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2-Benzhydrylpiperidine

    • Product Name 2-Benzhydrylpiperidine
    • Alias Desoxypipradrol
    • Einecs 211-603-0
    • 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

    803530

    Iupac Name 2-benzhydrylpiperidine
    Molecular Formula C18H21N
    Molar Mass 251.37 g/mol
    Cas Number 117330-67-3
    Appearance White to off-white solid
    Melting Point 56-58°C
    Solubility In Water Insoluble
    Smiles C1(CCNCC1)C(C2=CC=CC=C2)C3=CC=CC=C3
    Pubchem Cid 10548041
    Inchi InChI=1S/C18H21N/c1-3-9-15(10-4-1)18(16-11-5-2-6-12-16)17-13-7-8-14-19-17/h1-6,9-12,17-18H,7-8,13-14H2
    Logp Estimated 4.7

    As an accredited 2-Benzhydrylpiperidine 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 labeled "2-Benzhydrylpiperidine," tightly sealed with a screw cap, features hazard warnings and handling instructions.
    Shipping 2-Benzhydrylpiperidine is shipped in tightly sealed, chemical-resistant containers to prevent leaks and contamination. Packaging complies with international transport regulations. The chemical is handled as hazardous material, requiring clear labeling and safety documentation. During transit, temperature and handling guidelines are maintained to ensure product stability and personnel safety.
    Storage 2-Benzhydrylpiperidine should be stored in a tightly closed container in a cool, dry, and well-ventilated area. Keep away from sources of ignition, incompatible substances, and direct sunlight. Store at room temperature and protect from moisture. Properly label the storage container, and ensure restricted access to authorized personnel only. Follow all safety protocols for handling and storage of chemical substances.
    Application of 2-Benzhydrylpiperidine

    Applications of 2-Benzhydrylpiperidine in Industrial Manufacturing

    2-Benzhydrylpiperidine serves as a specialized intermediate for advanced chemical synthesis across multiple downstream sectors. We manufacture to precise industry requirements, enabling integration into demanding formulations and regulated applications for global industrial clients.

    1. Active Pharmaceutical Ingredient (API) Synthesis in CNS Drug Development

    This compound plays a pivotal role as a core intermediate for new central nervous system (CNS) medication candidates, especially for compounds targeting neurological pathways. Major pharmaceutical companies utilize our material in the synthesis route for several clinical-stage and marketed CNS drugs due to its unique structure and reactivity profile. Formulators consider the impurity profile, stability, and regulatory acceptance at every stage of late-phase development and commercial launch.

    Industry compliance standards

    • ICH Q7 GMP guidelines for API manufacturing
    • USP/NF and Ph. Eur. monographs for relevant finished formulations
    • US FDA 21 CFR Part 211 on finished pharmaceuticals
    • European Medicines Agency (EMA) risk-based GMP API registration

    Typical usage ratio

    • 3–8% w/w of total synthetic process; adjusted based on target API purity and yield optimization studies

    Downstream process integration

    • Introduced during mid-stage reaction steps as a backbone precursor in multi-step CNS agent synthesis, followed by functional group derivatization

    Final product types

    • Active pharmaceutical ingredients for CNS drug formulations
    • Clinical trial material for neuromodulator compounds
    • Commercial bulk APIs for mental health and neurological disorder medications

    2. Advanced Intermediate for Specialty Fine Chemical Manufacturing

    Fine chemical producers use this compound as an advanced intermediate in the synthesis of customized organic molecules. Its unique aromatic and piperidine structure supports the creation of ligands, specialty catalysts, and diverse functional compounds required for agrochemicals, electronic materials, and research reagents. Precise batch traceability and analytical purity are critical throughout the supply chain for regulated B2B partners.

