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Lauric Acid Diethanolamide

    • Product Name Lauric Acid Diethanolamide
    • Alias Coconut DEA
    • Einecs 271-657-0
    • 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

    384315

    Chemical Name Lauric Acid Diethanolamide
    Synonyms Lauramide DEA
    Cas Number 68603-42-9
    Appearance Viscous pale yellow liquid or paste
    Odor Mild fatty odor
    Molecular Formula C14H29NO2
    Molecular Weight 243.39 g/mol
    Solubility In Water Dispersible
    Ph 8.0-10.5 (10% solution)
    Boiling Point Decomposes before boiling
    Flash Point >93°C (closed cup)
    Density 0.97-0.99 g/cm3 at 25°C

    As an accredited Lauric Acid Diethanolamide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Lauric Acid Diethanolamide is packaged in a 25 kg blue HDPE drum, sealed with a tamper-evident lid and labeled for safety.
    Shipping Lauric Acid Diethanolamide is typically shipped in sealed, labeled containers such as drums or plastic barrels to prevent contamination and moisture absorption. It should be stored and transported in a cool, dry, and well-ventilated area. Handle according to chemical safety regulations, avoiding exposure to heat, sparks, and incompatible substances.
    Storage Lauric Acid Diethanolamide should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and sources of heat or ignition. Keep the container tightly sealed to prevent moisture absorption and contamination. Store away from strong oxidizing agents and acids. Use only containers made of suitable, compatible materials. Always follow local guidelines and safety recommendations for chemical storage.
    Application of Lauric Acid Diethanolamide

    Applications of Lauric Acid Diethanolamide in Industrial Manufacturing

    As a specialized manufacturer of Lauric Acid Diethanolamide, we consistently supply this non-ionic surfactant to downstream industries with established technical standards and performance validation. Below, we detail the key industrial sectors where this ingredient sees recognized use, with insight on formulation practices, regulatory frameworks, process stages, and the types of finished goods produced.

    1. Detergent & Textile Washing Agent Production

    Manufacturers in detergent and industrial laundering segments integrate Lauric Acid Diethanolamide as a foam stabilizer and viscosity modifier in liquid and powder washing agents. Its compatibility with linear alkylbenzene sulfonates and soap bases allows enhanced soil removal, controlled foaming for machine compatibility, and stable shelf-life in bulk blends. Utilization addresses stringent requirements for low skin irritation and consistent performance under variable water hardness.

    Industry compliance standards

    • EU Regulation (EC) No 648/2004 (Detergents Regulation)
    • U.S. EPA Safer Choice Standard
    • Chinese GB/T 13174-2020 for Household and Industrial Laundry Detergents
    • Japanese Household Products Quality Labeling Act

    Typical usage ratio

    • 3–8% by weight of surfactant system; dosage may decrease for formulations with high anionic content or increase where extra viscosity and foam stability are required.

    Downstream process integration

    • Added into the main batch during the surfactant blending stage after water charging; typically post-neutralization for anionic bases or pre-addition with non-ionics in continuous mixing systems.

    Final product types

    • Industrial and institutional liquid laundry detergents
    • Manual dishwashing liquids
    • Textile scouring agents
    • Concentrated mechanical wash powders

    2. Personal Care Cleansers & Shampoo Manufacturing

    Personal care formulators use Lauric Acid Diethanolamide for boosting foam texture and viscosity in high-clarity shampoos, shower gels, and facial cleansers. Its mildness profile provides skin tolerability benchmarks that support claims for low-irritation products while maintaining lather stability in varying water chemistries. Its hydrotropic effect helps dissolve fragrances and active botanicals in sulfate-containing bases.

    Industry compliance standards

    • EU Cosmetics Regulation (EC) No 1223/2009
    • U.S. FDA Title 21 CFR Parts 700-740 (Cosmetic Products)
    • ISO 22716:2007 (Cosmetic GMP)
    • ASEAN Cosmetic Directive

    Typical usage ratio

    • 1.5–6% by weight of total formulation, adjusted according to desired viscosity and foam density; lower addition when used as a co-surfactant, higher when viscosity building is primary goal.

    Downstream process integration

    • Introduced into the aqueous phase during the main surfactant mixing step at temperatures below 50°C to safeguard emollient and fragrance stability, before the addition of thickeners or preservatives.

