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N-Butylpyridinium Dicyanamide

    • Product Name N-Butylpyridinium Dicyanamide
    • Alias [BPY][DCA]
    • Einecs 608-134-2
    • 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
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    Specifications

    HS Code

    938930

    Cas Number 259041-43-1
    Molecular Formula C13H18N6
    Molar Mass 258.33 g/mol
    Appearance Colorless to pale yellow liquid
    Density 1.05 g/cm3
    Melting Point -48 °C
    Boiling Point Decomposes before boiling
    Solubility In Water Miscible
    Ionic Liquid Status Yes
    Odor Mild characteristic odor

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

    Packing & Storage
    Packing 500g of N-Butylpyridinium Dicyanamide is supplied in a tightly sealed amber glass bottle with clear hazard and handling labels.
    Shipping **Shipping Description for N-Butylpyridinium Dicyanamide:** Ensure the chemical is packaged securely in tightly sealed containers. Ship under ambient conditions with appropriate labeling, according to local, national, and international regulations. Avoid exposure to heat, moisture, and incompatible substances. Include safety data sheet (SDS). Handle only by trained personnel during transport to prevent leaks or spills.
    Storage N-Butylpyridinium Dicyanamide should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from direct sunlight and moisture. Keep it away from incompatible materials such as strong oxidizing agents. Store at room temperature and ensure containers are clearly labeled. Handle under inert atmosphere if sensitive to air or moisture to maintain chemical stability.
    Application of N-Butylpyridinium Dicyanamide

    Applications of N-Butylpyridinium Dicyanamide in Industrial Manufacturing

    N-Butylpyridinium Dicyanamide serves as a specialized ionic liquid for advanced industrial operations. Below, we outline its deployment across diverse downstream manufacturing sectors, detailing relevant compliance obligations, specific dosage formats, process integration steps, and principal end-products.

    1. Electrolyte Additive in Lithium Battery Manufacturing

    In lithium-ion battery production, manufacturers incorporate this material as a conductive ionic liquid additive within non-aqueous electrolytes. Its function is to enhance ionic conductivity and thermal stability across wide voltage ranges, especially for high-energy-density cell chemistries. Assembly engineers adjust dosing according to cell format—cylindrical, prismatic, or pouch—to match desired electrochemical performance and safety metrics during cycle life testing and QC validation.

    Industry compliance standards

    • IEC 62660-2: Secondary lithium-ion cells for vehicle propulsion
    • UN 38.3 transport of lithium batteries
    • ISO 9001:2015 quality management systems in electronics manufacturing
    • GB/T 31486 safety requirements for automotive traction batteries

    Typical usage ratio

    • Generally 0.1–3% by total electrolyte mass
    • Dosing fine-tuned based on target ionic conductivity (8–13 mS/cm)
    • Adjustments for cell type and temperature cycle profiles
    • Balance required with conventional lithium salts and solvents

    Downstream process integration

    • Added during primary electrolyte blending before cell filling
    • Homogenized under inert atmosphere to prevent hydrolysis
    • Quality controls: Karl Fischer titration for water content, conductivity tests
    • Used within dry room gloveboxes alongside other electrolyte constituents

    Final product types

    • Automotive lithium-ion battery packs
    • Consumer electronics rechargeable batteries
    • Energy storage system (ESS) modules
    • Power tool battery cells

    2. Antistatic Agent in Polymeric Film Production

    Film manufacturers use this compound as an ionic liquid antistatic additive in specialty polymer extrusion and casting processes. The primary objective is to lower surface resistivity of films used for semiconductor packaging and pharmaceutical blisters, while maintaining optical transparency and mechanical properties. Dosage level depends on resin base (e.g., PET, PVC, PP) and regulatory constraints on extractables.

