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HS Code |
624364 |
| Cas Number | 102-60-3 |
| Molecular Formula | C6H15NO4 |
| Molar Mass | 165.19 g/mol |
| Appearance | White crystalline solid |
| Melting Point | 140-143°C |
| Boiling Point | 360°C (decomposes) |
| Solubility In Water | Very soluble |
| Density | 1.27 g/cm3 |
| Ph 1 Solution | 10.5-11.5 |
| Synonyms | Bis(hydroxymethyl)aminoethanol, Nitrilotriethanol |
| Refractive Index | 1.540 (20°C) |
| Odor | Odorless |
As an accredited 2,2-Bis(Hydroxymethyl)-2,2',2''-Nitrilotriethanol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging for 2,2-Bis(Hydroxymethyl)-2,2',2''-Nitrilotriethanol (500g) is a sealed, amber HDPE bottle with a secure screw cap. |
| Shipping | **Shipping Description:** 2,2-Bis(Hydroxymethyl)-2,2',2''-Nitrilotriethanol should be shipped in tightly sealed containers, protected from moisture and incompatible materials. It is typically transported at ambient temperature, with careful labeling for chemical safety. Ensure compliance with local regulations regarding the handling and shipping of non-hazardous chemicals; not classified as dangerous goods for transport. |
| Storage | Store **2,2-Bis(Hydroxymethyl)-2,2',2''-Nitrilotriethanol** in a tightly sealed container, protected from moisture and light. Keep in a cool, dry, well-ventilated area, away from incompatible substances such as strong oxidizers and acids. Use secondary containment to prevent spills and label clearly. Follow standard chemical hygiene practices, including appropriate personal protective equipment (PPE) when handling. |
Applications of 2,2-Bis(Hydroxymethyl)-2,2',2''-Nitrilotriethanol in Industrial Manufacturing2,2-Bis(Hydroxymethyl)-2,2',2''-Nitrilotriethanol serves as a specialty intermediate and functional additive in several advanced chemical production sectors. Our manufacturing expertise supports industries that require tight process controls, high-purity inputs, and regulatory compliance for specialty chemical synthesis. Below, we present key industrial applications grounded in real downstream uses, with detailed process, compliance, and formulation insights. 1. Epoxy Resin Curing Agents for Composite MaterialsThis raw material functions as a key component in customized curing agents for advanced epoxy resin formulations used in carbon fiber, glass fiber, and industrial composite manufacturing. The secondary and tertiary amine functions facilitate controlled cross-linking under moderate conditions, enhancing mechanical properties, chemical resistance, and thermal stability in end-user composite panels and parts. Manufacturers incorporate this intermediate in prepolymer synthesis and curing agent modification stages to fine-tune pot life and final strength parameters. Industry compliance standards
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2. Chelating and Sequestering Agent in Water Treatment Chemicals2,2-Bis(Hydroxymethyl)-2,2',2''-Nitrilotriethanol provides multi-dentate chelation capacity, making it effective for formulating advanced antiscalant and metal ion control additives in boiler, cooling tower, and reverse osmosis systems. Its selective complexation helps prevent hardness deposits and maintains salt rejection efficiency in challenging feedwaters. Customers in industrial water treatment blend this material to improve product performance, especially under high TDS or variable pH conditions, allowing longer system runtimes and reduced maintenance intervals. Industry compliance standards
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3. Synthetic Intermediate for Surfactant ManufacturingAs a highly functionalized tris(hydroxyalkyl)amine, this material provides a reactive scaffold for the synthesis of amphoteric surfactants used in high-performance cleaning, textile auxiliaries, and metal-working fluids. Alkoxylation and quaternization reactions capitalize on its multiple hydroxyl groups and nitrogen atom to create products with tailored hydrophilic-lipophilic balance (HLB). Industrial surfactant producers value its consistency for synthesizing quaternary ammonium compounds and betaines, achieving batch reproducibility and specific wetting, cleaning, or antistatic effects. Industry compliance standards
