Source Cationic Surfactant for Water Treatment, Textiles, and Paper
Source cationic surfactant from 30 verified products. Compare specifications like active matter, pH, and packaging options for applications in water treatment, textile auxiliaries, and paper chemicals to find the right fit for your supply chain; compare the available evidence and request quotations based on your requirements.
Key considerations
Products List
Comprehensive Sourcing Guide
Cationic Surfactant Sourcing Guide
Buyers must first distinguish between the specific chemical families available, as the market lists distinct models like D821-Br/DODAB and 2231 with varying acid-base properties. Some listings describe an acidic surface disposal agent, while others specify neutral or alkaline variants, requiring precise matching to the intended industrial process. This differentiation is critical because the active matter percentage and pH range directly influence the chemical's compatibility with existing water treatment or textile auxiliary systems.
Procurement teams should also verify the physical state and packaging constraints before initiating orders, as products appear as either liquids or powders with specific unit weights. The observed data indicates options ranging from IBC tanks and drums to 25-kilogram bags, with some suppliers offering customization for bulk tank delivery. Understanding these physical attributes ensures that the selected surfactant fits within the buyer's storage infrastructure and handling capabilities without requiring immediate facility modifications.
Product Scope and Observed Listing Signals
The product scope encompasses a wide array of cationic surfactants designed for water treatment, textile auxiliaries, and paper chemicals, with purity levels often cited as 67% or 80%. Buyers will encounter models such as 1831 and 1631, which offer active matter percentages ranging from 50% to 80%, alongside specialized agents like D1621-Br/DHDMAB. These signals suggest a diverse inventory where the specific application dictates the required concentration and ionic characteristics of the final product.
Listing signals also reveal significant variation in solvent content and free amine levels, which are critical for process stability and safety. For instance, some formulations allow for 0-20% IPA solvent, while others strictly limit free amine and amine salts to 1% or 2%. Buyers must scrutinize these specific parameters to ensure the surfactant meets the stringent requirements of their coating auxiliary agents or surfactant applications, as even minor deviations can impact the final product quality.
Technical Specifications to Verify
Verification of the active matter percentage is the primary technical step, as observed ranges span from 50±1% to 76~82% depending on the specific model. Buyers should request batch-specific certificates of analysis to confirm that the actual concentration aligns with the advertised standard, which may be listed as 70%/80% or 30%/50%/70%/99%. This verification prevents performance shortfalls in applications where precise dosing is essential for effective water treatment or textile processing.
The pH range and color specifications must also be rigorously checked against the intended usage environment, as values can vary from acidic 5.0-7.0 to alkaline 6.0-9.0. Additionally, the color index, often noted as less than 100 or described as colorless, serves as a quality indicator for transparency and purity. Ensuring these physical and chemical properties match the process requirements is vital for maintaining consistency in large-scale industrial operations where batch-to-batch variation is unacceptable.
Compliance and Safety Documentation
Safety documentation is a critical area of focus, particularly given that some listed products are marked with "No" for environmental protection attributes. Buyers must demand comprehensive Material Safety Data Sheets (MSDS) that detail the handling requirements for agents with varying acid-base properties and solvent contents. This documentation is essential for ensuring that the workplace environment remains compliant with local safety regulations and that the risks associated with free amines or specific solvents are properly managed.
Regulatory compliance extends to verifying the origin and standard certifications of the manufacturing facility, with China identified as a primary source for these chemical agents. While specific certification names are not universally listed, buyers should confirm that the supplier adheres to international quality standards relevant to the chemical industry. This due diligence helps mitigate the risk of sourcing non-compliant materials that could lead to regulatory penalties or supply chain disruptions in regulated markets.
Cost Drivers and Commercial Terms
Cost drivers in this market are heavily influenced by the active matter percentage and the complexity of the customization available. Higher purity levels, such as those approaching 99%, or specialized formulations with strict free amine limits typically command a premium over standard industrial grades. Buyers should analyze the price-to-performance ratio carefully, as the observed price range of 0.5 to 1200 USD reflects significant variation based on concentration, packaging, and the specific chemical model selected.
