|
HS Code |
699661 |
| Chemicalname | Triisopropanolamine |
| Casnumber | 122-20-3 |
| Molecularformula | C9H21NO3 |
| Molecularweight | 191.27 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Odor | Characteristic amine odor |
| Solubilityinwater | Miscible |
| Boilingpoint | 305 °C (581 °F) |
| Density | 1.02 g/cm³ at 20 °C |
| Ph | 10.5 (for 10% solution at 25 °C) |
| Meltingpoint | -11 °C (12 °F) |
| Flashpoint | 166 °C (331 °F) |
| Viscosity | 190 mPa·s at 25 °C |
As an accredited Triisopropanolamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Triisopropanolamine is packaged in a 200 kg blue HDPE drum with a secure screw cap, labeled with product details and safety information. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for Triisopropanolamine typically contains 16–18 metric tons, packed in drums or IBC totes, securely palletized for transport. |
| Shipping | Triisopropanolamine is shipped in tightly sealed drums or containers, protected from moisture and direct sunlight. It should be stored in cool, well-ventilated areas, away from incompatible substances. Proper labeling and compliance with transport regulations (such as DOT, IMO, or IATA) are essential to ensure safe handling and delivery. |
| Storage | Triisopropanolamine should be stored in a cool, dry, and well-ventilated area away from sources of heat, ignition, and incompatible substances like strong oxidizers and acids. Keep the container tightly closed and clearly labeled. Protect from moisture and direct sunlight. Use corrosion-resistant storage containers and ensure appropriate spill containment measures are in place to prevent environmental contamination. |
| Shelf Life | Triisopropanolamine typically has a shelf life of 2 years when stored in tightly sealed containers at cool, dry conditions. |
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Purity 99%: Triisopropanolamine with 99% purity is used in cement grinding aids, where it enhances grinding efficiency and reduces energy consumption. Viscosity grade 400 mPa·s: Triisopropanolamine with a viscosity grade of 400 mPa·s is used in concrete admixtures, where it improves workability and pumpability of concrete mixes. Molecular weight 191.28 g/mol: Triisopropanolamine with molecular weight 191.28 g/mol is used in metalworking fluids, where it provides corrosion inhibition and extends tool life. Melting point 42°C: Triisopropanolamine with a melting point of 42°C is used in surfactant formulations, where it provides stability over a broad temperature range. Particle size < 50 µm: Triisopropanolamine with particle size less than 50 µm is used in specialty coatings, where it ensures homogeneous dispersion and smooth surface finish. Stability temperature 65°C: Triisopropanolamine with stability at 65°C is used in oilfield chemicals, where it maintains efficacy under high-temperature processing conditions. Water content < 0.5%: Triisopropanolamine with water content below 0.5% is used in textile softeners, where it optimizes softening efficiency and prevents product degradation. |
Competitive Triisopropanolamine prices that fit your budget—flexible terms and customized quotes for every order.
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Working in this field, hands bear the trace of countless batches and the lessons drawn from genuine production runs. Triisopropanolamine, often called TIPA for short, comes up again and again on our plant floor thanks to its broad usefulness across multiple industries. The product isn’t a newcomer—production recipes haven’t changed dramatically over the past several decades, but improvements in purification, raw material sourcing, and batch consistency keep delivering better performance batch after batch. The TIPA we produce, with a typical assay of 85% minimum and low color, arrives in forms well-suited for both liquid blending and direct dosing. Our own process avoids excessive minor amines, keeping side-reactions out of your workflow.
TIPA gives form and function to many household and industrial goods, sometimes without attracting much attention. Most often, concrete and cement admixture producers rely on it to support grinding aid formulations. Compared with mono- and di-isopropanolamine, TIPA shows much stronger effect as a grinding agent because its structure links three isopropanol groups to one nitrogen, dramatically improving dispersing action. In our direct experience, customers running high-throughput cement mills note that higher-dose monoamines tend to foam, while TIPA holds back bubble formation far more effectively. Mills stay cleaner and maintenance costs drop. Having worked closely with both small family-owned construction chemical blenders and multinational cement producers, these grinding improvements save both downtime and energy.
