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1-(4-Chlorobenzyl)Piperazine

    • Product Name 1-(4-Chlorobenzyl)Piperazine
    • Alias pCB
    • Einecs 629-059-0
    • 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
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    Specifications

    HS Code

    928314

    Chemical Name 1-(4-Chlorobenzyl)piperazine
    Molecular Formula C11H15ClN2
    Molecular Weight 210.70 g/mol
    Cas Number 38212-30-5
    Appearance White to off-white crystalline powder
    Melting Point 211-213°C
    Solubility Soluble in organic solvents such as ethanol and DMSO
    Synonyms pCB, 4-chlorobenzylpiperazine
    Pubchem Cid 102038
    Smiles Clc1ccc(cc1)CN2CCNCC2

    As an accredited 1-(4-Chlorobenzyl)Piperazine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The packaging is a sealed, amber glass bottle containing 50 grams of 1-(4-Chlorobenzyl)Piperazine, labeled with hazard symbols and CAS information.
    Shipping 1-(4-Chlorobenzyl)piperazine is shipped in tightly sealed, chemical-resistant containers to prevent leaks and contamination. Packages are clearly labeled according to regulatory standards. During transit, the chemical is protected from moisture and extreme temperatures. Shipping complies with relevant local and international regulations, ensuring safe handling and secure delivery to the recipient.
    Storage 1-(4-Chlorobenzyl)piperazine should be stored in a tightly closed container, in a cool, dry, well-ventilated area, away from direct sunlight and incompatible substances such as strong oxidizers. Avoid moisture and excessive heat. Store at room temperature, and ensure proper labeling. Follow all relevant safety and handling guidelines when storing this chemical to prevent exposure and contamination.
    Application of 1-(4-Chlorobenzyl)Piperazine

    Applications of 1-(4-Chlorobenzyl)Piperazine in Industrial Manufacturing

    As a leading manufacturer, we supply 1-(4-Chlorobenzyl)Piperazine to downstream partners worldwide. Below are the primary industrial scenarios where our compound plays a central role in formulation, intermediate synthesis, and final product manufacturing for the fine chemical, pharmaceutical, and specialty synthesis sectors.

    1. Pharmaceutical Active Pharmaceutical Ingredient (API) Intermediate Synthesis

    1-(4-Chlorobenzyl)Piperazine serves as a critical intermediate in the multi-step synthesis of several new-generation anti-infectives and CNS drugs. In these projects, our quality-controlled raw material meets both purity and impurity profile demands for pharmacopoeial registration. Downstream manufacturers employ this material during the assembly of heterocyclic scaffolds, ensuring precision at each step prior to final API formation. Custom process validation assures full compliance with DMF filing and traceability for regulated markets.

    Industry compliance standards

    • ICH Q7 GMP for Active Pharmaceutical Ingredients
    • USP/NF and Ph. Eur. monographs for intermediates (where applicable)
    • 21 CFR Part 211 (current good manufacturing practice for finished pharmaceuticals)
    • Chinese Pharmacopeia drafts for regulated APIs

    Typical usage ratio

    • Usage varies from 0.15 mol to 0.4 mol per mol of target API, adjusted for synthetic route and yield optimization. Ratio depends on impurity tolerance, solvent selection, and stepwise conversion efficiency.

    Downstream process integration

    • Introduced during key coupling step following initial ring assembly in the synthesis of piperazine-linked APIs
    • Used in solution-phase batch processing or continuous-flow reactor setups
    • Purified by crystallization or solvent extraction prior to the subsequent chemical transformation

    Final product types

    • Central nervous system drug intermediates (e.g., piperazine-derivative antipsychotics)
    • Anti-infective drug precursors
    • Bespoke small molecule candidates under investigational new drug (IND) approval process
    • Exported regulated intermediates for custom pharma CDMO projects

    2. Agrochemical Intermediate for Fungicide Synthesis

    Industrial agrochemical factories use this compound as a key intermediate for manufacturing modern piperazine-containing fungicidal agents. The chlorinated benzyl moiety enables targeted chemical modifications, facilitating the release of new actives with improved environmental and toxicological profiles. Our production supports fully audited, large-scale synthesis lines for crop protection chemical companies that demand full trace chain assurance for local and international registrations.

