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Lignoceric Acid Methyl Ester

    • Product Name Lignoceric Acid Methyl Ester
    • Alias methyl tetracosanoate
    • Einecs 256-728-7
    • 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
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    Specifications

    HS Code

    950333

    Productname Lignoceric Acid Methyl Ester
    Casnumber 4536-23-6
    Molecularformula C25H50O2
    Molarmass 382.66 g/mol
    Appearance Colorless to pale yellow liquid
    Boilingpoint 406.8 °C at 760 mmHg
    Density 0.862 g/cm3 at 25 °C
    Flashpoint 205.4 °C
    Solubilityinwater Insoluble
    Refractiveindex 1.446 at 20 °C
    Storagetemperature Room temperature
    Purity Typically ≥ 98%

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

    Packing & Storage
    Packing Lignoceric Acid Methyl Ester, 25 grams, is supplied in a sealed amber glass bottle with a secure screw cap for safety.
    Shipping Lignoceric Acid Methyl Ester is shipped in tightly sealed, corrosion-resistant containers to prevent contamination and moisture ingress. It should be transported in a cool, dry, well-ventilated area, away from strong oxidizers and sources of ignition. Proper labeling and documentation, including safety data sheets, accompany each shipment as per regulatory standards.
    Storage Lignoceric Acid Methyl Ester should be stored in a tightly sealed container, protected from light, heat, and moisture. Keep it in a cool, dry, and well-ventilated area, away from oxidizing agents and acids. Store at room temperature or as recommended by the manufacturer. Ensure proper labeling and restrict access to trained personnel to maintain chemical safety and integrity.
    Application of Lignoceric Acid Methyl Ester

    Applications of Lignoceric Acid Methyl Ester in Industrial Manufacturing

    Our facility produces Lignoceric Acid Methyl Ester for integration into specialized industrial workflows across multiple high-value sectors. By directly serving manufacturers, we support technical teams with consistent quality, full traceability, and in-depth application knowledge targeted to downstream operational needs. Below, we detail differentiated industrial use cases, regulatory requirements, tested incorporation levels, and typical end-product forms relying on this raw material.

    1. High-Performance Synthetic Lubricants

    Industrial formulators use Lignoceric Acid Methyl Ester to enhance the viscosity index, pour point, and oxidative stability of premium base stocks for the lubricant sector. Its molecular structure delivers film strength and low volatility valued in heavy-duty hydraulic and transmission fluids, synthetic greases, and compressor oils, where temperature range and longevity are critical for performance under load.

    Industry compliance standards

    • API Base Oil Interchange Guidelines (American Petroleum Institute)
    • OEM specifications: DIN 51517, ISO 6743, and ASTM D445/D2270 viscosity requirements
    • REACH Registration (EC No 1907/2006) and relevant CLP compliance in European formulations

    Typical usage ratio

    • Blending levels range from 2% to 10% by total oil weight, with adjustment based on required viscosity grade and pour point depression parameters.

    Downstream process integration

    • Incorporation occurs during premix or additive package formation, followed by base oil blending under inert atmosphere at 60–70°C to ensure homogeneity and prevent oxidation.

    Final product types

    • Industrial hydraulic oils (ISO VG 32–100)
    • High-temperature synthetic greases
    • Synthetic compressor and gear oils
    • Custom automotive transmission fluids

    2. Long-Chain Fatty Ester Plasticizers for Polymer Processing

    Polymer manufacturers select Lignoceric Acid Methyl Ester to modify the flexibility, plasticity, and migration resistance of engineering plastics and specialty elastomers. Its C24 structure reduces polymer glass transition temperature, making it suitable for demanding applications requiring low volatility and migration for medical, automotive, and wire/cable compounds.

    Industry compliance standards

    • FDA 21 CFR 177.2600 (indirect food contact applications)
    • RoHS 2011/65/EU and REACH Annex XVII compliance (heavy metal and phthalate exclusion)
    • UL 94 flammability standards for plastics

    Typical usage ratio

    • Incorporation rates typically range between 3% and 12% by resin mass depending on polymer type and softness/hardness requirements; lower doses for rigid PVC, higher for flexible TPEs.

    Downstream process integration

    • Dosed during compounding using twin-screw extrusion at 140–170°C, ensuring efficient ester dispersion prior to pelletizing or profile extrusion.

