|
HS Code |
462958 |
| Cas Number | 110-58-7 |
| Molecular Formula | C5H13N |
| Molar Mass | 87.16 g/mol |
| Appearance | Colorless liquid |
| Boiling Point | 89-90 °C |
| Melting Point | -115 °C |
| Density | 0.757 g/mL at 25 °C |
| Refractive Index | 1.403 |
| Solubility In Water | Miscible |
| Flash Point | -6 °C |
| Iupac Name | pentan-2-amine |
As an accredited 2-Aminopentane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 2-Aminopentane is packaged in a 500 mL amber glass bottle with a secure screw cap and hazard labeling for safe handling. |
| Shipping | 2-Aminopentane should be shipped in tightly sealed, properly labeled containers to prevent leaks and exposure. It must be stored and transported as a flammable liquid, away from heat, sparks, and incompatible materials. Comply with all relevant regulations (such as DOT or IATA) and provide appropriate hazard documentation during shipment. |
| Storage | 2-Aminopentane should be stored in a tightly closed container in a cool, dry, and well-ventilated area away from sources of ignition. Keep it away from oxidizing and acidic materials. Protect from moisture and direct sunlight. Store at room temperature, and ensure proper labeling and access only to trained personnel equipped with appropriate personal protective equipment. |
Applications of 2-Aminopentane in Industrial ManufacturingAs a direct producer, we supply 2-Aminopentane with controlled purity for several established downstream industrial sectors. Its chemical properties support essential synthetic processes that require defined amine functional groups. Below, we outline verified application fields, process standards observed, typical integration steps, and principal end products among our bulk buyers. 1. Pharmaceutical Intermediate for Active Ingredient Synthesis2-Aminopentane operates as a targeted chain-building reagent in the pharmaceutical industry, especially for the fabrication of specialty active pharmaceutical ingredients (APIs), such as antihypertensive and CNS agents. Its linear C-5 amine chain offers a scaffold for specific condensation and alkylation steps, supporting downstream modifications in heterocycle formation or as a precursor for chiral amines after resolution. Manufacturers employ precise purification and trace impurity control to meet stringent toxicity and safety specifications required for API development workflows. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Agricultural Chemical SynthesisProducers incorporate 2-Aminopentane in the manufacture of selective herbicide and pesticide intermediates. Its five-carbon structure forms an essential fragment during the assembly of carbamate and triazine-based actives, where alkyl amines supply both chemical reactivity and biological activity to the end product. Compounders monitor amine purity to align with agrochemical residual toxicity regulations and use established stoichiometric controls to optimize synthetic yield and downstream environmental impact. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Polymerization Aid in Specialty Polyamide ProductionIn specialty polymer manufacture, 2-Aminopentane acts as a chain extender or building block for developing semi-aromatic polyamides and engineered thermoplastics. Producers select this molecule for copolymerization when tailoring nylon melting points or flexibility, owing to the unique five-carbon backbone introduced. Tight process control is required to regulate chain length distribution and achieve final polymer grades meeting demanding end-use requirements for durability and processability. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Organic Synthesis for Surfactant and Textile Additive ManufactureSelect textile and surfactant manufacturers use 2-Aminopentane as a precursor for synthesizing specialty alkylamine surfactants and textile softening agents. The straight-chain amine reacts efficiently with fatty acids, yielding surface-active derivatives with favorable wetting and emulsification properties in textile processing and detergent compounding. Producers must observe formulation restrictions for contact sensitizers and VOC emission minimization per regional safety standards. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Every day, our production team handles materials like 2-Aminopentane that rarely get the spotlight, but their behind-the-scenes work keeps many sectors moving forward. Here in our facility, 2-Aminopentane, sometimes referred to as 1,5-pentanediamine’s simpler cousin, rolls off the line in steady batches, destined for laboratories and factories worldwide. Our model consistently meets high purity standards, reflecting years of hands-on manufacturing experience. We work to keep impurities, moisture, and other byproducts at levels demanded by both research specialists and bulk buyers.
