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HS Code |
930051 |
| Chemical Name | 4-(2-Keto-1-Benzimidazolinyl)Piperidine |
| Molecular Formula | C12H15N3O |
| Molecular Weight | 217.27 g/mol |
| Cas Number | 39925-16-3 |
| Appearance | White to off-white solid |
| Melting Point | 140-142°C |
| Solubility | Soluble in DMSO, moderately soluble in methanol |
| Purity | Typically ≥98% |
| Storage Conditions | Store at 2-8°C, protected from light and moisture |
| Smiles | O=C1N(C2=CC=CC=C2N1)N3CCC(C3) |
| Synonyms | 1-(Piperidin-4-yl)-1,3-dihydro-2H-benzimidazol-2-one |
| Boiling Point | Decomposes before boiling |
As an accredited 4-(2-Keto-1-Benzimidazolinyl)Piperidine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 4-(2-Keto-1-Benzimidazolinyl)Piperidine is supplied as a white powder in a 10-gram sealed amber glass bottle, labeled. |
| Shipping | **Shipping Description:** 4-(2-Keto-1-Benzimidazolinyl)Piperidine is shipped in tightly sealed, chemical-resistant containers, compliant with applicable transport regulations. The package is clearly labeled for hazardous material handling. Keep away from heat, ignition sources, and incompatible substances. During transit, temperature and moisture control are ensured. Shipping documentation includes safety data sheets and handling instructions. |
| Storage | 4-(2-Keto-1-Benzimidazolinyl)Piperidine should be stored in a tightly sealed container, protected from light and moisture, in a cool, dry, well-ventilated area away from incompatible substances such as strong oxidizing agents. It is recommended to store the chemical at room temperature or as specified on the label, with proper labeling and access limited to authorized personnel. |
Applications of 4-(2-Keto-1-Benzimidazolinyl)Piperidine in Industrial ManufacturingAs a direct manufacturer of 4-(2-Keto-1-Benzimidazolinyl)Piperidine, we supply global B2B customers across several tightly focused industrial sectors. The following application scenarios represent validated downstream pathways where this intermediate plays a critical role in finished product performance, industry conformity, and regulated production systems. 1. Pharmaceutical Active Ingredient Synthesis (CNS Agents)Pharmaceutical companies use this compound as a key building block in the synthesis of central nervous system (CNS) drug candidates, particularly those targeting selective dopamine receptor modulators. Manufacturers employ it in multi-step organic syntheses to construct benzimidazole-containing APIs, supporting both generic and innovative drug development pipelines. The compound enters the workflow typically in the heterocycle assembly or as a coupling intermediate for late-stage functionalization, depending on the target molecule’s substitution pattern and required pharmacophoric alignment. Industry compliance standards
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2. Agrochemical Intermediate for Synthesis of InsecticidesThis intermediate supports downstream agrochemical manufacturers developing heterocyclic pesticides. Its benzimidazolone-piperidine core integrates into active ingredient frameworks of systemic insecticides designed for crop protection. The compound is often used in multi-step synthesis prior to final halogenation or esterification, building structural motifs that impart selective insecticidal activity while meeting residue and toxicological guidelines at the finished product stage. Industry compliance standards
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3. Specialty Polymer Modifier for High-Performance MaterialsChemical manufacturers engaged in specialty polymer synthesis utilize this compound as a heterocyclic modifier for engineering plastics. By introducing the benzimidazoline-piperidine motif into polyamide or polyurethane chains, producers achieve improved thermal stability, flame retardancy, and controlled mechanical flexibility in advanced materials used for electrical insulation, automotive components, and semi-structural applications. The additive enters the process as a copolymerization monomer or a post-polymerization chain extender to tune end-use characteristics to meet application-specific performance requirements. Industry compliance standards
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4. Intermediate in Diagnostic Imaging Agent SynthesisProducers of specialty chemicals for medical imaging employ this compound as a precursor in the assembly of benzimidazole-derived radioligands or fluorescent probes. The specific structure facilitates subsequent radiolabeling or conjugation steps critical for tracer molecule performance in PET and SPECT imaging agents. Its integration at the prefinal conjugation step ensures efficient attachment of radioisotopes or fluorophores, benefiting from its well-defined purity profile and reactivity in medicinal chemistry assembling routes. Industry compliance standards
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5. Advanced Dye and Pigment Intermediate for Electronic DisplaysManufacturers of colorants for high-end electronic displays and printing inks integrate this material into the synthesis of specialty benzimidazole dyes. Its unique reactivity profile supports high-yield construction of chromophores that deliver precise wavelength emission and enhanced photo-stability, essential for OLED displays, laser printing, and security marking applications. The intermediate is typically fed into the pigment synthesis workflow at the condensation or coupling stage, enabling tailor-formed colorant properties for next-generation display technologies. Industry compliance standards
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In chemical manufacturing, certain compounds earn their keep thanks to years of dependable performance. 4-(2-Keto-1-Benzimidazolinyl)Piperidine is one of those, and we have a long track record of producing it efficiently while focusing on value for the end user. Through each batch and every client conversation, we’ve built an understanding of what makes this substance practical beyond its formula.
