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1-Dodecyl Pyridinium Chloride Hydrate

    • Product Name 1-Dodecyl Pyridinium Chloride Hydrate
    • Alias N-Dodecylpyridinium chloride
    • Einecs 274-168-4
    • 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
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    Specifications

    HS Code

    199548

    Product Name 1-Dodecyl Pyridinium Chloride Hydrate
    Chemical Formula C17H31ClN·xH2O
    Molecular Weight 287.89 g/mol (anhydrous)
    Cas Number 2175-46-6
    Appearance White to off-white crystalline powder
    Solubility Soluble in water and alcohol
    Melting Point 80-85°C (variable depending on hydration)
    Density 1.02 g/cm3 (approximate)
    Odor Characteristic
    Storage Conditions Store at room temperature, keep tightly closed and dry
    Ph 5.0-7.0 (1% aqueous solution)
    Synonyms Laurylpyridinium chloride hydrate

    As an accredited 1-Dodecyl Pyridinium Chloride Hydrate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 1-Dodecyl Pyridinium Chloride Hydrate is packaged in a 100g amber glass bottle with a tight-seal cap, labeled for laboratory use.
    Shipping 1-Dodecyl Pyridinium Chloride Hydrate is shipped in tightly sealed, chemical-resistant containers to prevent moisture absorption and contamination. It is packed according to regulatory guidelines for corrosive substances, with proper labeling and documentation. Shipping typically includes secondary containment and cushioning to minimize spillage or breakage during transit.
    Storage **1-Dodecyl Pyridinium Chloride Hydrate** should be stored in a tightly sealed container, in a cool, dry, well-ventilated area, away from incompatible substances such as strong oxidizers. Protect from moisture and direct sunlight. Ensure that the storage area is clearly labeled and equipped with appropriate spill containment. Always handle with suitable personal protective equipment to prevent skin and eye contact.
    Application of 1-Dodecyl Pyridinium Chloride Hydrate

    Applications of 1-Dodecyl Pyridinium Chloride Hydrate in Industrial Manufacturing

    As a specialized chemical raw material producer with extensive expertise in the synthesis and quality control of cationic surfactants, we supply 1-Dodecyl Pyridinium Chloride Hydrate to manufacturers operating in established high-value downstream segments. Our material consistently meets critical performance, compliance, and production integration requirements in each sector. Below, we detail key industrial application scenarios and precise integration protocols based on verified supply chain usage.

    1. Industrial Water Treatment Biocides

    Industrial facilities depend on powerful antimicrobial agents to control biofouling and hazardous microorganisms in process water and cooling systems. Our material features rapid bactericidal properties targeting Gram-positive and Gram-negative bacteria, minimizing microbial-induced corrosion and maintenance cycles in recirculating water circuits. Customers typically dose during routine system charging or as a shock treatment in closed-loop and open-loop systems following water analysis, and our quality assurance adheres to major environmental and industrial water safety protocols for biocidal use.

    Industry compliance standards

    • U.S. Environmental Protection Agency (EPA) FIFRA regulations for industrial biocides
    • European Union Biocidal Products Regulation (BPR, Regulation (EU) 528/2012)
    • China’s GB/T 26367 for industrial circulating cooling water treatment chemistry
    • Relevant ISO 9001:2015 QC management in biocide manufacturing

    Typical usage ratio

    • 0.5–2.0 ppm as active ingredient, dosed based on microbial counts, make-up water condition, and fouling rate monitoring

    Downstream process integration

    • Dosed directly into water circuits during commissioning or shock dosed during maintenance shutdowns
    • Integrated at points of maximum circulation or where biofilm is detected using inline dosing pumps

    Final product types

    • Industrial cooling tower water
    • Process water recirculation fluids (chemical, textile, steel, power generation)
    • Closed-loop system maintenance fluids

    2. Oral Care Antiseptic Formulations

    Global oral care product manufacturers utilize our compound as a cationic antibacterial agent to inhibit dental plaque and gingivitis in mouthwashes and oral sprays. Its proven spectrum against oral pathogens and high compatibility with typical oral care excipients ensures stability and efficacy throughout shelf life. Brands carefully calculate the concentration to balance microbial control and consumer safety according to pharmacopeial and regulatory limits, incorporating the active in the secondary blending stage post deionized water addition and prior to final flavor and sweetener adjustments.

