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Tetrabutylammomium Dicyandiamide

    • Product Name Tetrabutylammomium Dicyandiamide
    • Alias TBA Dicyandiamide
    • Einecs 242-036-1
    • 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

    624369

    Product Name Tetrabutylammonium Dicyandiamide
    Chemical Formula C12H28N4·C2H4N4
    Molecular Weight 296.46 g/mol
    Appearance White to off-white solid
    Solubility Soluble in water and polar organic solvents
    Cas Number 75805-11-5
    Storage Conditions Store in a cool, dry place; tightly closed container
    Purity Typically >98%
    Odor Odorless
    Synonyms TBA dicyandiamide; Tetrabutylammonium cyanoguanidine

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

    Packing & Storage
    Packing Tetrabutylammonium Dicyandiamide is packaged in a 100g sealed amber glass bottle with a tamper-evident screw cap and safety labeling.
    Shipping Tetrabutylammonium Dicyandiamide should be shipped in tightly sealed containers, kept dry and protected from moisture and light. It should be transported according to local regulations for chemicals, labeled appropriately, and handled with standard chemical safety precautions. Avoid exposure to extreme temperatures and store in a cool, well-ventilated area during transit.
    Storage Tetrabutylammonium dicyandiamide should be stored in a tightly sealed container, away from moisture and incompatible substances, such as strong oxidizers. Keep it in a cool, dry, and well-ventilated area, protected from direct sunlight and heat sources. Ensure proper labeling and use secondary containment to prevent spills. Follow all relevant safety regulations and guidelines during storage and handling.
    Application of Tetrabutylammomium Dicyandiamide

    Applications of Tetrabutylammonium Dicyandiamide in Industrial Manufacturing

    As a direct producer of Tetrabutylammonium Dicyandiamide, we support a spectrum of advanced chemical processes across several established industrial sectors. Below, we outline the specific downstream applications that rely on our material, focusing on operational detail, regulatory context, and technical integration, as encountered by end-user factories worldwide.

    1. Curing Agent in Epoxy Resin Systems for Electronics Encapsulation

    Tetrabutylammonium Dicyandiamide is well-established as a latent curing agent in two-component epoxy resin formulations, integral to encapsulating printed circuit boards (PCB), semiconductors, and microelectronic modules. It stands out in electronic-grade applications for its controlled release and uniform curing profile, which meet stringent demands for reliability in adverse thermal and humidity conditions. Adaptation for high-density assemblies is common in industrial practices.

    Industry compliance standards

    • IEC 61249-2-21: Halogen-free requirements for base materials
    • RoHS Directive 2011/65/EU and its amendments
    • UL 94 for flammability classification
    • JIS C 5012 for electrical encapsulation

    Typical usage ratio

    • 0.5–4.0 wt% relative to epoxy resin component; adjusted according to final cure temperature, desired latency, and molecular weight of resin used. Higher amounts utilized for fast-cure encapsulation in automotive modules.

    Downstream process integration

    • Incorporated during resin blending stage, prior to vacuum degassing; activation occurs during thermal post-curing via precision oven or reflow processes.

    Final product types

    • Conformal coatings for PCB
    • Microelectronic die encapsulation
    • LED module potting compounds
    • Automotive relay and sensor housings

    2. Intermediate in Specialty Guanidine Derivative Production

    Within fine chemical plants, Tetrabutylammonium Dicyandiamide plays a known role as an intermediate reagent for targeted synthesis of guanidine-based fungicides, flame retardants, and plastic additives. Accurate dosage and reaction monitoring are required to control side reactions and optimize downstream yield and purity profiles, particularly in multistage batch reactors operating under GMP protocols.

    Industry compliance standards

    • ISO 9001:2015 for process quality management
    • REACH Regulation (EC) No 1907/2006 registration and usage guidelines
    • EU CLP Regulation (EC) No 1272/2008 for classification, labelling, packaging

    Typical usage ratio

    • Stoichiometric proportions determined by targeted guanidine derivative; e.g., 1.02–1.05 equivalents per mole of starting nitrile or amine feedstock, depending on batch size and endpoint yield testing.

    Downstream process integration

    • Added to charged reactor with active stirring following charging of the primary substrate; controlled temperature ramp (typically 80–120°C) governs dicyandiamide conversion rate. Breached reactions often require inert gas blanketing.

