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N-(Phenethyl-4-Piperidinyl)Propionamide Citrate

    • Product Name N-(Phenethyl-4-Piperidinyl)Propionamide Citrate
    • Alias U-47700
    • Einecs 805260-54-0
    • 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

    294426

    chemical_name N-(Phenethyl-4-Piperidinyl)Propionamide Citrate
    molecular_formula C16H24N2O · C6H8O7
    molecular_weight 466.51 g/mol
    appearance White to off-white powder
    solubility Soluble in water
    storage_temperature 2-8°C (refrigerated)
    purity Typically ≥98%
    pH Neutral to slightly acidic (in water solution)
    stability Stable under recommended storage conditions

    As an accredited N-(Phenethyl-4-Piperidinyl)Propionamide Citrate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing White, tamper-evident HDPE bottle labeled "N-(Phenethyl-4-Piperidinyl)Propionamide Citrate, 25g," with hazard warnings, lot number, and expiration date.
    Shipping **Shipping Description:** N-(Phenethyl-4-Piperidinyl)Propionamide Citrate is shipped in sealed, chemically-resistant containers to ensure stability and prevent contamination. Packages are clearly labeled according to applicable regulations, with all necessary safety documentation included. Shipping is conducted via certified carriers, under temperature-controlled conditions if required, and complies with all relevant chemical transport laws.
    Storage **N-(Phenethyl-4-Piperidinyl)Propionamide Citrate** should be stored in a tightly sealed container, protected from moisture and light. Keep it in a cool, dry, and well-ventilated area, ideally at room temperature (20–25°C), and away from incompatible substances such as strong oxidizers. Ensure the storage area is secure and access is limited to authorized personnel following standard laboratory safety protocols.
    Application of N-(Phenethyl-4-Piperidinyl)Propionamide Citrate

    Applications of N-(Phenethyl-4-Piperidinyl)Propionamide Citrate in Industrial Manufacturing

    As a dedicated producer of N-(Phenethyl-4-Piperidinyl)Propionamide Citrate, we supply this specialty intermediate to several high-compliance industrial segments. Below, we outline key manufacturing environments where this raw material serves a precise process role, detailing compliance standards, practical dosage guidance, integration points, and typical end products.

    1. Active Pharmaceutical Ingredient (API) Intermediate Synthesis

    Manufacturers utilize our compound as a controlled intermediate in API processing for specific therapeutic classes, such as analgesics and related CNS agents. This stage demands precise traceability and documentation, aligning with both domestic and international pharmaceutical regulations. The material is introduced during the N-alkylation synthesis step, where its amide profile enhances selectivity for subsequent final molecule construction. Customers adjust the proportion based on target yield and solvent system, often optimizing for minimal impurity carryover into downstream crystallization and purification.

    Industry compliance standards

    • ICH Q7: Good Manufacturing Practice Guide for Active Pharmaceutical Ingredients
    • FDA 21 CFR Part 211 (cGMP for Finished Pharmaceuticals)
    • European Pharmacopeia, General Monograph 2034 (Intermediates)
    • SFDA (China): Pharmaceutical Production Quality Management Regulations

    Typical usage ratio

    • Batch-wise input is typically calibrated at 1.2–1.4 molar equivalents relative to core reactants. Operators may reduce loading toward 1.1:1 when using advanced catalytic protocols, balancing cost and impurity limits on pilot and commercial lines.

    Downstream process integration

    • Feeds into the main vessel post-initial deprotection or amidation, prior to final drug molecule coupling. Integration point selected to maximize intermediate purity and reactor throughput.

    Final product types

    • Analgesic pharmaceutical APIs
    • Specialty CNS agent actives
    • Registered finished dosage forms (capsules, tablets, injectables)

    2. Fine Chemical Synthesis for Specialty Research Reagents

    Specialty chemical companies engaged in research chemical or small-molecule toolkit synthesis rely on this compound as a precursor for developing analytical probes and calibration standards. Regulatory oversight centers on research-grade chemical purity and absence of regulated impurities. The citrate form provides enhanced handling safety and convenient solubilization for scale-up reactions, influencing the amount and order of addition throughout multi-step syntheses.