    Final product types

    • Transparent or pearlescent shampoos
    • Foaming facial gels
    • Creamy body washes
    • Baby cleansing formulas

    3. Metalworking Fluid & Cutting Oil Formulations

    Industrial lubricant producers add Lauric Acid Diethanolamide as a non-ionic emulsifier in semi-synthetic and microemulsion metalworking fluids. It stabilizes oil-in-water systems, enhances detergent cleansing of metal fines, and reduces scum build-up on machinery. Its selection supports the demands for low foaming and improved lubricity in automated precision machining operations.

    Industry compliance standards

    • ASTM D6081-2012 (Emulsion Stability of Metalworking Fluids)
    • REACH Regulation (EU) 1907/2006
    • AISE Code of Practice for Responsible Care in Lubricants
    • OSHA 29 CFR 1910.1200 (Hazard Communication, relevant for industrial fluids)

    Typical usage ratio

    • 2–6% of fluid concentrate; formulation varies depending on oil content, target emulsification index, and customer chip washing requirements.

    Downstream process integration

    • Added to lubricant concentrate during the pre-emulsification stage, together with base oils and corrosion inhibitors, using high-shear mixing to ensure consistent micelle formation.

    Final product types

    • Semi-synthetic metalworking emulsions
    • Machining and grinding coolants
    • Cutting oils for steel, aluminum, and alloys
    • Water-based drawing compounds

    4. Industrial Hard Surface Cleaning Agent Manufacturing

    Suppliers to institutional cleaning sectors use this ingredient to formulate stable, low-residue cleaners for hard surfaces such as floors, equipment, and commercial kitchens. It acts as a grease dispersant and mild foaming agent, enabling effective soil removal without excessive suds that could impede scrubbing or rinse-off processes in automated systems.

    Industry compliance standards

    • U.S. EPA Design for the Environment (DfE) standards for cleaners
    • EU Detergents Directive 2004/112/EC (Biodegradability of surfactants)
    • EN 1276:2019 (Bactericidal activity in surface cleaners, when paired with disinfectant ingredients)
    • Canada Hazardous Products Regulations (HPR, WHMIS 2015)

    Typical usage ratio

    • 0.5–4% of finished formulation; lower end for low-foam or automated cleaning, higher for manual and concentrated degreasers used in heavy sanitation zones.

    Downstream process integration

    • Charged into the aqueous phase of cleaning agent formulation during initial mixing, preceding addition of alkaline builders and solvents, to facilitate complete solubilization of oily soils and promote microemulsion formation.

    Final product types

    • Commercial floor cleaners
    • Kitchen degreasers
    • Equipment wash concentrates
    • Food processing facility hard surface detergents

    5. Agricultural Spray Adjuvant Formulations

    Agrochemical blenders opt for Lauric Acid Diethanolamide as a surface tension reducer, wetting agent, and deposition aid in tank-mix adjuvants. It improves the wettability and spread of active chemical agents on plant surfaces, supporting efficient coverage in pre- and post-emergence crop protection, including herbicides and micronutrient sprays. This addition meets regulatory requirements for limited phytotoxicity and environmental degradability.

    Industry compliance standards

    • U.S. EPA 40 CFR Part 180 (Tolerance Exemptions for Adjuvants in Pesticide Formulations)
    • EU Regulation (EC) No 1107/2009 (Plant Protection Products)
    • ISO 16119-1:2018 (Agricultural Machines–Sprayers–Environmental Protection)
    • China NY/T 1977-2010 (Guidelines for Adjuvant Ingredients in Agrochemicals)

    Typical usage ratio

    • 0.3–2.0% of total spray adjuvant mix; level depends on required wetting power, tank-mix compatibility, and sensitivity of target crop foliage to surfactant load.

    Downstream process integration

    • Blended in the aqueous phase during adjuvant concentrate manufacturing, either before or after the addition of silicone or nonylphenol ethers, depending on desired cloud point and tank-mix tolerance; followed by aqueous dilution prior to field use.

