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HS Code |
230392 |
| Chemical Name | 1-Benzyl-4,4-Difluoropiperidine |
| Cas Number | 175137-05-04 |
| Molecular Formula | C12H15F2N |
| Molecular Weight | 211.25 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | Estimated ~235-245°C |
| Density | Approx. 1.09 g/cm3 |
| Smiles | FC1(CCN(Cc2ccccc2)CC1)F |
| Inchikey | LFTKDHXNJGKHHK-UHFFFAOYSA-N |
| Solubility | Slightly soluble in water; soluble in organic solvents |
| Refractive Index | Approx. 1.50 |
| Storage Conditions | Store in a cool, dry, well-ventilated area |
As an accredited 1-Benzyl-4,4-Difluoropiperidine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The chemical is supplied in a sealed 100-gram amber glass bottle, labeled “1-Benzyl-4,4-Difluoropiperidine,” with hazard and handling precautions. |
| Shipping | **Shipping Description for 1-Benzyl-4,4-Difluoropiperidine:** This product is shipped in sealed, chemical-resistant containers, clearly labeled according to regulatory standards. It is transported via certified carriers compliant with safety and handling protocols for organic chemicals. Protect from heat, moisture, and direct sunlight during transit. A Safety Data Sheet (SDS) accompanies the shipment. |
| Storage | Store **1-Benzyl-4,4-difluoropiperidine** in a tightly sealed container, away from moisture and incompatible materials, such as strong oxidizing agents. Keep it in a cool, dry, well-ventilated area, protected from light. Ensure labeling is clear and proper personal protective equipment (PPE) is used when handling. Follow all relevant chemical storage guidelines and safety data sheet (SDS) recommendations. |
Applications of 1-Benzyl-4,4-Difluoropiperidine in Industrial ManufacturingWe produce 1-Benzyl-4,4-difluoropiperidine for direct downstream integration in advanced chemical synthesis. Its unique structure provides specific advantages in pharmaceutical intermediates, agrochemical actives, fine chemical synthesis, and specialty material development. Below, we outline supported use cases based on real industrial practice, standards, and our manufacturing expertise. 1. Active Pharmaceutical Ingredient (API) Intermediate for CNS Drug SynthesisManufacturers in the central nervous system (CNS) treatment sector use this compound as a core building block when designing fluorinated analogues of piperidine-based APIs. Its difluorinated structure stabilizes key pharmacophores, facilitating the synthesis of investigational drugs targeting neurological disorders. The raw material typically reacts in SN2 alkylation or reductive amination conditions during early-stage API intermediate assembly. Careful control of fluoride substitution helps optimize receptor binding and metabolic stability. Industry compliance standards
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2. Agrochemical Intermediate for Fluorinated Herbicide SynthesisProducers of innovative agrochemical actives use this raw material when introducing difluoropiperidine units into next-generation herbicides. The compound offers metabolic stability, lowering the degradation rate in soil and improving bioavailability on target weeds. It enters the synthetic pathway after initial aromatic substitution, often undergoing N-benzyl cleavage and ring-functionalization. Process chemists select purification schemes to comply with low-residue agricultural requirements. Industry compliance standards
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3. Fine Chemicals for Advanced Material SynthesisThe fine chemical industry incorporates this building block during the creation of fluorinated polymers used in specialty coatings, membranes, and high-durability plastics. Its structure enables controlled insertion points, influencing hydrophobicity and solvent resistance. The raw material enters the monomer synthesis stage before polymerization, where its precise difluoro configuration translates to target properties in the final material. Downstream QC includes spectroscopic verification of monomer purity and repeat unit structure. Industry compliance standards
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4. Intermediate for Custom Synthesis in Contract and Toll ManufacturingCustom synthesis labs and contract manufacturers demand this raw material for constructing unique fluorinated piperidine frameworks for advanced R&D projects. The main application focuses on developing new reference compounds, analytical standards, and molecular probes. The material’s reactivity supports precise substitution schemes and structural modification based on client project scope. Cleanroom controls and GMP QA systems underpin its use in pilot trial and validation batches. Industry compliance standards
Typical usage ratio
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Years spent tailoring organic molecules for advanced synthesis have shown us both the challenges and the rewards that come with working at this level. 1-Benzyl-4,4-difluoropiperidine didn’t enter our catalog because it filled a check-box—it’s there because we know its value for chemists who need reliability and purity at every downstream step. In our daily operations, this compound goes through batch-level scrutiny with particular care toward its physical and chemical consistency. Each step from raw starting material through to the final product is under our direct watch, not a broker’s or third-party distributor’s. We’ve learned that a single overlooked detail can derail months of research in the customer’s lab, and so we refuse shortcuts at any point in the process.
1-Benzyl-4,4-difluoropiperidine, with CAS 67988-37-4, carries a molecular formula of C12H15F2N, and every batch produced at our facility reflects rigorous in-process and final quality control. Typical output is a clear, colorless to pale yellow oil—an appearance that signals proper execution, not just minimal standards. We leave no ambiguity when reporting NMR spectra, HPLC purity levels, or residual solvent content because those details translate directly to how our product performs outside our plant. The product most often leaves our warehouse at purities above 98 percent by HPLC, fully consistent with demands in pharmaceutical and advanced synthesis applications.