    Industry compliance standards

    • REACH registration for European downstream users
    • ISO 9001:2015 quality management certification for fine chemical plants
    • Strict adherence to customer-specific analytical specifications (NMR, GC-MS, HPLC)
    • Responsible Care® program for health, safety, and environment

    Typical usage ratio

    • 5–15% w/w, dependent on the complexity of the final molecule and yield requirements in custom synthesis

    Downstream process integration

    • Reacted as a coupling partner or functional group donor in batch and continuous advanced synthesis operations

    Final product types

    • High-value ligands for catalysis
    • Specialty reagents for organic synthesis labs
    • Functionalized intermediates for performance chemicals

    3. Building Block for Agrochemical Synthesis

    Formulators in the crop protection industry utilize this material as a scaffold in the design of new-generation agrochemical actives. The product’s aromatic piperidine structure supports the development of active ingredients with improved selectivity and resistance management profiles. Agrochemical companies require full upstream traceability and compliance with environmental safety protocols throughout process development and scale-up.

    Industry compliance standards

    • FAO/WHO guidelines for technical active substances in crop protection
    • OECD GLP for analytical data and safety studies
    • European PPP (Plant Protection Product) regulation 1107/2009
    • Agrochemical impurity profile standards (CIPAC)

    Typical usage ratio

    • 6–18% w/w, according to end-use molecule structure and laboratory potency testing

    Downstream process integration

    • Employed in condensation or derivatization steps as a fundamental backbone in active ingredient synthesis

    Final product types

    • Herbicide and insecticide actives
    • Seed treatment formulations
    • Intermediate block for regulatory reference standards

    4. Precursor for Polymer Modifier Production

    In advanced materials manufacturing, downstream users employ this compound as a monofunctional modifier for specialty polymers. Its integration into select polymer backbones enables the production of high-performance resins with tailored dielectric or mechanical properties for electronics, automotive, and aerospace industry applications. Manufacturers demand robust chain-of-custody documentation and conformance to materials safety standards for bulk chemical shipments.

    Industry compliance standards

    • ISO 9001 and ISO 14001 for manufacturing and environmental management
    • RoHS compliance for electronics applications
    • EU REACH SVHC (Substances of Very High Concern) compliance
    • Material safety data communication under GHS/CLP

    Typical usage ratio

    • 1–4% w/w as a functional additive; precise ratio determined by target physical property enhancement in copolymers or blends

    Downstream process integration

    • Added during polymerization as a chain modifier or post-polymerization as a reactive blend component

    Final product types

    • High-durability thermoplastic or thermoset resins
    • Conductive and antistatic polymer components
    • Specialty encapsulants for electronics assemblies

    5. Intermediate in Performance Coating Chemical Synthesis

    Producers of industrial coatings harness this compound as a feedstock for synthesizing additives that improve adhesion, curing behavior, and durability in end-user systems. The material supports chemistry for corrosion inhibitor packages and specialty crosslinkers, accommodating diverse manufacturing methods from solvent-borne to radiation-curable systems. Manufacturers emphasize batch uniformity, compliance testing, and alignment with global chemical inventory policies.

    Industry compliance standards

    • TSCA inventory status for US-based coatings companies
    • EU REACH notification for import and market release
    • ISO 12944 coating performance standards
    • VOC content restrictions per local regulatory frameworks

    Typical usage ratio

    • 0.5–2.5% w/w within custom additive blends or specialty resin batches, adjusted by final application and field performance testing

    Downstream process integration

    • Integrated in additive synthesis phase or as a modifier in the resin backbone prior to compounding or blending

    Final product types

    • Anti-corrosive coating additives
    • Performance crosslinker agents for industrial paints
    • Functional coatings for metal and composite substrates
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    Certification & Compliance
    More Introduction

    Introducing 2-Benzhydrylpiperidine: Experience from the Manufacturing Floor

    Understanding 2-Benzhydrylpiperidine: Built on Precision

    In the fine chemical world, each molecule comes with its own set of challenges and opportunities. We have been making 2-Benzhydrylpiperidine for years, a product that doesn’t often get the spotlight outside a specialist circle, but plays a quiet essential role for researchers and advanced chemical synthesis. With a molecular formula of C18H21N and CAS number 5445-22-3, this solid material stands out immediately for its unique structure and the performance it delivers in practical use. We produce it in controlled lots, paying close attention to purity levels that our own labs and high-level R&D teams demand: typical minimum purity sits at 98%, with nearly all lots tested for trace contaminants before release.