    Industry compliance standards

    • FAO/WHO Pesticide Specifications (FAO/WHO 2021)
    • ISO 9001:2015 Quality Management Systems
    • GMP guidelines for active ingredient intermediates in agrochemical sector
    • REACH registration for export to EEA states

    Typical usage ratio

    • Applied in a 1:1.05 to 1:1.2 molar ratio relative to target active core for coupling reactions, adjusted according to plant process economics and impurity handling.

    Downstream process integration

    • Introduced after the base ring construction process in fungicide molecule assembly
    • Functionally incorporated within a multi-step batch or semi-batch synthetic sequence
    • Subject to thermal and pH control parameters to ensure chlorobenzyl group integrity

    Final product types

    • Benzylpiperazine-based fungicides for cereal and vegetable crops
    • Precursor intermediates for next-generation crop protection actives
    • Raw material for export-grade agrochemical formulations
    • Intermediates for experimental piprazine-substituted pesticides

    3. Specialty Chemical for Dye and Pigment Modification

    Dye and pigment manufacturers incorporate our product as a functional group donor to design advanced colorants. The chlorobenzyl piperazine unit introduces specific structural properties that improve light stability, hue adjustment, and solubility. Integration is rigorously managed according to stringent process control to ensure batch consistency and meet sector-specific technical quality benchmarks for specialty textile, paper, and plastics coloration.

    Industry compliance standards

    • OEKO-TEX Standard 100 for textile dye safety
    • ISO 9001:2015 Quality Management System for chemical processing
    • REACH Chemical Safety Report (when exported to Europe)
    • SGS quality verification for industrial pigment supply

    Typical usage ratio

    • Dosage typically ranges from 1% to 4% by weight in the synthetic batch, dependent on chromophore design and desired end-product performance specifications.

    Downstream process integration

    • Added during pigment intermediate modification or in the post-synthesis functionalization step
    • Blended into wet or dry milling steps for complex dye intermediates
    • Requires inline QC for by-product minimization and finished appearance

    Final product types

    • Specialty textile dyes with enhanced fastness
    • Plastics and fiber masterbatch colorants
    • High-performance inkjet and digital printing inks
    • Custom paper dyes for industrial and security documents

    4. Intermediate for Fluorescent Whitening Agent Synthesis

    Our material forms an integral building block in the synthesis of advanced fluorescent whitening agents (FWAs), particularly those based on bis-benzyl piperazine structures. Downstream plants formulate optical brighteners by integrating the chlorinated piperazine at defined coupling steps, which improves the absorption and emission profiles critical to textile, paper, and detergent applications. Strict formulation controls support consistent visual results and regulatory compliance on end-use goods exported globally.

    Industry compliance standards

    • European Council Directive 2002/61/EC on azo compounds in consumer goods
    • ISO 9001:2015 and ISO 14001:2015 (environmental management) for chemical synthesis
    • Toy industry EN71-3 migration limits for optical brighteners
    • GB 18401-2010 textile safety technical code (China export market)

    Typical usage ratio

    • Typically 0.8 to 1.5 molar equivalents per mol in the formation of core FWA molecule; precise levels adjusted for target emission spectra, resin compatibility, and process throughput.

    Downstream process integration

    • Fed to the whitening agent synthesis line post-initial ring construction
    • Reacted under controlled pH and proprietary catalyst systems for maximum quantum yield
    • Subjected to grinding, dispersion and purification to industrial specification

    Final product types

    • Optical brighteners for laundry detergent manufacturing
    • FWAs for coated and uncoated paper
    • Whitening additives in textile weaving and finishing
    • Brighteners for high-grade plastics and polymers

    5. Building Block in Fine Chemical Synthesis for Polymer Additives

    This compound functions as a unique nitrogenous building block in the fine chemical production of specialty polymer additives. The downstream formulation sector demands consistency in structure and purity when introducing such functional piperazines to enhance polymer performance, including antistatic or flame-retardant properties. Batch traceability, precise handling, and compatibility checks are key for integration into melt-blend or solution-casting operations within engineered plastics manufacturing.

    Industry compliance standards

    • ISO 17025 laboratory QC guidelines for additive analysis
    • RoHS 2011/65/EU for restriction of hazardous substances in plastics
    • ASTM D3421 methods for additive migration
    • UL 94 flammability classification (where applicable to end use)

    Typical usage ratio

    • Incorporated at 0.2% to 3.5% by weight depending on polymer type, additive system, and specific end-use certifications required.

