|
HS Code |
945234 |
| Chemical Name | Indolyl Carbinol |
| Molecular Formula | C9H9NO |
| Molar Mass | 147.18 g/mol |
| Appearance | White to off-white crystalline solid |
| Melting Point | 85-87°C |
| Solubility In Water | Slightly soluble |
| Cas Number | 700-06-1 |
| Synonyms | 1H-Indol-3-ylmethanol, 3-Indolylcarbinol, I3C |
| Storage Conditions | Store in a cool, dry place, tightly closed |
| Purity | Typically >98% |
| Stability | Stable under recommended conditions |
As an accredited Indolyl Carbinol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Brown glass bottle with sealed cap, clear labeling for safety. Contains 25 grams of Indolyl Carbinol. Includes hazard and handling instructions. |
| Shipping | Indolyl Carbinol is shipped in tightly sealed containers, protected from moisture and light, and kept in a cool, dry environment. Transportation complies with applicable chemical safety regulations, utilizing appropriate hazard labels and documentation to ensure safe handling and delivery. All shipments are made by authorized carriers specializing in chemical transport. |
| Storage | Indolyl Carbinol should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and incompatible substances such as strong oxidizers. Keep the container tightly closed to avoid moisture absorption and contamination. Store at room temperature or as recommended by the manufacturer, and ensure proper labeling to prevent accidental misuse or exposure. |
| Purity 98%: Indolyl Carbinol with 98% purity is used in pharmaceutical intermediate synthesis, where it ensures high yield and product consistency. Melting Point 120°C: Indolyl Carbinol at a melting point of 120°C is used in organic solid-state reactions, where it provides predictable thermal behavior during processing. Stability Temperature 80°C: Indolyl Carbinol with a stability temperature of 80°C is used in drug formulation, where it maintains structural integrity under formulation conditions. Molecular Weight 173.2 g/mol: Indolyl Carbinol with a molecular weight of 173.2 g/mol is used in targeted compound design, where it allows precise calculation of molar concentrations for synthesis. Particle Size <10 µm: Indolyl Carbinol with particle size below 10 micrometers is used in suspension formulation, where it enables homogeneous dispersion and improved bioavailability. Solubility in DMSO: Indolyl Carbinol soluble in DMSO is used in cell-based assay development, where it facilitates uniform dosing and reproducible assay conditions. Low Residual Solvent <0.5%: Indolyl Carbinol with residual solvent below 0.5% is used in active pharmaceutical ingredient production, where it reduces potential toxicity risk and enhances safety compliance. UV Absorbance 280 nm: Indolyl Carbinol with UV absorbance at 280 nm is used in analytical method validation, where it allows effective monitoring and quantitation in quality control. Storage Condition 2-8°C: Indolyl Carbinol stored at 2-8°C is used in research chemical supply, where it preserves chemical stability and extends shelf life. Optical Purity >99% ee: Indolyl Carbinol with optical purity greater than 99% enantiomeric excess is used in chiral synthesis, where it enables the production of enantiomerically pure pharmaceuticals. |
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Making Indolyl Carbinol isn’t a kitchen experiment. The process starts with careful planning and a real respect for both precision and efficiency. Many researchers call on 3-indolyl carbinol (often written as I3C, with CAS No. 700-06-1), thanks to its unique properties, as a key intermediate in pharmaceutical, agrochemical, and pigment projects. Those years spent navigating chemical reactions in real reactors—handling actual risk, not just writing theory—teach you where corner-cutting leads and what it means to ship inconsistency into a partner’s R&D line.
Our process foregrounds real purity concerns. We crystallize Indolyl Carbinol through repeated fractional extraction, calibrating temperature ramps to pull out off-notes and minor byproducts. The molecule appears as pale yellow or white solid. Individual batch certificates always reflect genuine HPLC and NMR traces, because white powder that tests 98% isn’t the same as white powder loaded with solvent peaks, unknown signals, or color impurities. Chemists spot those differences—later, so do their bosses if their project stumbles.
For our main offering, 3-indolyl carbinol, purity measures over 99.0% by HPLC, with moisture capped under 0.5%. Sometimes customers request slightly different specs for feeder purposes—sometimes they run syntheses at large scale that tolerate minor impurities. We cut unnecessary costs for those variants, but we don’t exaggerate technical confirmation. Trace metal analysis always reflects the actual catalyst routes used; standard runs show iron below 5 ppm, with palladium under typical instrument detection for batches not exposed to cross-coupling steps.