There’s a temptation to look at TIPA, diisopropanolamine (DIPA), and mono-isopropanolamine (MIPA) as if they’re interchangeable, but nothing on the plant floor ever works out so simply. TIPA’s additional isopropanol group brings higher viscosity and a different balance between water and organic solubility. We've run batch trials side by side—when switching from DIPA to TIPA in cement grinding, the increase in compressive strength of the finished mortar is clear in ASTM C109 tests. This isn’t a lab curiosity; it’s real-world difference that shows up at construction sites around the region.
In the fields of coatings and surfactants, TIPA’s bulk makes it a less volatile, slower-evaporating amine in water-based formulations. Surfactant producers tell us this reduces odor and skin irritation in finished products compared with lighter amines. In-house, we've learned never to assume that the higher price per kilogram means higher total cost—formulators who adopt TIPA often run leaner, more durable recipes, saving money on additives elsewhere. Paint manufacturers in particular switch to TIPA for anti-corrosive pigments because it chelates metal ions without yellowing or streaking. Unlike some related amines, it achieves this without boosting system pH excessively, reducing risks of saponification, and protecting equipment.
Every operator here knows the headaches that follow inconsistent incoming raw materials. Plants using technical- or cosmetic-grade TIPA can count on tighter specification control compared with cheaper alternatives. Our runs use carefully sourced propylene oxide and pure isopropanolamine. Process temperature and reaction residence time are watched closely at every step—rushed batches mean wandering color and more side-products, neither of which should end up in your system. Long-standing customers from adhesives and concrete admixture makers regularly audit our site; their feedback led to important upgrades years ago—a new distillation system now eliminates “heavies” (residues) which once contributed to settling in paint premixes.
For end users who need highly dilute or specific pH results, TIPA’s reduced volatility provides greater process control, especially under the hot, variable conditions in soap making and detergent plants. Lower vapor pressure means longer shelf-life and less risk in transit. No warehouse supervisor wants to find drums sweating in summer heat—our bulk and drummed packaging maintains product stability for well over 12 months under standard storage.
The applications that hang on TIPA aren't limited to just one sector. In the world of concrete and cement, higher dosages improve both early and late strength. We’ve witnessed this first-hand, both in local construction jobs and in technical support to larger players. Polycarboxylate ether superplasticizer producers ask for fine-tuned grades; TIPA’s tertiary amine group brings stable emulsification for longer pours, especially crucial in delayed set times required on big infrastructure projects.
In the detergent sector, performance comes down to compatibility and stability under alkaline conditions. We have watched as product engineers reformulate to replace older ammonia-based neutralizers with TIPA, achieving milder products and longer shelf lives. No more yellowing in storage. Synthetic resin and adhesive companies look for amines that support resin solubility without causing yellow discoloration. Our batches of TIPA, sampled over extended production cycles, track below color index 60 APHA—an important detail for clear adhesives and ultra-white sealants.
One difference shines through in the field: the impact of residuals on performance. Cheaper TIPA from older facilities—or those outside mainstream regulatory systems—brings more residual isopropanol, water, or minor amines. This is not a trivial matter for anyone running automated dosing in continuous mixers. Our quality team logs the water content and residual amines in every lot, using Karl Fischer titration and chromatographic methods. Plants avoid clogs, nozzles stay open, and downstream customers report fewer batch failures.
Working in chemical manufacturing, safety has always come before volume. TIPA doesn’t pose the acute toxicity problems linked with some lower molecular weight amines, yet the right personal protective equipment makes all the difference. Employees handling transfer lines or fitting drums follow stringent protocols: full goggles, gloves, and regular site checks. It’s the same discipline shared with every customer who joins tours on our shop floor. We supply technical bulletins on request, but most important is the visible safety culture among operators and maintenance staff. We've worked with environmental teams for years to reduce emissions—closed-loop transfer systems and onsite vapor recovery, now standard in our main packaging areas, cut fugitive emissions to well below local and international reporting thresholds.
