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HS Code |
900126 |
| Cas Number | 53113-41-2 |
| Molecular Formula | C6H15NO |
| Molecular Weight | 117.19 |
| Iupac Name | 3-(propan-2-yloxy)propan-1-amine |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 178-180°C |
| Density | 0.88 g/cm3 |
| Flash Point | 62°C |
| Solubility In Water | Miscible |
| Refractive Index | 1.422-1.426 |
| Smiles | CC(C)OCCCN |
| Purity | Typically >98% |
As an accredited 3-Isopropoxypropylamine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 3-Isopropoxypropylamine, 500 mL, packaged in an amber glass bottle with a secure, chemical-resistant screw cap, labeled for laboratory use. |
| Shipping | 3-Isopropoxypropylamine should be shipped in tightly sealed containers, protected from moisture and direct sunlight. Transport under ambient temperature with proper labeling according to local regulations. Ensure compatibility with packaging materials, and include necessary hazard documentation. Handle with appropriate personal protective equipment and follow safety guidelines during shipping and handling. |
| Storage | **3-Isopropoxypropylamine** should be stored in a tightly closed container in a cool, dry, well-ventilated area away from direct sunlight and incompatible substances such as strong oxidizers and acids. Keep away from sources of ignition. Store at room temperature and label containers clearly. Use suitable chemical-resistant storage cabinetry, and minimize exposure to moisture and air to maintain product stability. |
Applications of 3-Isopropoxypropylamine in Industrial Manufacturing3-Isopropoxypropylamine functions as a specialized intermediate in several industrial chemical processes. As a direct manufacturer, we supply this amine to downstream facilities with consistent quality for tailored molecular construction and end-use product synthesis. Below, we outline principal application fields, including regulatory, formulation, processing, and the resulting final goods. 1. Epoxy Resin Modification for Adhesive SystemsDownstream factories use 3-Isopropoxypropylamine as a reactive modifier for epoxy resin formulation, particularly in structural adhesives for the automotive and electronics sectors. Its primary amine group facilitates controlled cross-linking, enabling specific adjustment of adhesive flexibility and chemical resistance. Process engineers meter the amine into pre-formulated epoxy pre-polymers under controlled temperature and agitation, ensuring full incorporation and targeted mechanical properties. Facilities carry out batch or continuous blending, making precise adjustments in-line based on real-time QC data to maintain bond performance and regulatory compliance for critical component assembly in industrial electronics and vehicle bodywork. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Organic Silicon Coupling Agent ProductionThe material serves as a key alkoxy-functional amine precursor in the synthesis of organosilane coupling agents. Downstream silane manufacturers perform hydrosilylation reactions, introducing 3-Isopropoxypropylamine with silane-functional groups to create aminosilane derivatives. These derivatives enhance chemical bonding between organic polymers and inorganic substrates in engineered plastics, paints, and sealants. Production requires precise mole ratios and impurity control, with each batch tested for amine value and side-product levels to ensure downstream compatibility in composite manufacturing and advanced construction materials. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Waterborne Polyurethane Chain Extender FormulationIn waterborne polyurethane (WPU) manufacturing, 3-Isopropoxypropylamine is implemented as a chain extender, providing controlled amine functionality for molecular weight increase and fine-tuning of film-forming behavior. WPU formulators introduce the amine into isocyanate-terminated pre-polymer dispersions, requiring careful pH and temperature control to prevent side reactions and maintain dispersion stability. The resulting polyurethane dispersions exhibit improved flexibility and surface adhesion, tailored for environmentally adapted coatings and textile lamination. QC protocols focus on NCO/amine ratio verification to ensure compliance with low residual monomer standards. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Intermediate for Pharmaceutical and Fine Chemical SynthesisPharmaceutical process chemists employ 3-Isopropoxypropylamine as a building block for creating active pharmaceutical ingredient (API) precursors and functional excipients. The compound undergoes nucleophilic substitution or reductive amination to introduce hydrophilic side-chains, conferring tailored solubilization and bioavailability properties to the target compound. Processing requires strict documentation under cGMP, and the material's supply chain demands thorough COA verification, traceability, and impurity profiling. Downstream synthesis integrates the amine under controlled, validated batch processes with analytical release testing of intermediates for regulatory submission. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Every chemical we bring to the market starts with a discussion at our plant — about demand, intended application, and users’ pain points. Over the years, 3-Isopropoxypropylamine (CAS 35162-90-4) has gained steady momentum among our customers. Our production team focuses on a product with at least 99% assay by GC, good color and stability, and consistent amine value. We pack this amine in tight-sealed HDPE drums to minimize moisture absorption and maintain stability throughout transport and handling.
