|
HS Code |
523521 |
| Chemical Name | P-Methylaminoethanol Phenol Hydrochloride |
| Cas Number | 55-55-0 |
| Molecular Formula | C9H14ClNO2 |
| Molecular Weight | 203.67 g/mol |
| Appearance | White to off-white crystalline powder |
| Solubility | Soluble in water |
| Melting Point | 220-225°C (decomposes) |
| Storage Temperature | 2-8°C |
| Purity | Typically ≥98% |
| Synonyms | 4-(2-Hydroxyethylamino)-1-methylbenzene hydrochloride |
As an accredited P-Methylaminoethanol Phenol Hydrochloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Sealed amber glass bottle containing 100 grams of P-Methylaminoethanol Phenol Hydrochloride; labeled with safety data, batch number, CAS details. |
| Shipping | P-Methylaminoethanol Phenol Hydrochloride should be shipped in tightly sealed, chemically-resistant containers, protected from moisture and light. Use appropriate hazardous material labeling and follow all regulatory requirements for chemical transportation. Handle with care, ensuring secondary containment to prevent leaks or spills during transit. Suitable temperature control may be necessary to ensure product stability. |
| Storage | P-Methylaminoethanol Phenol Hydrochloride should be stored in a tightly sealed container, away from moisture and direct sunlight. Keep the storage area cool, dry, and well-ventilated, ideally between 2-8°C (refrigerated). Avoid contact with incompatible substances such as strong oxidizers. Clearly label the storage area, and restrict access to trained personnel. Always follow appropriate safety and regulatory guidelines. |
Competitive P-Methylaminoethanol Phenol Hydrochloride prices that fit your budget—flexible terms and customized quotes for every order.
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Every gram of P-Methylaminoethanol Phenol Hydrochloride we put out has passed through more than machines; it reflects years of refining, troubleshooting, and direct feedback from customers who demand both quality and adaptability. This compound, recognized among research and industrial users—often by its internal code CAS—finds a place in labs and plants seeking a reliable combination of phenolic and amine functionalities. As a chemical manufacturer, our perspective on this product comes from what we see at the reactor vessel, the purification column, and our own daily analysis checks.
Making P-Methylaminoethanol Phenol Hydrochloride starts with a base layer of methylaminoethanol, merging it with a phenolic ring. This backbone offers both reactivity and stability. Adding hydrochloric acid in a controlled setting completes the process, forming the hydrochloride salt. This transformation offers a stable and crystalline final product that resists degradation during storage and transport — a huge point for any customer managing inventory over time.
We control temperatures and reaction rates in real time, because each fluctuation can influence side reactions. Our lines rely on both batch records and experience: pay attention during acid addition, keep water content low, and avoid introducing contaminants from previous runs. Even the cleaning steps between cycles matter, as residues or dust from other productions can affect yield and purity. The seasoned operators know by sight and smell if a reaction’s gone off-track, and the analytic team confirms it with checks on melting point, NMR, and water content.
Our main offering comes as a fine, white to off-white crystalline powder. Particle size stays within a defined range — neither too coarse, which would hinder dissolving, nor too fine, which can lead to dust and handling loss. Purity, based on HPLC measurement, stays above 99%, typically close to 99.5% after drying and sieving. Loss on drying also stays within minimal levels, preventing product clumping and supporting consistency from batch to batch.
We maintain batch records not just for compliance but as a diagnostic tool. Batch-to-batch performance lets us compare how operator technique, small changes in solvent, or changes in the source of raw materials impact product consistency. Tracking these trends informs when to tweak purification protocols—and it keeps our customers’ results more predictable.
Most of the users we talk to work in fine organic synthesis, specialty intermediates, or dye and pigment manufacture. Some find the compound’s dual function—both base and phenol—fit where others do not, especially in multi-step syntheses needing site-selective reactivity. The aminoethanol group increases solubility in polar media, letting researchers work at moderate temperatures and avoid stubborn emulsion phases. Many appreciate the hydrochloride form for easy handling and stability over the free base, which can absorb CO2 from air or change color with time.
Sometimes, requests come in for variants. We make the base form for certain needs, but most prefer the hydrochloride for shelf-life and ease of storage. We tried offering a spray-dried granule, thinking it would solve caking problems some customers mentioned, but feedback soon showed that the standard powder dissolved faster and kept clean analytical profiles, so we listened and adjusted. Some customers run reactions sensitive to trace metals or organics, so our scaling teams now take extra care in the downstream filtration and final wash steps.
We have seen a lot of similar names in this area, but not all compounds that sound alike on paper behave the same in practice. Some other manufacturers choose cheaper feedstocks or skip steps when the market gets tight, resulting in more variable material. Our QC team measures more than just final assay—we check for related phenolic byproducts and leftover amine. Even a tenth of a percent higher impurity can poison a sensitive catalytic step for our most demanding clients.
Color can also tell a story. Slight yellowing, often from oxidation that takes place in transit, signals improper sealing or exposure to light. With our process, an airtight pack with UV-safe film keeps the integrity of each delivered kilogram. Feedback from partners who tried another supplier and got unexpected hues, even when assay seemed passable, proved that appearance and performance often go hand in hand—never just a matter of cosmetics.
