|
HS Code |
632736 |
| Chemical Name | Isopropanolamine |
| Cas Number | 75-31-0 |
| Molecular Formula | C3H9NO |
| Molar Mass | 75.11 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Odor | Ammonia-like |
| Boiling Point | 157 °C |
| Melting Point | -1 °C |
| Solubility In Water | Miscible |
| Density | 0.93 g/cm³ |
| Ph | 11.5 (1% solution) |
| Flash Point | 90 °C |
| Autoignition Temperature | 315 °C |
As an accredited Isopropanolamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Isopropanolamine is packaged in a 200-liter blue HDPE drum with a secured lid, labeled with product details and safety warnings. |
| Shipping | Isopropanolamine should be shipped in tightly sealed, corrosion-resistant containers and stored in a cool, well-ventilated area away from incompatible substances. It must be labeled according to local and international regulations, with proper hazard identification. Handle with appropriate protective equipment and comply with all relevant transportation safety and environmental guidelines. |
| Storage | Isopropanolamine should be stored in a tightly sealed container, in a cool, dry, well-ventilated area away from heat sources, direct sunlight, and incompatible substances such as acids and oxidizers. Ensure proper labeling, prevent moisture entry, and store at temperatures below 30°C. Use corrosion-resistant containers and implement spill containment measures to prevent leaks and environmental contamination. |
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Purity 99%: Isopropanolamine with purity 99% is used in gas sweetening processes, where it efficiently removes acidic gases such as H2S and CO2. Molecular Weight 89.10 g/mol: Isopropanolamine with a molecular weight of 89.10 g/mol is used in surfactant formulations, where it enhances emulsification and wetting properties. Viscosity 45 cP: Isopropanolamine with viscosity 45 cP is used in cement additives, where it improves grinding efficiency and dispersion. Boiling Point 257°C: Isopropanolamine with a boiling point of 257°C is used in metalworking fluids, where it provides thermal stability during high-temperature operations. Stability Temperature 80°C: Isopropanolamine with stability temperature of 80°C is used in textile processing, where it maintains consistent pH adjustment under moderate heat. pH 11.5 (1% Solution): Isopropanolamine with pH 11.5 (1% solution) is used in cleaning agents, where it delivers strong alkalinity for effective soil removal. Water Solubility Complete: Isopropanolamine with complete water solubility is used in agricultural formulations, where it ensures homogeneous distribution of active ingredients. Melting Point 3°C: Isopropanolamine with melting point 3°C is used in liquid detergent production, where it supports low-temperature processing without crystallization. Density 0.97 g/cm³: Isopropanolamine with density 0.97 g/cm³ is used in polyurethane systems, where it contributes to uniform foam expansion and structure. Refractive Index 1.458: Isopropanolamine with refractive index 1.458 is used in specialty coatings, where it provides optimal transparency and gloss. |
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Isopropanolamine has gained steady ground across various production lines for good reasons. Anyone who’s mixed up a cleaner or formulated a paint additive has come across this compound, maybe without realizing it. Isopropanolamine wears different hats depending on its closely related forms, especially mono-, di-, and tri-isopropanolamine. Each one takes on unique jobs inside the factory, on the shop floor, or in the lab.
This family of amines makes life easier for folks in agriculture, cleaning, and even construction. The model often points to “99% mono-isopropanolamine” as the workhorse, and its liquid format at room temperature makes handling straightforward—no hassle, no headaches. Purity matters a lot here, since impurities can throw off batch quality in formulations.
Most industrial users appreciate that isopropanolamine helps balance pH levels. Anyone who’s worked with metal cutting fluids knows how critical this adjustment gets. If pH drifts too far, machinery suffers or performance drops. Isopropanolamine helps hold the line, while buffers prevent corrosion and save companies money on repairs.
Most buyers look for clear signs their isopropanolamine matches their needs. Chemistry folks usually gravitate to mono-isopropanolamine, labeled as MIPA, which comes with a strong ammonia-like aroma, remains clear and colorless, and boasts over 99% purity in reliable supply chains. The boiling point lingers around 159°C, which means it suits processes at moderate temperatures and evaporates cleanly without leaving sticky residues.
Some jobs need a thicker rise, and that’s where di-isopropanolamine and tri-isopropanolamine step in. They show higher boiling points than mono-. Their uses flourish when more robust buffering or slower-reacting agents fit the need. Even small formulation tweaks using one over the other can bring out very different results, especially for surfactants and corrosion inhibitors.
