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HS Code |
541411 |
| Chemical Name | Sodium Ethoxide |
| Molecular Formula | C2H5ONa |
| Molar Mass | 68.05 g/mol |
| Appearance | White to yellowish powder or crystalline solid |
| Odor | Alcohol-like (due to ethanol) |
| Solubility In Water | Reacts violently |
| Melting Point | 260 °C (decomposition) |
| Density | 0.868 g/cm³ |
| Cas Number | 141-52-6 |
| Boiling Point | Decomposes before boiling |
| Reactivity | Reacts with water and air |
| Flash Point | Highly flammable |
| Ph In Ethanol | Basic |
| Storage Conditions | Store under inert atmosphere (dry nitrogen or argon) |
| Common Uses | Strong base in organic synthesis |
As an accredited Sodium Ethoxide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
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Purity 99%: Sodium Ethoxide Purity 99% is used in pharmaceutical synthesis, where high purity ensures consistent yield and product quality. Moisture Content <0.5%: Sodium Ethoxide Moisture Content <0.5% is used in agrochemical manufacturing, where low moisture content minimizes side reactions during formulation. Particle Size <50 micron: Sodium Ethoxide Particle Size <50 micron is used in fine chemical production, where small particle size provides faster dissolution and homogeneous mixing. Melting Point 260°C: Sodium Ethoxide Melting Point 260°C is used in organic synthesis, where a high melting point supports thermal stability during high-temperature reactions. Stability Temperature up to 200°C: Sodium Ethoxide Stability Temperature up to 200°C is used in biodiesel production, where enhanced thermal stability allows for efficient transesterification. Alkali Strength >20%: Sodium Ethoxide Alkali Strength >20% is used in polymerization processes, where strong alkalinity promotes rapid and complete initiator activation. Reactivity Index High: Sodium Ethoxide Reactivity Index High is used in esterification reactions, where high reactivity index accelerates reaction rates and improves throughput. Density 0.868 g/cm³: Sodium Ethoxide Density 0.868 g/cm³ is used in laboratory reagent preparations, where accurate density enables precise volumetric measurements. Solubility in Ethanol Complete: Sodium Ethoxide Solubility in Ethanol Complete is used in anhydrous organic syntheses, where complete solubility ensures uniform reactant dispersion. Storage Stability 12 months: Sodium Ethoxide Storage Stability 12 months is used in industrial process applications, where prolonged shelf-life reduces product wastage and stock turnover. |
| Packing | Sodium Ethoxide, 500g, is packaged in a sealed amber glass bottle with tamper-evident cap and detailed chemical hazard labeling. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for Sodium Ethoxide: Packed in 160 drums, 110 kg each, totaling 17.6 MT per 20-foot container. |
| Shipping | Sodium Ethoxide should be shipped in tightly sealed containers under an inert atmosphere, such as nitrogen, to prevent moisture and air exposure. It must be labeled as a flammable solid and corrosive substance, compliant with hazardous material regulations. Store and transport in cool, dry conditions, away from heat, acids, and oxidizers. |
| Storage | Sodium ethoxide should be stored in a cool, dry, and well-ventilated area, away from heat, moisture, and incompatible substances like acids and oxidizers. It must be kept in tightly sealed, moisture-proof containers, preferably under an inert atmosphere such as nitrogen. Prevent exposure to air or water, as sodium ethoxide reacts violently with moisture and can ignite spontaneously. |
| Shelf Life | Sodium Ethoxide has a shelf life of about 12 months, if stored tightly sealed under inert gas in a cool, dry place. |
Competitive Sodium Ethoxide prices that fit your budget—flexible terms and customized quotes for every order.
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Making sodium ethoxide means managing real chemical reactions daily and watching careful control affect the purity and usefulness of each batch. Our facility carries the full weight of that responsibility. The process starts with high-purity sodium metal, usually sourced only from stable, approved networks. Each batch of ethanol used in the reaction must meet demanding standards—any slip in water content or foreign residue throws off both yield and quality. What we see: subtle details in raw materials matter. Down the line, those choices show up in whether our sodium ethoxide performs seamlessly or causes headaches during your synthesis or scale-up.
Our team builds every lot of sodium ethoxide with consistency in mind. End users—whether they’re in pharma, crop protection, or specialty chemical development—need a reagent that responds the same every time. That kind of result doesn’t come from accidental circumstances or just following a recipe. It comes from combining technical knowledge with operational discipline. Our plant engineers, chemists, and QC analysts put feet to that balance, running checks on water, titration values, sodium content, and checks on unwanted alkali residues. If sodium ethoxide doesn’t pass those hurdles, it doesn’t leave our production floor.
