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HS Code |
999404 |
| Chemical Name | 3-Aminopyridine |
| Molecular Formula | C5H6N2 |
| Molar Mass | 94.12 g/mol |
| CAS Number | 462-08-8 |
| Appearance | White to off-white crystalline powder |
| Melting Point | 61-63°C |
| Boiling Point | 273-274°C |
| Density | 1.153 g/cm3 |
| Solubility in Water | Soluble |
| pKa | 6.04 |
| Flash Point | 140°C |
| Refractive Index | 1.615 |
| IUPAC Name | pyridin-3-amine |
As an accredited 3-Aminopyridine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 3-Aminopyridine is packaged in a 100g amber glass bottle, sealed with a plastic cap, and labeled with safety information. |
| Shipping | 3-Aminopyridine is shipped in tightly sealed containers to prevent moisture and contamination. It must be handled as a hazardous chemical, following all relevant regulations. Transport occurs under appropriate labeling, with safety data sheets provided. Packaging should ensure protection against leaks or spills during transit, in compliance with chemical shipping standards. |
| Storage | 3-Aminopyridine should be stored in a tightly sealed container, away from light, moisture, and incompatible substances such as strong oxidizing agents. Store it in a cool, dry, and well-ventilated area, preferably in a chemical storage cabinet. Ensure proper labeling and keep it away from sources of ignition, as it may be combustible. Always follow institutional safety protocols. |
Applications of 3-Aminopyridine in Industrial ManufacturingAs a core manufacturer, we supply 3-Aminopyridine for critical industrial applications where purity, precise formulation, and consistent quality are essential for production efficiency and regulatory compliance. The following sectors represent fundamental downstream segments where our material integrates directly into established synthesis routes and technical protocols. 1. Pharmaceutical Intermediate for Active Molecule Synthesis3-Aminopyridine acts as a key intermediate in the synthesis of various active pharmaceutical ingredients, notably within neuromuscular blocking agents and antineoplastic medicines. Pharmaceutical manufacturers employ this compound in multi-step API manufacturing routes, emphasizing batch traceability and impurity control. Our production ensures low residual solvent content and reproducibility for regulatory documentation and global supply chains. Industry compliance standards
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2. Agrochemical Synthesis for Pyridine-Based HerbicidesIn the crop protection sector, 3-Aminopyridine is a building block in the synthesis of selective herbicides and fungicides. Agrochemical producers use this intermediate to construct pyridine rings with substituents that deliver targeted bioactivity in field applications. Quality consistency remains critical during large-scale processing to achieve predictable pesticidal performance and meet environmental registration requirements. Industry compliance standards
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3. Synthesis of Photographic Chemicals and Imaging AgentsThe fine chemicals industry requires 3-Aminopyridine as a specialty intermediate for manufacturing imaging dyes, silver halide modifiers, and developer stabilizers. Its electron-rich nitrogen position allows precise reactivity during chromophore and spectral sensitizer construction used in high-resolution imaging materials. Strict analytical control is necessary to eliminate interfering side products and fulfill detailed technical data requirements for imaging applications. Industry compliance standards
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4. Fine Chemical Synthesis for Corrosion Inhibitor ProductionIndustrial water treatment and oilfield service providers apply 3-Aminopyridine to synthesize corrosion inhibitor molecules, particularly for harsh or saline operational environments. The compound contributes to the creation of nitrogen-bearing heterocyclic structures with demonstrated efficacy in steel protection, especially in pipeline and recirculating system applications. Batch control during upstream synthesis ensures impurity levels remain within limits to avoid downstream fouling or catalyst poisoning. Industry compliance standards
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Years spent on the chemist’s floor have taught us that the details shaping quality never hide in processes—they speak through every kilogram we ship. Every batch of 3-Aminopyridine tells a story that starts right in our synthesis labs. We use only pharmaceutical-grade raw materials, select certified reagents, and track every step, from initial reaction to refining and drying. A manufacturer must take responsibility not just for purity but also the traceability of each production lot. That kind of control doesn’t come from chance or a broker’s promise; it comes from walking the line, hour after hour, batch after batch.
