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HS Code |
556563 |
| Inci Name | Azelaic Acid |
| Source | Natural Vegetable Oil |
| Appearance | White to off-white powder |
| Solubility | Slightly soluble in water, soluble in ethanol |
| Ph Range | 4.5-5.5 (in solution) |
| Odor | Odorless to faint characteristic |
| Purity | Typically ≥99% |
| Melting Point | 105–111°C |
| Molecular Formula | C9H16O4 |
| Molecular Weight | 188.22 g/mol |
| Usage Concentration | 1-10% in finished formulations |
| Function | Skin conditioning, anti-acne, brightening |
| Shelf Life | 24-36 months |
| Allergen Status | Generally considered non-allergenic |
| Vegan Status | Vegan-friendly |
As an accredited Azelaic Acid (Natural Vegetable Oil Source) factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Azelaic Acid (Natural Vegetable Oil Source), 100g: Sealed amber glass bottle with secure screw cap, labeled for purity, lot number, and safety. |
| Shipping | Azelaic Acid (Natural Vegetable Oil Source) is shipped in tightly sealed, food-grade containers to protect against moisture and contamination. Packages are clearly labeled, comply with relevant safety regulations, and are typically shipped via ground or air freight. Temperature and handling guidelines are followed to ensure product stability and integrity during transit. |
| Storage | Azelaic Acid (Natural Vegetable Oil Source) should be stored in a tightly sealed container in a cool, dry, and well-ventilated area away from direct sunlight, moisture, and incompatible substances. Keep at room temperature, between 15–25°C (59–77°F). Protect from heat and sources of ignition. Ensure containers are clearly labeled and handled according to standard chemical safety protocols. |
Applications of Azelaic Acid (Natural Vegetable Oil Source) in Industrial ManufacturingAs the direct manufacturer of azelaic acid from natural vegetable oil, we focus on industrial supply for real-world production sectors that demand compliance, formulation reliability, and traceable processing. Our material is integrated into diverse downstream applications where controlled input, regulatory conformity, and batch reproducibility are essential for quality end products. Below we outline the major industrial scenarios where azelaic acid is actively adopted, highlighting specific usage guidance, compliance benchmarks, and end-market outputs. 1. Polymer Synthesis for Polyamide and Polyester Resin ProductionAzelaic acid is widely used as a dicarboxylic monomer in the synthesis of specialty polyamides (nylon 6,9) and polyester polyols, facilitating the creation of polymers with enhanced flexibility, chemical resistance, and low-temperature performance. Integration occurs at the polymerization stage, allowing manufacturers to formulate high-performance engineering plastics, coatings, and thermoplastic elastomers suitable for automotive, appliance, and industrial component production. Industry compliance standards
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2. Cosmetic and Dermatological Active IngredientLeading personal care and prescription skin care manufacturers incorporate azelaic acid as an active component for topical treatments, exploiting its established benefits in regulating skin tone and reducing acne symptoms. Typically, the ingredient is introduced during emulsion or cream base formulation, requiring precise dosage and validated purity to meet global safety and labeling directives. Industry compliance standards
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3. Lubricant and Metalworking Fluid AdditiveIn industrial lubrication, azelaic acid functions as a key intermediate for synthetic ester-based lubricants and metalworking fluid packages. Its precise introduction during the esterification process with selected alcohols yields base oils capable of high lubricity, oxidative stability, and biodegradability—attributes critical for formulating products that satisfy demanding machine tool and automotive requirements. Industry compliance standards
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4. Plasticizer and Polymer Modifier in Flexible PVC and RubberManufacturers of flexible PVC and elastomers value azelaic acid-derived esters for their ability to provide phthalate-free plasticization, low shrinkage, and improved cold flexibility. The material is introduced at the compounding or pre-polymerization stage where it reacts with suitable alcohols to yield secondary plasticizers or is directly blended with other softening agents in rubber compounding. Industry compliance standards
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5. Corrosion Inhibitor Intermediates for Industrial FluidsChemical formulators utilize azelaic acid to synthesize corrosion inhibitor intermediates, notably for protecting steel and iron in recirculating water systems, coolants, and industrial cleaning fluids. Applied through controlled neutralization and reaction with basic amines, the resulting inhibitors are characterized by their stability and compatibility with diverse aqueous and oil-based systems. Industry compliance standards
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6. Food Contact Polymers and Additive ManufacturingFood packaging and utensil manufacturers require strict compliance in chemical inputs for polymers used in direct food contact. Azelaic acid, derived from edible-grade vegetable oils, is adopted as a co-monomer in certain biodegradable polyesters and as a building block for flexible film packaging, entering at pre-polymer or resin compounding steps under controlled, validated processes. Industry compliance standards
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Competitive Azelaic Acid (Natural Vegetable Oil Source) prices that fit your budget—flexible terms and customized quotes for every order.
