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Hydrogenated Tallowamine

    • Product Name Hydrogenated Tallowamine
    • Alias Hydrogenated Tallow Alamine
    • Einecs 268-578-6
    • 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

    216767

    Chemical Name Hydrogenated Tallowamine
    Cas Number 61788-45-2
    Physical State Solid (waxy or flakes) at room temperature
    Color White to pale yellow
    Odor Faint, characteristic odor
    Solubility In Water Insoluble
    Melting Point 45-55°C
    Boiling Point Decomposes before boiling
    Flash Point >150°C (closed cup)
    Molecular Formula C16-18H35-37N
    Molecular Weight 255-285 g/mol (variable with mixture)
    Density 0.82-0.85 g/cm³
    Stability Stable under normal conditions
    Primary Uses Surfactant, emulsifier, and conditioning agent

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

    Packing & Storage
    Packing Hydrogenated Tallowamine is packaged in a 200 kg blue HDPE drum with a secure lid, labeled with product and safety information.
    Shipping Hydrogenated Tallowamine is typically shipped as a solid or molten material in drums, bags, or bulk containers. It should be transported in accordance with local regulations, with care to avoid moisture and sources of ignition. Proper labeling and safety documentation must accompany shipments to ensure safe handling and compliance with transport laws.
    Storage Hydrogenated Tallowamine should be stored in a cool, dry, and well-ventilated area away from heat, ignition sources, and incompatible substances such as strong oxidizers. Containers should be tightly sealed to prevent contamination and moisture absorption. Store in designated chemical storage areas, clearly labeled, and protect from direct sunlight. Use appropriate personal protective equipment when handling to ensure safety.
    Application of Hydrogenated Tallowamine

    Applications of Hydrogenated Tallowamine in Industrial Manufacturing

    Hydrogenated Tallowamine is a key primary amine derived from refined animal fats, widely recognized for its performance in several industrial downstream sectors. As the original manufacturer with direct involvement in product customization and quality control, we ensure high-purity grades suited for specific processing requirements. Below are the main application routes, each detailing relevant regulatory and production standards.

    1. Fabric Softener Formulation

    This raw material acts as a core intermediate during the production of quaternary ammonium compounds (quats) for household and textile industry softeners. It provides a long hydrophobic chain designed to interact efficiently with fabric fibers during rinse cycles, imparting surface modification and a distinct hand feel. Customers integrate it early in the emulsification phase, often reacting it with methyl chloride or similar agents under strictly controlled temperatures to achieve uniform liquid dispersions. Regulatory compliance and product safety demand performance validation and stability testing before bulk production.

    Industry compliance standards

    • European Detergent Regulation (EC) No 648/2004
    • REACH Registration (EC 1907/2006)
    • US EPA TSCA listing
    • AISE/CESIO recommendations for cationic surfactants

    Typical usage ratio

    • Raw amine accounts for 20–40% of the cationic softener concentrate; dosage adjusted for chain saturation, desired cationic charge density, and fragrance solubility requirements in end-user formulas.

    Downstream process integration

    • Integrated in initial amide or quaternization reaction vessel. Followed by dilution, pH adjustment, and final blending with perfumes and stabilizers.

    Final product types

    • Consumer laundry softeners
    • Industrial textile softening agents (for garment and towel finishing)
    • Automotive upholstery treatment concentrates
    • Commercial linen care dispersions

    2. Asphalt Emulsifier Manufacturing

    Hydrogenated tallowamines serve as cationic emulsifier precursors in the surfactant blend used for bitumen and asphalt emulsion processing in road construction. The amine modifies interfacial tension at the oil-water boundary, enabling stable dispersion of bitumen microdroplets in aqueous media under high-shear mixing. The use of animal-derived amines depends on compliance with transportation and safety standards, especially regarding handling and waste management in bulk processes. Proper selection of chain length and saturation ensures thermal stability and compatibility with a range of aggregate and binder systems utilized in civil engineering projects.