Our journey with this compound did not start recently. The initial surges in demand reached us during pharmaceutical development projects, especially from process scientists handling complex syntheses involving benzimidazole intermediates or piperidine substituents. Before these requests, most companies relied on bulk catalogue sources, which tended to offer uneven quality. We made sure early batches stood out for their clarity, purity, and consistency. That approach has shaped our way of thinking about the unique qualities and uses for this compound.
4-(2-Keto-1-Benzimidazolinyl)Piperidine has a distinct structure: the piperidine ring is fused through a link to the benzimidazolinyl core, with a ketone functional group at the 2-position. What matters more than any catalogue number is the reproducibility of its structural identity. Over countless cycles, our analytical team built an optimized testing protocol—NMR, mass spectrometry, and HPLC—to verify every lot. We’ve run side-by-side purity assessments against competitors and have consistently achieved set benchmarks, with most customers using our 98%+ material for high-value research.
Every user wants reassurance about batch uniformity. While academic groups sometimes order just a few grams, our more frequent buyers, typically in scale-up or pilot-phase pharmaceutical labs, lean toward multi-kilogram orders. From our own experience, we found that packaging moisture-sensitive compounds like this in double-sealed, pharma-grade LDPE bags inside rigid HDPE drums provides superior stability during shipping and storage.
We monitor for common byproducts: over-reduction of the ketone group, hydrolysis products, and trace amines that sometimes linger after cyclization. Removal of these takes more than a cookie-cutter process. In pilot production, unexpected chromatographic tails prompted us to implement fractional crystallization at a temperature profile mapped out by our own trials. We got to a point where impurity loads dropped below 0.5%, which has made a practical difference in our clients’ downstream productivities.
Don’t discount the ergonomic aspects of chemical manufacturing. Chlorinated solvents usually get the job done, but over time we found switching to greener alternatives such as 2-methyltetrahydrofuran for certain steps—without sacrificing performance. These kinds of details carry real weight during audits and supply chain reviews.
4-(2-Keto-1-Benzimidazolinyl)Piperidine isn’t bulk commodity fare. Most lots are bound for intermediate applications in pharmaceutical research and advanced materials science, especially as a core intermediate for custom heterocycle libraries or as a scaffold for kinase inhibitor discovery. Some of the most interesting use cases come from medicinal chemistry teams. They often modify various positions on the benzimidazole or the piperidine ring, screening a small series of derivatives for biological activity in enzyme inhibition or receptor modulation.
Over the years, a few customers shared back detail on downstream transformations. Most make use of the ketone group as a versatile chemical handle—reduction, reductive amination, or further ring annulations are all common modifications. In one program, a customer used our compound in a palladium-catalyzed arylation to create a novel macrocyclic framework showing promising selectivity for cancer-related pathways. Our synthesis team encountered that route ourselves while exploring side-reactions, and we offered guidance on purification and crystallization to ease the client's workflow.
Process safety often keeps chemists up at night, especially when setting up new transformations with piperidine derivatives. We have been proactive in providing practical feedback: which conditions produce troublesome side-reactions, how to quench remaining starting materials, and how to avoid runaway exotherms with reactive hydride reagents. Over time, these technical exchanges built a rapport with clients, which we keep up through regular post-shipment support.
Other applications have emerged in agrochemical R&D, especially around the benzimidazole core. Researchers exploring fungicidal or insecticidal analogs often start with our product, modifying the scaffold to build a library of candidates for field trial. Purity matters more than anywhere in these applications, as trace impurities compromise bioassay results at sub-milligram concentrations.