    Industry compliance standards

    • REACH (Regulation (EC) No 1907/2006) for chemical safety
    • FDA 21 CFR 177.1630 for polyolefin packaging materials
    • EN 60243-1 withstand voltage guidelines for insulating films
    • RoHS 2011/65/EU for restriction of hazardous substances

    Typical usage ratio

    • 0.2–1.5% by polymer weight depending on target static dissipation
    • Higher levels up to 2% for multilayer films requiring rapid static decay
    • Dosage adjusted for film gauge and required transparency
    • Compatibility checks with UV stabilizers and pigments

    Downstream process integration

    • Direct addition to polymer melt before film extrusion
    • Mixing via twin-screw compounding or masterbatch pre-dispersion
    • Inline surface resistivity monitoring post-casting or blowing
    • Followed by slitting, corona treatment, and lamination steps

    Final product types

    • Semiconductor and electronics packaging films
    • Pharmaceutical blister pack films
    • Cleanroom-grade anti-fog films
    • Thermoformable ESD trays

    3. Solvent Medium for Catalytic Organic Synthesis

    Chemical process industries utilize this material as a non-volatile, highly polar solvent for promoting homogeneous catalytic reactions, such as C–C and C–N couplings. Its thermal and electrochemical stability enable scale-up of reactive protocols that demand strict exclusion of moisture and VOC emissions. Engineers closely regulate feed ratios for solubility and catalyst optimization in batch and continuous-flow reactors.

    Industry compliance standards

    • GMP ICH Q7 for active pharmaceutical ingredient manufacturing
    • ISO 14001:2015 environmental management in chemical processing
    • OSHA 29 CFR 1910 hazardous chemical handling
    • Responsible Care® initiative for process safety

    Typical usage ratio

    • 20–80% by reaction mixture volume
    • Volume depends on solubility of substrates and isolation protocols
    • Batch reactions may require higher solvent excess for selectivity
    • Flow systems optimized for minimum effective loading

    Downstream process integration

    • Charged as primary solvent in catalyst charging or feed vessel
    • Pre-dried over molecular sieves before reactor entry
    • In-process monitoring: GC, HPLC, and Karl Fischer for water
    • Solvent recovery via distillation for recyclability control

    Final product types

    • Specialty pharmaceutical intermediates
    • Agrochemical actives
    • Fine chemical building blocks
    • Custom synthesis contract-manufactured chemicals

    4. Thermal Storage Fluid in Concentrated Solar Power Systems

    Energy industry engineers use this ionic liquid as a heat transfer and storage medium within concentrated solar power (CSP) plants. Its high thermal stability and low melting point support efficient storage of sensible heat at operating temperatures up to 350°C. Custom blending with other salts or liquids customizes heat capacity for direct or indirect steam cycle integration. Dosing aligns with specific plant thermal design and cycling requirements.

    Industry compliance standards

    • ASME PTC 46 performance test code for power generation
    • IEC 62862-3-2 for CSP system design and safety
    • ASTM E2400 for heat transfer fluid properties
    • ISO 50001 energy management in processing plants

    Typical usage ratio

    • Blended at 10–60% with other inorganic and organic thermal fluids
    • Proportion determined by plant heat input and storage capacity
    • Exact percentage based on freezing/boiling point control needs
    • Adjusted depending on total loop volume and desired cycling efficiency

    Downstream process integration

    • Charged into primary thermal storage tank during commissioning
    • Cycled through solar receiver, storage tank, and steam generator loop
    • Continuous monitoring for thermal degradation via fluid analysis
    • Incorporated into heat recovery strategies for turbine efficiency

    Final product types

    • Grid-scale CSP thermal storage units
    • Power block heat transfer circuits
    • Backup thermal reservoirs for renewable plants
    • Industrial waste heat recovery modules

    5. Component in Ion-Exchange Material Production

    Manufacturers of functional ion-exchange membranes and resins employ this dicyanamide salt as an ionic moiety for tuning charge density and selectivity. Its unique anion exchange profile aids in controlled transfer of alkali, alkaline earth, or transition metal cations in electrodialysis and purification units. Application rates depend on membrane cross-linking capacity and final ion transport selectivity tests.

