|
HS Code |
832323 |
| Chemical Name | P-(1-Piperazinyl)Phenol |
| Molecular Formula | C10H14N2O |
| Molecular Weight | 178.23 g/mol |
| Cas Number | 2403-89-6 |
| Appearance | White to off-white solid |
| Melting Point | 123-125°C |
| Solubility | Soluble in water, ethanol, and dimethyl sulfoxide (DMSO) |
| Density | 1.14 g/cm³ (estimated) |
| Pka | Approximately 9.8 (phenolic group) |
| Structure | Phenol ring para-substituted with a 1-piperazinyl group |
| Synonyms | 4-(1-Piperazinyl)phenol, 1-(4-Hydroxyphenyl)piperazine |
| Storage Conditions | Store in a cool, dry place, tightly closed, protected from light |
| Hazard Codes | May cause irritation to eyes, skin, and respiratory tract |
As an accredited P-(1-Piperazinyl)Phenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 100g P-(1-Piperazinyl)Phenol is packaged in a tightly sealed amber glass bottle with tamper-evident cap for safety. |
| Shipping | **Shipping Description:** P-(1-Piperazinyl)Phenol is shipped in secure, tightly sealed containers to prevent moisture uptake and contamination. It should be labeled with appropriate hazard warnings. The chemical must be handled by trained personnel, stored upright in cool, dry conditions, and conform to all applicable local, national, and international transport regulations. |
| Storage | Store **P-(1-Piperazinyl)phenol** in a tightly sealed container, in a cool, dry, and well-ventilated area away from incompatible substances such as strong oxidizers and acids. Protect from moisture and direct sunlight. Ensure easy access to spill cleanup materials and appropriate ventilation to avoid dust or vapor buildup. Label the container clearly and restrict storage to designated chemical storage areas. |
Competitive P-(1-Piperazinyl)Phenol prices that fit your budget—flexible terms and customized quotes for every order.
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In the thick of daily chemical production, materials like P-(1-Piperazinyl)Phenol stand out through their real-world reliability. Years back, before we settled on our current production protocol, we faced days where small inconsistencies in purity shook up entire downstream processes for our partners. Ordering batch after batch from third parties taught us a lot—without rigorous control on reaction steps and drying, yellow tint or residual amine odors would cause complaints from formulation chemists. Once we built our own reaction line for this compound, we found the best way to keep the end product clean was by keeping process conditions steady, solvents fresh, and purification cycles strict.
You don’t notice the real differences until you start running reactions yourself. Some phenol derivatives suffer stability loss or contamination if the raw materials aren’t tracked. We source high-purity piperazine and hydroquinone, control our temperatures precisely, and clean our glassware with extreme care between cycles. Over time, we found that a dedicated crystallization stage shaves off most trace byproduct. What comes out: pale, free-flowing P-(1-Piperazinyl)Phenol, consistent lot to lot, that behaves predictably whether it’s sitting in a drum or loaded for transfer. Chemists who work with our product notice improved batch-to-batch yield in their syntheses, without surprises from stray contaminants. That’s the kind of trust you only earn from years spent trapping impurities before the product makes it into a drum.
Our model specification didn’t just come out of thin air. It started from trial and error, and the lessons really landed the day we lost an entire customer’s API crystallization because of a small off-odor. Since then, our minimum purity sits above 99%, controlled by real spectra from both NMR and HPLC. Water content can’t creep up—it’s measured in real time at the end of every batch, often coming in below 0.1%. We pack each drum under dry nitrogen. There’s no guesswork about melting points or appearance; what we ship has been inspected under bright lights, checked for granulation, and sealed immediately after transfer. It takes more effort to keep solvents fresh and reactors thoroughly cleaned, but we know what’s at stake downstream.
Every month, we watch the bulk of our P-(1-Piperazinyl)Phenol head to custom pharma syntheses, resin intermediates, and specialty polymers. When our partners call back excited over a clean reaction profile, it feels less like selling chemicals and more like a shared success. We’ve walked the production halls at contract manufacturers who use our product—every operator wants steady feeding and no gassing. We grind and sieve to a specific particle range, not just for flow, but because we’ve stood next to operators shoveling material into kettles. Handling properties rank as high as analytical purity; nobody wants a hard-caked block inside a bag. Smooth powder lets teams measure out doses easily, with little loss and no dust floating in the air.
In multi-step synthesis, our product often acts as a hinge—it's both a building block and a functional intermediate. With each batch, chemists rely on its predictable substitution patterns when introducing nucleophiles. You might see other grades in the market, but many leave trace halides, secondary amines, or stuck-on solvents lingering, which can cloud downstream purity or slow recrystallization. Over the years, we’ve adjusted our work-up to tackle specific side reactions, shortening filtration times and minimizing byproduct carryover. Callbacks for unexpected TLC spots dropped after we introduced a final wash specifically designed to remove stubborn trace residues.
Some folks look at phenol derivatives like they’re interchangeable. There’s a huge difference between lab-scale glassware prep and what comes out of a 1,000-liter reactor. Standard piperazinyl phenols, if made without close control, carry ghost impurities—unreacted anilines and trace oxidants that can snowball in downstream use. Years ago, we traced an unexplained color change in a partner’s pilot batch to a batch with incomplete drying. This stuff clouds solvents and knocks down the yield of the final step. It only takes one bad run to lose trust, so we added in-line drying and gas sweep stages. Our in-house samples consistently outperform commercial, third-party product in both solubility and low-residue performance when loaded into heat-sensitive kettles—a critical factor for customers pursuing high-value API intermediates or polymer resins.
