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HS Code |
179880 |
| Chemical Name | 2-Methylpiperidine |
| Molecular Formula | C6H13N |
| Molar Mass | 99.17 g/mol |
| Cas Number | 96-57-1 |
| Appearance | Colorless to yellow liquid |
| Boiling Point | 116-117 °C |
| Melting Point | -74 °C |
| Density | 0.81 g/cm3 |
| Odor | Amine-like |
| Solubility In Water | Miscible |
| Flash Point | 13 °C (closed cup) |
| Refractive Index | 1.432 |
| Pubchem Cid | 7957 |
As an accredited 2-Methylpiperidine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging for 2-Methylpiperidine (500 mL) is a sealed amber glass bottle with a secure screw cap and hazard labeling. |
| Shipping | 2-Methylpiperidine is shipped as a hazardous material due to its flammable and toxic properties. It must be packaged in approved, tightly sealed containers, labeled according to regulations, and transported under controlled conditions. Compliance with local, national, and international shipping regulations, such as DOT, IATA, or IMDG, is strictly required. |
| Storage | 2-Methylpiperidine should be stored in a tightly closed container in a cool, dry, well-ventilated area away from heat, ignition sources, and incompatible substances such as strong oxidizers and acids. The storage area should be clearly labeled and chemical-resistant. Protect from moisture and direct sunlight. Use appropriate personal protective equipment when handling and ensure spill containment measures are in place. |
Applications of 2-Methylpiperidine in Industrial ManufacturingAs a manufacturer with extensive expertise in amine and heterocycle synthesis, we support industrial partners with high-purity 2-Methylpiperidine for critical downstream processes. This material serves specialized roles at high-performance scale across pharmaceutical, agrochemical, and high-grade organic synthesis sectors. Below are the core application segments based on actual commercial manufacturing routes. 1. Active Pharmaceutical Ingredient (API) Intermediate for CNS AgentsOur pharmaceutical partners use this material as an amine building block in the manufacture of central nervous system (CNS) active compounds, including select antidepressant and antipsychotic APIs. 2-Methylpiperidine functions as a nucleophile in N-alkylation steps, entering the process typically after protected aromatic intermediates are formed. Its controlled reactivity allows for regioselective modifications, minimizing by-products and facilitating downstream purification during API synthesis. This approach supports direct integration into regulated pharmaceutical batch processing lines. Industry compliance standards
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2. Crop Protection Intermediate Synthesis (Herbicide and Fungicide Manufactures)Process engineers in the agrochemical sector select 2-Methylpiperidine for creating heterocyclic scaffolds present in modern herbicides and fungicides. The molecule is deployed in selective nitrogen-alkylation steps, enabling construction of active cores like piperidine- or pyridine-derived agrochemicals. The material is dosed based on stoichiometric requirements and reaction selectivity, with process analytical technology employed to minimize risks during scale transfer and production campaigns. Industry compliance standards
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3. Polyurethane Catalyst Synthesis (Industrial Foam and Elastomers Production)Producers of high-resilience foams and elastomers incorporate 2-Methylpiperidine in the formulation of tertiary amine polyurethane catalysts. This amine is used as a core feedstock for generating piperidine-derived catalysts that control the isocyanate-polyol reaction rates, improving cell morphology and curing profiles. Tight control over input quantities ensures tailored gelling and blowing catalyst properties for rigid or flexible polyurethane systems. Industry compliance standards
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4. Fine Chemical Synthesis for Specialty Organic IntermediatesManufacturers in the specialty chemicals space use this molecule as a key starting amine for constructing custom intermediates required in advanced dye, pigment, and polymer additive formulations. 2-Methylpiperidine participates in condensation and ring-closure processes, supporting synthesis routes that require well-defined electron-donating amines. Feedback on raw material purity and batch-to-batch consistency allows customers to maintain high downstream conversion rates and meet strict end-user QC limits. Industry compliance standards
Typical usage ratio
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In our chemical facility, 2-Methylpiperidine plays a central role in both niche and broad-scale applications. Many of our partners in the pharmaceutical and agrochemical sectors value this compound as a reliable secondary amine. We routinely manufacture it with a focus on purity and reproducibility, not as an afterthought, but because every batch must support the trust placed in us by innovators downstream.
Our product, 2-Methylpiperidine, carries the CAS number 109-05-7. Careful distillation and rigorous in-process checks help us regularly supply this compound at a minimum of 99% purity (GC). The colorless to pale yellow liquid usually ships in sealed drums, each batch supported by internal test data measuring moisture, color index, and basic nitrogen content. Production does not end at synthesis. Our experienced plant team oversees each filtration and packaging step, removing risk of cross-contamination that often troubles less integrated manufacturers.
We have decades of hard-won experience in amine manufacturing. In the early days, impurity profiles stayed broad, and downstream customers struggled with variable side reactions. With every feedback loop from our R&D partners, our process changed: today, nitrogenous byproducts register in decimal points only, and water content sits within tight control.
Two aspects shape our manufacturing priorities: minimizing unpredictable batches and keeping process efficiency high. Investors emphasize volume, but our reputation truly rests on the confidence that the bottle they uncork works for their established synthesis route—every time.
2-Methylpiperidine serves as more than just a solvent or a reagent. Chemists appreciate its moderate steric hindrance, and the methyl group on the piperidine ring introduces subtle reactivity, opening windows for clean SN2-type substitutions. Where traditional piperidine brings flexibility, the methylated derivative builds in selectivity for alkylation, cyclization, or chiral synthesis.
Our fellow chemical engineers experiment with the difference firsthand. For instance, in alkaloid synthesis, using 2-Methylpiperidine favors cleaner separations and higher yields for several patented APIs. Feedback from pilot runs regularly reaches our technical team, and we adapt production parameters to further limit residual amines or hydrocarbon contaminants. It is a feedback-intensive loop, and no batch leaves our site without test panels from at least three different lots reporting consistent purity.
