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HS Code |
959273 |
| Chemical Name | 2,2'-(p-Tolylimino)diethanol |
| Synonyms | N-(2-Hydroxyethyl)-N-(p-tolyl)aminoethanol |
| Molecular Formula | C11H17NO2 |
| Molecular Weight | 195.26 g/mol |
| Cas Number | 3244-90-4 |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 190-193 °C at 3 mmHg |
| Density | 1.09 g/cm3 at 25 °C |
| Solubility | Soluble in water, alcohols, and most organic solvents |
As an accredited 2,2'-(P-Tolylimino)Diethanol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Packed in a 100g amber glass bottle with a secure screw cap, labeled with product name, chemical formula, and hazard information. |
| Shipping | 2,2'-(P-Tolylimino)Diethanol is shipped in tightly sealed containers, protected from moisture and light. It is typically transported at ambient temperature and must comply with all local, national, and international chemical transport regulations. Safety data sheet (SDS) information must accompany the shipment to ensure proper handling and emergency response if required. |
| Storage | 2,2'-(P-Tolylimino)Diethanol should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from sources of heat, ignition, and incompatible materials such as strong oxidizers. Protect the chemical from moisture and direct sunlight. Ensure that the storage area is clearly labeled and access is restricted to trained personnel only. |
Applications of 2,2'-(P-Tolylimino)Diethanol in Industrial Manufacturing2,2'-(P-Tolylimino)Diethanol plays a functional role in several specialized industrial sectors. Our manufacturing experience enables precise quality control and application support across targeted downstream processes. Below, we detail key application scenarios and integration protocols in real-world industrial environments. 1. Synthesis of Metal Extraction Reagents for HydrometallurgyThis compound serves as a key intermediate in the formulation of selective liquid-liquid extraction agents, especially for copper and other non-ferrous metals. Its chemical structure allows stable chelation under strong acid conditions typical in solvent extraction circuits. Manufacturers can leverage its high active content to ensure consistent phase transfer and minimal degradation during repetitive loading and stripping cycles. Industry compliance standards
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2. Epoxy Resin Catalyst and Accelerator ProductionThe molecule acts as a secondary amine accelerator in two-component epoxy systems. It enables faster curing at ambient or slightly elevated temperatures, improving throughput for civil engineering sealants, adhesives, and industrial floor coatings. The controlled reactivity and compatibility with various epoxy prepolymers lower the risk of incomplete crosslinking or filler separation during high-volume processing. Industry compliance standards
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3. Corrosion Inhibitor Synthesis for Refinery and Oilfield ChemicalsThe compound functions as an essential building block in organic corrosion inhibitor formulations, targeting both water- and hydrocarbon-phase systems. Manufacturers use it to increase inhibitor film persistence on mild steel and other ferrous surfaces exposed to acidic media, pipeline fluids, or downhole environments. Its dual hydroxyl and aromatic amine groups enable tailored solubility and adsorption behavior in finished inhibitor blends. Industry compliance standards
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4. Polyurethane Additive Production for Rigid and Flexible FoamsThis raw material acts as both a reactive chain extender and a process modifier in polyurethane foam systems for construction insulation, refrigeration, and automotive sectors. Chemical compatibility with existing polyol and isocyanate stocks ensures ease of incorporation. The use of this compound can tune foam resilience, density, and dimensional stability without requiring reformulation of other core raw materials. Industry compliance standards
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Competitive 2,2'-(P-Tolylimino)Diethanol prices that fit your budget—flexible terms and customized quotes for every order.
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There’s a certain satisfaction in seeing a batch of 2,2'-(P-Tolylimino)diethanol go from concept to drum. Sourcing quality base chemicals, overseeing every reactor’s spike in temperature, measuring the pH at each stage—these aren’t steps to rush or outsource. For years, we’ve taken the direct approach. We’ve handled this imine firsthand, from the first drops of p-toluidine dissolving in our glass-lined tanks through to the final quality check in the on-site lab. Nothing beats the direct knowledge you get from standing right where it happens.
The consistency and performance of each kilo starts with the right chemical backbone: 2,2'-(P-Tolylimino)diethanol stands out due to its straightforward synthesis and the stable properties we’ve dialed in over hundreds of production runs. We deliver the compound as a yellowish to light brown viscous liquid or low-melting solid, depending on customer preference. Most batches hover around the 99+% purity mark—measured right here on our site’s GC and NMR stations. Water and byproducts stick out on our purity checks. What matters most on the plant floor is that the product pours clean and acts reliably in downstream processing. That’s never a job for random sampling or trusting paperwork alone; we check, batch by batch.
Making 2,2'-(P-Tolylimino)diethanol isn’t just about putting together ethanolamine and p-toluidine and letting chemistry do the rest. Real-world manufacturing lives in the details: maintaining the right moisture content in every intermediate, controlling color during distillation, and managing waste to meet environmental standards. It’s about having experienced operators who know what a finished sample should smell like, and who notice if crystallization starts too soon. Our experience comes from handling thousands of kilograms—catching mistakes in real time, improving yields, and shaving down process residues batch after batch.