On paper, the specs line up for the model 99% isopropanolamine, usually offered in 200-kg steel drums. This amount allows bulk buyers to keep the right inventory without running dry mid-run or resorting to emergency substitutions that might not hold up as well under scrutiny.
Product developers keep coming back to isopropanolamine for one simple reason: reliability. Anyone who’s tried to cut corners using weaker substitutes has learned the hard way. Cheaper amines might seem appealing up front, but in practice, they struggle with precise pH control, can introduce unwanted byproducts, or throw off texture and odor. Cleaning product manufacturers, for example, talk openly about how a subtle change in starting materials ends up with customers noticing odd smells or residue on surfaces.
A good paper mill operator knows what’s at stake, too. Sizing agents—often made by adding isopropanolamine—give finished paper that lovely crispness for writing and printing. If the chemistry wobbles even a bit, giant rolls can end up uneven, which means costly waste or a return trip to the drawing board. Consistent quality doesn’t just save money; it keeps business flowing without unnecessary interruptions.
That’s what raises isopropanolamine above generic amines or even ethanolamines in a range of contexts. Its moderate evaporation, easier handling, and fewer side effects have turned it into the dependable choice in both small-batch workshops and sprawling manufacturing plants.
Isopropanolamine takes on a central role in making concrete additives, solvent blends, detergents, and herbicides. As a neutralizer for fatty acids or resin systems, its balanced reactivity stops soaps and waxy films from clouding up solutions. Dense cleaning formulas work better in part thanks to this amine’s help in breaking up grease and oils without heavy buildup or damage to delicate surfaces.
Anyone who has had to clean up after an oil spill, scrub off years of limescale in a boiler house, or maintain smooth-running air conditioning systems may unknowingly rely on isopropanolamine every workday. In the oilfield sector, it scrubs sulfur and carbon dioxide from refinery streams, keeping emissions controlled and machinery protected from corrosive agents. If those gases slipped through, well corrosion and shorter equipment life would drive up both costs and downtime.
It shows a lighter touch in the agricultural sector. Herbicide production draws on isopropanolamine’s ability to form stable salts with active ingredients, creating products that mix easily with water and stick better to crop leaves. These traits keep effectiveness high, boosting yield protections without layering unnecessary complexity on chemical compositions.
Having mixed batches for water treatment setups and supervised field applications, I’ve seen the difference that a high-purity isopropanolamine makes. A tank farm operator’s day goes smoother when spotting is fast, and less maintenance gets scheduled only because the buffer held strong all week. I still remember a maintenance chief telling me how swapping out a lesser amine reduced endless callouts to fix leaking pipes and pitted storage tanks.
Paint shop workers sometimes grumble about new “innovative” amines, but praise the tried-and-true balance in isopropanolamine. It levels the playing field for additives—no chalky streaks or weird skinning that sends finished paint to the scrap cart. Once you’ve sorted out a clear process, it feels wrong to change out the backbone ingredient and risk predictable, easy results for a chance at cutting costs.
In cleaning operations—think building maintenance professionals—fewer complaints come in about film or unfinished cleaning. The lab can trace back formulation problems almost every time to slight drift in component levels. A precise dose of isopropanolamine brings those situations to heel and keeps results steady.
Ethanolamine, DEA, or TEA each finds a space in the chemical world, but isopropanolamine resists quick generalization. Its unique backbone brings distinct reactivity and vapor pressure. For instance, TEA often foams more aggressively in detergents, which doesn’t always suit commercial floors or food-processing plants where rinse residue creates hazards. DEA’s carcinogenic concerns have led to regulatory shifts in Europe, pushing more buyers toward isopropanolamine for workplace safety reasons.
More nuanced differences come out during blending. Isopropanolamine’s evaporation profile sits nicely between volatile short-chain amines (which disappear too quickly) and heavier triethanolamine types, allowing for better shelf life and more forgiving mixing windows when prepping batches. You can smell the difference in an open drum—less “sharp” than straight ammonia, but more noticeable than the heavier cousins in the same family, making it easier to detect problem batches before they get loaded into process lines.
Chemists working on resin formulations value how isopropanolamine reacts smoothly with acids to make stable salts. These salts tend to resist yellowing and sticking, crucial for wood paneling or neat, clear adhesives where appearance can’t be compromised. This contrasts with some other amines, which may produce off-odors or unwanted coloration as they age or interact with sunlight.