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4. Crosslinker for Polyurethane DispersionsThis specialty polyol serves as a tri-functional chain extender and crosslinking agent in the synthesis of waterborne polyurethane dispersions (PUDs) for coatings and adhesives. The compound’s multiple hydroxyl groups provide controlled reactivity with isocyanate prepolymers, resulting in increased crosslink density and enhanced mechanical retention for end-use films and adhesives. Polyurethane producers introduce this ingredient during prepolymer extension to balance film flexibility, chemical resistance, and adhesion properties, achieving high process reliability in continuous and batch operations. Industry compliance standards
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5. Reactive Intermediate for Lubricant Additive SynthesisThis tri-functional alcohol-amine intermediate enables the production of ashless dispersants and detergents for high-performance lubricating oil formulations. It undergoes targeted functionalization, such as Mannich base or succinimide condensation, to yield molecules that inhibit sludge formation and improve deposit control across diesel and gasoline engine oils. Major lubricant additive manufacturers integrate this building block during additive synthesis to ensure high dispersancy and stability in finished lubricants for transportation and industrial machinery. Industry compliance standards
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6. Intermediate for Custom Polymer Synthesis (Specialty Acrylics and Polyesters)The unique molecular structure can be harnessed during step-growth polymerization to develop functionalized acrylic and polyester polymers with enhanced adhesion, flexibility, and hydrophilicity. Specialty polymer manufacturers employ the raw material as a multifunctional branching agent or chain modulator, tailoring end-use polymer architectures for advanced coatings, adhesives, and sealant applications. The presence of multiple hydroxyl and amine groups allows precise control over crosslinking and monomer sequence integrity, facilitating custom polymer solutions for industrial clients. Industry compliance standards
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In our years of making specialty chemicals, 2,2-Bis(Hydroxymethyl)-2,2',2''-Nitrilotriethanol stands out for its unique combination of structure and performance. Often referred to as BIS-TRIS, it finds its place not because of a catchy name, but because of consistent results batch after batch. Manufacturing this compound, we deal directly with every phase—from sourcing to purification—so we see its strengths and the challenges firsthand. The real story is in the details: subtle differences in processes can alter its characteristics, and with many lab-scale and production runs behind us, we’ve refined what works.
Every batch we produce follows a stringent protocol, built on years of iteration and feedback from researchers and technical clients. We measure every variable, from temperature in the reactors to pH during crystallization. Our model comes in the form of free-flowing, white crystalline powder, packed in airtight containers to protect it from moisture. Rigorous in-house and third-party analysis leaves no question about quality. Moisture content stays beneath 0.1%, purity regularly surpasses 99%, and residue limits fall well within industry-defined thresholds. We use only trusted raw materials, keeping unknowns out and performance predictable.
On the floor, colleagues often talk about product overlaps and distinctions. BIS-TRIS sets itself apart through its clear, well-defined buffer range. Researchers value it in biological and biochemical studies for a simple reason: it holds pH steady where enzyme reactions demand stability. While other tris-based buffers like Tris-HCl sit in a more alkaline range, BIS-TRIS offers a slightly more acidic buffer window, roughly pH 5.8–7.2. We've seen how that can make the difference between reproducible results and frustrating inconsistency.
Buffers aren’t just about numbers. Impurities can shift equilibria or bring unwanted side reactions. By controlling our synthetic route—running carefully measured portions of hydroxymethylation and keeping extraneous byproducts like formaldehyde below the detection limit—we deliver material that doesn’t just meet spec, but truly performs under assay conditions. It’s the sort of detail we don’t see when handling generic off-the-shelf chemicals from resellers. Occasionally, a customer brings in cheaper alternatives. A few months later, they circle back: low-quality product gave unreliable data, with pH drift and sample contamination. Our experience tells us that shortcuts in synthesis always show up, sooner or later, in the results.
