| Names | |
|---|---|
| Preferred IUPAC name | N,N'-bis(Octadec-9-en-1-yl)ethane-1,2-diamide |
| Other names | Ethylene Bistearamide EBO Bis(Octadecanamide)ethane Ethylene Bis Stearamide EBS |
| Pronunciation | /ˈɛθ.ɪ.liːn bɪs oʊˈleɪ.ə.maɪd/ |
| Identifiers | |
| CAS Number | 110-31-6 |
| Beilstein Reference | 1720694 |
| ChEBI | CHEBI:53512 |
| ChEMBL | CHEMBL1597304 |
| ChemSpider | 21415989 |
| DrugBank | DB13863 |
| ECHA InfoCard | 12e35576-e5fe-4eda-aad0-d214b3a0ee7b |
| EC Number | 2624-58-2 |
| Gmelin Reference | 61738 |
| KEGG | C17487 |
| MeSH | D017742 |
| PubChem CID | 82121 |
| RTECS number | RP0175000 |
| UNII | 7QA1OK7S8E |
| UN number | UN3077 |
| Properties | |
| Chemical formula | C38H72N2O2 |
| Molar mass | 620.05 g/mol |
| Appearance | White to off-white powder |
| Odor | Odorless |
| Density | 0.94 g/cm³ |
| Solubility in water | Insoluble in water |
| log P | 13.43 |
| Vapor pressure | Negligible |
| Basicity (pKb) | 11.52 |
| Magnetic susceptibility (χ) | Diamagnetic |
| Refractive index (nD) | 1.4633 |
| Viscosity | <= 20 mPa.s (at 150°C) |
| Dipole moment | 1.07 D |
| Thermochemistry | |
| Std molar entropy (S⦵298) | 519.5 J·mol⁻¹·K⁻¹ |
| Pharmacology | |
| ATC code | '' |
| Hazards | |
| GHS labelling | GHS07, GHS irritant |
| Pictograms | GHS07,GHS08 |
| Signal word | Warning |
| Hazard statements | H319: Causes serious eye irritation. |
| Precautionary statements | Wash thoroughly after handling. Wear protective gloves/protective clothing/eye protection/face protection. |
| Flash point | 279°C |
| Autoignition temperature | 385°C |
| LD50 (median dose) | > 5,000 mg/kg (oral, rat) |
| NIOSH | KJN35 |
| PEL (Permissible) | 10 mg/m3 |
| REL (Recommended) | 100 mg/kg bw |
| Related compounds | |
| Related compounds | Erucamide Oleamide Stearamide Behenamide |
| Product Name & IUPAC Name | Chemical Formula | Synonyms & Trade Names | HS Code & Customs Classification |
|---|---|---|---|
|
Product Name: Ethylene Bis Oleamide IUPAC Name: N,N'-1,2-Ethanediylbis(9-octadecenamide) |
C38H74N2O2 |
EBO Ethylene bis(oleamide) N,N'-Ethylenebis(oleamide) BIS-OLEAMIDE 9-Octadecenamide, N,N'-1,2-ethanediylbis- Slip additive (EBO grade notation may vary by supplier regulatory submission and commercial register) |
HS Code: 2924.19 Customs classification under polyamides and derivatives in various jurisdictions. Actual sub-classification can be grade-dependent and influenced by intended use, declared purity, and customer documentation. |
Manufacturing Ethylene Bis Oleamide begins with careful raw material selection—oleic acid and ethylene diamine are standard inputs, and each batch of these feedstocks must pass initial QC assessment for moisture content, color index, and fatty acid profile. Impurities in either material, especially secondary amides or short-chain fatty acids, affect both conversion efficiency and downstream color stability, so supplier qualification is not just a paperwork exercise. During process route selection, continuous and batch condensation reactions both see industrial application, with batch processing preferred for high-consistency custom grades since temperature profiles and agitation can be more finely adjusted to specification.
Key control points revolve around amide formation purity and removal of unreacted monomers. Excessive ethylene diamine or incomplete conversion shows up in FTIR spectra and manifests as subtle odor or color risks downstream. Special attention is given to the operational window where the twin amide bonds form since off-temperature or contaminated catalysts lead to colored by-products detectable in finished product Haze or APHA assessments. Purification strategies typically include vacuum distillation or solvent recrystallization, with final particulate content and hue grade subject to more stringent criteria for grades destined for food packaging, medical elastomers, or precision film extrusion.
Batch consistency management extends from raw material lot traceability, in-process absorbance monitoring, and end-point amine nitrogen titration to final melt point and residue on ignition analyses—each customer application (polymer compounding, slip agents for film, dispersing additive for masterbatch) demands unique performance verification. Some technical properties remain grade-dependent, such as particle size (critical for film extrusion grades), melting point (tightly specified for high-performance plastics), and solubility parameters (relevant to custom blends). For regional or regulatory exports, slight differences in HS code application and customs paperwork stem from local interpretations of fatty acid derivative categories; we maintain flexibility in product registration and documentation content accordingly.
