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HS Code |
279118 |
| Product Name | Sodium Salt of Triethylene-tetramine Hexmethanephonic Acid |
| Chemical Formula | C10H28N4Na6O18P6 |
| Appearance | White to off-white powder |
| Solubility In Water | Highly soluble |
| Molecular Weight | 710 g/mol |
| Ph Of 1 Solution | 7-9 |
| Cas Number | Di-sodium salt: 22042-96-2 (general form; specific may vary) |
| Stability | Stable under normal storage conditions |
| Storage Conditions | Store in a cool, dry place |
| Melting Point | Decomposes on heating |
| Odor | Odorless |
| Density | Approximately 1.7 g/cm3 |
As an accredited Sodium Salt of Triethylene-tetramine Hexmethanephonic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 25 kg net weight, packed in a sturdy blue HDPE drum with tamper-evident seal, labeled with chemical name, batch number, and safety warnings. |
| Shipping | The sodium salt of triethylenetetramine hexamethylenephosphonic acid should be shipped in tightly sealed, clearly labeled containers made of compatible material. Transport in accordance with local, national, and international regulations for chemical substances. Ensure protection from moisture, direct sunlight, and extreme temperatures. Appropriate hazard communication and safety documentation must accompany the shipment. |
| Storage | The sodium salt of Triethylenetetramine Hexamethylenephosphonic Acid should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from moisture, acids, and incompatible substances. Protect the chemical from heat and direct sunlight. Ensure proper labeling, and segregate it from food and feedstuffs. Use secondary containment to prevent accidental release or spills. |
Applications of Sodium Salt of Triethylene-tetramine Hexmethanephonic Acid in Industrial ManufacturingAs a dedicated manufacturer of Sodium Salt of Triethylene-tetramine Hexmethanephonic Acid, we supply this high-performance chelating agent to critical segments of the industrial chemical value chain. Below, we provide an overview of real-world applications across multiple relevant downstream sectors. Each segment includes compliance frameworks, process dosage guidance, integration outlines, and listing of finished product types. 1. Water Treatment Chemicals for Industrial Boilers and Cooling SystemsIndustrial water treatment operators utilize Sodium Salt of Triethylene-tetramine Hexmethanephonic Acid for stabilizing and controlling calcium, magnesium, and heavy metal ion precipitation in circulating water systems. Its structure allows for efficient dispersal of scale-forming salts under varying pH and thermal loads, particularly in high-pressure boiler and recirculating cooling loops. Our technical team works directly with formulation scientists and plant operators to align dosage with feedwater composition and regime cycling. Industry compliance standards
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2. Electroplating Baths and Metal Surface Treatment ChemicalsMetal finishing and electroplating facilities incorporate Sodium Salt of Triethylene-tetramine Hexmethanephonic Acid as a complexing agent to regulate metal ion activity, control deposition rates, and prevent unwanted precipitation in nickel, copper, and zinc baths. It improves bath stability during operation, reduces undesired scaling, and contributes to smoother, defect-free coatings. Our R&D and technical support teams routinely interface with production chemists to tune chelating performance according to bath composition and targeted deposition thickness. Industry compliance standards
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3. Detergent Builder for Industrial Cleaning FormulationsFormulators of institutional and industrial detergents employ Sodium Salt of Triethylene-tetramine Hexmethanephonic Acid for its strong chelation of calcium and magnesium, improving cleaning performance in high-hardness water and preventing scale accumulation in wash machines and process equipment. Tailored usage optimizes surfactant activity, minimizes residue after rinse, and protects substrate surfaces from mineral deposits. Our production partners benefit from custom blending and QC sampling to maintain formulation consistency batch to batch. Industry compliance standards
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4. Pulp and Paper Bleaching Process AdditiveIn modern pulp and paper manufacturing, our chelating additive plays a key role in bleaching sequences, especially in peroxide and ECF (elemental chlorine-free) or TCF (totally chlorine-free) lines. It binds residual transition metals, which would otherwise catalyze peroxide decomposition and reduce brightness yield. Process engineers integrate the material in chemical dosing systems upstream of oxygen and peroxide bleaching towers to achieve higher brightness stability and lower total chemical consumption per ton of pulp output. We collaborate closely with plant technical teams for trial optimization and ongoing supply assurance. Industry compliance standards
