| HS Code | 301664 |
| Cas Number | 51568-18-4 |
| Molecular Formula | C18H36O2 |
| Molar Mass | 284.48 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 355°C (estimated) |
| Density | 0.87 g/cm³ (at 20°C) |
| Solubility In Water | Insoluble |
| Flash Point | 166°C |
| Refractive Index | 1.436 (at 20°C) |
| Odor | Faint, fatty odor |
As an accredited Lauric Acid Hexyl Ester factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Lauric Acid Hexyl Ester is packaged in a 500 mL amber glass bottle with a secure screw cap to ensure product stability. |
| Shipping | Lauric Acid Hexyl Ester should be shipped in tightly sealed containers, protected from moisture, heat, and direct sunlight. Transport in accordance with applicable regulations for non-hazardous chemicals. Use appropriate labeling and documentation. Store and transport in a cool, dry, and well-ventilated area away from incompatible substances and ignition sources. |
| Storage | Lauric Acid Hexyl Ester should be stored in a tightly sealed container in a cool, dry, and well-ventilated area, away from sources of heat, ignition, and direct sunlight. Keep it separate from strong oxidizing agents and acids. Ensure proper labeling and avoid moisture ingress. Store at ambient temperature and protect from physical damage to maintain product stability. |
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Anyone who works day in and day out with fatty acid esters knows that the right choice can make or break a formulation. Lauric Acid Hexyl Ester has a place of its own on our production lines and lab benches. Not only does it combine the lauric acid backbone with a six-carbon hexyl group, but in practice, this subtle molecular tweak unlocks a bundle of performance features that show up reliably in repeated batch runs and product testing.
Years spent refining our processes have illustrated how Lauric Acid Hexyl Ester—listed under the common name Lauric Acid Hexyl Ester, sometimes referenced with the CAS number 22393-85-7 and chemical structure C18H36O2—delivers results for manufacturers looking to balance lubricity, solvency, and compatibility. Our standard product reaches a minimum assay of 98% by gas chromatography, with residual acidity controlled below 0.1% to minimize unintended reactivity in sensitive systems. A colorless to pale yellow liquid, it brings stability through a boiling point above 320°C and a flash point well above everyday risks, making handling more straightforward on the production floor.
As a direct producer, the connections between molecular architecture and final performance aren’t abstract. With Lauric Acid Hexyl Ester, colleagues in formulations report that its combination of mid-chain ester structure and lauric fatty acid modulates properties like viscosity and spreadability. We’ve watched this ester carve a spot for itself especially in personal care, where it serves as an emollient and texture-enhancer. The silky, non-greasy feel offers a tactile upgrade compared to heavier triglycerides or simple fatty acids.
In the lab, this product demonstrates superior solvency for oil-soluble actives compared to shorter-chain esters. We have noticed fewer formulation headaches with pigment wetting and fragrance solubilization, particularly in cosmetic creams and lotions. Its light sensory profile gives end products consistent luxury without drag or tackiness. This level of control translates to fewer formulation adjustments down the pipeline.
Producers of industrial lubricants and plasticizers have also noted that Lauric Acid Hexyl Ester imparts exceptional slip while resisting oxidative breakdown under stress. As a mid-volatility ester, it fits well where low migration and plastic compatibility count, especially in PVC or polyolefin masterbatches. The same property avoids fogging and migration issues associated with shorter esters—a concern that can land otherwise promising formulations in the reject pile during pilot testing.
Lauric Acid Hexyl Ester stands apart from similar esters through performance that can be traced directly to its molecular length and branching. Shorter alkyl esters—like Lauric Acid Methyl Ester or Ethyl Ester—excel at rapid evaporation and light solubility work, but their volatility can translate to off-odors or unacceptable migration in plasticizer applications. There’s less staying power in heavy-duty lubricants using these lighter esters, especially under higher temperatures.
Extend the alkyl group past the hexyl range, and you land on Lauric Acid Octyl or Decyl Esters, which start to feel greasy in topical use and waxy in extrusion. We’ve trialed these and found that, while they offer good lubricity, their higher molecular weight can slow absorption and complicate cleaning. Our production experience shows that Lauric Acid Hexyl Ester threads a balance—delivering enough chain length for stability, without tipping over into excess residue.
