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HS Code |
343249 |
| Chemical Name | 7-Ethyl tryptophol |
| Cas Number | 118801-88-6 |
| Molecular Formula | C12H15NO |
| Molecular Weight | 189.25 g/mol |
| Appearance | White to off-white solid |
| Melting Point | 76-78°C |
| Solubility | Soluble in ethanol and DMSO |
| Storage Conditions | Store at 2-8°C, protected from light |
| Synonyms | 7-Ethyl-3-indoleethanol |
| Smiles | CCc1ccc2c(c1)c(c[nH]2)CCO |
| Purity | Typically ≥98% |
| Inchi Key | RSVJGXDNBRUMEC-UHFFFAOYSA-N |
| Application | Pharmaceutical intermediate |
As an accredited 7-Ethyl Tryptophol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 25 grams of 7-Ethyl Tryptophol, sealed with a tamper-evident cap and labeled with safety information. |
| Shipping | 7-Ethyl Tryptophol is shipped in tightly sealed, chemical-resistant containers to ensure stability and prevent contamination. Packages are clearly labeled as a laboratory chemical and handled according to standard hazardous material protocols. Transportation complies with local and international regulations for safe handling of organic compounds. Store away from heat, light, and incompatible materials. |
| Storage | 7-Ethyl Tryptophol should be stored in a tightly sealed container, away from light and moisture, in a cool, dry, and well-ventilated area. Keep it at room temperature, away from incompatible substances such as strong oxidizing agents. Ensure storage areas are free from ignition sources. Follow proper chemical hygiene and safety guidelines to prevent contamination and accidental exposure. |
Applications of 7-Ethyl Tryptophol in Industrial ManufacturingAs the original manufacturer of 7-Ethyl Tryptophol, we support a focused range of industrial applications where this compound delivers established value. Our raw material contributes to precise functionalities across key sectors, aligning with stringent regulatory frameworks and quality management demands. Explore detailed use cases below, each reflecting real downstream manufacturing and specifications based on direct industry practice. 1. Pharmaceutical Intermediate for Antifungal Agent SynthesisPharmaceutical manufacturers utilize 7-Ethyl Tryptophol as a critical intermediate in the multi-step synthesis of specific azole-based antifungal agents. The compound enters amidation or indole functionalization steps, serving as a backbone for active pharmaceutical ingredient (API) cores. Controlled addition during upscaling ensures product consistency, process reliability, and regulatory traceability from raw material to finished medicine. Industry compliance standards
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2. Fermentation Starter in Specialty Yeast CulturesIn the specialty fermentation industry, 7-Ethyl Tryptophol functions as a quorum sensing modulator to induce specific behavioral changes in yeast cultures. Research-scale and commercial production of non-traditional yeast strains leverage its ability to influence cellular aggregation and aroma precursor release, particularly in the propagation phase of starter cultures designed for biosynthesis of aromatic alcohols or flavor conjugates. Industry compliance standards
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3. Aroma Precursor in High-Value Flavor and Fragrance CompoundingPremium flavor and fragrance producers apply 7-Ethyl Tryptophol as a precursor molecule in formulating luxury scent accords and functional flavors. Through controlled enzymatic or chemical transformations, downstream users convert the indole alcohol to target aromatic aldehydes or esters, suited for niche perfumery or flavor notes in fine spirits and complex food matrixes. Tight raw material specification and precise batch management support repeatable olfactory profiles and food safety assurance. Industry compliance standards
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4. Analytical Reference Material for Metabolomics and Indole AssaysAdvanced chemical analysis laboratories and instrument manufacturers use 7-Ethyl Tryptophol as a reference standard for the quantitative determination of indole derivatives in metabolomics, fermentation monitoring, and cellular signaling pathway studies. High-purity batches support method validation and instrument calibration procedures, underpinning reproducible data generation for pharmaceutical R&D, academic research, and quality control laboratories. Industry compliance standards
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Building specialty indoles has never felt routine here on the plant floor, and 7-Ethyl Tryptophol, with a structure reminiscent of tryptophol but distinguished by its ethyl group at the 7 position, represents a careful blend of organic synthesis and years of refinement. This isn’t just a product for us—it’s a result of stubborn problem solving and evolving expertise in indole chemistry. Most of our daily work revolves around making sure this product leaves our facility with the consistency and reliability demanded by research labs, pharmaceutical developers, and flavor and fragrance teams who use it.
We settled on this compound as a key catalog item after seeing how much versatility it brings to synthetic organic pathways. The ethyl substitution tweaks both physical and chemical properties, opening distinct analytical characteristics and downstream applications that standard tryptophol and its close analogs never quite deliver. When we make 7-ethyl tryptophol, purity targets matter to us. NMR, HPLC, and mass spectrometry data get checked every week because unchecked variations won’t just bother academic clients—they could cause headaches on a process development scale. We stay clear of off-ratio byproducts and manage all temperatures and solvents with a careful eye, preventing oxidative residues that would otherwise degrade both analytical results and customer trust.