Adopting a genuine chemical manufacturing approach forces you to address batch-to-batch reproducibility. Early runs taught us that tweaking a synthetic route for theoretical yield gain often causes downstream headaches: higher impurity levels, slower filtration, or unpredictable storage stability. Small changes add up. In controlled lots, melting points routinely appear within half a degree of verified literature values. You know a good batch by its reaction time, smell, and even the particular sheen of its crystals after proper drying—not just the numbers on a report.
Academic articles describe Indolyl Carbinol as a versatile building block for the pharmaceutical pipeline. Factory reality is different. The trick isn’t just making the compound, but guiding it through long supply-chain journeys without degradation. Researchers working at scale often ask for documentation covering storage stability under humidity swings, transport over hot seasons, and compatibility with their downstream functionalizations. We share our data and emphasize that real-world experience—lining drums with inert gas or choosing the right inner packaging—matters as much as any technical sheet.
Customers use I3C for heterocycle synthesis projects, targeting new kinase inhibitors or dye intermediates. Agrochemical cooperators explore analogs of Indolyl Carbinol for growth regulator candidates and natural pesticide scaffolds. Peptide chemistry teams, especially, focus on this class for tryptophan modification or fragment coupling. We’ve watched teams burn through batches after storing them in the wrong drum or picking the wrong solubilizing agent—the loss isn’t just financial. Every lost day disrupts downstream progress, pushing up opportunity cost.
Process optimization rarely follows a script. Some groups dissolve our Indolyl Carbinol in methanol, others prefer propylene carbonate or DMSO, depending on subsequent transformation. We do not recommend a universal method in our public documents because experienced chemists already know what works for their conditions. What matters is that our product consistently dissolves to a clear solution and delivers tight yields without coaxing or byproduct formation under their conditions.
Many chemicals look identical at a glance, and the commodity market encourages lowest-price mentality. Indolyl Carbinol stands out from common intermediates like indole itself, or simple carbinol analogs, because of the unique polar substituent at the 3-position. This functional group promotes targeted reactivity in condensation, alkylation, and oxidation reactions—giving synthetic chemists a foothold for building more complex frameworks. Anyone who’s run the Fischer indole route or attempted indole N-alkylation knows the impact of small differences in starting material reactivity.
Competing materials sometimes trade at a discount: technical-grade intermediates, recycled solvent lots, or batches with questionable chain of custody. We refuse to cut corners there. Our facility maintains documented cleaning cycles, solvent testing, and contaminant elimination procedures. A failed clean-up doesn’t just mean a ruined batch for us; it can spiral into lawsuits if a client’s patent project fails. Over years, some of our best relationships began with requests to analyze competitor material—comparing unexpected IR or MS peaks with our samples. The differences are not always visible. It takes real lab experience to trace an unexpected byproduct, explain odd sample behavior, or recognize tweaks needed in a partner’s protocol to handle material sourced from different manufacturers.
Much of the published discussion on fine chemicals circles back to regulatory compliance, hazard handling, and sustainability. In practice, these aren’t checkboxes; they drive the actual structure of daily work. The indole class brings hazards: dust inhalation risk, sensitivity to strong acids, and the potential for trace formaldehyde release in substandard material. We invest in closed-system handling, not just for regulatory paperwork, but because floor-level staff notice the difference—less exposure means safer work and higher morale.
Managing solvent and waste is one of the least glamorous jobs in this business, but it’s where a third of our annual improvements stem from. Our distillation columns squeeze recoverable solvent across multiple process steps. We source replacement indole and tryptophan feedstock from reliable, lower-impact suppliers, not midnight shipments with patchy documentation. Some competitors cut these corners, sending waste to ambiguous “treatment partners” or ignoring actual air test results. Real EHS requires sampling, measurement, and hiring enough trained hands.
If downstream clients need full documentation for Drug Master File or reach preclinical studies, we share in-process control data rather than just end-of-line analytics. Traceability saves time and builds trust—especially when someone’s regulatory deadline looks impossible. Transparency about production runs and process changes gives long-term partners a real-world edge, not just ticking an audit box.
