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2-Aminohexadecanoic Acid

    • Product Name 2-Aminohexadecanoic Acid
    • Alias AHDA
    • Einecs 221-156-8
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry sales7@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
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    Specifications

    HS Code

    612884

    Chemical Name 2-Aminohexadecanoic Acid
    Other Names 2-Aminopalmitic acid
    Molecular Formula C16H33NO2
    Molecular Weight 271.44 g/mol
    Cas Number 18779-09-2
    Appearance White to off-white solid
    Melting Point 74-76 °C
    Solubility Insoluble in water, soluble in organic solvents
    Structure Type Alpha-amino acid with a 16-carbon saturated alkyl chain
    Smiles CCCCCCCCCCCCCCC[C@@H](N)C(=O)O
    Iupac Name (2S)-2-aminohexadecanoic acid

    As an accredited 2-Aminohexadecanoic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 2-Aminohexadecanoic Acid, 25g: Supplied in a sealed amber glass bottle with tamper-evident cap and clear product labeling for safety.
    Shipping 2-Aminohexadecanoic Acid is shipped in tightly sealed containers to prevent contamination and moisture exposure. It is handled according to standard chemical safety protocols and labeled as a laboratory chemical. The packaging meets regulatory requirements for safe transit, ensuring the compound’s stability and integrity during shipping and storage.
    Storage 2-Aminohexadecanoic Acid should be stored in a tightly sealed container, away from moisture and direct sunlight. Keep it in a cool, dry, and well-ventilated area, ideally at room temperature (20-25°C). Avoid exposure to incompatible materials such as strong oxidizers. Ensure proper labeling and access controls to prevent unauthorized handling, and always follow standard chemical storage guidelines.
    Application of 2-Aminohexadecanoic Acid

    Applications of 2-Aminohexadecanoic Acid in Industrial Manufacturing

    2-Aminohexadecanoic acid, also known as 2-amino palmitic acid, serves as a specialized aliphatic amino acid with distinct roles in high-value industrial supply chains. As a direct manufacturer, we supply this material to sectors prioritizing precision synthesis, regulatory compliance, and consistent functional outcomes. Its unique structure enables highly selective functionalization, facilitating development in markets with stringent performance and quality requirements. The following application scenarios detail the real-world downstream uses of this compound across diversified industrial domains.

    1. Pharmaceutical Intermediates for Peptide Synthesis

    This amino acid acts as a chiral building block within peptide and peptidomimetic synthesis, especially for pharmaceutical research and API development. Its incorporation enhances molecular stability or modulates bioactivity in next-generation drug candidates. Downstream manufacturers rely on precise formulations and regulated production environments to ensure batch reproducibility and documentation integrity.

    Industry compliance standards

    • Current Good Manufacturing Practice (cGMP) as enforced by FDA 21 CFR Parts 210/211
    • ICH Q7 guidelines for Active Pharmaceutical Ingredient production
    • Ph. Eur., USP, and JP monograph benchmarks for peptide raw materials
    • Traceability under ISO 9001:2015 quality management systems

    Typical usage ratio

    • 0.5–4 mol% of total amino acid feedstock, adjusted based on desired substitution pattern or peptide chain position; ratios determined by target molecular architecture and process validation data

    Downstream process integration

    • Charged during Fmoc/t-Boc solid-phase peptide synthesis cycle after initial resin loading or employed in solution-phase elongation after carboxyl activation

    Final product types

    • Investigational peptide APIs
    • Peptidomimetic clinical candidates
    • Specialty oligopeptides for in vitro diagnostic kits
    • Biosimilar reference peptides

    2. Lipid Conjugate Synthesis for Targeted Drug Delivery

    In the nanoformulation and advanced therapeutics segment, this functionalized fatty acid amine is used to synthesize lipid conjugates, including lipopeptides and glycolipids. These are vital excipients for nanoparticle drug delivery or mRNA vaccine platforms, where fatty acyl chains enhance bioavailability and cellular uptake profiles.