Handling and storage conditions reflect the product's fatty amide character. For processability, attention focuses on consistency at the handling temperature and contamination with moisture, which can induce caking and reduce dispersibility in downstream blends. Shelf life, impurity profile, and performance within the end application remain highly sensitive to initial raw material integrity and process discipline, rather than external storage climate alone. Internal release standards always reference customer-stipulated parameters, and nonconforming lots are isolated before outbound logistics to ensure both compliance and traceability.
In typical factory output, ethylene bis oleamide appears as an off-white to pale yellow solid, often processed into powder or granular form for easy dosing. The material may retain a mild fatty odor, arising from unreacted starting oleic acid. Melting point values shift according to synthesis route, with multi-batch sampling confirming a range attributable to residual monomers and processing variances. Boiling point is not measurable before decomposition. Handling teams find that density and bulk density are strongly grade- and particle size-dependent; these parameters influence pneumatic conveying, formulation into masterbatches, and silo storage behavior.
This amide demonstrates resilience during standard handling, with minimal reactivity toward neutral or weakly acidic/basic agents at ambient conditions. In-process staff pay close attention to elevated temperatures; discoloration or viscosity changes develop if exposed to strong oxidizing environments or high thermal loads, especially in open systems. Batch deviations here usually prompt a review of purification and drying steps.
Solubility strongly depends on solvent polarity and temperature; ethanol and hydrocarbons dissolve the product on heating, but aqueous solubility remains negligible. For lab preparation and blending, solubilization demands careful adjustment of solvent-to-mass ratios, especially for high-concentration applications. Viscosity of molten solutions increases with impurity or partially crosslinked fractions, so regular melt flow testing tracks these effects.
Specifications are defined by application sector, most commonly including appearance, melting point range, acid value, and ash content. Color indices and bulk density standards reflect end-user compounding systems, with tighter controls for film-grade or food-contact grades. Test frequency and tolerances link directly to customer technical agreements.
Routine quality assessments focus on free fatty acids, monoamide content, and residual reactants. Impurity sources in manufacturing stem mainly from incomplete amidation and secondary side reactions with oxidized feedstock. Purification strategies adjust according to target market regulations; stricter impurity limits are observed for sensitive polymer applications.
Melting point, acid value, and amide purity are typically validated by in-house or regional standard methods such as capillary melting, potentiometric titration, and FTIR or TLC. End-use and contract-driven demands may request tailored analytic procedures. The ultimate batch release standard integrates both internal criteria and customer acceptance samples.
Oleic acid and ethylenediamine form the standard manufacturing base. Teams emphasize the traceability and acid value of oleic acid, as oxidized or high-FFA batches introduce color and stability problems downstream. Sourcing strategies adjust for price volatility, geographic availability, and regulatory certification.
Industrial synthesis proceeds via direct amidation, driving the reaction between excess oleic acid and ethylenediamine under inert or nitrogen-blanketed conditions. Operators maintain precise temperature and water removal controls to suppress side reactions. Any deviation here introduces colored by-products and lower yields.
Continuous monitoring of acid value, color, and conversion rates provides immediate process feedback. Distillation or vacuum drying removes unreacted acids and volatile impurities. Downstream filtration and crystallization refine the crude product, reducing contamination by crosslinked or oligomeric species. In-process controls capture batch-to-batch drift, especially during scale-up or raw material switchovers.
Every batch undergoes physical appearance and purity screening before final packaging. Selected lots may undergo accelerated aging and rheological testing to identify potential stability hazards. Documentation aligns with both internal and contractual release protocols. Final product acceptance depends on customer-specific and regulatory requirements.
On-site teams routinely investigate reactivity toward further functionalization—amidation, oxidation, and blending with other slip agents remain most relevant. Heat and the presence of residual acidic impurities can catalyze hydrolysis or partial oxidation.
Process modifications often require catalyst selection and solvent adjustment to achieve consistent results, especially under pilot or developmental campaigns. Elevated temperatures accelerate amidation but may degrade product quality if not tightly controlled.
Finished output frequently serves as a slip or mold release additive in polyolefin films and technical plastics. Teams have documented successful incorporation in compounded masterbatches and surface-modified dispersions. Downstream users often develop custom performance blends with waxes or secondary amides, leveraging the parent compound’s compatibility and melt behavior.
Warehousing managers select cool, dry, and well-ventilated storage for maximum shelf life. Bulk and bagged stocks call for protection from direct sunlight and high humidity, which introduce lumping, caking, or discoloration. Nitrogen blanket shipping applies to high-purity grades destined for sensitive compounding lines.
