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5-Acetyl-2-Methylpyridine

    • Product Name 5-Acetyl-2-Methylpyridine
    • Alias 2-Methyl-5-acetylpyridine
    • Einecs 221-626-8
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry sales7@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    645901

    Name 5-Acetyl-2-Methylpyridine
    Molecular Formula C8H9NO
    Molecular Weight 135.16 g/mol
    Cas Number 1122-62-9
    Appearance Colorless to pale yellow liquid
    Boiling Point 238-240 °C
    Density 1.085 g/cm³
    Refractive Index 1.541
    Solubility In Water Slightly soluble
    Flash Point 110 °C
    Smiles CC1=NC=CC(C(C)=O)=C1

    As an accredited 5-Acetyl-2-Methylpyridine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Amber glass bottle, 100 grams, tightly sealed with screw cap, chemical-resistant label displaying "5-Acetyl-2-Methylpyridine," hazard symbols, and lot number.
    Shipping 5-Acetyl-2-Methylpyridine is shipped in tightly sealed containers, protected from moisture and light. It should be handled as a chemical substance and transported in compliance with local, national, and international regulations. Ensure proper labeling and secure packaging to prevent leaks or spills during transit, and store in a cool, well-ventilated area.
    Storage Store 5-Acetyl-2-Methylpyridine in a cool, dry, well-ventilated area, away from heat, ignition sources, and incompatible substances such as strong oxidizing agents. Keep container tightly closed when not in use. Use only in a chemical fume hood. Protect from moisture and direct sunlight. Follow all safety protocols for handling flammable organic compounds.
    Application of 5-Acetyl-2-Methylpyridine

    Applications of 5-Acetyl-2-Methylpyridine in Industrial Manufacturing

    As a direct manufacturer of 5-Acetyl-2-Methylpyridine, we supply leading industrial producers in select downstream sectors where this pyridine derivative addresses strict technical, regulatory, and process requirements. Below, we outline key commercial applications based on established industry usage, formulation protocols, and compliance documentation requirements.

    1. Pharmaceutical Intermediate for Antihypertensive Drug Synthesis

    5-Acetyl-2-Methylpyridine remains integral in multi-stage synthesis routes for nicardipine and related dihydropyridine calcium channel blockers. Downstream pharmaceutical operations incorporate this material during early reaction steps to construct the core heterocyclic structure relied upon for biological activity. Process engineers precisely calibrate input levels to maintain high yield and stringent impurity control, required to satisfy regulatory monographs and customer registration files. End formulations utilize this intermediate for active pharmaceutical ingredient (API) assembly under Good Manufacturing Practice regimes.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for APIs
    • USP/EP/JP monograph guidelines (nicardipine, nifedipine)
    • US FDA 21 CFR Part 210/211
    • Chinese Pharmacopoeia (API section)

    Typical usage ratio

    • 0.8–1.15 molar equivalents as a starting scaffold (adjusted based on desired dihydropyridine output, impurity targets, and downstream step conversion yields)

    Downstream process integration

    • Participates in initial condensation with β-ketoesters via Hantzsch reaction; introduced directly into reaction vessels under inert atmosphere at the start of multi-step API syntheses

    Final product types

    • Nicardipine hydrochloride API
    • Nifedipine API
    • Pharmaceutical intermediates for calcium channel blockers

    2. Flavor and Fragrance Synthesis for Tobacco and Food Additives

    Specialty aroma compound manufacturers utilize 5-Acetyl-2-Methylpyridine to build pyridine-based notes in flavor and fragrance compositions, especially for tobacco additive blends, baked goods, and smoked products. The material serves as an essential building block for Maillard reaction flavor mimics, delivering nutty, roasted, and toasted profiles. Operators monitor the pre-mix of this reagent with reaction partners to ensure compliance with global flavor additive legislation and batch traceability mandates.

