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4'-Piperidinoacetophenone

    • Product Name 4'-Piperidinoacetophenone
    • Einecs 215-964-7
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    860004

    Iupac Name 1-[4-(Piperidin-1-yl)phenyl]ethan-1-one
    Cas Number 2201-34-5
    Molecular Formula C13H17NO
    Molecular Weight 203.28 g/mol
    Appearance White to off-white crystalline powder
    Melting Point 85-87°C
    Boiling Point 356.7°C at 760 mmHg
    Solubility Slightly soluble in water; soluble in organic solvents
    Density 1.09 g/cm³
    Smiles CC(=O)C1=CC=C(C=C1)N2CCCCC2
    Pubchem Cid 126667
    Inchi InChI=1S/C13H17NO/c1-11(15)12-4-6-13(7-5-12)14-8-2-3-9-14/h4-7H,2-3,8-10H2,1H3

    As an accredited 4'-Piperidinoacetophenone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing A 25g amber glass bottle, tightly sealed with a screw cap, labeled "4'-Piperidinoacetophenone" and safety information clearly displayed.
    Shipping 4'-Piperidinoacetophenone is shipped in tightly sealed, chemical-resistant containers under cool, dry conditions. Shipments comply with international transport regulations, including proper labeling and documentation. The package is protected to prevent breakage, moisture, and contamination, and handled by authorized personnel trained in chemical safety procedures. Transport may require hazardous materials declaration if applicable.
    Storage 4'-Piperidinoacetophenone should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances, such as strong oxidizing agents. Keep it protected from moisture and direct sunlight. Ensure proper chemical labeling and restrict access to authorized personnel only. Follow all relevant safety protocols and local regulations for chemical storage.
    Application of 4'-Piperidinoacetophenone

    Applications of 4'-Piperidinoacetophenone in Industrial Manufacturing

    As the original manufacturer, we support global customers across regulated B2B channels with 4'-Piperidinoacetophenone through established industrial supply chains. We prioritize industry-accepted downstream applications, providing product technicality and compliance rooted in real-world factory usage. The following scenarios outline specific segments that consistently incorporate this material into their regulated synthesis and production environments.

    1. Pharmaceutical Intermediate for Piperidine-Based APIs

    In the pharmaceutical industry, this substance functions as a core intermediate in synthesizing piperidine-derived active compounds, particularly for certain central nervous system (CNS) products and antipsychotics. Plant engineers typically incorporate it during the multi-step organic synthesis of target molecules, where its structural motif enables critical coupling and functionalization stages. We work closely with GMP-compliant pharmaceutical producers to ensure upstream material traceability and adherence to stringent batch homogeneity during scale-up.

    Industry compliance standards

    • ICH Q7: Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • EU GMP Directive 2003/94/EC
    • 21 CFR Part 211 (US cGMP for Finished Pharmaceuticals)
    • Ph. Eur. and USP monographs for related intermediates (as applicable to the API route)

    Typical usage ratio

    • Engaged at 0.2–0.5 molar equivalent relative to the anticipated API output, with exact charge calculated based on route stoichiometry, impurity threshold, and downstream purification needs.

    Downstream process integration

    • Charged in closed reactor during key condensation or reductive amination steps. Integrated after raw material dissolution, under inert atmosphere and temperature-controlled conditions, with in-process controls verifying conversion to next intermediate prior to workup.

    Final product types

    • Piperidine-class CNS drug intermediates
    • Antipsychotic bulk APIs
    • Fine chemical intermediates for pharmaceutical use

    2. Chemical Synthesis Intermediate for Agrochemical Formulations

    Agrochemical manufacturers use this molecule as a key building block in constructing complex piperidinyl-based crop protection agents. Its acetophenone-protected scaffold enables highly selective ring modifications and subsequent functionalization, supporting the synthesis of certain new-generation herbicides and insecticides. Downstream plants rely on closely controlled loading to avoid off-target reactivity and maintain product purity throughout the multi-step process.

    Industry compliance standards

    • FAO/WHO Specifications and Evaluations for Agricultural Pesticides
    • ISO 9001:2015 Quality Management Systems
    • Globally Harmonized System (GHS) for chemical labeling and exposure
    • REACH Regulation (EC) No 1907/2006 Annexes for precursor tracking

    Typical usage ratio

    • Standard practice requires 8–12% w/w relative to target active molecule mass, though optimization according to desired final yield, crop specificity, and backend step scaling is necessary per formulation campaign.