    Industry compliance standards

    • ASTM D977 (Standard Specification for Emulsified Asphalt)
    • EN 13808 (Cationic bituminous emulsions requirements)
    • US EPA NPDES guidelines for runoff control
    • DOT state and federal highway specifications

    Typical usage ratio

    • Emulsifier blends incorporate 1.5–4% hydrogenated tallowamine by total emulsion weight, adjusted according to bitumen grade, aggregate porosity, and local climate conditions influencing cure rates.

    Downstream process integration

    • Dosed into aqueous phase before high-speed colloid mill processing. Amine is pre-neutralized and pH-adjusted prior to blending with bitumen.

    Final product types

    • Cold-mix and warm-mix road emulsions
    • Paving tack coats
    • Micro-surfacing binders
    • Crack sealing emulsions

    3. Ore Flotation Collector Formulation

    In mining, the amine is a main component in the production of cationic flotation agents for beneficiation of silica-bearing ores such as iron and phosphate. The material is reacted to produce fatty amine acetates or chlorides, which selectively adsorb onto mineral surfaces, enabling effective separation during froth flotation. Producers require strict documentation of handling, environmental impact, and water discharge compliance due to residue amine presence post-flotation.

    Industry compliance standards

    • Mine Safety and Health Administration (MSHA) chemical safety standards
    • ISO 14001 (Environmental management systems)
    • EPA 40 CFR Part 423 (Effluent guidelines)
    • REACH registration for flotation chemicals

    Typical usage ratio

    • Flotation collectors contain 3–7% amine by total reagent volume, adjusted for ore type, gangue mineralogy, and slurry concentration.

    Downstream process integration

    • Amines are reacted with acetic or hydrochloric acid, then dosed as aqueous solution in flotation cell feed streams during concentrator operation.

    Final product types

    • Concentrated iron ore fines
    • Processed phosphate rock
    • Beneficiated silica sands
    • Purified feldspar concentrates

    4. Antistatic Additives for Polyolefins

    The amine is quaternized to form antistatic agent intermediates widely used in polyolefin plastic compounding. Production involves neutralizing the raw material and subsequently dispersing it into masterbatch or directly incorporating into molten polymer streams. Functional groups interact with surface moisture, dissipating electrical charges in processed films and molded parts. Usage is strictly governed by food-contact approvals and migration limitations in final goods subjected to packaging or consumer contact.

    Industry compliance standards

    • EU Regulation No 10/2011 (Plastic FCMs)
    • FDA 21 CFR 178.3130 (Antistatic and antifog agents)
    • RoHS compliance for electrical/electronic applications
    • ISO 9001 quality management for compounding

    Typical usage ratio

    • Masterbatch systems use 0.2–1.0% of the quaternary amine based additive in polyolefin resin; levels vary by polymer melt flow, end-use voltage requirement, and desired duration of static control effect.

    Downstream process integration

    • Additive is compounded into base resin on twin-screw extruders prior to pelletizing; alternatively, direct metering during film extrusion or injection molding processes.

    Final product types

    • Flexible food packaging films
    • Consumer electronics housings
    • Plastic pallets and storage bins
    • Automotive interior trim

    5. Corrosion Inhibitor Synthesis for Oilfield Applications

    This amine is a critical raw material in the preparation of oil-soluble corrosion inhibitor bases, typically used to formulate finished products for pipeline, refinery, and downhole well protection. Downstream chemists typically blend the amine with organic acids and surfactant co-additives to yield effective film-forming species. Tight regulation of additive residue and deployment practices is enforced to limit formation water contamination and meet hydrocarbon and brine compatibility testing during qualification trials.

    Industry compliance standards

    • NACE MR0175/ISO 15156 (Materials for use in H2S-containing oil and gas fields)
    • API RP 771 (Corrosion Control in Petroleum Production)
    • REACH and TSCA notification for hazardous substances
    • GOST standards for pipeline chemicals (CIS region)

    Typical usage ratio

    • Primary amine used at 10–25% by mass in corrosion inhibitor concentrate, with the blend ratio tailored for fluid compatibility and severity of corrosion environment.