Consistently reliable intermediates shape the outcome of countless formulations, whether we’re talking about cationic surfactants for personal care, epoxy curing agents for electronics, or specialty adhesives. A lot of customers share that 3-Isopropoxypropylamine hits the right balance between reactivity and workability. Its branched isopropoxy functional group tends to moderate reactivity, which makes it less aggressive than many straight-chain alkoxyamines but keeps it reactive enough for selective modification.
People often ask us why they should consider upgrading from more common amines. Our response draws on years of receiving feedback from resin and coating manufacturers: using 3-Isopropoxypropylamine results in smoother cure profiles for fast-setting systems, especially where lower viscosity matters. Our own lab has recorded reduced yellowing during long-term UV and thermal exposure. In the surfactant space, formulators see it as a tool to finetune foam structure and improve compatibility with nonionic and amphoteric components.
3-Isopropoxypropylamine doesn’t leave much room for cutting corners. Water, oxygen, and trace metals are strictly controlled at every step. We’ve invested in continuous distillation and multiple-step purification, not because someone told us to but because one missed detail can spoil a customer’s batch downstream. Our team monitors color, odor, and amine value lot-by-lot. When switching from older monoalkoxyamines, users highlight the more predictable reaction kinetics, which come from our process improvements.
Raw materials sourcing can make or break a batch. We rely on local propylene oxide and ammonia suppliers with verified carbon footprints and real logistics accountability. This short travel chain cuts risk and supports just-in-time manufacturing schedules. The amination process for this molecule reacts isopropyl alcohol derived from propylene with allyl chloride, in a sequence designed for maximum atom efficiency, greatly reducing byproduct streams compared with legacy batch methods.
Some customers chase lowest cost per kilogram, but those who stay with us typically run high-spec manufacturing. Each lot of 3-Isopropoxypropylamine hits low water content, tight amine value, and single-digit ppm of residual solvents. Our quality team regularly refers to ASTM and ISO benchmarks when problem-solving for clients, but experience on the floor often trumps what’s on paper. Minor impurities can alter downstream polymer toughness or accelerate yellowing, so we set internal cutoffs beyond what trade specs demand.
Across industries, consistency translates to fewer production hiccups and tighter product traceability. Customers expect their input chemicals to work the same every time, as surprises cost real money. Our system scales seamlessly — small batches for specialty labs, multi-ton lots for industrial resin plants. Each drum that leaves our warehouse reflects repeated, rigorous sampling and verification to ensure the liquid inside is crystal clear and free from gel or haze, even after months in storage.
The alkoxyamine family covers plenty of ground — methoxypropylamine and ethoxypropylamine often come up in conversations with our buyers. Methoxy groups tend to raise reactivity and volatility, which can spell trouble for heat-sensitive or slow-curing formulations. Ethoxy variants score points for moderate cost and midrange boiling points. In contrast, 3-Isopropoxypropylamine’s isopropoxy side chain brings lower vapor pressure and grants a stable viscosity profile across temperature swings.
Customers working in electronics resins and high-resilience adhesives back up these points. Methoxy versions sometimes drive unwanted crosslinking or excessive foam. Isopropoxypropylamine helps reduce runaway reactions and allows for easier fine-tuning in two-component systems. We see repeat inquiries from R&D chemists exploring new polyurethane foams, who emphasize that isopropoxypropylamine’s unique blend of nucleophilicity and steric hindrance cuts down side-reaction formation without over-inhibiting their primary process.
Handling and regulatory topics arise in these conversations as well. Methoxy and ethoxy homologs face stricter labeling requirements in some areas due to their lower flash points. Our isopropoxy material ships under standard Class 8 packaging, simplifying logistics and storage for both us and our customers. We maintain detailed chemical and safety documentation, all developed based on day-to-day user questions and audit requests, rather than as a box-ticking exercise.
Producing amines bears no resemblance to working with bulk commodity solvents. We manage heat release, maintain nitrogen atmospheres, and calibrate equipment before each run. Years ago, we had issues with trace acidity in the product after storage, which led to customer complaints about color shift and smell. We solved this by reconfiguring the final distillation and adding a post-reactor neutralization step, showing how a small tweak on our side can mean a big difference in customers’ outcomes.
Shipping during humid months introduces another layer of risk, as moisture rapidly reacts with alkoxy groups, generating byproducts that affect usability. Over multiple cycles, we shifted to custom drum liners and double-seal fittings, which dramatically reduced returned shipments for off-spec reasons. Temperature swings in transit raised questions about long-term stability, prompting us to conduct our own six-month storage and transport simulation studies. The results show that with proper packaging, even clients in equatorial regions see shelf stability exceeding a year when stored under recommended conditions.
