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HS Code |
326994 |
| Cas Number | 111-75-1 |
| Molecular Formula | C6H15NO |
| Molecular Weight | 117.19 g/mol |
| Iupac Name | 2-(Butylamino)ethanol |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 188-190 °C |
| Melting Point | -50 °C |
| Density | 0.89 g/cm³ at 20 °C |
| Solubility In Water | Miscible |
| Flash Point | 83 °C |
| Odor | Amine-like |
| Ph | 11 (20 g/L, H2O, 20 °C) |
| Vapor Pressure | 0.16 mmHg at 25 °C |
As an accredited 2-(Butylamino)Ethanol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 500 mL amber glass bottle with a secure screw cap, labeled “2-(Butylamino)Ethanol, 99%,” hazard symbols, and handling instructions. |
| Shipping | 2-(Butylamino)ethanol should be shipped in tightly sealed containers, protected from moisture and incompatible substances. It must comply with relevant regulations for chemicals, typically as a hazardous material (UN 2735, Corrosive Liquid, N.O.S.). Transport requires appropriate labeling, safety documentation, and secure, upright placement to prevent leakage or spillage during transit. |
| Storage | 2-(Butylamino)ethanol should be stored in a cool, dry, well-ventilated area, away from sources of ignition and incompatible substances such as strong oxidizers. Keep the container tightly closed and properly labeled. Store at room temperature, and protect from heat, moisture, and direct sunlight. Use appropriate chemical-resistant containers and ensure spill containment measures are in place. |
Applications of 2-(Butylamino)Ethanol in Industrial Manufacturing2-(Butylamino)Ethanol serves as a specialized intermediate and functional additive in several downstream manufacturing sectors. As a direct producer, we support customers in industries that require high control over raw material quality, adherence to strict regulatory standards, and consistency in technical performance. 1. Synthesis of Industrial Surfactants for Metal CleaningThis chemical functions as a hydrotrope and alkalizing component in the production of high-performance metal cleaning surfactants. By introducing a butyl-substituted ethanolamine group, formulators enhance emulsification and metal ion chelation in alkaline cleaning baths. The incorporation of this molecule improves degreasing and residue removal under spray or immersion cleaning processes, especially in automotive, industrial equipment, and precision steel manufacturing lines. Industry compliance standards
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2. Intermediate in Pharmaceutical Synthesis (API Side Chain Formation)As a secondary amine and alcohol, this compound enters as a molecular building block in API side chain synthesis, particularly where butyl substitution improves bioavailability or receptor binding. Manufacturers rely on our material in multistep reactions involving nucleophilic substitution or reductive amination, followed by purification for inclusion in the final active or prodrug structure. Industry compliance standards
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3. Gas Sweetening Additive for Natural Gas ProcessingThis material acts as a low-foaming co-solvent and pH buffer in custom-designed amine gas treatment solutions. Engineers blend it in selective absorption units to optimize removal of acidic gases such as CO₂ and H₂S from raw natural gas. The use of butylamino-substituted ethanolamine extends solvent life, controls foaming, and decreases the corrosiveness of downstream pipelines and processing columns. Industry compliance standards
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4. Co-Monomer in Production of Waterborne Polyurethane DispersionsIn waterborne PU resin synthesis, this alcohol–amine compound serves as a chain extender and functionalizing co-monomer. It imparts flexibility and hydrophilicity, improving film properties and colloidal stability. Manufacturers introduce it in prepolymer steps or as a post-chain extension reactant prior to dispersion and neutralization. This enables the delivery of coatings and adhesives with key performance specifications for footwear, automotive interiors, and nonwoven textiles. Industry compliance standards
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5. Neutralizing and Buffering Agent in Industrial Textile Auxiliaries2-(Butylamino)Ethanol brings controlled alkalinity and mild basicity in the manufacture of textile treatment auxiliaries, including dye-leveling agents and antioxidant stabilizers for polyester and acrylic blends. This enhances compatibility with both cationic and anionic chemicals in dye baths and post-treatment washes. Technical managers choose this raw material for its capacity to stabilize formulations and minimize the risk of fabric damage, especially during continuous dyeing and high-temperature processing. Industry compliance standards
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Working in the chemical industry over the years, we have seen the role of specialty amines grow as a backbone of organic synthesis and functional materials. 2-(Butylamino)Ethanol—also known by its CAS number 111-75-1—is one of those products that consistently bridges practical needs with flexible applications. This chemical combines a butylamino group and a hydroxyethyl group, offering both solubility in polar liquids and reactivity with acid chlorides, isocyanates, and epoxides. Its formula, C6H15NO, reflects a balance between hydrophobic and hydrophilic properties, which shapes where and how it’s used on the factory floor.
Every batch we produce falls within strict quality controls. By overseeing every part of the process—from raw material sourcing, to intermediate reactions, to purification—our team ensures each lot is colorless, with a purity above 99%, and consistently meets moisture and by-product thresholds. We don’t cut corners, because consistency defines reliability for those downstream industries counting on reproducible performance. Through direct manufacturing experience, we see small variations in impurity profiles can impact foaming, curing, or amine reactivity in a customer’s end-use environment.