    Final product types

    • Non-ionic spray adjuvant concentrates
    • Herbicide wetting agents
    • Fungicide spreader-stickers
    • Foliar micronutrient drip solutions
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    Certification & Compliance
    More Introduction

    Lauric Acid Diethanolamide: A Closer Look from the Manufacturer’s Floor

    Where Chemical Manufacturing and Practical Application Meet

    Across the production line, our team watches every batch of Lauric Acid Diethanolamide with purpose—because we know what happens in our tanks defines the quality and reliability our downstream partners expect. Lauric Acid Diethanolamide, sometimes referred to as LDEA or by its chemical abbreviation, is a non-ionic surfactant built off lauric acid and diethanolamine. For years, companies in personal care, household cleaning, and industrial formulations have trusted this amide to deliver more than just foam or viscosity. We engage in every stage, from raw material screening to reaction control, not just out of obligation but learned necessity—when final performance matters, so does every input and every condition along the way.

    Our Model and What Sets It Apart

    In the plant, product consistency means fewer downstream headaches. The model produced most widely at our site is based on lauric acid derived primarily from sustainable palm kernel oil, combined with high-purity diethanolamine under precisely controlled heat and pressure. We monitor amine value, color index, and free amine residue after each run, and batch records back this up. Years ago, competitors told stories of dark, off-odor amides or inconsistent viscosity. Not here. By keeping our lauric source consistent and fine-tuning our reaction hold temperatures, our Lauric Acid Diethanolamide reaches a color index below 200 Hazen and keeps free amine values tight, which affects both performance and safety profiles further up the supply chain.

    You’ll find our standard model as a clear to pale yellow, viscous liquid, and we analyze moisture, pH, and solid content before any filling starts. Standard specifications run on active matter between 77% and 83%. Tight control over the neutralization phase helps us preserve that balance batch after batch. Even decades into production, we run side-by-side tests for viscosity at 25°C, which lands within 2500-4500 mPa.s by Brookfield viscometry on every tank. For sensitive applications, some partners require filtered grades with reduced solid content or lighter color. Years of feedback have shown us where to tailor, but the backbone chemistry never changes.

    Performance Beyond the Laboratory

    The reason many downstream clients stick with lauric-DEA blends over alternatives rests on a combination of cost, handling, and functional benefits. In use, this amide brings an instant thickening effect to aqueous formulations. Whether in shampoos or dishwashing liquids, Lauric Acid Diethanolamide transforms normally thin detergents, improving hand-feel and visual appeal for users. The chemistry itself enables fine foam stabilization even at low temperatures or during extended shelf life—issues that low-grade replacers rarely withstand.

    Years of experience with large-scale personal care factories taught us some hard lessons. One major customer reported recurring batch failures after switching to a cheaper, non-laturic amide from another vendor: inconsistent build-up, phase separation, and even end-user complaints on skin feel. A simple reversion to our Lauric Acid Diethanolamide brought the line back into spec. Over dozens of such case studies, the importance of reliable inputs has never looked clearer. Product recalls or re-blending kill efficiency, waste raw materials, and leave permanent stains on brand reputation. We don’t take lightly our role in this chain; our QA supervisors clock extra hours to test each lot, not just talk about controls.

    Usage Across Key Industries

    From bulk shipment pipes down to the finished bottle at retail shelves, Lauric Acid Diethanolamide brings measurable benefits. In shampoos and body washes, it thickens and boosts creaminess, allowing formulators to use less salt or secondary thickeners. This saves both money and complexity. It suppresses excessive foam collapse, so consumers get a rich lather without an artificial feel.

    In hard-surface cleaners and hand soaps, our Lauric Acid Diethanolamide adds stability even in high-alkali environments. This is not marketing spin—it’s time-tested performance. Many clients report lower formulation drift over months of storage, less gelling in dozers, and lower odor formation than with older coconut-based or MEA-based amides. Safety and handling concerns drop for workers along the production floor since our material contains low levels of impurities that have caused skin irritation in older generations of amides.

    For industrial degreasers, blending Lauric Acid Diethanolamide raises the cleaning efficiency while controlling formulation viscosity, so the mixture clings to surfaces long enough to remove soils without excess run-off. These real-world benefits aren’t theoretical—they’re validated by both in-house testing and feedback from cleaning product makers who work under unforgiving schedules and regulatory expectations.