Most operational teams deploy HDPE or lined steel drums due to oleamide’s minimal reactivity toward common plastics and coated metals. Long-term compatibility tests confirm no adverse leaching or physical instability when kept within warehouse conditions.
Degradation typically emerges as color change, odor development, and alteration of melting point parameters. Tracking shelf life strictly follows customer and grade-specific requirements, with periodic sampling recommended for long-term inventory.
Current internal reviews apply consistent GHS classification across standard grades subject to updates as regulatory guidance evolves. Teams update hazard statements in alignment with raw material suppliers and third-party audits.
Production and packaging floors rely on established industrial hygiene: gloves, goggles, and dust extraction mitigate exposure risks. Dust inhalation and ingestion present greater hazards in micro-fine grades, leading to tighter particulate control.
Toxicological review indicates low acute toxicity, with skin and eye irritation possible in unprotected contact. Teams rely on supplier-provided toxicology assessments and continuously review literature updates to align with changing safety standards.
No universal occupational exposure limits apply to bulk handling of ethylene bis oleamide. Operational guidelines align with internal risk assessments and national chemical safety frameworks. Training focuses on respiratory protection in high-concentration areas and prompt first-aid response to accidental eye or skin contact.
Our ethylene bis oleamide production lines operate with flexibility, scaling output based on both regular and peak customer demand cycles. The typical production output varies year-to-year depending on available feedstock and grade mix requested. Availability always ties directly to raw oleic acid and ethylene diamine sourcing schedules, where upstream market shifts or shipping delays can immediately impact lead times for all downstream orders.
Typical lead times range according to batch scheduling, OEM approval cycle, and custom packaging requirements. For standard grades, orders that fit into existing campaign lots ship fastest. Minimum order quantity always depends on process batch size and packaging compatibility; specialty or high-purity selections may have higher MOQ thresholds set by batch segregation and cross-contamination risk management.
Available packaging solutions cover fiber drums, PE-lined bags, large bulk sacks, and custom intermediate bulk containers for downstream compounding integration. Bulk trucks or containerized shipments serve large-volume, single-grade customers. Specific packaging requests, including food-grade or antistatic liners, require consultation with production control due to upstream packaging compliance risks (migration, compatibility, trace residue).
Domestic shipments are dispatched from the closest qualified warehouse. Export orders ship on FOB, CIF, or DDP terms upon credit clearance and regulatory documentation check. Payment terms for regular customers are extended based on purchase volume, on-time payment history, and downstream risk exposure. Shipments subject to export restrictions or embargo zones always require advance regulatory clearance.
Cost structure for ethylene bis oleamide closely tracks upstream petrochemical market dynamics, especially oleic acid and ethylene diamine spot prices. Sharp volatility in feedstock supply elevates input costs and may trigger immediate price change notifications. As a producer, decisions about process route and feedstock substitution—tallow-derived vs. plant-based oleic acid, for example—directly affect batch pricing and margin. Energy, utilities, and purification consumables further drive batch cost variability, particularly for high-purity or regulatory-sensitive grades.
Product price varies most strongly by regulated grade (industrial vs. food contact vs. pharmaceutical), guaranteed purity, and specific packaging certification requirements. Batch segregation for high-purity or regulatory-sensitive applications incurs additional QA/QC and process validation costs. Detailed certification (US FDA, EU REACH, JIS) brings compliance audit and documentation overhead, reflected in the premium. Logistics surcharges apply to custom-certified, non-standard-sized packaging runs.
Output in Asia remains dominant, especially with several large-scale installations in China and India running year-round to serve both domestic and export requirements. North America and EU mostly rely on regional refinement capacity for high-purity applications, importing base stock for technical or specialty use. Inventory absorption in downstream sectors, especially masterbatch and engineering polymers, drives seasonal demand spikes or slowdowns.
United States: Purchases skew toward technical and food-contact grades; batch sourcing sometimes constrained by regulatory approval cycles and domestic certification protocols. EU: Demand tied tightly to downstream legislative harmonization (REACH) and consumer regulations driving higher grade segregation. Japan: High demands on purity, documentation, and batch traceability command price premiums. India & China: Largest volume buyers, focus on cost-effective standard grades for plastics and textiles, but increasingly spec'ing elevated grades for food and medical use as local regulations tighten.
Industry consensus points to continued feedstock-driven price movement through 2026. Nearby-term volatility from geopolitical supply constraints, transportation bottlenecks, and regulatory upgrade cycles (food and pharma, especially) may trigger localized surges. Longer-term, process intensification and raw material substitution are expected to stabilize margins as more producers diversify sourcing, but batch-segregated grades will continue to command a markup tied to compliance complexity. Market reporting and methodology rely on raw material indices, confirmed transaction data, and peer benchmarking; no universal spot price exists due to batch and region-specific pricing.
