|
HS Code |
828990 |
| Iupac Name | Propan-2-amine |
| Common Name | 2-Aminopropane |
| Molecular Formula | C3H9N |
| Molar Mass | 59.11 g/mol |
| Cas Number | 75-31-0 |
| Appearance | Colorless liquid |
| Odor | Ammonia-like |
| Boiling Point | 32.3 °C |
| Melting Point | -83 °C |
| Density | 0.693 g/cm³ |
| Solubility In Water | Miscible |
| Flash Point | -17 °C |
As an accredited 2-Aminopropane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging consists of a 500 mL amber glass bottle with a secure screw cap, labeled "2-Aminopropane, 99% pure, flammable." |
| Shipping | 2-Aminopropane (isopropylamine) should be shipped in tightly sealed containers, protected from moisture and incompatible substances. It is classified as a flammable liquid, requiring labeling according to hazardous material regulations. Ship in compliance with DOT, IATA, and IMO guidelines, ensuring proper ventilation and temperature control to prevent excessive heat and vapor accumulation. |
| Storage | 2-Aminopropane (isopropylamine) should be stored in a cool, dry, and well-ventilated area, away from heat, sparks, and open flames. Keep the container tightly closed and clearly labeled. Store away from strong oxidizers, acids, and moisture. Use appropriate corrosion-resistant containers and ensure proper grounding and bonding. Protect from direct sunlight and sources of ignition. Handle in accordance with safety guidelines. |
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Purity 99%: 2-Aminopropane with purity 99% is used in pharmaceutical synthesis, where it ensures high-yield active ingredient production. Low Water Content: 2-Aminopropane with low water content is used in agrochemical formulations, where it prevents hydrolysis and improves formulation stability. Boiling Point 32°C: 2-Aminopropane with boiling point 32°C is used in gas-phase alkylation processes, where it enables efficient volatile reactant handling. Molecular Weight 59.11 g/mol: 2-Aminopropane with molecular weight 59.11 g/mol is used in organic synthesis, where consistent molecular weight allows predictable reaction stoichiometry. High Storage Stability: 2-Aminopropane with high storage stability is used in industrial resin manufacturing, where it provides long shelf-life and reliable reactivity. Low Impurity Level: 2-Aminopropane with low impurity level is used in specialty coating formulations, where it supports superior film formation and surface quality. |
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Working at the source of chemical production, every shift brings real stories about the value and versatility of chemicals like 2-Aminopropane. Our teams engage with this compound not only as a product number on a checklist, but as a contributor to processes that touch nearly every industrial sector. Known in the trade by its formula as isopropylamine, 2-Aminopropane presents itself as a clear, volatile, nitrogen-containing chemical with a noticeable odor and distinct properties that have made it a staple in both established factories and forward-looking innovation labs.
Unlike general-purpose chemicals kept around for occasional blending, 2-Aminopropane finds steady use on our manufacturing floors year after year. Its appeal stems from the balance between reactivity and manageability. Unlike many amines with heavier carbon backbones, this molecule’s structure—a simple propyl chain attached to an amino group—keeps it nimble for transformations and reactions. The difference becomes clear during long, overnight syntheses where reliable, consistent intermediates matter. Our operators don’t have time for surprises mid-batch. Customers in the agrochemical, pharmaceutical, and polymer industries continue to demand the product that lets them deliver results week after week.
On a practical level, our standard 2-Aminopropane comes with rigorous controls. We measure purity, water content, and the level of trace by-products batch by batch, not simply through final tests, but through steady monitoring in the reactor. Only a handful of skilled technicians, each with years of hands-on troubleshooting and chemical intuition, keep the production lines running at the stability modern buyers expect. The standard grade, tailored for industrial use, offers a purity exceeding 99%, based on gas chromatography, with water levels maintained below 0.5%. Much of the assurance stems from the raw materials we choose—only direct-line hydrocarbons and ammonia, avoiding cost-cutting blends that jeopardize the downstream quality for users requiring consistent synthesis behavior.
Sometimes end-users ask us what sets our 2-Aminopropane apart. Unlike higher-chain amines or specialty functionalized variants, this product doesn’t require heavy stabilization nor the use of complicated catalysts for most of its applications. It stores securely in carbon steel drums or ISO tanks under nitrogen. Handling on our line often involves closed-loop transfer systems, not only for worker safety—given the product’s volatility and strong odor—but also to prevent environmental release and to keep levels from fluctuating due to evaporation.
