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Petroselinic Acid

    • Product Name Petroselinic Acid
    • Alias 6-octadecenoic acid
    • Einecs 205-456-2
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    877340

    Cas Number 2004-39-9
    Molecular Formula C18H34O2
    Molecular Weight 282.46 g/mol
    Iupac Name (6Z)-octadec-6-enoic acid
    Appearance Colorless to pale yellow liquid
    Solubility In Water Insoluble
    Melting Point 32-34°C
    Boiling Point 222°C at 8 mmHg
    Density 0.898 g/cm³ at 20°C
    Flash Point >110°C
    Refractive Index 1.451 at 20°C
    Synonyms cis-6-Octadecenoic acid
    Source Derived from parsley seed oil and coriander seed oil
    Purity Typically ≥ 98%
    Chemical Structure Monounsaturated fatty acid (omega-12)

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

    Packing & Storage
    Packing Petroselinic Acid is packaged in a 100g amber glass bottle with a tamper-evident cap and clear chemical labeling for safety.
    Shipping Petroselinic Acid is shipped in tightly sealed containers, typically under inert gas like nitrogen to prevent oxidation. Containers must be labeled according to regulatory requirements and stored in a cool, dry place. Handle with protective equipment. Keep away from strong oxidizers during transit to ensure safety and product integrity.
    Storage Petroselinic acid should be stored in a cool, dry, and well-ventilated area, away from sources of ignition and direct sunlight. Keep the container tightly closed and protected from moisture. Store away from incompatible substances, such as strong oxidizing agents. Use appropriate containers, preferably made of materials resistant to organic acids, to prevent contamination and ensure chemical stability.
    Application of Petroselinic Acid

    Applications of Petroselinic Acid in Industrial Manufacturing

    Petroselinic acid is a specialty fatty acid sourced primarily from plants such as coriander and parsley seed. It provides unique C18:1 monounsaturated properties for value-added downstream sectors. As a direct manufacturer, we support customers with application-oriented technical guidance, compliance documentation, and on-spec supply.

    1. Cosmetic Fatty Acid Derivatives Production

    Cosmetic formulators select petroselinic acid as a non-irritant unsaturated fatty acid for skin-care actives and emollient esters. In plant-based skin creams, it replaces oleic acid to reduce comedogenic potential. Manufacturers use it in transesterification to create fast-absorbing emollients, and in hydrogenation for mild surfactant bases. Close attention is given to oxidation control and low peroxide values, as these affect shelf stability and in-use performance.

    Industry compliance standards

    • EU Cosmetic Regulation (EC) No 1223/2009
    • REACH Registration (EU)
    • ISO 22716 (Cosmetic GMP)
    • U.S. FDA Cosmetics CFR Title 21, Part 700

    Typical usage ratio

    • Between 2% and 8% in creams and lotions, adjusted depending on target emolliency and viscosity
    • Up to 20% in specialty skin oils and makeup removers

    Downstream process integration

    • Direct incorporation during oil blend phase
    • Hydrogenation or esterification for derivatized emollients prior to emulsification
    • Vacuum stripping to minimize oxidative degradation

    Final product types

    • Moisturizing face creams
    • Gentle cleansing oils
    • Plant-based body lotions
    • Emollient-rich make-up removers

    2. Specialty Polyamide (Nylon) Monomer Synthesis

    Petroselinic acid provides a renewable route for synthesis of monomers used in bio-based nylon production, particularly for long-chain polyamides (e.g., PA11, PA12 variants). Its unsaturation pattern enables selective ozonolysis or metathesis to create linear dicarboxylic acids with controlled chain lengths. The unique feedstock profile ensures high-purity monomer streams critical for polymerization control and mechanical property reproducibility in downstream plastics compounding.

    Industry compliance standards

    • ISO 9001:2015 (Quality Management in polymers)
    • REACH Annex XVII compliance for intermediates
    • ASTM D4066 (Nylon Engineering Plastics specifications)
    • RoHS Directive 2011/65/EU

    Typical usage ratio

    • As a feedstock, comprises 100% of the fatty acid fraction for monoacid routes
    • Derived dicarboxylic acid used at 60–100% in custom copolymer monomer blends

    Downstream process integration

    • Ozonolysis or oxidative cleavage to C10–C12 dicarboxylic acids
    • Monomer purification and drying before polycondensation
    • Continuous melt polymerization for specialty nylons

    Final product types

    • High-durability automotive parts (e.g., tubing, connectors)
    • Technical fibers for filtration and performance apparel
    • Injection-molded engineering components

    3. Biodegradable Surfactant Intermediate Manufacturing

    Industrial formulators use petroselinic acid as a renewable monounsaturated fatty acid to produce linear alcohols and esters for biodegradable surfactants. It is processed via catalytic hydrogenation or amidation, providing mild, non-sensitizing surface-active agents suited for eco-friendly detergents and cleaners. The fatty acid is often chosen to enhance foam texture while minimizing skin irritation compared to traditional lauric or oleic derivatives.