    Downstream process integration

    • Added at early compounding stage during extrusion or melt-mixing
    • Blended with primary polymer resin and other compatible functional additives
    • Processed under controlled thermal profiles to maintain functional integrity

    Final product types

    • Antistatic masterbatches for electronic housings
    • Flame-retardant compounds for wire, cable, and appliance parts
    • Additives in automotive interior plastics
    • Polymer blends for construction and infrastructure goods
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    Certification & Compliance
    More Introduction

    Introducing 1-(4-Chlorobenzyl)Piperazine: Experience from the Production Floor

    Meeting Real Demands with Quality Manufacturing

    As a chemical manufacturer who moves through every stage of 1-(4-Chlorobenzyl)Piperazine production, each batch produced reflects years of hands-on experience with fine chemicals. From sourcing raw materials to final packaging, consistency and transparency shape every decision on our shop floor. The true demands of R&D labs, pharma innovators, and specialty chemical blenders motivate our team to keep tight control on product quality and practical usability.

    The Heart of the Molecule: What Sets 1-(4-Chlorobenzyl)Piperazine Apart

    Understanding this compound, you encounter a core structure native to many innovative chemical pathways. 1-(4-Chlorobenzyl)Piperazine, formed from the coupling of 4-chlorobenzyl chloride and piperazine, stands out for its reactivity and selectivity. We produce it to address needs in both intermediate synthesis and as a building block for more complex molecules. In practical use, chemists reach for this material because its piperazine backbone and para-chloro-substituted benzyl group create a versatile scaffold, serving functions from pharmaceutical research to polymer modification.

    Those working early mornings in bench chemistry know frustration with off-spec material. Years ago, inconsistency in melting point or purity compromised entire projects. We make process improvements based on that feedback, adjusting everything from crystallization temperatures to drying protocols. Sophisticated chromatography and spectroscopy confirm structure and impurity profiles—no shipment goes out without our lab team confirming each lot matches the agreed specifications. This isn’t paperwork for regulatory boxes; it’s a real safeguard for researchers who rely on batch-to-batch consistency.

    Specifications Grounded in Real-World Use

    From our experience, most customers demand high assay levels and clean analytical fingerprints. For 1-(4-Chlorobenzyl)Piperazine, we typically offer purities above 98%, verified not just with HPLC but also with NMR and sometimes even mass spectrometry, depending on custom requests. Moisture content, residual solvents, and trace impurities can throw off end-use applications, especially where this piperazine derivative enters further synthetic steps.

    Early on, we learned that stock solutions sometimes develop color if trace metals sneak in, so we invested in extra purification in the final steps. We monitor polymorphism, packing characteristics, and how the product behaves under various storage conditions. Each time a customer gives us feedback about a reaction not running as planned, we retrace the whole production batch, looking for root causes. A manufacturing environment that listens to the people using the product creates trust and repeat orders.

    Direct Value for Researchers and Industry

    Over years of supplying 1-(4-Chlorobenzyl)Piperazine to academic groups and industrial labs, we see recurring trends in how it gets used. The pharmaceutical sector often uses this compound as a protected amine, participating in key steps toward piperazine-based drug candidates. Polymer scientists and materials researchers extract value from its functional groups, using it to achieve unique branching or crosslinking. Beyond these, the molecule sometimes serves to anchor larger ligands in coordination chemistry.

    Practical requirements drive our customers. Recent inquiries focus on lot-to-lot traceability, detailed certificates of analysis, customizable packaging—from small research vials up to drum quantities for pilot plants. Our records stretch back years on each delivered batch, allowing for full audits and quality verification when scaling from gram to kilogram levels. We actively welcome audits. Standing on that production floor, you know real trust comes only from inviting others in and letting them see every detail.

    We have seen a shift as environmental pressures grow. Clients demand to know where every input gets sourced and whether solvent recovery happens. Early on, we started reusing solvents from the piperazine coupling reaction, reducing waste and minimizing unknown side-products. Engineers at our plant recalibrate distillation and filtration steps to capture fractions previously discarded. By keeping synthetic residues to a rigid minimum, we lower both environmental impact and cost per kilo, passing on savings directly to bulk customers.