Commercial terms regarding Minimum Order Quantity (MOQ) and lead times are equally critical for supply chain planning, with MOQs ranging from 1 to 5000 units. Lead times are observed to be between 5 and 10 days for standard orders, but bulk tank deliveries or customized packaging may require different scheduling. Procurement teams must negotiate these terms to align with their production schedules, ensuring that the flexibility of the supplier matches the volatility of the buyer's demand.
Supplier Qualification and Quality Control
Supplier qualification requires a deep dive into their production capabilities and quality control protocols, especially given the diverse range of models like TX405 and HDOP40. Buyers should assess whether the supplier can consistently maintain the specified active matter percentages and pH ranges across different batches. The presence of industrial quality designations suggests a baseline standard, but independent verification of their internal testing procedures is necessary to ensure long-term reliability.
Quality control also involves verifying the packaging integrity and export readiness, as products are shipped in various formats including drums, bags, and tanks. The export carton weight and unit dimensions, such as 25.0 x 15.0 x 35.0 centimeters, must be confirmed to optimize logistics and minimize shipping costs. A robust quality control system ensures that the physical condition of the surfactant remains intact during transit, preventing contamination or degradation before it reaches the production facility.
Long-Term Procurement Checks
Long-term procurement success depends on establishing a consistent supply chain that can adapt to changing market demands and regulatory landscapes. Buyers should implement a schedule for regular re-verification of product specifications, ensuring that the active matter and pH levels remain stable over time. This proactive approach helps identify any drift in quality before it impacts the final product, safeguarding the reputation and operational efficiency of the buyer's business.
Building a strategic partnership with suppliers who offer customization and flexible packaging options is essential for scaling operations. As the market evolves, the ability to adjust to new standards or specific application requirements will become a key differentiator. Buyers should maintain open communication channels with their suppliers to stay informed about potential changes in raw material availability or production standards, ensuring a resilient and responsive supply chain.
FAQs
What are the available active matter percentages for cationic surfactants?
Active matter percentages vary by model, typically ranging from 25% to 99%. Specific products like D821-Br offer 70±1% active content, while 1831 provides options of 30%, 50%, 70%, or 99%. Buyers should select the concentration that matches their formulation requirements for optimal performance in textile or water treatment applications.
Can cationic surfactants be customized for specific industrial needs?
Yes, customization is available for many cationic surfactant products. Manufacturers offer various specifications, including different active matter percentages and pH levels, to suit distinct applications. This flexibility allows buyers to tailor the chemical properties to their specific processes, ensuring compatibility with textile auxiliaries, paper chemicals, or coating agents.
What packaging options are provided for bulk cationic surfactant orders?
Packaging options include IBC containers, drums, and tanks for liquid forms, while powder variants like TX405 come in 25kg bags. Export cartons may contain multiple units with specific weights. Buyers can choose between bulk tank shipments for large volumes or packaged units for easier handling and storage in their facilities.
What is the typical lead time for cationic surfactant orders?
The typical lead time ranges from 5 to 10 days for standard orders. This duration allows for production scheduling and quality control before shipment. Buyers should confirm specific timelines with suppliers, as lead times may vary based on order volume, customization requirements, and current production capacity at the manufacturing facility.
Which models of cationic surfactants are suitable for water treatment?
Models such as 2231 and 1831 are explicitly listed for use in water treatment chemicals. These products feature specific pH ranges and active matter contents suitable for industrial applications. Buyers should verify the exact specifications, such as free amine levels and solubility, to ensure compatibility with their water treatment processes and regulatory standards.
What is the pH range for cationic surfactant aqueous solutions?
The pH of 1% aqueous solutions varies by product, typically ranging from 4.0 to 9.0. For instance, D821-Br has a pH of 5.0-7.0, while 1831 ranges from 4.0-9.0. This variability allows selection based on the required acidity or alkalinity for specific industrial processes, ensuring optimal chemical stability and performance.



