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5. Oilfield Chemical Formulations for Scale ControlField-service and drilling fluid suppliers use this chelating agent in scale inhibitor blends deployed in oilfield water injection, produced water treatment, and hydraulic fracturing operations. Its performance reduces barium, calcium, and strontium scale deposition under harsh field pH, salinity, and temperature, ensuring long-term integrity of pipelines, wellbores, and production equipment. Compatibility testing and pilot-scale field trials determine deployment rates and formulation stability across varying brine compositions. Our production lots undergo batch testing for field-specific quality metrics before shipment. Industry compliance standards
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6. Industrial Cleaning and Descaling Agents for Heat ExchangersPlant maintenance teams specify this chelating salt in formulations for in-situ and offline cleaning of shell-and-tube heat exchangers, condensers, and evaporator surfaces exposed to repeated mineral scaling or metallic fouling. Its chelation profile accelerates removal of tenacious carbonate and metal oxide deposits while protecting underlying metal surfaces from corrosion. In process plant service intervals, operators circulate formulated cleaning solutions through fouled heat transfer equipment, monitoring performance in real time and adjusting dosage based on fouling severity and targeted downtime limits. Our QC documentation supports formulation traceability for regulated site maintenance environments. Industry compliance standards
Typical usage ratio
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Competitive Sodium Salt of Triethylene-tetramine Hexmethanephonic Acid prices that fit your budget—flexible terms and customized quotes for every order.
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Sodium Salt of Triethylene-tetramine Hexmethanephonic Acid, sometimes abbreviated as TTHA-Na, runs deep in a chemical lineage well appreciated by those working with scale inhibition and water treatment. Here on the production floor, the distilled combination of triethylene-tetramine and hexmethanephonic acid reacts with sodium ions to form a salt that stands apart both chemically and in real-world performance. This organic polyphosphonate displays a strong ability to chelate, helping it disrupt unwanted scales and metal ion reactions in industrial environments. The final product leaves our plant in free-flowing, high-purity granules or as a clear, concentrated liquid, with active content monitored to tight specifications during every batch.
Day in and day out, our reactors see a mix of triethylene-tetramine and phosphorous-based compounds controlled at precise temperatures. Lot tracking and documented cleaning cycles are crucial; we watch the pH at key transition points, check for color, and analyze titration results at the end of each stage. Getting rid of residual free amines and ensuring minimal by-product formation keeps our product from drifting off-spec. Staff walk the line regularly to make adjustments; nothing leaves the line until we confirm the analysis profile matches customer expectations, right down to the ppm.
Industrial users—especially in large scale circulation systems—mention more than once that performance, not the paperwork, shapes repeat orders. Boiler houses, cooling towers, and textile dye bath operators often deal with stubborn deposits and unpredictable metal ion build-up. TTHA-Na tackles the interactions behind that mess, using a backbone of nitrogen and phosphonate groups to latch on to calcium, magnesium, and trace iron ions. Where citrates and simple EDTA salts often fade under higher temperatures or variable pH, TTHA’s stability in these harsh environments wins confidence on the ground.
Most common complexing agents—EDTA, DTPA, even NTA—have their place, but head-to-head in an alkaline cooling water loop, TTHA-Na stays soluble much longer. Our field teams report less residue in system blowdowns. TTHA handles a wider pH range without losing activity; lab simulations show it works even in basic conditions that knock out traditional products. In scale-prone systems running at higher cycles of concentration, operators notice that switching to TTHA-Na directly correlates with reduced maintenance calls and heat exchanger cleanings. While phosphonates like ATMP and HEDP provide scale control, they tend to hydrolyze under certain heat loads, eventually dropping out or forming fines. TTHA-Na’s specific structure interrupts phosphate-based scaling but holds up against persistent iron and copper deposits, so engineers get a broader safety net.