3-Aminopyridine (pyridin-3-amine, CAS 462-08-8) is a crystalline solid with a molecular formula of C5H6N2. We manufacture it at our dedicated facilities where analytical controls run parallel to the reactors. Each sample undergoes HPLC analysis to confirm purity, and we regularly exceed 99% assay requirements demanded by our partners. Moisture content, often overlooked, gets special attention, as the hygroscopic nature of the compound can affect handling. We deliver 3-Aminopyridine in tightly sealed containers, supported with rigorous moisture analysis so chemists down the line aren’t surprised by product inconsistencies.
Our plant operates under strict temperature and pressure controls, minimizing by-product formation and simplifying later purification. Following synthesis, our crystallization and filtration steps result in a powder free from process solvents. TLC and GC-MS spot checks verify no interferences remain, which spares our customers the cost and trouble of repeated purification steps.
Since our founding, customers from the pharmaceutical and agrochemical sectors have consistently expressed how batch variability can upend entire projects. A process chemist at a major drug discovery group once told us trace contaminants in an off-the-shelf product forced months of re-optimization. We’ve lived through these feedback cycles and adapted every facet of production with end users in mind.
3-Aminopyridine’s most frequent use revolves around synthesis of pharmaceutical intermediates and active ingredients. This heterocycle forms a key building block in treatments for neuromuscular disorders and some emerging applications in oncology. Agrochemical manufacturers rely on it for crafting novel pesticides and fungicides. In both sectors, product reliability influences process yields, catalyst stability, and even regulatory clearance for downstream formulations. Full batch documentation—something distributors rarely provide—accompanies every drum we ship, making audits and trace-back straightforward.
Through years of refining, we settled on a specification range that delivers proven results in scale-up and formulation. Purity is consistently above 99%, which we back with third-party analytical certifications if requested. Typical content of water by Karl Fischer never exceeds 0.2%, reducing the risk of downstream hydrolysis or instability. Residual solvents and by-products register well below the limits set by most regulatory agencies.
Our powder falls within a well-defined particle size distribution. Customers tell us that consistency here reduces weighing errors and improves solution properties. Every kilogram leaving our production line matches the technical standards demanded for process R&D, pilot, and commercial amounts.
Production origin makes a crucial difference. Material from our reactors offers traceability and batch-to-batch reliability; many off-brand sources blend material from multiple origins, and that introduces unpredictability. From time to time, we’ve studied samples from resellers and found higher heavy metal levels, breakdown of crystal integrity, and marked color variations. Single-source manufacturing, like ours, avoids lot mixing and untraceable intermediates, meaning the end customer sees uniform performance without hidden costs.
Some market versions of 3-Aminopyridine contain stabilizing additives to mask issues like short shelf life or contamination. We guarantee additive-free material and maintain thorough records for every batch. End users have told us that our consistency saves days of troubleshooting, especially when moving from research to pilot scale.
The difference extends to packaging: we use multi-layer, vapor-resistant liners and custom closures. This matters in humid regions or when international shipment and storage are involved. Our drums arrive with tamper-evident seals, and we supply certificates documenting absence of phthalates or other residuals that could disturb sensitive processes.
Much of what makes a building block useful comes from the jobs it tackles in practice. Some chemists need reliable scale-up data; others focus on HPLC baseline cleanliness to avoid time lost chasing unknown peaks. We listen, and what we learn shapes both the production recipe and logistics strategy.
We’ve learned that notification of changes—never fun—happens with honesty. If we must modify a synthetic route due to a reagent shortage, every customer relying on tight impurity profiles gets full disclosure before new material reaches their dock. Years ago during a global shortage, we were forced to change a supplier for a minor reagent. Rather than push altered product out quietly, we set up collaborative side-by-side batch testing with two major pharma labs, relying on their feedback to verify that impurity profiles and process yields held steady. That sort of frank, experienced-based collaboration builds the trust needed for real innovation and process security.
Modern chemistry demands more than purity; it calls for a thoughtful approach to the environment and worker safety. We’ve invested in closed systems that recover solvents and recycle heat, reducing waste by over 20% in the past five years. On many runs, the mother liquor gets workup and re-use, cutting disposal expenses and environmental load.