Feedstock price instability due to global logistical disruptions and shifting petrochemical supply priorities remains the most significant producer-side challenge. Consolidation among raw material providers mid-2020s contributed to both bulk-price stabilization and periodic regional supply shocks. Several regulatory changes on food- and pharma-grade applications in Asia and the EU continue to affect sourcing, batch composition, and overhead compliance cost.
Recent tightening around European and North American food-contact and pharmaceutical regulations mandated additional process documentation and product segregation. New disclosure requirements impact release documentation for both domestic and export shipments. We maintain an internal regulatory compliance review cycle to anticipate and adapt to these evolving standards, particularly concerning batch traceability and risk mitigation audits.
Quality assurance teams expanded real-time supplier qualification and implemented secondary sourcing strategies to counteract raw material bottlenecks. Batch management and QA/QC oversight intensified for regulated grades, with enhanced tracing and compliance reporting. Ongoing investment into packaging flexibility and supply chain robustness continues to drive process adaptation, enabling better resilience against global logistics disruptions and regulatory shifts.
Ethylene Bis Oleamide extends performance in industries requiring slip, anti-block, and lubricity in polymer processing, rubber compounding, and surface coatings. Polyolefin film producers, wire and cable manufacturers, masterbatch compounders, and rubber part formulators each depend on different performance attributes tied to operating conditions and downstream requirements.
Polyolefin film plants use Ethylene Bis Oleamide for its ability to lower friction during extrusion and handling. Wire and cable extruders select it for surface smoothness and process stability. Rubber goods manufacturers require grades that deliver consistent mold release without residue. Surface coatings developers leverage its slip-enhancing effect and compatibility with both solvent- and water-based systems.
| Industry Segment | Target Application | Typical Grade Feature | Critical Parameter |
|---|---|---|---|
| Polyolefin Films | Slip additive, anti-block agent | Low-ash, high-purity | Particle size, trace ash content |
| Wire & Cable | Extrusion lubricant, surface finish | Fine-particle, thermally stable | Thermal stability, fusion characteristics |
| Rubber Compounds | Mold release, process aid | Controlled melting point, low-odor | Odor profile, melting behavior |
| Surface Coatings | Slip modifier, scratch resistance | Ultra-fine, dispersible | Dispersibility, active content |
| Masterbatch Production | Carrier additive, compounding aid | Consistent batch-to-batch purity | Uniform distribution, carrier compatibility |
Selection relies on matching grade-specific parameters with end-use processing. Polyolefin films demand grades with controlled particle size and minimized inorganic content to avoid film haze or die build-up. Wire and cable grades must retain thermal stability under sustained high-throughput processing. Rubber applications may tolerate a wider melting point range but require freedom from carrier odor and compatibility with curatives. Surface coatings benefit from grades with minimal agglomeration and enhanced dispersion rates.
Industrial production tracks batch purity, physical form (powder, pellet, flake), softening point, and residue profile. These characteristics depend on both feedstock purity and synthesis route. Granule size, bulk density, and pourability are determined at the final handling portal and influence downstream metering and blending.
Clarify the end use—identify whether the requirement is high-speed film extrusion, rubber molding, or performance coatings. The technical specification from the end product team, such as needed slip improvement or mold release efficacy, informs priority property selection.
Ascertain if food contact, medical, or regional compliance standards apply. Grades certified for FDA, EU food packaging, or similar use often pass through separate isolation and documentation protocols. Where no food contact is required, grades without these certifications may provide cost or supply advantages.
Purity concerns include trace residuals, volatile impurities, and ash content. Polyolefin and medical grades depend on superior feedstock and closed-process synthesis, monitored by in-process control and validated against end-use migration testing. For non-critical industrial use, technical grade may suffice where broad property targets, rather than extreme purity, drive selection.
High-volume converters typically source in bulk, which demands stable supply and batch consistency. Lower annual consumption or custom product runs may justify selection of special grades, provided they align with overall budgeting. Volume scale also influences packaging choices and shipment configuration.
Application trials remain essential. Actual processing performance can diverge from technical literature due to regional resin characteristics, climatic factors, or line configuration. Internal QC benchmarks, including melt flow analysis, residue measurement, and application-specific test runs, should be used to confirm grade suitability before full adoption.
Grade selection begins with raw material traceability, as incoming feedstock variation impacts finished product quality. Route selection—direct amidation vs. solvent or catalyst mediated—affects impurity profile and batch yield. Key control points include temperature profile uniformity, exclusion of side-reaction byproducts, and multi-step washing to reduce entrained contaminants.
Batch consistency receives the highest scrutiny. Instruments at in-process checkpoints monitor melting behavior, particle shape, and loss on drying. Final release batches undergo active content verification and appearance grading. Any deviations from specification are flagged for review, and only product meeting internal and customer-agreed criteria is cleared for shipment.