More traditional lubricants, like mineral oils or triglyceride-based options, bring bulk but also weigh down processes with higher viscosity, slower wet-out, and occasionally, surplus by-products that demand additional purification steps. Lauric Acid Hexyl Ester sidesteps these hurdles because its synthetic base allows for tight quality controls and minimal batch variation, which ultimately simplifies downstream QA and reduces production line downtime.
Quality control has forced us to look closely at every ester we produce. Lauric Acid Hexyl Ester repeatedly demonstrates strong resistance to hydrolysis—so it maintains its structure in aqueous blends, outperforming many other mid-chain esters when salt or surfactant loads run high. For cosmetic manufacturers, this means a longer shelf life once the product leaves the factory. In plastics, the same resilience creates consistent performance during thermal cycling.
On the safety side, Lauric Acid Hexyl Ester aligns with modern regulatory frameworks concerning non-irritancy and inertness in food contact plastics, provided proper purification and documentation are maintained at production. Our data sheets substantiate low acute toxicity by oral and dermal routes, which has shown up in repeated panel testing and third-party safety assessments. Compared to aromatic or shorter-chain esters, the risk of unexpected reactivity or off-odor development comes out as significantly lower in all our plant experience.
We also put a lot of stock in biodegradability. This ester, derived from plant-based fatty acids and bio-sourced hexyl alcohol, degrades rapidly under both aerobic and anaerobic conditions, leaving fewer persistent organic pollutants. Industrial users looking to tighten environmental compliance appreciate this advantage, especially in European or North American markets.
Lab instruments track viscosity, volatility, and compatibility, but feedback from our partners in R&D and production lines circled back to handling improvements. Lauric Acid Hexyl Ester pours consistently, resists gelling, and mixes smoothly into both oil and emulsion systems. Processing losses run notably lower than with some heavier esters, which means less waste during batch scale-up. Clean-up rates after production cycles also decrease—a perk our maintenance teams always notice.
From batch blending in personal care to dosing in plastic compounding, this ester’s relatively low pour point and moderate viscosity remove a lot of process headaches. Less heat is necessary to keep the material flowable, translating into measurable energy savings across continuous runs. Plants looking for solvent reduction in fragrance and flavor formulations gravitate toward this ester, since its solvency profile matches well with a range of actives, yet doesn’t pose exposure hazards associated with aromatic solvents or low-flash-point alternatives.
Over several years, we have watched Lauric Acid Hexyl Ester become a staple among personal care formulators. Developers often reach out after trialing generic emollients, expressing frustration with either greasiness, rapid evaporation, or instability. In follow-up collaborations, substituting Lauric Acid Hexyl Ester managed to deliver a lighter skin feel and more stable emulsion viscosity without altering fragrance or color compatibility.
Consumer panel data sent to us from partner labs consistently highlights the sensory difference: creams prepared with this ester absorb faster, leave no sticky residue, and carry active ingredients effectively. Where silicone-based alternatives sometimes raise sustainability or allergenicity worries, Lauric Acid Hexyl Ester keeps labels clean and compatibility issues rare.
In color cosmetics, the ester assists in better pigment dispersion, helping to avoid clumping or streaking—a frequent stumbling block in eyeshadows and foundation bases. Stability testing across accelerated aging protocols showed less phase separation, aligning with end-user demands for long shelf life and stable texture.
Our industrial partners value reliable additives that meet their performance targets. Lauric Acid Hexyl Ester finds a receptive audience in manufacturers aiming for cable lubricants, paper processing agents, and as an internal and external plasticizer in semi-rigid polymers. Production engineers noted a direct correlation between the ester content and reduced torque required in extruder operations—saving on both machine wear and energy draw.
Compared to traditional phthalate plasticizers or mineral oils, Lauric Acid Hexyl Ester introduced lower migration into finished goods, offsetting concerns over fogging in automotive interiors or food packaging. Operators reported less deposit buildup on machinery, smoothing both start-up and shut-down cycles. Field reports indicated no unexpected polymer discoloration, a key marker for suitability in translucent or clear product lines.
Safety data supplied to regulatory customers underscores the absence of hazardous decomposition products under standard production and curing conditions, contrasting with several aromatic or branched alternatives that regularly trigger scrutiny under European REACH protocols.