We don’t view regulatory compliance as a checklist but as long-term insurance for our company and our partners. Hazard reduction and waste minimization inform every design choice in our production plant. Our effluent streams go through advanced treatment, not just baseline biological oxidation. This commitment pays back when customers themselves need to satisfy international green supply chain criteria.
Our process deals with a few unique challenges. 3-Aminopyridine starts degrading rapidly in the presence of acidic vapors or excess moisture, so process control and packaging matter more than for some related pyridine derivatives. Reactions run under nitrogen pressure, and all lines employ moisture-scrubbers and active carbon filters to keep inadvertent water entry below 50 ppm.
We’ve developed methods to circumvent common yield-reducing side reactions by adjusting catalyst systems and using in-line monitoring. These changes didn’t come overnight; persistent batch analysis uncovered subtle causes of impurity formation that others often miss when scaling up.
Storage also presents risks. Over time, slight yellowing can occur if exposed to light or heat; so we produce only against orders, storing finished goods under controlled environments. Instead of warehousing for months, we ship rapidly after production, reducing the chance of oxidative by-products.
Decades working closely with formulation and research chemists have clarified what matters most: uninterrupted workflow, product that matches the analytical reference, and no surprises partway through a synthesis run. Many customers began by buying smaller research quantities, then expanded to commercial scale after trialing our product. Some came to us after setbacks with reseller-supplied batches that failed analysis, and have since standardized their routes using our 3-Aminopyridine.
We maintain open lines for technical support, and our chemists—not salespeople—handle most inquiries. Process data and batch records are archived for a decade, so tracing any supply issue becomes straightforward. If a user reports a difference, we invite them to send samples for side-by-side retesting. In one recent case, a customer’s process yield dropped unexpectedly. Together, we traced the cause to a subtle, container-sourced contaminant—not present in our stock—that had migrated during repackaging by a third party. We worked with the customer to reset their process and supplied fresh, directly filled material. Cases like these reinforce why vertical integration, direct technical support, and feedback from real-world use can’t be replaced by middlemen.
With every shift in customer needs or regulatory landscape, we adapt. During the surge in demand for pyridine derivatives prompted by new drug candidates, we added reactors and expanded quality control infrastructure. Increased scrutiny of trace impurities led us to invest in LC-MS technology and expand our reference standard library. Our lab team frequently runs comparison studies to examine what competitors supply, pinpointing areas where process tightening further sharpens product reliability.
A focus on continuous improvement stems from real-world setbacks and successes. This year, for example, we refined our drying step, which dropped moisture content variability by half. The result? More predictable process control in our clients’ manufacturing plants.
Our responsibility as a producer extends beyond product labels and batch sheets. Many of our clients trust us with early-phase design of new synthetic pathways, seeking out our technical staff for advice on scale-up and risk assessment. This partnership approach means we often test and validate batches under varied process conditions, protecting downstream chemistry from costly surprises.
We see every batch as a reflection of our reputation. A missed impurity or a mislabeled drum can halt months of R&D work. To avoid this, real chemists review batch records and sign off before release. Each outgoing drum carries more than numbers; it carries evidence of scrutiny, testing, and pride in precision.
We keep a close watch on emerging trends where 3-Aminopyridine finds new uses—in advanced materials, enzyme inhibition research, and specialty chemical synthesis. Continued investment in analytics and pilot-scale trials lets us support innovative startups as comfortably as major pharmaceuticals. We’re also exploring options for customized grades with altered solubility and particle profile for niche users, though these are strictly developed in consultation with the end user and always guided by evaluation trials.
Manufacturing 3-Aminopyridine is not just about meeting a specification. It’s a daily engagement with the realities faced by research and manufacturing chemists. Over years of steady supply, technical collaboration, and an open-door policy for feedback, we've learned that consistent, data-driven improvement creates true value for clients. Our dedication to quality, transparency, and technical support earns us the most rewarding business: long-term partnerships with people who care about both the science and the process.
If you work with 3-Aminopyridine, you’ll feel the difference that comes from a real manufacturing partner, committed from synthesis to shipment—not just a line on a catalog, but a product built on true experience, discipline, and care.