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HS Code |
992543 |
| Chemical Name | Ethyl 3-Indoleacetate |
| Cas Number | 1438-91-1 |
| Molecular Formula | C12H13NO2 |
| Molecular Weight | 203.24 g/mol |
| Appearance | Yellow to brown liquid |
| Density | 1.17 g/cm3 |
| Boiling Point | 370.1 °C at 760 mmHg |
| Refractive Index | 1.613 |
| Solubility | Insoluble in water, soluble in organic solvents |
| Purity | Typically ≥98% |
| Smiles | CCOC(=O)CC1=CNC2=CC=CC=C21 |
As an accredited Ethyl 3-Indoleacetate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Ethyl 3-Indoleacetate, 25g, is packaged in a tightly sealed amber glass bottle with a tamper-evident cap and labeled for laboratory use. |
| Shipping | Ethyl 3-Indoleacetate is shipped in sealed, chemical-resistant containers to prevent contamination and degradation. It is handled as a laboratory chemical: stored cool, dry, and protected from light. Standard shipping regulations apply, and material safety data sheets (MSDS) are provided. Ensure compliance with local and international chemical transportation guidelines. |
| Storage | Ethyl 3-Indoleacetate should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from sources of ignition, heat, and incompatible substances such as strong oxidizers. Avoid exposure to light and moisture. Store at room temperature, ideally between 2–8°C (36–46°F). Clearly label the container and follow appropriate safety and chemical hygiene procedures. |
Applications of Ethyl 3-Indoleacetate in Industrial ManufacturingEthyl 3-Indoleacetate serves as a specialized chemical intermediate in multiple industrial sectors, providing a key building block for synthesis pathways in pharmaceuticals, agrochemicals, and advanced material production. As an original manufacturer, we ensure controlled purity, reliable supply chain integration, and compliance with rigorous industrial and regulatory standards throughout downstream processing use. 1. Pharmaceutical Intermediates for Active Pharmaceutical Ingredient SynthesisMany pharmaceutical manufacturers utilize Ethyl 3-Indoleacetate for synthesizing indole-based active pharmaceutical ingredients (APIs), particularly within drug classes such as anti-cancer agents and anti-inflammatory medications. The material enters early-to-mid-stage organic synthesis, contributing the indole moiety critical for final pharmacological activity. Large-scale production lines require compliance with international pharmacopoeias and routine GMP validation, with process chemists adjusting usage ratios based on targeted yield, substrate reactivity, and batch scale. Industry compliance standards
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2. Agrochemical Synthesis for Plant Growth RegulatorsProducers of plant growth regulators (PGRs) source Ethyl 3-Indoleacetate as a core intermediate for synthesizing indole-3-acetic acid (IAA) and related auxins. The material undergoes hydrolysis and functional conversion in agrochemical manufacturing plants, where consistency in trace impurity levels and batch homogeneity directly influence regulatory clearance for commercial use. The final active ingredient forms part of root-promoting and fruit set formulations, necessitating conformity to global pesticide and fertilizer additive standards. Industry compliance standards
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3. Fine Chemical Synthesis for Dye and Pigment ManufactureSpecialty pigment and dye manufacturers incorporate Ethyl 3-Indoleacetate as a precursor for certain indole- and carbazole-based chromophores. The chemical’s purity and solubility profile influence color fastness and brightness in the final product, particularly for high-value synthetic dyes used in electronics, plastics, and textile sectors. Compliance with safety, environmental, and consumer use directives governs its integration into colorant production lines, with each batch subject to documentation for downstream traceability. Industry compliance standards
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4. Fragrance and Aroma Compound EngineeringFragrance compound formulators use Ethyl 3-Indoleacetate in the synthesis of indole-ester fragrance bases, which impart nuanced, high-value notes in fine perfumery and luxury personal care products. Batch consistency, controlled impurity profiles, and documentation for allergen screening are critical for compliance with international standards. Specialty aroma manufacturers optimize dosage to maintain regulatory thresholds for finished formulas and integrate the compound at precise blending stages in closed-system production units. Industry compliance standards
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Ethyl 3-Indoleacetate draws a crowd for more than just its name. Being one of the few manufacturers who oversee the entire process—starting from the raw feedstocks, all the way to the finished product—it’s possible to speak directly to the needs and expectations surrounding this compound. For those in the know, the chemical doesn’t just represent another fine chemical. It’s a gateway molecule in the field of plant growth regulators, advanced pharmaceuticals, and synthesis intermediates.
During the years spent refining our production lines, one thing has stood out with Ethyl 3-Indoleacetate: its unique role as an indole derivative with the ethyl ester attached at the 3-position. Many customers assume these small structural features mean little. In reality, adjustments at the molecular level translate to big differences both in reactivity and application profiles. Ethyl 3-Indoleacetate’s main distinction comes from its stability under typical storage and reaction conditions. Where methyl analogues show early hydrolysis or break down in humid environments, the ethyl ester version holds up better over longer durations. For manufacturers who run continuous lines or batch processes with variable turnaround, this reliability offers extra confidence.