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In the chemical field, the story of azelaic acid is as much about the chemistry itself as the quality and responsibility that goes into making it. We have always chosen to produce azelaic acid from natural vegetable oils, and the difference shows at every stage—from raw material handling to finished product delivery. This approach has shaped both the process and the final product, drawing a clear line between what comes from a synthetic petroleum-derived process and what grows from plant-based starting points.
Azelaic acid with a natural vegetable oil source starts out as something more than just a building block for polymers, cosmetics, or personal care. There is energy in the way the raw material connects back to the land—soybean oil, castor oil, and sometimes even sunflower oil. They carry a traceable origin, a cleaner profile, and leave us with a product that serves industries looking for transparency and sustainability.
Each batch undergoes careful attention, as we know that the details matter most in large-scale production. We manage everything from feedstock digestion through oxidative cleavage, pulling from our years of experience with both batch and continuous reactions. Our leading model, AA-99NV, reflects our style of quality: a white, crystalline solid with a purity above 99%, matching the toughest international benchmarks.
Stringent quality controls define our reputation. Gas chromatography coupled with titration backs every purity guarantee. Water content, always less than 0.5%, comes by design rather than chance. Metals and other ionic impurities stay far below 10 ppm, giving our azelaic acid clean approval for everything from high-end cosmetics to medical formulations. We focus on keeping the melting point between 105 and 110 degrees Celsius. This keeps material flow easy and predictable during downstream processing.
Synthetic azelaic acid, mostly found in markets where cost cuts drive decisions, often brings in trace residues of solvents and reactants—subtle but important risks, especially for sensitive uses like personal care and pharmaceuticals. We have worked hard to strip out any chemical problem that might compromise a formulator’s safety assessment. Our natural source streamlines downstream validations, gets favorable regulatory reviews, and passes clean through tests for skin irritation and sensitization.
Clients come to us asking for certificates, but manufacturers know paperwork means little if the molecule isn’t consistent at the drum and pallet scale. Our own teams use the material in-house for polymer syntheses and lubricant blends before sending it out, catching any run-to-run inconsistencies long before they hit the customer floor.
Market demand covers multiple areas: cosmetics, plastics, lubricants, waterborne coatings, and pharmaceuticals. We have watched the cosmetic industry’s interest in our natural azelaic acid grow over the years, especially in ways that weren’t obvious at first. Dermatologists began recommending azelaic acid for acne and rosacea, and formulators soon discovered that purity and biogenic origin gave their product launches a unique story in a crowded marketplace.
On the industrial side, specialty polyamides and polyesters rely on it as a middle block to tune flexibility and hydrophobicity. In this use, the stability and carboxylic content of our azelaic acid make processing more reliable and the end products tougher under extremes of climate or stress. Lubricant makers look for it to build up biodegradability and oxidative stability. In each setting, the traceability and renewable story from vegetable oil source answers questions not just from technical teams but also from regulatory and purchasing managers.
There are clear differences between azelaic acid that comes from cracked hydrocarbons and one that comes from plants. The most obvious factor lies in the feedstock traceability. Vegetable-based processes begin with a well-documented chain of agricultural suppliers—every step mapped and verified. Petroleum-based sources often draw from larger, more anonymous pools, making it much harder to guarantee the lack of contamination by heavy metals, aromatic residues, or environmental disruptors.
Our customers say the vegetable-derived grade handles better when melted. It pours and dissolves easily, with less of the faint solvent smell that sometimes sticks to petroleum grades. This comes from the cleaner feedstock breakdown and thorough washing steps we put in place. Purification costs more and takes longer, but the difference is easy to see and measure.
Documentation does not stop at purity tables and batch sheets. We support every batch with life-cycle assessment, showing not just compliance, but also greenhouse gas reductions and a path toward carbon-neutral production. We have invested in green chemistry—using less energy per ton of product, optimizing our peroxide catalysis to recycle reactants, pushing for recovery of side-streams for use as platform chemicals instead of waste.
Factories and labs around the world have tested our samples, comparing not just purity or color, but real performance in formulations. Scores from independent contract research labs back up claims for lower irritation, no measurable dioxane, and minimal trace metals in the natural vegetable oil derived material. We get requests every month for these reports, as end-use brands want to show their customers every step of the supply chain.
One European dermaceutical company recently shifted to our natural-grade azelaic acid. Their reason was simple: they faced regulatory pushback on micro-contaminants with their former petroleum-source material. Our product let them reformulate and clear both EU and US requirements. They saw a drop in customer complaints about irritation, and sales ticked upward as they could now market a “plant-derived” cream.
In the polymer world, a mid-sized flooring manufacturer tested our acid against other market samples. They noticed fewer gel defects and better color stability—a result of lower iron and copper content. Their new line of “bio-based” polyamides now carries a “derived from renewable resources” seal, because the source of the azelaic acid is not guesswork—it’s built on records that start with the farmer’s harvest.
From planting to processing, the path from vegetable oil to azelaic acid is measured in more than kilos produced. Every improvement matters. We spend time with growers focusing on crops that use less water and fewer chemical fertilizers. This cuts indirect emissions and lets us document not only our own footprint but the one assigned to each metric ton we ship.
