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HS Code |
540203 |
| Product Name | 2-Acetamidopyridine |
| Cas Number | 2734-20-5 |
| Molecular Formula | C7H8N2O |
| Molecular Weight | 136.15 g/mol |
| Appearance | White to off-white crystalline solid |
| Melting Point | 157-159°C |
| Solubility In Water | Slightly soluble |
| Density | 1.22 g/cm³ |
| Purity | Typically ≥98% |
| Synonyms | 2-Pyridinylacetamide, N-Acetyl-2-aminopyridine |
| Storage Temperature | Store at room temperature |
| Smiles | CC(=O)Nc1ccccn1 |
| Inchi | InChI=1S/C7H8N2O/c1-6(10)9-7-4-2-3-5-8-7/h2-5H,1H3,(H,9,10) |
| Pka Of Conjugate Acid | 4.9 |
As an accredited 2-Acetamidopyridine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A tightly sealed, amber glass bottle containing 100 grams of 2-Acetamidopyridine, labeled with chemical details, hazard symbols, and barcode. |
| Shipping | 2-Acetamidopyridine is shipped in tightly sealed containers to prevent moisture and contamination. It should be handled and transported following standard laboratory chemical safety protocols, ideally at room temperature. Ensure compliance with local, national, and international regulations regarding the shipping of non-hazardous, research-grade chemicals. Material Safety Data Sheet (MSDS) must accompany the shipment. |
| Storage | 2-Acetamidopyridine should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from direct sunlight and incompatible substances such as strong oxidizers. Avoid exposure to moisture and sources of ignition. Proper labeling and secure shelving are recommended to prevent spills or accidental mixing. Use appropriate personal protective equipment when handling the chemical. |
Applications of 2-Acetamidopyridine in Industrial Manufacturing2-Acetamidopyridine plays a key role as an intermediate in several precision manufacturing environments. Our expertise as the original producer supports multiple regulated industrial sectors requiring high purity and consistent batch quality. Below, we describe downstream manufacturing scenarios where this material forms a critical base for advanced syntheses. 1. Pharmaceutical API Synthesis (Antihypertensive and Antidiabetic Compounds)Leading pharmaceutical producers incorporate this intermediate when building complex heterocyclic active pharmaceutical ingredients, including essential antihypertensive and antidiabetic APIs. Production steps require a critical intermediate for pyridine or piperidine ring systems, often undergoing nucleophilic substitution or acylation reactions. Regulatory-compliant facilities tightly control integration using closed reactor systems to meet active ingredient quality specifications for direct or further derivatization routes. Industry compliance standards
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2. Veterinary Pharmaceutical IntermediatesAnimal health manufacturers use this material as a core building block in veterinary medicine synthesis, such as anthelmintic agents and new generation antiparasitic compounds. Integration occurs during the functionalization step of pyridine rings, driving target specificity for active compounds used in livestock and pet pharmaceuticals. Downstream QC focuses on cumulative impurity checks, with attention to veterinary-specific residue requirements for food safety. Industry compliance standards
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3. Agrochemical Active Ingredient ManufacturingProducers of agrochemical actives rely on 2-acetamidopyridine for constructing pyridine-based herbicides and pesticides. The compound enters at the step establishing the ring core of target molecules, offering controlled reactivity for further halogenation, alkylation, or acylation. Facilities maintain supply chain traceability and lot tracking under international crop safety requirements. Industry compliance standards
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4. Specialty Dye and Pigment Intermediate SupplyManufacturers in the specialty dye sector leverage this compound to build advanced colorant molecules, particularly for high-performance pigments and niche textile dyes. Utilization typically involves nucleophilic aromatic substitution or ring-fusion reactions that require precise control of reaction conditions. Quality assurance focuses on minimizing isomeric byproducts and meeting EU chemical restriction lists for final pigment marketing. Industry compliance standards
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5. Organic Electronic Material IntermediatesProducers of specialty materials for organic electronics employ this molecule in synthesizing building blocks for photoactive semiconductors and OLED emitter layers. Its structure supports N-heteroaromatic frameworks that improve charge transport and stability. Facilities maintain additive and process validation under electronics industry purity controls, targeting sub-ppm contaminant profiles. Industry compliance standards
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Every batch of 2-Acetamidopyridine we deliver comes from a manufacturing line engineered for precision. We run tight controls throughout the process, from raw material selection to the final purification step. Many in the field know that pyridine chemistry demands careful handling – contamination or trace impurities will translate to unpredictable behavior in downstream reactions. That's why we work directly with upstream suppliers, verify each input, and double-check reaction parameters. We’ve set up our reactors to allow for gradual temperature increase and efficient mixing, which prevents byproduct formation and gives a purer, brighter crystalline powder.