    Final product types

    • Medical-grade flexible tubing and sheets
    • Automotive weatherstrip and interior panels
    • High-performance cable insulation and jacketing
    • Elastomeric parts in electrical components

    3. Emollient and Consistency Agent in Cosmetic Formulation

    Personal care formulators depend on Lignoceric Acid Methyl Ester to build viscosity, improve skin-feel, and enhance barrier properties in cosmetic emulsions and stick forms. Its long-chain fatty acid methyl ester increases formulation stability, supports lamellar phase formation, and enriches the sensorial qualities of high-end skincare and color cosmetic products.

    Industry compliance standards

    • European Cosmetics Regulation (EC) No 1223/2009
    • U.S. FDA Cosmetic Ingredient Review (CIR) panel safety assessments
    • China National Medical Products Administration (NMPA) GB 7916 standards

    Typical usage ratio

    • Addition levels in creams and lotions are between 1.5% and 6%, increased to 8% for anhydrous and stick formulations for enhanced mechanical strength.

    Downstream process integration

    • Added to the oil phase during hot emulsification at 75–85°C, with controlled cooling to promote uniform emulsion structure or consistent stick solidification.

    Final product types

    • Facial moisturizers and barrier creams
    • Lipsticks, lip balms, and creams-to-powder foundation sticks
    • Dermatological ointments targeting sensitive skin

    4. Release Agent and Anti-Stick Additive in Rubber Compounding

    Rubber processors use Lignoceric Acid Methyl Ester as an internal lubricant and mold-release agent to minimize compound adhesion during mixing, shaping, and curing. Its long alkyl chain reduces friction on processing equipment, lowers required demolding force, and prevents premature scorch in peroxide-cured and sulfur-cured systems.

    Industry compliance standards

    • ASTM D3182 and D3187 (rubber processing standard practice)
    • ISO 9001-certified compounding and batch traceability systems
    • Restriction on hazardous substances (REACH Annex XVII, US EPA TSCA section 8(b))

    Typical usage ratio

    • Recommended concentration is 0.5% to 2.5% by rubber compound mass, tuned according to compound viscosity and desired release characteristics.

    Downstream process integration

    • Blended with other compounding ingredients during Banbury or open-mill mixing, typically after filler and plasticizer addition but before curative introduction.

    Final product types

    • Automotive and industrial molded rubber parts
    • Conveyor belts and gaskets
    • Wire and cable sheathing for mechanical protection

    5. Phase Change Material (PCM) Applications for Energy Storage

    Thermal management system designers select Lignoceric Acid Methyl Ester for use as a bio-based phase change material where stable melting and crystallization at 80–87°C are essential. Its low toxicity and defined transition point allow engineers to boost thermal storage capacity in heating and cooling modules for electronics, solar, and logistics applications.

    Industry compliance standards

    • ASHRAE 90.1 (building energy standards for storage modules)
    • EN 50557 (thermal management systems, electrical equipment)
    • Material Safety Data Sheet (MSDS) conformity with GHS and OSHA guidelines

    Typical usage ratio

    • PCM function requires 65%–90% loading within encapsulation or matrix materials; exact content selected based on module containment stability and target energy storage density.

    Downstream process integration

    • Encapsulated by micro- or macro-encapsulation before integration into panels, heat storage packs, or composite PCM-containing elements using vacuum filling or embedding processes.

    Final product types

    • Energy storage plates, pouches, and blocks for electronics cooling
    • Thermal regulation liners in transport containers
    • Phase change wall panels in climate-control construction
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    Certification & Compliance
    More Introduction

    Lignoceric Acid Methyl Ester: Practical Insights from the Manufacturer

    Real-World Uses and Proven Performance

    Lignoceric Acid Methyl Ester stands out in the chemical industry as a specialty fatty acid methyl ester. At our manufacturing facility, we have seen its value extend across a range of applications, especially in synthetic lubricants, surfactants, and specialty chemical intermediates. Many customers in fields like metalworking, polymer processing, and even the cosmetics industry have switched to this compound when they need long-chain methyl esters that deliver both performance and reliability. Our product is prepared from high-purity lignoceric acid, ensuring a consistent C24:0 methyl ester profile with low impurity levels. As a direct manufacturer, we maintain batch-to-batch consistency through thorough in-process quality checks, so engineers and formulators know what to expect every time they open a new drum.

    Distinctive Qualities of Our Lignoceric Acid Methyl Ester

    Our experience producing fatty acid derivatives goes back several decades. We pay close attention to the raw material sourcing, ensuring only high-quality lignoceric acid enters our esterification lines. This has direct effects: the resulting methyl ester comes almost entirely from saturated C24:0 chains, offering a high melting point and good oxidative stability. Unlike methyl esters made from shorter fatty acids, the C24:0 structure holds up better in applications that require greater heat resistance or chemical inertia. Many synthetic lubricant formulators rely on these long-chain esters for applications where shorter chains fail due to volatility or breakdown.

