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HS Code |
732932 |
| Chemical Name | 4-Piperidin-1-yl-benzaldehyde |
| Molecular Formula | C12H15NO |
| Molecular Weight | 189.25 g/mol |
| Cas Number | 116720-68-6 |
| Appearance | White to off-white solid |
| Solubility | Soluble in organic solvents such as DMSO and methanol |
| Purity | Typically ≥98% |
| Smiles | C1CCN(CC1)C2=CC=C(C=C2)C=O |
| Inchi | InChI=1S/C12H15NO/c14-10-11-2-4-12(5-3-11)13-8-6-1-7-9-13/h2-5,10H,1,6-9H2 |
As an accredited 4-Piperidin-1-Yl-Benzaldehyde factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging for 4-Piperidin-1-Yl-Benzaldehyde (25g) is a sealed amber glass bottle with a tamper-evident cap and clear labeling. |
| Shipping | 4-Piperidin-1-yl-benzaldehyde is shipped in tightly sealed containers to prevent moisture and air exposure. It is packed according to chemical safety regulations, with appropriate hazard labeling. The shipment is handled by authorized carriers, ensuring temperature control and compliance with local and international chemical transport laws. Safety data sheets accompany all shipments. |
| Storage | 4-Piperidin-1-yl-benzaldehyde should be stored in a tightly sealed container, away from light, moisture, and incompatible substances such as strong oxidizers. Store it in a cool, dry, well-ventilated area, preferably under an inert atmosphere like nitrogen. Keep at room temperature or as indicated on the label. Ensure proper labeling and access only to trained personnel to prevent accidental exposure. |
Applications of 4-Piperidin-1-Yl-Benzaldehyde in Industrial ManufacturingAs a direct manufacturer of 4-Piperidin-1-Yl-Benzaldehyde, we supply this advanced intermediate to highly regulated downstream industries. Each sector below highlights precise industrial uses, with a focus on compliance, formulation, process, and finished goods. 1. Pharmaceutical Intermediate for CNS-Active Drug Synthesis4-Piperidin-1-Yl-Benzaldehyde serves as a critical intermediate in synthesizing central nervous system (CNS) pharmaceutical agents, especially atypical antipsychotics and cognitive enhancers. Manufacturers incorporate this compound during the construction of key heterocyclic structures, essential for targeted CNS activity profiles. The material joins the synthetic process at the stage of pivotal condensation or reductive amination, followed by downstream validation and quality assurance in finished API production. Industry compliance standards
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2. Fine Chemical Intermediate in Agrochemical SynthesisDownstream agrochemical manufacturers utilize 4-Piperidin-1-Yl-Benzaldehyde when constructing selective insecticides and seed treatment agents. The compound supplies the piperidine motif needed for enhanced bioactivity and systemic uptake in plants. Typically, this material undergoes imine formation with selectable nucleophilic partners, followed by deprotection, and introduction into the main active ingredient backbone with in-line monitoring and purification. Industry compliance standards
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3. Building Block for Advanced Dye and Pigment SynthesisSpecialty dye manufacturers employ 4-Piperidin-1-Yl-Benzaldehyde in the creation of high-performance organic colorants aimed at advanced textile and electronic applications. This aldehyde is key to assembling chromophore architectures with tailored electronic properties, and it enters the process during Schiff base formation, as well as downstream oxidation or reduction for structural modification. Strict controls on trace organic and metal impurities guide its integration into final dye lots used in critical industrial finishing processes. Industry compliance standards
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4. Key Precursor in Organic Electronic Material SynthesisManufacturers of organic semiconductor materials integrate 4-Piperidin-1-Yl-Benzaldehyde into the synthesis of conducting and hole-transport polymers used in organic light-emitting diodes (OLEDs) and advanced sensor applications. The compound’s piperidine unit imbues increased carrier mobility and film stability. Its integration takes place during the condensation or polymerization precursor assembly, with meticulous control over structural defect levels and residual aldehyde traces vital to device performance and reliability. Industry compliance standards
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5. Synthesis Intermediate for Custom Fragrance AldehydesThe fragrance and aroma chemical industry leverages 4-Piperidin-1-Yl-Benzaldehyde as a specialized precursor in aldehyde synthesis for premium scent compositions. During downstream processing, manufacturers incorporate the material in aldehyde condensation reactions to produce novel fragrance notes, maintaining strict regulatory compliance for consumer products. Processes rely on fine-tuned purification and GC-MS based residue analysis, with formulation scaled to the olfactory intensity requirements of high-end perfumes and personal care goods. Industry compliance standards
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At our chemical factory, producing 4-Piperidin-1-Yl-Benzaldehyde isn’t just a routine. Many manufacturers treat this benzaldehyde derivative as a simple synthetic intermediate. From our experience, its performance in applications lives or dies by the raw piperidine, process sequence, and tight moisture control during every manufacturing step. Having spent years handling piperidine derivatives, we know every variable leaves a mark on downstream synthesis, especially when it comes to pharmaceutical or fine chemical markets. Our team routinely encounters end users who need more than just “off-the-shelf” performance, and our story with 4-Piperidin-1-Yl-Benzaldehyde illustrates just how deep that challenge can go.