    Downstream process integration

    • Amine added to blending tanks with other organic agents, followed by homogenization before packaging into drums or IBCs for oilfield service deployment.

    Final product types

    • Pigging pipeline inhibitor packages
    • Continuous injection corrosion inhibitor blends
    • Refinery process line inhibitor fluids
    • Offshore production riser protection additives

    6. Water Treatment Flocculant Manufacturing

    Hydrophobic amine derivatives function as flocculant and coagulant intermediates in industrial and municipal wastewater treatment plants. Downstream formulators react the amine with suitable cationic monomers and blend with high molecular weight polymers for efficient clarification of suspended solids. Compliance with potable water additive standards and effluent toxicity benchmarks governs raw material sourcing and traceability protocols throughout the supply chain.

    Industry compliance standards

    • 40 CFR Part 141 (US National Primary Drinking Water Regulations)
    • EN 1407 (Chemicals used for treatment of water intended for human consumption)
    • ISO 9001 for water treatment chemicals
    • NSF/ANSI 60 certification

    Typical usage ratio

    • Flocculant blends contain 1–3% amine derivative by active component weight; dosing adjusted for influent turbidity, pH, and water chemistry profile.

    Downstream process integration

    • Amine converted into cationic intermediate, blended with polymer and dosed via automatic feeders to clarifier flash mixing zones.

    Final product types

    • Municipal water clarification agents
    • Sludge thickening additives
    • Industrial effluent flocculants
    • Paper mill water treatment chemicals
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    Certification & Compliance
    More Introduction

    Hydrogenated Tallowamine: Real-World Performance, Straight From the Source

    Understanding Hydrogenated Tallowamine

    Our team has spent decades exploring fatty amine chemistry, and Hydrogenated Tallowamine remains one of the most reliable workhorses in surface treatment and chemical synthesis. Produced by catalytic hydrogenation of tallow-derived nitriles, this family of high-molecular-weight alkylamines features saturated carbon chains, typically C16 and C18. The resulting amine offers a blend of consistency, mild reactivity, and stability, shaped by years of manufacturing know-how.

    On our lines, every batch reflects careful selection of raw animal fats, followed by a hydrogenation step under precisely controlled pressure and temperature. We check for each chain length ratio and require consistent color, amine value, and residuals profile. This attention to detail means finished tallowamine gives predictable performance, a necessity in everything from textile softeners to ore floatation aids.

    What Sets It Apart

    Hydrogenated Tallowamine is not a generic fatty amine. Chemical structure makes all the difference in how our product stands out alongside alternatives like cocoamine, oleylamine, or synthetic primary alkylamines. Tallowamine’s saturated chains give more stability during storage and use. It resists oxidation and rancidity far longer than unsaturated amines, reducing the risk of odors and breakdown. This matters for manufacturers who ship products globally or want shelf lives measured in years, not months.

    The melting range, typically between 44–54°C, means tallowamine holds form in temperate storage but softens with gentle warming for blending or emulsification. Unsaturated counterparts, such as cocoamine, tend to liquefy at lower temperatures and can become unstable in finished goods, especially where air exposure persists. Processors looking for predictable handling during hot or cold weather gravitate toward hydrogenated tallowamine for this reason.

    Feedstock source matters too. Tallow-based feed blends more C18 chains than coconut or palm, which skews toward shorter C12–14. In surfactant manufacturing, the C18-dominant chain delivers greater hydrophobicity, which translates into more robust emulsification and improved fatty deposit removal in cleaning formulations.

    Why Purity and Chain Length Profiles Matter

    Most surface chemistry hinges on the amine’s primary form. Our hydrogenated tallowamine comes with a minimum of 98% primary amines, based on titration against hydrochloric acid and confirmed via gas chromatography. Secondary and tertiary amines remain tightly controlled due to their impact on cationic surfactant activity. For applications like textile softening or quaternization, this purity drives stronger bonding to fabric fibers or cationic reaction efficiency.