    Industry compliance standards

    • U.S. Food and Drug Administration (FDA) OTC Monograph for Oral Healthcare
    • European Medicines Agency (EMA) requirements for oral antiseptics
    • United States Pharmacopeia (USP) monograph relevant to oral care antiseptics
    • ISO 22716:2007 (Cosmetics GMP) for manufacturing hygiene

    Typical usage ratio

    • 0.01–0.05% by weight, adjusted according to local regulatory maximums and efficacy targets against Streptococcus mutans and Actinomyces species

    Downstream process integration

    • Added during homogenization after main solvent system is prepared, before sensitive flavor compounds to prevent antimicrobial deactivation
    • Followed by in-process stability testing and micro-load validation prior to filling

    Final product types

    • Alcohol-free mouthwash
    • Medicated oral rinse for dental clinics
    • Antibacterial oral spray products

    3. Dairy Equipment and Food Contact Surface Sanitizers

    Dairy processors and plant hygiene solution suppliers value our material’s efficacy in cleaning-in-place (CIP) formulations aimed at reducing microbial load on steel, polymer, and elastomer surfaces that encounter direct food contact. The compound’s rapid action against Listeria, Salmonella, and spoilage bacteria allows for validated contact time compliance, with application concentrations set according to residue and rinseability testing. The surfactant is typically blended with adjunct quaternaries or chelating agents in the bulk mixing stage, then distributed as a ready-to-use or concentrated food-contact sanitizer as regulated by local authorities.

    Industry compliance standards

    • U.S. FDA Food Contact Sanitizer approvals (21 CFR 178.1010)
    • European Food Safety Authority (EFSA) food contact material notices
    • Codex Alimentarius CAC/RCP 1-1969 (Hygiene Practice for Milk and Milk Products)
    • Hazard Analysis and Critical Control Point (HACCP) certification processes

    Typical usage ratio

    • 100–250 mg/L in working solution, with concentration set by validated kill time and rinse optimization tests

    Downstream process integration

    • Metered into CIP systems during detergent cycle or terminal rinse step
    • Formulated in concentrate blends for on-site dilution by plant hygiene teams

    Final product types

    • Dairy equipment sanitizer concentrate
    • Ready-to-use food processing surface sprays
    • Food-safe cleaning foams for conveyors and tanks

    4. Cosmetic Preservatives for Leave-On and Rinse-Off Products

    Cosmetic manufacturers incorporate our compound as a preservation agent in emulsions, lotions, and aqueous gels, where it inhibits bacterial and mold growth without compromising sensory feel or finished product stability. Its application supports extended shelf life under variable consumer storage conditions and complies with international cosmetic regulations. Formulators introduce the raw material at the cool-down phase after emulsion formation to ensure temperature-sensitive actives retain stability, and compliance teams verify preservation challenge tests prior to batch release. The concentration responds to total water content, finished pH, and anticipated product usage cycle.

    Industry compliance standards

    • EU Cosmetic Regulation (EC) No 1223/2009 Annex V
    • U.S. FDA CFR Title 21 for cosmetic ingredients
    • ASEAN Cosmetic Directive (ACD)
    • ISO 29621:2017 (Guidelines for preservatives in cosmetics)

    Typical usage ratio

    • 0.02–0.1% by weight, tailored to microbial challenge profiles and in vitro safety margins of each formulation

    Downstream process integration

    • Added post-emulsification during cool-down to preserve integrity of thickeners, colors, and sensitive bioactives
    • Integrated with other co-preservatives as necessary to broaden spectrum and meet minimum inhibitory concentration targets

    Final product types

    • Facial and body creams
    • Rinse-off cleansing gels
    • Aftershave lotions and tonics

    5. Antimicrobial Additive for Polymer Masterbatches

    Polymer compounders and masterbatch manufacturers use our quaternary compound to provide built-in antimicrobial properties to extruded plastics for healthcare, appliance, and food packaging sectors. The material withstands typical thermoplastic processing temperatures and continues to deliver biostatic action through the finished product life cycle. Manufacturers pre-mix the additive with carrier resins and choose concentration based on polymer type, final thickness, and microbial exposure risk, performing migration and stability studies prior to commercialization to meet end-use safety norms.