Every production campaign relies on a robust quality management system. Certification under ISO 9001 aligns the team with international process standards for document control, corrective action and traceability. Audits review raw material traceability, in-process inspection records, batch production logs, and product release sheets. Certification status reflects not just external approval, but ongoing attention to nonconformity prevention and continuous workflow improvement within the plant.
Certifications, such as food-contact or REACH registration, depend on raw material purity, cleaning regimen, and specific customer end-use. For plastic or packaging use, compliance documentation addresses heavy metal content, phthalate absence, and migration limitations, usually confirmed through third-party laboratory testing. For textiles or lubricants, response to specific regulatory requests requires tailored batch analysis and confirmation of relevant global or regional standards. Some certificates are batch-based, reflecting the actual processing history of that campaign, rather than one-off declarations.
The technical department generates product COAs, batch traceability reports, impurity profiles, and process deviation investigations. Final release is based on customer-required tests—including melting point, amide content, appearance, and residue levels—each monitored batch-wise. Grade-specific documents vary: food and pharma grades include supplementary purity certification and allergen controls, while industrial grades focus on rheology, particle size, and downstream blending compatibility. Retained samples support dispute resolution, re-testing, and continual improvement tracking.
Ethylene Bis Oleamide production relies on secure raw material agreements, in-tank blending homogeneity, and systematic production scheduling. In practice, customers seeking long-term stability benefit from production slot allocation agreements, which guarantee output timelines based on realistic plant capabilities. Flexible order volumes can be supported by modular reactor design or excess intermediate capacity, so batch sizes and delivery can reflect real monthly demand swings.
Core capacity reflects both line throughput and maintenance scheduling. Every product campaign reviews reactor cleaning, turnaround logistics, and raw material ordering cycles to avoid unplanned interruptions. Stable supply is maintained by managing critical raw input stocks with multi-source validation, preventing production halts due to upstream volatility. Shipment volumes and dispatch routines adapt to customer consignment models, with buffer warehousing available for key regions.
Sample requests route through technical support for clarification of end-use, purity, and processing expectations. Each sample comes from representative production batches, with full batch traceability and associated documentation. Discussion with technical staff is available during early compounding or reformulation trials to address unique compatibility, solubility, or dispersibility needs as they arise in real use. Scale-up to bulk supply is managed with side-by-side production runs to validate consistency between sample and mainline material.
Flexible models include spot purchases, annual supply contracts, volume-adjusted pricing, tolling arrangements, and third-party warehousing partnerships. The foundation of each model lies in transparency over inventory levels, batch allocation protocols, and forecast sharing, supported by regular customer-manufacturer meetings. Rapid response to market or logistical changes comes from predefined escalation routines and documented supply continuity protocols. For new customers, phased ramp-up deliveries enable process verification and minimize downstream integration risk before full commitment.
Most inquiry into Ethylene Bis Oleamide (EBO) revolves around improving dispersion in filled and pigmented polymers, particularly in polyolefin, engineering plastics, and elastomer systems. Researchers focus on custom modifications to EBO’s molecular weight and purity to manage lubricity, migration, and compatibility in formulations. Demand comes mainly from manufacturers with high-output extrusion and molding lines who need effective slip/lubricant performance at low additive loading.
In production, process engineers monitor reaction temperature, catalyst concentration, and feedstock purity. Raw material quality—including amine and fatty acid sources—directly impacts baseline color and downstream performance. On-site tests often revolve around pellet color, bulk density, and particle size distribution, since these properties affect ease of handling and blend consistency.
Segments showing an uptick in technical requests: masterbatch producers, compounders in wire & cable, and elastomer processors. Compounders aim to maximize processing throughput and reduce die build-up, particularly in applications sensitive to pigment migration and cleanliness, such as food contact films or medical device housings. Textile, fiber, and specialty coating markets explore EBO grades for anti-block and anti-static performance, but demand depends on consistent physical form and lot-to-lot reproducibility.
Every application brings distinct requirements: antistatic needs differ from slip, while anti-blocking calls for exact particle morphology and low migration rates—critical for multi-layer films or medical packaging. Our technical team tracks these changes, aligning R&D direction with customer-driven performance gaps.
Technical barriers for EBO can include yellowing, plate-out during high-temperature processing, and batch color variability. For polyolefin film customers, plate-out on rolls and dies can halt production, so purity and the correct melting range are essential. Advances in purification—including double-stage crystallization and in-line filtration—have cut residual contaminants and provided grades tailored for high-clarity films and bright pigmented masterbatches.
Particle sizing and uniformity remain key QC points. Granular and powder forms perform differently in high-speed compounding; oversized or irregular batches create problems in gravimetric dosing and homogenization. Grade choice also hinges on downstream equipment—high-precision extruders tolerate narrower property windows than general-purpose batch mixers. Technical services offer process adaptation guidelines to minimize formulation drift and maximize additive return.