Over years of operations, we have developed robust synthesis steps and built in-line analytics that check for residual solvents, unreacted starting amine, and pH. The amination process takes place in closed reactors under inert conditions to minimize by-products. We select feedstock butylamine and ethylene oxide based on trace impurity levels and shipping freshness, knowing that contamination—even on the ppm level—poses risks to downstream polymerization or pharmaceutical intermediates.
Regular GC and NMR testing isn’t just for compliance. It gives us detailed insight into how process parameters like temperature ramping, addition rates, and agitation affect yield and product color. Our reactor operators track every run. If any batch falls outside our internal control targets, it goes through extra polishing or is pulled from sale. We regularly calibrate our storage tanks to ensure that any residual oxygen or water doesn’t compromise the freshly manufactured material before shipping. These direct controls keep batch-to-batch variance minimal.
Storage is just as important to us. We transfer the final product into stainless steel tanks with sealed fittings and nitrogen blanketing, storing at 20-25°C to prevent any amine oxidation or water uptake. Labeling, certification, and shipment documentation are planned in detail, since our factory output becomes raw material for coatings, pharmaceuticals, or water treatment at plants far from our own. Our team stands behind every drum, because it’s our name on the product, not just a code on the label.
In practice, our customers use 2-(Butylamino)Ethanol mostly as an intermediate—not an end product. Polyurethane formulators, for example, use it as a chain extender. The hydroxy group and amine group provide the molecule with dual reactivity. This allows it to work in creating flexible urethane foams or coatings with controlled elongation and resilience. The butyl chain gives an extra degree of plasticization, separating this product from shorter-chain ethanolamines that lead to stiffer, more brittle polymers.
Besides polyurethanes, another field is specialty surfactant synthesis. The molecule’s hydrophobic tail and hydrophilic alcohol group allow chemists to design emulsifiers or corrosion inhibitors that perform in oilfield, metalworking, or even household cleaning environments. Rather than relying on general-purpose amines, customers prefer 2-(Butylamino)Ethanol for target molecules needing both water compatibility and hydrocarbon solubilization. Our internal process knowledge—from control of by-product aldehydes to minimizing unwanted cross-linking—directly correlates to more uniform end products for our industrial partners.
Pharmaceutical manufacturers sometimes tap into the chiral nature of this product when they need a secondary amine without the pronounced toxicity or volatility of some alternatives. We keep material traceable batch-by-batch under strict documentation requirements, so pharmaceutical customers can qualify the supply chain. Successful supply to these sectors doesn’t happen overnight—it requires years of documented process control and responsiveness to changing regulatory thresholds.
Our technical team frequently answers questions about which amines work best for a given application. The differences between 2-(Butylamino)Ethanol and related products matter, because they shape performance and cost. Take monoethanolamine or diethanolamine: both serve as common surfactant building blocks, but lack the flexibility and solubilizing power of a longer, butyl-substituted analog. In urethane systems, for example, monoethanolamine introduces rigidity, whereas 2-(Butylamino)Ethanol brings improved flexibility to the chain. This leads to softer foams or more pliable elastomers. That’s why customers trial both, comparing off-gassing, cure rates, and mechanical properties, but many return to the butylamino grade for high-end products.
Another difference is volatility and handling. Shorter-chain amines can be more aggressive and harder to manage—restrictions on workplace safety limits call for extra protective gear, complex capture systems, or lower reactor operating temperatures. In our own workflows, handling 2-(Butylamino)Ethanol on the plant floor remains manageable in standard ventilation setups, and odor release is minimal. This gives production teams more flexibility. It also reduces the ongoing costs tied to regulatory reporting or atmospheric controls.
Water solubility and partition coefficients matter. Some applications—water-based coatings or cleaners—require quick dispersion and low tendency to separate. Here, the longer alkyl group does reduce water miscibility somewhat, compared to diethanolamine or triethanolamine, but that same butyl chain enables better performance where slow phase migration or compatibility with nonpolar solvents are needed. Our manufacturing know-how gives us a good sense of which formulation requests will benefit from this specific balance.
Cost enters the conversation too. Chemistry with longer or bulkier amines usually costs more per kilogram, but provides value through enhanced reactivity or selectivity. Because we control the entire value chain, from raw material contracts to finishing, we can balance cost against reliability, supply flexibility, and product purity. Rather than relying on outside market conditions, we offer predictable pricing over time—and absorb volatility on precursor materials for our customers. This reduces unpredictable price spikes with supply chain hiccups; we have seen how that makes a difference to purchasing managers and production schedulers alike.
Our observers in the field keep us informed about evolving customer requirements. Flexible polyurethane foams are trending toward stricter emission limits for volatile organic compounds (VOCs). Customers need a material that doesn’t degrade or outgas under compression and temperature cycles. Through upgraded purification and batch tracking, we supply a material that keeps VOC emissions in the final foam below global limits, satisfying new health, safety, and sustainability objectives. This isn’t just a marketing claim—it’s the direct result of in-plant optimization and technological upgrades in distillation and filtration.