    Industry compliance standards

    • U.S. EPA and FDA (21 CFR 177, polymer additives)
    • EU Plastics Regulation (EC) No 10/2011 (food contact plastics)
    • Japanese Food Sanitation Law (Polyolefin/Polyvinyl Chloride utensils and containers)
    • Quality control per ISO 9001 and migration testing per ISO 17025 accredited methods

    Typical usage ratio

    • 0.5–1.5% by resin weight, adjusted per polymer matrix, required antimicrobial durability, and processing heat profile

    Downstream process integration

    • Dispersed in carrier resins during masterbatch production prior to compounding and pelletization
    • Extruded into films, slabs, or profiles through standard thermoplastic molding equipment

    Final product types

    • Antimicrobial hospital bed rails and devices
    • Food packaging films and containers
    • Household appliance touch surfaces

    6. Laboratory and Hospital Hard Surface Disinfectants

    Healthcare product formulators and professional cleaning suppliers rely on our material’s rapid and persistent bactericidal performance for disinfectant liquids used on laboratory benches, surgical tables, and noncritical medical equipment. Addition occurs during the final blending stage after all solvents and surfactants have been loaded, with dosing designed to satisfy residual activity in the presence of organic soil. Finished product lines must demonstrate regulatory-mandated log reductions of target organisms in validated test methods and maintain safety for routine daily use in sensitive environments.

    Industry compliance standards

    • U.S. EPA List N: Disinfectants for Use Against SARS-CoV-2
    • EN 13697 (European surface disinfectant efficacy)
    • AOAC Use-Dilution and Hard Surface Carrier Test protocols
    • Local Ministry of Health and CDC/WHO cleaning guidelines

    Typical usage ratio

    • 0.08–0.13% by solution volume, set by log reduction targets for Staphylococcus aureus and Pseudomonas aeruginosa

    Downstream process integration

    • Dosed at the final blending stage, followed by pH adjustment and bottling under GMP-controlled filling lines
    • Packaged as ready-mix or concentrate for dilution by professional staff

    Final product types

    • Laboratory surface disinfectant liquid
    • Hospital-grade hard surface sprays
    • Disinfection wipes for professional and institutional use
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    Certification & Compliance
    More Introduction

    1-Dodecyl Pyridinium Chloride Hydrate: Delving Into Its Qualities and Importance in Daily Manufacturing

    Working with 1-Dodecyl Pyridinium Chloride Hydrate Day In, Day Out

    In chemical manufacturing, certain compounds pass through the plant without much fanfare, while a few stand out for pushing process forward and supporting diverse industry needs. 1-Dodecyl Pyridinium Chloride Hydrate, known on our lines as DPC-Hydrate, fits the bill. Over years of scale-up and optimization, the reliability and versatility of this single product have made it a staple on our shop floor, from the large glass reactors to spray-dryers humming late into the night.

    The core molecule – a pyridinium ring married to a twelve-carbon aliphatic chain, topped with a chloride counterion and a degree of hydration – offers surface activity beyond basic cationic surfactant properties. The hydrate form doesn’t just support shelf stability; it also improves the handling and flow, especially in bulk transport and downstream application.

    Understanding the Model: Purity, Form, and Handling

    Out in the warehouse, we keep DPC-Hydrate in tightly-sealed fiber drums, layered with moisture-protective barriers. Each batch leaves the final dryer with purity levels routinely above 98%, confirmed by titration and NMR checks. Part of the focus in our facility goes into achieving uniform granular sizing. The right hydrate state prevents unwanted caking and eases metering into formulators’ mixing tanks.

    Chemical workers notice the difference during the weighing step. This hydrate holds minimal static, runs freely on the scales, and resists sticking to scoops – small details that stop delays mid-shift. Years ago we worked with a fully anhydrous variant, and the headaches from clumping and dust clouds were enough to make anyone appreciate the hydrated format. Workers breathe easier (literally) now.

    Application Scope—Not Just a Lab Specialty

    In production, DPC-Hydrate appears first as a suggested cationic surfactant, but its real-world roles stretch out beyond that simple label. We supply this compound for three primary markets: antiseptic formulations, industrial water treatment, and specialty coatings. Each one asks for different tweaks and attention to quality metrics.

    Hospitals use DPC-Hydrate derived antimicrobials in hand scrubs and surface disinfectants. The molecule’s strong interaction with bacterial membranes leads to reliable activity, supporting infection control aims. Process-wise, we work to deliver tight control over impurities and trace contaminants, since medical formulators audit every part per million. Batches destined for these users receive the most scrutiny and go through extra filtration and validation steps.

    Paint and coating manufacturers look for long-term preservation and dispersion power in additives. Here, DPC-Hydrate steps in as an anti-mold agent and helps synergize other preservative strategies. Quality teams notice fast wetting and dispersion when added to water-based systems.

