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HS Code |
350678 |
| Chemicalname | Ethyl Cyanoacetate |
| Casnumber | 105-56-6 |
| Molecularformula | C5H7NO2 |
| Molarmass | 113.11 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Boilingpoint | 206-208 °C |
| Meltingpoint | -22 °C |
| Density | 1.10 g/cm³ (at 20 °C) |
| Refractiveindex | 1.435 (at 20 °C) |
| Solubilityinwater | Moderate |
| Flashpoint | 93 °C |
| Vaporpressure | 0.05 mmHg (at 25 °C) |
| Odor | Ester-like |
| Purity | Typically ≥ 98% |
| Storagetemperature | Store below 30 °C |
As an accredited Ethyl Cyanoacetate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Ethyl Cyanoacetate is supplied in a 500 mL amber glass bottle with a secure screw cap, clearly labeled with hazard warnings. |
| Shipping | Ethyl Cyanoacetate is typically shipped in tightly sealed containers made of glass or high-density polyethylene to prevent leakage and contamination. It should be transported in accordance with local and international regulations for hazardous chemicals, kept away from heat, sparks, and incompatible substances, and stored in a cool, dry, well-ventilated area during transit. |
| Storage | **Ethyl cyanoacetate** should be stored in a cool, dry, well-ventilated area away from heat, sparks, and open flames. Keep the container tightly closed and protected from moisture. Store separately from strong oxidizers, acids, and bases. Use appropriate chemical-resistant containers and clearly label them. Proper storage prevents polymerization and maintains chemical stability, ensuring safe handling and longevity. |
Applications of Ethyl Cyanoacetate in Industrial ManufacturingAs an established manufacturer specializing in cyanoacetate derivatives, we provide ethyl cyanoacetate to global partners for integration into precise chemical synthesis processes in specialized manufacturing environments. Below, we outline the principal downstream application scenarios where this material demonstrates proven performance and process benefits, along with detailed compliance, formulation, and process incorporation data. 1. Pharmaceutical Intermediates for Active Pharmaceutical Ingredients (API) SynthesisPharmaceutical manufacturers utilize our ethyl cyanoacetate primarily in multi-step organic syntheses for constructing key intermediates in cardiovascular drugs, central nervous system agents, and certain antiviral medicines. Its reactivity supports Knoevenagel, Michael addition, and alkylation reactions, facilitating the safe, scalable production of active molecule frameworks in compliance-focused plants. Industry compliance standards
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2. Agrochemical Synthesis—Herbicides and Plant Growth RegulatorsEthyl cyanoacetate is a recognized building block in the production of specific pyridine, triazine, and heterocycle-based agrochemicals. Downstream formulators use it to generate intermediates essential for field-tested herbicide actives and regulation-compliant plant growth regulators, with precise batch process integration for purity assurance and residue traceability. Industry compliance standards
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3. Fine Chemicals—Dye and Pigment Intermediate SynthesisOur material is incorporated in the colorant and specialty pigment industries as a precursor for complex dye molecules, especially for reactive and acid dyes. By enabling carbon–carbon and carbon–nitrogen bond formation, it supports production of high-purity chromophores with tailored absorptivity and fastness properties for textiles, leather, and plastics. Industry compliance standards
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4. Flavor and Fragrance Intermediate ManufacturingSpecialty aroma compound producers employ ethyl cyanoacetate in the multi-stage synthesis of select fruit and floral esters as well as musk and lactone compounds. Its role is crucial in esterification and cyclization steps, supporting regulatory compliance in consumable flavor and fragrance ingredient production with detailed traceability and batch audit trails. Industry compliance standards
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5. Active Ingredient Synthesis for Veterinary DrugsVeterinary pharmaceutical manufacturers select ethyl cyanoacetate for constructing pyridine and malonate analogs used in antiparasitic and antimicrobial veterinary actives. The raw material's integration supports high-volume, validated production of intermediates in compliance with international veterinary drug regulations, ensuring safe product application in animal health. Industry compliance standards
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6. Specialized Resins and Reactive Monomers—Electronics and Coatings IndustryElectronic chemical and specialty coating manufacturers use ethyl cyanoacetate in custom resin formulations and as a monomer precursor in UV-curable and conductive coatings. Its integration in downstream production allows for enhancing crosslink density and reactivity, supporting applications in printed circuit board manufacture, electronic encapsulation, and automotive coatings where synthetic precision and purity are crucial. Industry compliance standards
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As a manufacturer with years of hands-on experience, Ethyl Cyanoacetate holds a unique spot in our lineup. The product stands out because of its versatility and performance in a variety of chemical syntheses, and we constantly refine our process to keep quality at the highest level for each batch. Sitting at the intersection of precision and consistency, the ethyl cyanoacetate we produce takes shape through strict monitoring at every step, ensuring reliable color, odor, purity, and yield. Customers from both academic labs and industrial plants recognize the impact that process discipline has on the outcome of critical reactions involving this compound.