    Downstream process integration

    • Metered into the main reaction vessel during initial condensation or cyclization stages, followed by staged addition of alkylating agents and oxidizers under batch or semi-continuous mode, with all process validation under ISO QMS audit trails.

    Final product types

    • Piperidine-derived insecticide bulk actives
    • Herbicide intermediate compounds
    • Pre-formulation agrochemical bases for further mixing

    3. Industrial Fine Chemical Synthesis for Specialty Polymers

    Chemical plants specializing in high-performance polymers use this raw material as a piperidinyl-acetophenone modifier for post-polymerization crosslinking. Its functional groups enable targeted incorporation into aromatic polymer chains through Friedel-Crafts or other electrophilic addition protocols, resulting in higher heat resistance or unique solubility for specific engineering plastics. Quality teams monitor loading to avoid batch variability, and supply is fully traceable for downstream audits.

    Industry compliance standards

    • ISO 14001:2015 Environmental Management Systems
    • REACH Annex XVII for chemical substance restrictions
    • EN 10204:2004 material certification for specialty chemical input
    • Customer-specific technical data sheet (TDS) validation

    Typical usage ratio

    • Usually added at 3–7% w/w based on polymer resin input mass; precise percentage subject to desired molecular weight control and final mechanical property targets.

    Downstream process integration

    • Incorporated into the reactor during early-stage polymer resin preparation or as a post-polymerization chain modulator, typically following solvent exchange and catalyst introduction. Polymer batches undergo QC verification to confirm uniform functionalization.

    Final product types

    • Heat-resistant aromatic engineering plastics
    • Specialty additives for polymer blends
    • Finished polymer masterbatches with enhanced attributes

    4. Precursor for Industrial Laboratory Reagents

    Commercial laboratory consumable manufacturers engage this compound as a structural precursor for synthesizing piperidine-based analytical reagents. These specialty reagents play a role in advanced chromatography columns and derivatizing agents for research, where consistency of source and compliance documentation drive purchasing decisions among certified labs and OEM suppliers. Traceability at the batch and substance level is central for downstream regulatory and quality records.

    Industry compliance standards

    • ISO 17034:2016 General requirements for the competence of reference material producers
    • Certificates of Analysis (CoA) conforming to ISO/IEC 17025 testing
    • OECD Good Laboratory Practice (GLP) principles
    • Material Safety Data Sheet (MSDS) compliance for supply chain handover

    Typical usage ratio

    • Used as a primary reactant at 5–15% initial batch charge, with adjustment for scale, targeted purity levels, and specific reagent structural requirements per batch protocol.

    Downstream process integration

    • Charged directly in glass or stainless-steel reactors during the synthesis of lab reagents, immediately following solvent and auxiliary additive loading, then purified by crystallization or chromatography and issued with full batch trace documentation.

    Final product types

    • Piperidine-derivative analytical standards
    • Column derivatization reagents for chromatography
    • Intermediate reference materials for chemical quality control
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    Certification & Compliance
    More Introduction

    4'-Piperidinoacetophenone: From Lab Bench to Industry

    Our Story with 4'-Piperidinoacetophenone

    Every compound we produce has a history here. 4'-Piperidinoacetophenone, known among chemists as the model 4PAP, holds a unique spot in our portfolio. We took it on after seeing an uptick in requests from researchers working in fine chemicals and intermediates. Our chemists remember those early batches — learning the subtle cues of the crystallization, adjusting temperatures, reading the way each run came together. There's a certain pride to building a process that doesn't just make a product, but makes it consistently, without surprises or hiccups.

    Specifications: Getting the Details Right

    4'-Piperidinoacetophenone isn’t just a set of numbers. Every lot leaving our plant weighs in at more than 99% purity, verified through gas chromatography and NMR. The model we synthesize carries a piperidine ring linked to an acetophenone backbone: a thoughtful combination that brings unique reactivity. You won't find unknown peaks clouding the spectrum. Moisture content runs low due to our controlled environment and packaging practices; the solid, off-white crystals break clean, showing the care put into isolation and drying.

    We learned early on that minor impurities can throw off both research and production at scale. Extra hands, extra time, but the output—reproducible, batch after batch—matters when our customers run pilot syntheses and commercial processes. Our technical team tracks storage conditions through each step. By the time pouches of 4PAP reach your doors, stability and consistency aren’t afterthoughts; they're baked right in.