In oilfield and metalworking, corrosion resistance and shelf-life of amine-based inhibitors face new regulatory scrutiny. Some inhibitors built from simple ethanolamines fail under long-term field testing, especially under fluctuating temperature and humidity. Here, our internal data shows formulations based on 2-(Butylamino)Ethanol hold up longer due to the combination of hydrophobicity and amine strength, preserving metals and pipeline equipment from pitting or rust over longer periods. We document these outcomes and share empirical evidence with customers trying to meet tightening insurance or maintenance cost requirements.
Customer feedback drives incremental changes in our processes, too. When a client running a pharmaceutical intermediate synthesis flagged trace aldehyde impurities in our shipments, we investigated the source through root-cause analysis. Upgrading a section of transfer piping and rebalancing catalyst ratios led to a quantifiable drop in that impurity, directly improving the client’s yields and reducing their purification costs. This sort of iterative improvement—driven by field testing, rather than theoretical optimization—forms the backbone of our business philosophy.
Over time, supply chains become more complex—and as chemical producers we field more requests for robust documentation and traceability. Producers further down the chain, particularly in coatings or pharmaceutical ingredients, demand batch records, impurity profiles, and proof of consistent analytical performance. We respond by offering not just COAs, but detailed run logs, environmental monitoring records, and transportation chain-of-custody evidence. Our clients know our material’s history, from reactant sourcing to storage conditions before shipment, because they need predictability in their own manufacturing.
Lab audits from major multinational clients have reinforced the growing industry trend toward transparency and data-sharing. Our ability to open our books, record-keeping, and continuous monitoring gives them security when mapping out their raw material needs for months ahead. That transparency isn’t simply about regulatory box-checking; it’s about supporting their long-term business continuity. Experience shows that customers facing sudden regulatory audits or product recalls return to us for reassurance, since our documentation trails weather external scrutiny.
Global compliance matters as well. Legal requirements for amine intermediates frequently shift, especially across regions. We track regulatory bulletins for REACH in Europe, TSCA in North America, and evolving frameworks in the Asia-Pacific region. This proactive attention enables us to keep supplying product without breakdowns or stoppages stemming from labeling, environmental, or hazard communication issues. Fact-based, up-to-date compliance builds trust not only with buyers but with their own regulatory and HSE teams.
Raw material availability often poses the biggest threat to ongoing production. By maintaining diversified sourcing for primary amines and epoxyatives, and by holding safety stock in our facilities, we shield end-users from the risks of global supply fluctuations. When the butylamine market tightened after severe weather events one season, we leveraged longstanding supplier relationships to buffer costs and avoid shipment gaps. Our facilities run lean, but we never sacrifice stock security or batch consistency.
Transportation and packaging safety remain ongoing challenges, especially as product volumes shift and destinations span beyond our domestic region. Our team invests in upgraded container technology—stainless steel drums and lined containers to prevent amine degradation or loss during long-haul transit. Regular maintenance and random spot-checks catch weaknesses before problems arise. Customers benefit from shipments that arrive at specified purity levels, and from a lower risk of in-transit contamination.
End-use safety drives order fulfillment. Whether the material feeds into a pharmaceutical line or an industrial formulation, we ensure every drum leaves our site fully certified, with transport documentation and handling guidance based on real-world SDS-tested scenarios, not boilerplate advice. Our technical liaison team collaborates with large buyers to refine workplace safety rules and ventilation requirements, reflecting the product handling lessons we’ve learned in our own operations.
Chemical production never stands still. Environmental regulations, emission restrictions, and customer quality targets are all shifting. We’ve invested in automated process control, in-line sensor arrays, and enhanced purification to keep product grades above compliance baselines. By benchmarking every production run against global standards, we enable quicker validation and acceptance in international sales. Direct engagement with our customers’ development chemists means we hear about specification changes immediately and can adjust production accordingly, rather than responding after issues arise.
Digitalization offers new ways to track and certify product throughout its journey. We collect and catalogue process data for internal review and future troubleshooting, but also provide tailored digital certificates and analytics to interested clients, especially those integrating digital twin technologies in their manufacturing line. This responsiveness, rooted in hands-on factory-floor experience rather than distant consulting, differentiates a direct manufacturer from intermediaries and resellers.
After years of handling 2-(Butylamino)Ethanol, our experience tells us that success does not come simply from scaling up a reaction or offering the lowest price. Success depends on reliability, transparency, and the willingness to adapt to customers’ changing needs. Partnerships built on trust—supported by robust documentation and shared problem-solving—create lasting value for industrial producers. In our day-to-day work, every batch we manufacture becomes part of complex supply chains that cross borders and domains. Our responsibility is more than simply turning out drums; it is about enabling downstream innovation and guaranteeing quality at every handoff.
As production technologies and application requirements shift, our factory teams and technical experts work together to raise the bar on amine manufacturing. Through continuous investment in people, facilities, and analytic controls, we stand ready not only to meet routine demand but to tackle the out-of-specification challenges and unforeseen industry changes that always emerge. We remain committed to open communication, ongoing improvement, and a genuine commitment to the customers who trust us as their source of 2-(Butylamino)Ethanol.