    Chain length distribution—a factor seldom discussed outside the plant floor—directly shapes the product’s function. A higher C18 content increases lubricity and compatibility in hard-surface cleaners, while lower C16 content can reduce clouding in certain finished products. Whole batches undergo regular fractionation checks to keep this balance consistent.

    Applications Driven by Chemistry and Field Requirements

    Anyone who’s spent time in a blending hall knows that every surfactant, emulsifier, or flotation agent has unique quirks. Hydrogenated tallowamine’s combination of primary amine content and chain saturation makes it the preferred choice in diverse sectors:

    Handling, Storage, and Best Use Tips

    Those new to tallowamine learn quickly that neat handling is easiest at 55–65°C, using stainless steel tanks with gentle agitation. Our experience tells us that tight headspace and nitrogen blanketing guard against discoloration during storage. Small-scale users often opt for flaked or pelletized material for dosing ease; large-volume customers favor liquid bulk for in-line blending.

    Water content should be kept low—ideally below 0.5%—to prevent hydrolysis and preserve storage quality. We keep all loads capped and drums sealed after filling, protecting against atmospheric moisture. Because tallowamine solidifies at room temperature, any lines or filters may need trace heating, especially in winter. Piping fouling almost always ties back to lapse in temperature controls.

    Product Model and Quality Focus

    Our standard model runs a C16–C18 ratio close to 25:75, with a narrow range in total unsaturation thanks to rigorous hydrogenation. Every lot comes certified for amine value above 204 mgKOH/g, acid value under 3 mgKOH/g, and Huey tube color below 3 Gardner. These aren’t just numbers; they reflect our reality that high ash, free fatty acids, or color can cause downstream processing headaches, from discoloration in fabric softeners to reactivity drops in quats.

    Some industries, especially those in personal care or high-purity emulsifier production, request extra refining. We have built in-line adsorption and double filtration into our process to deliver tallowamine that stands up to scrutiny at every end use. In antifouling paint sectors, technical grade is more common, given cost and volatility considerations.

    Lessons Learned: End Use Challenges

    Customers in mining have reported that minor differences in amine purity or unsaturation impact mineral separation, prompting us to invest in higher-resolution distillation. Textile customers have taught us that batch-to-batch variation in chain ratio can make the difference between a softener that glides through finishing and one that causes streaks or spots. Paint technicians rely on our material to stay homogenous through shelf life, demanding color and acid value checks before every dock-out.

    We have seen issues when other amines with higher unsaturated content, such as oleylamine, are substituted due to supply gaps. Those switches often bring cloudy batches, early rancidity, or drop-outs in viscosity—problems rarely seen with properly hydrogenated tallowamine.

    Sustainability and Sourcing Concerns

    Tallow sourcing intersects with the world’s agricultural and rendering industries. Responsible tallowamine production means consistent engagement with our suppliers about traceability and animal welfare. We opt for suppliers participating in verified responsible sourcing programs and regularly audit their separation and rendering methods.

    Over the past ten years, we have optimized our hydrogenation and distillation stages to drive down energy consumption, cutting per-ton CO2 emissions. The hydrogen deployed in saturation is now partly sourced from electrolytic generation, shrinking fossil dependency. These investments matter in an industry seeking both reliability and reduced environmental impact.

    The origin of tallow can come up in regulatory reviews. We maintain full chain-of-custody documents, allowing downstream brands to answer consumer, compliance, and labeling questions about animal-derived components.

    Comparing Hydrogenated Tallowamine to Other Amines

    Direct comparisons with cocoamine and soy-based amines reveal some trends. Shorter-chain amines like cocoamine—common in degreasers and lower cloud point detergents—bring greater solubility, but often at the cost of film formation or stability over long storage. Longer-chain, highly unsaturated amines, such as oleylamine, can yellow or oxidize quickly, an issue that doesn’t match up with the performance of tallowamine in oxidation-sensitive applications like personal care, preservatives, or mining separation.