We produce 4-Piperidin-1-Yl-Benzaldehyde (CAS 94201-55-7) in 25kg HDPE drums, using a controlled batch process built around continuous inline analysis and finishing under nitrogen. Small variances in carbonyl peak purity or residual amine content mean downstream users lose yield or fail analytical release. Our reactors run jacketed with direct digital control, as temperature ramp rates define side product burden—getting that right is crucial for minimizing tars and over-reaction products. While others go for high throughput, our team keeps batch sizes manageable so impurity profiles stay within the strictest QC windows. Analytical support includes NMR and LC-MS on every lot. This isn’t overkill. If you’ve ever lost a kilo of expensive starting material down the drain due to a contaminated aldehyde batch, you understand the pain of settling for less rigor.
Product is off-white to pale yellow, crystalline solid at room temperature—never waxy, pasty, or sticky. Such details might sound trivial. In practice, downstream coupling or condensation steps go off the rails if the base aldehyde picks up moisture or extraneous amines. We store and ship under blanket nitrogen, so by the time it reaches your lab, reactivity matches that at the day of synthesis. It comes with full technical data and real-world impurity breakdown, not just a minimum purity number. From experience, the stories of customers who tried spot purchases from traders, then circled back to us after inconsistent performance, speak volumes.
The chemistry of 4-Piperidin-1-Yl-Benzaldehyde draws attention from medchem groups and custom API projects. Its combination of an activated aromatic ring with a protected amine allows access to a variety of advanced intermediates—especially for CNS active pharmaceuticals and heterocyclic ligands. Users always want to push selectivity and maximize yields in coupling reactions or subsequent reductions, but even subtle shifts in purity or isomer content can spell disaster for scale-up. By controlling the entire chain from raw piperidine to final packing, we chase down those yield-killing outliers, then document specs openly with clients.
During development of a recent NCE for a European pharma group, their original aldehyde supplier overlooked a minor 3% imine contaminant. The change slipped past a basic GC scan. But when gram scale to kilo scale moved ahead, unwanted byproducts forced them to spend weeks optimizing their HPLC purification—and that cost them months and shattered timelines. Our technical support helped them spot the culprit, re-run the final coupling step, and confirm LC integration down to tenths of a percent. As a result, those clients reworked project procurement to lean on single-batch consistency, not lowest price.
In a typical lab purchasing 4-Piperidin-1-Yl-Benzaldehyde, product choice often comes down to a line on a quote sheet: price, purity, and lead time. Chemists ask for 98% minimum, but rarely know where the wriggle room hides. Over the years, we've compared our material side by side with common imports and mass-market lots. Long supply chains make it easy for product to degrade, particularly when containers open and close in humid cargo holds. Even after repacking, we've pulled competitor samples with oxidation artifacts that never show up on our batches. These aldehyde groups are notorious for air sensitivity, reacting with trace water or alcohols. Without strict QC, these tiny shifts cause headaches far downstream.
Another source of trouble comes from resin or glassware contamination. We routinely test glassware with blank runs, since residual byproducts or improper washing chemistry can skew piperidine aldehyde reactivity. That kind of diligence separates a specialty batch-maker from bulk commodity players. End users often find our product dissolves easily in common solvents without visible residue. They report more complete condensation in reductive aminations and fewer chromatographic problems, which allows them to simplify purification protocols and increase total efficiency.