Sodium ethoxide, with formula C2H5ONa, plays a key role as a strong base and nucleophile. In most reactions, its immediate value comes from its readiness to snatch a proton or help swap out functional groups efficiently. Chemistry professionals worldwide depend on it for reliable results in processes like Claisen condensations, the synthesis of pharmaceuticals, and the manufacture of certain dyes and agricultural intermediates. While its most common strength is 21%—a standard in the industry for solid material—it’s also available in solution, typically at 18–22% weight in ethanol, depending on storage and shipping limitations.
Both solid and solution forms serve distinct needs. Solid sodium ethoxide makes sense for those building custom solutions or weighing up exact amounts for bench chemistry or pilot scale. The solution form saves time and reduces worker exposure to dust, particularly in larger operations or those needing automated liquid addition. No matter the form, moisture content must be extremely low. Trace water starts side reactions, reducing reagent performance and creating by-products. Each form ships in air-tight steel drums or lined containers, meeting safety standards for both local handling and international transportation.
Manufacturing alkoxides means mastering fine differences—stormy reactions with sodium, potassium, or lithium metals make each variant. In practice, the biggest contrast boils down to the parent alcohol and the base metal. Potassium ethoxide, for instance, forms a slightly stronger base but often brings higher hygroscopicity (water uptake from air), tighter packaging needs, and higher cost. Sodium methoxide (NaOMe), made with methanol instead of ethanol, offers slightly greater basicity but can add risk during handling and creates different by-products if any trace methyl species matter.
Chemists who need milder reactivity or want to avoid introducing methyl groups stick with sodium ethoxide, appreciating its balance of strength and selectivity. In transesterification reactions, particularly in biodiesel production, sodium ethoxide often wins out by providing better solubility in some fats and oils, less volatility, and lower toxicity compared to methoxide. Some downstream users choose sodium ethoxide over potassium ethoxide to reduce corrosion rates in plant equipment and to cut risk of introducing potassium contaminants into their end product.
Working directly with sodium ethoxide asks for respect—everyone in processing, blending, and research at our facility understands this firsthand. Exposed to air, the powder or solution absorbs moisture, degrading slowly and giving off ethanol fumes. Poor handling or storage risks generation of caustic soda and releases enough heat to ignite ethanol vapors. Knowing this, our crew takes proper PPE, containment, and ventilation seriously—not just for regulatory compliance but because it prevents real-world incidents. Waste handling involves neutralization tanks, ethanol vapor scrubbing, and scrupulous hand-off to industrial disposal partners.
Our responsibility extends beyond factory gates. We give customers thorough technical guidelines and training if asked. Storage in dry, well-ventilated areas, away from acids, oxidizers, or moisture sources isn’t a matter of preference—it means the difference between steady operations and dangerous surprises. In larger installations, automated dispensing systems, localized exhaust, and explosion-proof warehousing form the backbone of safe practice. For research users, we recommend storing sodium ethoxide under dry nitrogen and always dispensing in glove boxes or properly vented fume hoods.
Sodium ethoxide enables stages of synthesis you don’t always see at the finished goods shelf. In pharmaceutical plants, it stands behind steps like the formation of esters, the construction of heterocycles, or the building of alpha,beta-unsaturated ketones. Chemists in our customer base talk about how precise deprotonation, achieved with sodium ethoxide, opens routes to otherwise tricky intermediates. Reproduceability is everything, especially with multi-ton pharmaceutical runs. The quality of our sodium ethoxide impacts not just end reaction yield but also subsequent purification steps—poorly made reagent causes by-product headaches that ripple through the entire campaign.
Crop protection innovators pull sodium ethoxide into their process toolbox for synthesizing new pesticide actives and herbicide intermediates. Its role often comes down to facilitating clean transesterifications or condensation reactions, slimming waste, and simplifying post-reaction isolations. Chemical engineers value the way our sodium ethoxide allows easy scale-up from bench trials to hundreds of kilos without unplanned downtime or cleaning challenges from messy precipitates.
Outside pharma and ag, sodium ethoxide finds a niche in advanced materials R&D, contributing to custom catalysts, specialty polymers, and fine chemicals. Materials scientists from leading labs often need sodium ethoxide at various concentrations for work on conducting polymers, or as a base in cross-coupling chemistry. In dye chemistry, the key reaction depends on avoiding side products and controlling the introduction of ethoxy groups—again, a job for sodium ethoxide with a proven purity and titration value.
