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N-Hexylamine Hydrochloride

    • Product Name N-Hexylamine Hydrochloride
    • Alias Hexylamine hydrochloride
    • Einecs 219-612-2
    • 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

    575959

    Product Name N-Hexylamine Hydrochloride
    Chemical Formula C6H15N·HCl
    Molecular Weight 137.66 g/mol
    Cas Number 2149-83-3
    Appearance White to off-white crystalline powder
    Melting Point 158-162°C
    Solubility In Water Soluble
    Odor Amine-like
    Ph Acidic (in aqueous solution)
    Storage Temperature 2-8°C
    Synonyms 1-Hexanamine hydrochloride
    Stability Stable under recommended storage conditions
    Purity Typically ≥98%

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

    Packing & Storage
    Packing N-Hexylamine Hydrochloride is supplied in a 100g sealed amber glass bottle with a tamper-evident cap and clear labeling.
    Shipping **N-Hexylamine Hydrochloride** is shipped in tightly sealed containers, protected from moisture and light. It is packed according to hazardous material regulations, with clear labeling and safety documentation. Transportation complies with local and international guidelines for chemicals, often requiring secondary containment and temperature control to ensure stability and prevent leakage or contamination.
    Storage **N-Hexylamine Hydrochloride** should be stored in a tightly closed container, in a cool, dry, well-ventilated area, away from moisture, heat, and sources of ignition. Keep away from incompatible substances such as strong oxidizers and acids. Store at room temperature, and protect from physical damage. Ensure proper chemical labeling and follow relevant safety protocols for storage and handling.
    Application of N-Hexylamine Hydrochloride

    Applications of N-Hexylamine Hydrochloride in Industrial Manufacturing

    N-Hexylamine Hydrochloride serves diverse and critical roles in multiple industrial manufacturing sectors, each governed by strict regulatory standards and driven by application-specific process requirements. As a direct chemical manufacturer, we supply this compound to established downstream sectors where its chemical properties address particular production demands. Below, we outline precisely how industry leaders integrate our material into actual manufacturing operations.

    1. Pharmaceutical Intermediate Synthesis

    Leading API producers employ N-Hexylamine Hydrochloride as a phase transfer catalyst and alkylating agent during key steps in the synthesis of specific antihypertensive and antidepressant intermediates. Its hydrochloride form offers precise stoichiometry for nucleophilic substitution reactions, facilitating controlled salt formation, which is fundamental to chemical purity and consistent batch quality.

    Industry compliance standards

    • ICH Q7 (Good Manufacturing Practice for Active Pharmaceutical Ingredients)
    • EU Regulation No 536/2014 on Clinical Trials
    • United States Pharmacopeia (USP) general chapter recommendations for API process chemicals
    • Chinese Pharmacopoeia (ChP) raw material requirements for pharmaceutical intermediates

    Typical usage ratio

    • Employed at 0.5%–2.5% molar equivalents relative to the primary substrate; selection depends on process scale and desired reaction selectivity.

    Downstream process integration

    • Introduced during the intermediate coupling step or final purification stage of active pharmaceutical ingredient (API) production, immediately following initial condensation or ring closure reactions.

    Final product types

    • Active pharmaceutical ingredient (API) intermediates for cardiovascular and central nervous system medications
    • Precursor salts for final API crystallization

    2. Specialty Surfactant Manufacturing

    N-Hexylamine Hydrochloride is valued for its role in the synthesis of cationic surfactants and emulsifiers, utilized by industrial formulators in textile and leather processing. Its well-defined amine structure improves charge characteristics and enhances the binding efficiency in formulations designed for softening, dye leveling, and antistatic treatments.

    Industry compliance standards

    • REACH Registration (EC 1907/2006) safety and documentation standards
    • OEKO-TEX® certification guidelines for auxiliaries in the textile supply chain
    • ZDHC Manufacturing Restricted Substances List (MRSL) for chemical management in textiles and leather
    • ISO 9001:2015 quality management for chemical process control

    Typical usage ratio

    • Added at 1.0%–4.0% w/w depending on fabric weight, bath volume, and specific textile processing objectives.

    Downstream process integration

    • Added during the aqueous or solvent phase of surfactant synthesis; subsequently blended into textile auxiliary concentrates before application in finishing and dyeing lines.

    Final product types

    • Cationic textile softeners and antistatic agents
    • Leather fatliquors and dye leveling auxiliaries
    • Specialty finishing emulsions

    3. Corrosion Inhibitor Production for Oil & Gas Wells

    Downstream formulators in the oilfield chemicals sector rely on N-Hexylamine Hydrochloride as a building block for amphiphilic salt-type corrosion inhibitors. Its appreciable affinity for steel surfaces at high salinity and temperature makes it a preferred choice to reduce pitting and scaling in subsurface assets and pipeline maintenance chemicals.