Years of manufacturing experience taught us just how much small deviations impact the quality of 2-Acetamidopyridine. Our typical lot achieves 99.5% minimum assay by HPLC, and water content stays well below 0.3%. Crystallinity and particle size can shift reactivity, so we target a tight distribution here, too. Physically, our 2-Acetamidopyridine emerges as a uniform, free-flowing white powder, directly reflecting our drying technique. We run quality checks not only for purity but for color and odor — chemical residuals or process mishaps can give off-notes or discoloration, so we filter out any lot that falls short.
Chemists in pharmaceutical development and agrochemical synthesis reach for our 2-Acetamidopyridine as a seasoned intermediate. Its acetylated amino group unlocks pathways that simple pyridine can't. For most, the value comes in coupling chemistry — forming amide bonds, or as a masked amine that gets deprotected further downstream without harsh reagents. Take heterocyclic compound development: direct use as a building block brings both reliability and efficiency, avoiding yield loss from impurity drag. Each gram leaving our site builds compounds for anti-infectives, crop protectants, and more. Research clients have pushed for single-digit ppm levels of residual solvents; our facility changes the purification columns every week, so these specs aren’t an afterthought but a norm.
We’ve handled plenty of requests for 2-Acetamidopyridine sourced elsewhere. Most often, problems show up as inconsistent melting points, lingering odor, or yellowish tints signaling process shortcuts. Our batches, by contrast, feature sharp, repeatable melting points and a neutral aroma. Having the compound fully characterized by NMR and FTIR means our clients see the analytical data match up batch to batch. Process development teams value this consistency since a missed impurity means an extra day of trouble-shooting or even abandoned synthesis.
Older grades on the market tend to leave in detectable amounts of pyridine or acetic anhydride. We flush our reactors thoroughly after each production run and apply vacuum drying to strip out these remnants. The result? Less downstream contamination and fewer purification bottlenecks for formulators. We’ve modernized our process to minimize waste streams — no batch is released without documentation of its environmental footprint.
We have longstanding partnerships with teams at universities and development centers, supplying precisely characterized material for reproducible experiments. Over time, our technical support group has gathered direct feedback about solubility trends and compatibility with a range of solvents, including DMF, DMSO, and acetonitrile. Where process chemists run into clumping or varying filtration speeds, our production method addresses these bottlenecks by keeping fines at a minimum, so every vial dispenses cleanly.
2-Acetamidopyridine often serves as a matrix for derivatization or isotopic labeling — in these techniques, awkward base levels or micro-impurities ruin labeling efficiency. We’ve worked closely with several analytical chemists who depend on purity down to the trace level, and we designed our specification sheet in direct response to their field reports.
Among pyridine derivatives, 2-Acetamidopyridine carves out a reliable space for controlled amide introduction. Where standard aminopyridines react too readily and give multiple products, the acetyl group masks the nitrogen and drives site-selectivity. Some prefer using unsubstituted aminopyridine, but then must contend with high reactivity that complicates purification. Our customers tell us this subtle difference makes all the difference when working toward complex scaffolds, especially in multi-step synthesis.
There’s another dimension where our 2-acetamidopyridine stands out: stability. Some competing derivatives degrade in warehouse storage, eventually picking up color or tackiness, but our batch-tested moisture protection avoids these pitfalls. Many manufacturers overlook this, but our team monitors each drum and recommends storing under inert gas for long-term projects.
Much of what we do comes from the lessons we’ve learned by scaling up. Small-lab prep does not always scale directly. Early on, we ran pilot batches and confronted persistent foaming and difficult filtration, especially during the acylation step. By working with specialized filtration media and adjusting time profiles, we cut down on process time and improved product recovery. Our lab spends almost as much effort on post-reaction handling as on the core chemistry—experience has taught us purity gains are often lost unless washing steps are consistent.
On the regulatory front, tight documentation and traceability form a backbone for our material. We provide certificates of analysis based on fresh analytical runs — not older, unrelated lots. This keeps oversight strict and avoids mix-ups that have caused industry recalls elsewhere.
Every production operator in our plant works with direct experience handling pyridine derivatives, and we run regular safety training tailored to this class of chemicals. 2-Acetamidopyridine, while less volatile than bare pyridine, presents dust hazards in concentrated form, so our drum packaging includes internal liners and sealed pails. No employee loads drums without protective gear, and we enforce air-monitoring in packing areas—a reflection of practical factory know-how rather than generic protocols.