    In water treatment, plant operators benefit from DPC-Hydrate’s ability to disrupt biofilms and assist with scaling control. This leads to longer system uptime and fewer maintenance stops. Field technicians relay back if dosing skids jam or react badly, so quality means more than passing COA numbers; it means steady performance in harsh, real-world conditions.

    How DPC-Hydrate Sets Itself Apart from Analogues

    We make and test a whole catalog of pyridinium and quaternary ammonium-based chemicals. Over the years, it became clear that not every surfactant works the same way under production stress. DPC-Hydrate’s high carbon count (twelve, for any chemists reading) generates a more robust surface activity than most shorter-chain analogues, especially in hard water or high-contaminant environments. Chemists on our team report that the hydrated form not only resists caking but also disperses faster in both polar and certain nonpolar systems. Side-by-side trials reveal this hydrate maintains stable solutions in a wider range of temperatures and salt concentrations.

    Compare this with the shorter-chain pyridinium chlorides. These bring less surface activity and weaker antimicrobial punch. Certain quaternary ammonium compounds do offer even stronger action or broader compatibility, yet the cost and handling hazards rise. DPC-Hydrate hits a middle ground: performance meets safety, and cost remains reasonable for customers running tallies by the drum, not the gram.

    Anhydrous forms do see occasional interest from industries where every bit of water must stay out. Still, we see complaints about dust formation and dosing unreliability. It didn’t matter if operations added humidity control; once moisture touched anhydrous powder, clumping returned. Our hydrated material returns the stable performance customers trust.

    The Manufacturing Perspective: Reliability isn’t Boring, It’s Critical

    Daily production of DPC-Hydrate doesn’t grab headlines, but reliability defines success. Our team watches for small parameter shifts: pH, drying chamber flow, feed solution concentrations. Any deviation, and clumping or off-color batches remind us that precision isn’t for show – it keeps downstream systems running and customers happy. Last year, a pilot run attempt aimed for ultra-high throughput but led to subtle drop in purity. Commercial partners detected a trace increase in byproducts, and we circled back to adjust filtration and recrystallization steps. The iterative cycle of scale, test, and tune drives improvements others might overlook.

    Quality teams go beyond just checking numbers. They spend hours comparing lot-to-lot color, texture, and ease of blending. Some of these traits don’t land on a certificate but mean everything to a formulating chemist down the line. We build feedback loops on these qualitative factors as much as the simple lab results.

    Trace analysis forms another foundation for credibility. In-house labs check for residual solvents, chlorine content, and organic byproducts. Electronic balances and autosamplers work overtime so no off-spec drum slips through, even for small contracts.

    Building Trust Through Traceability and Responsiveness

    Commitment to traceability separates manufacturers from brokers or traders. Every bag and drum of DPC-Hydrate can be traced back to details on raw material lots, process batch data, operator shifts, and testing logs. Our team doesn’t consider this paperwork; it’s an operational necessity that gives partners, especially those in pharma and biotech, peace of mind.

    Our long-term partners often face emergencies where a reformulation or supply chain disruption hits. We keep safety stock of DPC-Hydrate on-site, so a production manager who suddenly doubles a monthly order isn’t met with a blank stare. Maintaining this buffer absorbs market shocks for downstream formulators.

    Rapid response relies on having experienced technical staff ready to troubleshoot. Should a formulator run into unexpected haze or precipitation with a new lot, we pull product retains, run side-by-side bench blends, and if needed, send our team on-site to investigate. This feedback doesn’t always lead straight to DPC-Hydrate as the culprit; it might uncover issues in mixing protocol or sourcing of auxiliary raw materials. No matter the root cause, direct manufacturer support means less downtime and faster resolution for the customer.

    Dealing with Regulations and Safety in the Plant

    Every market demands compliance with varying regional regulations, and DPC-Hydrate carries particular attention in the EU, North America, and East Asia. Each registration or update brings another round of stability testing, toxicology data collation, and impurity analysis. It often means staying ahead of constantly-shifting lists of allowable preservatives and surfactants in personal care or household chemical products.

    Manufacturing for regulated markets pushes us to keep SDS (Safety Data Sheets) current, with full toxicology profiles and labeling instructions. Each drum includes barcodes tied back to batch-level certificates of analysis. Auditors check cleaning logs for equipment, operator attendance records, and maintenance logs for reactors handling DPC-Hydrate. No single step can slack off, since regulatory inspections rarely follow a predictable schedule.