No one wants to handle dangerous goods every day if they can help it. While all amines call for gloves and smart venting, isopropanolamine stands out as safer over time. Reports of skin irritation run lower than with straight ammonia. No need for complex closed-vent systems or breathing apparatus, beyond usual industrial PPE, which lowers overheads and means fewer accident reports across the year.
Storage is easier too—it stands up well to summer heat in the warehouse, won’t set off alarms with accidental drips, and hoses and gaskets seem to last longer with lower maintenance. That’s worth a lot to operations planners, since downtime chews up profit and slows shipments. Chemicals that play well with existing plant design keep the supply chain rolling, with fewer late-night emergencies.
Global suppliers have kept isopropanolamine flowing even as world events squeezes some feedstocks. Buyers can expect familiar specs from reputable sources: mono- at 99+% purity, clear and water-white in appearance, shipped in bulk drums. Road tankers haul it safely, and handling emergencies come up infrequently compared to riskier solvents or acids. This regularity lets planners focus on improving product formulas or squeezing out efficiency, rather than scrambling for substitutes or facing schedule slips.
Engineers who run automated filling lines don’t worry about it gumming up pumps or stressing seals and O-rings, which sometimes happens with heavier amines. Even if bulk demand spikes, the chemical’s broad footprint in global markets means it’s usually available, alongside support from technical reps. The learning curve is gentle for new staff, which smooths onboarding and improves long-term operational trust.
Plenty of operations managers consider cost, waste, and environmental impact while picking day-to-day chemicals. Here, isopropanolamine compares favorably due to its relatively low toxicity and manageable waste stream. Plant engineers regularly reclaim, neutralize, or repurpose waste streams containing this amine. That means a significant share of runoff or off-spec batches get recycled back into next runs instead of heading for hazardous landfill.
Regulators keep chemicals like DEA under the microscope, yet no such widespread bans or restrictions tie up isopropanolamine’s use in most regions. Handling guidance focuses on spill containment and routine air monitoring, with few surprises or sudden compliance headaches. Regular audits focus more on SOPs and worker training, which keeps the conversation centered on best practices rather than crisis response.
From a cost perspective, buyers appreciate that isopropanolamine has remained stable in pricing compared to more specialized blends. The ability to lock in long-term contracts contributes to predictable annual budgeting. No CFO likes supply surprises, especially when a core ingredient figures into half a dozen mainline products.
Chemistry in industry is sometimes less about chasing the latest thing and more about betting on what keeps output high and customer service smooth. Isopropanolamine does this not out of habit, but because enough field experience and lab work have shown it outperforms its more dramatic rivals across a spread of common applications.
Where smaller-scale operators want to scale up without retooling every process, isopropanolamine stands out for its flexibility. Whether blended into a detergent, balancing a cleaning solution, or making agricultural products work the way they should, this amine often finds its way onto the shopping list after plenty of trial and error with other choices.
No product solves every challenge, though. Overuse of isopropanolamine in some market segments can mean higher nitrate and amine residues in wastewater. Smart companies have started investing in better end-of-pipe treatment, which brings down overall environmental loading. Investing in onsite recovery plants means future operations could recycle nearly every drop, converting off-spec batches into usable feedstock for new production runs.
Product managers could push suppliers for even stricter tolerances on impurity content, especially for those serving pharmaceutical or precision electronics industries. By focusing on lowering trace metals and color, the market could open up to even more sophisticated uses, including circuit manufacturing and specialty coatings. It’s not hard to picture a future where even more secondary supply streams feed right back into closed-loop systems, cutting both cost and waste.
Training and education keep playing a role, too. Newer teams entering chemical manufacturing or handling should take advantage of guides and mentorship programs shared by veterans in the industry. That way the “old hands” can pass along practical advice—the little things that make handling safer, storage simpler, and day-to-day peace of mind stronger for everyone on the floor.
Talking shop about isopropanolamine may never get pulses racing outside the lab or plant floor, but for workers who depend on reliable chemistry, it’s the kind of ingredient that keeps businesses running right. The little differences—tight purity, predictable performance, and easier handling—add up over time. In the end, isopropanolamine stands as one piece of the puzzle, sure, but a piece you can trust to fit, batch after batch, order after order, through shifts and shutdowns all year long.