    Industry compliance standards

    • EMA Guideline on Liposomal Products (EMA/CHMP/806058/2009/Rev. 02)
    • US FDA Inactive Ingredient Database (IID) and GRAS status assessment for excipients
    • ISO 13408 for aseptic processing of sterile medicinal products
    • Pharmaceutical Excipients Council standards

    Typical usage ratio

    • 2–10 wt% of total lipid component in liposomal or micellar matrix; actual dose depends on required membrane integration or ligand density for payload delivery

    Downstream process integration

    • Incorporated during co-solubilization phase alongside other lipids, then subjected to high-pressure homogenization, thin-film hydration, or microfluidic mixing before sterile filtration

    Final product types

    • Lipid nanoparticle dispersions for mRNA/siRNA delivery
    • Cationic liposome-based oncology injectables
    • Lipopeptide cancer vaccines
    • Transdermal lipidic formulations

    3. Specialty Surfactant Synthesis for Personal Care Formulations

    2-Aminohexadecanoic acid is incorporated by personal care and cosmetic formulators as a precursor or direct component in mild amphoteric surfactants. Its long-chain structure supports the formulation of skin-compatible cleansing agents and conditioning ingredients, especially in systems designed for sensitive applications such as facial cleansers and baby shampoos.

    Industry compliance standards

    • Cosmetic Ingredient Review (CIR) Expert Panel safety assessment
    • EU Regulation (EC) No 1223/2009 for cosmetic products
    • ISO 22716:2007 for cosmetic GMP
    • Safety and technical standards for cosmetics (China GB/T 29665-2020)

    Typical usage ratio

    • 0.8–3.5 wt% of total surfactant actives, modulated by required foaming profile and finished product viscosity

    Downstream process integration

    • Introduced into aqueous phase during batch emulsification or saponification, or reacted with fatty acid chlorides/alcohols to generate bespoke zwitterionic surfactants

    Final product types

    • Sulfate-free facial foams
    • Pediatric cleansing formulations
    • Leave-on conditioners
    • Low-irritation personal washes

    4. Cationic Polymer Modification for Industrial Water Treatment

    Chemical manufacturers of cationic flocculants and specialty polymers employ this material to introduce long alkylamino side chains, improving flocculation and adsorption properties in industrial water purification. The controlled integration of this fatty amine enhances polymer hydrophobicity and charge density, which is critical for consistent sedimentation and contaminant binding in wastewater treatment installations.

    Industry compliance standards

    • NSF/ANSI 60 certification for drinking water treatment chemicals
    • EU Directive 98/83/EC on water quality for human consumption
    • ISO 9001:2015 quality management for water treatment chemicals
    • REACH registration for polymer and monomer sourcing

    Typical usage ratio

    • 0.2–1.5 mol% of introduced co-monomers within acrylamide or polyamine copolymerization reactions; loading dependent on target ion-exchange capacity

    Downstream process integration

    • Co-dosed during aqueous or emulsion polymerization, post-neutralization, or introduced by solution post-grafting using activation chemistry

    Final product types

    • Cationic flocculant granules
    • High-performance sludge dewatering agents
    • Industrial oil-water separation polymers
    • Textile and papermaking wet-strength additives

    5. Ceramide Analogue Production in Dermatological Raw Materials

    Advanced personal care and pharmaceutical ingredient manufactures apply this compound as a key starting material for tailored ceramide analogues and sphingolipid derivatives. Its structure permits chemical modification to yield bioidentical or next-generation skin barrier enhancers, supporting development of formulations for severe skin barrier dysfunction and cosmeceutical advancements.