Many of our clients run multi-year projects needing guaranteed supply and batch-to-batch consistency. We contract reserve manufacturing slots well ahead of demand spikes and keep reserve material on hand for repeat customers. Our technical managers respond to application questions directly from the production floor, where they can troubleshoot with details only a manufacturer could provide.
In conversations with our end-users, we find that real value comes from a supplier ready to modify or optimize a process. For example, a pharmaceutical team once faced low-yield amidation despite using a high-purity intermediate from another source. After consulting with our chemists, we tailored a single wash step on their upstream compound and solved their yield loss. This kind of support gives research projects momentum and keeps pilot plants running.
Manufacturing for demanding sectors led us to install systematic batch controls, not only for compliance but to enable quick root cause analysis if a process deviation occurs. Every drum can be traced back to its lot and raw material source, essential for investigation and client confidence. By aligning our documentation with best practices, we make audits and inspections transparent and productive.
Our production plant takes sustainability seriously. Over the years, we overhauled distinct stages — for example, recycling acetic acid from quench streams, fine-tuning steam usage, and embedding closed-loop water systems. These upgrades benefit the environment while also stabilizing the cost base, insulating clients from market swings. We repurpose off-grade material as a feedstock in secondary manufacturing windows rather than sending it to waste.
We keep an open channel with universities and research institutes working on green chemistry. Collaborations often involve joint testing of new catalysts for the acetylation of aminopyridine or solvent replacements that lower emissions. These lessons inform the tweaks we incorporate into subsequent campaign runs, which filters through to cleaner products for all customers.
Though the basic chemistry behind 2-Acetamidopyridine remains steady, the purity and reproducibility demands continue to climb. Some applications now specify ultra-low heavy metal content, challenging manufacturers to adopt cleaner reactor materials and finer filtration. Process economics drives us to optimize without cutting corners, pressing us to invest in analytical upgrades and staff training. Our response has always focused on anticipation. With enough feedback cycles between clients, lab, and plant, we make small improvements each campaign, building resilience and predictability for both sides of the partnership.
Our hands-on approach means we hear firsthand about emerging synthesis challenges in pharma and agrochemical pipelines. The right grade of 2-acetamidopyridine, delivered on time and with reproducible quality, directly supports innovation throughout the supply chain.
Every team member, from shift operators to technical support, knows their role in meeting exacting specifications. On any given week, we’re solving day-to-day production surprises: minor temperature drifts, unexpected color shifts, or filtration hiccups. Success here comes down to rapid communication between departments. Insights travel fast in our organization; if the drying line sees an anomaly, the analytics group double-checks within hours. This beats waiting on long turnaround times, as seen in contract-based or off-the-shelf suppliers.
We often invite new clients to tour our facility so they can witness firsthand how production choices ripple through to the delivered product. Over the years, plant visitors remarked most on the degree of granularity in our in-process testing – for instance, titrating reaction endpoints and sampling mid-batch for faster course correction.
As the field for pyridine-based compounds grows, new derivatives emerge demanding ever-tighter controls and customization. We're continually investing in both personnel training and hardware improvements. For specific large-scale campaigns, we pre-qualify and hold starting materials in quarantine until final QC release, reducing lead time to a minimum for repeat orders. This readiness keeps long development projects on schedule.
Our chemists keep a close eye on technical publications and regulatory updates. Many times, process shifts and new hazard classifications appear before the supply chain fully adapts. Because our team comprises experienced synthetic and analytical chemists, we proactively adjust routes to avoid future compliance hurdles for our clients. This practical foresight often goes missing in purely commercial operations without roots in manufacturing.
We don’t just track metrics for the sake of paperwork — applying what we see on the plant floor gives depth to every specification we publish. If a customer receives a drum with an out-of-spec color or melting range, we know how to retrace the run, address the root cause, and issue a rapid correction. These situations rarely happen, as we’ve built layers of redundancy throughout. Our continuous learning attitude keeps us ahead of process drift and gives customers confidence in stability, batch after batch.
Direct dialogue with downstream users revealed the challenges faced in scale-up—batch-to-batch solubility changes, surprises in reactivity, or uneven loss on drying can slow research. Our technical support helps navigate these challenges, sometimes by sharing insights gained from decades on the shop floor. At times, it’s as small as adjusting temperature ramps or as involved as reformulating an entire approach.
With 2-Acetamidopyridine, consistent purity and physical properties define product success in practical applications. We hand over more than a chemical; we deliver the proven reliability and continuous improvement baked into each production run. Our long-term outlook—centered on technical advancement and environmental stewardship—shapes every lot that leaves our doors, supporting chemists at the frontlines of pharmaceutical, agricultural, and specialty chemical discovery.