    Industry compliance standards

    • API Specification 682, 6th Ed. (mechanical integrity of process chemicals)
    • ASTM G170-18A (Corrosivity of Oilfield Chemicals)
    • NORSOK Standard M-501 (protective coatings and inhibitors for offshore systems)
    • ISO 14001:2015-environmental management for chemical additives

    Typical usage ratio

    • Formulated at 0.2%–1.0% w/w in liquid inhibitor bases. Ratio adjusted per brine strength, operational temperature, and metal surface exposure.

    Downstream process integration

    • Incorporated during the initial compounding of corrosion inhibitor blends, prior to emulsification or dilution for direct injection into wellheads and gathering lines.

    Final product types

    • Pigging chemicals and anti-corrosion packages for upstream oilfield operations
    • Pipeline flow assurance additives

    4. Electroplating Bath Additive for Metal Surface Treatments

    Specialist metal finishing plants utilize N-Hexylamine Hydrochloride as a grain refiner and brightener in electroplating baths, particularly for nickel or copper deposition on alloy parts. Its ability to mediate nucleation density results in smoother electroplated surfaces and improved adherence in automotive, aerospace, and electronics sectors.

    Industry compliance standards

    • ISO 4527:2014 (Electroplated coatings of nickel, specification, and methods)
    • RoHS (EU 2011/65) for restricted substances in electronics plating
    • Clean Water Act (CWA) effluent limitations for electroplating operations (U.S. EPA)
    • GADSL (Global Automotive Declarable Substance List) for metal finishing

    Typical usage ratio

    • Typical dosage from 15 to 150 ppm in plating bath; precise amount selected according to bath composition, desired thickness, and substrate alloy.

    Downstream process integration

    • Dosed directly into the electrolyte solution prior to current application, following final bath adjustment and QC checks, enabling consistent deposit morphology across production runs of precision parts.

    Final product types

    • Decorative and functional nickel-plated fasteners
    • Connector pins and contacts for electronic assemblies
    • Anti-corrosive copper sheathings for automotive brackets

    5. Ion Exchange Resin Manufacturing

    Producers of strong-base ion exchange resins incorporate N-Hexylamine Hydrochloride as a functionalizing agent to introduce alkyl groups during resin bead amination. The specificity of its alkyl chain modifies the hydrophobic/hydrophilic balance, optimizing resin selectivity for industrial water purification and pharmaceutical-grade deionization applications.

    Industry compliance standards

    • NSF/ANSI 61 (standard for drinking water system components)
    • 21 CFR 173.25 (FDA approvals for ion exchange resins in food use)
    • EN 1508:1997 (European Standard for treatment of water for human consumption)
    • ISO 9001:2015 (manufacturing quality management systems)

    Typical usage ratio

    • Typically used at 2.5%–6.0% relative to base resin charge; dosage determined by target exchange capacity and degree of functionalization required by client specification.

    Downstream process integration

    • Applied during the post-polymerization functionalization phase, usually by wet impregnation of pre-activated styrene-divinylbenzene copolymer beads, followed by thorough washing and quality control assay.

    Final product types

    • Mixed-bed deionization resins for high-purity water systems
    • Chromatography packing materials for pharmaceutical separation
    • Water softening cartridges for laboratory and industrial use
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    Certification & Compliance
    More Introduction

    N-Hexylamine Hydrochloride: Reliable Synthesis, Consistent Results

    Manufactured Quality: The Real Story Behind Our N-Hexylamine Hydrochloride

    In chemical manufacturing, shortcutting steps or skimping on purity has consequences. From corrosion in equipment to downstream contamination in pharma-grade syntheses, we see what happens when a supplier underestimates how subtle impurities knock off an entire batch. N-Hexylamine Hydrochloride brings together lessons learned across years chasing single-digit ppm purity: tightly controlled reaction conditions, solid process QA, and internal analytics that go further than commercial HPLC specs.

    Our N-Hexylamine Hydrochloride, produced at scale in fully enclosed reactors, consistently achieves the clear, off-white crystalline form chemists expect. This takes more than running a reactor and sending off a COA. Each campaign, our operators monitor for color and odor deviations, trace organics by GC, and keep water content in check through Karl Fischer titration. Consistency over hundreds of vessels comes from keeping batch records open for review. Customers call us when they find less disciplined products drifting batch-to-batch—one order melting at 246°C, a later one at 242°C. Predictability makes all the difference for bench scientists and plant engineers both.