    We see requests come from both pharmaceutical explorations and organic synthesis R&D, driven by the piperidine core topped with two benzyl “arms” on the nitrogen. This structure gives 2-Benzhydrylpiperidine a special kind of reactivity profile. In our experience, researchers leverage this molecule where selective amination or derivatization calls for a robust, sterically protected base, substantially limiting side reactions. In practical terms, folks in our labs often comment that customizing further structures around this core proves more efficient than relying on run-of-the-mill piperidine derivatives, which rarely match this balance of accessibility and functional flexibility.

    Physical Characteristics: How Real-World Manufacturing Shapes 2-Benzhydrylpiperidine

    Producing a compound as specific as 2-Benzhydrylpiperidine isn’t a plug-and-play operation. Day-to-day, batches come out as white to off-white crystalline powder, and the purity does not just fulfill a checkbox on paperwork—quality in this range means you can trust downstream results. Melting points typically stand within the narrow window of 47–51 °C, an indicator we check for in every lot as confirmation of both identity and process stability. We standardize our processes, but remain responsive to the subtle differences that signal batch-to-batch consistency.

    We package the product after thorough drying under vacuum, minimizing the risk of moisture contamination that would otherwise jeopardize both storage life and application integrity. Each lot moves from reactor to drum after a full panel of GC and NMR confirmation—every time, without exception. We don’t cut corners on analytics because we have seen what happens if any step gets rushed or skipped, in ruined customer runs or mishandled downstream synthesis, wasting valuable research time.

    Applications: Real Stories from Practical Use

    Feedback from both academic researchers and industrial partners keeps shaping our standards for 2-Benzhydrylpiperidine. The compound’s steric profile, which stems from those benzhydryl groups around the piperidine nitrogen, brings game-changing selectivity to alkylation and acylation reactions. In our own development work, we have used 2-Benzhydrylpiperidine most successfully as a building block for CNS-targeted drug candidates, a role where both high purity and well-controlled reactivity are mission critical. Small differences in impurity levels—trace by-products from the piperidine ring or the benzhydryl substituents—can ruin a multi-step logic in medicinal chemistry efforts, and the molecules we make for these labs reflect this reality.

    Pharmaceutical groups depend on this product to build library scaffolds, especially in early-stage syntheses where one bad impurity can skew entire biological screens. In our experience, 2-Benzhydrylpiperidine unlocks opportunities that simpler piperidine derivatives cannot. Standard piperidine or N-benzylpiperidine tend to generate more diverse sets of side-products, which complicates downstream chromatographic separation and worsens yield. That has never been just a theoretical issue: we have handled dozens of calls from synthetic chemists who described how switching to our 2-Benzhydrylpiperidine slashed purification times and stabilized their overall project reliability.

    How 2-Benzhydrylpiperidine Differs from Other Piperidine Derivatives

    Working hands-on with multiple piperidine compounds daily, we’re not swayed by textbook equivalencies. 2-Benzhydrylpiperidine stands out, both in the lab and in broader-scale reactions, for its bulky benzhydryl protection. This subtle element makes it more than a simple piperidine N-derivative. The protective effect of the two phenyl rings means this molecule resists unexpected N-dealkylation or ring opening. We have seen this first-hand: where N-methylpiperidine or N-benzylpiperidine might survive mild reaction conditions, only 2-Benzhydrylpiperidine provides the insulation needed for harsher transformations without structural breakdown.

    The increased steric bulk also slows down unwelcome overalkylation and reduces the formation of side-chain rearranged by-products. Our scale-up teams appreciate how this prevents issues they have struggled with during early-phase process routes on other nitrogen heterocycles. Instead of seeing a mess of minor, hard-to-remove by-products, 2-Benzhydrylpiperidine typically delivers cleaner reaction outputs even when conditions must push temperature or exposure times. Colleagues in process development trace this benefit directly to the benzhydryl groups, and lab notes over the years keep confirming the difference.