    Industry compliance standards

    • FAO/WHO JECFA food additive evaluations
    • European Flavouring Regulation (EC) No 1334/2008
    • FEMA GRAS listing (Flavor and Extract Manufacturers Association)
    • US FDA 21 CFR 172.515 (flavoring substances)

    Typical usage ratio

    • 10–400 ppm in finished flavor formulations (dose refined based on intended flavor intensity and regulatory thresholds for specific end applications)

    Downstream process integration

    • Added to reaction vessels during the controlled thermal synthesis of key aroma compounds (e.g., pyridine pyrazines), or blended directly in flavor compounding tanks during batch finishing for tobacco flavorings and food-contact aromas

    Final product types

    • Tobacco flavor additives
    • Maillard-reaction flavor chemicals
    • Bakery and roasted-type flavor blends
    • Processed food seasoning additives

    3. Agrochemical Intermediate in Fungicide and Insecticide Synthesis

    Producers of agrochemical active ingredients rely on 5-Acetyl-2-Methylpyridine to introduce key structural motifs within complex pyridine-based crop protection molecules. The compound enters condensed-phase organic synthesis stages for fungicide and insecticide intermediates, including select derivatives applied for downy mildew, powdery mildew, and broad-acre pest control. Operators maintain rigid input controls to avoid residual contaminants per international crop application standards.

    Industry compliance standards

    • FAO/WHO specifications for pesticide technical materials
    • EU Plant Protection Product Regulation (EC) No 1107/2009
    • US EPA FIFRA (Federal Insecticide, Fungicide, and Rodenticide Act) technical grade standards
    • China GB 2763 (MRL for pesticides)

    Typical usage ratio

    • 1.0 molar equivalent charged into primary condensation steps for triazolopyridine or pyridinecarboxamide synthesis (ratio adjusted to manage stoichiometry and target impurity limits)

    Downstream process integration

    • Employed in closed-reactor systems to form intermediates via condensation or acylation prior to downstream functionalization (e.g., halogenation or nitration) in pesticide API production

    Final product types

    • Pyridine-based fungicide intermediates
    • Crop protection pesticides (technical grade)
    • Agrochemical actives for seed treatment and foliar spray

    4. Fine Chemical Intermediate in Specialty Dye and Pigment Manufacturing

    Manufacturers of niche dye and pigment molecules employ 5-Acetyl-2-Methylpyridine within the synthesis of heterocyclic chromophores for high-value coatings, plastic colorants, and ink formulations. The compound’s acetyl and methyl substitution patterns enable selective functionalization routes, supporting batch-to-batch reproducibility and shade consistency for high-specification pigment dispersions. Tight integration into closed-batch and continuous-flow reactors ensures minimum contaminant carryover and documented compliance with downstream customer audits.

    Industry compliance standards

    • ISO 9001 certified process traceability
    • European REACH Regulation (EC) No 1907/2006 for chemical intermediates
    • EN 71-3 (Safety of toys, migration of certain elements for colorants)
    • China RoHS 2 for electrical and electronic pigment usage

    Typical usage ratio

    • Typically 2–10% of total starting material mass in dye synthesis batches (specified by targeted pigment class and end-use regulatory thresholds)

    Downstream process integration

    • Added to condensation reactions during chromophore assembly, or functionalization reactors for azo, pyrazine, or pyridine dye backbones; charged at onset or after catalyst addition depending on reaction sequence

    Final product types

    • Specialty azo dyes for plastics and coatings
    • Pyridine-derived pigments for industrial inkjets
    • Electronic colorant intermediates for display applications
    Free Quote

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    Certification & Compliance
    More Introduction

    Introducing 5-Acetyl-2-Methylpyridine: Looking Deeper Than the Label

    The Substance Behind the Name

    Some chemicals never leave the inner circles of the lab or factory floor, but 5-Acetyl-2-Methylpyridine continues to find its way into discussion among chemists and manufacturers alike. Our experience producing this compound has shown us the niche but essential needs it fills across multiple industries. This isn’t a molecule filling space in a catalogue; it’s built for a reason, shaped by demand, and defined by performance. After years of tuning our process, every run reflects care for purity, consistency, and practical application.