    Industry compliance standards

    • ISO 9001 certified membrane production
    • EN 1186 for materials in contact with food (if applicable)
    • ANSI/AWWA B101-16 ion-exchange media for water treatment
    • ASTM D3860 standard for anion exchange resins

    Typical usage ratio

    • 5–15% by mass of total monomer feed in membrane polymerization
    • Adjusted for target exchange capacity (1.5–3.5 meq/g)
    • Formulation varies by intended cation/anion selectivity
    • Optimization through membrane pilot testing

    Downstream process integration

    • Mixed with base polymer during resin synthesis or membrane casting
    • Reacted with cross-linkers under controlled temperature and humidity
    • Membranes post-treated by ion-exchange cycling for conditioning
    • QC: Ion permeability and mechanical test before device assembly

    Final product types

    • Anion exchange membranes for electrodialysis
    • Ion-exchange beads for industrial water purification
    • Battery separator membranes
    • Chemical process filtration modules
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    Certification & Compliance
    More Introduction

    N-Butylpyridinium Dicyanamide: A Modern Ionic Liquid for Industrial Innovation

    Walking Through Our Lab: The Story Behind N-Butylpyridinium Dicyanamide

    Every day in our manufacturing facility, our teams push the boundaries of chemistry with purpose. One product at the forefront of our catalog is N-Butylpyridinium Dicyanamide. We know it more intimately than most: our chemists developed current production methods after months of careful planning and troubleshooting. Their attention to the smallest details has shaped not only the outcome, but also the reliability customers expect.

    To us, N-Butylpyridinium Dicyanamide (model: [NBPy][DCA]) sits squarely between the research bench and industrial floors. It embodies the chemical evolution that has positioned ionic liquids as key materials in electrochemistry, catalysis, and expanded process design across chemical manufacturing. Enthusiasm for ionic liquids surged the moment researchers realized their ability to exchange volatile, flammable solvents for stable liquid salts. Our staff shares this excitement, backed by the day-to-day experience of handling, storing, and dispatching containers worldwide under precise conditions.

    The heart of this material lies in its molecular structure. Built from the N-Butylpyridinium cation paired with the dicyanamide anion, it delivers a set of physical attributes not easily matched. The composition gives it thermal stability, a wide electrochemical window, and negligible vapor pressure under ambient conditions. We process every kilogram to meet these parameters, and laboratory tests confirm batch consistency. Any variation could spell trouble for research calibration or scale-up, so our process verification involves a careful balance of raw material quality checks and in-line controls.

    Specification Details As Experienced by Our Teams

    From an operator’s point of view, N-Butylpyridinium Dicyanamide comes as a colorless-to-pale yellow liquid at room temperature. Its viscosity, typically lower than similar ionic liquids in our catalog, streamlines handling with pumps and dispensing units. This matters especially to customers scaling up from flasks to production reactors, reducing the hassle of residue and sticking in transfer lines. Our in-house reactors allow real-time monitoring, so we routinely adjust agitation and temperature to keep the final product in optimal condition.

    The purity level exceeds 99 percent, verified through both NMR and ion chromatography in our quality control lab. Impurity management starts before the first synthesis step—each intermediate is analyzed, quarantined if necessary, and only products meeting strict criteria move forward. For those seeking assurance regarding moisture, our standard product comes with water content below 200 ppm. Years ago, we realized trace moisture influences both reactivity and shelf life, so we calibrated our drying protocols accordingly.

    Why We Chose This Path: Our Motivation for Manufacturing

    As the actual originators, we face the continuous challenge of combining scale with reliability. Incorporating N-Butylpyridinium Dicyanamide into our manufacturing portfolio stemmed from market trends and, more importantly, direct feedback from scientists searching for ionic liquids with unique solvation properties and electrochemical resilience.

    During pilot runs, we adjusted both temperature gradients and reagent ratios to optimize yield and purity side-by-side. Staff observed how minor shifts in process led to substantial changes in downstream performance. In one instance, introducing a different base for the synthesis cut reaction time and simplified final purification. These hands-on lessons never come from datasheets—they come from real-world, often messy, experiences.

    We believe that every liter leaving our facility tells part of this story. Through detailed process documentation, repeated staff training, and ongoing investments in containment and environmental protection, we put our name—and our people—behind every shipment.

    Main Applications: A Practical Perspective

    Over the years, our product found a home in several sectors. The most dynamic use cases remain in electrochemical research, especially as electrolytes in supercapacitors and batteries. Customers report that its broad electrochemical window coupled with non-flammability delivers both better safety and improved device performance. Faculty at one academic partner’s laboratory demonstrated longer cycle life in capacitor prototypes using our ionic liquid compared to conventional solvents. They attribute this directly to the product’s ability to support high voltage without decomposition.