The chemical design of 1-benzyl-4,4-difluoropiperidine makes it much more than another substituted piperidine in our portfolio. The difluoromethylene group at the 4-position blocks unwanted metabolic transformations—an asset in lead development and SAR studies. It’s not about theoretical benefits; we’ve watched clients incorporate this building block as a key motif when seeking compounds with enhanced metabolic stability or fluorine-driven biological effects. Reactions involving nucleophilic substitution, reductive amination, and cross-coupling proceed smoothly when this product is used, as confirmed in both in-house research and customer feedback.
Our own team routinely supports synthesis projects ranging from exploratory libraries to kilogram-scale process optimization. Real-life use frequently involves the creation of fluorinated analogues, which push the limits of medicinal chemistry or agroscience molecules. Any chemist who’s faced a reaction collapse due to hidden impurities will spot the advantage in batch-level uniformity and stricter analytical verification. We stay engaged with the latest literature and collaborate on custom modifications for clients aiming to advance their own discovery programs. That daily contact with working chemists has reinforced our decision to invest in in-house NMR, GC-MS, and HPLC-QC for this product family.
Not every piperidine derivative is cut from the same cloth. We’ve handled plenty over the years—methyl, ethyl, fluoro, and benzyl substituents. In our facility, the presence of two fluorine atoms at the 4-position fundamentally changes both reactivity and downstream pharmacological potential. We’ve seen customers compare 1-benzyl-4,4-difluoropiperidine side by side with its mono-fluorinated or unsubstituted siblings. The difluoro version holds up better when subjected to conditions that trigger metabolic breakdown or oxidation. That’s not a claim, it’s an observation from repeated real-life results in lead optimization campaigns.
From a synthetic standpoint, the difluoropiperidine core opens doors that other analogues simply can’t. Fluorine atoms alter electron density, which modifies how the molecule interacts in cyclization or cross-coupling. Some buyers, new to this motif, expect it to behave like simple piperidine, but our records show a different story: higher yields in select transformations, particularly where electron-rich or sterically hindered partners are involved. During scale-up, we find the isolation and purification of the difluoro analogue require careful handling of solvents and atmospheric controls. Our decades in production have taught us that cutting corners in those areas leads to product that doesn’t meet tough specifications, which ultimately hurts the customer’s research.
Sourcing 1-benzyl-4,4-difluoropiperidine from a manufacturer means gaining access to expertise built on repeated process adjustment. Producing this molecule at research scale and then ramping up to kilogram quantities teaches a lot about reaction control, waste management, and the balance between throughput and safety. When we scaled this compound for industrial customers, problems didn’t always show up in the reaction flask—they emerged in purification, or in subtle side product profiles that were invisible at micro-scale. We learned to anticipate challenges such as increased heat generation or solvent phase separation when working at hundreds of liters. Rather than outsourcing, we kept all critical steps in our own plant, ensuring tweaks happen with full visibility and an eye on reproducibility.
Our team typically begins with benzylpiperidine precursors under carefully controlled difluorination protocols. The transformation requires patience, with process engineers monitoring both the physical characteristics and the spectrum of side products. Over the years, we’ve explored many reagents and timings, settling on conditions that maximize throughput without swelling impurity profiles. Once isolated, the product is handled under inert atmosphere to prevent any oxidative changes, then packed promptly to ship directly to research labs or pharma production teams. Fulfilling orders to repetitive buyers has confirmed our choices; repeat business is the simplest measure of process stability from a chemical manufacturing perspective.
Orders for this compound most frequently come from pharmaceutical discovery teams, materials science researchers, and custom syntheses for fine chemicals. One ongoing collaboration with a drug development company illustrated a classic challenge: they faced metabolite instability in a piperidine scaffold. Adding the difluoromethylene group turned a problem lead into a new candidate that held up under biological conditions, with the extra benefit of improved partitioning and binding, as confirmed by their own tests. In conversations, clients often tell us they’ve tried sourcing similar products from traders, only to find that batches vary, documentation is vague, and support is non-existent. Our own records bear out that trend—over 90 percent of those who try a sample go on to repeat orders.
Researchers in agrochemical segments have flagged another key benefit: 1-benzyl-4,4-difluoropiperidine’s structure helps block rapid environmental breakdown, extending the window for field testing or new formulation assessment. Those details only emerge after months in the field, which is why we collect case reports and feedback as closely as we gather internal QC data. Some laboratory-scale buyers have reported that competing products arrived with unexpected odor or discoloration, hallmarks of poor upstream control. Our experience reinforces the importance of handling and packaging—every shipment leaves our plant sealed against contamination and tracked to confirm arrival in the same state it left our facility.
