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HS Code |
395475 |
| Chemical Name | 2-Ethyl-3-Hydroxy-6-Methylpyridine |
| Molecular Formula | C8H11NO |
| Molar Mass | 137.18 g/mol |
| Cas Number | 50814-39-0 |
| Appearance | White to off-white crystalline powder |
| Melting Point | 122-124°C |
| Solubility In Water | Soluble |
| Purity | Typically >98% |
| Storage Conditions | Store in a cool, dry place away from light |
| Pka | Approx. 9.5 (hydroxyl group) |
| Density | 1.11 g/cm³ (estimated) |
| Synonyms | 2-Ethyl-3-hydroxy-6-methylpyridine; Emoxypine |
| Smiles | CCc1nc(C)cc(O)c1 |
As an accredited 2-Ethyl-3-Hydroxy-6-Methylpyridine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle, screw cap, 100 grams, white printed label with chemical name, formula, hazard symbols, batch number, and expiry date. |
| Shipping | 2-Ethyl-3-Hydroxy-6-Methylpyridine is shipped in tightly sealed, chemical-resistant containers under ambient conditions. Packaging ensures protection from moisture and light. The material is labeled per regulatory guidelines, accompanied by a safety data sheet (SDS). Transport complies with local and international hazardous material regulations to ensure safety during transit. |
| Storage | 2-Ethyl-3-Hydroxy-6-Methylpyridine should be stored in a tightly closed container, in a cool, dry, well-ventilated area away from sources of ignition, heat, and direct sunlight. Avoid contact with incompatible substances such as strong oxidizers. Store under inert atmosphere if sensitivity to air or moisture is suspected. Ensure appropriate labelling and access for authorized personnel only. |
Applications of 2-Ethyl-3-Hydroxy-6-Methylpyridine in Industrial Manufacturing2-Ethyl-3-Hydroxy-6-Methylpyridine finds significant utility as a specialty intermediate in pharmaceutical synthesis, antioxidants for oil additives, agrochemical formulations, advanced electronic materials, and veterinary drug production. Our factory supplies customers operating in highly regulated sectors, handling stringent quality control, technical dossier support, and custom specification adjustment specific to each application’s industrial process. 1. Active Pharmaceutical Ingredient (API) Intermediate for Neuroprotective AgentsThis heterocyclic compound serves as a critical precursor in the production chain for pyridine-based neuroprotective drug APIs, including agents for cerebral ischemia. It is introduced during multi-step organic synthesis to build the core structure of the target molecule. We address strict traceability and impurity profile constraints, and assist downstream partners in aligning with global regulatory dossiers. Industry compliance standards
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2. Antioxidant Additive in Lubricant and Industrial Oil FormulationsThis chemical supports the formulation of antioxidant packages for automotive and industrial lubricants, enhancing thermal stability and inhibiting oxidative degradation of base oils. Suitable for manufacture of high-performance oils requiring long service intervals, our clients adopt it to control sludge, varnish, and metal wear under harsh operating cycles. Our technical team supports additive blending line integration to match ASTM and OEM benchmarks. Industry compliance standards
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3. Intermediate in Pyridine-derived Agrochemical SynthesisThe material functions as a selective building block in the synthesis of pesticide actives, such as plant growth regulators and herbicides featuring substituted pyridine rings. Agricultural chemical manufacturers rely on our lot-specific impurity profile and high assay grade to ensure consistent biological activity and traceability for export formulations. Documented supply under strictly monitored conditions meets international stewardship requirements. Industry compliance standards
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4. Functional Raw Material for Organic Semiconductor and OLED ApplicationsThe compound acts as a core precursor for the synthesis of pyridine-based ligands and chelating agents used in organic light-emitting diode (OLED) emitters and charge transport materials. Materials engineers value its high purity profile and moisture-controlled packaging when integrating into thin-film manufacturing processes. In electronic specialty chemical formulation, fine adjustment of molar ratio ensures optoelectronic stability as tested per global specification standards. Industry compliance standards
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5. Veterinary Active Ingredient SynthesisThis intermediate supports the synthesis of veterinary actives, particularly CNS agents for companion and production animals. Strict lot segregation and documented supply chains are maintained according to animal health regulations. Clients benefit from extensive batch traceability to support global veterinary market dossiers and local regulatory registrations. Industry compliance standards
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Competitive 2-Ethyl-3-Hydroxy-6-Methylpyridine prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
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As chemical manufacturers, we've spent years developing, refining, and producing 2-Ethyl-3-Hydroxy-6-Methylpyridine, a compound that stands apart for its chemical stability and practical versatility. From our perspective at the factory floor, this product reflects real process innovation—each batch is measured and managed by hands that understand how subtle variations during synthesis and quality control can change performance downstream.