    How This Product Differs from Other Piperazines

    Manufacturing 1-(4-Chlorobenzyl)Piperazine opens your eyes to fundamental differences compared to other piperazine derivatives. Substitution patterns on the benzyl ring—like moving the chloro group from para to meta—create not just naming confusion but large differences in reactivity, solubility, and safety profile. Chemists often expect the same properties from compounds with similar names. This mismatch leads to failed experiments when the wrong isomer creeps in. By keeping our lines dedicated and reacting under precise temperature and time windows, we avoid batch-to-batch cross-contamination.

    From an operator’s viewpoint, some related products exhibit strong odors or corrosivity, while 1-(4-Chlorobenzyl)Piperazine remains relatively easy to handle. It tends to crystallize cleanly, producing a manageable fine powder. Such physical characteristics make all the difference for weighing accuracy and downstream processing. In comparison, methyl or unsubstituted piperazines often show oiler or stickier consistencies, causing headaches in both laboratory and production settings.

    Synthetic impurity profiles also diverge sharply. Halogenated intermediates can lead to trace or persistent by-products unique to each molecule. Our QA specialists apply tailored detection methods, targeting specific by-products relevant to this compound and not relying on generic testing. Years of production reveal which degradation markers matter most for real world users, and we update our methods to catch even faint signals the first time.

    Solving Issues Seen Across the Chemical Industry

    In the past, chemical supply chains featured opaque middlemen and uncertainty about actual origin. Stories of untraceable raw materials still surface, compromising reliability. To take control, we select high-purity piperazine backbone from audited suppliers in Asia and Europe. Chlorobenzyl chloride gets qualified against a defined spectral library, further reducing risk. Oversight reaches deep: raw drum intake, line cleaning schedules, recordkeeping, and operator training matter just as much as lab instrumentation.

    Shipments delayed by customs or transport failures often put entire R&D timelines at risk. We maintain rolling stock on-site for immediate dispatch and work closely with hazardous goods haulers. Packaging underwent years of trial: what arrives on a humid day in India or a cold morning in Canada preserves integrity regardless of local conditions. Nitrogen flushing, thick-walled HDPE containers, and tamper-evident seals have all emerged from hard-won lessons in transportation. Returned packs, leakage reports, and customer pictures guide every improvement.

    Raw material price spikes sometimes ripple through the industry. In response, our purchasing and R&D units worked together to implement alternate reaction routes that preserve quality but lower the total cost. By securing parallel supply routes and setting up localized purification steps, we’ve shortened timelines and made our production less brittle. This helps customers buffer their own production schedules against global shocks.

    Process accidents and unexpected by-products are a real risk, so our teams lean on decades of collective memory and up-to-date technical skills. Every reactor charge brings a careful verification of reagents, and each finished batch runs through several analytic checkpoints. In case a lot fails a release test, we investigate root causes quickly, train staff on adjustments, and disclose the findings to the affected end-user. This open-door policy deepens relationships, particularly among long-term clients who value reliability and honest feedback.

    New Trends, Feedback Loops, and Responsiveness

    Our market monitoring teams keep an eye on shifts in demand, new regulations, and emerging synthetic applications. For instance, environmental requirements in Europe and North America change frequently. We stay ready, adapting both our documentation and impurities control according to new standards. A few years ago, rising awareness about nitrosamines prompted upgrades to our detection techniques; proactive choices like this mean our batches support customers headed for regulatory filings.

    Client feedback frequently drives our improvements. One recurring concern among pharma customers was the color stability in solution, which sometimes signaled oxidative changes. We adjusted storage recommendations and incorporated antioxidants or oxygen scavengers where compatible. No solution comes from the lab alone; line workers, logistic staff, and end-users together shape changes that stick.

    Within our own plant walls, we share lessons learned from failed batches and customer issues through team briefings. This ongoing communication strengthens the company culture and means new hires receive practical training grounded both in good manufacturing practice and lived stories—what worked, what failed, and how to respond. By focusing on both technical soundness and daily, gritty reality, we avoid the common disconnect between office protocols and factory floor experience.

    Moving Forward: Sustainable and Collaborative Production

    Sustainability isn’t a marketing goal; for us it balances economics, team safety, and environmental stewardship. Recycled solvents lessen our disposal burden, and thermal efficiency measures decrease the plant’s energy footprint. Each reduction in energy or waste not only helps the planet but stretches each budgeted production run further. We engage with regulators, attend relevant workshops, and participate in industry working groups to share and learn practical solutions.

