|
HS Code |
892057 |
| Name | Indolethane |
| Iupac Name | 2-(1H-indol-3-yl)ethane |
| Molecular Formula | C10H11N |
| Molar Mass | 145.20 g/mol |
| Cas Number | 526-55-6 |
| Appearance | White to off-white crystalline solid |
| Density | 1.14 g/cm³ |
| Melting Point | 65-67°C |
| Solubility In Water | Slightly soluble |
| Pka | 16.23 (indole NH) |
| Structure | Contains an indole ring linked to an ethyl group at position 3 |
As an accredited Indolethane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 25g amber glass bottle with a secure screw cap, labeled "Indolethane, 99% purity," includes hazard and handling instructions. |
| Shipping | Indolethane should be shipped in secure, airtight containers designed for chemical transport, following all applicable regulatory guidelines. Label the package clearly with hazard information, and protect it from excessive heat, moisture, and direct sunlight. Ensure all documentation, including safety data sheets, accompanies the shipment for safe and compliant handling and delivery. |
| Storage | Indolethane should be stored in a tightly closed container in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizing agents. Keep it away from heat, sparks, and open flames. Protect from physical damage and direct sunlight. Label the container clearly, and follow all safety and handling guidelines for laboratory chemicals. |
| Purity 99%: Indolethane Purity 99% is used in pharmaceutical synthesis, where it ensures high yield and minimal impurities in active pharmaceutical ingredient production. Melting point 48°C: Indolethane Melting point 48°C is used in fine chemical manufacturing, where its stable transition enables precise processing and formulation. Molecular weight 145.21 g/mol: Indolethane Molecular weight 145.21 g/mol is used in organic synthesis, where its defined mass facilitates accurate stoichiometry in reaction scaling. Stability temperature 120°C: Indolethane Stability temperature 120°C is used in laboratory research applications, where it provides consistent performance under moderate thermal conditions. Particle size <50 µm: Indolethane Particle size <50 µm is used in catalyst support development, where the fine granularity enhances surface area and reaction efficiency. Solubility in ethanol 25 mg/mL: Indolethane Solubility in ethanol 25 mg/mL is used in analytical chemistry, where it enables efficient sample dissolution for spectroscopic analysis. Viscosity 1.2 cP at 25°C: Indolethane Viscosity 1.2 cP at 25°C is used in solution preparation for biochemical assays, where it ensures uniform mixing and reproducibility. Storage stability 24 months: Indolethane Storage stability 24 months is used in inventory management for industrial labs, where its long shelf life reduces product degradation risk. Refractive index 1.61 at 20°C: Indolethane Refractive index 1.61 at 20°C is used in optical material research, where its predictable behavior optimizes prototype material design. Colorless crystalline form: Indolethane Colorless crystalline form is used in quality control laboratories, where its high purity is visually confirmed and contaminant detection is simplified. |
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Turning raw materials into tried-and-tested chemicals demands both patience and dedication to the smallest details. Indolethane, a molecule so often highlighted in the development of advanced organic compounds, has been on our production lines long enough to know where it stands apart from the usual synthetic intermediates. Our facility has handled indolethane batches for years now, pressing forward with incremental improvements based on direct feedback from seasoned chemists, formulators, and end users who track results batch to batch.
Over time, engineers in specialty chemicals have asked for purer lots and tighter physical consistency. Building the synthesis route for indolethane meant refining methods early on, minimizing side-products, and working up standardized drying and packaging regimens that hold up in most climates. Our standard specification sits above 99% purity by GC, with trace impurities documented down to fractions of a percent.
Each kilogram mirrors the last, down to how the product handles in ambient air and in controlled atmospheres. Granule size and particle distribution can be tuned to support different flow setups in automated lines or to speed up dissolution in solvents widely used in laboratories. Our batches consistently show off-white, free-flowing material, with clear documentation trailing back to starting lots and every chemical step, which makes tracing and validation straightforward for audit teams.
Looking at orders, most customers take our indolethane as a base for further derivatization. This isn’t just another lab reagent. Many treat it as an anchor point for building advanced heterocycles, industrial intermediates, or bioactive molecule libraries. Over the last decade, pharmaceutical and crop science labs have pushed us to adapt to new standards in purity and analytical supporting data to keep workflows smooth. In medicinal chemistry, indolethane most often becomes the backbone of target molecules during early lead exploration. Its structure gives a solid launching pad for introducing functional groups that can pull the molecule in countless directions.
