|
HS Code |
475824 |
| Iupac Name | 2-[(1R)-1-aminoethyl]phenol |
| Molecular Formula | C8H11NO |
| Molecular Weight | 137.18 g/mol |
| Cas Number | 3964-52-1 |
| Appearance | White to pale yellow solid |
| Boiling Point | 285-287 °C |
| Melting Point | 49-52 °C |
| Density | 1.13 g/cm3 |
| Solubility In Water | Slightly soluble |
| Smiles | CC(N)C1=CC=CC=C1O |
As an accredited Phenol, 2-[(1R)-1-Aminoethyl]- factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The chemical is packaged in a 25-gram amber glass bottle with a secure screw cap, clearly labeled with hazard and handling information. |
| Shipping | Phenol, 2-[(1R)-1-Aminoethyl-] should be shipped in tightly sealed, chemically compatible containers. Store and transport at controlled room temperature, away from heat, moisture, and incompatible substances. Package and label according to applicable hazardous materials regulations (e.g., DOT, IATA, IMDG), as it may be classified as a corrosive and/or toxic chemical. |
| Storage | Phenol, 2-[(1R)-1-Aminoethyl]- should be stored in a tightly sealed container, away from light, moisture, and incompatible substances such as strong oxidizers and acids. Keep it in a cool, dry, and well-ventilated area, preferably under inert atmosphere if possible. Store it at room temperature to prevent degradation, and ensure proper labeling and containment to avoid spills or accidental exposure. |
Competitive Phenol, 2-[(1R)-1-Aminoethyl]- prices that fit your budget—flexible terms and customized quotes for every order.
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Every day, our teams walk through the whir of reactors, meters tracking temperature and pressure, and the crisp smell of freshly distilled product. As a manufacturer who has spent years refining the process for Phenol, 2-[(1R)-1-Aminoethyl]-, we understand the responsibility that comes with ensuring both consistency and reliability. In our journey, we have come to appreciate the careful orchestration of reagents, the strict monitoring of optical purity, and the importance of robust safety practices in handling phenolic compounds mixed with chiral amines.
Through the constant adjustment of process parameters, vigilant hands-on monitoring, and careful selection of raw materials, we’ve built processes tailored for both research and production-scale synthesis. Our process engineers have traded ideas across lab benches, adjusting enantiomeric ratios and checking chromatograms, until we reached the optimal setpoints for each batch. Working at the manufacturing scale means not just aiming for theoretical yields, but wringing every bit of potential from reaction vessels, all while respecting the reactivity of the starting phenol and the delicate stereochemistry involved in introducing that (R)-1-aminoethyl group.
The compound we produce, known as Phenol, 2-[(1R)-1-Aminoethyl]-, brings together a phenolic backbone and a chiral aminoethyl substituent. Over the years, our customers have come to expect tight controls on optical rotation, color, moisture, and residual solvents. Regular feedback from our QC team ensures that batches meet the standards we set after countless analytical runs. Most of our shipments reach researchers and formulators who perform their own GC or HPLC, and they’ve told us they appreciate when they open a drum and the material matches expectations every time. In our plants, we reject anything that shows signs of racemization, unexpected by-products, or discoloration.
From batch to batch, the chemical and stereochemical purity reflects both a set of robust methods and a crew of experienced staff. Within these walls, even slight deviations in the retention time or unknown peaks in a chromatogram get immediate attention. Over the years, we have standardized the use of inert atmosphere, rigorous temperature control, and immediate packaging to minimize the risk of oxidation or degradation. We don’t rest until the melting point, specific rotation, and elemental composition align with our reference materials.
Our material goes into a surprising array of research and production lines, and hearing back from customers has shaped how we run our processes. The pharmaceutical world relies on this compound as a building block; medicinal chemists use it to construct more complex chiral molecules. We know chemists look for specific enantiopure forms because small changes in stereochemistry can mean the difference between a breakthrough drug candidate and a failed trial. Some of our customers shared how even small contamination with the wrong enantiomer can set a project back by months. Because our team understands these consequences, we place a premium on chiral control and documentation.