Most of our clients request the standard composition: a colorless to pale yellow liquid, with purity above 99.5%. Trace water content stays below 0.1%, and acid value is kept tightly controlled—both of these details make a big difference in downstream reactions. Boiling point and density fall within well-established ranges, in line with recognized international benchmarks for ethyl cyanoacetate, but consistency in these numbers does not happen by accident. Each lot is checked with calibrated instruments in-house because margin for error is slim in most chemical syntheses. Storage requirements may seem routine, but the right packaging and attention to dryness prevent surprise hydrolysis or degradation.
As a manufacturer, I have seen minor impurities disrupt entire projects. Ethyl cyanoacetate behaves predictably only when made with strict feedstock selection and controlled handling. Many industries want what’s called “high-purity” ethyl cyanoacetate, but definitions vary. We rely on direct testing: checking for acidity, residual solvents, and metal traces, and screening secondary byproducts. Academic users most often notice the difference in competitive reactions like Knoevenagel condensations or alkylations, where dockside imports and mislabeled bottles have triggered frustrating delays and rework for researchers. For pharmaceutical processes, regulatory pressure leaves no space for uncertainty—each uncertainty ripples through the supply chain. Because our production starts from selected raw materials and runs under monitored conditions, we see rare issues with batch-to-batch variation, and customers come back with fewer complaints.
Ethyl cyanoacetate goes far beyond textbook examples. One of its best-known uses is as a building block for pharmaceutical and agrochemical synthesis. Its active methylene group serves as a reliable springboard for condensation reactions, helping generate everything from intermediates for antihypertensive drugs to active pesticide molecules. Our material often travels to sites where versatile reactants are in high demand, supporting both discovery and scale-up. In coatings and adhesives, some of our partners pursue more resilient and rapid-setting formulas based on this molecule’s reactivity. Standard esters can’t provide the same combination of polarity, reaction selectivity, and ease of processing, which explains why chemists keep ethyl cyanoacetate on their regular shopping lists even as trends shift.
Scaling ethyl cyanoacetate production is a balancing act between yield, safety, energy consumption, and environmental responsibility. We have adjusted our process layout to minimize byproduct generation and capture recyclable fractions wherever possible. As pressure grows for cleaner, more efficient processes, there is no room for shortcuts. The reactor sequence and downstream purification are built around robust monitoring—both continuous and batchwise data collection. Even small leaks or pH drifts show up in finished product quality. Years ago, inconsistent temperature gradients resulted in variable color and odor, which prompted an overhaul of jacket controls and improved agitation specs. Feedback from buyers, especially those formulating sensitive pharmaceuticals, directly shaped these decisions.