    Why Purity Levels Matter for N-Hexylamine Hydrochloride

    The small amine functional group in N-Hexylamine Hydrochloride offers versatility: people use it as an alkylating agent, a corrosion inhibitor, a pharma intermediate, and in surfactant production. Every downstream application, from custom syntheses to large-scale API builds, exposes shortcuts that go unnoticed at first glance. Our standard model comes as a minimum 99% pure, targeting trace inorganics and secondary amines below 0.1%. Some projects ask for tighter controls against genotoxic impurities, especially for pharma or electronics. Years in the lab taught us the headaches—iron at 10ppm rusts expensive reactors, yellowing betrays over-oxidized product, detectable secondary amines mean a spent acid wash, not an actual synthetic byproduct.

    Low-level water contamination, below the visible hydrate formation, shifts reaction rates and can ruin months of work. That’s why we keep our process tightly enclosed from initial amination to the final HCl addition and drying. Whether for gram-scale coupling agents at the bench or hundreds of kilos for pilot plant reactions, every client counts on getting exactly what’s ordered, not fading to gray over time in the warehouse.

    Process Transparency: What We Watch in Each Batch

    Grading bulk N-Hexylamine Hydrochloride by crystal habit isn’t enough. After years accepting returns because “the crystals looked off,” we learned to document every step from raw material to final packaging. Our lab developed baseline profiles for N-hexylamine, making it possible to spot aberrant impurity peaks that would slip through generic testing. End users now ask for our in-house spectral libraries—something no commodity house will share. After all, scientists want the confidence that the compound behaves as a known entity with reproducible performance.

    Every kilogram receives analysis across three categories: free amine content, chloride levels, and trace oxidation products. Failing any one of these doesn’t mean rework; it means stripping down to raw starting amine, revalidating the full synthetic route, and retesting from scratch. That approach comes from a long experience: easier to lose a batch than lose the trust of customers working on critical pipelines or high-stakes synthesis.

    Difference from Bulk Hexylamines and Commodity Hydrochloride Salts

    The chemical market overflows with bulk amines and their hydrochlorides. N-Hexylamine Hydrochloride stands apart from cheaper, less regulated cousins—like n-butylamine hydrochloride or triethylamine hydrochloride—in multiple ways. Field experience shows customers face recurring surprises when sellers ship mislabeled or cross-contaminated lots. Ten years ago, we accepted a large lot from an outside blender and discovered, by simple titration and odor, that the product lifted traces of longer-chain amines, souring batch reproducibility for one of our best clients. Since then, we control every sourcing, blending, and purification step under one roof.

    We’ve noticed some clients try to substitute mixed linear alkyl amine salts, only to find side reactions or off-spec API intermediates. The purity of N-Hexylamine Hydrochloride makes a difference—no C5 or C7 fractions lurking in the mix. For high-throughput research where every variable matters, those details can define project success. On the production side, even modest impurities foul up heat exchangers and filtration units, leading to hidden costs far beyond raw price per kilo.

    Suitability for Pharmaceutical and Industrial Processes

    Pharmaceutical projects accept little margin for error, especially with impurity profiles. As the starting amine for select antihistamine or anticancer candidates, the hydrochloride salt demands traceable documentation and low bioburden—requirements we’ve grown accustomed to satisfying after years working with GMP-certified operations. We know compliance doesn’t come from a certificate alone. Each batch heading toward regulated production gets additional tests for heavy metals and residual solvents, not just for regulatory peace of mind but because downstream purification rarely removes what careless manufacturing introduces.

    Industrial-scale users have different needs: corrosion resistance in lubricants, surfactant synthesis, and even gas absorption systems. Here, technical-grade product reliability matters most. Minimal caking, low dust fines, and consistent bulk density bring steady feed rates in pneumatic systems or dense-phase conveyors. We learned this after consulting directly with operators running night shifts—if product jams up or compacts, downtime eats margins. Informal conversations with process engineers have sharpened our shipping practices, helping us move from semi-bulk drums to consistent, sealed big bags now favored by larger plants for storage stability and dust control.

    Production and Handling Insights

    Working with N-Hexylamine Hydrochloride teaches appreciation for details overlooked in theory. Amine hydrochlorides, by their nature, pick up atmospheric water and can form sticky clumps if stored in open air. We saw more than one warehouse struggle with caked barrels that slowed downstream transfer and had to get the basics right: moisture-proof packaging, rapid fill-and-seal right off the drying line, and shipment with desiccant packs as insurance.

    Our staff encounter the realities of end-use—stability at changing warehouse temperatures, the occasional need for custom sieving, or handling requests for lot-specific impurity profiles for process validation. Real partnerships form not from a product code or a line in a catalog but from working through a client’s actual use pattern. That philosophy stems from years spent investigating complaints, tracing batch discrepancies, and collaborating to keep projects on track, even if that means overnight analytical work or reshipping a new lot.