    Some synthetic amines claim higher purity, but they miss the hydrocarbon structure’s unique interaction with certain minerals and fabrics. Tallowamine-based quats persist longer on textile, giving a hand and softness less prone to wash-away over repeated launderings. For agricultural adjuvants, tallowamine’s hydrophobic backbone encourages leaf penetration, creating more durable and rainfast films when compared with plant-based or synthetic alternatives.

    Cost factors can’t be ignored. Hydrogenated tallowamine pricing moves with global fat supplies, but benefits from established rendering and hydrogenation infrastructure. Competing amines from coconut or palm often track similarly but can run into supply volatility tied to tropical agriculture.

    What Customers Want to Know: Real-World Questions

    We hear from plant engineers and formulators who ask about blending compatibility, pH tolerance, and reaction speed during quaternization. The robust nature of hydrogenated tallowamine means it stands up to a range of acid and alkali conditions, making it easier to drop into most existing process setups without major retuning.

    Some curious users wonder about trace impurity levels, particularly nitrosamines or residual solvents. We have implemented routine GC-testing to assure levels fall well beneath global regulatory requirements. This vigilance gives brand owners greater confidence when explaining ingredient sourcing to their customers or regulatory partners.

    Questions about odor or discoloration in finished goods led us to invest in better hydrogenation catalysts and post-refining steps that keep tallowamine essentially neutral in scent and appearance, even under demanding storage or exposure conditions.

    A frequent concern comes from customers transitioning from synthetic or vegetable amines. They want to know if they’ll have to change process conditions or reformulate. Most discover hydrogenated tallowamine’s handling and blending characteristics fall well within existing process parameters, and often bring less foam during blending and more consistent batch results over time.

    Safety and Handling Insights

    Safety remains a fundamental concern for users at any scale. Over decades, we have refined procedures for drum filling, transfer, and blending to keep exposure to a minimum. Neat hydrogenated tallowamine has low acute toxicity, but standard precautions, including gloves and eye protection, always make sense. We have coached end users on simple, inexpensive ventilation upgrades to keep workplace air below exposure limits, especially in hotter weather or during large batch preparation.

    Spills turn solid quickly but clean up with warm water and mild detergent. For those introducing hydrogenated tallowamine into new processes, we advise slow addition during hot blending and care to avoid splash or aerosol formation, as inhalation can irritate sensitive airways. Many of the safety learnings have come from years of real plant incidents, and we share best practices with customers directly.

    Looking Forward: Plant Improvements and R&D Efforts

    On the manufacturing side, we continue to evaluate catalysts and hydrogen sources to push down side reactions and shorten processing times. Old batch reactors are being swapped for continuous flow hydrogenation, cutting both waste and cycle times. Inline monitoring tools now alert for minor chain ratio drifts, catching any potential issues before batches move to blending or packaging.

    Our R&D teams study downstream reactions like quaternization and ethoxylation, looking for ways to clean up byproducts and reduce utility costs. We listen to user feedback from end markets every quarter, guiding tweaks to product balance and specification tightening.

    Innovation isn’t just about new molecules; it’s about deeper understanding of how hydrogenated tallowamine behaves in field conditions. From anti-static agents in electronics to biocidal blends for agricultural runoff, we see ongoing demand for reliable, high-purity fatty amines. Responding to that demand remains a full-time commitment.

    Hydrogenated Tallowamine Remains a Mainstay

    A tried-and-true product draws on experience at every step. In hydrogenated tallowamine, we see a balance of process stability, physical handling, and versatility for formulators in industries as varied as mining, textiles, paints, and agribusiness. Its saturated structure, coupled with careful purification, provides practical value where shelf life, chemical reactivity, and application performance intersect.

    Where alternatives may falter, our hydrogenated tallowamine—developed and refined through years of hands-on manufacturing experience—delivers. We stand by our product not by relying solely on specifications, but by working directly with you, the users, who have made hydrogenated tallowamine a fixture in chemical processing around the world.