Across Asia-Pacific and North America, demand for EBO trends upward, tracked by growth in compounding, masterbatch, and film industries. Drivers include increased output for consumer and industrial films, pressure to reduce processing costs, and stricter end-user color and migration standards. Regulatory shifts in food packaging, personal care, and medical device plastics require ongoing adjustments in additive purity and compliance, while economic factors tied to feedstock sourcing and logistics influence pricing and margin outlook.
Bulk customers request product traceability and supply chain stability, prompting us to reinforce raw material vetting and batch certification. Regional differences—particularly environmental and customs requirements—shape which grades prove suitable and competitive.
Future process upgrades center on closed-loop purification, waste reduction, and automation of in-line QC. Integration of real-time NIR and particle-size analysis at discharge helps maintain tighter batch controls and faster feedback for both standard and custom specs. Customers seeking higher transparency and predictable behavior ask for digital certificates of analysis and chain-of-custody documentation, driving deeper collaboration with digital manufacturing platforms.
Sustainability receives growing scrutiny. Customers seek palm-free, non-GMO, and renewably sourced fatty acid routes. Biobased oleamide supply faces variability in cost, but interest aligns with EHS guidelines in packaging, automotive interiors, and medical applications. Internal projects invest in solvent reduction and low-emission process routes. Recyclability in downstream applications depends not only on EBO’s decomposition profile but also on additive migration and compatibility with reclaim streams; technical input centers on managing potential residual effects in closed-loop systems.
Production and QC teams regularly support polymer processors with guidance on grade matching, dosing, and troubleshooting formulation anomalies. We review customer compounding routes, equipment constraints, and product compliance needs. Whenever a processor reports excessive die build-up or color drift, we analyze their process setup, testing sample retains and production conditions. We help select base grade, particle size, and form in light of actual plant setup—extrusion, calendering, or injection molding.
Customers often require tailored dosing, pre-blend advice, and migration or extraction data specific to their formulation. We maintain pilot-scale compounding and film blowing lines to simulate end-use processing and provide empirical feedback on additive behavior, haze, and slip performance under real conditions. Support extends to optimizing blending order, melt temperature, and post-addition steps to prevent negative interactions with other additives, pigments, or process aids.
Post-delivery, we track product consistency through joint data review, feedback sessions, and by conducting root cause investigations for any reported incompatibility. Field teams coordinate with QA specialists to provide updated COAs, batch retain samples, and lot history upon request. Product release always matches internal QC protocols, and any process modification triggers a recalibration cycle with downstream customers. Key metrics for after-sales reliability include transaction traceability, non-conformance response time, and lot reproducibility. Our commitment to transparent correction and technical support underpins our supply cycle, ensuring robust performance even as product requirements evolve.
As a chemical manufacturer with continuous output of ethylene bis oleamide, we take direct responsibility for every aspect of production. Each batch runs under established process protocols—raw material input, temperature control, filtration, and purification. Our operations use process control equipment to balance consistency and minimize off-spec quantities. Routine in-process checks combined with final inspection by our technical lab ensure every shipment matches declared properties. Over the years, production data and regular customer audits have helped us identify and eliminate efficiency gaps. We don’t outsource these essentials, which secures transparency in composition and performance.
Industrial users depend on ethylene bis oleamide for its function as a slip agent and lubricant in polyolefin film processing. Producers in plastics extrusion, wire and cable compounding, injection molding, and film fabrication rely on the product to lower friction and improve surface finish. Consistent particle dispersion and melt behavior result in smooth downstream processing for critical manufacturing environments. In the rubber sector, addition of ethylene bis oleamide improves release and handling properties. Several coatings and ink producers have standard formulations that specify direct inclusion of our product to upgrade processability and reduce mechanical wear.
Our standard bulk packaging includes multi-layer bags and heavy-duty drums, sealed at source, with traceable package lot numbers. We supervise loading, stacking, and dispatch from our facilities to retain chain-of-custody for every pallet. Large-scale buyers often need synchronized delivery schedules or just-in-time replenishment—we assign dedicated logistics coordinators to oversee high-volume orders and resolve transport barriers quickly. Seasonal demand spikes or unforeseen production interruptions have not forced interruptions, because we maintain safety inventories and buffer stocks at multiple sites.
We provide technical documentation and direct engineering feedback for plant engineers and technical teams. Site-specific adjustment guidance—such as masterbatch dosing, melt index adjustment, or compatibility with polymer matrices—comes from firsthand feedback and application trials. Our applications lab operates pilot lines to test compounds on behalf of customers using their own resins and processing speeds. Plant visits and remote troubleshooting support are routine, so technical users engage with us not only as a supplier but as a knowledge contributor.
