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3-Lauryloxypropyl-1-Amine

    • Product Name 3-Lauryloxypropyl-1-Amine
    • Alias 3-(Dodecyloxy)propylamine
    • Einecs 629-733-8
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    786497

    Chemical Name 3-Lauryloxypropyl-1-amine
    Cas Number 2372-82-9
    Molecular Formula C15H33NO
    Molecular Weight 243.43 g/mol
    Appearance Clear to pale yellow liquid
    Solubility In Water Slightly soluble
    Density Approx. 0.88 g/cm³
    Ph Alkaline (typically ~10 in solution)
    Flash Point Above 100°C (estimated)
    Odor Characteristic amine odor

    As an accredited 3-Lauryloxypropyl-1-Amine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The 500g bottle features a tightly sealed, amber-colored container with a hazard label, product name, and handling instructions clearly displayed.
    Shipping 3-Lauryloxypropyl-1-Amine is shipped in tightly sealed, chemical-resistant containers to prevent leakage and contamination. It is classified as a chemical substance and typically transported under ambient conditions unless otherwise specified. Containers are clearly labeled, and shipments comply with relevant regulations for handling and transporting chemical products.
    Storage 3-Lauryloxypropyl-1-Amine 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 oxidizing agents and acids. Protect from direct sunlight and moisture. Always follow proper chemical storage protocols and ensure containers are clearly labeled. Use secondary containment to prevent accidental spills.
    Application of 3-Lauryloxypropyl-1-Amine

    Applications of 3-Lauryloxypropyl-1-Amine in Industrial Manufacturing

    3-Lauryloxypropyl-1-Amine functions as a specialty amine surfactant and process additive across several advanced manufacturing segments. Our facility supplies high purity amine intermediates suitable for demanding downstream integration. Each of the following sectors utilizes this building block with specific compliance, formula balance, process design, and finished product requirements.

    1. Fabric Softener Formulations for Industrial Laundry

    Large-scale textile and laundry service providers rely on cationic surfactants to impart long-lasting softness and antistatic performance to cotton, polyester, and blended fabrics. 3-Lauryloxypropyl-1-Amine interacts with fabric fibers, depositing both hydrophobic and cationic groups to improve hand-feel and control static even after repeated wash cycles. Manufacturers incorporate this amine as a primary conditioning agent alongside quats, fatty alcohols, and fragrance microcapsules to formulate clear or opaque liquids that remain stable under storage and meet end-user expectations. Consistent actives content is essential for compatibility with bulk dosing systems and re-dilution.

    Industry compliance standards

    • EU Detergents Regulation (EC) No 648/2004
    • EPA Safer Choice Standard (United States)
    • REACH Registration for non-cosmetic surfactants
    • EN ISO 9001 for production consistency

    Typical usage ratio

    • 3%–8% by weight of total liquid concentrate, adjusted based on desired softness, fabric type, and fragrance load

    Downstream process integration

    • Amine is blended late in batch with heated base oil phase, then emulsified with deionized water and functional additives under high shear

    Final product types

    • Industrial fabric softener concentrates
    • Ready-to-use laundry conditioning fluids
    • Textile finishing treatment liquids
    • Commercial softener sheets (coated nonwovens)

    2. Asphalt Emulsifier and Road Construction Additives

    Road construction compound manufacturers require bespoke emulsifiers to stabilize bitumen dispersions and support high-speed road laying equipment. The long alkyl chain and cationic amine headgroup in 3-Lauryloxypropyl-1-Amine allow it to function as a binder between bitumen and aggregates, reducing stripping in the presence of moisture and increasing the workability window. Product selection and dosing depend on regional aggregate chemistry and climatic variables.