    Industry compliance standards

    • EU Detergent Regulation (EC) No 648/2004
    • OECD 301B (Biodegradability assessment)
    • U.S. EPA Safer Choice criteria for surfactants
    • ISO 14001:2015 (Environmental Management)

    Typical usage ratio

    • 10–30% as a fatty acid precursor for surfactant intermediate synthesis
    • Varied in blends based on target hydrophilic-lipophilic balance (HLB)

    Downstream process integration

    • Hydrogenation to C18:1 alcohol, followed by ethoxylation/sulfonation
    • Direct esterification with glycerol for mild monoesters
    • Phase separation and distillation for color/odor removal

    Final product types

    • Concentrated liquid detergents
    • Eco-label dishwashing liquids
    • Personal care surfactant blends
    • Hard surface cleaners

    4. Functional Food Lipid Ingredient Manufacturing

    Food technologists employ petroselinic acid as a specialty lipid in select food formulations for its unique monounsaturated profile. It features in plant-based margarine and functional oil blends, providing a clean flavor and distinct physical properties. It is processed under food-grade conditions to minimize trans isomer formation and protect sensory appeal in premium applications. Chain-length specificity and low melting point enable improved spreadability in cold applications.

    Industry compliance standards

    • EU Regulation (EC) No 1333/2008 (Food Additives)
    • US FDA GRAS Status (21 CFR 184.1555, Fatty acids)
    • ISO 22000 (Food Safety Management Systems)
    • Codex Alimentarius Standards

    Typical usage ratio

    • 1–4% in margarine and spread formulations for texture improvement
    • Up to 10% in specific nutritional oil blends targeting monounsaturated enrichment

    Downstream process integration

    • Refining and deodorization under vacuum
    • Blending with other edible oils to achieve desired fatty acid profile
    • Chilling and crystallization for final margarine/shortening texture

    Final product types

    • Premium vegan margarine
    • Infant formula oil blends
    • Functional spreads with monounsaturated enrichment
    • Emulsified salad dressings

    5. Pharmaceutical Intermediate in API Synthesis

    API manufacturers utilize petroselinic acid for synthesis of specific pharmaceutical intermediates, taking advantage of its geometric isomerism and reactivity. Its application includes transformation to polymeric carriers, soft capsule fillers, and as a critical starting material for targeted prodrugs. Stringent purification requirements apply, particularly concerning residual solvents, heavy metals, and isomeric purity, in order to meet pharmacopoeial standards for injectable and oral formulations.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practices for APIs
    • United States Pharmacopeia (USP) Monographs
    • European Pharmacopeia (Ph. Eur.)
    • Japan Pharmacopoeia (JP)

    Typical usage ratio

    • Varies from 5% to 25% in API synthesis depending on molecular design and carrier system requirements
    • Adjusted for dosage form, with lower levels in parenterals and higher for oral lipid-based systems

    Downstream process integration

    • Direct amidation, esterification or reduction steps at kilo-lab or pilot-plant scale
    • Final GMP purification with chromatography to pharmaceutical grade
    • Incorporation in capsule or carrier oil blend preparation

    Final product types

    • Softgel capsule fillers
    • Lipid-based oral dosage forms
    • API intermediates for targeted release drugs
    • Topical delivery excipients
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    Certification & Compliance
    More Introduction

    Petroselinic Acid: From Raw Material to Real-World Performance

    Petroselinic Acid Overview

    On the production floor, efficiency and purity shape every batch we deliver. Petroselinic acid, a monounsaturated fatty acid, has become a staple for customers who demand more than just basic raw materials. Our team works directly with seed oils, mainly coriander and parsley, and we’ve honed our extraction and refinement process to keep impurities low and purity at or above 98 percent. Each lot runs through chromatographic validation with every drum filled, so users can depend on consistent quality and predictable functionality.

    Our facility produces petroselinic acid under the product identifier PA-980, available in both liquid and semi-solid forms, depending on room temperature and storage conditions. In our lab, we monitor acid value, peroxide value, and color—these parameters protect downstream applications from unwanted side reactions or off-odors. Packaging includes tightly sealed HDPE drums or IBCs, serving both medium-size cosmetic labs and global commodity users. We do not blend with other fatty acids. This decision protects users from batch inconsistencies, maintains the oxidative stability our customers count on, and keeps clarity and color stabilized for sensitive formulations.

    Why Petroselinic Acid Matters

    There’s a reason petroselinic acid draws attention from formulators in the personal care and specialty oleochemical sectors. Its C18:1 Δ6 structure sets it apart from the much more common oleic acid, where unsaturation sits at the Δ9 position. This subtle but critical difference leads to distinctive physical attributes and reactivity profiles. Petroselinic acid brings a unique balance of chain length and double bond placement, influencing melting point, behavior during hydrogenation, and the quality of derivatives produced for further synthesis.