    For plant operators, handling DPC-Hydrate involves using dust masks and chemical-resistant gloves. Spills get cleaned fast, since the compound’s cationic nature leads to persistent slipperiness on floors. In hot, humid months, the hydrate’s flowability remains a comfort, since we don’t have to fight compacted cakes or airborne dust clouds.

    Customers Drive Improvement, Not Just Markets

    The best ideas for improvement rarely spark from behind conference tables or sales decks. Routine conversations with frequent users point out what really matters. One long-term customer, running a continuous blend for surface cleaners, shared that minor grind size variations in DPC-Hydrate slowed micro-batch dissolving steps. We revisited our sieving and screening, adding an ultrasonic sifter to keep sizing narrow. Feedback turned into tangible plant changes, which in turn led to a more consistent product for everyone down the line.

    Regular visits to customer plants teach us more about how DPC-Hydrate interacts with real-world systems. Engineers bring samples of their process water, and we match blend tests to their conditions – calcium, magnesium, and chloride concentrations all factor in. These extra miles help us recommend dosing levels that match actual need, not just textbook calculations. It also means catching edge cases before they turn into bigger headaches.

    Environmental Considerations and Ongoing Responsibility

    Manufacturers play an outsized role in lifecycle footprints. DPC-Hydrate, like any cationic surfactant, poses aquatic toxicity issues if discharged untreated. We’ve partnered with local treatment facilities and academic labs to study breakdown pathways, especially as regulations tighten globally around quaternary and pyridinium compounds.

    In-house development teams review greener processing aids and biodegradable alternatives for certain process steps, aiming for less overall solvent use and more water-efficient purification. Recent campaigns focus on solvent recovery during crystallization, with target reductions set by plant supervisors, not distant managers. These changes deliver steady progress, even if incremental on a daily basis.

    At the disposal stage, customers rely on thorough guidance for wastewater management, since DPC-Hydrate’s strong surface activity can disrupt municipal treatment. The technical support team collects discharge data, partners with third parties for advanced oxidative treatment tests, and keeps customers updated on best practices and regulatory changes.

    The Human Touch in Everyday Manufacturing

    Every product batch gets finished off by real hands and eyes – weighing, scooping, testing, labeling. These moments, repeated hundreds of times a month, bring familiarity and continuous learning. Operators know the right sound of pouring, the look of freshly-dried hydrate, the subtle color shifts of a perfect batch. These instincts catch issues earlier than automation alone, and their pride shows in the feedback from satisfied formulators.

    Training the next generation of plant workers means sharing these details, not just setting them loose with printed protocols. Walking the line together, showing the difference between an on-spec and off-spec drum, passes on what makes DPC-Hydrate work smoothly in factories worldwide.

    Looking Ahead – Continuous Innovation Without Losing Sight of Core Values

    The market for specialty surfactants and antimicrobials keeps shifting faster than many expect. Nonionic blends, enzyme-based disinfectants, and biodegradable options arrive each quarter. DPC-Hydrate’s place persists due to proven reliability, handling ease, and a safety record that continues to stand up to audit after audit. Each year we revisit our finishing steps, raw material sourcing, and in-process checks for even marginal improvements. Continuous investment in plant infrastructure, sampling technologies, and staff training supports these gains.

    What won’t change is the foundation built with every drum shipped out our doors. Each batch of DPC-Hydrate carries the weight of years spent dialing in the process, solving countless production headaches, and building trust with customers managing their own process risk. That history pushes us to keep raising the bar, never letting routine slip into complacency.

    Final Thoughts on Daily Life with DPC-Hydrate

    Hands-on experience with 1-Dodecyl Pyridinium Chloride Hydrate shows the distinction between a mere product and a hardworking partner in downstream systems. Locker rooms and control rooms alike trade stories about “good” and “bad” batches, and word gets around fast when a material makes life easier – or harder – for production teams. We don’t just monitor data points; we build in feedback from the field, adapt to real conditions, and stay open to change.

    Manufacturing demands consistency, adaptability, and accountability. Whether DPC-Hydrate finds its way into critical hospital disinfectants, protective coatings, or industrial process streams, each batch echoes the lessons learned in plant bays and QC labs. Our story with DPC-Hydrate keeps unfolding, shaped by people, feedback, and the drive for excellence. In the end, that’s what makes this compound more than just a name on a drum.