This compound offers a clean, straightforward hydrocarbon backbone, capped with an amino group at the second carbon. That particular structure allows chemists and process engineers greater flexibility than other amines. For instance, compared to its four-carbon sibling, 1,4-butanediamine, 2-Aminopentane delivers a distinctive set of reactivity options in alkylation, reductive amination, and polymer-related applications. We always keep an eye on reactivity trends, learning what production partners actually need, not just what’s possible on paper.
Our batches of 2-Aminopentane generally maintain a purity exceeding 99%. This consistent quality comes from routine distillation, robust analytical controls, and years of minor tweaks learned from experience. We never found shortcuts that matched the results achieved by strict process control and careful raw material selection. That real-world investment pays off not just in numbers but in fewer surprises for chemists downstream.
People often ask about the actual uses for 2-Aminopentane, sometimes with a raised eyebrow, thinking the answer will sound niche. In practice, our clients tell us it crops up in quite a few places. Research labs value it for synthetic routes that call for a primary amine with enough carbon chain length to serve as a flexible building block—long enough to reach past short alkyl substituents, but not so bulky the chemistry bogs down.
Industrial users appreciate its role as an intermediate for pharmaceuticals, agrochemicals, and specialty polymers. Each sector brings different challenges. In pharmaceutical synthesis, for instance, 2-Aminopentane can serve as a scaffold for drug candidates, or as a step in producing API precursors. Validating the purity here means double-checking each step, since contaminants in a primary amine can cascade through a drug synthesis and derail yield or regulatory acceptance. Decades of manufacturing experience taught us that a shortcut today leads to customer problems tomorrow.
Polymers benefit from 2-Aminopentane’s straightforward nucleophilicity, driving cross-linking with diacids or epoxides. By comparison, shorter-chain amines sometimes leave end users with stiffer, less flexible polymer chains, while longer chains can introduce too much plasticity or disrupt melting points. The sweet spot found in pentyl-based diamines and monoamines lets product developers aim for “just right” physical properties. We know this by talking to formulators working on adhesives, resins, and specialty coatings, many of whom have spent years testing trial samples and reporting back what really matters at the industrial scale.
Some specialty chemical makers choose 2-Aminopentane for its ability to introduce amine functionality onto otherwise inert surfaces. We’ve watched surface modification protocols grow more precise, whether in chromatography separations or as adhesion promoters in composite manufacturing. 2-Aminopentane frequently ends up bridging a surface group and a larger functional molecule, making it vital in these bespoke applications.
We know how important it is for customers to distinguish between different alkyl amines. Often, buyers ask about cost savings or performance gains between similar molecules. Our take—based on running these compounds side-by-side for years—is that differences become clearest in actual operations, rather than on a spec sheet.
2-Aminopentane sits in a growth region between short-chain amines, such as ethylamine or propylamine, and much longer materials like hexylamine. Shorter amines often volatilize too easily or prove less stable in extended syntheses, while longer amines can bring regulatory burdens or extra hazards for handlers. We’ve tracked order data over the years showing how most customers find a ‘Goldilocks’ zone right around the five-carbon mark, especially in reactions demanding balance between reactivity, boiling point, and compatibility with solvents or resins.
From the production floor up, one big distinction involves odor and handling. Some amines—especially those with fewer carbons—are notorious for their sharp, fishy odors and volatility, making large-scale use an olfactory nightmare. 2-Aminopentane still carries an amine scent, but in our experience, it’s more manageable than many alternatives in real-life production conditions. Our plant workers—who spend years on the line—prefer handling 2-Aminopentane over some of its more pungent cousins.
Looking at safety protocols, 2-Aminopentane’s mid-range boiling point lets us include it in batch and continuous processes with less elaborate handling requirements than extremely low- or high-boiling amines. With the benefit of thousands of hours logged by our operations teams, we have less downtime for equipment cleaning and maintenance compared to shorter-chain analogs known for residue build-up.
