| HS Code | 876322 |
| Cas Number | 301-22-4 |
| Molecular Formula | C19H32O2 |
| Molecular Weight | 292.46 g/mol |
| Iupac Name | methyl (9Z,12Z,15Z)-octadeca-9,12,15-trienoate |
| Synonyms | Methyl gamma-linolenate, Methyl 18:3(n-6) ester |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | About 200-210°C at 10 mmHg |
| Solubility | Insoluble in water, soluble in organic solvents (e.g., ethanol, ether) |
| Density | Approximately 0.89 g/cm³ at 20°C |
| Refractive Index | 1.478–1.482 at 20°C |
As an accredited Methyl Γ-Linolenate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Methyl γ-Linolenate is packaged in a 25 mL amber glass vial, sealed with a Teflon-lined cap for protection against light. |
| Shipping | Methyl γ-Linolenate is shipped in tightly sealed, chemical-resistant containers to prevent leakage and oxidation. It is transported at controlled room temperature and protected from light and moisture. Appropriate hazard labeling and shipping documentation are provided in compliance with chemical safety regulations. Handling instructions are included to ensure safe transit. |
| Storage | Methyl γ-Linolenate should be stored in a tightly sealed container, protected from light and moisture, at 2-8°C (refrigerated). Keep away from heat, flame, and incompatible substances such as strong oxidizers. Use only in a well-ventilated area and store in a cool, dry environment to prevent degradation and impurities. Make sure proper chemical labeling and safety measures are maintained. |
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In the commercial synthesis of fatty acid derivatives, clarity about source and process remains crucial. Methyl γ-linolenate stands out as one of the key methyl esters derived from γ-linolenic acid (GLA), a polyunsaturated omega-6 fatty acid. From years of hands-on manufacturing, the pathway to a high-purity product demands deep knowledge, strategic raw material sourcing, and closely controlled transesterification steps. We operate our own facilities, not relying on external suppliers or third-party intermediaries. This means our technical staff monitors each batch from start to finish, and constant in-house R&D informs improvements. Any customer who has visited a reactor room recognizes the difference between a plant that simply repackages, and one that tackles each challenge of production itself.
We produce methyl γ-linolenate chiefly in a liquid format, with purity levels tailored above 98% as required for consistency in chemical synthesis. In our plant, critical factors like residual GLA content, moisture content, and specific gravity receive constant attention. Using stainless steel reactors, we employ methanol in anhydrous conditions and utilize proprietary distillation controls for solvent recovery. This process eliminates much of the non-reacted parent acid and ensures a homogenous final ester. Each lot comes out with the pale yellow hue and moderate viscosity typical for well-prepared methyl γ-linolenate. Compared to variable imports or material handled too long in warehouses, our fresh output maintains stability and minimal peroxide levels.
No two buyers seek methyl γ-linolenate for the same reason. In the lab, it appears as a handy starting point for synthesis of specialty lipids or rare triglyceride blends. Chemical researchers often use it as a scaffold—adding functional groups or generating labeled derivatives for metabolic studies. Some in the cosmetics industry favor its unique fatty acid backbone. It helps boost emollience or oxidative stability in premium skin products. Lab-scale characterization work makes use of its characteristic methyl ester signals for NMR or GC reference. Major nutritional ingredient manufacturers use methyl γ-linolenate as a reference compound for GLA-enriched formulations, preparing calibrators and traceable standards.
The food sector’s requirements highlight why our manufacturing experience matters. Processors often require extremely low trans-isomer content and restrictions on solvent residues. We meet these standards with in-line GC analysis and thorough vacuum stripping steps rather than simply posting Certificate of Analysis paperwork. The pharmaceutical field, with even tighter requirements on peroxides, color, and heavy metals, pushes our process development further. Close relationships with regulatory teams keep our output aligned with evolving pharmacopeia demands.
Owning the reaction line brings both accountability and opportunity. We measure every methanol and catalyst addition, fine-tuning reaction temperature to avoid double bonds breaking down. Unlike resellers with ambiguous supply chains or unknown refineries, we monitor for batch-to-batch variation in cis/trans content and overall purity.
Specifically, our typical batch for methyl γ-linolenate (by GC) reaches at least 98% purity, with the balance comprising trace methyl esters of other fatty acids. Water content rarely exceeds 0.2% due to vacuum treatment. Residual solvents test below 0.05%, keeping the product suitable for sensitive chemical syntheses. The peroxide value, regularly measured with standard iodometric methods, stays under 5 meq/kg. Storage in nitrogen-flushed, food-grade drums in clean rooms prevents oxidation or hydrolysis until the last day of shelf life. None of these steps can be perfunctory, especially for customers designing synthesis chains that magnify contaminants downstream.
Some fresh eyes in procurement may see methyl γ-linolenate as just another methyl ester next to methyl linoleate or methyl oleate. Experience and feedback tell a different story. Each unsaturation position and chain structure brings unique chemical reactivity—GLA esters expose the omega-6 system’s third double bond near the omega end, making downstream reactions more complex than those with methyl oleate or linoleate. During chemical modifications, this requires different conditions and anticipates susceptibility to oxidation. Small differences, invisible to the naked eye, affect stability, shelf life, and suitability as a reactant.
Regular methyl linoleate, while similar in general class, contains only two double bonds (Δ9,12) versus γ-linolenate’s three (Δ6,9,12). This extra degree of unsaturation means that methyl γ-linolenate enables reactions unavailable with simpler esters, crucial for downstream synthesis of signaling lipids, prostaglandin classes, and rare cyclic fatty acid derivatives. Methyl oleate, more common for biofuels or surfactant production, features only one double bond, which prevents its effective use in many specialty organic pathways.