A unique concern with aromatic piperidine-aldehydes is the formation of bis-products during extended storage. Since our plant rotates inventory rapidly and ships only freshly tested material, we avoid buildup of such impurities. By design, every lot from us has matching synthetic and physical properties from start to finish—so scale-up projects or multi-year production runs see no deviation, batch-to-batch, by analytical or process standards. That’s not a coincidence. It’s the result of repeated lessons learned, often at real cost, from projects where a tiny change in feedstock created months of troubleshooting for our own technical team.
Over time, the most illuminating feedback about 4-Piperidin-1-Yl-Benzaldehyde comes not from lab reports, but from the trenches of kilo-scale development. One US-based pharmaceutical company described running a route where their aldehyde supplier’s color and purity ranged widely—yellow to brown, oily to cake-like, sometimes pungent with raw amine odor. The result: unpredictable product, low conversion, frequent batch rejection, and much higher downstream filtration costs. In similar cases, we've advised clients on storage—often keeping short lead inventories and confirming identity and completeness on arrival with quick TLC, NMR, and melting point checks.
We once supported a university group focusing on novel CNS scaffolds, aiming for sharp selectivity in Schiff base formation and subsequent ring closures. Their core finding after switching to our lot traced the change in intermediate formation rates—our product’s tight specification of less than 0.1% amine and low water content meant their cyclizations pushed completion in hours, not days. In follow-up, they shared reaction times cutting in half, shorter purification runs, and more reproducible NMR profiles for final products.
We routinely hear from industrial chemists working on multi-ton scales, where large batch performance matters. It’s in these environments, under pressure to meet milestones quickly, that a consistent aldehyde source leads to cleaner reactions, fewer unit operations, and real reductions in labor and solvent recycle. One specialty chemicals manufacturer documented reducing their waste solvent recovery by a measurable percentage, just due to fewer side products gumming up purification lines—evidence that sharp batch specification translates to less overhead and cleaner green chemistry metrics.
Many suppliers fill demand for 4-Piperidin-1-Yl-Benzaldehyde with large-scale, undifferentiated batches. Price wins on the surface, but this material often tracks with wider impurity envelopes—sometimes tolerated in textiles or perfumery, but nowhere near suited to regulated synthesis. Traders have flooded the market with repackaged intermediates, sometimes years old, and re-labeling occurs more often than most would want to believe. As primary manufacturers, we can assure real transparency about handling, synthesis, and quality. You get the compound as we intended, not the afterthought of a global inventory shuffle.
Making the case for difference comes down to understanding what you plan to build. If your downstream process is high-value or demands significant regulatory oversight, choices made at the early intermediate stage make or break project viability. For every kilo coming from our line, traceability links back to a named production journal, with chemical analysis logged for every step. By contrast, generic market batches usually reveal "out-of-spec" signals only when problems boil over down the line.
We don’t just look at purity by HPLC or GC; we run NMR, sometimes direct mass spec checks to root out low-level signals that predict reaction variance. Internal controls flag any anomalous absorption or side product clustering, which means each lot reflects true structural integrity. If a pharma company requests additional analytical support or special packing, we run these checks without hesitation—the aim is to support whatever scrutiny regulators or process chemists may throw at the project, up to the highest GMP expectations. While not every customer needs such rigor, those who have lived through a failed scale-up appreciate why these details matter. Suppliers who only trade stock or act as brokers simply won’t provide that kind of control over product fate.
There’s always an urge among project managers to see 4-Piperidin-1-Yl-Benzaldehyde as a one-to-one swap with any similar aromatic aldehyde. But listening to customers shapes product development in ways no static specification sheet can forecast. We’ve adapted the process countless times in response to new requests: a slight tweak in crystalline form, tighter moisture profile, or an adjusted packing size to accommodate high-throughput pilot plants. We work with some clients producing advanced CNS drugs or specialty agrochemicals who require unique purification routes. For them, we often run parallel micro-batch sampling to resolve downstream clogging or color formation in final steps.
One memorable development came from a collaboration with a specialty peptide company. They needed the aldehyde in crystalline, dust-free chips rather than powder, which helped their semi-automated feeders avoid clumping. After pilot runs and dialogue with their engineering team, we modified granulation and optimized nitrogen purging conditions. The feedback from their plant team: dramatically improved machine uptime and easier cleaning cycles during peptide synthesis, which is rare to see from minor intermediate tweaks. That experience carries forward to other clients constantly looking for reliability and process-fit packaging.