Customers often ask about scale and reliability. We’ve built our systems to deliver metric tons when needed, or specialty-sealed kilograms for custom synthesis and R&D labs. Regular feedback from clients pushes us toward ongoing improvement—tighter particle size control for those feeding automated reactors, or lower moisture levels for air-sensitive chemistry.
Keeping analytical data in front of our own operators as materials flow from reactor to drum matters more than glossy brochures. We run GC, NMR, and Karl Fischer titrations daily. Why? Because shipment rejections cost more than the savings from skipping a test. Only real-world manufacturing teaches you that kind of discipline.
In all cases, tight collaboration between our R&D, production, and quality assurance teams uncovers new application possibilities. Clients in plastics might report a need for improved flexibility, leading our chemists to test copolymers incorporating 2-Aminopentane. Agrochemical partners ask about selective transaminations; our technical service staff works on optimizing reaction parameters, offering insights gathered from both academic papers and production data.
Global regulations change over time, and we keep pace by running our facilities as cleanly and safely as possible. 2-Aminopentane offers a manageable profile in environmental releases, with breakdown pathways that typically avoid the worst-case bioaccumulation scenarios associated with longer alkyl amines. We consult regional environmental data and review long-term studies to keep our staff and customers informed.
Where sustainability targets require recyclable or biodegradable finished products, formulators work with us to provide amine intermediates that enable the right chemical architecture. In recent years, customers developing bio-based or “greener” polyamides and coatings have asked for 2-Aminopentane in grades that support their certification needs. We rise to the challenge by refining our purification steps and auditing upstream supply chains.
Emerging uses focused on safer chemistries increasingly highlight molecules like 2-Aminopentane. Officials and industry groups weigh potential toxicity and environmental fate. In our decades of experience, transparent reporting and strict process management keep products dependable in both niche and high-volume applications. The lessons learned from earlier generations of chemical manufacturing now guide more sustainable solutions.
No material delivers full customer value unless handled well from the factory to the user’s door. Our transport staff packs 2-Aminopentane in coated steel drums or specialized high-barrier containers to protect from water, air, and rough handling. Feedback from downstream partners taught us the importance of leak-proof packaging and short lead-times—both can make or break a production schedule in the real world.
Warehouse staff regularly communicate about proper ventilation, temperature control, and periodic inventory rotation. 2-Aminopentane stores well under dry, cool, and tightly closed conditions. Staff monitor storage conditions with in-house sensors—not because regulations demand it, but because even a slight deviation in humidity can set off gradual color or odor changes in stored material. Years of experience proved that a small up-front investment in climate control yields materials that perform in customer processes without bumps along the way.
Logistics staff work with customers who need just-in-time or blanket order fulfillment. We learned from customer surveys that no two production lines run exactly alike, so we track demand patterns and build staggered production and shipping plans. For many mid-size end users, flexibility in delivery creates competitive advantage. Having a well-trained, empowered team matters as much as the chemical know-how behind the products themselves.
Working closely with long-term clients, we also address the specific documentation and regulatory paperwork that accompanies each shipment. Material compositions, batch numbers, and traceability documentation flow routinely from SAP systems to customer portals, shaped by years of requests from compliance officers and procurement managers worldwide.
Every production run brings slightly different challenges. We’ve dealt with high-humidity wash days interfering with distillation, or equipment scaling and residue causing batch delays. By reviewing process data from day and night shifts, our operators catch subtle trends that preempt quality drifts—a practice that only comes from field-tested habits.
Start-up teams walk the line every morning, checking seals, pumps, and line purges by hand. More than one incident got handled thanks to the sharp eye of a line operator who noticed a visual change—or a faint odor shift. That level of expertise never comes from pure desk work, and we make sure new hires train alongside veterans before managing a run solo.
Regular surprise audits from management reinforce safe, efficient practices. No amount of written procedure matches the accountability found in real-world walk-throughs. From the CEO to the weekend shift, everyone knows how a mistake can ripple out to the customer. That’s why we invest in skills and reward teams who solve problems before they ever reach the customer.