Traceability emerges as another key factor. As an actual manufacturer, all supply documentation for our methyl γ-linolenate is supported by retained samples, chromatograms, and batch records going back years. We do not rely on remote labs’ testing paperwork, but perform in-house gas chromatography and peroxide titration. Our facility’s lab team answers technical questions promptly, since they generated the fingerprint data in the first place. For pharmaceutical or food sector customers, this helps clear regulatory approvals much faster.
GLA-rich natural oils, such as borage and evening primrose, supply the starting material for our methyl γ-linolenate production. Sourcing consistency, waste minimization, and condensation of byproduct streams to fuel further reactions benefit from direct process ownership. By capturing unreacted methanol for recovery and re-use, and channeling press-cake residues for agricultural amendments, we tie together process efficiency and impact mitigation.
Our long-term contracts with growers, mostly focused on optimized borage varieties, keep fatty acid profiles within the necessary spec. Each harvest’s GLA levels receive pre-purchase analysis, securing the supply for the methylation season. Extreme weather events or supply gluts require constant reconsideration of preservation techniques, including antioxidant addition ahead of storage and incremental degumming procedures.
Compared to synthetic analogues or esters made entirely from petrochemical chains, methyl γ-linolenate from natural seed sources shows better biocompatibility. For industries seeking green labeling, transparency about production steps becomes a business necessity. Our vertical integration means customers track exactly where their raw materials originated—not through a web of brokers, but through direct audit.
Every batch presents unique nuances. Polyunsaturated fatty methyl esters, especially those with three or more double bonds, resist simple handling. A single uncontrolled heat spike during methanolysis leads to polymerization, ruined color, or off-odors. We train staff not only to recognize process drift but also to respond without delay. Our control room logs, which record every critical data point, provide feedback for improved decision-making season after season.
Storage poses another practical challenge. Uncontrolled light, air, or trace metals accelerate peroxidation. Few issues frustrate a user more than opening a drum of methyl γ-linolenate to find a sharp odor or deep brown color. Packing under nitrogen, and using lined drums rather than generic tins, shields the product from spoilage. Customers who buy from middlemen often receive multiple-handled stock; by managing every transfer in our own warehouse, we offer faster delivery and fresher product.
Supply chain disruptions threaten the chemical industry as a whole. By running more than one methylation line and stocking seasonal raw materials, we keep production running even if logistics get disrupted. Some smaller scale blenders fail to anticipate demand spikes for methyl γ-linolenate linked to the dietary supplement surge or increased cosmeceutical launches. Large warehouses and redundant processing lines help us fulfill both small research orders and long-term commercial contracts.
Experience in actual manufacturing changes how we approach customer problems. Technical support means more than forwarding generic answers. Chemists from the application lab dissect customer feedback, whether it's solubility with unusual solvents, GC fingerprints after derivatization, or formulation troubles in unstable blends. This gives users confidence from the outset. Adjustments to reaction or purification steps become possible without waiting for overseas test results.
Feedback loops with end-users drive our product evolution. Makers of lipid-based carriers for pharmaceuticals, or firms blending plant-based cosmetic emulsions, push the boundary of what methyl γ-linolenate must achieve. Some require co-processing with other omega-3 or omega-6 methyl esters, matching closely to patented ratios. We engineer our output to fit practical needs, not just vanilla industry benchmarks. That collaborative approach would never be possible from a trading desk. Only trust built by repeatedly meeting batch demands leads users back, season after season.
Achieving top-tier methyl γ-linolenate today means planning for tomorrow’s problems. Shelf life extension, lower impurity targets, and the ability to scale up or down quickly test the limits of old formulations. As a manufacturer, we spend heavily on both process intensification technology and employee training. Our on-site staff constantly review run data and keep a cross-functional issues log, so each production hiccup turns into a lesson for the next batch.
Investments in inline sensors, automated blending, and digital batch tracking systems do more than just keep up with competition. They make the difference between guesswork and real quality assurance when standards get stricter or new regulation emerges. In practice, that means customers can ask for detailed reports—acid value, saponification value, GC traces—without long delays. For tighter nutraceutical applications, we offer tailored packaging options ranging from bulk tankers to small amber glass to minimize oxidation risk. Each option reflects actual feedback from the factory floor, not just repackaged industry cliches.
Recently, demand for pure methyl γ-linolenate has shifted. Nutraceutical firms in Asia, Europe, and North America pick up on its benefits in comparative absorption studies. Makers of advanced surfactants or plant-based reactive intermediates search for clean, high-purity feeds matching regulatory and organoleptic standards. End users now request detailed sustainability records, right down to the field of origin for the parent seed oil. As plant-based materials in cosmetics and advanced materials surge, more customers prioritize transparency and quick response over just low price per kilogram.
Being a real manufacturer lets us see these trends early and pivot. Our R&D chemists routinely test new antioxidants, fine-tune purification, and communicate directly with customer labs working under unusual or tight specifications. Coordinating with downstream users, whether in biotech, food, or advanced research, lets us improve stability and packaging on the fly. The learning never stops. Our teams continuously train in environmental control, energy efficient distillation, and advanced analytics, moving beyond industry minimums.
Our commitment as an actual producer of methyl γ-linolenate means more than simple availability. End-to-end control, years of plant insight, and open lines of communication support customers at every level, from bench chemist to product developer to regulatory manager. Whether supporting new cosmetic launches, developing analytical standards, or scaling up custom orders, our direct manufacturing legacy gives us an advantage that no generic reseller can match. Each batch represents hundreds of adjustments, incremental improvements, and a dedication to solving customer problems as they arise. This is how quality, reliability, and long-term partnerships take shape in the real world of chemical manufacturing.