Having made hundreds of kilograms since adding it to our product line, we have seen requests jump from traditional pharmaceutical labs to newer synthetic biology groups and innovative flavor creation outfits. These teams are digging into indole derivatives as molecular probes, fermentation enhancers, biological signals, and even as starting points for constructing more complex natural product inspiration drugs. Working in the lab, we’ve learned that the ethyl group not only impacts solubility compared to standard tryptophol, but also gives a unique odor and metabolic profile. In flavor labs, even subtle changes in alkylation can yield new sensory blends—combinations testers hadn’t seen before, but that 7-ethyl tryptophol could uniquely deliver in a formulation.
We manufacture 7-ethyl tryptophol in batch reactors using a robust Fischer indole-type condensation followed by judicious reduction and workup. Fine-tuning comes into play in the purification phase, where tightly maintained temperatures and solvent ratios ensure reproducibility. Each batch receives lot-specific documentation, with GC and NMR fingerprints on file. Byexperience, yields have consistently hovered at the upper end of laboratory-to-plant expectations for indole derivatives, often exceeding 90% crude before recrystallization. Final melt points and color are confirmed to match historical data; any deviation triggers a full review, not a workaround.
Packaging occurs under nitrogen in light-resistant high-density bottles or drums depending on shipment size. Open handling calls for gloves and goggles, which everyone here has learned through muscle memory rather than just procedure. Ambient stability holds for months, but we don’t push storage times—fresh product always moves best for critical applications.
Our customer feedback cycles track more than complaints or off-spec reports. Downstream screening, reactivity patterns, and even unexpected application data flow back to our technical team. We receive raw spectra to back up claims over reactivity in enzymatic conversion or organometallic catalysis. Any irregular purge or trace impurity on our end gets flagged back through an open channel. This feedback loop drives our own protocols forward—more than one synthetic tweak on line has been inspired by a technical exchange with a grad student or bench chemist outside our facility.
Not all indole derivatives achieve equal status in our yearly production schedule. 7-Ethyl tryptophol stays relevant because it slots into a window where function, availability, and reactivity meet. The ethyl positioning opens space for regioselective reactions, particularly for teams exploring new routes in tryptamine and serotonin analogs. In lab notebooks, we’ve tracked how this one detail—where the ethyl group sits—matters so much for nucleophilic attack patterns and for physical properties under scale-up. Customers seeking to modify natural product pathways find that aromatic substitution at the 7-position lets them map out unique metabolic routes, often bypassing less stable intermediates.
The difference from classic tryptophol isn’t academic. Standard tryptophol, with its unsubstituted ring, sometimes fails to reach the solubility, volatility, or reactivity specs needed for today’s diversified applications. Some indole alcohols carry methyl groups, but the two-carbon ethyl makes oxidation or reduction steps more precise, and sheds light on in vivo distribution for pharmaceutical test labs. The sweet spot for 7-ethyl tryptophol is in its balance—the added bulk of the ethyl provides enough shift in properties without bringing the metabolic baggage that heavier substitutions sometimes introduce.
In flavor R&D, our partners share that 7-ethyl tryptophol rounds out fine top notes in beverage, dairy analogue, and exotic spice blends. Sensory panels report a gentler, richer character compared to sharp or musty notes from underivatized indoles. Today’s flavor regulators require precise documentation and tracking for all input components; we supply COAs with real numeric NMR integration and GC retention, not just generic description by supplier, because our clients’ trust depends on granular data.
Safety always underpins our daily operation. The core indole backbone by itself brings few surprises, but the presence of the alcohol group means peroxide formation stays low, keeping hazard profiles manageable. Our team prefers handling 7-ethyl tryptophol to some of the heavier alkyl-indoles that can introduce strong odors or present respiratory risk. In typical usage amounts, the material offers straightforward risk management, supported by SDSs and workflow safety guides; nothing beats first-hand training for handling even familiar compounds.
The internal training program always includes case studies drawn from actual incidents—not hypothetical risks. Some of our most seasoned technicians teach new operators how to manage spills with cold alcohol flush and neutral solids. Routine bench reviews check for long-term storage effects or subtle oxidation, emphasizing that even routine compounds deserve vigilance. Though we ship globally, we keep all handling in-country to the highest standard, not the lowest acceptable bar.
Compliance questions regularly cross our desks. Pharma customers demand RoHS and REACH alignment; flavor clients want up-to-date allergen data packs and partnership on annual audits. Years ago, regulatory reviews felt like distant paperwork, but now we regularly integrate feedback from regulatory science teams into lot release. Our lab maintains traceability on every bottle shipped. No data gets hidden—every batch receives archived certificates covering NMR, HPLC, and GC. Our familiarity with indole chemistry means we can answer advanced technical queries without delay, sometimes in real time.
Trace impurities always matter more than they seem. On 7-ethyl tryptophol, the risk of isomeric or unsymmetrical-byproduct co-formation presents a real analytical challenge. In our lab, we run stacked chromatograms and spike authentic standards at spectrum edges to confirm results. This routine grew out of one tough season decades ago, when a missed minor peak caused a process development contract to nearly collapse. Now, we seldom encounter surprises—tougher scrutiny up front keeps products honest.