    Returning to personal care, there’s a growing shift toward milder, skin-friendly formulations. Many SLES-based systems, for example, reach a balance of mildness and performance when combined with our LDEA. Smaller players and local brands, who can’t afford batch recalls, tell us they rely on our predictability. If a plant manager can run a filling line without tweaks or foaming overflows, it proves the worth baked into the upstream chemistry. In production troubleshooting over the last decade, we’ve worked hand-in-hand with formulators to tweak their use levels, demonstrating that optimal performance occurs between 2-5% inclusion, depending on the formulation’s surfactant blend and the target rheology.

    The Science of Why Lauric Matters

    Lauric acid sits in the mid-chain fatty acid band, clocking in at C12. This size brings an important trade-off: strong hydrophobicity for cleansing, but moderate enough chain length to remain manageable in water-based systems. In the plant, we source lauric acid with certified traceability, primarily from palm kernel and a minor amount from coconut, based on regional availability and sustainability targets. Blending lauric acid with high-purity diethanolamine under controlled heat forms the amide bond, yielding a product that won’t separate or degrade rapidly in finished goods. Storage tanks are jacketed, and the pipelines run hot enough to keep the material mobile—many mistakes in the industry come from underheating during transfer, causing blockages and inconsistent fill weights, which we avoid by routine thermal profiling.

    Not every amide on the market matches lauric-based chemistry. Some opt for monoethanolamide variants (MEA amides) or stearic/coconut mixes hoping to cut a few cents per kilogram. Over time, subtle performance differences stack up. Coconut-based amides skew shorter chain lengths, giving more foam but less stability, and can darken over shelf life—not ideal for transparent or pastel-colored detergents. If you’ve ever chased color shifts in a clear body wash, you’ll know the frustration. Stearic-based amides bring a waxier feel and reduce foam, which isn’t always welcome in personal care or dishwashing. Our lauric-based option hits a middle ground: robust foam, stable viscosity, low color, and reduced tendency to crystallize in storage—all from the right starting chemistry.

    Quality: More Than a Marketing Line

    Producing high-purity Lauric Acid Diethanolamide means committing to every detail, from raw materials purchase to final QA check. We maintain full traceability records back to the oil mill or chemical plant source, and every incoming drum of diethanolamine arrives with a certificate of analysis cross-checked in our own lab. Process water quality, a detail some plants ignore, influences batch color and odor, so we run double filtrations before addition to the kettle. Every tank is fitted with inline sampling valves, enabling mid-batch pulls for real-time analytics. Our on-site GC-MS systems screen for trace amine impurities to ensure our output stands above lower grade imports.

    By running closed-process systems, we eliminate most airborne contaminants and reduce batch-to-batch drift. Our reactors use glass lining and periodic acid-wash cleaning, so there’s no legacy buildup contaminating new runs. During degassing, our technicians monitor output each hour to prevent excessive foaming or venting. After saponification, a three-stage cooling series preserves clarity and pourability, critical for bulk filling and shipping. These measures may add steps, but feedback from partners has shown our approach saves downstream rework and lost production time. If a shampoo or hand soap needs consistent performance across millions of bottles, our upstream diligence lays the groundwork.

    Safety and Environmental Responsibility

    Decades operating chemical reactors have taught us that responsibility means thinking beyond profit margins. Lauric Acid Diethanolamide is considered biodegradable, a trait more important as regulations on surfactant discharge tighten worldwide. Our R&D team runs regular biodegradation trials using OECD 301B standards to align with evolving national and export regulations. Wastewater from production lines cycles through a three-stage treatment system—primary sedimentation, biological oxidation, and final pH correction. Routine audits make sure our effluent meets local environmental discharge levels. Over the last five years, our company has reported no major incidents of effluent noncompliance, supported by published data from monitoring bureaus.

    Worker safety matches environmental care in priority. Our operational teams use closed transfer systems and personal gas detection during every handling step. Local exhaust ventilation is standard at all filling bays. Regular skin exposure testing on line staff monitors for any irritation cases—rare, given our low free amine levels, but a necessary safeguard. By listening to feedback from downstream handlers, we continue refining packaging—choosing drums with better venting, less chance for leaks, and easy washout procedures.