Factory-level improvements can be simple or complex. We switched to jacketed reactors supported by recovery chillers, trimming the plant’s energy needs by at least 8% over older heated vessels. Our waste recovery turns by-products into value—propionic and pelargonic acids become feedstocks for other products, not disposal headaches. What we sell as azelaic acid supports a chain of production where waste is an opportunity, not a liability.
Globally, makers of cosmetics and polymers are under rising pressure to cut carbon intensity, meet stricter rules, and prove that their products start with responsibly sourced ingredients. Our natural azelaic acid fits neatly into that challenge, offering more than just a story—a measurable path to lower emissions, cleaner labels, and compliant products.
Scaling up natural azelaic acid never came easy. Crops shift in composition by season and geography. Fatty acid profiles adjust with farming techniques. In some years, we have had to make rapid adjustments in hydrolysis conditions or change the balance of co-catalysts to offset small tweaks in starting material purity.
Every new regulation brings a new checklist. The EU’s REACH rules push us to deeper purity, lower residuals, and stricter environmental monitoring. We tackle those head-on—extending purification runs, upscaling analytical methods, and adding perimeter testing for dioxins, furans, and SVHCs before the product is cleared for export.
Sometimes challenges come from the market itself. Large buyers want to squeeze procurement prices, often comparing our natural-grade costs with lower purity, petroleum-derived versions. We have found education makes the difference—showing labs, sharing data, inviting customers to our site. Transparency builds trust.
Real manufacturing means real-world problems. Shipments sometimes get delayed. A bag will break on route, or an unexpected power cut will slow down a run. We treat every issue as a technical challenge to be solved together with the end user. Our technical service team visits customer sites across three continents, troubleshooting everything from batch coloration to unexpected interactions with stabilizers.
One partner, aiming to make a vegan-certified skincare range, struggled with batch-to-batch scent variation. Our team worked both formulation-side and process-side, reviewing extraction points, adjusting the type and number of washes, and running headspace GC to measure trace volatiles. Within three cycles, the batches stabilized, and the new skincare line hit its launch deadline.
Performance in final use means little without backup. We regularly submit samples for independent third-party verification on purity, biodegradability, biocompatibility, and absence of concerning contaminants. Batch results are not snapshots; they are trends stretching back years, proving consistency and commitment.
Where cosmetic safety demands clarity, we give more than COAs—we provide full background on the raw oil, process data for each oxidation step, and exposure modeling for formulators. Regulatory changes, especially in the EU and North America, move quickly. We invest in ongoing memberships with chemical safety initiatives, taking part directly in skin irritation and allergenicity studies. Feedback from these studies cycles back into changes we make on the shop floor, from safety shields for operators to changes in packaging that reduce contamination risks.
Over the past five years, the demand for renewable, plant-based ingredients in industrial and consumer applications has grown faster than in the previous two decades. Azelaic acid, once considered just a niche monomer, is now central to sustainability portfolios for some of the best-known global brands. The pressure from end users to “green” their ingredient deck rarely stops at generic statements. Large-volume buyers now require lasting traceability, full documentation, and independent verification at every step.
Across regions, we see varying levels of interest—but the central pitch always returns to product origin and environmental responsibility. Manufacturers, especially those supplying regulated markets like the EU, Japan, and North America, increasingly depend on ingredient traceablility, favoring those with deep visibility into their raw material journey.
Every suggestion from customer labs feeds into tweaks in our own protocols. The cosmetics field, for example, keeps pushing for lower trace allergens and ever-cleaner profiles. We redesigned our solid-liquid extraction lines to handle smaller, more carefully controlled batches, reducing the possible carryover of organic residues.
As more polymer and lubricant makers demand biogenic labels, we produce life-cycle carbon assessments for every lot, giving detailed breakdowns on resource consumption and atmospheric impact. As a plant, we switched entirely from mineral-based hydrochloric acid to food-grade citric acid for final pH adjustments, adding yet another layer of assurance for customers that material never comes in contact with problematic reagents.
Manufacturers deal with real-life materials, real risks, and real rewards. For us, the major differences in our azelaic acid come from two things: knowing the exact journey from seed to drum, and how each step in production shapes the final result. Our process sticks close to our values—renewable sourcing, deep quality management, and daily transparency.
Customers want to meet not just purity specs on a printout but the responsibility line-by-line: reducing environmental impact, meeting ever-changing regulations, and addressing public pressure to support sustainable, traceable supply chains. The growing market for natural-origin chemicals strongly suggests this trend will continue. Our own story only begins with the product; it runs through every hand and every lab along the way.
Producing azelaic acid this way takes more work, but the benefits ripple through the whole supply chain. From developer to end-user, every stakeholder can see that products made with our natural vegetable oil azelaic acid meet both performance and environmental standards, confirmed time and time again by real testing and real-world results.