Many newcomers ask about the difference between ethyl cyanoacetate and methyl cyanoacetate, or about options with different ester groups. The discussion tends to focus on physical properties and downstream reactivity. Ethyl cyanoacetate gives a balance between volatility and handling safety. The methyl variant, for instance, evaporates more readily, but also poses greater risks in large-scale storage. Isopropyl and tert-butyl cyanoacetates bring even lower volatility but introduce steric effects that complicate substitution reactions. Over the years, chemists in our network have reported that ethyl cyanoacetate’s reactivity enables smoother scale-ups, meaning process changes translate well from beaker to plant. In our own experiments, switching products just for cost or supply convenience often yields surprises in yield or waste handling. We encourage detailed consultation with research teams to avoid expensive trials with unfamiliar compounds.
Ethyl cyanoacetate demands more than a purchase order. The big difference comes from handling and storage. Left uncapped or exposed to air, moisture gets in and hydrolysis starts. In our logistics network, we learned that drums arriving with even a hint of leak or bulging headspace led to unnecessary downgrades or disposal. Regular users keep material dry and cold, with spill protocols in place and acid traps checked. Our technical support often helps partners set up or audit systems for on-site testing—Karl Fischer titration remains the gold standard for trace moisture checks before use. Choosing the right grade makes a definite impact in cases like chiral synthesis or when minimizing background impurities. For less complex end-use, such as in lacquer or specialty adhesive recipes, the bar for purity may not reach pharmaceutical levels, yet consistent quality still pays off.
Some buyers imagine that once regulations have been ticked off, compliance is behind them. Speaking from ongoing experience, paperwork never goes away. Shipments of ethyl cyanoacetate destined for regulated industries need traceability down to minute lots. Regulatory inspectors ask for complete documentation, including certificates of analysis, process flow descriptions, and test records with timestamps. Not providing these documents holds up production at the user’s end and can lead to lost opportunities. Our plant retains data samples from every lot as a matter of practice—not simply for audit requirements, but to strengthen the reputation of both manufacturer and customer. Our regular reviews with third-party quality auditors help us catch issues early, so customers experience fewer supply interruptions even as scrutiny rises.
Drum size and liner choice appear easy on paper but become critical in real operations. Over the years, we shifted from generic steel drums to high-grade HDPE containers for exports due to better seal integrity and reduced reaction with trace acids. Labs may order small bottles for easier handling and reduced waste, while plant sites benefit from bulk shipments with tamper-proof closures. Feedback from our downstream partners showed reduced transport and storage loss after switching designs. There is no “one size fits all” approach: the end-use volume, risk of contamination, and speed of consumption each guide packaging configuration.
Delivery deadlines and “no surprises'' reliability shape most of our conversations with buyers more than molecular structure. Over several years, we tracked complaints and nearly all derived from shipment delays or unexplained variation in product appearance. By coordinating tightly with freight partners and using loggers to monitor temperature and movement, we pushed incidents way down. Many of our best relationships with downstream users formed through transparency—if a storm delays a load or a instrument drift needs correction, we reach out early. Many competitors stick to form letters and copy-paste updates, but we learned that honest updates keep production plans from veering off track and foster real trust.
Progress in chemical manufacturing comes through steady, incremental improvements. Originally, much of our separation relied on traditional batch distillation. Over the last decade, we incorporated fractional distillation columns with better reflux control, which sharpen product cuts and reduce off-spec losses. Refining in-line sensors for purity and moisture let us catch subtle drift before finished product moves to the warehouse. These process investments met resistance in the early days, but data from repeated runs justified the expense by cutting returns and customer complaints. The lab and plant teams still meet regularly to check that every technology remains calibrated and relevant to today's higher demand for traceability and lower environmental footprint.
Waste minimization isn’t just about saving money—it’s required for sustainable operation and a positive community relationship. Years ago, solvent recovery was seen as an afterthought, but today, we have solvent recycling in line with every batch, and scrubber upgrades reduced process emissions sharply. Water use now recycles at higher rates, guided by monthly monitoring and feedback from both technicians and local regulators. We post our annual reports to the community and take part in local health and safety roundtables. Practical steps like these convince partners that they are buying from a trustworthy source, not just another faceless exporter.