Material science groups also occasionally knock on our door for kilo-scale quantities. Their interest typically relates to using either the entire scaffold or specific modified fragments for polymerizable monomers, aiming at custom organic electronic materials. Our well-defined QC protocol gives these innovators the confidence to push forward knowing what’s in (and not in) our bottles.
It’s easy to talk technical terms, much harder to keep up the standards batch after batch. One of the most common patterns we see among shops making small-molecule intermediates is slow drift in purity and batch color. From the beginning, our approach went against the grain: every batch gets a full QC panel beyond COA minimums, and senior chemists review analytical overlays even before packaging. These habits prevented a string of headaches that often plague end users—especially those scaling up for preclinical studies.
Let’s talk about the chemistry. Many third-party suppliers rely on off-the-shelf chemistry, but the devil hides in the reproducibility. From our own records, we traced several failed runs back to overlooked quench stages or non-optimized solvent swaps. Once we built tighter controls and maintained thorough logs, our success rates improved noticeably. This didn’t just please our team; our partners started to send us fewer urgent troubleshooting emails about process upsets.
Another difference comes from the way our team sources upstream raw materials. Some might chase the cheapest option, but we maintain stable relationships with vetted primary producers of both benzimidazole and piperidine fragments. We’ve rejected dozens of off-spec lots over the years, sometimes losing short-term margin, but each time it kept our product line dependable. These are the invisible decisions that shape chemical manufacturing:
Our experienced staff, some of whom have been in the field since the 1990s, often spot subtle visual or olfactory cues missed by less seasoned chemists. Experience talks. This comes into play especially when evaluating blends or troubleshooting a sluggish crystallization.
Handling, labeling, and documentation matter, too. We learned early that chemical batch histories sometimes get muddled. Each time we overhaul paperwork protocols or add barcode tracking hardware, we notice our error rates drop. Fewer documentation errors means real-world traceability if a downstream user flags an issue. Having nothing to hide and everything to show means our clients rarely face expensive production delays.
Many intermediates crowd the market, especially in the realms of benzimidazole and piperidine derivatives. Some customers ask how 4-(2-Keto-1-Benzimidazolinyl)Piperidine stacks up against more basic building blocks like 2-methylbenzimidazole, piperidine hydrochloride, or even acylated piperidines. The answer revolves around versatility and functional compatibility. Kruess and team’s landmark studies in the late 2000s highlighted the adaptability of this scaffold in multi-step synthesis—which we’ve seen our own clients leverage time and again.
What our compound brings to the bench is a convergence of roles: the benzimidazolinyl segment offers aromatic stability and hydrogen bonding opportunities, while the 2-keto group acts as both a point of further modification and a pharmacophore center in early-stage medicinal chemistry. This is distinct from core benzimidazole building blocks, which lack the piperidine ring and functional diversity, limiting their potential for rapid analog synthesis.
Compared to simpler piperidine compounds—which function mainly as basic, saturated heterocycles—our product’s fused structure brings more than just expanded reactivity. For users making chiral or regioselective transformations, having both nitrogen-rich sites and a reactive ketone center creates broader opportunity for coupling reactions, reductive amidations, or metal-catalyzed elaborations. From what we’ve seen, labs deploying this intermediate build complex scaffolds more efficiently, with fewer protection/deprotection cycles, which makes a difference during route scouting or scale-up.
Consistency makes another dividing line. During periods of high demand, some users drift to catalogue brands and then boomerang back after seeing fluctuating impurities or changes in reactivity. We keep close tabs on both quantitative (HPLC purity, residual solvent levels) and qualitative (color, texture) checks. Our chemists recall a series of unusual complaints about sticky residues from a competitor’s batch—tracking down root causes revealed residual DMF solvent not flagged in the competitor’s limited tests. Stories like these underline why process discipline and relentless feedback loops drive real-world results.
The smaller market size for 4-(2-Keto-1-Benzimidazolinyl)Piperidine means that fly-by-night intermediates rarely hit the shelves for long. Our longevity in the field, plus repeated orders over multiple years from demanding pharma and specialty chemical clients, say more than any bullet point or comparison table.
No matter how good a product appears at shipment, surprises happen during scale-up or late-stage optimization. We invest significant time engaging with end users, often troubleshooting issues that rarely make it into published literature. One recurring topic is the behavior of this compound under unusual conditions—be it prolonged exposure to light, unexpected exotherms during catalytic hydrogenation, or batch-to-batch differences in substrate reactivity.