    The distinction becomes clear for formulators comparing methyl lignocerate against common methyl stearate or methyl palmitate. The longer hydrocarbon tail in lignoceric acid methyl ester drives up the product’s melting temperature and also contributes to its resistance to chemical attack in harsh formulations. Some surfactant producers also look to methyl lignocerate for these properties, especially where durability and performance outweigh the cost consideration.

    We commonly supply our Lignoceric Acid Methyl Ester as a white to off-white crystalline solid. It holds up at room temperature in most climates, and melts smoothly in controlled heating blocks. Analysts at our plant measure ester purity using gas chromatography, with final purities trending above 98%. We keep residual acid and free methanol low through controlled process design and careful purification steps.

    Meeting Technical Demands: Lessons from the Plant Floor

    Producing methyl esters at a technical scale requires careful control at every stage. Lignoceric acid itself is less common than oils like soybean or palm, meaning our production lines start with a more selective feedstock. The methylation process requires tight control of temperature, pressure, and catalyst use to avoid overreaction or incomplete esterification. Over many production cycles, we have dialed in reaction times and post-processing methods that keep byproducts and colored impurities to a minimum.

    From our perspective, a key difference stems from the high melting point of Lignoceric Acid Methyl Ester. Unlike methyl oleate or methyl linoleate, which stay liquid at ambient temperature, our product needs gentle heating for handling in colder environments. Some users in the plastics and rubbers industry value this higher melt point, because it contributes to the temperature resistance of their final blends. This property often translates to a more stable matrix, especially in applications like high-temperature lubricants, specialty surfactants, and waxes.

    Technical teams that manufacture synthetic base oils frequently choose C24 methyl esters to improve the lubricity and thermal endurance of their oil blends. Our own plant engineers noticed these benefits when testing proprietary lubricants based on our methyl lignocerate. Blends resisted breakdown during stress testing, holding up under temperatures where shorter chain methyl esters degrade. This finding has led several clients to adopt our Lignoceric Acid Methyl Ester in new product lines targeting high-performance applications.

    Genuine Quality Control and Traceability

    Maintaining high quality in a specialty chemical like this goes beyond simple analytical checks. We built our quality system on regular calibration of our gas chromatographs, but we also rely on continuous operator training and rigorous documentation. Process operators monitor reaction endpoints using real-time analysis rather than relying on standard time cycles, which increases efficiency and ensures repeatable quality. In the purification stage, we reject fractions that don’t meet strict minimums for purity and color — these go back for reprocessing rather than entering final product tanks.

    The traceability on our methyl lignocerate allows us to provide batch information back to customers in detail. Chemical plants sometimes face complaints about product variability, but we curb these issues by working directly with procurement and R&D teams at our clients' organizations. Our support includes full certificates of analysis, and we save retained samples for each batch for at least two years. When issues come up, we trace problems quickly, and technical support can often pinpoint the source thanks to robust batch recordkeeping. Taking this approach reduces costly downtime for our customers and strengthens their trust in our product lines.

    Sustainability and Sourcing

    The sustainability angle often gets overlooked in specialty esters, but our sourcing strategy for lignoceric acid focuses on responsible supply. Raw lignoceric acid comes from select natural fats, in particular certain types of plant waxes and seed oils. Some of these sources include rice bran wax or peanut oil distillate, which naturally contain higher proportions of C24 fatty acids compared to typical palm or coconut oils. We keep this supply chain short, working with trusted suppliers who provide audited sustainability documentation wherever possible. This benefits larger customer groups — especially those facing tight regulatory constraints or seeking to move toward more sustainable material use.

    Our manufacturing waste streams are managed with an eye on waste reduction and solvent recovery. The methanol used in transesterification is captured and recycled in our process plant, cutting down on environmental impact and operating cost. By-products that don't meet specification for methyl lignocerate often find other uses in non-critical applications, reducing total waste and supporting the circular economy concept.

    Safety, Handling, and Lessons from Field Use

    Industrial practices around handling Lignoceric Acid Methyl Ester run straightforward. The material is not considered hazardous under most transport regulations, though its powdery or flaky form does mean operators need to use basic dust controls and wear gloves when transferring bulk quantities. From what we've seen in the plant, the solid nature of the product actually makes it less likely to cause slips or spills compared to oily methyl esters, lowering housekeeping challenges. Storage works best in sealed fiber drums or lined steel drums, kept away from moisture and high heat for optimal shelf life. We recommend heating jackets for bulk tanks in colder climates so the product stays pumpable during winter months.