    Industry compliance standards

    • ASTM D977 for cationic emulsified asphalts
    • EN 13808 for bituminous emulsions in Europe
    • ISO 9001/14001 manufacturing certification
    • State DOT specifications for emulsified binders

    Typical usage ratio

    • 0.2%–0.5% of total bitumen phase, with process adjustment based on aggregate surface activity and target emulsion properties

    Downstream process integration

    • Amine is pre-dissolved in water before emulsification step, then injected during high shear milling of molten bitumen for direct dispersion

    Final product types

    • Cationic asphalt emulsions for chip seal or tack coat
    • Aggregate-binder slurries for road patching
    • Premixed cold asphalt compounds
    • Bitumen-based anti-stripping additives

    3. Corrosion Inhibitors for Water Circulation Systems

    Chiller and boiler OEMs, as well as industrial process plant operators, add alkyloxypropylamines to closed cooling water circuits to form protective films on steel and non-ferrous metal surfaces. The amine structure coordinates with surface oxide layers, reducing cathodic or anodic reactions responsible for corrosion and mineral scaling. The product demonstrates consistent compatibility with sodium nitrite and phosphate blends, and routine lab QA is necessary for dose verification and environmental discharge control.

    Industry compliance standards

    • ANSI/AWWA Standard B504 for corrosion inhibitor use
    • EN 1212 for drinking water additivation (where required)
    • RoHS for restricted heavy metals
    • Manufactured according to ISO 9001 documented QC

    Typical usage ratio

    • 5–50 ppm (parts per million) in total recirculating water based on corrosion rate monitoring and make-up water quality

    Downstream process integration

    • Amine injected at point-of-entry with recirculating water or during chemical feed cycles, followed by real-time corrosion coupon testing

    Final product types

    • Multi-component corrosion inhibitor packages (liquid, ready-to-use)
    • Closed loop cooling tower additives
    • Boiler treatment blends for industrial heating
    • Heat exchanger preservation fluids

    4. Cosmetic Hair Conditioning Agents

    Personal care manufacturers integrate cationic surfactants into rinse-off and leave-on hair care formulas to provide detangling, anti-static, and conditioning effects. 3-Lauryloxypropyl-1-Amine supports soft, manageable hair without excessive build-up, and works synergistically with silicones, fatty alcohols, and fragrance systems. Cosmetic labs require guaranteed low residual solvent and low amine color for consistency. Regulatory and labelling standards in cosmetics necessitate a clear traceability and purity record for all amine-based additives.

    Industry compliance standards

    • EU Regulation (EC) 1223/2009 on Cosmetic Products
    • US FDA Title 21 CFR 720 (Voluntary Cosmetic Registration)
    • ISO 22716:2007 for Good Manufacturing Practice (GMP) in cosmetics
    • InciLab International Nomenclature (INCI) certification and listing

    Typical usage ratio

    • 0.5%–2.5% by weight of conditioner or cream base; formulators adjust based on hair type and compatibility with actives

    Downstream process integration

    • Amine is pre-neutralized before emulsification, then added to aqueous or oil phase at 60–80°C, with tight mixing temperature and pH controls

    Final product types

    • Rinse-off hair conditioners for professional salons
    • Leave-in conditioning sprays and creams
    • Anti-static hair serums
    • Detangling mousses

    5. Antimicrobial and Sanitizing Product Formulations

    Industrial cleaning and sanitizing compound manufacturers utilize alkylamine surfactants as co-actives in disinfectant and sanitizing liquids for use in food processing, healthcare, and institutional cleaning. The C12 alkyl chain provides amphiphilic character supporting bacterial membrane disruption. Safe handling and trace contaminants are controlled throughout batch production. Careful attention to regional regulatory active lists and reporting requirements ensures product registrations remain valid year to year.

