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HS Code |
612056 |
| Cas Number | 5441-61-2 |
| Iupac Name | N,N-Dimethylpiperidin-4-amine |
| Molecular Formula | C7H16N2 |
| Molecular Weight | 128.22 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 196-198°C |
| Melting Point | -30°C (approximate) |
| Density | 0.902 g/cm³ |
| Solubility In Water | Miscible |
| Flash Point | 78°C |
| Synonyms | 4-(Dimethylamino)piperidine |
| Structure | Piperidine ring with a dimethylamino group at the 4-position |
| Smiles | CN(C)C1CCNCC1 |
| Refractive Index | 1.465-1.469 |
| Purity | Typically ≥98% |
As an accredited N,N-Dimethylpiperidin-4-Amine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging is a sealed amber glass bottle containing 25 grams of N,N-Dimethylpiperidin-4-Amine, labeled with safety and product information. |
| Shipping | N,N-Dimethylpiperidin-4-Amine is shipped in tightly sealed containers under cool, dry conditions. Packages are labeled according to hazardous material regulations. Ensure compatibility with other cargo; avoid exposure to heat, moisture, or oxidizers. Standard shipping includes secondary containment and documentation in compliance with relevant chemical transport regulations (e.g., DOT, IATA). |
| Storage | N,N-Dimethylpiperidin-4-amine should be stored in a tightly sealed container, in a cool, dry, well-ventilated area away from sources of ignition, heat, and incompatible substances such as strong oxidizing agents. It should be kept out of direct sunlight and moisture. Proper labeling and secondary containment are recommended to prevent leaks or spills. Use appropriate personal protective equipment when handling. |
Applications of N,N-Dimethylpiperidin-4-Amine in Industrial ManufacturingAs a dedicated manufacturer of N,N-Dimethylpiperidin-4-Amine, we focus on serving select industrial sectors where this intermediate brings clear process advantages, meets demanding compliance regimes, and aligns with end-product specifications. Below we detail key validated application scenarios with specific technical and regulatory considerations for professional B2B formulators and process engineers. 1. Pharmaceutical Synthesis: CNS Active Compound IntermediatesIn CNS drug manufacturing, this amine provides a critical building block for selective serotonin and norepinephrine reuptake inhibitors (SSRIs/SNRIs) as well as other piperidine-derivative therapeutics. Its use supports targeted amine incorporation during multi-step active pharmaceutical ingredient (API) synthesis, requiring stringent impurity controls and validated batch traceability. Industry compliance standards
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2. Agrochemical Intermediate for Insecticide SynthesisUsed in the multi-step manufacture of neonicotinoid and heterocyclic-based insecticides, this compound serves as an essential amine donor in ring closure and methylation processes. Its application supports high yields and reproducibility, directly influencing final crop protection efficacy and regulatory approval. Industry compliance standards
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3. Specialty Chemical Intermediate for Polymer ModifiersWithin high-performance polymer manufacturing, N,N-Dimethylpiperidin-4-Amine can act as a functional group donor to introduce flexibility or cationic sites into advanced resins used in coatings, electronics, or membrane applications. Such modifications support fine-tuning of electrical or surface performance, with precise control required at the additive stage. Industry compliance standards
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4. Fine Chemical Synthesis: Catalysis and Ligand FormationIn the field of homogeneous catalysis and organometallic ligand production, this amine provides a unique secondary amine functionality, serving as a precursor for custom ligand frameworks requiring electronic and steric tuning. Careful processing ensures high purity for sensitive catalytic cycles, supporting reproducible catalyst performance. Industry compliance standards
Typical usage ratio
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We have spent years refining our N,N-Dimethylpiperidin-4-amine, often simply known in the industry as DMPIA. Our plant runs controlled batches using high-grade raw materials and the continual fine-tuning of our synthesis processes. This chemical rarely shows up in bulk commodity listings – it finds its way into the hands of chemists who understand how structure influences function.
With a molecular formula of C7H16N2, DMPIA reflects a deliberate choice in laboratories working with advanced pharmaceutical building blocks, fine chemicals, or specialized organic synthesis demands. Over time, we have answered requests for specific purity levels, unique packaging needs, and guidance on reaction optimization, building a bank of first-hand knowledge that guides every drum that leaves the warehouse.
Every batch starts with our own incoming QC standards, not just relying on supplier paperwork. We run comprehensive GC and NMR assessments, adjusting parameters to suppress residual solvents and reduce byproducts common to less controlled environments. Low moisture content comes from sealed production lines, high nitrogen purity, and ongoing calibration of our column setups. Our typical lots achieve GC purity well above 99%, and each shipment brings documented analytical results tied to that exact batch.
