitrogen purging before the powders enter drums. Re-sealable, moisture-proof packaging extends the usable shelf life by several months. Customers notice less batch-to-batch drift and report no need for unnecessary purification upstream from us. By keeping iron, copper, and other transition metals far below 5 ppm, we eliminate common contamination sources that can disrupt dye shade or resinate polymerization.
As producers, we must report all upstream and downstream risks linked to specialty aromatic amines. We guarantee traceability back to core raw materials, which matters during audits and for compliance with regional environmental standards. Many plants resort to outdated purification or do not track batch genealogy; that increases recall risk. We store full batch records for ten years, including all analytical details.
Safety matters. 3-(Dimethylamino)-Phenol demands strict labeling, technical data follow-up, and a willingness to support end users managing hazardous intermediates. We work with users to streamline safe handling: clear labelling, up-to-date safety data, and system recommendations for dust management. In compliance with GHS systems and REACH for Europe, our product labeling supports customer inspections. Not everyone in the market provides this; we see growing regulatory fines for companies unable to demonstrate full supply chain transparency.
For many users, performance goes beyond “purity”—it involves batch-to-batch color, powder handling, solubility in polar/nonpolar solvents, and reactivity under specific process conditions. One of our Indian textile dye houses reported that switching to lower-grade DMAP triggered unexpected shifts in finished product hue, leading to an entire batch of rejected textiles. A pharmaceutical user saved over two weeks in intermediate purification steps when switching to our higher-purity DMAP, reducing cleaning solvent waste and lowered occupational exposure as a result.
In coating and resin facilities, DMAP’s basicity modifies polymer backbones, controlling crosslinking in epoxy adhesives and phenolic-formaldehyde resins. Uniformity in granular size and moisture content directly affects these reactions. We calibrate our milling and drying operations so granulation remains within tight specifications. Replicating these results outside a properly controlled facility rarely works; off-spec sizes or caking causes inconsistent feed and leads to batch failures.
We have weathered raw material spikes and changing regulatory requirements by securing redundant supply chains. Our partnerships with upstream amine and phenol producers cut the risk of supply chain disruptions, and we invest in storage infrastructure, so customers avoid last-minute shortages. When COVID halted other plants, we maintained monthly deliveries for key customers by drawing from our reserve stocks—others scrambled as generic brokers vanished.
At our plant, digital batch tracking interfaces let our customers access production and analytical records directly, reducing administrative delays. Barcoded drum tracking improves lot allocation and first-in, first-out distribution for critical timelines. Instead of chasing specs after delivery, we make consistent manufacturing practices the norm: whether a hundred kilos or a full reactor run, customer-facing documentation remains identical. We also avoid "gray-market" trading that introduces risk for regulated customers in pharma and agrochemical sectors.
As a direct manufacturer, we field questions seniors can answer: how does moisture content shift after air exposure? What happens if a filtration step unexpectedly slows? Our technical staff actively walks customers through troubleshooting dye coupling, pharmaceutical intermediate isolation, and recovering off-spec batches. No third-party layer separates us from actual plant performance. For batch deviations, we review our continuous monitoring records, isolating the specific step at fault; this supports process improvement rather than finger-pointing.
Our team builds process documentation and validates lots with full in-process testing: GC, HPLC, melting point, and moisture. In the chemical industry, a “fingerprint” batch profile helps users replicate success at their facility with no guesswork. This transparency supports not only process safety but also rapid root-cause analysis for customers scaling up new formulations or troubleshooting downstream issues.
The global market for specialty amines continues to shift towards stricter impurity limits and documented supply chain stewardship. Large textile groups, pharmas, and chemical multinationals have phased out less-documented suppliers in favor of primary manufacturers with compliant infrastructure. More attention now settles on trace metal and solvent residuals—regulators increasingly enforce limits for substances like methyl chloride or phenolic byproducts, even when previous limits sufficed. From our side, investing ahead in analytical capability reflects our commitment to safer, cleaner, and certifiable raw materials.
China, Korea, and India remain major end-user regions, but we see European and North American buyers raising questions about ecological impact and byproduct management. With DMAP, waste streams require particular care due to the persistent nature of aromatic structures in wastewater. We deploy on-site treatment to capture, neutralize, and incinerate process effluents, documenting every metric during internal and external audits. This not only reduces risk for us but shields downstream customers from legacy environmental liabilities.
In the chemical sector, trends move toward traceability, transparency, and long-term business continuity over spot pricing. Our experience with 3-(Dimethylamino)-Phenol demonstrates that relying on direct relationships, consistent plant control, and careful documentation provides more value than low-cost, speculative offerings. Receiving feedback from textile and pharmaceutical clients—especially on failures with off-brand material—shapes our operation as much as demand curves. Consistent performance and verifiable sourcing reflect in real-world cost savings, product safety, and regulatory peace of mind.
3-(Dimethylamino)-Phenol’s importance lies not just in its structure but in the manufacture: purity, supply reliability, and a rooted understanding of end-user needs make the difference. From batch design to shipment tracking and technical support, we recognize the compound has a broad impact across industries. Every drum that leaves our warehouse carries the results of continuous improvement, technical rigor, and real-world understanding earned through years of hands-on manufacturing. When selecting suppliers, buyers committed to long-term partnerships, innovation, and compliance benefit most from direct manufacturing experience.