Beyond drug discovery, we see orders from agrochemical labs. The compound's structure allows for the attachment of various functional groups, making it a popular intermediate in the synthesis of biologically active molecules. Our production runs have met urgent demands for pilot plant batches when time-sensitive field tests required fast turnaround. Early in our experience, a formulation team faced issues with an unstable intermediate, so we worked overtime, adjusted our purification steps, and delivered a purer product that solved their downstream crystallization problems.
In recent years, the demand from custom synthesis projects has picked up. Researchers attempting to design new materials, catalysts, or specialty polymers have approached us for tailored lots. Each new application seems to remind our crew of the compound's versatility and the important role it plays in enabling innovation.
Companies offering this compound as a re-pack or under another label may claim similar purity or specification. From the factory floor, there are differences you can’t see on a data sheet. We’ve learned that holding control at the source—from raw materials, through reaction, to isolation—makes for material that behaves reproducibly, especially during scale-up. We don’t blend lots from different sources; we avoid solvents that could introduce trace contaminants during work-up; we verify chirality in-house rather than relying solely on documentation from a supplier upstream. These choices come from decades spent troubleshooting what can go wrong from the reactor to the customer’s flask.
Our team has revisited reaction parameters and solvent selection to avoid trace impurities—especially those that can hang around during amine introduction or phenol alkylation steps. Recently, we invested in improved drying and inert gas purging systems to limit moisture pickup, further reducing variability batch to batch. Other sources might not have the means or motivation to go that extra step, since traders or re-packers rarely see the problems that arise when a batch fails during a late-stage synthesis. By controlling the whole chain, we’ve cut down on customer complaints and built a feedback loop from delivery all the way back to the raw material stock.
There’s no substitute for hands-on experience with the real material. Over the years, we’ve seen issues where minor exposure to oxygen or light can change the nature of this phenolic amine. Small things add up: a day sitting in an open drum has led to customers reporting yellowing; moisture intrusion that is invisible at first can show up as cloudiness or affect filtration downstream. We field calls from clients troubleshooting reactions or formulation steps, and often the answer comes from something as straightforward as storage temperature or inner packaging.
We’ve learned not to compromise on packaging. Material leaves our site in sealed units with low permeability liners and, depending on customer requirements, under inert gas or vacuum-seal. Small touches like this come from years of seeing what works and what leads to headaches in the lab. As a manufacturer, every returned shipment or customer call is a learning opportunity—one that pushes us to find small improvements, whether in drum design, lot tracking, or transportation temperature management. These lessons are not always visible in marketing materials, but they show up in the way our batches perform from first gram to last.
In manufacturing, technical challenges become real fast. We once ran into trouble when a supply disruption led us to test a new source of starting phenol. Chromatograms told the story: trace impurities led to product discoloration and filtration headaches. Rather than try to fix the problem downstream, our plant switched back to the proven supply chain and tossed the off-grade batch. That episode reinforced the value of control: consistent, reliable inputs, and the willingness to walk away from problematic lots, matter more than chasing a lower purchase price.
Scaling up from glassware to stainless steel sometimes uncovers quirks that textbooks ignore. Thermal gradients or insolvency at large scale can lead to local overheating, by-products, or stuck filters. Each batch teaches our engineering crew something new; sometimes we must rework our reactor design, sometimes we need to call in our most experienced technician to spot issues that only show up at ton scale. By putting experienced eyes on each run, we avoid surprises and help our customers get material that matches expectations with every shipment.
Improvement never stops. Over time, small tweaks—tightening temperature bands, adjusting inert purge times, upgrading analytical instrumentation—lead to less waste, cleaner product, and easier customer handling. We do not rely on data sheets alone; in our business, feedback from users and our own batch tracking records drive continual process upgrades. These changes aren’t always visible outside the plant, but our repeat buyers have noticed: fewer late shipments, better color consistency, more predictable performance in their chemical syntheses.