    Industry compliance standards

    • ISO 9001:2015 Quality Management Systems (Research Chemistry)
    • REACH Regulation (EC) No 1907/2006, Registration of Substances
    • OECD Guidelines for the Testing of Chemicals
    • Local chemical control acts (varies by customer region)

    Typical usage ratio

    • Frequently 5%–15% w/w with respect to primary scaffolds for multi-component coupling. The range narrows when moving from bench scale (10% typical) to pilot production (lowering to 5–8% based on batch size and cost sensitivity).

    Downstream process integration

    • Charged directly into the coupling vessel following base activation; used as a key nucleophile or amide linkage component in stepwise fragment assembly.

    Final product types

    • Analytical calibration standards
    • Reference compounds for laboratory validation
    • Chemical biology probes
    • Specialty synthesis building blocks

    3. Custom Drug Discovery and Contract Research Synthesis

    Industry R&D and contract research organizations (CROs) integrate this intermediate in proprietary route scouting for next-generation small-molecule pipelines. The focus remains on experimental legality and project-specific trace compliance. Dosage is calculated depending on the molecular complexity and number of transformation steps, with iterative optimization during scale-up. Batch documentation is structured for traceability in accordance with project-specific client audits and sampling requirements.

    Industry compliance standards

    • OECD Principles of Good Laboratory Practice (GLP)
    • Client-mandated project documentation standards
    • Controlled Substance Precursor Management Regulations (as applicable per country)
    • Project-level NDA and trace documentation compliance

    Typical usage ratio

    • Ranges from 2–8% w/w or higher, varying dramatically by discovery route complexity, with maximum levels tested in mid-stream transformations or when optimizing structure-activity relationships (SAR).

    Downstream process integration

    • Used at the intermediate assembly stage, generally after protected group introduction and before final fragment coupling; managed under nitrogen atmosphere for stability and purity preservation.

    Final product types

    • Early-stage lead candidates for pharmaceuticals
    • Protected intermediates for medicinal chemistry
    • Screening libraries for high-throughput drug discovery

    4. Reference Standard Production for Clinical and Forensic Laboratories

    Accredited labs and certified reference material producers introduce this amide intermediate as part of the synthesis cycle for quality-control standards supplied to regulatory, clinical, and forensic users. Compliance demands full characterisation and isotopic purity validation. The input ratio is carefully optimized against carrier matrix loading to ensure analytical consistency and shelf stability. Process engineers schedule precise addition during final synthetic steps, often under rigorous environmental controls.

    Industry compliance standards

    • ISO/IEC 17025: Testing and Calibration Laboratories Approval
    • USP <1040>: Analytical Reference Standards
    • WHO Good Practices for Pharmaceutical Quality Control Laboratories
    • National/international controlled substance guidance (per region)

    Typical usage ratio

    • Generally held at 0.05–1.0% w/w with respect to the final standard batch, depending on sensitivity and required analytical grade.

    Downstream process integration

    • Introduced near completion of synthetic pathway, prior to final purification and lyophilization, to guarantee homogeneity and reproducibility of the reference standard.

    Final product types

    • Reference standards for instrument calibration (HPLC, GC-MS, LC-MS)
    • Certified standards for forensic sample comparison
    • Quality control markers for pharmaceutical batch release
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    Certification & Compliance
    More Introduction

    N-(Phenethyl-4-Piperidinyl)Propionamide Citrate: Manufacturer’s Insight on a Specialty Compound

    Real-World Manufacturing Experience behind N-(Phenethyl-4-Piperidinyl)Propionamide Citrate

    Producing N-(Phenethyl-4-Piperidinyl)Propionamide Citrate draws on years of hands-on chemical synthesis, trial and error, and the daily practical choices chemical manufacturers face. This compound—often referenced for its uses in pharmaceutical research, especially in neurological and pain pathway studies—requires a careful, experienced approach on the plant floor. Our teams have honed each batch, paying close attention to achieving the consistency demanding researchers and formulation chemists count on every single time. Trends among research-based companies point to a growing need for purity and reliability, as every failed test wastes resources and time. Keeping a direct line between scientists and plant operators helps steer our process development, minimizing loss and boosting the reproducibility users want.