In other projects, custom analytical support makes a difference. For example, a major Asian fine chemicals producer wanted additional screening for sub-ppm halogen ions. Their chlorinated solvent systems were remarkably sensitive; even a trace impurity could result in memory effects in their resin beds. Tracking contaminants at this level goes beyond regulatory demand, but shows exactly how tailored manufacturing delivers peace of mind, cost savings, and keeps our partnership strong year after year.
While 4-Piperidin-1-Yl-Benzaldehyde offers broad reactivity, its chemistry comes with pitfalls. We’ve documented cases where competitive samples oxidized during transit, or took on unwanted coloration after months in ambient storage. Such signs don’t just affect appearance—they signal aldehyde group changes that limit downstream reactivity. By minimizing light and oxygen exposure, rotating inventory swiftly, and verifying each batch under real-use conditions, our product avoids these pitfalls. Users report minimal color shift, consistent melting points, and expected reactivity in subsequent steps even after storage through harsh seasonal changes.
Reactivity also ties back to crystal size and trace contamination. Where some bulk suppliers run fast filtration and cut corners on drying, we validate vacuum and nitrogen purging protocols for every batch. Our dedicated drying line operates at well-defined pressure and temperature intervals, checked in-process by trained staff. This extra diligence pays off for customers performing sensitive condensations, where water or acidic impurity traces ruin coupling efficiency or cause off-color resin formation. Feedback from multiple end users repeatedly highlights improved process reliability—translating to simpler workups, reduced chromatography needs, and better project timelines in custom synthesis programs.
Longevity matters. Keep any aldehyde too long, especially in less-than-ideal conditions, and shelf-life collapses. With each reorder, our clients comment on the reproducibility of reaction outcomes and the ability to plan inventory without fear of performance drops. That’s a direct result of short cycle times, controlled warehousing, and real technician accountability for every drum that leaves our facility. This approach comes from years of listening to real-world chemists and learning how to meet not just the spec, but the true working needs of a demanding project.
Modern pharmaceutical and specialty chemical producers don’t just assess purity; they often audit supply chains for traceability, documentation, and regulatory compliance. As direct manufacturers, we register our product with every required national body and routinely compile full audit trails for our partners. From raw material lot numbers to synthetic route diagrams, supporting files remain available for client review. When scales move up from grams to hundreds of kilos, due diligence on documentation makes a real difference—smoothing regulatory audits, enabling product registrations, or avoiding import/export issues that stall fast-moving projects.
Our technical documentation doesn’t just cover basic CoA data. For customers with ongoing projects, we offer direct consultation with our chemists and process engineers. This extends from optimized storage tips to joint process-troubleshooting when a new synthetic challenge arises. In one project, a biotech partner flagged a micro-level byproduct that evaded standard QC. Our lab team immediately reran batch analytics, shared chromatographic traces, and worked with their R&D group to define optimal process parameters for high-yield conversion. That “at the bench” approach—often involving shared mouse-keyboard sessions, video calls, and hands-on sample swaps—forms the backbone of our definition of quality manufacturing. Clients trust us because our own chemists stand ready to discuss real issues, in real time, based on firsthand production knowledge, not just literature citations or generic assurances.
Many customers come to us having suffered from unreliable sourcing, hidden costs, or late-breaking compliance issues. The chain reaction often starts with indifference at the point of manufacture. Without attention to synthetic quality or careful packing, even the best-intended project can falter downstream. By keeping every variable under our own control, we sidestep these issues for our partners, providing a consistent platform for advanced chemical development rather than a roll of the dice each batch. For every project that hinges on reproducibility, technical transparency, and chemical quality, we work alongside our clients, adjusting methods, targeted specs, and even warehousing approaches as needed to help them move from lab scale to production quantities without lost time or end-product rejections.
It’s tempting to see chemical intermediates as simple line items, but anyone who’s managed a tight timeline or a high-value project understands quality’s real cost. Every drum, every small change in storage or purity, lands somewhere in a chain of downstream consequences. Years spent on both the bench and in the process plant reinforce our belief: product quality is the sum of hundreds of real choices, from the first raw material order to the moment the drum goes out the warehouse door. While much of the industry focuses on lowest price or speed, our attention stays fixed on honest, consistent performance, open dialogue, and a deep understanding of every client’s true technical challenge. For every customer up against a tough synthetic target or regulatory milestone, that’s the foundation of a truly reliable supplier, and that’s the experience we offer with every lot of 4-Piperidin-1-Yl-Benzaldehyde leaving our line.