    Building Value: From the Plant to the Final Product

    Many customers ask why Lauric Acid Diethanolamide seems invisible when things run smoothly, yet becomes essential whenever batches turn out wrong. The answer traces back to its role as a ‘workhorse’ in the system. As a non-ionic, it shields against fluctuations from hard water, high electrolyte loads, or pH changes. While some modern thickeners add specialized attributes—pearlizing, cationic conditioning—few deliver the same simplicity and reliability as this amide. In challenging economies, every incremental cost counts; our Lauric Acid Diethanolamide stretches surfactant blends further, helping brands hit price points without giving up on consumer experience or product quality.

    Discussions with multinational buyers highlight another advantage: regulatory familiarity. Lauric Acid Diethanolamide has decades of safe use in regulated markets, with monographs documented in international standards like the European Inventory of Cosmetic Ingredients. The safety verifications and toxicological track record help clients avoid last-minute reformulation or costly new ingredient registrations. That recognition also aids with customs clearance and labeling, speeding time to market for new launches and private label updates.

    Comparing to Other Amides: Why Stick with Lauric Acid Diethanolamide?

    Clients sometimes experiment with cheaper MEA-based amides or newer specialty blends to cut costs. After numerous technical trials, the pattern reveals itself: lower-grade amides might foam well at first, but lose stability with time. MEA-based products, in particular, have faced regulatory scrutiny over nitrosamine concerns, requiring more oversight in personal care and green cleaning labels. Lauric Acid Diethanolamide remains free from these flagged risks when made under clean, optimized conditions. Its broad compatibility with other surfactant families—anionic, cationic, or amphoteric—makes it easy to incorporate even in evolving formulation types. Whether targeting sulfate-free launches, reducing carbon footprint, or lowering skin irritation, our amide adapts seamlessly without risky surprises.

    Over recent years, we have seen a trend toward raw material transparency and ‘clean label’ ingredients even in mass market cleaners and shampoos. Whenever our partners audit our plant or request disclosure statements, our established process for Lauric Acid Diethanolamide stands up to scrutiny. Supply chain teams ask about palm traceability, labor practices, and closed systems; our standardized records and commitment open the doors to these business-critical assurances. Downstream partners won’t tolerate erratic quality, batch recalls, or ingredient reclassification. Choosing our established Lauric Acid Diethanolamide has helped hundreds of brands avoid hidden technical or regulatory headaches.

    Meeting Tomorrow’s Demands with Today’s Chemistry

    We keep listening to our partners and adapting—not only by maintaining tight quality specs, but by planning for supply disruptions, certification updates, and sustainability challenges. Whether the market drives up demand for ‘zero-waste’ packaging or pushes for lower carbon chemistry, our team anticipates risks and responds before they become urgent problems. Running backup power and water systems, holding buffer stocks, and cross-training staff on every tank system—this is how we keep our Lauric Acid Diethanolamide shipments on time, every order.

    On the technical side, we collaborate directly with customers to test performance in final applications, not just send out a spec sheet. We’ve reformulated detergent concentrates for low-foam, industrial environments and adjusted color grades for boutique personal care lines targeting sensitive skin. If a new test method or claim arises—from foam break rates to allergen-free labeling—we run real performance studies, adjust parameters, and collect real-world data supported by both lab work and production feedback. That is the result of years of working in harmony with manufacturing, not just pushing paperwork or chasing quick wins.

    What Success Looks Like for Real-World Formulators

    Sometimes, what really matters is not the chemistry, but what it lets people accomplish. One example stands out in our memory—a small cleaning company hit with product recalls due to batches separating at the warehouse. They’d opted for a cheaper amide for a few months, only to field escalating complaints from clients and store managers. The switch back to our Lauric Acid Diethanolamide saw their complaints vanish and their customer satisfaction rebound in one production cycle. Another long-term partner tells us how our amide lets their filling line run faster, avoids abrasive clogs, and achieves a shine their brand built its reputation on.

    For us as the manufacturer, these stories are not just anecdotes—they represent the cumulative impact of every decision made at the raw material, synthesis, and QC stage. Consistent feedstock, precise process control, safety diligence, and open lines to our customers—this is how Lauric Acid Diethanolamide becomes more than just a line on a bill of materials. It becomes a foundation stone for reliable finished products people trust, formulating success not only on paper, but in the world where brands, consumers, and producers all meet.