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HS Code |
669442 |
| Compound Name | 2-Propylpiperidine |
| Molecular Formula | C8H17N |
| Cas Number | 4355-09-7 |
| Appearance | Colorless liquid |
| Boiling Point | 174-176°C |
| Density | 0.84 g/cm3 |
| Refractive Index | 1.448 |
| Flash Point | 57°C |
| Solubility In Water | Slightly soluble |
| Smiles | CCCC1CCCCN1 |
| Pubchem Cid | 210178 |
| Iupac Name | 2-propylpiperidine |
As an accredited 2-Propylpiperidine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Brown glass bottle with screw cap, labeled "2-Propylpiperidine, 100 mL." Features hazard symbols and safety instructions, tightly sealed for transport. |
| Shipping | 2-Propylpiperidine is shipped in securely sealed containers made of compatible materials, typically in amber glass or HDPE bottles, to prevent contamination and degradation. It should be packaged in accordance with regulatory requirements, labeled as a chemical substance, and protected from heat, moisture, and direct sunlight during transport. |
| Storage | 2-Propylpiperidine should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances such as strong oxidizing agents. Protect from moisture and direct sunlight. Store under inert atmosphere if recommended. Ensure proper labeling and keep away from heat and open flames. Suitable chemical storage cabinets are advised. |
Applications of 2-Propylpiperidine in Industrial Manufacturing2-Propylpiperidine serves as a key intermediate in several highly regulated industrial sectors. As a dedicated chemical manufacturer, we supply this material directly to specialized downstream operations where strict quality control, consistent sourcing, and regulatory traceability are critical for continued market access and product integrity. The following application scenarios reflect validated, real-world manufacturing routes that incorporate 2-Propylpiperidine as an essential building block or reactive agent. 1. Active Pharmaceutical Ingredient (API) Synthesis – Central Nervous System AgentsIn the pharmaceutical industry, 2-Propylpiperidine is incorporated as a structural intermediate for select central nervous system (CNS) active drug molecules. Our clients utilize this compound in multi-step API synthesis pathways, specifically during the heterocyclic amine construction process, to yield advanced intermediates for proprietary medications. Precise control of impurity profiles and validation of trace-level byproducts at this step directly impact both GMP compliance and regulatory approval timelines. Industry compliance standards
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2. Agrochemical Active Compound Synthesis – Herbicide and Fungicide IntermediatesAgricultural chemical manufacturers employ 2-Propylpiperidine as a reactive amine for synthesizing pyridine- and piperidine-based herbicide and fungicide intermediates. Reaction selectivity at this stage affects yield and downstream product safety, with strict monitoring to comply with both local environmental controls and international crop protection regulations. The chemical enables efficient amide and urea bond formation unique to patented active agents in this sector. Industry compliance standards
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3. Chemical Synthesis of Specialty Amine CatalystsProducers of polyurethane and thermosetting resins use 2-Propylpiperidine as a core building block for the in-house synthesis of customized tertiary amine catalyst formulations. Its steric and electronic properties are exploited to modify foam rise profiles, cell structure, and cure speed in flexible and rigid foam systems. Accurate formulation impacts both product performance and workplace safety compliance during catalyst blending and storage. Industry compliance standards
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4. Synthesis of Fine Chemical Building Blocks – Heterocyclic Reference StandardsChemical R&D organizations and custom synthesis labs apply 2-Propylpiperidine in the preparation of analytical reference standards and heterocyclic intermediates needed for method development, impurity profiling, and structural identification. Traceability and batch homogeneity are paramount as these compounds support pharmaceutical and environmental testing industries worldwide. Stringent documentation accompanies every production lot to maintain audit trail integrity. Industry compliance standards
Typical usage ratio
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Chemistry moves fast, but every project demands reliability at its core. Over the years in our synthesis lines, few building blocks create as many possibilities as 2-propylpiperidine. Here at our facility, this alkylated piperidine takes shape with attention to detail and deep practical experience. In pharmaceutical labs, this molecule serves as a versatile intermediate. On the floor of our reactors, it turns raw feedstock into precise product—free from the impurities that slow research and confound synthesis.
Every operator on our plant floor understands what matters in high-value chemical sourcing: consistent results and transparent specifications. For 2-propylpiperidine, we focus on maintaining high purity—both color and GC trace profiles match tight criteria before filling a drum. Too often, incoming chemists face uncertainty or off-spec batches when sourcing key intermediates from third parties. We commit to batch-to-batch consistency by integrating quality checkpoints at every processing stage. Each lot leaves our site only after passing NMR and GC-MS identity testing, along with specific isomeric purity targets, which help customers lower risk during scale-up.