What sets our DMPIA apart comes from direct feedback. Investigative R&D teams frequently note our product’s stability and color consistency. Slight yellowing, sometimes seen with bulk alternatives or aged stocks, points to amine oxidation or insufficient handling—a risk minimized under our nitrogen-blanketed storage and rapid post-synthesis bottling processes.
We don't publish a cookie-cutter list. Our experience showed that beyond basic appearance and HPLC or GC checks, customers appreciated trace metal analysis, low total water content, and details on any nonvolatile residues. Our in-house analytical laboratory runs ICP-MS for metals screening, verifying compliance with pharmaceutical precursor targets or other downstream specifications.
We tune our packaging for real-world research and pilot-line workflows. Glove-friendly seals, inert-gas purging, and calibrated pouring spouts matter far more than generic storage advice. The bulk of our 1 L and 5 L containers move directly to customers with climate-controlled requirements. Our team can advise on larger volumes, with stainless steel drums used for kilo-scale customers in markets like Europe and the US. Supply chain consistency isn’t an afterthought; it’s critical for anyone scaling up.
Several of our customers run drug discovery campaigns where DMPIA forms the backbone of scaffolds found in kinase inhibitors, neuromodulators, and next-generation antiviral agents. Chemists look for transformations enabled by the dimethylamine moiety and the six-membered ring. Compared to piperidine, the dual methyl groups slow ring oxidation and offer improved basicity handling during alkylation, acylation, or reductive amination. Over time, that difference in reactivity and stability shapes product yields and process safety.
In the agrochemical sector, modifications of DMPIA have given rise to several patented seed treatments and selective herbicides. Our technical teams worked directly with developers to minimize risk of unwanted side products that could disrupt field trials. We have also seen demand from specialty polymer makers seeking functional group diversity or improved thermal properties for polyamides and block co-polymers, where conventional piperidine derivatives fall short under heat or UV exposure.
Sometimes the distinction between DMPIA and simple piperidine or mono-methylated amines feels subtle until you run the reaction. Regular piperidine draws more water from the environment, which can throw off water-sensitive transformations—important during Grignard or acyl chloride chemistry. The added methyl groups on our product lower that risk, letting teams avoid emergency purification steps or costly yield loss. Lower volatility means reduced vapor-phase emissions, helping groups meet tightening regulatory standards on workplace exposure limits.
DMPIA holds its own in reductive amination, Mannich reactions, or as a nucleophile in aromatic substitution. Mono-methylpiperidine analogs often generate byproducts that slow isolation, drive up solvent use, or just frustrate downstream purification. Based on our own side-by-side runs, DMPIA shortens scrubber column cycles and drops the LC-MS impurity fingerprint below actionable thresholds for API synthesis. That reliability frees up staff to focus on more pressing bottlenecks instead of firefighting unplanned rework.
Mass spectral data—confirmed by both our QC staff and academic partners—shows cleaner fragmentation patterns, which helps with downstream identification for metabolite mapping or batch traceability. While some may overlook the significance, smooth analytical runs save weeks across multi-year projects. Organic chemists, after running 50 or 100 scale-ups, start to appreciate why a slightly higher-grade amine can shift the economic balance of a program.
Years of shipping and storing DMPIA have shown us the best approaches to preserve its value from synthesis line to end user. We strongly recommend low-oxygen storage environments; even trace air exposure starts to degrade many secondary amines, causing off-odors and introducing color bodies that skew specs. Our bottles use high-density polyethylene or fluorinated liners, selected to avoid leaching or static build-up.
Techs moving material from drums to reactors use low-pressure nitrogen blankets after every transfer. This step isn’t just belt-and-suspenders caution; it came after a few near-misses where colorless material yellowed during overnight staging at busy sites. Small steps like push-pull dispensing taps or double-seal closures pay back every time a sample arrives looking just as clear as the day it was shipped.
Many buyers ask about shelf life. Our internal data supports stable properties for at least 12 months, assuming sealed original containers stored below 25°C. Long-term testing shows that DMPIA left exposed will pick up airborne moisture, gradually acidify, and show rising peroxide counts, long before a label ever suggests batch expiration. Those who treat their incoming stock as a long-term investment consistently get better results.
DMPIA sits in a growing cluster of specialty amines with regulatory interest, especially for pharma and fine chemical applications. Our in-house regulatory staff monitors REACH, EPA TSCA, and China’s MEE guidelines, building traceable records and updating downstream users whenever substances approach a labeling update or exposure limit change. Some regions now demand supply chain transparency for precursor chemicals; full documentation accompanies every order, without waiting on ‘upon request’ paperwork.