    Real-world Usage: Learning from Our Customers

    Over the years, we’ve collaborated with academic labs and industrial partners who run our 4'-Piperidinoacetophenone through its paces. It’s used as a synthetic intermediate in pharmaceutical development, especially in routes exploring CNS-active scaffold synthesis or piperidine-based APIs. Some teams use it as a building block for novel analgesics. Others take it into agrochemical research, using the unique structure to build out new candidates.

    We don’t just rely on feedback from paperwork. Customers let us know the practical challenges they run into, from clean-up after scale-up to solubility in various solvents. This field-driven dialogue sparked some improvements in how we filter and dry the product. For example, solvents unsuitable for downstream processing? We stopped using them, even if it meant extra hours in the plant. Another lab let us know they’d found our product easier to recrystallize than competitors' material. Better separation and cleaner next steps — that’s feedback worth acting on.

    How 4'-Piperidinoacetophenone Differs from Others

    There’s a lot out there labeled as ‘piperidinoacetophenone’. Subtle changes — even an extra methyl group on the ring or the wrong isomeric purity — can send a synthesis sideways. The model we manufacture follows strict stereochemical controls. No unwanted isomers, no surprises in reactivity. Our chemical runs have shown that even small contamination of these related compounds leads to side products and lower yields. We’ve seen firsthand: shortcuts in starting materials or careless purification cause headaches for end users.

    A few years back, an industrial partner compared our product head-to-head with alternatives on the market. Their process output jumped in purity and yield once switching to our batches. The feedback pinpointed our extra filtration and low-residual solvent content as game changers. That sort of improvement isn’t theory; it comes from sweating the details on the production floor.

    Other producers sometimes push out bulk material with a focus on tonnage. We take a different tack. All our batches, regardless of size, get the same treatment—stringent controls, full analytical workup, documentation every step of the way. It slows us down in the short term but pays dividends down the line. We’ve seen enough projects where downstream failings trace right back to a shoddy intermediate. Our experience says put in the work early; cut the regrets later.

    Playing by the Rules: Quality, Safety, and Consistency

    At our facility, compliance isn’t a talking point; it’s a daily practice. Regulatory expectations evolve, and we keep our paperwork and protocols ready for scrutiny. Our quality assurance process audits every step, from raw material checks to final analysis. Documentation covers chain of custody, synthesis parameters, storage logs, and shipment history. Our records don’t gather dust — they answer real questions from both our staff and our partners.

    Years ago, after a trace-crosstalk issue with another fine chemical line, we improved our isolation rooms and air handling. 4'-Piperidinoacetophenone benefits directly from that investment, as do our customers. Any hint of cross-contamination isn’t tolerated. By the time product goes out the door, it’s backed by more than instruments — it’s backed by protocols forged in real-world setbacks and solutions.

    Building Trust Through Consistency

    Customers looking for 4'-Piperidinoacetophenone often come to us after being burned by batch variance. We don’t overpromise on capacity, but we refuse to ship unless the product lives up to the previous run. That’s not just about pride; it’s about reducing headaches for anyone building on our foundation. If your process worked last quarter, it should work next quarter — and next year — without worrying about variability in the intermediate. Some of our long-term customers build life-saving therapies. They cannot afford surprise downtime or out-of-spec batches. We take responsibility for that chain.

    Our in-house chemists keep in touch with users at the bench and at scale-up. Questions like “How does it dissolve in your incoming solvent? Have you noticed any hazing?” matter far more than glossy claims. Small details become big advantages in tough synthesis routes. This isn’t just a slogan for us. We factor customer pain points into our workflow and process improvements.

    Continuous Process Improvement from the Ground Up

    Making chemicals like 4'-Piperidinoacetophenone demands an unending pursuit of process optimization. We’ve taken iterative steps to tighten up yields, improve filtration outcomes, and streamline downstream work for our customers. This means double-checking pressure profiles in reactors and verifying that each solvent swap brings the product closer to the purity that’s actually useful for synthesis, not just documentation.

    One of our biggest lessons came after an early batch faced shelf life questions from a pharmaceutical client. We partnered with them to tweak our drying and packaging process, switching desiccants and liners to extend real-world stability. Now, our stability data holds up in global shipments. Less product loss to unforeseen moisture uptake, less stress for our partners who can store with confidence.

    Challenges on the Horizon — and Meeting Them

    The chemical landscape keeps shifting. Regulatory scrutiny tightens, demand for high-purity starting materials grows, customer timelines get shorter. All these forces raise the bar. One area we’re focused on is green chemistry: developing routes with reduced solvent loads or improved atom economy. For 4'-Piperidinoacetophenone, we’ve pushed to recover and reuse more of the starting ketone, and our waste management team works alongside production to neutralize and responsibly dispose of byproducts. Every liter reclaimed and every kilo of byproduct safely processed means a cleaner operation — and better outcomes for everyone involved.