    Catalysis has seen similar impact. In cross-coupling and alkylation reactions, chemists take advantage of N-Butylpyridinium Dicyanamide’s polarity and negligible vapor pressure, which help limit product losses and control emissions. One process development collaborator highlighted improved selectivity in complex multi-step syntheses due to the product’s solvation profile. These are insights we hear time and again from those with a hands-on role in product development and production.

    A less publicized but growing area includes its use in extraction. Selective extraction of metals from e-waste or composite materials now employs ionic liquids, and [NBPy][DCA] plays a role here thanks to its particular affinity for metal ions and its low toxicity relative to traditional extractants. Our clients in recycling appreciate the ease with which they can recover both precious metals and the ionic liquid itself, reducing operational costs and environmental footprint.

    Differences Between N-Butylpyridinium Dicyanamide and Other Ionic Liquids

    With twenty years of ionic liquid manufacturing experience, we’ve seen numerous cation-anion pairs enter the market. Our experience with pure imidazolium-based systems, commonly paired with anions like tetrafluoroborate, opened many industrial doors early on. Those products carried their own drawbacks: frequent hydrolysis, corrosive byproducts, inconsistent viscosities, and environmental challenges in process tailings.

    N-Butylpyridinium Dicyanamide sets itself apart through its balance of physicochemical traits. The pyridinium base resists hydrolysis under a wide range of conditions, unlike some imidazolium derivatives that degrade in the presence of trace water or acidic residues. By pairing this with a dicyanamide anion, our product remains stable even under extended heating, outperforming tetrafluoroborate and hexafluorophosphate counterparts on thermal tolerance and inertness.

    Another difference stands out in application safety. We’ve had battery producers approach us after experiencing unexpected fluorine-related byproducts in their test runs with fluorinated ionic liquids. Our product eliminates halogenated anions, avoiding hazardous degradation and corrosion of sensitive device internals. Customers working to meet new EU and US regulations on fluorine emissions have migrated to [NBPy][DCA] because it meets evolving safety and environmental guidelines.

    Viscosity and conductivity strike another important balance. We routinely receive feedback about bottlenecks caused by highly viscous ionic liquids, especially at sub-ambient temperatures. The butylpyridinium core delivers lower viscosity than alkylimidazolium alternatives, simplifying pumping, blending, and coating operations. Our material also outperforms traditional salts like lithium hexafluorophosphate in ionic mobility within a similar voltage range—a clear asset for battery and sensor applications.

    Finally, the processability of N-Butylpyridinium Dicyanamide affects waste reduction and purity management. Its low vapor pressure means little loss during transfer or distillation. We noticed early on that our own equipment required less cleaning and maintenance compared to lines running classic quaternary ammonium-based ionic liquids, saving on labor and water use. Over time, these small process gains make a big financial and environmental impact.

    Real-World Challenges and How We Solve Them

    Scaling up production of N-Butylpyridinium Dicyanamide is not a plug-and-play task. The safe handling of raw materials like pyridine and dicyanamide demands robust controls and staff vigilance. As producers, we cannot treat these as abstract risks—everyone in the plant has direct responsibility for containment and monitoring.

    During a sharp temperature spike in one reactor three years ago, we learned first-hand the value of redundant cooling and real-time gas detection. We responded by upgrading both our process control software and emergency protocols. Our staff now conducts quarterly drills, and production lines feature secondary containment and venting systems specifically tailored to the unique demands of this synthesis.

    Ensuring purity every batch remains a top concern. Even a minor deviation can introduce chromophore-forming impurities that affect end-use performance. Our QA team runs every lot through dual checks—one via automated spectrometry, another by manual inspection—before shipment. During a recent production cycle, a discrepancy spotted in color led us to discover a supplier-side raw material issue. Tight supplier partnerships and regular audits now guard against recurrence.

    Waste minimization guides every operation. Water and solvent streams resulting from purification are collected and processed in-house. We invested in both on-site distillation units and a dedicated wastewater treatment system capable of breaking down organonitrile residues. Not all manufacturers take this route; we made the decision after seeing community concerns and tightening local requirements on chemical discharge. These investments improve relations with regulatory bodies and build long-term business sustainability.