Chemists and biologists use BIS-TRIS for its buffering, but our clients come from industries beyond research. Diagnostic kit makers, pharmaceutical labs, and producers of intermediates for advanced materials all reach for it. Why? We see customers choosing BIS-TRIS when they need a buffer that doesn’t interfere with metal ions or react with amine groups present in substrates. Some buffer systems chelate or react, spoiling an experiment. Our process strips out metal ions as far as technically feasible, so interference drops to undetectable levels. There’s a world of difference between reading about these effects and seeing them in practice.
Long hours spent trialing formulations and running tests make patterns clear. BIS-TRIS works especially well in protein crystallization and enzyme assays. Its zwitterionic nature reduces background noise and can preserve protein function. In my own work, I’ve seen researchers switch from a more basic buffer to BIS-TRIS, only to watch their crystallography results improve overnight. It isn’t luck—it’s molecular compatibility, built into every grain by manufacturing discipline.
We get plenty of questions from technical leads and R&D staff: “Can’t we use something cheaper?” In our plant, we see firsthand how different buffers behave under stress. BIS-TRIS stands up to repeated autoclaving. Some alternatives degrade or discolor. Watch a freshly prepared buffer develop particulates or pH drift after just one cycle—no researcher wants that. We’ve received batches from other suppliers for comparison. Extra sodium, potassium, or transition metals left from poorly washed reaction vessels, sometimes off-odors hinting at under-purified intermediates. In those moments, our lines run with tighter controls. No shortcuts.
Some see only the price tag, but buffer choice influences both experimental reliability and long-term costs. With BIS-TRIS, total protein yields hold steady and pH remains fixed, even through repeated heat or freeze-thaw cycles. Less waste, fewer failed runs, and lower risk of repeating months of work. Colleagues in pharmaceuticals note that downstream processing runs smoother with less ion interference, often one step closer to regulatory success.
Our experience drives home that “high purity” isn’t a hollow claim. It’s the way customers get reproducible results across different labs and projects. Each reactor charge receives real-time monitoring by in-house chemists. If anything looks off—slight color variation, delay in endpoint detection—we halt production to investigate. That type of diligence means we rarely face product recalls or quality complaints. Instead, we see retention rates climb and customers returning for new research applications.
We keep detailed records for every batch, capturing all analytical results. For complex applications—analytical standards, pharmaceutical intermediates, high-sensitivity diagnostic kits—we work directly with users to modify parameters. Some require finer particle sizes or processing under specific inert conditions, and we’re able to meet those. Over time, that feedback cycle improves not only our own product, but the reliability of technical workflows around the world.
Quality control doesn’t stop at the plant gate. Shipment integrity affects everything. BIS-TRIS absorbs moisture easily, which can lower effectiveness and introduce variability. Our packaging comes heavily tested for seal strength and desiccant efficiency. For years, we’ve tracked shipment and storage incidents. Temperature spikes during transit? Containers hold tight. Opened pails left out in humid conditions by mistake? Inner liners slow moisture ingress, giving technicians time to recover before the powder turns clumpy. The collective knowledge among our packing team keeps returns and complaints at near-zero.
Bringing a new batch online, we don’t rest until it matches past lots on all key parameters—appearance, odor, purity, and trace contaminant profile. We trust our analytical team to flag even minor variabilities. For diagnostic manufacturers and pharmaceutical producers, every part per billion counts. Years of shipping sensitive compounds let us predict weak spots before they arise, streamlining the handoff from factory to end user.
Customers come to us with problems: unexpected reactivity, inconsistent analytical results, mysterious background peaks. By sharing our synthesis and purification knowledge, we help scientists troubleshoot and optimize. Knowing the ins and outs of BIS-TRIS lets us provide practical recommendations. Buffering in the lower end of the neutral pH scale? We confirm compatibility with all reagents in your mix. Working under ultra-sensitive mass spec conditions? We deliver tailored solutions free from trace alkalis, often overlooked in bulk commercial-grade chemicals.