    Model and Specifications Driven by Practical Demands

    Many years on the production line have reinforced the importance of enforcing strict process control. We supply 5-Acetyl-2-Methylpyridine as a crystalline solid, carefully refined to exceed demanding consistency standards. Our most requested grade exceeds 99% purity by GC analysis, minimizing contamination that hinders downstream reactions. Moisture content and trace metal levels stay tightly controlled — fluctuations spark all sorts of headaches, whether in pharmaceutical research or specialty chemical production. We test every batch before it leaves our hands, not just to reassure, but because we’ve seen firsthand how unnoticed changes multiply into unexpected problems for the next user.

    The compound’s distinct acetyl and methyl substitutions set off a unique aroma profile, often recognized by those who work regularly in flavor and fragrance sectors. It’s aromatic, but it’s the stability and isolation from related isomers that makes a difference in performance — this isn’t a case of “close enough” working out in practice. While alternative pyridines might look similar on paper, small differences in side groups produce noticeable changes in chemical reactivity and sensory outcomes. Years of feedback from repeat customers have helped us tighten quality around what truly matters, beyond the routine numbers handed out in standard specs.

    Where It Goes: Real-World Usage Across Industries

    Out in the world beyond the gates of our chemical plant, 5-Acetyl-2-Methylpyridine is best known for its part in flavor and fragrance formulations. Its subtle yet persistent aroma, reminiscent of roasted notes, fits applications ranging from snack seasonings to tobacco products and aroma chemicals for perfumery. We’ve worked alongside formulators balancing both cost and safety — chasing after just the right note without overshooting into harshness or off-odors. The reliability of our product’s sensory profile developed not by accident, but by sitting down with people who were dissatisfied with common substitutes and wanted more control over their blends.

    Beyond aroma work, we regularly see requests from pharmaceutical R&D teams. In discovery chemistry, every structure matters. Synthetic chemists rely on the specific reactivity of our acetylated, methylated pyridine for complex molecule construction. As a building block, it’s sharper and less cumbersome to use than similar bases, allowing teams to streamline multi-step syntheses. We’ve partnered with small and large companies who clarify time after time how a jump in impurity levels upsets yield and introduces unnecessary purification work. Our focus has always remained on keeping their back-end clean, because cost overrun and delays for purification eat into everyone’s schedules.

    The Chemistry: Small Differences Add Up

    You can walk down a shelf and see half a dozen methylpyridine derivatives. All offer their own twist, but the combination of an acetyl group at the 5-position paired with a methyl at the 2-position turns 5-Acetyl-2-Methylpyridine into a distinctive tool. Even among people who know their pyridines well, confusion reigns until they look closely at the substitution pattern. This layout nudges electron density just enough to alter reactivity, tuning the compound’s role in organic transformations. For flavor chemists, those substituents send a fissure through the olfactory profile, giving notes that aren’t easily mimicked with neighboring compounds.

    Working at commercial scale, we notice physical differences as well. Occasional requests for alternative grades or isomers often end in comparison tests — ours wins for consistency of melting point, color stability, and batch-to-batch aroma. This is less about marketing spin and more about actual problems that arise: clumping powders, shifting scent palettes, or uneven flow through equipment. Shifting to some lower-purity or off-spec substitute isn’t worth the risk. From plant to plant, we’ve seen small differences amplify through supply chains. Well-managed chemistry helps head off those hidden emergencies.

    Finding Trust in Quality: Our Production Approach

    From early mornings measuring solvent loads to the night shifts overseeing final distillation, our teams carry real-world responsibility for every drum or sack bearing our label. Feedback loops between production, quality assurance, and client support have deepened every year. Internal audits and third-party assessments both keep us honest. Instead of chasing quick boosts in output, we’ve built up an infrastructure that supports repeatability. Our reactors run in cycles fine-tuned through trial, error, and years of production logs. Analytical chemists walk the floor with plant engineers, double-checking not just numbers but visual and sensory cues — what does the product look like fresh off the line? Does it match the memory of last month’s batch? These aren’t optional details; they’re our safeguard.

    From an environmental perspective, we handle solvents and reagents using closed systems, minimizing both emissions and waste. The market welcomes sustainability, but most importantly, fewer surprises in the plant means fewer calls from users troubleshooting off-odors, color drift, or unexpected byproducts. In our experience, rigorous control of input materials pays back both in yield and peace of mind. The waste stream stays cleaner, lessening both disposal cost and risk. Our buyers in pharmaceuticals push for Green Chemistry metrics, and we have responded by streamlining process steps and investing in better barrier technology.