In our facility, quality never leaves the conversation. We don’t just ship product off the reactor; each lot faces thorough verification. Color, melting point, purity by HPLC or GC, and water content—these aren’t just numbers in a lab log. They are line items that make the difference between a smooth downstream synthesis and a costly upset. An in-house lab saves headaches, but the bigger value is consistency. We keep documentation, retain samples, and prioritize transparency not to tick a regulatory box, but because every investment in process control comes back in customer satisfaction and reduced troubleshooting.
Our standard grade Ethyl 3-Indoleacetate commonly exceeds 99 percent purity, measured by state-of-the-art liquid chromatography beside reference standards. The product comes as a clear, almost colorless oil at room temperature, in line with its defined melting and boiling ranges. Because our reactors are designed for minimal contamination and efficient solvent recovery, each batch demonstrates a consistently low residual solvent content. Product comes packed in HDPE drums or glass containers, sealed with nitrogen where requested, to maintain freshness during transit. We calibrate fill volumes with practices learned from decades of incident investigations—overfilling causes leaks in summer heat, underfilling invites headspace oxidation, so our packing lines hit the right mark each time. Our specifications aren’t just about meeting external regulations, they reflect the best combination of shelf life, ease of handling, and cost for the user.
The real value in our Ethyl 3-Indoleacetate appears once you see the difference in finished product outcomes versus similar esters like methyl or propyl indoleacetates. The ethyl variant brings a balance between hydrolysis rate and processability. Customers involved in plant growth promoter production often share their success in achieving higher conversion rates in auxin biosynthesis. Pharmaceutical clients report reduced by-product formation in multi-step indole alkylation and preservation of product integrity during storage. As a manufacturer, seeing fewer tech calls about degradation or inconsistent assay makes a strong case for the ethyl group’s superior utility.
Having worked both on the shop floor and in R&D, it’s clear that good chemistry doesn’t just happen in the flask. Facility design, waste management, and environmental safeguards matter greatly. Our EtOH recovery systems cut solvent emissions well beneath national standards. Every drum of spent material undergoes analysis before any disposal, ensuring unwanted byproducts don’t slip through unnoticed. By running continuous improvement cycles on reaction parameters and purification, we trim energy use and reduce unwanted residue, making not just a cleaner product, but showing transparency from raw material sourcing to finished goods. We engage with our raw suppliers to confirm their chain of custody, as impurity profiles drift if starting material grades drop. Traceability prevents plenty of headaches for all downstream users.
On paper, Ethyl 3-Indoleacetate serves as an intermediate for synthetic auxins, but production chemists know this tells only half the story. Seed treatment suppliers use it for its controlled hydrolysis, which translates into a steady release of indole-3-acetic acid in soil. Life science teams, especially those scaling up metabolite precursor syntheses, pick the ethyl ester for its smooth reaction kinetics with a diverse range of nucleophiles. We hear from small biotech firms advancing micropropagation studies who rely on our batches for reproducible outcomes. In one case, a long-term client noticed that shifting away from the methyl ester halved their rate of batch rejections—not because of a single magic bullet property, but because the ethyl derivative’s stability cut out multiple side reactions over a six-month inventory cycle.
Shipping and storage can be underestimated, so experience tells us to respect the logistics chain. Ethyl 3-Indoleacetate stands up well to typical transport hazards, though extreme temperature swings always deserve care. Drums leave our doors with tamper-evident seals, clearly labeled date of manufacture, and batch trace numbers etched for accountability. Our customers in warm climates receive shipments cooled with phase-change packs during the hottest months. We work with logistics partners to avoid prolonged warehouse stays, which guard against evaporation and temperature-driven condensation. Most users see a product shelf life that stretches well past the published minimum, provided containers aren’t breached or stored near reactive chemicals.
Direct conversations with formulation scientists and bench chemists have made clear why the ethyl ester earns its keep versus other forms. Methyl 3-Indoleacetate, for example, sacrifices half-life for slightly easier hydrolysis, but that swing leads to unpredictable performance in longer storage or delayed use. Larger alkyl esters promise even slower breakdown but complicate removal in downstream reactions and often leave more persistent traces in end products. The ethyl variant walks the fine line, balancing reactivity with long-term reliability. As a direct manufacturer, seeing customer order histories shift from methyl to ethyl speaks volumes—those who run pilot plants and need products to mirror bench work see the return in more consistent results and reduced troubleshooting.
Being at the helm of manufacturing, not trading, changes the nature of commitment. Feedback isn’t an abstract concept, it’s what drives the next upgrade or process tweak. Calls about cloudiness, off-odors, or drift in color shades trigger immediate root cause checks, not just replacement shipments. We answer directly for the batches that leave our reactors, and draw responsibility for raw material choices, water quality, and even maintenance schedules on separation columns. Problems don’t bounce around between vendors; we solve them in line with the same team who built the plant and checks the final product jars.