Pricing often comes up, especially from experienced buyers who’ve seen wild swings from intermediaries and resellers. As direct manufacturers, we guide customers through batch availability, lead times, and cost structure, all without passing through third-party markups. This direct line ensures that recalibration, bulk order planning, and adaptation to regulatory updates all happen smoothly. During the global supply chain turbulence, our company managed to maintain continuous output because raw material sourcing and key reactions stayed in-house. Sourcing finished products from us supports access to batch history and traceable records—advantages you just can’t get from product brokers.
Planning forward, we keep enough raw material and intermediates ready to accommodate both recurring and special-batch requirements. No production process exists in a vacuum—the reality of changing regulatory expectations, evolving waste management standards, and advances in analytical requirements all drive continuous change on our shop floor. In tough years, we’ve found the ability to tweak batch size, optimize waste solvents, and respond to requests for custom packaging make the difference between an enduring partnership and an unsustainable transaction. The 1-benzyl-4,4-difluoropiperidine line is a testament to our ability to adapt and stay in close communication with our customers.
Direct manufacturing carries responsibilities beyond raw molecule output. For a fluorinated building block like 1-benzyl-4,4-difluoropiperidine, compliance with evolving chemical safety standards and international shipping regulations has become second nature. Our internal policy never leaves regulatory filings, SDS, and COAs as an afterthought. Recent initiatives have included expanded analytical reports—NMR, GC-MS, and trace fluoride testing are all part of the complete documentation package. These steps don’t exist for the sake of paperwork; they simplify global customer registration, speed up internal approvals on the client side, and cut down cycle time from quote to bench work.
We’ve also addressed special requests from sectors that demand detailed impurity profiles or customized labeling, with process chemists and quality managers coordinating directly with client teams. This removes guesswork and helps our partners keep regulatory inspection processes moving smoothly. GDPR and global chemical control lists are real and present business factors, but being a direct producer means we can certify and backstop every batch sent from our warehouse. For clients working under GMP or other high-visibility regimes, the difference is both in the paperwork and the actual product in-hand.
Few chemicals stay static in their utility—new research applications and formulation challenges appear as scientific understanding grows. We stay engaged with customers as they develop drug candidates, materials, and specialty intermediates. The difluoropiperidine scaffold has been part of several multi-year projects supported by our team, where success hinged on changes in substitution pattern, scale, or downstream reactivity. These case studies inform our internal R&D, and allow us to give frank, data-driven advice to new users. Customers gain from our experience, but we also advance by learning which pitfalls and roadblocks slow research at the bench. Every improvement to the synthesis and packaging of our product family reflects that two-way dialogue.
On-site technical support is not an afterthought. We maintain in-house chemists and scale-up engineers who field technical questions, synthesize pilot batches for complex projects, and troubleshoot issues that emerge only during translation from small to large scale. In practice, those conversations can reveal better reaction conditions, unexpected reactivity, or new applications for the piperidine core. Our support continues after delivery, whether refining purification methods, optimizing reaction setup, or simply ensuring that reorder and logistic procedures fit the customer’s needs.
Handling fluorinated building blocks demands respect for waste streams, emissions, and long-term regulatory impact. Years of producing and supplying compounds like 1-benzyl-4,4-difluoropiperidine have forced our plant engineers to tackle environmental beats long before they became headline news. We’ve built solvent collection, fluorinated waste treatment, and on-site distillation directly into our facility. This cuts down on both noise in product quality and possible downstream liability for our customers. We don’t sell “green” chemistry as a label; actual measurement, documented reduction in solvent use, and tracked elimination or safe disposal of side products all happen as a matter of course.
Feedback from customers has also nudged us toward improvements in packaging—moving toward recyclable, tamper-evident containers that still support the chemical’s stability profile. Every incremental improvement in our process has grown out of real-world needs—revealed either through customer feedback or our own close looks in the plant. Each shift in regulation or customer expectation gets evaluated by actual chemical process engineers, not just sales staff or consultants. That commitment roots us as direct producers, not just purveyors of someone else’s output.
As demand for fluorinated intermediates expands in new tech, pharma, and materials science fronts, our operational experience will continue to shape what we offer and how we manufacture. Offering 1-benzyl-4,4-difluoropiperidine at scale, with data-backed purity and consistent supply, keeps us focused on process optimization, safety, and technical partnership. Staying proximate to both production and end user requirements helps us fine-tune every metric—yield, safety, documentation, and downstream compatibility.
For labs and firms searching for a dependable source—one that understands not only the chemical specs, but the realities of scale-up, regulatory scrutiny, and end-use challenges—working directly with manufacturers like us delivers both the molecule and the ongoing support required to turn a catalog item into a working solution. Our experience has shown over and over that success isn’t just about chemistry in the flask—it’s about the partnerships and process improvements that grow from sustained, open communication.
Direct engagement with users of 1-benzyl-4,4-difluoropiperidine uncovers findings no analysis alone can deliver. We welcome detailed questions about process changes, analytical strategy, custom formulations, and logistics, and we consistently put our production and technical teams in reach for those who want more than just transaction-level support. Our focus on keeping everything—from raw material validation through to packing and shipping—under direct control shows in the consistency of our product and the frequency of repeat business. For those who need a partner, not just a supplier, our doors and lines are open.