    Industry compliance standards

    • US EPA List N for disinfection against pathogens (facility registration required)
    • EU BPR (Regulation (EU) No 528/2012) for biocidal products
    • GB 38598-2020 "General Requirements for Disinfectants" (China)
    • ISO 9001:2015 for traceability in biocidal manufacturing

    Typical usage ratio

    • 0.1%–1.2% by weight of total sanitizing fluid; formulated with synergists and preservatives according to required microbicidal performance

    Downstream process integration

    • Dissolved in aqueous phase with other amine oxides and quaternaries before final dilution; in-can stability is confirmed by accelerated shelf-life testing

    Final product types

    • Industrial and institutional sanitizing concentrates
    • Ready-to-use antibacterial cleaning sprays
    • Food processing equipment rinse fluids
    • Surface sanitizing wipes (nonwoven impregnated)
    Free Quote

    Competitive 3-Lauryloxypropyl-1-Amine prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    3-Lauryloxypropyl-1-Amine: A Manufacturer’s Perspective

    Introduction

    Working on the production line of specialty amines, our team spends most of each week ensuring the highest quality from raw materials through finished product. Years ago, we set out to improve the consistency and purity of what went into cleaning agents and personal care products, focusing on real industry bottlenecks. Out of that work, 3-Lauryloxypropyl-1-Amine became a regular request from many of our industrial customers. This amine, with its distinct lauryl-oxypropyl backbone, brings unique performance in surfactant and functional chemical applications.

    Model and Specifications

    Our experience with 3-Lauryloxypropyl-1-Amine runs deep, having refined both the direct alkoxylation and amination steps over time. The product leaves our factory with an assay above 98% and water content consistently below 0.5%. Physical properties generally show a pale yellow to colorless viscous liquid, clarity being the first thing the QC lab checks, along with the precise amine value. We monitor color (Gardner scale usually under 2), specific gravity near 0.88 g/cm³ at 25°C, and an amine number sitting within a tight target. Each of these points matters; we have learned from costly mis-steps that even minor impurities or color fluctuations can throw off downstream formulation batches.

    Our chemists pay careful attention to batch homogeneity. Achieving uniform chain distribution in the lauryl portion and a complete reaction at the propyl-amine junction affects how surfactants interact in real-world blends, especially with anionic and amphoteric systems. Each lot comes with a detailed COA, reflecting our ongoing efforts to give partners the most predictable results whether 3-Lauryloxypropyl-1-Amine heads to Asia for textile auxiliaries or Europe for eco-label cleansing products.

    Usage and Value in Applications

    In active roles, this amine typically acts as a co-surfactant, emulsifier, or functional intermediate. We originally started supplying 3-Lauryloxypropyl-1-Amine to detergent makers seeking higher cleansing efficiency at lower irritancy—but over a few years, demand grew out of the metalworking industry, drilling chemical formulators, and, more recently, the cosmetic and personal care sector. Its long-chain lauryl structure gives an edge in boosting wetting and solubilizing properties. That boosts cleaning performance and makes it easier to hit milder, skin-friendly profiles required by new green regulations.

    Industrial partners report that 3-Lauryloxypropyl-1-Amine works well in alkaline blends, outperforming lower-molecular-weight alkylamines in hydrophobic soil removal. Our own in-house benchmarking found it increases stability in microemulsions and oil-in-water formulations thanks to balanced chain length, which fewer impurities maintain. In metal cleaning and oilfield chemicals, the resistance to hard water precipitation stands out.

    Cosmetic developers also value its compatibility with cationic and nonionic surfactants. This alone sets it apart from shorter-chain amines, which sometimes destabilize sensitive blends. Where some amines leave a residue or generate excess foam, this material offers a compromise between feel and function. We consistently get positive feedback on lower odor—which comes from our control of synthesis by-products, not just generic “aminic” notes.

    Differentiation from Other Products

    Other amines on the market rely on shorter alkyl chains or less well-controlled alkoxylation, leading to broader molecular weight distributions. Sourcing 3-Lauryloxypropyl-1-Amine directly from us allows a closer grip on source quality and reaction optimization. Over years in the manufacturing business, we’ve seen that variation in synthetic routes can mean unpredictable results: discoloration in clear detergents, poor solubility in cold processing, or even customer safety complaints in finished products.