    Final product types

    • N,N'-disubstituted guanidine antifungal agents
    • Halogen-free flame retardant masterbatches
    • Polypropylene processing stabilizers
    • Specialty antioxidant intermediates for plastics

    3. Crystallization Control Agent in High-Performance Polyurethane Foams

    Formulators of rigid and semi-rigid polyurethane foams for insulation boards and appliance panels leverage Tetrabutylammonium Dicyandiamide as an efficient nucleating modifier. Its application delivers microcellular structure improvements, notable for increased foam dimensional stability and reduction of post-cure shrinkage, especially under high-compression molding regimens or for demanding building envelope certifications.

    Industry compliance standards

    • EN 14315-1: Spray polyurethane foam performance
    • ASTM D1622: Standard Test Method for Apparent Density of Rigid Cellular Plastics
    • ISO 4589-2: Determination of oxygen index
    • UL 723: Test for Surface Burning Characteristics of Building Materials

    Typical usage ratio

    • 0.2–0.9 wt% based on polyol component; dosage varies depending on final cell size target and foam rise speed, often established during pilot phase scale-up.

    Downstream process integration

    • Introduced into polyol premix tanks before isocyanate metering; homogeneous mixing is ensured to achieve desired cell nucleation rate during in-line dispensing or continuous slabstock production.

    Final product types

    • Insulation foam boards for construction
    • Refrigerator and freezer cabinet panels
    • Pipe insulation shells
    • Composite sandwich panels for transport vehicles

    4. Modifier in Paper and Pulp Wet-End Chemistry

    The integration of Tetrabutylammonium Dicyandiamide in specialty paper mills addresses critical demands for enhanced wet-strength and dimensional control in technical grades, including filter and laboratory paper. Its interaction with polyamidoamine-epichlorohydrin (PAE) resins creates stable cationic complexes, improving fiber-fiber bonding and boosting runnability, while minimizing formaldehyde-related compliance queries.

    Industry compliance standards

    • BfR Recommendation XXXVI (Germany) for paper and board in contact with food
    • OECD Guidelines for Testing of Chemicals: Paper and pulp sector effluent
    • EN 13432: Biodegradability (where compostable paper grades required)
    • FDA 21 CFR 176.170 for paper in contact with aqueous and fatty foods

    Typical usage ratio

    • Ranges from 0.1–0.5% on dry fiber; precise addition controlled by wet-end monitoring, influenced by furnish properties and target wet strength class.

    Downstream process integration

    • Dosed via controlled feed to the mixing chest immediately ahead of headbox; synchronized with retention aids and PAE resin dosing systems for uniform distribution prior to sheet formation.

    Final product types

    • Laboratory filter paper
    • Tea bag and coffee filter base paper
    • Specialty technical base sheets
    • Water-resistant label and poster board

    5. Crosslinking Promoter in Industrial Coatings and Adhesives

    Industrial coatings and high-strength adhesives plants utilize Tetrabutylammonium Dicyandiamide to promote crosslink density in thermoset resin formulations, crucial for enhancing chemical resistance and mechanical integrity in automotive, aerospace, and marine coatings. Controlled addition allows tailored cure kinetics and open time for professional application environments, supported by quantitative batch data tracking and in-process QC analytics.

    Industry compliance standards

    • ISO 12944-6: Protective paint systems’ performance
    • EN 13523-5: Coating adhesion tests
    • REACH Article 31: Extended SDS requirements
    • ASTM D4541: Pull-off strength of coatings

    Typical usage ratio

    • 0.3–2.1 wt% in epoxy-based coating or adhesive formula; balance adjusted for reactivity window, film thickness, and ambient cure requirements using in-plant formulation software.

    Downstream process integration

    • Introduced at pigment dispersion or binder mixing phase; batch homogenized before final letdown and packaging to guarantee consistency and shelf-stability.

    Final product types

    • Anti-corrosion marine coatings
    • Automotive structural adhesives
    • Industrial maintenance and pipe coatings
    • Aerospace-grade adhesive bonders
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    Certification & Compliance
    More Introduction

    Tetrabutylammonium Dicyandiamide: A Direct Manufacturer’s Insight

    Shaping Real-World Chemistry with Tetrabutylammonium Dicyandiamide

    At our plant, every batch of Tetrabutylammonium Dicyandiamide starts with precise, hands-on control. Our colleagues in production work daily with this crystalline salt, checking color, smell, and particle flow as raw materials are charged to the reactor. This gives us a unique view into not only what the product is, but also how customers actually use it in the field and where it can make a difference compared to similar salts.