Sustainability remains a challenge, especially in a rapidly developing region. Over the years, we moved from open kettles and drum blending to sealed reactors and automated metering to reduce exposure and waste. Customers demand product stewardship, so recovering wash water for reuse is standard practice. There’s no shortcut: wastewater containing trace amines, though less hazardous than heavy metals or phenols, must be pH neutralized, properly collected, and either treated in-house or sent to licensed plants. To our knowledge, properly managed TIPA production and use present fewer groundwater risks than lighter solvent amines. We’ve tracked discharge metrics and have worked with local authorities to ensure water and air quality compliance.
TIPA’s core chemistry may have roots in earlier generations, but we see constant innovation in application methods and batch refining. Concrete technologists have shared insights from jobsites where superplasticizers, in combination with TIPA, dramatically reduce water use, speeding up finishing and reducing shrinkage cracking in the resulting slabs. Marketers usually don’t walk the jobsites, so the feedback loop back to the plant matters more than any glossy brochure.
Coatings chemists want lighter color, less odor, and tight amine titration. Our lab staff invests regular overtime in finding catalysts that lower the formation of side-products during synthesis. Even minor tweaks—like cold trap optimization to recover unreacted isopropanolamine—add up across hundreds of production days. The net effect shows in our yearly emission and waste audits. Relationships built on transparency make it possible to implement subtle, real-world improvements, like adjusting tank vent filters or switching seal materials to improve batch yield.
Raw material sourcing shifts with global price changes and regional distribution. We have moved through various grades of propylene oxide, learning that slight purity drops can create major headaches downstream: more off-color product, higher odor, and rising customer complaints. Reliable partnerships with upstream chemical producers keep the supply chain running predictably. There’s always the temptation to accept lower-cost shipments, but experience shows that off-specification shipments ripple all the way through to the end product—resulting in more returns, reprocessing, and lost goodwill.
Listening to users—especially engineers, technical managers, and logistics teams—shapes the practical characteristics of our TIPA. One long-term admixture customer once reported rising foaming rates in summer-haul concrete. After batch testing, we identified a small but impactful rise in DIPA content from one raw material supplier. We changed suppliers; the result was clear and immediate reduction in foam, tighter yield, happier batch operators. The message holds inside our factory walls, but applies just as strongly out on construction sites and detergent plants—spotting small variations before they become large problems saves money and time at every link in the chain.
Collaboration expands to the realm of regulation and compliance. Regulatory changes relating to chemical use, labeling, and safe transport continue to grow year by year. Having spent long hours reviewing new guidelines with internal and external experts, the paperwork side of chemical manufacturing keeps growing in complexity. Our experience proves that clear labeling, batch traceability, and ready access to safety information ensure smooth import and audit processes—something we take seriously by investing in dedicated compliance staff and digital batch tracking systems.
Triisopropanolamine remains a cornerstone in industries striving for efficiency, strength, and new possibilities. In cement and mortar blending, TIPA unlocks stronger, longer-lasting structures without complex changes to established workflows. In coatings, it balances performance without introducing color, smell, or stability issues. Detergent and cleaning supply chains benefit from its manageable vapor pressure, mildness, and safe blending. Manufacturers that invest in robust, clean, and compliant TIPA production lines witness returns in both customer satisfaction and plant reliability.
We measure success in both routine batches and rare problem-solving moments—each shaped by hands-on knowledge and the commitment to reliable chemistry. Experience proves that understanding the chemical’s real-world demands brings more than just lower defect rates or cleaner audits; it builds trust across our own team and those who depend on us for their next product innovation. The story of TIPA, as told from the shop floor and verified in field and lab, blends chemistry with practical insight every day.