    Each batch comes with full traceability. Unlike generic aminopropyl or lower-chain fatty amines, this compound’s lauryl group and precise oxypropyl linking set it apart—delivering better stability in hard surfactant conditions and reducing tendency to phase separate, even after long storage. For customers, that means less downtime spent trouble-shooting batch failures and fewer reformulation cycles. In fact, reliability brought many of our recurring OEM clients back after disappointing runs with cheaper alternatives from blending houses.

    Those clear product differences translate to process efficiency. Short-chain amine-based surfactants tend to build up static charge or demonstrate instability in high-electrolyte formulations. Replacing these with 3-Lauryloxypropyl-1-Amine often immediately improves manufacturability. We built our process to avoid high levels of unreacted haloalkanes—a common culprit in product recalls and odor issues.

    Production and Quality Control Insights

    Managing a chemical plant means living at the intersection of raw material volatility, workforce safety, and regulatory change. Experience has shown that a well-trained team and a robust, flexible process allow better adjustment to environmental shifts. For 3-Lauryloxypropyl-1-Amine, we’ve upgraded our distillation and amine recovery units over multiple investment cycles, always striving to improve energy efficiency as well as throughput.

    Raw lauryl alcohol presents seasonal purity swings, and we don’t start a batch without fresh GC and moisture check. Once the reaction kicks off, temperature and pressure are constantly monitored to avoid side reactions. Very early on, we lost several tons to microexplosions in the reactor from unexpected pressure surges, so real-time control loops were introduced. End-of-line workers pull samples for final product release, and we continuously adjust based on feedback from customer returns as well as internal audits.

    On the regulatory front, authorities worldwide now expect tighter documentation and disclosure for amines. Traceability and batch records have to be water-tight, so our back-office and IT teams have spent years bonding SAP systems with plant-floor data historians. Customers get full batch history on every drum, and this transparency pays back in dispute cases or batch recalls. Compliance isn’t just about avoiding fines—it’s a lived practice, reflected in how we catch and solve problems before they leave the facility.

    Environmental and Safety Considerations

    Chemical manufacturing carries environmental responsibility. Over the years in this business, I have watched the landscape shift as clients tighten their requirements. 3-Lauryloxypropyl-1-Amine’s hazard profile is less severe than lower molecular weight alkyl amines, but our teams do not get complacent. Routine training covers handling, first aid, and spill scenarios. The plant runs closed system processes, minimizing worker exposure and volatile emissions.

    We have installed advanced scrubbers and solvent recovery systems to reduce VOCs. Liquid waste recirculation systems and cross-team environmental auditing have dropped annual effluent by over thirty percent. Each new line installation now includes lifecycle analysis, using in-house data from actual production runs. We support clients seeking green certifications by providing verified life cycle and carbon footprint data straight from our own records, not just supplier marketing brochures.

    Regulatory limits on nitrosamine precursors have grown stricter. Because we manufacture 3-Lauryloxypropyl-1-Amine under carefully modulated reaction conditions, end product tests consistently come back below detection limits for these substances. Commitment to this level of safety is borne from experience—years ago, we learned the cost of cutting corners shows up in lost market access and damaged trust.

    End-User Success Stories and Industry Movements

    Our direct users often share feedback that helps shape our ongoing work. From a detergent plant in Turkey reducing foaming problems in their high-speed filling line, to a European hair-care manufacturer solving solubility issues at low temperatures, these stories guide our process tweaks. Several companies have replaced supplier blends of mixed long-chain amines with single, high-purity 3-Lauryloxypropyl-1-Amine, reducing product variability and lowering cost over time.

    One of our oldest clients, a lubricant additive formulator in Germany, relies on this amine for stability under extreme pressure. Before, their additive packages underperformed when exposed to moisture, leading to premature failure of finished lubricants. After moving to our product, their customer returns dropped significantly, and feedback centered on greater reliability over longer intervals.