    Understanding Its Makeup and Role

    This compound carries a chemical formula that partners a tetrabutylammonium cation and the dicyandiamide anion. In our plant, the model known as TBA-DCD usually presents as a white to off-white powder. Our typical specification includes a purity over 98% (by HPLC analysis), moisture content less than 0.5%, and low residual amine impurities. Every batch is filtered and dried under carefully controlled humidity, since dicyandiamide salts like this one can become sticky or degrade in damp air.

    Hands-On Applications in Industry

    We have spent the last decade supplying Tetrabutylammonium Dicyandiamide mainly to pharmaceutical researchers and specialty chemical labs. The unique pairing of a bulky, hydrophobic cation and a highly reactive dicyandiamide anion opens doors that neither ingredient could do alone. Customers use our TBA-DCD as a mild, non-coordinating base and as a reagent in organic synthesis. It works well in applications involving nucleophilic substitutions, cyclization reactions, and some ring-closing steps, where straightforward ammonium or sodium salts cause handling risks or reactions can become too aggressive.

    It is not unusual for process chemists to tell us that their early-stage routes hit dead-ends with sodium or potassium dicyandiamide, seeing solubility trouble or unwanted side reactions. By offering TBA-DCD, we provide an option that dissolves well in a wide range of organic solvents, including acetonitrile, ethyl acetate, and even some chlorinated hydrocarbons. This solubility improves not only dosing accuracy, but also product isolations downstream. A big benefit emerges in multi-step synthesis: fewer unpredictable byproducts, fewer post-reaction purifications.

    What Makes Tetrabutylammonium Dicyandiamide Distinct?

    Lab work is full of trial and error. Over time, we hear frank reports from teams who compare our product head-to-head with alternatives like sodium dicyandiamide, tetramethylammonium dicyandiamide, and other guanidine-based ammonium salts. Several important differences stand out:

    It's easy for suppliers to make claims about “superior performance,” but we judge quality by customer results. In one example, a major agrochemical manufacturer described years of difficulty crystallizing their target compound from sodium dicyandiamide reactions. A switch to our TBA-DCD allowed full dissolution and reliable work-up, which cut batch times and improved overall yield.

    Manufacturing Practices that Make a Difference

    Anybody can buy chemicals off a shelf, but making them day in and day out is a different story. Our production is designed around consistency and purity. We use closed reactors, fine-tuned filtration, and vacuum-drying stations to avoid contamination. Analytical chemists in our plant use chromatography, ICP, and Karl Fischer titrations for every lot, not just spot checks. For customers tackling scale-up, that stability makes a big difference—reaction results stay the same as they move from milligrams to kilos.

    Alongside physical testing, we focus on the supply chain. Sourcing primary butylamines and cyanoguanidine from audited vendors and running all reactions in-house supports full traceability. When customers need documentation for regulatory filings or want a batch history tracing back to the original amine, we deliver that in-house, not through endless agency requests.

    Supporting Real-World Chemistry

    Over the years, we’ve seen first-hand that off-the-shelf chemicals often create hidden process complications. Distributors looking only at price can miss these. One of our recurring priorities has been working with customers’ R&D staff, sometimes in late-night calls or during emergency resupply, to understand not just what went wrong but why. Whether it is solubility, batch color drift, or elimination of trace impurities that influence downstream characterization, these conversations feed directly into how we tweak the process, rework a lot, or set the bar higher.

    Empirical data shows that when labs switch from other dicyandiamides to ours, they see improved reaction consistency, reduced side-product formation, easier product drying, and fewer yield losses during scale-up. Many customers in pharmaceutical synthesis report improved NMR spectra and easier purification steps after switching. These outcomes do not happen by accident—they reflect controlled plant conditions and team-level expertise, not just a specification sheet.

    Usability and Customer Experience

    One repeated theme in feedback comes from just how user-friendly the product is. Fine, sticky powders can gum up feeders and spill, especially during high-throughput or semi-continuous operations. Our process produces a free-flowing crystalline powder with low fines content. It pours smoothly, fills vials predictably, and washes out of reactors without leaving residues.

    Most plant teams worry about downtime due to cleaning or material transfer. As a manufacturer, we put in the hours to minimize these headaches. Solubility trials, particle size refinement, and bulk density checks cut down on handling issues. That means pharma, fine chemical, and electronics customers don’t face time-consuming surprises during scale-up. In feedback from a leading battery research group, the highly consistent particle sizing helped eliminate variation between prototype batches—critical for quality control and tech transfer.