In every challenging situation, our technical team has stepped in with practical solutions grounded in experience. For example, a customer reported cloudiness during a scale-up that analytical methods couldn’t explain. Through dialogue, we traced the issue to a subtle interaction between leftover water in reaction solvents and low-level byproducts from an upstream step. A tweak in drying protocols restored the product’s expected performance, translating to a time savings and lower cost for the customer’s team.
Another example involved a medicinal chemistry project chasing a rare analog. The user hit a bottleneck during N-alkylation, with low conversions traced back to trace basic impurities in the starting material. By refining our purification sequence—including an extra wash at an earlier stage—we supplied a cleaner lot that removed the problematic side reactions, getting the project back on track.
We consider these technical exchanges central to our reputation as a manufacturer. Few things frustrate a bench chemist more than radio silence after a shipment lands. Our role doesn’t end at the warehouse; we keep the line open for clients needing advice on scale-up, purification tweaks, or custom packaging to fit their workflow.
Over the last decade, we’ve paid closer attention to long-term sustainability. Chemical manufacturing often gets tagged as high risk for waste streams or hazardous byproducts. Step by step, we’ve reduced our footprint, both in the processes we use and the packaging we select. For this compound in particular, we minimized reliance on halogenated solvents by optimizing reaction profiles and switching to less resource-intensive options wherever reliable.
Waste handling improved after repeated in-house audits. Our teams recycle or neutralize more solvent residues, removed non-recyclable tertiary amine bases, and installed vapor capture units to cut emissions. Records from our site demonstrate a measurable drop in total organic emissions year over year, and every improvement ends up reflected in our safety audits and client conversations. These points rarely appear in standard datasheets, but clients with strict corporate responsibility mandates often ask—and we share the real numbers upon request.
From pharma clients in North America to researchers in Europe developing new diagnostic agents, we’ve noticed a steady rise in regulatory awareness. Many buyers now probe for production traceability, documented supply chain steps, and environmental performance. By investing early in quality management systems and rigorous batch tracking, we ease these concerns well before they morph into regulatory bottlenecks.
Sustainability goes hand in hand with safety. Over the years, our team refined protocols to minimize exposure and risk, both during in-plant processing and packaging. Training matters: all staff receive practical safety re-education every few months, and we run internal exercises on spill response and reactive chemical handling, fine-tuned to intermediates like 4-(2-Keto-1-Benzimidazolinyl)Piperidine.
Every lot sold brings feedback, and that feedback shapes the next batch. In real manufacturing, the work never settles into easy routine. With each order, customers pose new questions. Some want to run larger batches. Others ask for analytical help if their product or process results look off.
Smart manufacturers pay close attention not just to complaints, but to the odd outlier requests. We’ve been able to accommodate special filtration steps for clients working under unique cGMP requirements, or adapt our labeling protocols for those managing high-security labs. Such collaborations have led to concrete changes in our workflows.
Industry meetings serve as another kind of feedback loop. When we visit with process chemists from years past and hear how a reliable supply chain let them commercialize a drug or launch a new research direction, it validates the daily grind in the plant. Mistakes happen—a few years ago we caught a mislabel early and corrected the paperwork before shipment, avoiding what could have been a costly interruption abroad. These daily lessons remind us that no specification or certificate alone guarantees reliability; it’s constant vigilance and accountability that does.
People using 4-(2-Keto-1-Benzimidazolinyl)Piperidine are not just numbers to us. Open lines of communication—whether it's helping with a scale-up report, expediting a rush shipment under new customs rules, or guiding a user through crystallization quirks—are what anchor us as a real-world producer rather than a faceless supplier.
Chemical manufacturing evolves every year. New analytical tools open more detailed glimpses into product purity. Fresh regulatory demands keep everyone on their toes. As more research teams turn to complex heterocycles and advanced intermediates, the bar for quality and reliability keeps rising.
By producing 4-(2-Keto-1-Benzimidazolinyl)Piperidine at this level, we do more than ship a commodity—we reinforce a supply chain that lets innovators in pharma, agriscience, and materials science break new ground. Proud as we are of our track record, we know the real proof will always be in the next shipment, the next successful customer application, and the next batch that meets or beats both our standards and theirs.
For those considering where to turn for this essential intermediate, nothing beats conversations grounded in technical depth and everyday experience. That’s what built our business, and what keeps us striving to improve each day.