The core appeal of 2-Ethyl-3-Hydroxy-6-Methylpyridine lies in its balanced molecular structure. Anyone who has worked with pyridine derivatives recognizes the demand for a fine-tuned balance between reactivity and stability. We design this compound, C8H11NO, with a tight specification—purity greater than 99% and minimal trace by-products—because inconsistency in reagent quality complicates everything for processors relying on batch reproducibility and end-use safety. Similar compounds in the market may share part of the name, but this unique arrangement of ethyl, hydroxy, and methyl groups delivers properties that regular pyridines or less rigidly controlled syntheses can’t match. This molecule resists oxidative degradation and retains structural integrity under both neutral and moderately acidic conditions, which gives formulating chemists an excellent working platform.
Our production facility uses a proprietary route for synthesis. Early on, we attempted to cut corners and found out quickly that shortcutting purification increased impurities downstream—trace aldehydes, methylpyridinium, or isomeric residues interfere with applications and spark batch rejection in pharma, cosmetics, and electronics. We've structured quality checks at every step, which reduces returns and keeps clients focused on their core business, not troubleshooting supplier problems. This approach sidesteps the economic and technical headaches caused by less meticulous competitors.
Commercial users look for actual performance traits—not just theoretical chemical names. Our best-selling model comes as a crystalline powder, pale white to off-white, easily blending into diverse process streams. Water solubility remains moderate and doesn’t fade with repeated storage cycles. Conventional packaging keeps the moisture content below 0.2%, cutting down on caking or unwanted clumping. This matters more than it seems: free-flowing powders speed up automated dosing lines and shorten cleaning schedules between batches. Some alternatives on the global market lean heavily on micronized forms or vague particle size averages, but we ship consistent, sieve-tested granulations that provide true handling advantages. Having manufactured every lot ourselves, we know exactly how minor physical characteristics alter performance on large-scale reactors or blending systems.
Environmental and safety benchmarks live at the core of our process. Every synth step complies with latest national and regional environmental codes, including effluent and VOC emission thresholds. Operators carry out every run with batch traceability and record-keeping. Our team audits supply chains for every solvent and reagent, removing ambiguity for users committed to stringent material traceability or who face direct audits from regulatory authorities.
We’ve seen 2-Ethyl-3-Hydroxy-6-Methylpyridine picked up across applications as diverse as pharmaceutical ingredient synthesis, antioxidant formulations, and fine chemical intermediates. In practice, our key pharma partners routinely deploy it in synthetic routes for advanced neuroprotectants and as a starting point for functionalized pyridine building blocks. This product solves the problem of chain propagation during oxidation steps—without consistent purity, other sources introduce rogue side reactions, which have ruined more than a few process validation runs for our clients. What we produce provides the reproducible performance these operators demand, sparing them the need for additional reprocessing or impurity screens.
Electronics manufacturers draw on this compound's thermal resilience. Some application labs have replaced hydroxy-terminated pyridines with our specific product, seeing a significant bump in shelf-life for event-driven sensor devices. The consistency with which we supply exacting particle size and moisture limits has taken a burden off their warehouse teams. There’s comfort in knowing that every carton will match the last, minimizing any guesswork or recalculation.