    Our safety team learned that conveying methyl lignocerate through pneumatic systems sometimes generates static, so we ground all equipment and enforce good bonding practices. Customer reports back this advice: a well-grounded transfer line prevents powder buildup and ensures operators stay safe. As methyl lignocerate finds more use in high-end lubricants, we get requests for handling and compatibility advice. We run periodic workshops to share plant-level experience with maintenance crews and lab technicians at customer sites, which has helped reduce incidents and supported our clients in adopting new product blends safely.

    Comparison to Chemical Alternatives

    Some product developers might initially look at methyl stearate or even methyl behenate for their applications. While stearic and behenic acid methyl esters function well in basic formulations, they break down at lower temperatures and can oxidize faster. The two-carbon extension in lignoceric acid, although seemingly small, shifts physical properties enough to matter in tougher conditions. For instance, in tests for oxidative stability, methyl lignocerate outlasted common alternatives by hours under laboratory heat stress. Downline customers making greases and waxes often see improved end-product consistency with this long-chain ester.

    Blenders working in personal care or cosmetics sometimes ask about switchability between methyl esters. We always recommend checking compatibility in the specific formulation. As chemists on the manufacturing floor, we've noticed longer-chain esters give thicker, richer texture in emollient blends. Lignoceric Acid Methyl Ester can boost thickness and contribute to a longer-lasting protective film on skin or hair, something specialty formulators value in premium personal care products.

    Some applications require lower pour-point esters. Here, a blend with shorter-chain companions can bring the melt point down while maintaining some of the robustness from the C24 structure. We supply technical advice on blend ratios based on both our own internal tests and feedback loop with clients using our esters in the field.

    Meeting Tough Regulatory and Analytical Demands

    Users working within the European Union, United States, or Asia often request detailed analytical data to support product registrations or regulatory filings. Our in-house analytics team provides compositional breakdowns, including GC retention times, and we present heavy metal and residual solvent data whenever requested. Our R&D unit also keeps an eye on upcoming regulatory changes, and we work ahead of deadline whenever new substance registrations or additional safety disclosures are required. Helping customers move through compliance with confidence set us apart in specialty esters.

    We gather regular feedback on application challenges, sourcing issues, or technical roadblocks. This helps us tune our process to market needs in real time. In some cases, shifts in regulations around renewable sourcing or low-residual solvent requirements prompt us to adapt process steps, choosing greener catalysts or optimizing washing procedures to meet lower tolerance values. Consistent communication with downstream users ensures product always aligns with required standards.

    Research, Development, and Real-World Trials

    Development of Lignoceric Acid Methyl Ester didn’t stop once we scaled up the initial process. Our technical staff regularly runs research on novel uses, feeding the best process improvements back into standard production. Over years of lab work and pilot-scale validation, we have tailored our purification steps to make sure color and clarity remain consistent, even as feedstock batches change with agricultural cycles.

    Industry partners sometimes request support for scale-up of their own products based on our methyl lignocerate. We assist by providing technical data, physical samples, and guidance based on our own plant trials. Having run repeated pilot lots and full-scale batches, we bring practical experience to rapid troubleshooting. In one example, a surfactant producer ran into solubility limits at scale — partnering with our chemists helped them fine-tune blend ratios and optimize heating cycles to keep their line running efficiently.

    Close collaboration with universities and technology institutes supports ongoing research into improved uses of lignoceric acid methyl esters. Areas of particular interest include biodegradable lubricant formulations, novel surfactant technologies, and specialty material enhancements where long-chain fatty acid derivatives contribute properties unattainable from standard C18 or C20 chemistries.

    Real-World Feedback and Responsible Growth

    The story of Lignoceric Acid Methyl Ester is shaped by both global demand and local experience. As our customers diversify into renewable materials, high-performance technical products, and safer manufacturing streams, we continue to refine what it means to deliver a world-class specialty ester from the source. Chemical supply chains can feel distant, but we bridge that gap by staying transparent, building trusted relationships, and adapting our process to real-life manufacturing needs.

    Tougher performance requirements, evolving regulatory frameworks, and customer calls for traceability all shape our work every day. The commitment flows directly from technical experience in our plants and is validated by field use in the many industries we support. The result is a dependable source of Lignoceric Acid Methyl Ester with the practical performance attributes and real-world assurance that chemical manufacturers, not just traders or marketers, can truly stand behind.