Running a chemical plant requires more than chemistry know-how. Our crew spent weeks working through new documentation for customs authorities after shipping restrictions shifted. Regulatory changes often hit hardest at the manufacturer: new handling guidelines, hazard classifications, labeling mandates. Years ago, one of our shipments was stalled because of ambiguous labeling. We spent late nights updating MSDS, revising transit paperwork, and retraining our packing team. Regular audits, from both local and international authorities, keep us on our toes. Experience with these requirements means our paperwork matches not only customer expectations but also the realities of what works in transit and at customs.
Safety underpins every decision in our plant. Technicians receive hands-on training for safe handling of both reagents and final product. Spills, leaks, or improper storage don’t just threaten compliance but cause real losses. We have seen how small lapses—a loose drum seal or a missed temperature check—can lead to larger problems downstream. Today, our safety protocols reflect years of these lessons: thorough maintenance, well-labeled containers, redundant checks, and routine emergency drills. Clients turning to us for long-term supply count on this track record, since a single incident can cripple a supply chain.
One of the most satisfying developments in recent years has been working with research teams on custom syntheses and novel applications. We don’t just supply material and walk away; our technical crew often ends up consulting with clients struggling to troubleshoot scale-up issues or unexpected side reactions. Sometimes a group is chasing a new scaffold and our technical history—on solubility, byproduct profiles, or downstream stability—makes all the difference. These projects have led us into applications none of us foresaw at the outset, expanding not just our production know-how but the scientific community’s toolbox for new discoveries.
For clients focused on regulated markets, strict traceability and documentation play as much a role as any chemical parameter. We’ve established internal batch records and chain-of-custody practices, learning from every client audit or regulatory visit. By staying close to both the lab and the paperwork, we help customers reduce risks and speed up their project timelines.
Large pharmaceutical firms and small academic labs both put this compound to work. Large runs call for consistency and predictable performance; small lots go to bespoke discovery projects, where every gram counts and information is king. We know these users depend not just on a bottle of chemical, but on the ability to reach someone in production when a question comes up—whether it’s about shelf life, compatibility with a new reagent, or expedited delivery for an urgent screen.
Our team maintains lot records, analytical data, and storage information from first to last container—ensuring confidence in every order, from kilograms to tons. We recently worked with a start-up biotech who needed to pivot their synthetic route in the final stages, and our technical lead offered a stability profile and additional GC data to speed up their timeline. This kind of support comes from direct experience with the molecule itself, not from a broad generic portfolio.
Unlike layered distributors or companies that rely on just-in-time purchasing, on-site manufacturing lets us check every detail: raw material origins, in-process controls, and final product analysis. Our clients receive the benefit of this direct oversight—less risk around impurity carryover, better transparency, and an open channel for technical questions. Each challenge we’ve faced as a factory has sharpened our approach and deepened our understanding of what end-users need, both in research and production.
Our batch records contain more than numbers—they reflect the history of each drum, the attention to process control, and the feedback loop with those who use our chemical. After countless batches, after handling every question from cold chain requirements to filtration quirks, we’ve become more than a source for a single type of compound. We have become reliable partners for those who care about the details, down to molecular chirality and packaging integrity.
Looking ahead, our role as manufacturer isn’t standing still. We continue to adapt our procedures as industry expectations shift for sustainability, green chemistry, and traceability. Some of our newest initiatives reflect requests from our customer base: reducing residual solvent content, adopting greener solvents in production, and minimizing waste streams without compromising purity. In some cases, clients have pushed us to explore continuous flow methods to increase consistency and accelerate delivery times.
We keep investing in training, instrumentation upgrades, and storage improvements to ensure that Phenol, 2-[(1R)-1-Aminoethyl]- arriving at your door meets the standards we’ve developed through years of hands-on production. Our quality systems are not fixed statutes handed down from above; they live and adapt with every challenge, every feedback call, and every innovation on the plant floor.
Clients who work with us know that the difference shows up in the details: a batch that saves hours of troubleshooting, packaging that prevents contamination, and the willingness to help solve real-world problems. Our experience as a manufacturer means we offer more than a line item in a catalog. We bring a living history of lessons learned, and an ongoing commitment to quality and partnership, with each shipment of Phenol, 2-[(1R)-1-Aminoethyl]- that leaves our site.