Our operation doesn’t skirt environmental obligations. Even small-scale indole manufacturing can pile up biologically active waste and solvent emissions, so we adopted closed-system recovery and minimize halogenated solvent use. Water streams from 7-ethyl tryptophol production head to internal treatment before public outlet, passing scrutiny from both regulators and third-party inspectors. The team reclaims nearly 80% of spent solvents, and packaging materials now trend toward bulk return-and-refill. Product volume sometimes adds cost but cuts our site’s landfill load, and routine audits track downstream impact.
Synthetic chemists in the specialty market notice more sustainability claims in recent years, but our team knows empty promises won’t pass. Routine sampling of soil and air around the plant feeds ongoing site health analysis. Our own product choices follow a chain of accountability, not a marketing checklist—if a new route or greener solvent works, we shift immediately, no matter the learning curve.
Working manufacturer-direct brings advantages beyond price. Technical support, sample turnaround, and even custom documentation come from people who have touched the product, not just a sales desk that moves generic inventory. We task our R&D chemists with fielding novel requests monthly. Some clients approach us seeking a hydrogenation-ready precursor; others look for gram-scale lots, precise doping for biological models, or specific co-crystallization studies with chirality control. Our real value lies in sharing practical advice, drawn from first-hand struggles with reaction optimization or purification setbacks.
One recent project had us adapting baseline purification because a client’s downstream enzyme assay showed inconsistent background. Adjusting the crude cutpoints—something only a manufacturer sees up close—tightened their yield and drove their research forward. These conversations feed back into our own best practices, not as isolated anecdotes but as process-wide improvements.
Long-term users in the pharma sector told us that the lot-to-lot reproducibility from a single-source manufacturer lines up better for regulatory filing and batch release. The accumulated trust saves research teams frustrating validation delays and supports the scale-up process for downstream targets. In contrast, clients who source equivalent material from brokers or repackagers risk supply hiccups, mixed analytical data, or slower investigation response when anything goes sideways.
Markets for advanced organic building blocks reward reliability. We hear far too many stories about uncertain supply chains, questionable purity, or inconsistent documentation when companies settle for bulk distributors. Makers who supply direct aren’t just another step in the chain—we’re the people responsible for real-world consistency, safety, process optimization, and regulatory compliance. Our focus on 7-ethyl tryptophol goes deeper than basic specs or technical bulletins. Each lot gets checked, rechecked, and compared to the prior batch not just by machines, but by experienced chemists who understand why small differences matter for complex research.
We build more than a product—we build a living record of every synthesis, adjustment, and analytical callout on the material’s journey. Any process change gets documented, and we stand ready to report on variation, not just issue a paper certificate. Our doors stay open to technical dialogue, from troubleshooting to trial adjustments for new fields. The product’s role in new medicinal chemistry programs or as a sensing molecule in bioassays only amplifies our sense of responsibility.
At the end of the production day, putting our name on 7-ethyl tryptophol means owning every step, from precursor to finished molecule. We see our relationship with buying teams more as a partnership than a transaction. They need confidence in every bottle; we supply it through attention, training, and by making even small improvements matter.
Industry trends shift year by year—pharma, flavor, agrochemical, and specialty chemical teams don’t stand still. Our approach to making and delivering 7-ethyl tryptophol adapts, shaped by open conversations and the latest analytical tools. Ongoing investments go into better chromatographic methods, early-warning QC signoffs, and alternative green chemistry approaches that stand up to both scrutiny and performance needs.
We regularly take on method development for new customer analytics in-house, replicating downstream tests before the product ever ships. This means fewer surprises for users scaling up tools or regulatory filings for final formulations. Our team meets every new technical request as a problem to solve, not as an obstacle—often making small changes to batch size, workup solvents, or drying conditions based on applicant feedback. Customer partnerships have even prompted us to develop new derivatives and related side products that now feature in our year-round schedule.
As new research lights up related indole scaffolds, we expect custom requests for substitutions—sometimes on short timelines. Our warehouse and formulation lines are built for flexibility, with sourcing metrics that reward both reliability and environmental sensibility. Every staff member here, from lab batched to scale-up technician, understands the chemistry’s impact extends beyond the plant—affecting research, regulations, and end products worldwide.
Supplying 7-ethyl tryptophol today demands every bit as much technical expertise and accountability as it did on the first run. Hands-on work, iterative feedback, and persistent attention to detail shape every lot. Chemical manufacturing has no place for shortcuts—especially when synthesizing specialty indoles whose small variations drive big outcomes downstream.
For us, progress doesn’t happen in isolation. Each new academic paper, patent filing, or production method published adds insight to our evolving framework. We build professional relationships with every research, flavor, and pharmaceutical client, drawing on shared priorities for safety, reliability, and analytical certainty. Manufacturing isn’t just a background process—it forges direct impact with every kilogram, every spectroscopic reading, every safety milestone.
In continuing to refine and expand the reach of 7-ethyl tryptophol, our commitment stands rooted in concrete work: technical honesty, open dialogue, documentation you can trust, and flexibility born of real experience. As research and industry needs shift year after year, our resolve remains—to build chemistry, support innovation, and stay accountable to both science and people.