    For example, users who have tried substituting petroselinic acid with general-purpose oleic acid often report unexpected viscosity, lower oxidation resistance, or even incomplete downstream reactions. In our process, we have found that petroselinic acid retains its light color and low odor profile far longer in open-air conditions than similar chain monounsaturates. Customers in natural surfactant synthesis and lubricants commonly tell us this difference carries through to their final blends—improving shelf life and long-term texture.

    Applications Grown from Real-World Demands

    We have watched demand for petroselinic acid climb among R&D teams seeking plant-based feedstocks for mild emulsifiers, softeners, and polymer additives. In practice, formulators benefit most in three areas: gentle skincare, biodegradable surfactants, and specialty polyesters. Petroselinic acid acts as a mild skin lipid mimic, increasing skin compatibility and reducing the risk of irritation. Chemists concerned about synthetic residue in foam washes or emulsions appreciate its straightforward botanical origin, and we’ve responded by tightening our supply chain to trace each batch to its point of harvest.

    Polymer manufacturers approach us looking for alternatives to petrochemical monomers, and petroselinic acid's double bond position produces more flexible, less brittle polyesters—especially valuable in bioresins for packaging or adhesives. The acid’s selective reactivity under epoxidation and amidation steps opens up routes for precise functionalization, something not always possible when using broad-spectrum tall oil derivatives.

    What Makes Our Petroselinic Acid Different from Other Fatty Acids

    Unlike more common fatty acids derived from palm or coconut, our petroselinic acid comes exclusively from seeds with a high native content, including coriander and parsley. That means minimal downstream splitting and fractionation compared to conventional plant oils. Our equipment avoids cross-contamination with lauric or palmitic acids, so users see single-peak performance without the “background noise” of other chain lengths getting in the way. This pays off in downstream catalysis—where trace byproducts can throw entire reactions off course.

    For teams used to working with mixed fatty acid cuts or industrial oleic acid, the switch to petroselinic acid shows up during pilot batches. We’ve fielded calls from technologists surprised to see clear, pale liquids and low peroxide counts, even after several months’ storage. That shelf stability isn’t accidental. Our control of raw material sourcing and careful inert atmosphere handling during bottling help lock out oxidation, so chemists aren’t forced to rush through inventory. We keep peroxide values below 3 meq/kg, often far lower, even without added preservatives or antioxidants. This matters for small-batch cosmeceutical startups who can’t afford to build elaborate inventory management systems.

    Supporting Evidence from Experience

    We’ve run field trials with contract manufacturers making leave-on skin creams and noticed a drop in consumer complaints about residual odor when using our high-purity petroselinic acid. One multinational customer switching from tall oil-derived oleic acid reported not just fewer “off” aromas, but also needed less fragrance to mask underlying base note. For technical applications, such as the synthesis of azelaic acid by ozonolysis, our product’s distinctive bond position results in higher yields and reduced side-reactions. This value presents itself in laboratory HPLC results and in the fewer purification steps needed before packaging end-use products.

    Every production year brings subtle changes in seed oil content, and our in-house QC adjusts extraction parameters to keep output on target. During drought-affected harvests, we’ve experimented with double-filtration and minor feedstock blending—always maintaining the C18:1 Δ6 profile that customers trust. Over time, this attention to detail has led to a robust, actionable database of test values, permitting process refinement that keeps us ahead of shifting API and excipient standards.

    Solutions for Formulation and Supply Chain Challenges

    Users face a real risk of adulteration and mislabeling when buying fatty acids from traders or brokers. We prevent these pitfalls by producing only single-origin petroselinic acid, tracked from field through to finished batch. Our plant is built with dedicated lines, so there’s no chance of palm or soy slipstreaming into storage tanks. Each shipment ships with an analytical certificate, including gas chromatography trace and shelf life details.

    Years of feedback from cosmetic brands reveal a need for small minimum order quantities without punitive pricing. We answer this by scheduling periodic batch splits, so regional buyers can source as little as a single drum or scale up to full container loads. By working with rerouted supply channels, we reduce reliance on season-sensitive European coriander and hedge against fluctuating world pricing.

    Environmental responsibility matters to every team member here. Our waste handling procedures include reclamation of byproduct glycerol and husks for local agricultural use, not landfill disposal. Customers have asked for palm-free alternatives to reduce deforestation impact, and petroselinic acid offers a true non-tropical, non-palm source.