    Customer Experience and Our View from the Factory Floor

    Feedback from customers shapes both our process and product. Many come to us after trials with distributor-grade ionic liquids, only to run into problems with reproducibility or hidden impurities. By managing the product lifecycle from raw material intake through finished batch release, we stand behind every result with traceability and transparency. This commitment has meant repeat business and deeper collaborations, especially with those deploying our product in regulated or mission-critical applications.

    Direct client engagement led us to adjust packaging formats—offering both small sample vials and bulk drums—to better fit operation scales. When a process engineer from an energy storage startup explained the risk of material degradation due to packaging rip-tear failures, we sourced thicker-gauge liners and developed tamper-proof seals. Unlike intermediaries, we field those requests firsthand, allowing fast design tweaks.

    One customer reported unexpected particle formation during long-term storage. As manufacturers, we immediately traced the batch, isolated the cause to a minor contaminant, and adjusted our post-processing filtration. By sharing both the challenge and solution, we reinforced that quality issues are not just box-ticking exercises for us but opportunities to improve.

    Environmental and Regulatory Commitment

    Our team recognizes that chemical manufacturing comes with responsibilities. As international standards evolve, so do our protocols. The absence of halogenated components in N-Butylpyridinium Dicyanamide simplifies both export paperwork and practical compliance with waste shipment and import regulations. We routinely support customers who must present detailed documentation to authorities inspecting ionic liquid use for green chemistry or battery manufacturing incentives.

    We maintain ISO certifications focused on quality and environmental management. Routine audits force us to exceed the minimum: waste fate tracking covers every kilogram, and emissions data is reviewed monthly. Over time, our ability to prevent off-spec batches from reaching the market has improved—not through punitive measures, but through ongoing training, open communication, and access to modern analytical tools for every level of staff, from lab analyst to plant operator.

    Workers’ health and safety always sits at the top of our priorities. Regular equipment checks, air quality monitoring, and personal protective equipment are non-negotiable. Staff rotate roles to reduce exposure risk, and regular meetings create space for raising process concerns or near-miss events. These ways of working go beyond compliance—they build team trust and retention, which in turn drive product quality and consistency.

    Looking Forward—A Factory’s Perspective on Product Evolution

    N-Butylpyridinium Dicyanamide will keep finding new uses as industry needs evolve. We already see movement toward wider adoption in aerospace and microelectronics, where ionic liquids support both advanced cleaning processes and non-traditional metal deposition. We maintain active links with researchers and industrial R&D teams, inviting pilot projects and process feedback that influence both product design and future investments.

    Research partnerships matter. Collaborators help us understand the fine points—how a minor tweak in anion structure or trace impurity can affect electrochemical stability or give superior separations in extraction. These conversations loop directly to our manufacturing process, closing the gap between benchtop discovery and real-world production.

    As a chemical manufacturer, staying ahead means more than reacting to market requests. It means watching emerging regulatory rules and preparing new production technologies that reduce risk, cost, and resource use. For N-Butylpyridinium Dicyanamide, ongoing projects focus on greener raw material sourcing, enhanced process automation, and advanced purity analysis techniques. Our aim is to keep pace with the most demanding applications, eliminating obstacles that stand between science and scalable solutions.

    Our work doesn’t end at the loading dock. We track performance and service life when customers share feedback. Cases where the product solves a hard technical challenge, or helps launch a new kind of device, motivate our staff and reinforce our approach grounded in expertise, accountability, and continual improvement.

    Standing with Confidence in Our Product

    N-Butylpyridinium Dicyanamide represents the intersection of innovation, customer partnership, and operational integrity. Our drive comes from solving real problems—be it process safety, cost-efficient purification, or adapting quickly to customer specification shifts. The journey from laboratory synthesis to regular industrial supply has not been short or simple. It has grown out of persistent problem-solving, a willingness to invest in both people and technology, and a deep respect for the chemical’s potential and its place in sustainable manufacturing.

    Every barrel, every shipment, and every new collaboration inspire us to push a little further. From inside our plant walls to your research or production line, the story continues—always practical, always personal, and always improving.