    Industry compliance standards

    • EU Regulation (EC) No 1223/2009 on cosmetic products
    • ISO 16128 for natural and organic ingredient content
    • Safety certifications by Cosmetic Ingredient Review (CIR)
    • IFRA guidelines for raw material purity

    Typical usage ratio

    • 1–6 wt% as part of total lipid matrix in emulsion systems, based on clinical assessment for skin absorption and non-irritancy

    Downstream process integration

    • Chemically transformed via acylation or amidation into ceramide core, purified, and emulsified into oil-in-water or water-in-oil bases during final blending

    Final product types

    • Barrier-restoring dermatological creams
    • Pharmaceutical-grade wound healing balms
    • Premium facial serums with biomimetic lipids
    • Specialty skin protection ointments

    6. Custom Synthetic Lipid Synthesis for Analytical Standards

    Producers of analytical reference materials in pharmaceutical, clinical, and biochemical markets introduce 2-aminohexadecanoic acid as a primary alkylamino moiety for synthesizing authentication-grade lipid standards. This enables accurate quantification of complex biological lipids in regulatory-compliant laboratory workflows, ensuring instrument calibration meets method validation criteria.

    Industry compliance standards

    • ISO/IEC 17025:2017 for test and calibration laboratories
    • USP Reference Standards policy for pharmaceutical analytics
    • FDA Good Laboratory Practice (GLP) 21 CFR Part 58
    • ISO Guide 34 for reference material production

    Typical usage ratio

    • Used at 98–99.9% purity for final reference standard preparation; typical sample concentrations prepared at 0.01–1 mg/mL for analytical calibration

    Downstream process integration

    • Undergoes controlled chemical synthesis and purification, followed by blending with inert carriers, then aliquoted or lyophilized as certified CRM vials

    Final product types

    • Lipid standard kits for LC-MS quantitation
    • Synthetic ceramide analogues for QC method verification
    • Biomarker assay standards
    • Certified reference lipids for international method harmonization
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    Certification & Compliance
    More Introduction

    Introducing 2-Aminohexadecanoic Acid: Bringing Reliable Quality and Consistency to Specialty Synthesis

    Developing High-Purity 2-Aminohexadecanoic Acid for Demanding Applications

    As a chemical manufacturer with decades behind us, we’ve learned that details set one product apart from another. 2-Aminohexadecanoic acid, with the model reference AH1601, rarely shows up in everyday commodity trades, but among advanced material synthesizers and life science researchers, it earns a reputation for its impact. Providing this compound at high purity and maintaining consistent specifications across batches brings real challenges. Over time, we’ve refined our approach to every aspect of its production, from raw material choice to final quality release.

    Understanding the Product: Structure, Stability, and Handling

    Chemically, 2-Aminohexadecanoic acid—sometimes known by its systematic name—shares the familiar backbone of saturated amino acids, extended over a sixteen-carbon chain. This long tail differentiates it from its shorter homologues, such as 2-aminododecanoic acid, shifting its melting profile and solubility characteristics. Typically, our product appears as a white to off-white crystalline powder, with a melting range reflecting purity and trace residual solvents. Storage concerns tie closely to its amine group’s sensitivity: we package each batch in tightly sealed containers, using nitrogen flushing where extended shelf-life becomes important.

    During our years producing long-chain α-amino acids, we’ve noticed that any contamination—water, volatiles, or trace byproducts—causes downstream headaches for users. That’s why we implement extra purification beyond simple recrystallization. We focus on trace metal exclusion and minimize batch handling, since certain transition metals tend to catalyze unwanted decomposition if present even in low ppm. In our experience, careful attention at each stage of process isolation results in reproducible purity levels: typically over 98% by HPLC and matching NMR spectra. Analytical documentation accompanies each shipment, allowing our clients to cross-verify, especially for regulated fields like pharmaceuticals or biomaterials.

    Applications Shaped by Our Clients’ Needs

    Customers come to us for 2-aminohexadecanoic acid intending to solve specialized problems. We’ve supported teams synthesizing peptide analogues and peptidomimetics, where the long alkyl chain imparts unique properties in the resulting oligomers—often, increased hydrophobicity or membrane affinity. The demand stretches into surfactant research, where 2-aminohexadecanoic acid provides a bio-based starting point for developing cationic surfactants or ionic liquids. Researchers working on vesicle or liposome models appreciate the straightforward reactivity of the primary amine, which allows direct coupling to a range of activated or protected moieties.