    Analytical Data Our Clients Depend On

    In the lab, our QC specialists collect not just basic melting point and chloride titration numbers but also run FTIR scans, GC-MS assays, and loss-on-drying after stabilization. These results build a statistical record kept in our in-house data system—so frequently, a chemist calls up historical data and compares peaks or impurity profiles for process troubleshooting. Our system isn’t designed for surface-level audits. It’s a living history of how our materials perform for customers under actual conditions: glassware versus steel, vacuum versus atmospheric pressure, and variable humidity.

    That data tells stories: a pharma partner notices a trace side peak and requests the chromatogram overlay for their previous lot, or a coatings manufacturer correlates slight color changes to ambient summer storage in hot climates. We answer not with platitudes but with the actual runs, spectra, and trace element breakdowns that resolve technical questions, helping to fine-tune both our process and customer workflows. That level of engagement comes from years of seeing how “almost good enough” materials fall short at scale.

    What We’ve Learned: End-User Feedback Shapes Manufacturing

    Feedback from our customer base—a cross-section of bench chemists, process engineers, and production managers—drives real improvements. More than once we traced an off-specification note to handling rather than chemistry, prompting us to redesign packaging or optimize logistics. For pharmaceutical projects in humid climates, our teams designed a new laminar-flow packaging area, moved sealed product directly from drying lines, and shortened time to shipment. Industrial clients, frustrated by inconsistent flow, pushed us to reevaluate anti-caking agents and develop a proprietary blend that resisted compaction without introducing trace contaminants.

    This direct, hands-on approach continues to prove its value year after year. Chemists who report reactivity shifts due to minor impurity levels have pushed us to lower detection limits, tighten supplier audits, and invest in better instrumentation. Our most demanding clients often turn into collaborators, beta-testing new packaging or helping to refine reaction conditions for more efficient downstream conversions.

    Reducing Supply Risks: Internal Control Over Sourcing and Synthesis

    Laboratory and industrial scale-up both suffer when the supply of a key intermediate stalls without warning. Sourcing N-Hexylamine Hydrochloride from secondary or offshore traders creates this risk frequently: mixed bulk amines arrive with suspicious odors, shifting impurity profiles, or variable crystal morphology. Early on, we relied on third-party intermediates and saw real financial losses—batches scrapped, process lines contaminated, solvent recovery complicated by unknown matrix effects.

    To address these issues, our plant invested in full vertical integration for N-Hexylamine Hydrochloride. This allowed us to standardize starting material sourcing, eliminate hidden byproduct contamination, and maintain complete batch traceability. Real traceability isn’t marketing; it’s the ability to pull archival analytics and demonstrate, from raw amine to final test, that each lot is what the label claims. The first time a pharmaceutical client audited our records, they saw every production stage documented and material samples retained for post-shipment queries. Internal controls mean less risk for every chemist and engineer depending on delivery time, repeatable performance, and no surprise batch-to-batch variability.

    Comparing N-Hexylamine Hydrochloride to Other Amine Salts in Practice

    Some buyers ask whether less expensive or more commonly available amine hydrochlorides—say, ethylamine or octylamine hydrochloride—stand in just as well. Through practice, we helped customers understand unique features of N-Hexylamine Hydrochloride: intermediate chain length confers a stable balance of reactivity and hydrophobicity absent from shorter or longer-chain variants. In active pharmaceutical ingredient synthesis, this translates to more predictable yields and lower side-product formation. For corrosion prevention or surfactant work, the C6 chain brings the right solubility and interfacial tension modification that doesn’t appear with either straight short-chain or branched amine salts.

    A few times, industrial clients tried switching to mixed-cut amine hydrochlorides for gasket applications or paraffin inhibitors, only to discover higher maintenance from fouling and inconsistent protective films. Our process data and user trials confirm: material choice ripples forward, often causing more rework, downtime, or troubleshooting if the profile doesn’t match precise system needs.

    Final Thoughts: Manufacturing with Accountability and Vision

    The culture in our production plant revolves around accountability—to ourselves and to the customers who keep their trust with every order. We learned from early mistakes. Chasing volume without control only led to rework, complaint calls, and lost client confidence. Now, our operations revolve around full process control, fine-grained analytics, and direct engagement with users at every stage, from quotation through to the end of a lot’s useful life.

    N-Hexylamine Hydrochloride isn’t just another commodity. It plays a critical role in high-value chemical and pharmaceutical syntheses, as well as in advanced industrial formulations, where the cost of impurity and inconsistency far outweighs the raw material price. Our commitment to tight process control, analytical transparency, and customer feedback helps bridge the gap between lab needs and plant realities.

    Whether you’re accelerating a synthesis route, designing a new batch process, or addressing logistical and technical challenges, we keep adapting. True quality comes not from abstract compliance but from learned experience, iterated improvements, and an unwavering commitment to making sure every lot that leaves our doors delivers the performance our customers expect—and more.