    Safety and Environmental Considerations

    We all know the importance of keeping operators, the community, and the wider environment safe. There is a gap between regulatory minimums and good factory practice. Our experience has taught us that batch traceability, proper storage, and robust ventilation keep both workers and product at their best. While dicyandiamide salts do not present especially high acute toxicity, dust control and avoidance of moisture uptake are real-world concerns.

    At the facility, air locks and sealed drums keep the powder dry before and after filling. Waste streams are treated on-site before discharge, so nitrogen-containing materials do not leave plant boundaries. An experienced team, regular safety drills, and continuous process improvement are parts of daily life.

    With demand for safer greener chemistry rising, we have worked to ensure that every process step minimizes energy input and avoids solvents where possible. Our product packaging supports both large and small end-users, using drums and bags proven to prevent seepage and reduce landfill.

    Quality Backed by Experience

    Our production teams are craftspeople in their own right. Decades of batchwork, raw material analysis, and hands-on troubleshooting build a level of detail that can’t be learned any other way. That experience sits in every shipment sent. When a plant operator calls about a cloudy batch or a delayed crystallization, we know to ask not just about process temperature or dosing rates but the precise lot number and date code. Hundreds of such conversations have helped us go beyond basic compliance and deliver a genuinely reliable chemical to end-users.

    Differences Compared to Other Products

    A key question from customers always comes down to, “What sets your Tetrabutylammonium Dicyandiamide apart?” Realistically, there’s no shortage of choices for ammonium, sodium, or potassium dicyandiamide. Still, side-by-side trials show that product origin, process control, and batch-to-batch consistency can cause big swings in outcomes.

    We see poor mixing, weird byproducts, or low yield when teams use generic or cut-price salts with high water or impurity content. By controlling particle size, keeping a tight moisture spec, and batch-testing for every outgoing drum, we have built trust with customers operating at both milligram and multi-ton scale. This is less about technical jargon and more about results in their flask or reactor. Once, a specialty dye manufacturer found their product color drifting when switching suppliers. After investigating raw material purity and talking directly with their lab team, we pinpointed sodium cross-contamination as the culprit. Our product, free of that ion, solved their problem—just one example out of dozens noted every year.

    Tetramethyl or tetraethylammonium salts can claim some similar reactivity in organic syntheses, but those lighter cations change solubility patterns and sometimes trigger unwanted reactions. Tetrabutylammonium has a proven, reliable profile that holds steady across reaction conditions most often used in research and pilot plants. The result is a repeatable set of outcomes, not a guessing game with each batch.

    Real Chemistry, Real Solutions

    There’s a reason successful labs and manufacturers build direct ties with primary producers, skipping intermediaries or trading houses: performance, response time, and accountability. Our experience grows not from spreadsheets or catalogs but from time on the plant floor, troubleshooting both new reactions and basic process logistics. This has cultivated a nimble, problem-solving culture, able to adjust drying cycles, particle cuts, or even labeling to suit specific needs.

    Looking ahead, specialty chemicals like Tetrabutylammonium Dicyandiamide are only becoming more important in pharmaceutical, electronics, and advanced materials synthesis. We see growing interest in metal-free catalysis, functionalized polymers, and safer intermediates that require precisely designed salts—roles this product fits well. We keep our eyes on purity, handling, and supply security, because these determine how projects move from benchtop ideas to real-world products.

    Commitment to the Industry

    Supplying chemicals goes far beyond bulk shipping. Reliable partners deliver not just barrels, but answers for process improvement and troubleshooting. Years spent at the factory level have taught us the needs of teams who can’t afford downtime, product recalls, or nuanced headaches traced back to inconsistent chemistry supplies. To them, Tetrabutylammonium Dicyandiamide is not just another catalog entry; it is a tool, made and delivered with knowledge, tested to the minute details, and supported from first order to final product launch.

    We listen to what’s happening in real labs, on real lines, and adjust process details in response—not just to meet minimums but to make good outcomes more likely. That cycle of feedback and improvement does not end, because process chemistry never stands still. Whether serving a startup or a top-tier pharma, our commitment stays hands-on.

    Final Thoughts from the Manufacturing Floor

    There’s satisfaction in seeing Tetrabutylammonium Dicyandiamide unlock problems in reaction scale-up, bench research, and formulation. Our story is written in thousands of kilos shipped, batches retested, and countless hours spent working alongside customers to learn what matters. In a world looking for smarter, faster, and safer chemistry, working directly with those who use what we make continues to show that every detail, from purity to packaging, has a story and a reason.

    That’s why each batch sent from our plant is more than a product. It’s an investment in the reliability, quality, and partnership that drive progress in industries relying on precise, dependable chemistry every single day.