Temperature and humidity during transfers are just as vital as the drum’s seal. Few outside the manufacturing rooms realize how seasonal changes affect even a ‘simple’ chemical. Summer humidity can seed trace water in open drums. Teams on night shifts check seals with a flashlight, not from habit, but knowing that a small variance can show up months later in a pharma partner’s column separation. We’ve seen cases where a difference of 0.1% water content changed whole reaction yields downstream. These lessons stick.
The synthesis route we employ leverages propane derivatives and ammonia through catalytic amination—a process refined through years of pilot testing and scale-ups. The focus always rests on yield, selectivity, and minimizing unwanted side products. Each generation of innovation, drawn directly from our technicians’ feedback and batch reports, informs ongoing upgrades, from catalyst choices to system cleaning protocols.
During scale-up, we faced predictable hurdles: fouling in heat exchangers, uneven mixing in early reactors, and catalyst deactivation under suboptimal pressures. Adjustments came not just from checklists, but from accumulated know-how. One memorable incident stemmed from a trace impurity in source propane—the lesson was costly, but reinforced the ties among procurement, operations, and quality teams. Today, close supplier relationships and in-house gas analysis prevent similar episodes and keep output at target.
Downstream, every liter of crude product undergoes double distillation. Real-time monitoring, and not just post-processing QA, flags off-spec fractions before they mix into the bulk. By the time drums or bulk tankers leave our loading bay, the logged data gives technical buyers confidence that they’re receiving a tight, predictable molecular profile. Maintaining these controls takes an investment in equipment—columns, in-line analyzers, specialty valves—and also a willingness to stop an entire batch if an anomaly surfaces. No shortcut replaces vigilant eyes on the floor.
2-Aminopropane shows up in several corners of industry, but our closest partnerships remain with the agrochemicals sector and pharmaceutical synthetic plants. As a manufacturer, we learn first what will frustrate or enhance operations downstream.
In glyphosate production, the formation of an isopropylamine salt helps to solubilize and deliver the active ingredient. Downstream partners consistently remind us that salt formation efficiency depends wholly on the starting amine’s purity, absence of aldehydes, and other trace contaminants. We provide custom analytics as needed, allowing agrochemical blenders to keep their high-volume reactors humming without costly stoppages due to off-grade amine batches.
In pharma, small modifications in the structure of amine intermediates can change regulatory profiles, impurity landscapes, and, sometimes, the very bioactivity of the next molecule in a pipeline. Here, 2-Aminopropane helps construct key intermediates, especially for API development teams seeking scalable routes to amines without secondary group complications. These players demand batch-to-batch reproducibility—no lab surprises, and no late-night troubleshooting over mystery spots on NMR.
As for other industries, rubber accelerator producers use the compound to tune reaction profiles. Textile processors sometimes deploy it for specialty finishing steps. Often, customers come to us after unsuccessful conversions using more reactive, less predictable amines. Our product’s even, predictable behavior under controlled pH makes it an industry standby where reliability matters more than outright reactivity.
Stepping back, a common question lands on our sales and technical desks: why not switch to other amines? In reality, alternatives like methylamine, ethylamine, or related cyclic amines each hold their niches, defined by boiling point, nucleophilicity, or downstream conversion costs. Methylamine burns hotter and demands more careful venting. Ethylamine drifts out of solution quicker and brings higher environmental scrutiny for air emissions.
2-Aminopropane finds its appeal in a boiling point and vapor pressure that fits nicely into common plant infrastructure. It manages to be reactive enough for alkylation and short-path reactions, but without the runaway hazards seen in more energetic amines. Handling and storage infrastructure updates are minimal for customers switching from other straight-chain analogues. Most production lines keep using it because upstream and downstream systems already match its handling profile. This is less about inertia and more about an honest appraisal of the hidden costs of revalidation or disqualification.
From the raw material cost side, propane derivatives offer reliable sourcing—current global production patterns haven’t shown the volatility of smaller, more specialized feedstocks. Our supply chains favor predictable delivery, giving planning teams confidence in production targets without scrambling for imports or spot-market alternatives. That said, prices still respond to energy markets, and our teams work year-round on both hedging and local supply relationships. This isn’t abstract risk management; it’s the direct result of missed deliveries or shortfalls, affecting everyone from the line worker blending the batch to the logistics coordinator routing the drums out.