    We know some clients trial substitutes, like 2-aminopalmitic acid sources from other manufacturers or attempt bulk synthesis in-house. The pitfalls surface quickly: inconsistent chain length, color impurities indicating oxidative stress, or difficulty dissolving material at standard conditions. Those issues often lead to batch failures or inconsistent bioactivity in sensitive projects. By working closely with teams converting 2-AHDA into advanced intermediates, we’ve adjusted our downstream purification checks, so polymer and bioconjugate researchers find reliable results. Sharing feedback straight from lab tests gives us a sharper edge than relying solely on published chemical handbooks.

    Specifications Matching Scientific Demands

    The 2-aminohexadecanoic acid we supply stands out for its purity profile, and clients quickly recognize this difference. Specifications based on our internal benchmark include:

    Packaging reflects the sensitivity of the product—double-sealed pouches within rigid containers for shipments crossing climates, or glass vials under inert gas for longer-term storage and small-volume research projects. We never add flow agents or anti-caking materials, since downstream reactivity may suffer; instead, batch granularity results from our drying and milling choices, tuned to customer feedback.

    Difference in Performance: What Sets Ours Apart

    Manufacturing at lab scale versus larger lots brings different priorities. With small-scale synthesis, operators can afford incremental purifications and extended hands-on control. But as batch sizes increase, risk of cross-contamination rises—odd colors, sticky residues, subtle odor shifts. In our own early days, we had runs where unnoticed pressure leaks introduced contaminants, and the learning curve was steep. Through detailed root cause analysis and investment in better environmental controls, those incidents now stay in the past.

    A key factor comes from our approach to raw materials. Sourcing high-purity hexadecanoic acid precursors, then using batch certificates to trace every lot, keeps variable inputs from clouding the final product. We also recognize how equipment neutrality matters. Proprietary reactor linings, designed for fatty acid chemistry, help maintain low extractables and prevent trace leaching. Our cleaning regime between batches borrows techniques from pharma-grade production—not always typical in basic chemical supply.

    Another dimension of difference reflects our openness to custom requests. Some users need micro-scale vials, while others require multiple kilos in tamper-evident drums. Through open dialogue and repeated trials, we’ve developed a responsive process for fulfilling both. Each time a researcher phones in after receiving a batch and spots an unexpected issue—appearance, texture, odor, or analytical value—we treat it as a fresh opportunity to improve rather than a routine complaint. Fast feedback loops into our production records, and staff take pride in delivering the next batch to even better specification.

    Meeting Global Research, Manufacturing, and Regulatory Challenges

    Shipping chemicals worldwide means more than putting sealed jars into sturdy crates. It brings challenges ranging from import documentation to customs scrutiny and temperature swings across continents. Through this experience, we’ve adjusted protective measures: vacuum sealing where moisture ingress risks hydrolyzing amino groups, nontransparent containers to guard against light-triggered oxidation, and explicit labelling matching Global Harmonized Standards. For bulk customers, full chain-of-custody records come as standard. Clients in regulated environments—pharmaceuticals or GMP-grade work—benefit from our archived batch samples and extended QA retention, which often outlast regulatory minimums.

    In emerging applications like biomedical device integration or as raw material for lipid-based drug carriers, clients want traceability and batch repeatability above all. By building decades of production data, we supply confidence backed by long-form documentation: not just a certificate but a trail of analytics, production logs, and retention samples. In the rare event a consistency question arises, our technical team provides insights drawn from those retained controls, supporting swift investigation and resolution. That level of support cannot be matched by traders or short-term resellers, who rarely keep extensive lot-level data or have real-time access to their own process history.

    Sustainability and Continuous Improvement

    In today’s world, sustainability concerns have changed how responsible manufacturers operate. Our feedstock sources have transitioned over the past years: sourcing plant-derived raw acids where possible, collaborating with upstream suppliers who share audited environmental commitments, and tracking carbon impact at every step. As global standards evolve, so do our procedures—whether it’s improving our solvent recovery, re-using mother liquors where purity isn’t impacted, or leveraging process intensification for energy savings. Sometimes these investments increase short-term costs, but they build long-term value and compliance.