    Downstream Problems and Their Solutions

    Over the years, we’ve tracked plenty of risk factors moving down the supply chain. Slight upticks in water content may sound minimal, but they encourage side reactions or increase the burden on end-user equipment. Residual solvents or off-color batches can cave in timelines for flavor or pharma formulators, who aren’t always set up for large-scale preparative fixes. Having sat through enough apologies and replacement shipments, we focus on tackling root causes — better drying, more robust analytical checks, paired validation between batches. Supply reliability makes the real difference; users want consistency more than new bells and whistles.

    Sometimes, customers themselves ask if they can blend our product with lower-purity alternatives to cut costs. The surface temptation fades quickly after evaluating lost time in recalibration, failed reactions, or spoiled aroma products. Even finished goods manufacturers without on-site chemistry expertise notice the difference — flavors become dull, final products fail to match benchmarks, or regulatory clearance gets held up. Our experience says trimming corners leads to hidden expenses. We continue to stress accuracy and simplicity, both in paperwork and in material integrity, to excuse users from sorting out mixed bags of uncertainty. We build partnerships by giving clarity in an otherwise blurry market.

    Direct Production: Distinguishing Manufacturing Experience

    Unlike resellers or brokers, our day-to-day involves real tools, real risks, and real responsibility for what leaves our plant. We’ve seen plenty of market-shifting rumors or sudden spikes in demand, but we’re positioned to respond because our teams know the equipment, feedstocks, and bottlenecks personally. There’s a difference in problem-solving between someone selling based on a spreadsheet and someone looking down the reactor sight glass. Suppose we catch a drift in raw material quality — we adjust the process in real-time rather than sending out inconsistent wares.

    Many distributors source interchangeable lots from far and wide, sometimes blending or relabeling with little insight into process integrity. Our plant tracks every vessel, operator shift, and analytic result. Recalling a batch or troubleshooting a one-off complaint means diving into a unified log of truth, not sifting through six vendors. End-users working in food, pharma, or fine chemical synthesis regularly say knowing the origin of the material matters most. They’ve seen supply chain disconnects increase downtime or regulatory risk. Our own experience running under audit — both voluntary and regulatory — has prepared us to treat every kilo as if it has a future audit attached.

    What Sets 5-Acetyl-2-Methylpyridine Apart from Other Pyridines

    A lot of products wear similar labels, but 5-Acetyl-2-Methylpyridine earns its keep through chemical and sensory specificity. The acetyl at the 5-position makes the carbonyl group engage differently than acetylation at more common sites, granting refinements in reactivity for synthetic applications. In flavor and aroma, the 2-methyl group subtly shifts the compound’s volatility, allowing slower, steadier release profiles in finished scent or taste products. Some alternatives, like 2-acetylpyridine or 3-methylpyridine, cannot duplicate the combination — flavorists and synthetic organic chemists notice these small, impactful shifts.

    For those accustomed only to standard methylpyridines or other isomers, it’s tempting to interchange compounds. Long experience shows this rarely works out as intended. We’ve fielded requests from customers who needed a particular reactivity or aroma tone but found comparable items overshot or failed entirely. Instead of confusion, our technical sales team walks through side-by-side analysis, charting differences via real analytical data, not just catalog claims. The reality is some grades can only be delivered from a direct manufacturer who stands behind each purification and batch.

    Ongoing Feedback Loop and Continuous Improvement

    Operations never rest. Continuous change in feedstocks, market trends, and regulatory environment keep us vigilant. Regular dialogue with both major and smaller clients gives us perspective beyond our own plant: how does the product hold up in a blend? What purification challenges are recurring in pharmaceutical pipelines? Even reactions to aroma drift or changes in supplier paperwork feed back into our ongoing process improvement. We encourage reporting not just failures but small annoyances — a slightly clumpier batch, a strange off-note — so fixes stay ahead of bigger faults.