Material safety and cleanliness matter to everyone on the line. At our facility, you’ll see every shift leader running hands across conveyor seals and tapping bins for caking before the next fill. We learned early that temperature spikes during drying could scorch the product, so gentle air sweep and careful control of jacket heat protects the structure and keeps browning out of the final batch. Packing line operators wear particle-free gloves, and management enforces spot checks. No unlabelled containers or cross-contamination—everything’s logged from reactor to packing shed. For P-(1-Piperazinyl)Phenol, we found that specific drum linings prevent static buildup, so the bags don’t cling or shed dust. This reduces risk, keeps work areas cleaner, and prevents slow leaks from open bags.
Some of our longest-standing partners started with just a few kilos. Over the years, we’ve watched start-up specialty chemical teams grow to handle ton-unit orders because their new chemistry worked at every scale-up. Reliable performance from raw materials like P-(1-Piperazinyl)Phenol keeps their lines running smoothly, minimizing waste and saving steps in purification. Not every process turns out as originally planned—surprises come up as projects move from pilot scale to full production. By keeping our material free of common extraneous residues, we help teams sidestep hiccups that would require repeated washing, extra solvent steps, or yield-killing filter runs.
We don’t just listen to customers on paper. In-person audits and bench-top trials have always taught us more. One project manager told us how trimming batch handling time by even a few minutes per load—thanks to a smoother, drier product—added months of productive hours over the course of their project. That kind of impact isn’t just theory; it comes from teams who use this material day and night under tight deadlines. Every year, we host feedback sessions, and every real issue—batch caking, slow dissolution, tracing unexpected spots—turns into an action plan for our production and QC team. Over the long haul, trust grows not from the certificate of analysis alone, but from quiet confidence that the material you’re tipping into a reactor is the same as what came before.
Pharmaceutical and specialty resin users often have strict requirements for registration and audits. Each piece of documentation we provide—MSDS, spectral data, impurity profiles—comes from real results recorded under audit-ready protocols. When regulations shift or new customer standards come into play, we adjust our documentation method, set up tighter chain-of-custody logs, or increase sampling frequency. This extra work pays off when our customers pass their audits without delays, or when regulators walk through and find every batch tracked down to the reactor log and drum number. Our technical and regulatory team remains alert to both domestic and international updates, ready to provide supporting data or run additional validations if a customer project requires it.
Every competitor says their material’s “high-purity” or “high-consistency.” In reality, these claims lose their weight if you’re not standing at the filters, sweating over fine powders, or dealing with resins that refuse to set because one impurity slipped through. Back in our early days, we struggled with aging reactors prone to hot spots, which scorched product on a few unlucky runs. We replaced them with uniform-jacketed kettles and digital temperature feedback. Yields rose, impurity rework dropped, and mornings became less stressful for the whole shop. This investment means our current batches avoid the yellowing and off-smell that marks some cheaper alternatives. In the end, you can measure the difference by watching how little time goes to waste on reprocessing or customer returns—time many users don’t know they’re losing with lesser suppliers.
The best ideas come from the toughest customers. A few years back, one major client switched formulations and needed a P-(1-Piperazinyl)Phenol variant with even lower residual solvent. We re-examined our purification steps, ran several test batches, and after some missteps—including a batch that initially stuck to drying pans—we achieved the target. That version now stands as a benchmark for particularly sensitive pharma projects, and our tech team keeps those learnings in mind for every batch. These partnerships push us to keep improvement ongoing, not just for marketing but because it means fewer headaches and better reliability all around.
From decades on the manufacturing side, a few truths become clear. Pure starting materials save more money in the end than hunting for the cheapest drum and hoping the next batch will measure up. Small amounts of trace impurity—under 0.5%—might not show up in lab-scale pilot runs, but can wallop an industrial kettle with off-colors, unexpected pressure, or filter fouling. Close relationship with the raw material provider means issues get solved with urgency, and open feedback loops keep quality high.
We recommend users request real-time batch analytics and match technical support to your scale and sensitivity. If your process changes, let us know early—sometimes a minor tweak in granule size or dryness on our end saves you hours in the plant.
The more a chemical gets used as a “standard,” the easier it is to miss hidden variables in quality or performance. Every batch we send out represents thousands of iterative adjustments—error logs kept, shift team troubleshooting, weeknight hours spent re-running spectral analysis. Most suppliers don’t talk about the times their product failed or the batches they scrapped before getting the method right. We own up to our challenges because these lessons make our P-(1-Piperazinyl)Phenol what it is today—a reliable, reproducible material for mission-critical synthesis.
We have seen the smallest tweaks in drying method or solvent switch ripple through ton-scale campaigns for our partners, sometimes swinging yields by several percent on back-end steps. End-users running multi-step pharmaceuticals or high-precision resins can't afford mystery residues or unreliable solvation behavior. That’s why we invest in both people and process, not just the specs printed on a product sheet.
New applications keep surfacing for piperazinyl phenols—whether in advanced polymers, targeted therapeutic intermediates, or specialty industrial formulations. Every request for a new adaptation, tougher impurity control, or special handling gets a thorough review in our process and R&D team meetings. We field calls from both industrial chemists and academic researchers chasing next-generation applications, and we treat every suggestion or complaint as a prompt for process tune-up.
As manufacturing expectations rise worldwide, traceability, purity, handling, and real support will matter even more. As long as we keep producing P-(1-Piperazinyl)Phenol, we promise to keep learning, keep our doors and logs open for review, and continue to let hands-on results shape what comes off the line. The trust built from daily care, close attention, and learning from failure turns simple chemicals into something far more valuable: assurance that what you order meets your expectations at scale every single time.