Even though ethyl cyanoacetate sees broad use across research and industry, common hurdles come up. Some clients need material that dresses up for a role in high-performance pharmaceutical intermediates, while others seek a simpler profile for synthesis of fine chemicals or as a reactant in polymer chemistry. We emphasize direct conversations with chemists and buyers so each user gets a fit that makes sense, avoiding the frustration that comes with generic, hand-off sourcing. We’ve worked with in-process specialists to troubleshoot reaction failures related to unknowns in competitive material, often tracing issues to trace acidity or solvent carryover. These lessons taught us to keep communication lines open, with applications chemists available to discuss reaction pathways. Only by engaging firsthand do we consistently match what users want to final product attributes.
Sourcing basic and specialty chemicals has faced obvious stress in recent years, from port slowdowns to trade policy shifts. Our strategy involves long-term agreements with upstream feedstock suppliers and in-house backup reserves. During recent disruptions, we drew on these reserves to cover delayed orders and protect customers from missed deadlines. Every year, we evaluate alternative vendors for critical raw materials, meaning we don’t rely too heavily on any one source. This multi-layered approach gives our downstream partners confidence when planning large production runs or research campaigns, helping to keep development timelines intact.
For questions around performance in syntheses or scale-up, we provide technical expertise drawn from work on our own process development and new applications. In several collaborations, we have optimized reactions by adjusting reactant ratios or streamlining workup steps for customers scaling to pilot or commercial runs. On more than one occasion, we have reviewed formulations to identify sources of unexpected color or odor. These practical efforts save users real time and money, and, in the long run, drive loyalty. In a fast-moving business, on-the-ground support from seasoned professionals makes more impact than generic datasheets or chat bots.
Over the years, our client mix has changed. In the past, dye, pigment, and basic pharmaceutical intermediates dominated orders, but newer sectors such as high-performance coatings, electronic chemicals, and advanced materials make up a growing share of our shipments. Customers now request more specialized purity, allergy test data, and direct regulatory support. This trend forces us to keep analytical labs at the forefront, investing in new detectors and testing protocols that weren’t on our radar a decade ago. Regular feedback from both existing and new clients shapes decisions, as the market never stands still. By listening closely to those using ethyl cyanoacetate in the field, and keeping data-driven quality as a daily discipline, we help drive innovation across sectors.
Troubleshooting process upsets, adapting to new use cases, and planning around global events reveal how much human judgment matters in chemical manufacturing. No algorithm or automation replaces the experience built from years of face-to-face work with international and local buyers, lab teams, and regulators. Every challenge—be it humidity spikes, energy price jumps, or a last-minute regulatory review—requires problem solving grounded in real process knowledge, not just a manual or trend sheet. The journey with ethyl cyanoacetate taught us that every improvement, no matter how technical, runs on a foundation of open communication, honest reporting, and ongoing learning.
Those who rely on ethyl cyanoacetate in their projects, or who are considering integrating it into a new process, benefit most from partnering directly with a dedicated producer. Experience reveals the value in a vendor who understands what goes wrong as well as what usually works. Whether the challenge is maintaining shipment schedules, supporting greener production, troubleshooting side reactions, or ensuring reliable documentation, real-world manufacturing expertise delivers practical solutions. By working alongside our user base, inside and outside the lab, we continue to shape our process, meet shifting quality demands, and contribute fresh perspectives for one of chemistry’s most flexible intermediates.
Ethyl cyanoacetate will always attract attention from development chemists and manufacturing specialists because of its proven edge in chemical synthesis. Its distinct role—serving as both a foundation for new molecular structures and a standard for process discipline—keeps it in demand through multiple waves of industry evolution. Our outlook stays grounded in the realities of daily batch management, customer collaboration, and clear communication: these principles move production forward, enable innovation, and support our partners’ continued success. By learning together from everyday factory experience and the latest research, manufacturers and users shape the chemistry of tomorrow—one batch at a time.