    We keep lines open with researchers exploring continuous flow syntheses that could further tighten quality and reduce solvent use. These collaborations let us test new workflows and get feedback in real time, not after problems surface. The cycle repeats: find a pain point, work the problem, and share the fix across teams. Problems often crop up outside the lab — in transit, in storage, during scale-up. We strip down the process, rebuild where needed, and fortify the next iteration.

    Supporting Research, Development, and Production

    We see our job as supporting innovation, not just making product to spec. Researchers rely on clean inputs, predictable behavior, and clear data. By sharing our analytical profiles openly—showing exactly what’s in every drum or pouch—we lower the barrier to clean, interpretable downstream chemistry. Teams in pharma, specialty chemicals, and agrochemical labs tell us that confidence in materials saves weeks or months, not just hours. Facing supply interruptions or an unexpected impurity wrecking data? That’s the cost of shortcuts.

    Feedback cycles back into our workflow. If a group struggles with solubility for their application, we look at polymorphism and provide extra testing. A process engineer asks about reducing static build-up during transfer? Our team reviews the milling step, finds static-dissipating packaging, and updates the SOP. We document these tweaks and communicate them, so every improvement builds on past experience, not just trial and error. It’s part of the reason teams return to us.

    People: The Real Difference

    Machines automate, instruments analyze, but people catch the odd smells, the subtle shifts in color, the rhythm of a good run versus a bad one. Our crew watches over every batch of 4'-Piperidinoacetophenone, from first reaction to final packaging. When newer staff train alongside veterans, they inherit a library of mistakes and successes. Those lessons shape everything — the way glassware gets scrubbed, the temperature at which we turn down the heat, the way we double check the readout against the actual product melting under the spatula.

    This depth of experience matters for 4'-Piperidinoacetophenone. Other suppliers may ship bulk without looking back, but in our operation, each delivery ties us to a chain of experiments, syntheses, and real work done by teams who count on getting what they ordered. That’s not marketing talk. Our longest-serving technician reminds us daily that each lot might go to a groundbreaking medical trial or an industrial process — it pays, in the long run, to do the job right, every batch, every time.

    Why Companies and Researchers Stay with Us

    It isn’t just about grade sheets or price points. Our relationships with buyers start and deepen based on trust in what we ship and how we support the people using it. Issues don’t always crop up at convenient times — we’ve spent weekends on the phone with technical teams halfway around the globe, troubleshooting recrystallization steps or walking through new analytical data. That readiness to dig in, clarify, and address pain points is the heart of what we do.

    More projects come our way from word-of-mouth than digital marketing. Someone has a good experience processing our 4'-Piperidinoacetophenone — cleaner reactions, less troubleshooting — and they bring us their next route. These partnerships often last years, not months. Even as we pilot new synthetic pathways and compounds, we hold close to the disciplines and habits built around 4'-Piperidinoacetophenone. Each run becomes a stepping stone to more reliable and innovative chemistry, not just another order filled.

    Looking Ahead: Solutions and Innovation

    Tomorrow’s demand for high-purity piperidine derivatives keeps us on our toes. Improvements in instrumentation, new regulatory stringency, and fresh environmental imperatives drive our next steps. We invest in research—testing newer routes to 4'-Piperidinoacetophenone that trim both raw material use and waste streams. Our R&D chemists stay plugged into academic advances and industrial innovations, whether that’s a catalyst swap or a rethinking of whole process flows. We focus on cutting down cycle times without losing the attention that keeps our lots so reproducible.

    As process scale shifts upward, the challenge isn’t just making more; it’s making it better, batch after batch. Our plant invests in continuous training, updated systems, and robust documentation. The people handling synthesis and quality control today are training up tomorrow’s leaders, passing on that culture of accountability and care with each handoff. Requests for tailored particle profiles or special packaging come our way regularly, and our staff meets those hurdles by turning to experience before improvisation.

    Final Thoughts: Experience Meets Integrity

    Our experience making 4'-Piperidinoacetophenone over the years gives us a clear sense of where value really sits — in reproducibility, open communication, and a firm handle on practical upstream and downstream needs. Sourcing critical intermediates shouldn’t derail your project, and by keeping quality and reliability non-negotiable, we support teams building tomorrow's breakthroughs. The lessons aren’t theoretical; they’re written into every lot we craft, and shaped by the realities you face in the lab and on the production line.