Our line workers, engineers, and technical sales staff communicate daily with researchers—sometimes for weeks—troubleshooting until their issues resolve. Our willingness to adapt production protocols can be the difference between a derailed project and a breakthrough. BIS-TRIS isn’t just a chemical formula; it’s a result of steady customer feedback, retraining, and infrastructure investments in responsible production.
Safe and sustainable practices shape how we approach every step of BIS-TRIS production. All waste streams from our process get treated and neutralized in our on-site facilities, meeting or beating all local and international guidelines. Trace emissions, if any, are scrupulously monitored. By constantly updating to newer, more energy-efficient equipment, we minimize both our energy consumption and water use. Sustainable methods now cut our overheads and contribute to rigorous compliance without sacrificing quality.
Every certificate reflects our actual production data, not just standard templates. Regulators and auditors inspect our lines yearly. Surprises are rare—years of strict controls have built a culture of preparation and transparency. This attention extends to the transport and labeling of BIS-TRIS, ensuring labs and plants who use our product get exactly what they expect. Our direct line to industry regulators makes certain all safety data reflects true hazard and handling needs.
Our partnerships with academic labs and industry have helped shape the ways BIS-TRIS is used. Whether it’s optimizing for next-gen sequencing, developing pharmaceutical formulations, or resolving difficult separations, we exchange methods in both directions. Our R&D team runs pilot batches and customizes ingredient profiles as research trends evolve. When novel problems arise—rare contaminants, supply chain interruptions, or scaling new molecular assemblies for advanced tech—we draw on both lab experience and decades of plant management to keep supply stable.
Across hundreds of production cycles, we’ve honed practices that minimize exposure to workplace hazards and environmental impacts. Training stretches beyond the chemical engineers to all staff involved—operators, packers, logistics. Every hand that touches BIS-TRIS understands its role in keeping quality consistent from start to finish.
Innovations in bioscience and analytical technology depend on foundation chemicals like BIS-TRIS. In a rapidly evolving field, reliable components let teams focus on development, not troubleshooting. By offering direct support, rapid documentation, and transparent certification, we help clinicians, researchers, and engineers meet tight deadlines and growing standards.
From early-stage trials to high-throughput production, BIS-TRIS buffers play a role in everything from basic R&D to critical diagnostic platforms and pharma pipelines. Large-scale drug development projects depend on reproducibility—any deviation can put patient safety at risk. Our committed team helps maintain that level of confidence with proven process control and prompt communication at every stage.
Fresh demands always surface in science and manufacturing, and we’re adapting BIS-TRIS production to deliver both higher quantity and tailored grades. Some clients need micronized powders for automated dispensing. Others push for zero-residue batches in semiconductor or precision analysis setups. Keeping flexibility in our equipment and staff skills allows us to adjust quickly, filling orders that meet both new and traditional criteria for success.
Feedback from advanced users has led to incremental changes—sometimes as small as changing a valve setting during crystallization, sometimes as major as switching to more advanced purification columns. Each adjustment makes the product better suited to its real-world tasks. Day-to-day, we stay ready for the next challenge, with a warehouse stocked not only with finished product but also with materials and tools for improvement at a moment’s notice.
The reason we keep BIS-TRIS at the front of our portfolio isn’t marketing—it’s the visible, practical impact it has on scientific progress. Years at the factory have shown that details in manufacturing shift outcomes in the lab. As the people behind every kilogram produced, we stand by our process and our product. For every scientist preparing an assay, for every formulator counting on a stable buffer, and for every team scaling their innovations, we know that our discipline translates into their progress. BIS-TRIS is more than a reagent—it’s the outcome of decades of manufacturing know-how, operational diligence, and shared goals with every user who opens a fresh drum.