Long-term consistency in supply and technical insight translates into process stability for manufacturing groups, procurement divisions, and distribution companies. Strategic buyers use our process transparency and shipment track records to minimize risk and secure cost controls. After multi-year supply agreements, some partners now bind quarterly or annual tonnage with us because variation in processing is tightly managed at the factory source. Our system for handling recurring and spot orders supports both regional plants with tight inventory models and global distributors focused on supply chain reliability.
| Aspect | How We Deliver Value |
|---|---|
| Product Consistency | Direct factory quality checks and stable process conditions |
| Packing | Bag, drum, and bulk packaging supervised by in-house teams |
| Supply Reliability | Buffer stocks, scheduled dispatch, inventory coordination |
| Technical Support | Application testing, process advice, plant-specific feedback |
| Industrial Partnership | Multi-year purchase plans, process integration assistance |
Market requirements shift as new polymer grades, automation systems, and customer regulations emerge. We adapt production parameters and packing configurations as industrial users move into new sectors or introduce automated feeding lines. Our perennial focus remains on process control and technical clarity—manufacturers help define specifications for critical grades and rely on us to implement them at source. Direct experience with application lines, not just lab samples, enables practical technical recommendations.
Our experience as a manufacturer of ethylene bis oleamide spans decades of continuous production, serving major processors in plastics, rubber, and engineering materials. Plants running compounding or extrusion lines often set requirements that stretch most additives. Ethylene bis oleamide holds up well under temperatures that push 180°C, a range seen in polyolefin compounding, thermoplastic elastomers, and powder metallurgy binder systems. We expose every batch to temperatures exceeding normal service conditions during QC to ensure the integrity and stability are consistent before shipment.
Products with poor thermal stability lead to costly unplanned shutdowns and filter blockages. Our production lines see ethylene bis oleamide perform reliably during high-shear processing and repeated thermal cycling. Over years of extrusion trials and customer collaborations, this amide compound shows minimal discoloration and keeps its physical structure intact, helping minimize volatility or fume evolution. Melt viscosity and color stability behave predictably, even after multiple passes through the extruder barrel or compression mold. Thermal gravimetric analysis in our own labs confirms that volatilization and mass loss remain far lower than many other amide lubricants at processing temperatures, translating to long service life in finished goods.
Chemical resistance factors into almost every conversation we have with clients making automotive interior parts, cable jackets, or engineered films—anywhere exposure to aggressive chemicals, oils, or surfactants is part of daily function. Ethylene bis oleamide provides significant protection against hydrolysis under normal operating conditions. We measure residual amide content after extended exposure to acids and bases typical of cleaning cycles or end-use environments, and results show decomposition rates that outperform conventional fatty acid amides or wax wax blends.
Even a robust additive faces limits at extreme process conditions. In some applications where sustained exposure above 200°C is inevitable, trace breakdown products can emerge. Our technical team monitors every lot for changes in amide purity, and we run accelerated aging studies using field-representative temperatures and cyclical stress. Adjusting compounding parameters, such as gradual ramp-up of supply lines and dedicated feeders, helps throttle local hot spots that sometimes catalyze degradation. We share real bond line and filler migration data with clients, who tell us this hands-on support minimizes costly downtime.
Feedback loops from factory floors back to our R&D center close gaps quickly. Real-world failures often stem from poor raw material purity or contamination, so our focus remains on tight process control throughout the purification and pelletizing steps. Cross-checking every batch for ash content, free acid, and particle distribution lessens the risk of unexpected instability, providing converters and compounders with confidence in uninterrupted production.
Ethylene bis oleamide anchors itself in many formulations due to its balance of heat and chemical resistance, combined with its ease of integration into automated processes. We back every shipment with comprehensive technical documentation and ongoing field support, ensuring each processor extracts maximum value from consistent performance—no matter where or how the application pushes the limits.
Ethylene bis oleamide plays a critical role in plastics, rubber, and masterbatch production across a diverse range of industries. With decades of experience in large-scale chemical manufacturing, we understand the challenges companies often face securing industrial quantities of specialty slip agents and internal lubricants. We address these concerns by maintaining robust production infrastructure and a proactive stock policy for this product.
We manufacture ethylene bis oleamide via a continuous process, using high-quality raw oleic acid and ethylene diamine under strictly controlled conditions. Our plant is equipped for both tonnage-scale and campaign-based runs. We maintain several hundreds of tons of storage and on-site blending capabilities to meet long-term blanket orders, as well as just-in-time procurement models demanded by high-throughput converters and compounders.