    Specification Decisions: Balancing Purity with Practicality

    The main difference between a well-made batch of N-(Phenethyl-4-Piperidinyl)Propionamide Citrate and a disappointing one really comes down to the practical steps taken during synthesis, purification, and drying. As manufacturers, we see the challenge right away: achieving a high purity, often above 98%, while remaining cost-conscious around energy, solvents, and time. In our operation, running HPLC and GC on each lot helps us double-check impurities, while maintaining clarity about what’s trace versus what could impact the research.

    The real debate isn’t just technical. Experience tells us trace impurities may catalyze unexpected side-effects in the hands of a medicinal chemist. Years back, one batch presented low-level by-products and we caught unexpected binding affinity shifts during post-synthesis analysis. We corrected process steps and brought them back into spec. Reliability for our clients comes from living through these moments and learning hard lessons. Whenever we can, we human-test and stress-test purification methods, ensuring the end product matches both paper specs and real-world experience.

    Physical Properties: Why They Matter beyond the Lab Bench

    Out in the plant, texture and solubility affect more than just how easy the product is to weigh or dissolve. N-(Phenethyl-4-Piperidinyl)Propionamide Citrate typically forms as a stable, crystalline material, with a consistent particle size pushed by both milling and controlled crystallization. The practical side of this experience: inconsistent particle sizes lead to poor suspensions, longer dissolution times, and potential trouble during formulation.

    Researchers and pharmacists talk with us about solubility in water and other common solvents. Fine-tuning the crystallization step means fewer headaches on the bench—something we’ve refined over time to meet clear demands from our most seasoned clients. This hands-on approach, adjusting parameters batch-to-batch, reduces bottlenecks in our customers’ own workflows later on.

    What Sets N-(Phenethyl-4-Piperidinyl)Propionamide Citrate Apart

    Our direct experience gives us a grounded perspective when customers ask about the practical differences between N-(Phenethyl-4-Piperidinyl)Propionamide Citrate and analogues. Some researchers look for alternate piperidine derivatives, hoping for changes in receptor selectivity or pharmacokinetic profiles. Others want salts with differing counter-ions for better solubility or handling. From the manufacturer’s standpoint, producing the citrate salt, versus, say, the hydrochloride, shifts both the pH profile in solution and the material’s hygroscopicity.

    These differences matter. The citrate version often favors pharmaceutical use, since citrate anions show a strong record for safety and compatibility with human biological systems. This detail stems from both documented literature and hands-on stability experiments we’ve performed. Every season brings new client questions, but the trade-offs between stability, absorption, and storage risk remain steady concerns across the industry.

    Handling and Storage: Manufacturer’s Lessons in Practicality

    Few chemical suppliers outside direct manufacturing understand the day-to-day realities of storing specialty compounds. We choose packaging after years of fighting off moisture ingress, static buildup, and caking that can happen quickly with citrate forms. N-(Phenethyl-4-Piperidinyl)Propionamide Citrate travels from our plant in sealed, low-reactivity containers, typically glass under nitrogen, a result of dozens of past experiences with leaks or environmental exposure that ruined product.

    Early on, we thought tight triple-laminate film worked just as well, but practical experience showed permeability issues under warehouse conditions—especially in humid months. For labs, loss caused by improper storage drains budgets and disrupts research plans. Our clients take comfort when each shipment arrives uncompromised, a fact we attribute to stubborn attention to detail based on years of learning what doesn’t work.

    End-User Applications: Beyond Abstract Utility

    Most of the N-(Phenethyl-4-Piperidinyl)Propionamide Citrate leaving our plant heads to research labs looking to advance knowledge in pain transmission and receptor modulator development. Having spoken with scientists and clinicians who use our chemicals to probe human and animal systems, our manufacturing team understands that a poorly made lot stops progress cold. Time and funds slip away on repeat purification and failed syntheses. Consistent materials let teams focus on what matters—pushing the boundaries of neuroscience, designing new probes, or establishing process safety for future drug candidates.

    We take pride in producing to a level that lets our clients compare data across time and geography without worrying about the vendor’s batch-to-batch variability. Every year, feedback comes back—outlier values or shifts in chromatographic retention time. Drawing on manufacturing data tied to each lot, we monitor trends, intervene, and make sure future production stays true to both certificate values and the silent expectations of field chemists.