Scaling academic routes teaches humility. Bench conditions often don’t transfer above one kilogram. In the early years, runaway exotherms and overaggressive agitation ruined entire lots. Correcting those failures often meant hours of troubleshooting to rediscover the specifics: mixing order, acid addition rate, or filtration temperature. Even now, unexpected polymerization or resin formation forces mid-batch interventions, not just “quality checks.”
Sourcing raw material—especially for specialty lots like deuterium-labeled Indolyl Carbinol—demands deep supplier scrutiny. Our technical team sometimes logs hours of back-and-forth with vendor QC teams, rejecting feedstock that doesn’t align with the specified heavy atom content. Shipping resin drums across three climate zones means planning for condensation or unexpected spoilage. Real production knowledge is written through this daily improvisation, not in supplier templates or catalog promises.
Lead time problems rarely resolve with apologies. On one occasion, we shut down an entire batch run when the intermediate supplier’s documentation didn’t match the physical sample. Downstream customers didn’t thank us for the delay, but they eventually commented on the reliability. Trust, in this trade, comes from actual pattern of response—not marketing.
Relying only on summed-up paperwork gets people into trouble. Every incoming lot of Indolyl Carbinol passes through direct lab screening. IR, NMR, HPLC—and occasionally GC-MS for impurity tracking—run under methods tuned by hard-won batch knowledge. Surprising peaks or moving baselines flag the need for deeper looks. Retrospective analysis sometimes reveals new trace degradants from storage or shipment. These findings don’t get hidden in ‘out of specification’ logs; we explain them openly, then build safeguards so that every outgoing order aligns with the sample in the client’s hands.
Few academic papers warn chemists about storage oddities. Seasonal humidity swings, brief transport heating, or improper drum sealing can catalyze tiny, frustrating degradations. Our technical support responds by sending unvarnished batch photos, not stylized stock images—showing genuine product appearance so new partners can compare at their own benches. If an anomaly shakes out, we prefer candid admission over template reassurances. After all, we’d want the same honesty from upstream vendors.
Recent years saw pressure for ever-lower pricing, as global competition intensified—especially out of regions willing to skirt environmental or labor regulations. Some customers moved to source Indolyl Carbinol from far-flung suppliers advertising better deals but later faced problems with odor, low yield, or shipment delays. These headaches grow especially severe in high-volume or patent-sensitive projects, where slip-ups cost far more than modest up-front savings.
We position our approach differently: steady supply, consistent quality, and technical transparency. Our investment in actual plant upgrades, solvent recycling, and in-house analytics sometimes increases cost, but protects real project timetables. Customers tend to return after experiencing the true cost of unplanned downtime or inconsistent batches. Reputation builds quietly, deal by deal, often rooted in a crisis resolved late at night rather than fancy brochures.
For customers exploring new derivatives, we offer flexibility in custom synthesis using Indolyl Carbinol as a base. This includes the option to introduce various substituents at either the indole nitrogen, side chain, or aromatic ring positions. Special requests—such as isotope labeling or modifications for click chemistry—draw on our development team’s real-world process experience. We won’t chase every theoretical project, especially those better served by lab-scale players, but our track record shows a focus on honest assessment, clear risk statements, and reliable delivery timelines.
Anyone can Google a handful of technical properties for Indolyl Carbinol and quote specs. The experience difference comes from turning raw materials into robust, trustworthy product streams. We don’t lose sight of the human stakes: the doctoral chemist troubleshooting a stalled coupling, the plant shift runner handling kilo-scale stock, or the startup entrepreneur banking a new molecule’s launch. The manufacturer’s job cannot end with invoice processing. Real value lies in knowledge—both the know-how of making and moving product safely and the humility to share data, own up to setbacks, and offer practical suggestions to customers facing their own on-the-ground challenges.
While mass producers may promise price advantages or “sufficient” specs, our partners stick with us because the invisible details—batch consistency, document clarity, expert response to troubleshooting—turn out to matter more in practice than theoretical claims. With years behind every improvement and enough hard-won lessons from batches both successful and failed, we offer Indolyl Carbinol not as a commodity, but as a reflection of the craft, care, and hard science that continues to earn its place in tomorrow’s chemistry.