Waste stream management deserves ongoing attention. DMPIA should not enter municipal drains or open landfills, even in small spills. Our synthesized material typically comes with a secure, closed-loop return policy for unused or expired goods—cutting disposal headaches and reinforcing responsible handling. Solvent-free wipes and absorbent pads usually handle minor residue, while large-scale disposal follows the guidance of certified chemical waste handlers versed in amine safety.
A few years ago, a global surge in demand for custom piperidine derivatives disrupted supply for many labs and manufacturers. Some found themselves forced to trial lower-grade or uncontrolled DMPIA sources, learning hard lessons about consistency, untracked impurities, and unplanned shutdowns. Our own operation weathered that storm by backward-integrating through our supplier network, locking in feedstock months ahead, and holding a safety inventory in bonded warehousing.
South Asia’s chemical parks saw three-week shipping delays on precursor compounds; North America suddenly enforced updated shipping rules on secondary amines. We listened, retooled shipping documentation, and built direct customer support to bridge technical or regulatory gaps. Today, the plant runs two parallel production lines—not just for output but for risk management.
Years of experience make clear the difference between a stable supply partner and a price-driven trader. Chemists chasing the low-cost supplier often come back chasing advice on re-purification or analytical discrepancies. Real savings show up over months, not in an off-book bid sheet. We invite customers into our plant for joint QC reviews, and our tech teams keep open channels for troubleshooting process hiccups, scale-up support, or changing market needs. Supply guarantee is a lived, day-to-day practice, not corporate lip service.
One recurring thread runs through our interactions: problem-solving extends beyond the chemical itself. Lab chemists have flagged moisture ingress, prompted questions on analytical labeling or batch records, and even pointed out secondary products accidentally delivered from less experienced producers. Our QC staff takes those stories directly to formulation review, feeding that practical data into new batch protocols.
Sometimes the discussion centers on application specifics: which solvents offer the cleanest amine transfer, which reaction temperatures avoid discoloration, or what trace metal levels matter for their pathway. We gear our support toward these real-world concerns, not canned advice. The line chemists on our staff answer queries based on what has worked, what failed before, and what trade-offs may arise.
DMPIA continues to unlock new structures and applications—one reason research partners come back for more. Medicinal chemists exploring CNS-active scaffolds rely on its predictable steric bulk and electron distribution. Polymer scientists find improved handling properties over simple piperidines, reporting surer processability and lower batch-to-batch problems, a familiar refrain in our exchanges with materials groups.
We collaborate directly with academic consortia developing sustainable amine transformations. Life cycle data links process choices back to energy use, waste load, and overall safety profile. Open data sharing with technical partners helps the scientific community raise achievable standards for safe, reliable amine chemistry.
Efficiency, safety, and environmental impact guide everything on our plant floor. We recover solvents wherever possible, using closed-loop distillation instead of single-use disposal. Nitrogen-purged systems cut down on fugitive releases and improve batch reproducibility. Residual amine streams are neutralized and tracked to avoid unintended release. Recent upgrades include heat-integrated reactor trains, further shrinking energy use per kilogram produced.
Customer-facing sustainability means traceability. We support downstream audits, supply full batch histories, and help research partners build greener reaction models using DMPIA in tandem with less hazardous reagents or cleaner solvents. Our role as manufacturer extends to accountability for every drum’s journey, from raw materials through delivery, and beyond.
DMPIA will remain critical as molecules grow more complex, regulatory standards sharpen, and the value of dependable process partners rises. Our next phase of investment includes capacity expansion without trading off traceability or analytical rigor. Technical partnerships will deepen with chemical research teams, closing the gap between pilot plant advice and production-scale problem-solving.
Future milestones for DMPIA include digital tracking for every container, site-specific storage recommendations, and more automated analytical release protocols. Integration with end-user LIMS supports regulatory compliance and rapid data sharing, cutting time between production and lab use. We will also support customer-facing process audits as safety and traceability gain even greater significance under evolving global chemical legislation.
Manufacturing N,N-Dimethylpiperidin-4-amine is more than a chemical conversion; it represents a commitment to quality, usability, and partnership. Every process change, customer insight, and regulatory update refines the material that arrives in your lab. Our knowledge, built on daily practice and close collaboration, drives us to deliver the kind of product that keeps research safe, operations moving, and new chemistry possible. We stand behind every drum, bottle, and batch result—with our own name on the label and our experience behind every step.