    Responding to Changing Regulatory Expectations

    Legislation and regulatory standards around pharmaceuticals and chemical precursors keep evolving. As manufacturers, we keep a pulse on changes upstream and downstream, from updated impurity limits to reclassification of controlled substances. Years ago, changes to precursor tracking for certain piperidine compounds caught many in the market unprepared. We learned from that experience: never depend on yesterday’s documentation or transport arrangements. Our compliance team cooperates directly with regulators and certifying labs, making every series of N-(Phenethyl-4-Piperidinyl)Propionamide Citrate ready to ship without legal snags or customs holdups.

    Quality documentation isn’t box-checking in our world—it shields clients and ourselves against waste, fines, and project loss. Dedicated documentation teams maintain full traceability, from raw material sourcing to final batch analytics. Sitting through audits can be stressful, but open books and transparent records built “as you go” earn trust from both clients and regulatory bodies. Every batch of this compound tells the story of layers of careful oversight, not just in QC but all the way back to the plant operator and supplier level.

    Quality Control beyond the Standard Assay

    On the production floor, purity assays are only the start. Over the years, we developed in-house protocols for polymorph screening, residual solvent checks, and even mechanical testing for compressibility, a property occasionally requested by formulation teams. These extra steps cost time and money up front, but save far more downstream. We’ve seen firsthand that skipping the minor screens can lead to major issues when our chemical is incorporated into high-visibility clinical programs. Integrity in reporting and a willingness to perform extra analysis springs from the lessons baked in through years of hands-on syntheses.

    Direct feedback from scientific customers led us to invest in trace metal analysis, even though organic synthesis may suggest metals are irrelevant. One significant issue in the early days—trace iron from a reactor weld—demonstrated that even minor contamination can provoke regulatory rejection or invalidate test results. Over time, we’ve extended our screens to meet clients’ growing sophistication, always learning that real-world expertise outruns standard plant SOPs.

    Comparisons: Citrate Salt versus Other Forms

    As manufacturers, we get requests for the propionamide in various salt forms—hydrochloride, oxalate, succinate among them. These requests highlight differences in how researchers plan to use the compound. Citrate salts, in our experience, offer advantages in stability and pH handling that suit many pharmaceutical needs. The organic nature of citric acid counter-ions resists issues with ionic strength common with mineral acids. Hygroscopicity does present storage challenges, a problem controlled through careful packaging and monitored humidity conditions.

    Textbook knowledge tells only part of the story: through years of troubleshooting clumping and unintentional hydrolysis during scale-up, we learned to respect the unique storage and reactivity profile of the citrate variant. The only way to appreciate these differences is through repeated process runs and real discussion with chemists at the bench who handle several salt forms, often within the same project.

    Environmental Impact and Sustainability Perspectives

    Manufacturers today face increasing pressure to reduce solvent waste, improve yields, and limit resource consumption. Our plant invested in closed-loop solvent recovery for N-(Phenethyl-4-Piperidinyl)Propionamide Citrate production after recognizing the scale of environmental impact from earlier open processes. Modern distillation and neutralization equipment now minimize both actual discharge and regulatory exposure.

    Responsible manufacturers also rethink energy use. Our process improvements, including heat integration and process timing adjustments, help lower the environmental cost per batch. Sourcing raw feedstocks from producers with proven environmental records rounds out our view of stewardship, a duty clearly recognized as more than industry optics. Every customer who asks about green chemistry or waste track records holds us—rightly—accountable for these invisible but real choices.

    Logistical Realities from Factory Floor to Customer Door

    Getting N-(Phenethyl-4-Piperidinyl)Propionamide Citrate from plant to bench means more than just crating and shipping. Our shipping department knows from experience how customs, air transit, or even last-mile local delivery can upset months of planning. Observing packages arriving damaged or delayed led us to wrap each shipment with extra layers of shockproofing and contamination barriers.

    In many cases, the client’s research hinges on a single 100-gram order delivered on a specific timeline. We’ve stood up 24-hour shifts and chartered dedicated couriers when deadlines cannot move. These are further proof that manufacturers don’t just operate on paper schedules—we respond to the real needs, sometimes at personal cost, because we’ve felt the disappointment of missed research windows. We keep building experience through handling both the routine and the unpredictable, and our clients rely on that commitment.