    Comparing 2-Benzhydrylpiperidine to more commonly available piperidines brings up another angle—we consistently field requests for both products and often troubleshoot alongside customers. Many organic chemists start with familiar piperidine or its single-substituted analogs, but most times they report setbacks from high volatility or interference with analytical signals. The dual benzyl approach in 2-Benzhydrylpiperidine supports improved handling: non-hygroscopic, easy to weigh, and less prone to decomposing during storage or shipping. We have delivered temperature-stressed samples across continents with negligible degradation, a fact confirmed by independent retesting.

    Long-Term Storage and Handling: Insights from Experience

    Caring for specialty chemicals means seeing beyond their shelf life dates and safety data sheets. 2-Benzhydrylpiperidine, as it comes from our reactors, retains its structure and reactivity profile for extended periods under common laboratory storage. Samples stored for well over a year in the original container—tight caps, no added desiccant—still perform with consistent melting points and analytical signatures. Many of our clients only order at intervals of several months, confident that the product will remain unchanged on their end.

    We have run multiple stability studies in-house: containers stored at room-temperature, 2–8 °C refrigeration, and under mild heat. All have shown no dangerous packing of moisture or decomposition, not even after repeated entry and resealing in the drum. This reliability removes anxiety for teams who cannot always use a drum as soon as it arrives. We find this characteristic especially important for process scale-ups, where chemicals might sit for weeks before large-scale runs. Our lab techs themselves prefer 2-Benzhydrylpiperidine to standard amines for exactly this reason; wasted material is less of a concern.

    Customer Experience Drives Better Chemistry

    Feedback loops shape any chemical manufacturing operation, but few products illustrate this better than specialized piperidines. More than once, pharmaceutical companies and academic groups have come back to us, reporting unanticipated incompatibilities or yield drops using other vendors’ product. Many of those stories stemmed from resin-bound impurities or incomplete NMR fingerprints—issues our own team learned to watch for, sometimes through painful experience. Troubleshooting with these groups helped us fine-tune every critical aspect: choosing solvent systems, eliminating problematic by-products at the isolation stage, and solidifying analytical protocols.

    We believe in the value of real face-to-face problem solving. One memorable instance involved a discovery lab struggling with high assay variance using 2-Benzhydrylpiperidine sourced from overseas. Detailed review with their chemists uncovered a persistent phenylated impurity, likely from a poorly controlled reductive amination stage at a different plant. Sharing our process details—including how we prevent hydrogenation over-reduction—reassured their quality team and secured a long-term partnership for both sides.

    Ongoing communication makes us sharper. Customer in-house checks sometimes pick up subtleties that aren’t flagged by routine analytical screening. Through these partnerships, we have updated both our sampling protocols and our default analytical settings, knowing real-world chemistry rarely stops at ideal purity metrics. Having direct access to chemists—rather than layers of distribution—lets us close the feedback loop quickly and accurately, with a singular focus on continuous process improvement.

    Quality Assurance: Lessons the Market Doesn’t Teach

    We have made our share of mistakes over the years. One recurring lesson in specialty chemical production concerns analytical rigor. Early on, it seemed tempting to trust off-the-rack purities from bulk raw material suppliers or to rely on broad-spectrum GC traces that ignored low-level unknowns. Experience quickly showed how a few stray peaks at 0.2% can torpedo downstream chemistry. Whether that manifests as sluggish reactions, odd odors, or outright analytical mismatches, our teams learned to catch these issues at the source by investing heavily in modern NMR, GC-MS, and mass spectrometry.