Researchers at process scale feel the impact of even minor contamination or variability from lot to lot. We learned that the hard way during pilot collaborations with medicinal chemistry teams cloning leads across dozens of analogs. Even small changes in residual moisture or particle size skew downstream yields. With indolethane, we put a premium on consistency, monitoring every critical reaction step and rechecking packed material for storage stability.
Academic customers, always keen on budget and quality, value material offering low background interference in analytical runs. Having a clean baseline lets them focus on the exact products they want, without worrying about unknowns clouding product purity claims.
Many products carry the ‘indole’ backbone, but indolethane stands out as both a surprisingly subtle and versatile entry in the category. Unlike bare indole or more decorated indoles, this compound brings an ethyl linker at the 3-position, making it more than just a skeletal starting point. Synthetically, that ethyl group often opens up new reaction pathways, especially for alkylation and substitution, that bare indole lacks.
Aniline routes require careful protection and deprotection steps. Pyrrole arenes suffer from handling volatility and sensitivity to air. When handling indolethane, we do not see the same instability, and packing lines operate smoother—no extra precautions for storage under inert atmosphere, just room-temperature conditions with standard desiccant. Over the years, researchers pointed out that indolethane is less aromatic than tricyclic heterocycles, sidestepping some downstream incompatibilities, especially for those developing scaffolds for further pharmaceutical discovery.
Compared with higher analogues like indolylpropane, indolethane’s relatively compact structure gives chemists faster turnarounds and fewer purification headaches in short/medium scale synthesis. We’ve watched customers in fragrance and flavor creation take advantage of its volatility profile compared to other substituted indoles, reporting superior aromatic persistence and cleaner separation profiles.
Over the years, scale-up often revealed details that lab-scale research never exposed. Keeping product loss minimal in distillation or crystallization steps is a constant balancing act. Raw feeds shift, lots change in subtle ways—a supplier swaps the grade of a solvent, or a minor temperature ramp throws off product recovery. Indolethane doesn’t forgive shortcuts, and few other molecules in our catalogue show such obvious drift when a routine gets careless.
Building a stable production process meant tuning reaction conditions down to exact times and temperatures, switching filtration media, and revisiting solvent grades with suppliers. Regular investment in new sensors cut down on batch-to-batch deviation in both color and purity. This wasn’t about fancy automation; it meant regular audits, hands-on operator training, and record-keeping that allows root cause analysis if a stray impurity ever crops up.
Customers expect glass-clear specifications and honest lot statements. If a product doesn’t perform to spec, process engineers and QC teams want answers yesterday. Manufacturing indolethane at volume forced us to shift away from batch-processing dogma, to a hybrid of semi-continuous and modular equipment layouts. This lets us adjust on the fly—to ramp up as demand spikes, or pause and troubleshoot if a run starts drifting from spec.
Testing doesn’t end at the last filtration. Shipping containers sit in warehouses, in trucks, cross borders, seeing every kind of temperature and humidity. Moisture shift causes caking if packaging isn’t dialed in, and some customers run stability checks that can catch even the slightest off-odors or discoloration. Over years of partnership with long-term buyers, we fine-tuned packaging, moving from simple bags to high-barrier liners with nitrogen flushes for certain destinations.
Batch records must go deeper than meeting some generic regulatory minimum. Our paperwork trails every raw lot, stacks up in-process controls, captures operator names, and details every deviation report—not just for audits, but for internal learning and process improvement. Backtracking one off-color lot led us to upgrade our chiller calibration protocols, which is not something you find in a textbook. This level of documentation reduces repeat missteps, which helps protect both our name and our customers’ results.
We have seen real-world consequences when those standards slip. One small drift in impurity, undetectable to less experienced QC labs, led to a run of off-flavored aroma formulations at a customer’s plant. That single event cost weeks in troubleshooting, replacement shipments, and recalibration of their blending equipment. Those kinds of real feedback loops drive us to maintain tighter specs, be transparent in communication, and keep support ongoing long after a shipment leaves our warehouse.