Technical managers who have visited our plant walk away understanding the care we take with QA sampling and records. Batch-by-batch we check purity, active ingredient levels, and absence of free amines. Even small drifts in reaction efficiency can show up as increased foaming or unexpected precipitation at the user’s end. We track not just what goes in, but how reaction kinetics play out, so each shipment performs the way field chemists expect. This attention to reproducibility means service companies working on tight compliance standards don’t have to worry about variable product.
Water treatment tops the demand chart—municipal and industrial plants reach for our product to tackle scaling and corrosion. Reverse osmosis pre-treatment, geothermal plants, and steel mills all value a chelant that keeps membranes, piping, or evaporators running longer between cleaning cycles. Textile dyehouses use it to control transition metal interference that might otherwise ruin batch colors. Pulp and paper process engineers look for consistent performance under swings in water quality and load. These users share feedback that shapes what we watch for during manufacturing—the smaller yield losses, longer system uptime, clear process water, and less fouling show up in their production figures.
Every lot ships with real data—content by weight, specific gravity, and pH in solution. Downstream blenders and formulators sometimes need to tweak dosing models when switching from EDTA-Na4 or DTPA-Na5, because the molecular weight and chelation behavior of TTHA-Na differ. We publish our typical contents at not less than 98% active ingredient for solids or up to 40% on the liquid side. Purity tests ensure less than 0.5% residual free amine and minimal color, even in bulk tanks. Field techs—especially in Asia—have asked for lower bulk density options to aid in certain blended formulations, which we accommodate on request without deviating from our standard structure.
Unlike many organic chelants, TTHA-Na stores well in ambient conditions—no caking, clumping, or crusting unless exposed to open air for months at a time. Users with large material silos appreciate this: feeds stay reliable, conveyors don’t jam up, and bulk transfer lines stay clear. Some operators have observed that other phosphonates draw moisture or degrade under bright warehouse lights, but year after year, our product keeps its flow characteristics unless mishandled. For liquid forms, routine agitation brings back complete solution if any stratification develops during extended storage or cold shipments.
Plant managers look to avoid compliance headaches linked with some amine and phosphonate-containing additives. TTHA-Na has a long record of low toxicity when handled according to its label, and regulatory filings confirm product safety for most closed system and utility applications. Where local jurisdictions request additional paperwork, we provide technical files detailing production steps, raw material sourcing, and environmental release profiles. Our in-plant training workshops stress spill response, spill collection, and correct neutralization steps, so bulk handlers know exactly what to do. For our customers, this means no surprises, whether ordering drums or bulk tankers.
We listen closely to on-site engineers who notice field failures—early precipitation, shortened resin bed lifespan, filter clogging—that point to product weaknesses. While other manufacturers sometimes overformulate with excess sodium or stabilizers to mask inconsistency, we stick to a single, robust reaction line and invest in controlled additions. Process upsets do occur—feed acid concentrations can drift, or local water quality fluctuates—but repeat sampling and on-the-fly blend corrections keep things tight. Batch registration numbers allow us to track each drum, bag, and tote right from raw feeds to outbound logistics. If an unusual spike comes up, we investigate root cause—whether it’s reactor fouling, pump drift, or even a mislabeled input. This attitude of continuous improvement means what lands at the customer’s dock is rarely out of spec.
Chemical plants never run the same day twice, and neither do the systems our customers operate. Scale formation doesn’t always follow the textbook, and engineers in the field often spot early warning signs missed by protocol. We’ve seen operators use titration kits to check for slippage in chelant effectiveness, reporting back when TTHA-Na lets them stretch out time between acid washes or filter changes. Each season brings new challenges—unexpected loads, water chemistry swings, or cost crunches mean customers need to adapt fast. We adjust our technical support program based on these field reports, compiling real-world performance data from dozens of industrial sites. It creates a feedback loop—not just for ongoing process tweaks, but for longer-term equipment investments and future product iterations.