    A lot of learning also happens outside the lab. Plant operators and QA specialists take note of every hiccup. Over time, data builds guidance around equipment tuning, better environmental controls, and more effective operator training. Mistakes or inefficiencies encountered in production enable us to design better prevention strategies. Upgrades to our drying and monitoring systems, even if they seem incremental, have driven down batch rejection rates. Regular maintenance and calibration never stop. The bread and butter of solid chemical manufacturing is knowing no line or piece of kit runs itself. We learn and adapt in real time, supporting the stability users depend on.

    Cutting Through the Confusion: Facts Matter

    Sourcing chemicals in today’s market brings up more questions than answers. Labels, paperwork, specification claims — sometimes they read identical, but outcomes differ in the field. Every end-user, from R&D labs to bulk manufacturers, faces the challenge of picking between a parade of so-called equivalents. From our vantage point producing 5-Acetyl-2-Methylpyridine at scale, we urge direct dialogue and thorough technical comparison rather than blind trust in datasheets. Supporting evaluations in your own processes, even at pilot scale, clarifies real-world differences that synthetic or sensorial characterizations alone sometimes obscure.

    Regular site audits and sample testing with customers reinforce mutual understanding and improvement. If an application gets stuck or results shift, we dig through shared logs — a practice that has helped head off more than a few headaches before commercial scale-up. Open reporting, documented runs, and a willingness to revisit process assumptions build the foundation for stable long-term supply. Instead of quick fixes for price, we offer transparency about what goes in, what comes out, and how each variable potentially affects downstream value.

    A Focus on Responsible Chemistry

    We produce 5-Acetyl-2-Methylpyridine knowing it often becomes a stepping stone to much bigger and more complex projects: a new drug, a new flavor, a next-generation specialty product. Each step we take, from sourcing raw materials to handling finished product, aims for not just immediate profit but also sustainable, safe, and trustworthy supply. Over the years, we’ve come to view each batch not just as a deliverable, but as a foundation for someone else’s results. It’s a pragmatic view learned by answering tough questions from both regulators and end-users who want actionable facts, not marketing gloss.

    Through careful solvent management, tight emissions control, and regular audit trails, we address regulatory and environmental scrutiny before it becomes a compliance emergency. Our operators and supervisors undergo regular training in both hazard control and product stewardship. They’ve seen real incidents play out — small process deviations can balloon into larger plant-wide challenges if not addressed. We keep all improvement efforts rooted in everyday experience, reinforcing safety and integrity for every run rather than just in response to incidents.

    Listening and Responding

    Progress never happens in isolation. The requests, frustrations, and specific use cases brought to us by those in flavor, pharma, and fine chemical fields continue to direct our evolution. That’s why input from formulators, bench chemists, operations leaders, and regulatory teams across the globe reaches us directly, not just filtered through sales channels. We value detailed feedback not merely to fix problems, but to trace up and down the production stream: what changed upstream, how did it show downstream, and what fixes work at the scale that matters? Repeat customers guide our lineup, ensuring we don’t just chase market trends, but build for actual, sustained demand.

    A manufacturer’s credibility rides on performance and responsiveness, both before and after the shipment leaves. Accountability isn’t handled by slogans but by the ability to solve problems when stress peaks. If something goes astray, we engage and walk through data, not hand off to distant support. Our technicians and sales team keep lines open, helping users not just get product, but work through issues as they arise. It’s not glamorous — but it’s the working core of trust in specialty chemicals.

    Looking Forward With Purpose

    As markets evolve and regulatory scrutiny tightens, the manufacturing practices behind 5-Acetyl-2-Methylpyridine will remain rooted in practical expertise and real-world dialogue. Our investment in process technology, traceability, and feedback-driven improvements aims to deliver material that performs precisely as required, time after time. For all the advances in chemical synthesis and application, the factors that keep a product useful aren’t flashy: attention to detail, consistency, and a willingness to listen and adapt in the face of new challenges.

    This compound, often hidden behind the scenes, builds the foundations for product innovations across many industries. Every batch we make pulls from past experience and anticipates future expectations, grounded in the belief that chemistry works best with open communication, steady improvement, and a sharp focus on the difference each molecule can make.