Decisions about raw materials rarely stay on paper; they play out in trial batches, production losses, and customer claims. Our technical support team often joins customer plant trials, helping pinpoint whether subtle issues in foam rise or resin cure trace back to amine purity or side component build-up. One client in high-opacity coatings faced micro-foaming after switching lots from another supplier. Our analysis uncovered elevated chloride ions — a marker for incomplete purification — which we tracked back to upstream process water. We adjusted our internal checks and they moved to full-scale production without the prior foaming headaches.
Another instance involved a flexible foam manufacturer. Issues with early oxidation and shelf scent traced to minor iron contamination from line upgrades in our reactor system. Retooling with food-grade stainless transfers and extra inline filtering kept contaminant levels below detection limits, restoring foam color stability and cutting end-of-line audits.
These stories keep our product team grounded in practical results, not just numbers on certificates of analysis. In return, customers share valuable insight, often catching problems in application that wouldn’t show up in bench testing. Many of our process improvements can be traced back to feedback from routine users, especially where niche or demanding formulations make every part per million count.
Chemistry never stands still. Our colleagues in formulation labs frequently tap us for ideas about greener routes and performance additives. Interest is growing around bio-based or low-impact raw materials. We’ve begun exploring integration of renewable feedstocks, such as isopropyl alcohol derived from fermentation, which would cut lifecycle emissions without compromising product consistency. Engineers also experiment with solvents and precursors to reduce waste streams, responding to both regulatory pressure and practical cost savings.
Cutting emissions and improving environmental profiles means trial, error, and tested patience. Companies in specialty chemicals increasingly ask us about closed-loop waste management, energy-saving production adjustments, and alternative synthesis strategies. Already, we’ve achieved measurable reductions in VOC emissions by optimizing our amination step, switching to low-emission heaters, and repurposing heat for pre-warming raw materials.
On the safety side, the most consistent push comes from companies scrutinizing operator exposure and end-user contact. 3-Isopropoxypropylamine’s moderate vapor pressure gives processors more flexibility than highly volatile monoalkylamines, which require strenuous air-handling and protective gear. We provide full transparency regarding hazard data and encourage joint site audits, sharpening best practices around handling and emergency procedures.
Flexibility marks the difference between mass-producers and those who answer calls for new project runs or small-batch orders. Our operation balances high-output plant lines with pilot reactors for unique amine blends. Small-batch customers — like specialty coating startups or academic R&D teams — lean on us for shorter lead times, detailed batch tracking, and direct technical support. For larger, multi-ton buyers, consistency and security of supply come first, especially when destination plants operate around the clock.
Both types of customers push us to review and refine supply logistics, as shipping delays and customs hiccups hit hardest for time-sensitive production. Over the years we’ve experimented with both centralized distribution centers and direct shipping; each model has strengths, so we offer tailored approaches based on order profiles and risk tolerance. Documentation, batch history, and flexible packaging have all evolved through customer feedback loops.
Customer stories underscore why real-world needs set the course for how a product gets made, shipped, and supported. In cases where 3-Isopropoxypropylamine clarified a recurring production issue, often it came down to details other producers might overlook: tighter control of minor impurity profiles, repeatable viscosity, or simply prompt data sharing in the event of a supply chain disruption.
A clear, open feedback channel between supplier and customer matters as much as a spec sheet. Buyer teams in advanced resin and adhesive sectors stress the impact of small impurities on product color and performance, not just immediate quality. Adjustments to our process, such as deeper vacuum distillation cycles or extra post-reaction filtration, evolved in response to this kind of user-driven troubleshooting.
Markets keep shifting, and the portfolio of applications only grows wider — from flexible foams and adhesives to surfactants and epoxy formulations. The push toward higher purity, better performance, and sustainability comes not from marketing slogans but from customers whose production depends on trusted inputs. Our production philosophy draws from daily operations: start with tight basic controls, innovate where recurring challenges appear, and keep open lines for end-user feedback.
For us, 3-Isopropoxypropylamine carries more than its chemical name or CAS listing would suggest. It’s a product honed through listening, adapting, running test batches, and supporting users through ups and downs. By working directly with industry partners rather than through layers of resellers, we answer questions at the source and gain real insight into which developments matter most. As industries ask for better, safer, and more resilient components, we commit to raising standards — not by resting on brand names or awards, but by proving with every shipment that we stand behind the amines we produce.