    Comparative Attributes: Petroselinic vs Other Options

    Much of the global market for fatty acids centers on palmitic, stearic, or oleic acid derived from palm, soy, or tallow. These supply chains face steep price swings, and quality often varies based on regional regulation or blending practice. With petroselinic acid, supply is less vulnerable to monoculture disease outbreaks or geopolitical trade barriers. Our product’s melting point (about 32-34°C) places it between oleic acid and linoleic acid, giving finished blends or emulsions a lightweight, creamy feel—without the waxy drag or residue of saturated types.

    Users who regularly compare technical performance appreciate the acid’s lower iodine value and higher oxidative resistance, both benefits of its unique molecular arrangement. Where some competitors provide only bulk-commodity acids with trace pesticide residues, our tight supply chain and post-processing steps reduce contaminant levels below the current EU and US thresholds for both cosmetic and food-contact applications.

    Some facilities attempt to use oleic acid from tall oil fractions as a cost saving. Experience shows this can introduce sulfur-hinted odor, color shifts, and variable consistency. Across our customer base, those that prioritize product appearance and aroma find themselves returning to petroselinic acid, especially for premium lines.

    End-Use Stories from the Factory Floor

    Few stories illustrate the value of petroselinic acid better than a long-term client in the natural skincare sector. Their move away from palm-derivatives toward our single-origin fatty acid led to cleaner ingredient decks, higher press coverage, and expanded reach into eco-conscious markets. Staff chemists have returned with positive reports on emulsion stability and user sensory panels. In one batch, switching solely the fatty acid source eliminated an otherwise persistent yellow cast, enabling a whiter, more appealing end cream.

    Chemical intermediates houses who manufacture azelaic acid at scale once struggled with color drift and batch-to-batch yield loss when using commodity oleic acid. Moving to our product line delivered higher conversion rates and faster throughput on the same reactors. The resulting cut in post-processing labor made their operations more profitable with less waste disposal.

    Lubricant developers working on biobased engine oils discovered, through back-to-back engine tests, lower coking and varnish with our petroselinic acid compared to standard C18:1 stocks. The lower carbonyl load minimized varnishing under high load, extending service intervals and improving warranty metrics for small engine OEMs.

    Processing From Seed Oil to Refined Product

    Converting coriander or parsley seed oil into high-purity petroselinic acid involves controlled extraction, saponification, and careful vacuum distillation. Our engineers monitor every stage, using real-time NMR and FTIR to validate double bond position and exclude isomerization. Post-processing filtration steps remove color bodies and polar impurities, so every drum meets strict cosmetic and food-contact visual standards.

    Customers regularly ask about fractions and potential mono/diglyceride contamination from earlier production steps. By maintaining a dedicated process line and eliminating mixed oil runs, we keep mono- and diglyceride content well below typical detection limits. Operators are trained to switch every process segment only after complete line steam cleaning, minimizing contamination and preserving the clean, neutral smell required for fragrance-free bases.

    We monitor for free fatty acid levels at every stage, avoiding hydrolytic drift that can lead to soapy off-notes or unstable blends in personal care applications. The finished acid holds up under UV and temperature cycling—so clients see minimal separation or color shift, even in high-end airless pumps or clear packaging.

    Market Trends and Forward Outlook

    Sustainability requirements push global brands toward non-palm, traceable oils. Regional bans on palm and tropical fats in European and North American markets make petroselinic acid a more reliable, compliant choice. Our company is investing in seed supply contracts, ensuring geopolitical events do not interrupt customer access. Each harvest we vet potential new fields, always screening for pesticide load and GMO status.

    Plant-based chemistry’s rapid expansion means scale-up capacity becomes the next challenge. Our site already produces several hundred metric tons annually, with expansion plans built on modular skid rigs for quick ramp-up. By securing both coriander and parsley input streams in parallel, we spread resource and price risk, letting us offer multi-year contracts for major buyers.

    Working Directly with the Manufacturer

    Every lot of petroselinic acid leaves our factory with full batch data, including chromatograms, physical parameter tables, and an assigned batch supervisor. We take responsibility for every step, from seed supply to final delivery. Our in-house team fields technical questions, hosts customer audits, and adapts production to meet new purity needs as regulations or specifications evolve.

    By bypassing traders and brokers, we keep a tight loop between production, quality control, and customer support. Technical users who partner directly with us gain early data on annual supply, the best pricing, and the fastest responses to new market requirements. Our aim is not just to sell a raw material, but to build a relationship that adapts and improves year after year.

    Conclusion

    Petroselinic acid stands as an example of how careful raw material sourcing, process control, and long-term commitment to user needs create not only a superior ingredient, but genuine value for clients across categories. For cosmetic, industrial, and specialty chemical applications, this fatty acid brings both innovation and reliability to demanding, high-performance formulations. Decades of factory experience have shown us that staying close to the process, listening to customer field reports, and investing in next-generation seed sources make the difference where it counts—on the shelves, in the lab, and in end-user hands.