Having spent decades in this field, we’ve sampled nearly every process route that could yield comparable pyridine derivatives. Many of them trade off one property for another—maybe a faster route saves a dollar per kilo but produces higher levels of colored byproducts or unreacted precursors that destroy value in downstream steps. Some non-ethylated analogs bring more labile hydrogens, which doesn’t hold up under scaling or in storage. Others miss the mark in terms of hydroxy group localization, shifting crucial reactivity away from target applications. Our 2-Ethyl-3-Hydroxy-6-Methylpyridine holds steady: the ethyl group at the second position and methyl at the sixth help block unwanted oxidation, while the hydroxy at the third delivers a handle for further functionalization with minimal risk of group migration or hydrolysis. Feedback from our longtime partners points out that products sourced elsewhere often lack the clear, low-ash, low-tar quality markers which our process guarantees batch after batch.
We avoid relying on bulk third-party raw suppliers with inconsistent profiles. Internally, we've found that even minor changes—a switched solvent vendor, a new reactor lining—can introduce subtle changes in chromatographic purity or color. We keep all synthesis, purification, and packaging under our own roof. This closed-loop manufacturing takes extra diligence on our part. The payoff comes in long-term customer retention and fewer troubleshooting calls—batches are more predictable, and costs of low-grade material cleanup never pass on to users.
In lab trials and scale-up evaluations, users tell us about the headaches they endure from uneven product quality found in some foreign and unbranded sources. Caked powders, batches filled with moisture, or even out-of-specification color readings all show up in competitive samples. These aren't trivial details—for anyone qualified in GMP, just one hint of contamination can send a batch back to square one, adding weeks of delay and thousands in wasted raw material and labor. We spend significant time troubleshooting customer complaints rooted in quality lapses from other sellers. Our manufacturing team’s direct involvement with every lot produced, checked, and shipped solves many of these issues up front.
Maybe it comes across as old-fashioned to stress factory discipline and QC oversight, but years on the manufacturing floor have shown us the difference it makes for downstream users. Changing a process parameter by a few degrees in synthesis, skipping recrystallization, or pushing packaging to fill lines under high humidity leaves fingerprints on the final product—impurity spikes or caking that ripples through an entire supply chain. We run our own labs for analytical testing, running spectroscopic, chromatographic, and thermal checks on every lot produced. If a shipment doesn’t match internal or client specs, it never leaves our direct custody. This direct accountability separates us from traders or contract packagers who can’t always guarantee chain-of-custody or traceability.
Current markets value material provenance as much as chemical performance. Over the years, regulations have tightened on emissions, waste minimization, and worker safety. We’ve adapted, switching to greener solvents during synthesis, controlling water and air releases, and maximizing process yield to cut down on energy use. Shifting our core purification process to avoid toxic reagents cost us time in development, but the reduced environmental risk and regulatory peace of mind pay dividends. Our operators run every batch using closed systems, with all waste streams routed to on-site treatment. We’ve removed heavy metals from our entire process cycle—the final product and all intermediaries test clear, which gives procurement teams an extra layer of certainty for compliance audits.
Real experience has taught us that offering material traceability isn’t just about stamping a batch number on a carton. Clients in pharma and electronics often ask for full reports, from synthesis origins through shipping. We keep digital records for every lot, ready to share as needed to suit internal audits, regulatory filings, or product recalls. Our staff is trained to recognize weak points in the process, intervening early instead of passing on substandard batches. This approach appeals to any buyer caring about more than just price per kilogram. Years spent watching the “race to the bottom” in commodity chemical sourcing have reinforced our commitment to hard-won manufacturing certainty, not risky shortcuts.
Most users appreciate that not all pyridine derivatives behave the same way in reactors or finished goods. In our own pilot operations, we’ve mapped out how factors like particle size, water content, and trace impurity levels affect conversion rates, physical handling, and final application. Sometimes, customers come to us after a competitor’s batch fails in tablet pressing, causing sticking and inconsistent dissolution. Others face problems with color stability in medical device finishes or spot unwanted odor in cosmetic actives. By controlling our own process end-to-end, we help them resolve these disruptions—making sure product characteristics remain consistent whether they’re running multi-ton batches or lab-scale tests.