Producers who live in the world of continuous process improvement rely on products that respond predictably to pressure, temperature, and feedstock variation. Lauric Acid Hexyl Ester wins on all three counts. Its synthesis via direct esterification streamlines downstream purification, yielding batches with low residual catalyst and few by-products. The result? Less time spent on column separation and fewer waste management headaches from off-spec or contaminated product.
Batch production flexibility stands high for our customers, who scale from pilot plant runs to kiloton quantities without the loss of product quality. Having a defined and stable molecular profile helps standardize quality control parameters, so each incoming shipment meets specification and eliminates disruptive process interruptions. Consistent handling properties simplify both automated and manual dosing, reducing operator error and cycle times.
We source key raw materials for Lauric Acid Hexyl Ester from renewable plant-based oils and alcohol fermentations, not petroleum. This alignment with renewable chemistry strategies matters to customers facing brand or regulatory pressure to shrink their carbon footprint. Each year brings tighter GHG targets and more attention to cradle-to-grave impacts, making the use of sustainable feedstocks a practical business advantage, not just a box to check.
Our waste stream audits confirm high conversion efficiency, with most side products repurposed or recycled within our facility. As a result, downstream customers who want to highlight closed-loop or low-impact sourcing see real, tangible documentation to support those claims. The biodegradability and absence of heavy metals or persistent aromatics help position Lauric Acid Hexyl Ester as safer for aquatic and terrestrial environments after disposal.
No product rolls off the production line without a learning arc. On more than one occasion, ramping up to large-scale runs forced minor process adjustments—finding the right agitation speed, optimizing reaction temperature to avoid discoloration or ester scrambling. Trace water control turned out to be more critical than anticipated, so our team invested in upgraded inline drying and nitrogen blanketing. Subsequent quality checks showed fewer batch rejects, tighter analytical results, and lower total acid numbers.
Shipping and storage present their own set of lessons. Early customers along humid supply chains encountered isolated cases of partial hydrolysis over long transit times. Modifying packaging to moisture-barrier drums solved these concerns, and now repeat shipments arrive without incident, meeting both specification and stability standards on arrival.
Regulatory landscapes shift fast. Early on, placing the product in food-contact applications required new documentation and migration studies. Certification cycles nudged us to strengthen lot tracking and cooperate closely with customer QA teams, ensuring compliance in sensitive markets. That hands-on adaptation, from tank farm to end-user application, means we carry a clear understanding of what real-world performance and reliability actually require.
The pace of innovation in coatings, lubricants, and cosmetics never slows. Our customers expect raw materials to evolve in lockstep with their broader sustainability and performance mandates. Lauric Acid Hexyl Ester’s success shows that small changes at the molecular level can create big shifts in both feasibility and desirability across product lines. Whether it’s fitting into microplastic-free policy curves or new clean-label demands, we see requests pushing toward safer alternatives that perform without compromise.
Through years of iterative development, supplier feedback, and targeted benchmarking, Lauric Acid Hexyl Ester remains versatile. Our product trials often highlight how the material can serve as a bridge—helping customers who’ve relied on older legacy chemistries move toward modern, biobased, and high-performing solutions without losing productivity.
Manufacturing Lauric Acid Hexyl Ester gives a front-row seat to material innovation and the practical realities of supply chain shifts, energy use, and regulatory headwinds. No batch leaves our plant without a final quality check and full traceability, because we know what matters to customers is a product that arrives as promised, works as designed, and meets the standards of today’s demanding applications.
Success for our chemical manufacturing teams hinges on listening to both our customers and our operations crews. Lauric Acid Hexyl Ester hasn’t just found its role in personal care and plastics through theory—it’s earned it through cycles of feedback, adaptation, field testing, and honest troubleshooting. We remain invested in this hands-on development process, meeting changing industrial and consumer needs as standards and demands continue to evolve.
No two production runs are perfectly alike, but experience as a direct source and manufacturer informs us which materials deliver consistently where it counts. Lauric Acid Hexyl Ester stands out for its balance of performance, reliability, and environmental fit. Years of collaboration with process engineers and end-users shaped an ester that reliably brings solutions across the industries relying on our chemical expertise. We will keep evolving our processes, materials, and support alongside our customers to meet the standards that future products and markets demand.