    Personal care trends shift quickly, as regulatory agencies and consumers lean toward milder, less sensitizing ingredients. In shampoos and wash-off products, using 3-Lauryloxypropyl-1-Amine instead of higher-alkaline amines improves mildness while maintaining foam and feel. Developers working under tight timelines appreciate the lower lot-to-lot variation.

    Across cleaning, textile, and industrial markets, better consistency and clear spec limits translate to fewer production stoppages and troubleshooting sessions on customer lines. Drawing from long partnerships, our approach stays open to improvement and direct dialogue with end users.

    Research and Development Insights

    Maintaining a dedicated lab makes all the difference. While many producers minimize costs by outsourcing applications testing, our in-house team regularly pushes to test 3-Lauryloxypropyl-1-Amine in new formulations and process conditions. Years ago, we realized innovation doesn’t happen by accident; it comes out of careful benchwork and learning from customer pain points.

    A recent push involved targeted tests on its performance in sprayable agricultural adjuvants. Compared to shorter chain amines, our product improved leaf wetting and weathering resistance without causing product instability. We also work in close partnership with universities and research consortia, providing our technical documentation and raw data to support scientific publication and independent trials.

    Scaling up successful lab findings brings its own hurdles. We’ve devoted significant time to improving process safety, scaling solvent substitutions, and simulating stress factors from freezing, agitation, or exposure to various contaminants. Each improvement, from a new reactor baffle design to tweaks in temperature ramping, comes from a manufacturer’s view—knowing the limitations of bulk processing and downstream user requirements.

    Market and Supply Considerations

    Market volatility makes chemical manufacturing especially challenging. Over the past decade, costs on key petrochemical intermediates fluctuate widely. By negotiating long-term sourcing contracts and investing in local raw material storage, we shield customers from supply disruption. Our plant’s direct-to-market model allows rapid response in case of shipping delays or force majeure, letting us build trust that traders or intermediaries can’t match.

    With growing regulatory moves toward regionally sourced chemicals, we stay ahead by documenting full supply chains and favoring local sourcing where viable. Redundancy in partner plants means quick production shifts should a supply emergency hit, limiting delivery slowdowns to critical industries.

    We often support customer audits, walking them through the plant, showing reaction vessels, and demonstrating sampling methods so they see firsthand the detail and care involved. Repeat business, in our experience, hinges on relationship-building and transparency—not just price points or generic technical sheets.

    Challenges and Continuous Improvement

    Producing 3-Lauryloxypropyl-1-Amine is not without obstacles. Shifts in demand, pricing, evolving regulatory requirements, or raw material quality all require constant vigilance. In past years we encountered sticking points with water content variance and scale buildup in reactors, which needed new cleaning and maintenance protocols.

    Customers bringing new formulations sometimes challenge us to deliver even purer grades or new packaging options to lower product waste. We listen—launching product improvement projects and trial runs to address specific customer requests. Sometimes that means investing in expensive, time-consuming plant upgrades, but the payoff shows in the loyalty and increased demand from satisfied clients.

    Regular training programs for both the technical and production teams keep everyone on top of safety measures and the latest developments in process technology. Improvements build on feedback from end users, bringing valuable perspective not always evident inside the factory gates.

    Looking Forward

    The chemical landscape keeps evolving. Tighter consumer safety standards, stricter environmental expectations, and constant innovation in applications require us to stay agile. 3-Lauryloxypropyl-1-Amine sits at a crossroads, with potential in both established industries and emerging sectors driven by new performance and environmental benchmarks.

    Long-term success in supplying this product relies on steady commitment to deep process knowledge, openness to customer feedback, and willingness to invest in both people and equipment. In our plant, these lessons guide each production run, technical call, and collaborative problem-solving effort.

    Listening to those who use our product every day continues to shape how 3-Lauryloxypropyl-1-Amine supports evolving formulation demands in cleaning, industrial, and personal care products. As both chemistry and market expectations change, the value of consistent manufacturing and real-world experience only grows.