    It helps to remember that product characterization is not just an exercise for paperwork. The labs using 2-Benzhydrylpiperidine rely on each lot for precision synthesis, and our early missteps with user complaints still shape our mindset. Today, every batch gets fingerprinted against historical references, and the analytical package leaves with a copy for both our own records and our customers. We keep archived samples from every lot—nothing gets recycled—so that any downstream problem can be traced back and rectified quickly.

    Training and skills transfer play a steady hand as well. As younger chemists cycle into our labs, we pass down the cautionary stories: mistakes made during washing or drying can slip by without a seasoned pair of eyes. The experience of handling both small research lots and multi-kilo production drums requires real exposure, alongside the deeper instincts that come from fixing things when they go off course. We measure success not in certificates but in the feedback from teams that rely on our 2-Benzhydrylpiperidine for weeks and months at a time.

    Responsible Stewardship: Environmental and Safety Considerations

    Making 2-Benzhydrylpiperidine comes with environmental responsibilities. Our approach keeps solvent use to a minimum, favoring lower-emission systems and capturing waste streams for reclamation wherever possible. Piperidine derivatives can generate strong, sometimes unpleasant odors; active investment in scrubber technology for our exhaust systems has paid off in both safety and workplace satisfaction. Compared to standard piperidines, handling 2-Benzhydrylpiperidine is relatively straightforward thanks to its low volatility and solid state, but every step—mixing, filtering, or packaging—still warrants protective gear and basic operational vigilance.

    We maintain clear lines for spill management and ensure all waste products, whether residual benzhydryl fractions or spent filtrates, enter registered disposal or recycling channels. Ongoing regulatory changes impact production, and we work directly with local agencies and environmental consultants to prevent any surprise compliance gaps. Our emphasis on closed-system operation and vapor capture, picked up over years of trial and error, stands as much a practical necessity as a legal or ethical commitment.

    Addressing Manufacturing Challenges

    No specialty molecule escapes the threat of supply bottlenecks. The starting materials for 2-Benzhydrylpiperidine, especially the source benzhydryl chloride and piperidine stock, have faced occasional shortages or price spikes driven by global trends and regulatory inspections of upstream plants. Through direct supplier engagement and large-batch smoothing, we set up buffer stocks to handle these swings, rather than passing on backlogs to our customers. Many clients have commented on recovery speed after previous disruptions, citing lot-to-lot consistency as a key continuation of their own R&D pipelines.

    Scaling up production always proves a challenge for niche compounds. Our teams have learned to adjust stirring, temperature, and solvent ratios to move from flask to reactor without quality drops. Direct in-lab observations—crystallization, cake filtration, solvent recovery—create a feedback-rich environment where now-routine tweaks had to be discovered the hard way. With every larger batch, small process differences become amplified. Our quality checks keep pace, drawing from both old-fashioned hand sampling and modern instrument arrays.

    The Forward Path: Experience-Driven Evolution

    Our journey with 2-Benzhydrylpiperidine proves that specialty chemical manufacture depends on consistent application of accumulated lessons. Years spent refining our upstream supply chain, coupled with repeated hands-on troubleshooting in all areas—synthesis, isolation, packaging, logistics—have shaped a product that meets the high repeatability needed by advanced research clients. We revisit supplier qualifications yearly and invest in staff training so new faces pick up on past process glitches. Chemists trust our material because we don’t hide or gloss over problems; every challenge forms part of our evolving protocol.

    In the end, the metric that counts is reliability. We care as much about post-shipment experience as we do about meeting spec sheets and compliance. Ongoing dialogue with users, openness to real feedback, and a willingness to revisit our methods define how we remain competitive and responsible. We keep a tight feedback loop from our own production benches to your workstations, and as science keeps pushing boundaries, we share that drive for excellence and rigor.

    From the first lot to our next iteration, we believe in refining each step—synthesis, handling, delivery, feedback. 2-Benzhydrylpiperidine has grown from a technical specialty into a trusted solution for teams who value robust quality and direct support. In every drum or bottle that leaves our plant, we see more than just a product code: we see the accumulated knowledge, partnership, and problem-solving that keeps today’s advanced chemistry moving ahead.