From the start, our team looked back at recurring pain points from researchers and process developers—off-ratio isomers, trace amines, and nonstandard concentrations. We avoid such pitfalls by employing reliable alkylation protocols and robust purification steps that, after years of refinement, deliver 2-propylpiperidine in its intended form. Every reaction run reflects our accountability as a manufacturer with skin in the game, not just a middleman repackaging inventory.
2-propylpiperidine does not just play a role as another cyclic amine on a long raw material list. Process chemists who rely on reproducibility choose this molecule for its solid handling properties, stability under standard storage, and predictable performance in N-alkylation, amidation, and coupling reactions. The three-carbon propyl side chain alters the reactivity and downstream characteristics compared to more familiar piperidines. Many teams select 2-propylpiperidine early because it creates molecular space and functional handles less accessible through generic six-membered nitrogen heterocycles.
Typical use cases emerge in pharmaceutical research, especially in CNS-targeted candidate structures and advanced intermediates where a precise stereo-chemical outcome matters. On some benches, medicinal teams cite the value of clean starting material—avoiding process drift during optimization or route scouting. In agrochemical and specialty material segments, custom synthesis groups recognize that the right alkylation pattern like that of 2-propylpiperidine saves dozens of remediation hours compared to correcting a cheaper, unspecified amine later in the process.
Our plant operates with direct oversight from chemists who spend as much time running reactions as they do analyzing outcomes. Drawing on long experience with nitrogen-containing heterocycles, we have worked through most of the typical side reaction scenarios. We use alkyl halide feeds sourced under strict QC agreements and manage reaction exotherms closely, so the final product avoids residual alkylating agents or side-chain rearrangements that can affect the next step in a customer’s work-up.
We ship 2-propylpiperidine both as a neat liquid and, for some clients, as custom dilutions in certified solvents. This only comes after a thorough final review by technical leads, who sign off on spectral comparability to reference standards, not just a checklist of purity. We know the headache caused by off-order batches appearing in a production run or long customs delays due to vague declarations. By taking full control of trace components and documentation, our manufacturing system builds trust with technical teams who cannot afford to gamble on speculative supplies.
Once a project lands on a bench or scale-up campaign moves to the pilot plant, details matter more than catalog numbers. 2-propylpiperidine comes with documented batch history, clarity on residual moisture, and physically robust containers that withstand long-haul transit. We have received direct feedback from customer labs on field failures unrelated to chemistry—such as container corrosion or trace leachates from seals. We phased in reinforced closures and lab-validated liner systems based on those real-world lessons learned. Our work does not stop at meeting a line-item spec; it extends to reducing the variables that interfere with safe, efficient laboratory and plant operations.
Most inquiries revolve around differences from structurally similar piperidines—questions we hear time and again from formulation engineers and exploratory chemists. The three-carbon side chain, as opposed to methyl or ethyl analogs, shifts both solubility and basicity. For instance, 2-propylpiperidine gives a different extraction profile in multi-phase systems than the smaller homologues, which explains why some teams achieve cleaner separations with it. In hydrogenation and cross-coupling work, this preference for one side chain over another can mark the difference between shelf-stable intermediates or unstable byproducts that complicate route design.
Market competition rewards speed and pricing. But for this class of fine chemicals, hidden problems—such as amine odor, unpredictable color drift after drumming, or ambiguous labeling—wreck more schedules than procurement teams realize. We have logged reports of customers encountering batches with trace amide content, formed during uncontrolled distillation. These might not appear in casual inspections but cause subtle downstream issues, especially during metal-catalyzed transformations. Our own QA records track the ppm levels of each potential contaminant, based on in-house reference chromatograms archived for comparison against every production run.
Transparency means publishing ranges, not just “better than industry standard” claims. Our typical content for 2-propylpiperidine falls above 99% purity, measured by GC-FID, with water content at low single-digit ppm as validated by Karl-Fischer titration. We welcome inquiries into batch records and run comparative purity analyses against alternative market samples at the customer’s request. No product leaves without a coherence check between instrument data and the historical trends we observe from our own process controls. This data-driven approach minimizes surprises, both for us and for our users, when workup recovery and process yield matter.
The practical difference between a commodity chemical and a purposeful building block shows up in handling and support, not just composition. For 2-propylpiperidine, our technical team fields regular requests for information about its behavior under specific process intensifications or under non-standard reaction conditions. Some researchers want support scaling from gram to multi-kilogram quantities. Others explore reaction mechanisms that hinge on small changes to side-chain structure.
We have run collaborative trials with partner labs to map out 2-propylpiperidine’s activity in various coupling strategies and to resolve ambiguity on its compatibility with new catalytic systems. These collaborations often reveal knowledge gaps in literature or pitfalls glossed over by bulk suppliers. They also lead us to adjust temperature programming, purification parameters, or even packaging options mid-campaign to suit a customer's evolving needs. By being directly responsible for the molecule from raw material through final shipment, we keep the feedback loop short and actionable.