Sustainability has moved from a wish-list demand to an ongoing project at every level. Scaling back solvent consumption requires exploring less toxic replacements in synthesis, sometimes taking longer routes to avoid regulated byproducts. In the early days, chlorinated solvents dominated; now, we partner with collaborators running closed-loop recovery, and invest in enzymatic catalysis to shrink hazardous waste at the source.
Waste minimization also shapes our sourcing practices. Selecting suppliers by both purity and proximity cuts down transport emissions, and trialing recycled packaging for bulk shipments has proven effective in markets not demanding traditional all-virgin polymer liners. Regular retraining reminds staff to avoid cross-contamination, ensuring even recovered solvents do not dampen final yield or bump trace impurity levels.
Every green upgrade starts slow—what pleases the bench chemist may not scale to a thousand-liter reactor without painstaking pilot work. Losses in yield, higher raw material cost, and process upsets are part of the adjustment. Still, we build in both cost and carbon footprint tracking with each campaign. Local utility incentives for on-site energy renovation guide us toward switching older lines onto LED and high-efficiency motors, which trickles down into margins and helps insulate the plant from global fuel price spikes.
No process or improvement proves its value until it holds up under real-world conditions. Too often, what works on paper doesn’t serve the practicality of downstream labs, production teams, or customers at the blending step. We pick up the phone, answer emails, and spend time listening rather than just pushing certificates and sales talk. A lab that flags a solubility quirk or an odor on opening a new drum gets the direct attention of both our technical and QA teams.
Problems often surface at points we had considered solved for years. One batch last year, delivered during a regional heat wave, exposed heat lability in storage that typical shelf-life studies didn’t catch. It led to an investigation and ultimately to reformulating packaging protocols for both export and domestic shipments. Without those customer conversations, such weak links would hide until they cause bigger failures.
Direct relationships with customer R&D teams produce improvement. Early access to their test results and application notes lets us tweak micronization settings so the product feeds faster into new reactors or meets stricter chromatographic analysis downstream. We treat those insights as a form of open-source engine for improvement, trading feedback for customization on the next run.
Commoditization always looms on the horizon for chemical producers. Lower-cost competitors appear overnight, eager to undercut by swapping in generic specs. Price can never be the only story for advanced intermediates like indolethane. What sets a manufacturer apart owes less to price tags and more to reliability, communication, and how rapidly we merge customer feedback into every round of process upgrades.
Busy buyers track both cost and risk. By offering locked-in supply contracts and transparent pricing escalators pegged to global feedstock trends, we offset volatility for regular partners. Volume discounts go hand in hand with standing inventory commitments, so users never go dark waiting for a slow boat or delayed run. That mix keeps us growing alongside our core user base, without chasing superficial volume spikes that strain quality control.
Every chemical, no matter how well characterized, deserves care in use and storage. Customers deserve more than a datasheet—they benefit from practical guidance, based on actual incidents and learning across thousands of coordinated shipments. Staff at formulation plants receive real case studies, ranging from storage precautions, to troubleshooting clouding in solution, to best cleaning practices for indole-based residues.
Operational safety training, anchored by real data and troubleshooting experience, brings peace of mind for buyers managing hazardous or sensitive products. Beyond compliance, we invest in staff education and customer updates, using lessons learned the hard way to prevent future incidents. Information sharing with safety officers and plant engineers pushes every batch a step closer to seamless, trouble-free end use.
Innovation in synthetic chemistry rarely follows a straight line. Each breakthrough in bioactive research, material science, or catalysis feeds back into what customers request and expect from base chemicals like indolethane. Dedicated continuous improvement, a mindset baked into every production batch, sets the foundation for meeting new specifications born out of partnerships and project-based collaboration.
Feedback loops extend beyond technical details. Evolving regulatory frameworks shift how we document, package, and label shipments. Market specifics—pharmaceutical, agricultural, flavor and fragrance—must shape how we validate processes and even pick raw suppliers. Certification schemes bear fruit only if backed by honest, traceable actions.
Each product leaving our doors reflects years of tight learning cycles: feedback, adjustment, investment, and trust. Indolethane, quietly enabling a spectrum of industries, proves time and again that steady, unglamorous diligence in chemical manufacturing never goes out of style. Our commitment to consistency, transparency, and listening must keep us moving forward as challenges and opportunities emerge with each new customer and technological advance.