There’s a big difference between a material made for end-user blending, and one meant for high-purity reactions. Many times, we’ve seen projects stall because someone upstream skimped on traceability or tried to cut cost with recycled intermediates. We’ve kept records not just of every test result, but of each storage tank and cleaning cycle. Buyers come to us because they expect consistency, and that’s only possible when the process never gets outsourced or shuffled through unknown hands. That approach pays off when our samples pass every independent inspection, no matter where they end up.
2,2'-(P-Tolylimino)diethanol has found its place in more than one corner of the industry. Over the years, resin formulators have come to us for the rich reactivity this imine brings to curing systems. Its structure, with dual hydroxyl and aromatic imine groups, works well as a curing agent or flexibility modifier—our technical team has seen coatings made tougher, adhesives tackier, and foams more resilient by folding this molecule into new recipes. Our partners in the metalworking sector have taken advantage of its ability to form chelates and complexes. They trust it for formulating anticorrosion agents and cutting fluid additives where both stability and gentle action on sensitive surfaces matter. Decades of usage have shown that material purity and batch-to-batch reliability influence how well a recipe transitions from test flask to large-scale reactor.
Not every lot of 2,2'-(P-Tolylimino)diethanol is built the same. We’ve learned this both as producers and as customers for other industrial chemicals. Our process begins with select grades of p-toluidine and ethanolamine—fresh, never recycled—and our reactors run at strictly maintained temperatures that keep side products to a minimum. By keeping water content low, we help ensure the final product has a clear melt and stable shelf life. Our team double-checks for trace metals and undesirable amines that could compromise reactivity or add color instability to end-use formulations. It’s not just about purity on a faxed COA; it’s about spotting what downstream chemists value the most, and making that the norm. The goal, every day, is producing a material you can build a process around—without worry over off-flavors, unpredictable color shifts, or residues that clog up lines.
We’ve seen customers win bids on specialty coatings jobs because the material holds its cure in winter storage and pumps smoothly, without clumping or phase separation. Lab-scale blends might only need a little consistency, but on the plant floor, smooth flow, reliable viscosity, and solid shelf stability mean fewer production headaches and less rework. Feedback from buyers experimenting with new resin crosslinkers or lubricants has led us to tweak our water removal step—a small adjustment that made a big difference for their batch uniformity. By working directly with industrial labs and not just mail-order brokers, we see how each small spec change translates into an easier, more predictable process for every operator—not just our own.
Lots of imino alcohols line the shelves of raw materials rooms. Some buyers ask why not just use diethanolamine or another generic analog. The answer comes down to structure and predictability. Diethanolamine works for some lubricants and curing systems, but lacks the same aromatic imine function and misses out on the physical toughness that p-tolyl-based imines can impart to crosslinked polymers. We don’t see surprises in performance—even as other materials come and go in the market—because this molecule’s properties land right in the sweet spot for resin, rubber, and industrial chemical synthesis. From a builder’s perspective, that kind of reliability cuts costs every time someone avoids a failed batch or a warranty callback.
We didn’t start direct sales for quick wins. Over years of supplying bulk volumes, we found that the best learning happens after a product leaves our loading dock. Every feedback call, every sample failure, and every unexpected shipping challenge has pushed us to tighten process controls and invest in better lab gear. We store detailed run data, not out of regulatory duty alone, but because long-term supply relationships ride on recall and repeatability. Our largest coatings clients call us on a first-name basis, and their floor operations have taught us lessons we’d never see just reading papers. We invite feedback because every struggle—from a sticky valve to a failed gelation—gives us new data to feed back into product improvement.
At several points, we’ve found ourselves side by side with customers, discussing bench tests and pilot runs. Formulation chemists have called in needing tighter color specs, faster melting times, or lower residual odor. In each case, our lab adjusted process steps—sometimes as simple as extending distillation under vacuum, sometimes swapping out a gasket material that was causing off-odors. Over time, our close work with formulators has helped us eliminate micro-contaminants, minimize yellowing in resins, and develop a product with nearly unnoticeable odor. These wins come from hands-on partnerships, not from distant brokerage or paperwork exchanges.
Lab synthesis often does not expose the bottlenecks that show up in a real factory. In full-scale runs, temperature swings or uneven agitation can affect side product levels. Our process engineers spent years learning the sweet spots—such as paying close attention to mixing rates or precisely staging water removal. In early days, we saw issues with product haze and inconsistent melting, sometimes traced back to inconsistent raw material handling or incomplete dry-downs. We solved these through equipment upgrades and stricter batch logs. Stepping up to meet larger orders taught us about scale-dependent issues like foaming, which we addressed by adjusting reactor pressures and using antifoam agents with no impact on purity. Each new ton means new obstacles, but it also pushes us to improve every year.