Most customers we serve require bulk packaging — in 20 kg bags, 500 kg super sacks, or palletized drums. Orders for single containers, multi-pallet deliveries, or full truckloads ship from inventory on a rolling basis. We place a strong emphasis on rigorous lot traceability and full batch sampling for every production campaign to ensure downstream consistency in critical manufacturing operations. Our technical team provides data and samples to support process optimization and qualification runs if needed for scaling up new formulations.
We offer lead times that reflect both consistent demand and sudden upticks. For standard grades and regular customers, we ship in-stock product within 5–7 business days from order confirmation. In the event of surge demand, we ramp up output and prioritize production schedules to minimize waiting periods. Most repeat orders deliver within two weeks across core production grades. For unique modifications or rare packaging formats, we provide realistic timelines upfront, sharing weekly scheduling updates during production.
Global logistics has faced increased volatility in recent years due to freight bottlenecks and raw material fluctuations. We buffer these risks by strategic raw material sourcing, redundant plant utilities, and direct collaboration with major forwarders. Domestic deliveries remain stable, while our export team routinely handles containerized orders and all necessary compliance documentation for hazardous or non-hazardous shipment classes. Our established logistics network helps minimize transit disruptions and supports customers planning for inventory optimization and lean manufacturing.
Investment in capacity only makes sense when paired with operational transparency and honest communication. Longstanding clients rely on our open order tracking, batch reservation, and regular forecasting meetings to ensure their lines never run dry. Our process includes direct access to our production planners and technical advisors. This human-to-human approach has allowed us to deliver consistent service through volatile periods and foster long-term procurement partnerships based on mutual trust and performance.
The success of our customers’ manufacturing operations depends on a steady and reliable flow of key additives like ethylene bis oleamide. Our vertical integration reduces external risks and positions us to provide industrial users with the assurance they need when planning campaigns or ramping up new lines. If forecasts point to exceptional demand, we adjust procurement, scheduling, and plant utilization accordingly, rather than overpromising or pushing risk back down the supply chain. This is the practical benefit of working factory-direct with a committed producer.
Shipping Ethylene Bis Oleamide across borders challenges us to marry rigorous safety with international standards and reliability. Each shipment we dispatch upholds the expectations of polymer producers, masterbatch originators, and compounders who demand consistency in both quality and compliance.
Our packaging reflects the needs of daily industrial environments. We use heavy-duty, multi-layered bags, usually crafted from polyethylene-lined paper or woven polypropylene. For bulk orders, we rely on 500kg or 1000kg FIBC (Flexible Intermediate Bulk Containers) big bags with sealed inside liners. These materials resist tearing, puncture, and moisture intrusion during transit through ports, customs, and distribution centers around the globe. Smaller shipments typically leave our plant in 25kg bags, heat-sealed for tamper evidence. All packages carry clearly printed product identification, net weight, batch number, and hazard information as set out by international shipping and storage regulations.
International chemical shipping puts pressure on us to understand and satisfy diverse regulations. Ethylene Bis Oleamide, sometimes referenced under HS code 2924, is not classed as a dangerous good under UN’s dangerous goods transport framework. Still, our exported material follows strict requirements covering labeling, documentation, and traceability. Every lot meets standards required by REACH in the European Union and TSCA for the United States. In Asia and other markets, we review import country obligations on a rolling basis—including any registration or notification requirements—so clients receive compliant product with shipment-ready documentation.
Our documentation team provides customers with up-to-date Safety Data Sheets (SDS) according to GHS globally harmonized system, including chemical identity, precautionary measures, and instructions in several languages. We also issue commercial invoices, detailed packing lists, and certificates of analysis to facilitate customs clearance and downstream traceability.
Direct manufacturing gives us control over both formulation and packaging. We monitor every batch in real time to ensure each bag carries the same stable appearance and purity, regardless of where it lands. No re-bagging or re-labeling by intermediaries. This minimizes the risk of contamination and mislabeling, which are still common concerns in bulk chemicals. By keeping packaging and labeling standards updated, we help our partners in automotive, wire and cable, and plastic film sectors avoid unexpected customs stoppages or shipping delays caused by non-compliance or missing paperwork.
Regulatory frameworks change frequently and not always with much advance warning. Our regulatory team works directly with logistics partners, port authorities, and destination agents worldwide to maintain an up-to-date compliance protocol for our shipments. If a market introduces a new packaging requirement or a documentation rule, we revise our process and train our staff on the changes. We provide our commercial customers with copies of all regulatory registrations, and on request, we assist in compiling any new forms or transport codes needed in target markets.
As the manufacturer, we take direct responsibility for compliance, documentation, and the physical safety of every shipment. Our technical and logistics teams stand behind every tonne dispatched, prepared to update procedures or provide further clarification as regulatory norms evolve across the global chemical landscape.
For product inquiries, sample requests, quotations or after-sales support, please feel free to contact me directly via sales3@ascent-chem.com, +8615365186327 or WhatsApp: +8615365186327