Some variants from traders might look similar but have inconsistent powder structure, making weighing difficult or causing small but traceable losses from static. Our approach puts attention on not just purity, but also tactile and operational aspects—details often ignored when the only concern is short-term sales. Our experience has shown, time and again, that the seemingly minor differences in standard deviation and moisture content matter more in real formulation work than any target number advertised on a digital spec sheet.
Demand for this product grows and ebbs alongside trends in custom synthesis, new molecule discovery, and even regulations controlling intermediate shipment. A few years ago, supply chain shocks highlighted the weaknesses in global sourcing, and some customers turned to brokers who didn’t understand the technical requirements. We spoke directly to users who lost time in scale-up because of micron-sized contaminants or color drift. Our team keeps open lines of communication with these clients, making it simple to get technical troubleshooting or confirm suitability for a given project.
Every year we receive more inquiries about compliance. Large partners send in qualification teams, run audits, and request traceability right down to the origins of our phenol supply. We grew our own compliance unit—each operator now logs raw material lot numbers, and the plant follows an internal recall protocol. We know records alone do not make a safe product. But combining attentive qualification with people who understand both the chemistry and the market keeps us competitive, even as regulatory demands multiply.
Making and handling P-Methylaminoethanol Phenol Hydrochloride brings several on-the-ground challenges. Residual solvent, even at a fraction of a percent, will cause issues downstream—whether gumming up fine filtration or leaving trace byproducts in the final use. Some operators have tried aggressive drying with high heat, but that risks partial decomposition. Careful temperature ramping and vacuum levels allow us to hit a consistent moisture target. These steps add hours, but result in powder that packs, dissolves, and stores the way our customers expect.
Odor is another real-world challenge. Amine traces from incomplete purification give off sharp, fishy notes that persist in poorly controlled production runs. Proper washing, as well as the use of chilled water at certain stages, goes a long way. End-users notice, even when the compound’s main function remains unaffected, so we stick to slow purification even when in a hurry. This commitment means our material won’t set off alarms in a tightly controlled process area or laboratory.
We’ve dealt with packaging failures that would never make headline news—badly sealed liners, or sacks that don’t block enough moisture on long ocean voyages. Even small losses in transport can turn a guaranteed 99.5% sample into something our labs can’t vouch for. Our shipping team updates packaging protocols with real-user feedback, not just vendor advice. Over several cycles, switching from basic PE liners to custom multi-layer films made all the difference in arrival quality, even with longer distribution routes.
Direct communication with users changes our approach to manufacturing. A few years back, a research team reached out with complaints about uneven solubility. We investigated and found out that one granulation step introduced micro-agglomerates, making solution preparation less efficient. This direct feedback prompted a change in sieve mesh size and altered final drying conditions.
In another instance, we worked with a partner developing enzyme-based catalysis who flagged rare, trace color shifts post-reaction. After extensive checks, our production team tweaked the final pre-packing filtration, swapping out a generic filtration medium for a high-purity variant. These kinds of changes rarely show up as printed data points but make the difference in sensitive and reproducible workflows.
Good chemistry manufacturing evolves with experience, feedback, and what happens outside the controlled environment. Existing as both process engineer and support, we bridge what synthesis demands and what practical operation reveals. Early failures—whether from unanticipated stability issues, user handling hiccups, or unexpected uses—drive us to iterate product preparation, documentation, and shipment standards.
We now dedicate part of production capacity to small-batch samples, so niche clients can test in real scenarios before making large orders. Adjustments in hardness or sieve range, or even minor tweaks in packaging, happen based on concrete reports from the field. In a landscape filled with claims of “pharmaceutical grade” or “premium quality,” we let client returns, usage cases, and repeat orders shape continuous improvement.
Looking back on the life cycle of this product, its value is measured by the results it drives. Fine-tuned characteristics—high purity, low contaminant load, steady powder structure—set our batches apart, not only in a lab catalog but in the operational trenches. We developed our hydrocholoride offering with hands-on input: the solvent choice, filtration medium, and bulk packaging format arose not from boardroom mandates, but from partnerships and field failures.
As demand tracks advances in chemical research, synthesis technology, and regulatory scrutiny, our own practices must adapt. Transparency in traceability, proactive feedback channels, and openness to process evolution mark the difference between generic output and a compound that researchers and operators can count on day in and day out. Everyone on our line—from chemist to shipper—sees every batch as a snapshot of what attentive, experience-driven production can create.
In every kilogram of P-Methylaminoethanol Phenol Hydrochloride, there’s a record of choices made at each step. Technical literature will always outline “why” the molecule matters, but real-world advantage shows up only when every link in the chain—sourcing, reaction, purification, packaging, customer support—receives full attention. Trying to simplify manufacturing to a formula ignores the day-to-day surprises that define this industry.
We’ll keep refining our approach, not just because of peer pressure, but because real feedback from the floor, the bench, and every operator—on either side of the supply chain—proves what makes a better product. As other players shift, cut corners, or sell what won’t fit their main lines, we stick to a dialogue rooted in shared need, transparent adjustment, and respect for the real work behind every order.
In this field, the difference between acceptable and exceptional goes beyond charted assay or process descriptions. Reliable products come from steady routines as much as from measured improvements. Those who make purchasing or operational choices every day deserve to know not only what makes a product different, but which partners stand behind each decision with transparency and readiness to learn. P-Methylaminoethanol Phenol Hydrochloride, as we create it, shows how industry, chemistry, and customer connection blend into something more than a mere commodity.