Consistently delivering sodium ethoxide to plants around the globe means wrestling with real issues. One, moisture threatens both the stability and safety of the product—the slightest leak, poorly sealed drum, or extended transit in humid climates narrows useful product life. Sometimes, shipments face delays or overland trucking exposes them to high temperatures, challenging packaging and shelf-life. We select drum linings and nitro-purging processes that stand up to punishing routes, and we work closely with logistics partners accustomed to handling delicate, reactive goods. If customers encounter clumping or caking on the opening, we offer options: batch-testing, returning unused material, or providing smaller package sizes to prevent repeated drum openings and exposure.
On the technical side, balancing purity with price pressures tests even mature supply chains. There’s temptation in the market to cut corners: using lower grade sodium, recycling ethanol, running under less-than-ideal temperature or vacuum to boost output. From experience, any of these shortcuts shows up fast, costing customers more by way of incomplete conversions, equipment wear, and even product recalls. This is where our experience as primary manufacturers matters: cutting cost at the wrong step creates invisible problems that only show up at the worst times for our partners.
We see orders ranging from a handful of kilograms for university labs to container loads for fine chemical producers ramping up new product lines. In each, the way sodium ethoxide gets used shifts. University labs favor smaller, freshly opened bottles to guarantee potency for sensitive syntheses. Pilot plants order drums or tanks pre-mixed to avoid the risk tied to handling metallic sodium. Large-scale plants often request bulk deliveries in reusable container tanks or sealed intermediate bulk containers, relying on our technical team to walk through best practices for offloading, storage, and line flushing in case of process upsets.
No matter the scale, our role doesn’t end at shipment. We troubleshoot batch failures, assess out-of-spec incidents, and work to improve purity and storability. Our chemists field questions on using sodium ethoxide as part of one-pot condensation systems, ask about compatibility with new solvents, and provide technical backup data on side products or possible reaction at trace water levels.
As direct producers, we tie our reputation to every kilogram stamped with our batch ID. Each run gets titrated for sodium content, checked for impurities like sodium carbonate or sodium hydroxide, and screened for residual solvents. Third-party audit teams visit our site for both certifications and unannounced checks. From time to time, customers send in samples from our lots to outside labs, seeking confirmation or extra peace of mind for their QC teams. We encourage that scrutiny. Mistakes in origin or problems in quality can’t hide for long in industrial chemistry—so we welcome an open-book relationship with our customers.
We hear about past experiences where end users discovered trace contamination only after a failed downstream reaction cost thousands in lost product and recovery. That feedback clued us into secondary points of control: not just post-reaction titrations, but extra early-stage screening on our sodium and ethanol, regular maintenance on reaction vessels to prevent trace iron or nickel contamination, and periodic testing under accelerated stability/storage.
Chemical needs aren’t static. Over the years, we've watched the demand curve for sodium ethoxide shift with advances in green chemistry, battery technology, and the search for new bio-based building blocks. These demands push us to keep improving—making sodium ethoxide with fewer emissions, recycling solvent with higher efficiency, or limiting waste in cleaning steps. In our plant, these adjustments take form as added solvent recovery lines, better air emission controls, and more automated process monitoring.
Regulations keep updating too. What counted as best practice in chemical handling a decade ago won’t satisfy authorities today. We keep staff trained on evolving international guidelines for transport, handling, and reporting so our shipments clear customs faster and reach you ready for work, not stuck in port due to paperwork or compliance hiccups.
Process safety culture gets constant reinforcement. Many of our team members started on the plant floor and grew into their current roles. That brings firsthand appreciation for the hazards and disciplines—people who’ve solved real-world leaks or clogged filling lines carry that experience into every shipment and operating procedure. Our managers invest in both technology and people; for sodium ethoxide, one without the other leads to missed details that can halt a whole batch or entire plant run.
With every drum or container of sodium ethoxide shipped, we see the broader impact—new medicines, cleaner fuels, strong materials, and safer crops start with the trust you put in our product’s quality. That drives every decision we make, from sourcing, process control, packaging, and technical support. Success isn’t measured just by the ton or the dollar—it’s in steady, predictable, problem-free use for your most critical projects.
By taking a hands-on approach—listening to customer feedback, tracking emerging needs, and supporting people at every step—we see not just the molecule, but its place in a world that demands ever-higher standards from chemical manufacturing. Sodium ethoxide remains a small but critical support in the larger effort for safe, effective, and responsible progress in chemical science and industry.