No discussion would be honest without a mention of workplace and environmental safety. 2-Aminopropane doesn’t belong in the high-toxicity club, but as a volatile, flammable liquid, it commands respect. From a manufacturer’s standpoint, there’s no margin for error—equipment needs frequent checks, operators use triple-layer gloves, and material transfer sets run only under fume extraction. We run drills on spill response well beyond regulatory minima, as a safeguard both for workers and the neighborhoods surrounding our plants.
Emissions control also emerges as an industry-wide concern. Local regulators show increasing interest in volatile organic compound management, and compliance shapes decisions on equipment upgrades and process modifications. Over the past five years, our plant added new scrubber technology, continuous emission monitoring, and upgraded transfer lines. Every improvement results from an incident or audit. No one working a chemical plant floor forgets the lessons of an unplanned release, minor or otherwise; that memory motivates all preventative maintenance and training efforts.
Wastewater requires just as much attention. Amines in effluents can quickly draw regulatory—and public—attention. We operate advanced on-site treatment systems that break down residual amine streams using both biological and chemical oxidation. Most of these upgrades came after an uptick in local compliance checks and community expectations. Early investments save longer headaches when neighbors, regulators, and buyers align their expectations for a cleaner industry.
As experienced chemical producers, we recognize the trajectory of customer demands. Years ago, bulk volume and low price drove most negotiations. Now, buyers weigh a heavier set of standards—narrower impurity windows, certification of origin, waste minimization, and proof of safe supply chains. One frequent callback from customers involves documentation: comprehensive certificates of analysis, supply chain transparency reports, and sustainability disclosures. These aren’t viewed as hurdles—they represent the evolving contract between producers and buyers who want to keep their own products on the shelves.
For some applications, the push for even higher purity specs or custom modifications motivates us to refine our process. We field requests for variants—sometimes low-moisture grades for electronic or fine-chemical users—requiring us to tweak dehydration steps or invest in new inline measurement tools. Each modification means a round of internal qualification to ensure safety isn’t compromised. Safety, quality, and reliability work in tandem. The priority remains clear, even during a rush order or supply crunch: no shortcut outruns the echo of a quality or safety issue months later.
Transparency matters just as much as capability. With tighter regulations and customer audits, we open our doors to routine plant inspections, third-party sample testing, and shared data logs that demonstrate our controls. These touch points, sometimes more frequent than in prior decades, help reassure end-users that their specifications and compliance risks have outside validation. Advances in digital batch records, sensor logging, and remote QA reporting provide new tools to meet these expectations without slowing delivery.
Strong relationships with stakeholders—procurement teams, technical partners, regulators, and, occasionally, the neighbors living near our plants—shape how we run our facilities. Regular feedback from major buyers often brings fresh perspectives, especially when their researchers encounter challenges not visible to us from a reactor’s control room. As a manufacturer, we view every return purchase—and every audit passed—as data for both continuous improvement and reputation-building.
Internally, we cultivate a culture of practical problem-solving and skill-building. Veteran operators mentor younger staff on both the technical and the intangible—the art of troubleshooting, knowing when to halt a batch, or how to interpret a faint change in product color or odor. These practices, passed from shift to shift, anchor our ability to keep 2-Aminopropane production consistent, despite changes in feedstock prices, regulatory tone, or market cycles.
The market for 2-Aminopropane shifts with advances in end-user technology, shifts in agricultural markets, and evolving pharmaceutical pipelines. Specialty applications, especially in electronics or custom materials, prompt requests for new purity or handling protocols. Our investments in process flexibility—additional lines for specialty grades, modular purification trains, and a culture of adaptation—meet the demands as they arise. No process runs on autopilot; every year invites recalibration.
Supply chain security and global logistics also remain on our agenda. Geopolitical factors, port conditions, and even weather events affect drum and tank deliveries in ways that used to be considered rare exceptions. Our transition to dual-route sourcing, multiple warehousing options, and transparent logistics reporting easily ranks as one of our most challenging moves over the last decade. It arose from a simple lesson—customers remember the failed shipment, not the hundreds of uneventful deliveries.
None of the work behind producing 2-Aminopropane feels routine to those of us living it. Combining chemical precision, operational grit, and evolving market intelligence, we produce this compound for countless industries, each with its own priorities and constraints. Direct experience in every step, from catalyst charging to final drum loading, shapes both our optimism for the future and our appreciation for the daily work required to earn trust batch by batch. In this industry, we build that trust not with empty assurances, but with careful, coordinated actions every day, always anchored in real, on-site experience.