    On-site, hazard controls stand at the forefront. We design process flow to minimize operator exposure and maintain dust-free environments for the most sensitive compounds. Wastewater treatment facilities on our premises remove harmful residues before environmental discharge. Feedback from local inspectors and certification bodies gets incorporated promptly, and ongoing audits underscore our commitment. The process of manufacturing 2-aminohexadecanoic acid becomes more reliable and robust every cycle, shaped by technological upgrades, customer requests, and regulatory progress.

    Challenges and Solutions: Lessons from Experience

    Manufacturing high-purity, long-chain amino acids presents a unique set of challenges. Synthesis routes involve protecting groups, controlled hydrolysis, and sequential purifications. Over the years, we’ve encountered bottlenecks—reactions that stall unexpectedly, material sticking in process piping, or difficulties scaling up from lab glassware to multi-kilogram reactors. Each incident required close collaboration with process engineers, chemists, and technicians. We experimented with alternative solvents, agitation patterns, and temperature ramps to resolve solubility or decomposition issues.

    Occasionally, client projects fail because of unrecognized product differences—one batch seemed fine, the next less soluble or displaying off-colors. Instead of blaming users, we investigated underlying causes. Analysis sometimes pointed to trace oxidation or unnoticed byproducts, leading to sharper process controls or tweaks in purification. By documenting every deviation and systematically testing improvements, we’ve reduced errors and saved clients from costly delays.

    Shipping logistics, too, brought surprises. Early experience revealed packaging failures as material caked or absorbed moisture. Working with logistics partners, we've moved to inert-gas-packaged units, desiccants, and sometimes double-wrapped containers, depending on route and climate. We tailor solutions based on where material heads and the time it spends outside client freezers. That hands-on approach keeps both the compound and our relationships in top condition.

    Supporting Scientific Progress Through Partnership

    Our mission goes beyond supplying 2-aminohexadecanoic acid as a simple commodity. Research teams want more than just “a spec-compliant powder”—they want predictability and trust. From custom analytical requests to troubleshooting reactivity hiccups, we answer swiftly. Analysts in our QA laboratory bring deep experience in method development, often collaborating directly with clients’ own scientists to design compatibility panels or simulate downstream conditions.

    We treat feedback not as static “customer satisfaction data,” but as real-time input into our continuous improvement cycles. When a biochemist describes a sensitivity or an unexpected reaction, our team listens, tests, and adapts. Clients working in next-generation materials science, pharmaceutical discovery, or chemical engineering find a technical partner, not just a supplier. Through personal exchanges, technical calls, and in-person meetings at conferences or client labs, both sides share in the end product’s success. That experience-based conversation teaches us more about how our product fits into the wider research landscape than any product data sheet possibly could.

    Looking Ahead: Adapting Together as Demands Change

    Science never stands still. Downstream users keep pushing the boundaries—new synthetic routes, tighter impurity tolerances, emerging applications in fields we couldn’t have imagined years ago. Manufacturing 2-aminohexadecanoic acid requires vigilance, investment, and humility. We stay connected to scientific publications, attend symposia, and remain members of relevant technical societies to keep our product line relevant.

    As more clients start integrating this compound into smart materials, drug delivery platforms, or custom surfactant systems, they ask fresh questions about atom economy, enantiomeric excess, or responsive functionalization. Each new question drives innovation in our laboratory, inspires upgrades in our plant, and shapes how we train our staff. We welcome those collaborations, knowing that today’s obscure amino acid may become tomorrow’s keystone reagent. In this industry, history rewards firms that learn and adapt with their clients.

    Commitment Built from Real-World Manufacturing

    Every gram of 2-aminohexadecanoic acid leaving our facility represents the efforts of skilled chemists, operators, engineers, lab analysts, and fulfillment staff. From sourcing raw materials with audited provenance, maintaining attentive controls at every stage, responding to client concerns, and continuously monitoring environmental impact—our commitment comes from direct experience, not remote management decisions. By focusing on reliability, responsiveness, and integrity, we deliver confidence in every batch. In specialized chemistry, those values mean far more than buzzwords. That’s what long-term partnerships with scientists depend on, and it’s what we deliver, day after day.