    Building in traceability, documentation, and transparent testing, we invite input directly from chemists and process engineers who run our product in their synthesis lines. Site visits, user interviews, and open data exchange serve as the foundation for continuous improvements. Most of our longtime partners expect open dialogue—not silent compliance. For them, a supplier who listens and learns is more valuable than any simple producer of chemicals.

    Addressing Practicality in Real Operations

    Documentation can’t replace experience. Take the issue of product caking: a few years back, customers in tropical regions experienced solidification due to ambient moisture. We updated packaging protocols, improved internal drying stages, and sent trial packs for user comment. These iterative steps, albeit sometimes slow, assure everyone down the chain receives a product ready for direct use.

    The feedback loop between our production team and frontline chemists fuels each improvement. Specific requests—like low-dust formulations or oversize granules—prompt us to develop small test runs. Every time a user report indicates a hiccup, we rerun tests and sometimes escalate issues to engineering for process tweaks. No system runs perfectly, but open acknowledgment and continuous learning limit disruptions and keep projects on track.

    Compliance, Traceability, and Documentation

    Major research programs and regulatory filings can’t tolerate uncertainty. By certifying each lot of 1-(4-Chlorobenzyl)Piperazine with clear, peer-reviewed methods, we remove doubt. This supports users pursuing scale-up or even registration with authorities. Legacy customers appreciate access to long-term lot histories, impurity trends, and full chain-of-custody. Dedicated documentation staff maintain records with all observations, deviations, and corrective actions logged alongside each lot.

    From routine calibration of balances and spectrometers to comprehensive worker training, every step matters. Auditors spend as much time questioning our operators as reviewing procedures, and rightly so. Transparency survives only when each employee understands the purpose behind the paperwork. We have witnessed customers trace small inconsistencies back to packaging lines and respond with rapid action plans—never hiding behind jargon or misplaced blame.

    Supporting the Next Innovation Wave

    University collaborations and startup partnerships often push 1-(4-Chlorobenzyl)Piperazine into uncharted territory. Our technical service team listens and adapts to ever-changing requirements, from exploring new derivatives to evaluating batch toxicity profiles. Sometimes the most insightful suggestions come from unexpected places—a single phone call from a doctoral researcher might trigger weeks of lab work and fresh improvements.

    Direct contact with principal investigators and formulation chemists provides us not only with testing information but also creative ideas for new grades, tailored for niche purposes. As synthetic methods evolve and new uses arise, we adjust both process and packaging. This cycle of idea, trial, feedback, and adoption runs at the core of our manufacturing ethos.

    Balancing Quality with Cost and Availability

    Decision-makers face real cost and availability concerns. We never compromise on raw material traceability or critical in-process controls but push relentlessly to optimize non-critical steps for greater yield and lower expenditure. Every process improvement—large or small—permanently reduces future cost and stabilizes supply, benefiting the customer as much as the company.

    Our direct relationships with chemical transporters, container manufacturers, and input suppliers keep us informed about upcoming risks and allow for rapid response. Customers appreciate timely communication every time supply chain interruptions threaten a planned synthesis campaign. This close loop—not an anonymous distribution channel—ensures that products reach users ready and uncompromised.

    Direct Access and Shared Responsibility

    A genuine manufacturer takes responsibility for every molecule it ships. We choose to engage in open discussion about sourcing, safety, and environmental implications. When a challenge arises—be it a reaction impurity or a shipping hold up—the producer, not a distributor, stands ready to answer hard questions and work towards a solution. This approach earns trust and supports collaborative problem solving well beyond the delivery of the product itself.

    As synthetic routes and technology evolve, we continue experimenting on our own lines, trialing new purification techniques and greener reaction conditions. Partnering with our users, we document results shared openly so each stakeholder feels ownership of improvement. This commitment strengthens the entire research and production ecosystem, from benchtop to plant scale.

    The Value of a Manufacturer’s Experience

    No single document captures the complexities of making 1-(4-Chlorobenzyl)Piperazine for real-world applications. Drawing on decades of continuous operation, the difference lies in details honed over time: the right specifications, meaningful customer engagement, and unrelenting improvements driven by tangible feedback. Our role means not just producing a molecule, but stewarding its entire lifecycle—from sourcing, through handling and application, and into future innovations yet unimagined.