A big part of the role extends beyond just making molecules. We help end-users design and scale their own syntheses, sharing handling tips learned over decades. Whether it’s highlighting the increased temperature stability for use in high-throughput automated systems, or the ease of purification by simple distillation, our goal centers on enabling users to get reliable outcomes. We hear repeatedly from teams aiming to move away from classical extraction methods, and our consistent ethyl 3-indoleacetate provides a reliable starting point. In fast-moving markets, having a partner who can flex batch sizes to match changing demand smooths out growing pains.
Once Ethyl 3-Indoleacetate enters customer hands, most challenges stem from side-reactions or storage events that introduce water or acids. Knowing this, we’ve tailored our purification systems for tight control over residual water and minimized peroxide formation. By offering toll purification or application advice, we troubleshoot right where it counts. In one instance, a customer observed off-odors during a late-stage step; after reviewing their process history—including drum seals, diluent choices, and filtration steps—we traced the root cause to an oxidizing cleaner in their work area. Real-world manufacturing isn’t just chemistry, it’s about knowing the physical space and workflows each customer runs.
The last decade introduced global supply chain complexities that moved chemical manufacturing front and center. Operating from a manufacturer’s vantage means feeling every squeeze in raw material pricing and logistics delays. We’ve adapted by building buffer inventory, certifying regional suppliers, and investing in early-warning systems for precursor shortages. These steps, though invisible to most, are what allow product availability during market swings and external shocks. For Ethyl 3-Indoleacetate especially, stable sourcing of indole backbone feedstocks and high-quality ethanol makes or breaks quality and price. We pin our reputation not on squeezing costs, but on never leaving customers short-handed during sudden demand spikes.
Over decades, safety culture in manufacturing transformed from an afterthought to a leading element. For Ethyl 3-Indoleacetate, this centers on responsible handling of ethanol, indole vapors, and reaction solvents. We run closed systems and continuous monitoring—not because of big headlines, but from first-hand stories of near-misses and process upsets. Waste streams receive careful analysis to ensure environmental safety, and all employees run job-specific training programs before stepping on the plant floor. It is clear that strong EH&S practices reduce incidents and support continuous operations in busy plants. Customers benefit too: fewer recalls, fewer contamination issues, and a reputation for integrity that comes only from years of clear focus on people and the planet.
Many customers now embed sustainability into purchasing criteria. As manufacturers, we get asked about energy use, production footprints, and waste minimization. Early on, we invested in solvent recovery, energy-efficient distillation, and switchable catalysts to lower the environmental load of our Ethyl 3-Indoleacetate production. We supply full documentation on solvents and byproducts with every shipment, supporting green certification and audits. Our research team works with academic partners to benchmark our emissions per kilo of product. These investments don’t just tick boxes for corporate responsibility—they drive innovation, cut operating expenses, and meet the rising demand for lower-impact chemicals.
The story of Ethyl 3-Indoleacetate in our shop doesn’t end at routine production. R&D continues daily, focused on new methods to improve process efficiency, reduce contaminants, and shrink energy demand. Our teams have trialed alternate feedstocks for the indole ring, explored biocatalysts for esterification, and analyzed emerging applications in agrochemical and fragrance syntheses. Feedback loops from customer case studies and our own runs keep the process evolving. As markets mature and regulations change, adaptability ensures the molecule keeps meeting new standards and application niches. Young chemists and experienced operators together drive these upgrades, blending fresh curiosity with years of hands-on learning.
Field trials often tell the best stories. One agricultural biotechnology firm, struggling with low yields in plant tissue propagation, switched to our Ethyl 3-Indoleacetate after repeated contamination events using a competitor’s stock. Within one planting cycle, they observed shorter rooting intervals and higher viability, thanks to cleaner, fresher material. Another case: a pharmaceutical group expanding their pilot plant found fewer clogged filters and lower loss-on-drying with our product. These aren’t isolated success stories; they stem from direct feedback, hours spent reviewing analytics together, and open channels for improvement suggestions. A manufacturer’s role doesn’t stop at delivery; it means partnership all the way to product success in the field.
The chemical sector faces accelerating changes in both regulation and technology. As a producer committed to long-term success, we keep an eye on how Ethyl 3-Indoleacetate fits into emerging trends—like automated synthesis platforms, high-throughput screening, or bio-based alternatives. Our team welcomes collaborative development, sharing batch history, impurity profiling, and process data to support research customers looking to de-risk their projects. The ability to offer pilot-scale runs alongside full-scale production means more flexibility as customer needs grow or shift. Bridging traditional fine chemical expertise with tomorrow’s tools ensures our product keeps pace with changing science and industry demands.
In the end, Ethyl 3-Indoleacetate stands for more than its molecular structure or purity figure. The decades spent making, refining, and supporting this specialty chemical forged an approach built on knowledge, commitment, and direct accountability. Each batch comes with inherited expertise—solving practical problems and sharpening quality, not just checking boxes on a specification sheet. Over the years, we’ve seen trends come and go, but the need for chemicals that just work the way they should—day after day, drum after drum—remains. In this field, that reliability earns real respect.