Blending houses and multinational service providers often call us when they hit the wall with traditional water treatment packages. Adding TTHA-Na means recalibrating formulas—accounting for its unique chelation spectrum, thermal stability, and behavior with common anti-scalants or biocides. Each collaborative trial provides insight into dosing regimes, interaction with secondary treatment agents, and on-the-ground economics. Some clients notice lower overall chemical costs, not through reduced dosage alone, but by eliminating the repercussions of underperformance—fewer system shutdowns, less mechanical scraping, and better process yields. We provide direct technical support to blends integrators, passing along lessons learned from other industries, whether it’s dairy processing, thermal power plants, or offshore oilfield injection.
Most customers who buy in industrial volumes look beyond the immediate technical job and ask about biodegradability, aquatic toxicity, and long-term disposal implications of their water treatment package. We respond by maintaining traceable records of all process inputs and waste streams, working in tandem with local utilities to control phosphorus loading and effluent discharges. Current wastewater treatment studies show manageable impact profiles, especially compared to legacy phosphonate blends that resisted breakdown in municipal plants. Our QA line removes not just off-spec batches, but also by-products flagged in downstream ecotoxicity monitoring; this discipline means fewer end-of-pipe surprises and smoother plant audits.
Direct manufacturing knowledge helps us see through the complexity of the supply network. Price fluctuations in raw amines and phosphites, shipping delays, and even global logistics slowdowns affect allocation and lead times. Our strategy centers on dependable sourcing, in-plant reserves, and onsite synthesis buffers. Where traders may cut corners or juggle multiple upstream sources, we track every step, so users see stable quality month to month. Procurement managers who have dealt with disrupted shipments understand the value of continuity; their confidence in our product lines builds loyalty even when markets get volatile.
EDTA and DTPA each offer targeted binding strengths but fall short on thermal resistance or broad pH activity. TTHA-Na fits a niche for process operators pushing water quality limits—its structure allows it to tackle multivalent ions and transition metals across wide ranges of operational challenges. Feedback from textile operations and high-pressure steam users points to fewer dye bath failures and much less copper corrosion. Compared to simple phosphonates, TTHA-Na’s nitrogen backbone improves coordination geometry, leading to more stable complexes and less decomposition under cyclic heating. Our experience shows that lower molecular weight chelants like NTA can suffer rapid biodegradation and release adsorbed metals back into the system, where TTHA-Na resists this drop-off, giving better peace of mind for asset managers.
We partner with regional testing labs and industry consortiums to run parallel pilot trials. Data on metal ion hold times, scale growth rates, and dispersion patterns help us refine process control and marketing claims. Academic partnerships have led to joint publications analyzing how TTHA-Na complexes become less susceptible to oxidation or photodegradation. This research encourages utilities and major end users to look past short-term price points, seeing the hidden costs of unscheduled downtime and aggressive cleaning procedures. Researchers from multiple sectors—energy, mining, municipal wastewater—recognize TTHA-Na as an upgrade in their material rosters.
Scaling up production pushes limits on reactor capacity and continuous flow monitoring. We run pilot batches for clients with unusual performance demands—higher water hardness, aggressive dissolved metals, variable temperature cycles. Field technical visits sometimes uncover legacy system residues that resist even the best chelation, at which point we work jointly with operators to optimize treatment programs, sometimes blending in synergistic dispersants or non-phosphate additives. Continuous investment into process automation and real-time analytics positions us to react faster to market changes. The open dialogue with customers, and the willingness to trace faults, delivers a transparent supply chain for all parties.
Long-term users of sodium salt of triethylene-tetramine hexmethanephonic acid build confidence around performance, reliability, and the quality controls we enforce. These strengths, combined with deep chemical expertise and operational openness, keep our plant doors open to visits and technical support requests. Plant engineers, system chemists, and water treatment specialists walk away with solutions that work not just in lab reports, but in the daily grind of industrial operations. TTHA-Na offers more than a chemical formula; it represents the practical result of years of feedback, adaptation, and a manufacturer’s commitment to evolving customer and environmental needs.