Quality isn’t something we bolt onto the end of the process. Our lab staff maintain direct communication with operators, flagging even slight drifts in purity weeks before an order ships. We learned the hard way—one contaminated shipment months ago led to costly rework and lost business. That experience shaped our policy: test, verify, and re-verify, and never skip a step.
Customers demand documentation showing actual test results, not just stamps or broad claims. We collect and share the relevant analytical data: NMR, GC peaks, moisture content, amine number. Technical teams—both ours and at our customers—use that data for real-time troubleshooting and validation. Sharing actual data builds transparency and trust, which no marketing language can substitute.
We strive for continuous improvement. Operators participate in Kaizen and Six Sigma programs, sharing insights across shifts and disciplines. Whether it's a slight tweak to the distillation curve or a change in the holding tank temperature, we treat each adjustment as both an opportunity and a lesson. In the chemical industry, experience counts because mistakes linger—or get built into the next generation of processes unless constantly reviewed.
Industries keeping pace with new technologies demand different amine intermediates year over year. Electronics companies ask about ultra-low metal contaminants, while pharma buyers worry most about secondary and tertiary amine byproducts. Immediate communication between sales, R&D, and production allows us to modify formulations or step up QA in a way that keeps us ahead of evolving requirements.
Sometimes clients collaborate with us on brand-new synthetic routes, sharing project goals early on so we can participate in pilot-scale runs. Our teams suggest tweaks based on prior production data—sometimes adjusting reactor temperature profile, sometimes simply adjusting how the amine is introduced to a multi-step process. Every successful outcome reinforces the idea that open lines between supplier and user make for better performance, reduced waste, and easier troubleshooting.
Across advanced materials, coatings, and fine chemical markets, 2-Aminopentane finds fresh relevance each year as new performance standards come into play. We don’t rely on old assumptions; we watch, ask, and study feedback from every corner of our customer base. Real-world manufacturing concerns—batch reproducibility, shelf life, and ease of downstream functionalization—shape the way we refine every lot.
No process runs perfectly, and much of what works in the chemical industry comes from learning what doesn’t. Our veteran staff have seen hundreds of tweaks, mishaps, and overhauls. Each incident—whether driven by a customer request or an in-plant issue—feeds into our toolbox of best practices. We’ve navigated everything from rapid regulatory changes to sudden shifts in demand for diamines. Every lesson guides the next generation of operators and production managers.
Sometimes an order for 2-Aminopentane means balancing new environmental compliance demands with the realities of factory throughput. At other times, market needs shift and we find ourselves tuning reactors and distillation setups for higher output, more stringent grades, or specialty blends. The chemical equations never happen in a vacuum. Actual production means triaging equipment downtime, coaching new operators, and working respectfully with regulators during regular inspections.
Failures—and how we respond—define the line between ordinary suppliers and reliable partners. The ability to admit a misstep, learn quickly, and adapt under pressure makes production better every cycle. We built our systems around fresh feedback, not around minimizing overhead.
2-Aminopentane remains a reliable performer in a fast-evolving chemical market. Each sector puts it to unique use—synthetic chemistry, bulk manufacturing, specialty polymers, pharmaceuticals, and more. Our experience tells us that honest, experience-based communication, thorough process control, and tight feedback loops produce the most consistent results.
As a manufacturer, we know our responsibility runs beyond the batch. Staying responsive to customer needs drives better products, and the cycle of review, improve, and review again never ends. We view every customer report and every lab analysis as a step toward a better, safer, and more dependable supply chain—with 2-Aminopentane playing a silent but critical role in thousands of final products.
The push for better, cleaner, and safer manufacturing will always shape how we produce and deliver each drum of specialty amines. We invest in equipment and staff so clients get what they expect every shipment, every quarter, every year. Decades in the field reinforce the value of hands-on expertise, open communication, and the unglamorous task of double-checking the basics every day. 2-Aminopentane, in that context, isn’t just another molecule—it’s a measure of how well manufacturing meets real-world demand.