    Continuous Process Improvement Derived from Field Feedback

    Manufacturing isn’t static. We go back to process flow diagrams and purification loop feedback frequently, finding better ways based on new research and field feedback. For N-(Phenethyl-4-Piperidinyl)Propionamide Citrate, this means periodic upgrades to chromatography columns, better temperature ramping on reactors, or improved air-handling within clean rooms. Field reports drive nearly every major change, whether it’s an odd odor detected at a customer site or a subtle change in dissolution.

    Research partners expect nothing less. They share samples, results, and complaints freely—sometimes bluntly—which we welcome. This loop produces better chemicals over time, not just the ones with clean certificates but those that pass the test of use. Real progress comes from enduring this close working relationship over months and years, adjusting methods, and learning from error rather than fearing it.

    Addressing Unintended Uses and Ethical Manufacturing

    As original manufacturers, we understand these specialty compounds sometimes attract off-label or unsanctioned usage. Maintaining responsible controls, reporting mechanisms, and careful vetting of customer profiles is a core part of our operating procedure. Years ago, we experienced firsthand the fallout from a client who diverted material outside its intended channel—risking not only their own position but reputational harm and regulatory trouble for us. Now, all orders trigger checks against internal red-lists and cross-checks with global compliance directories.

    This level of vigilance matters. The company’s standing, the client’s project, and sometimes patient safety all hinge on care and integrity at the source. We keep detailed audit trails, verify customer bona fides, and keep open channels with law enforcement and regulatory bodies. Our responsibility goes past the plant gate, right to the end-user—in research, medicine, or industrial process—making sure each gram is used for its intended purpose.

    Training and Workforce Development

    Behind every batch of N-(Phenethyl-4-Piperidinyl)Propionamide Citrate stands a team who’s learned through apprenticeship, continual training, and direct troubleshooting. Skill-building isn’t just periodic seminars: it’s daily cross-checking on the shop floor, open debriefs after every significant plant run, and open access for junior technologists to observe experienced operators. Years ago, new chemistry graduates joined our team and, working under senior staff, learned telltale signs of batch instability well before analytical data confirmed it.

    Building that base ensures not just consistent output but safety, job satisfaction, and innovation. Workers with hands-on knowledge flag process drift far more effectively than automated monitors alone ever could. That culture of collaboration means every lot shipped out carries with it the accumulated know-how and pride of those who produced it. The end result for our clients: materials that reflect years of personal investment and technical maturity.

    Perspectives for the Future: Anticipating Research and Application Shifts

    In the coming years, as pharmaceutical research targets grow sharper and move toward custom-tailored and high-throughput screens, the expectations for compounds like N-(Phenethyl-4-Piperidinyl)Propionamide Citrate will follow. We see an uptick in orders from AI-driven lead discovery teams and rapid prototyping labs. These groups demand turnarounds measured in days, not weeks, and purity profiles adapted to increasingly narrow tolerances.

    From our position as original manufacturers, we follow not only process efficiency but also the shifting research horizons and their effect on batch size, documentation, and regulatory interface. We’re investing in improved data tracking, RFID-based inventory, and advanced batch characterization to stay aligned with this evolving landscape. We meet regularly with downstream users—not just procurement officers but lab scientists and end researchers—to gauge future needs and refine our offerings accordingly.

    Conclusion: The Real Value in Manufacturing N-(Phenethyl-4-Piperidinyl)Propionamide Citrate

    Bringing N-(Phenethyl-4-Piperidinyl)Propionamide Citrate to research facilities worldwide is more than executing a chemical reaction. Years of daily plant work, listening and adapting to direct client feedback, and calibrating production to match both scientific rigor and practical realities ensure the product works in real-world conditions. Our hands-on history builds trust with our clients—they know the difference between a compound that comes off a generic line and one born of repeated refinement and honest learning.

    Chemical manufacturing of this compound marries deep analytical scrutiny, real-world troubleshooting, and a commitment to integrity in practice. We resolve challenges not by default, but through a culture of learning, dialogue, and operational transparency. This total approach means our clients receive a product shaped by human experience—responsive, resilient, and ready for the next benchmark in laboratory research.