It’s not unusual to hear stories from end users who switched to high-purity 2-Ethyl-3-Hydroxy-6-Methylpyridine and saw immediate improvements in their yield and batch reproducibility. For years we’ve insisted that taking shortcuts—running older equipment, stretching cleaning cycles, or accepting inconsistent raw material lots—leads to production headaches later. Experienced operators learn fast: investing in consistently pure and physically stable intermediates saves time and cost in batch rework, unexpected system cleaning, and impurity remediation. These savings go beyond the price tag—reliable, specification-driven supply lets users focus on product development and business growth, not crisis management.
Because we oversee our own production, we maintain responsive support teams who know both the chemistry and the nuts-and-bolts details of handling, storage, and process troubleshooting. Over the years, our technical staff has fielded detailed questions—from the right humidity for long-term storage to the impact of batch aging on hydroxy group reactivity. Instead of passing off technical queries to distant sales reps, our chemists and production leads engage directly with user teams, sharing insights into process optimization and risk avoidance. We draw from our own data sets and pilot-scale observations, not just textbook answers.
One frequently discussed topic is the in-process color shift of pyridine derivatives under certain conditions. Early on, our own batches occasionally developed subtle yellowing after improper exposure to light during storage. We addressed the root cause with light-safe packaging materials and stricter warehouse controls. For users who encountered similar problems with other brands, we shared our methodology and offered no-commitment samples alongside technical troubleshooting. This openness builds trust and demonstrates that a partnership with the manufacturer extends beyond a simple sales transaction.
Another recurring issue relates to the compatibility of 2-Ethyl-3-Hydroxy-6-Methylpyridine with different process solvents and downstream excipients. On several occasions, client R&D teams consulted us about unexpected reactivity or precipitation during formulation scale-up. Our transparent process records allowed us to identify whether minor variance in moisture content or impurity levels played a part. By sharing analytical results and historical processing data, we help clients determine optimal batch sizes, blending conditions, and storage protocols, reducing avoidable setbacks and waste.
We keep focused on continuous improvement, working with R&D and production users to shape the evolution of 2-Ethyl-3-Hydroxy-6-Methylpyridine. Experiments geared toward greater functionalization, faster reactivity, and improved environmental compatibility are ongoing. Our staff regularly reviews industry feedback to identify common pain points and explore process modifications, whether they involve altering crystallization conditions or adjusting particle size distributions for specific automation setups. Every new lot we produce is subject to user-driven performance tests, closing the loop between manufacturer and end user expectations.
The direct relationship between our manufacturing team and application chemists ensures open communication, and this feedback loop keeps us responsive to real-world shifts. If a new regulatory standard appears, we adapt—changing process steps, enhancing testing, or sourcing greener materials. If a major client encounters a previously unseen reaction pathway, we work together, running parallel lab tests to isolate causes and recommend changes. This ongoing partnership sets us apart from distributors or third parties, grounding our supply commitments in direct factory expertise and shared learning.
Producers of 2-Ethyl-3-Hydroxy-6-Methylpyridine who manage their own end-to-end process have a unique vantage point on what makes this compound reliable and valuable. For our team, the product is more than a commodity. It reflects a history of incremental problem-solving, careful process adjustment, and careful listening to partners downstream. Years spent troubleshooting practical hiccups and responding to user challenges turn into meaningful product improvements—better purity, greater batch consistency, and more predictable real-world results.
By focusing on hands-on manufacturing, diligent quality control, and open technical dialogue, we help take the uncertainty out of sourcing a complex pyridine derivative. For users looking to safeguard their own processes, reduce waste, and meet their targets with fewer complications, a manufacturer’s real-world commitment and experience make all the difference. With every shipment of 2-Ethyl-3-Hydroxy-6-Methylpyridine, we deliver not just a chemical, but the backing of a team who know what’s at stake each step of the way.