Handling amines in industrial settings demands more than just regulatory box-checking. From first design of our synthesis lines, we built in vapor containment and inline ammonia/amine sensors targeting not just worker exposure limits but practical, day-to-day operations. For 2-propylpiperidine, which has a recognizable amine odor and moderate volatility, we provide safety data sheets based on actual tested batches, not just reference entries. Our safety team continuously updates documentation as new workplace data emerges from both our plant and customer test sites.
Import and transport rules for secondary amines require clear, up-to-date classifications and hazard designations. We proactively register our products under appropriate regulatory frameworks across multiple jurisdictions, reducing the bureaucratic back-and-forth that can slow delivery. If regulatory changes occur, as has happened for several amine classes, our compliance staff notifies all affected clients with a clear summary and guidance—not just a generic letter. We have seen how small miscommunications around documentation can freeze entire campaigns at customs. Our solution is to provide full lot-level traceability alongside technical support, so no project stalls due to paperwork.
A common point of confusion for new users comes in selecting between 2-propylpiperidine and more traditional products like piperidine or N-methylpiperidine. The extra carbon bulk shifts basicity and influences how the molecule partitions in liquid-liquid systems. For applications in active pharmaceutical ingredients where steric hindrance or specific metabolic profiles matter, this side chain becomes a differentiator. Teams running standard reductive aminations with unsubstituted piperidine sometimes migrate to the propylated version for greater control over unwanted side products or to meet regulatory push for starting material identification.
In our experience, production of 2-propyl analogs also enhances the selectivity profile in catalytic transformations. During custom synthesis campaigns with external partners, we have documented clear variations based on alkyl substituent size—sometimes cutting side-reaction rates by half or delivering novel reactivity. These kinds of observations do not always appear in published literature but result from real hands-on work in live systems. From a supply perspective, the logistical load of large-scale, pure 2-propylpiperidine differs considerably from handling analogous amines, as storage and shipment protocols adapt to its moderate volatility and handling requirements.
Transitioning from research gram-scale quantities to kilogram or ton lots brings challenges that no catalog supplier anticipates. During scale-up, 2-propylpiperidine’s density, viscosity, and exothermic behavior all come into play. We routinely consult with process engineers on temperature ramp rates for safe addition, required venting, and volatility containment during bulk transfers. In earlier years, we solved recurring bottlenecks related to pump compatibility and line corrosion due to prolonged amine contact.
Because we operate synthesis across multiple reactor types—glass-lined, stainless, and PTFE-lined—our technical advisors guide customers on material compatibility and equipment cleaning protocols. Sometimes a switch in feedstock from a lesser-known producer can introduce trace contaminants, deactivating downstream catalysts or necessitating costly purification steps. Each lesson we have absorbed over years of direct batch manufacturing cycles back into how we refine our plant operations. This experience becomes a resource for our customers as they troubleshoot practical issues, from filter blockages to material handling in automated systems.
No large-scale chemical operation follows a neat, predictable template. Weather, logistics delays, and even political events affect transport of vital intermediates like 2-propylpiperidine. Our operations staff keeps communication lines open, especially during periods of global raw material shortages or shipping route disruptions. Partnerships grow stronger with shared information—advance notice on supply tightness, rapid clarification of product documentation, or honest assessment of short-term constraints.
During periods of tight supply, we have prioritized allocation by direct consultation with client teams, weighing both project urgency and historical usage. This approach avoids the pitfalls of overselling or promising lead times nobody can keep, common pitfalls with brokers or speculative traders. Our production plans remain agile, shifting batch schedules and, if necessary, re-allocating qualified reactors to reinforce supply security for customers with critical timelines.
Every week, researchers push the boundaries of drug discovery, agrochemical development, and advanced materials using heterocyclic amines. 2-propylpiperidine continues to emerge as an important tool because of its particular blend of properties. As a manufacturer, we recognize no substitute for hands-on experience and customer-facing accountability. We regularly invest in technical upgrades, operator training, and process analytics—not to chase compliance for its own sake, but to ensure that scientific teams always know what they will receive.
Direct engagement with end-users helps us spot shifts in how 2-propylpiperidine gets applied, and where incremental improvements—tighter specs, improved packaging, or faster analytical feedback—add real project value. By keeping our operations rooted in the priorities of those who use our chemistry day to day, we drive sustainable improvements that benefit both present and future applications.
We welcome collaboration and direct technical dialogue about the unique requirements your next synthesis or production campaign might bring. Our team includes boots-on-the-ground chemists who know both the power and pitfalls of this molecule. Through every campaign, we carry the lessons learned forward—ensuring that every drum, every kilogram, and every process cycle delivers the quality, reliability, and technical confidence your work expects.