Modern chemical production can’t ignore environmental realities. In making 2,2'-(P-Tolylimino)diethanol, our approach to compliance covers more than just ticking boxes on an audit sheet. Solvent recovery, emission reduction, and water treatment start at the reactor, not in the legal department. We’ve invested in on-site scrubbers, energy-efficient distillation, and waste valorization for spent materials. These steps aren’t window dressing—they control real costs by minimizing fines and disposal fees over the long haul. This hands-on management approach helps us hit the safety and environmental scores that our customers require in their own supply audits. We don’t just hand over data; customers are welcome anytime to see our process and talk directly to the engineers running their batch.
Not all industries grow at the same pace, but changes ripple through supply chains fast. As regulations tighten in downstream applications—be it in Europe’s REACH rules, North America’s TSCA guidelines, or shifting standards in Asia—customers need confidence that the materials they use won’t trigger compliance headaches. Because we stay plugged into trade associations and regulatory forums, we tune our synthesis routes and supporting paperwork the moment the standards change. Buyers receive documentation and transparency not just for one shipment, but for any year-on-year changes that might affect end use. This preparation means fewer emergency reformulations or sourcing problems for our users.
Questions don’t always crop up during business hours, and they don’t always fit into tidy email threads. Over time, our technical crew has fielded calls about mixing anomalies, unexpected color after storage, or even suspected contamination from transport. Unlike traders or distant resellers, our staff knows every valve, every lab method, and every likely cause when something doesn’t look or smell right. This direct knowledge makes a difference when a fast solution means saving a batch or keeping a plant running on a tight schedule. We believe there’s no substitute for factory-trained support, backed up by full production records and the ability to run re-tests at a moment’s notice.
Years of hands-on experience have taught us that no shortcut saves time in the long run. From PPE routines for our operators to updated fire suppression in the storage sheds, safety forms the backbone of every job in the plant. Whether it’s monitoring vapor in high-volume mixing or labeling shipments with up-to-date hazards data, we place our focus on both worker health and customer handling risks. Over time, we’ve developed best practices—like staggered loading to avoid cross-reactivity and multi-step clean-in-place for all batch vessels—that extend the same reliability to end users. If we wouldn’t personally handle it that way, we don’t expect our customers to either.
Progress never stays still in manufacturing. We continually revisit our equipment, update cleaning protocols, and retrain staff as analytical standards evolve. By bringing in process automation and computer-monitored agitation and heating systems, we catch small inconsistencies that older setups might miss. Our upgrades focus on what matters most—reducing off-spec lots and cutting rework times. Rather than relying on downstream complaint handling, we track trending issues and build process tweaks directly into every run plan. This commitment, made in-house, continuously sharpens our output so customers benefit first from each improvement.
In any real factory, batch specs outlive paperwork. What matters most to production foremen and compounders isn’t what’s printed on a data sheet, but how the material behaves at scale—how well it mixes, whether it leaves residues, how it colors and reacts under stress. As the producer, we field these questions daily and invest time in answering them. We know that a slight trace of a catalyst or an off-ratio mixture can tip a process into rework territory. For this reason, our focus stays rooted in the plant—not in abstract, one-size-fits-all claims. We deliver samples made on the same lines as commercial volume, and we check supplier feedback against our own internal records to anticipate any issues before they arrive in your shop.
Writing the next chapter of specialty chemical manufacturing hinges on joint development between users and reliable producers. By staying open to pilot projects and early testing with our direct customers, we reinforce the bridge between discovery and production. When chemists at end-user firms call looking for new crosslinking options or more flexible cure times, we open our labs to their input. The feedback they provide, from simple color metrics to in-depth thermal analysis, goes straight into process changes. Every success in a novel adhesive or high-strength foam comes not just from the base molecule, but from the hands-on cooperation between their formulation skills and our production experience.
Years in the business have convinced us that reliability happens where hands meet the controls—not where paperwork gets shuffled. Our direct involvement at every step—sourcing, synthesis, testing, packaging—means fewer variables get overlooked. Real producers know that keeping specs tight pays off not by hitting abstract targets, but by giving customers the freedom to focus on building better products, not fighting raw material headaches. The market might shift, supplies might tighten, but our methods deliver steady quality batch after batch.
2,2'-(P-Tolylimino)diethanol serves as more than just a building block. It holds countless projects together in adhesives, resins, lubes, and specialty blends that customers trust to perform. Our experience shapes every lot, from raw material to final testing and down the last shipping manifest. Each drum carries with it the assurance—not just of specification compliance, but of real-world usability and direct producer support. We invite the technical questions, the manufacturing puzzles, and the process feedback that drive us to make each new batch a little better than the last. As the producer, every improvement we make starts with listening to our customers and never settling for “good enough.”