Within our product line, 2-Methylpiperidine carves its own space. Standard piperidine remains widespread, favored for its flexibility in both scale and cost. Yet when synthesis calls for secondary alkyl amines with mild branching, the methylated version gives advantages that many in drug design, agricultural chemistry, or performance materials cannot ignore.
We hear recurring feedback from biochemists. They choose 2-Methylpiperidine not for price leadership, but for its distinct performance edge in restricted rotation and chemical stability, especially under anhydrous alkylation conditions. Compared to cyclic amines such as morpholine, the product brings lower polarity and better volatility, making distillation and recovery in process plants less troublesome. Competitors often ask our technologists about the methyl group’s impact. The answer emerges in final purity numbers and improved spectral profiles. Decades of comparative GC and NMR data back these trends, and we maintain archives of customer technical reports validating these behaviors over time.
On large projects, our 2-Methylpiperidine typically sees use in acylation, alkylation, and as a molecular template for ring expansion. Our process engineers have watched customer formulas evolve, with several returning to our technical teams asking for explicit impurity trend charts year-over-year. Sharing these analyses offers mutual security, saving both parties expense and troubleshooting time. We don’t hide behind black-box specifications; our transparency on trace components builds confidence at the bench and in pilot facilities worldwide.
Toll manufacturers and custom synthesis groups adopt our product for isomer-selective reactions. Because 2-Methylpiperidine brings exacting basicity without the volatility of open-chain amines, it allows careful staging in multi-step transformations. Several pharmaceutical partners have highlighted reduced side-product formation in their GMP manufacturing runs. These are not theoretical improvements—they can mean a difference of hundreds of thousands of dollars when scaling to multi-ton syntheses where each reaction step must remain under cGMP oversight.
We spend time on the plant floor, not just offices or sales calls. Our operators know that the smallest deviation in heating rate or distillation cut point results in visible changes down the line: color, odor, GCMS spectrum. This vigilance helps maintain our reputation for reliability, a value recognized by formulation partners in both specialty and bulk applications.
In pesticides and fungicides, the methyl substitution gives molecules new regulatory and performance profiles. For crops, stability against photodegradation and hydrolysis extends shelf life, while the low volatility of our amine reduces drift in formulation plants. One customer, after extensive field trials, credited a 15% longer field half-life of an actives compound to our 2-Methylpiperidine precursor—an insight that shaped their next generation of products.
We notice a similar pattern in medical chemistry. Regulatory-focused pharma groups request detailed impurity maps, and our in-house analytics team is on constant alert. Each lot undergoes analytical review for both known and unknown impurities. The traceability level cannot be understated: a single anomaly merits deep investigation because downstream, batch failures or regulatory holds bear significant cost. Our integrated team identifies root causes—adjusting extraction salt ratios or tweaking column loads as necessary. These adjustments sound minor, but the outcome defines predictability that much of the industry takes for granted.
Our storage and handling teams face reality daily: 2-Methylpiperidine brings a sharp, characteristic odor, and leftover residues create ongoing comfort and safety challenges. We manage these hazards in our own shipping and bottling lines, providing experience-driven recommendations to customers. Local handling protocols stress eye and respiratory protection, immediate clean-up of spills, and positive ventilation. The compound’s flash point and toxicity require real respect from any operator.
It resists oxidation—and under proper warehouse controls—its reactivity profile brings peace of mind for even the most cautious supply chain manager. We provided data charts to partners navigating stricter regional regulations, ensuring their audits clear on the first try. We adjust batch sizes and packaging based on client site infrastructure to reduce in-plant storage risk. This flexibility results from a chain of experience shared across logistics, quality, and technical support.
Our flexibility in process chemistry means we can respond to requests for tailored specifications. Some partners need ultra-low water, while others request alternative stabilizers to align with internal QC policies. This hands-on approach sets us apart from distant traders. Several times a year, we co-develop custom purifications for new chemical entities, especially where tricky downstream reactions raise stakes. Whether stripping background odor for sensitive flavor intermediates or achieving UV transparency for new polymer systems, our lab supports iterative pilot plant trials until the target spec reads true for scale-up.
Each request—no matter how challenging—offers an opportunity to extend both our technical capability and our relationship with forward-leaning clients. Our teams document parameters, raw material sources, and process adjustments, so next time the cycle starts faster with less trial-and-error. New regulations or evolving formulation targets rarely catch us off guard, and years of field experience keep our responses rooted in practical solutions.
Our in-house synthesis starts from validated local or international raw material suppliers. We deliberately avoid chain-of-custody blind spots by managing chemical and documentation flow under one roof. On rare occasions when global market stresses disrupt primary sourcing, we flag quality events internally and activate alternate supplier qualification procedures. This habit comes not from regulatory compliance pressure but from years of seeing shortcuts by others end in lost trust.
Clients who visit our plant see the tightly integrated material flow—tank truck to reactor, reactor to overhead distillation, to packaging line without open transfer. We train staff to recognize contamination risk at each handoff, and cross-departmental audits catch problems before they mature. We document each batch cradle-to-gate, and traceability audits have become routine. Industry partners have toured our facilities and asked for copies of our protocols; we provide these as professional courtesy and shared insurance.
Our stewardship of chemical production goes beyond paperwork. With 2-Methylpiperidine, odor emissions and solvent recovery sit at the top of our environmental controls. Our plant engineers have spent years fine-tuning extraction and vent scrubbing circuits. We have invested in closed-loop vapor management and secondary containment to reduce off-site risk, both for the safety of our staff and the surrounding community.
Our waste treatment specialists regularly update protocols for spent mother liquors and offcuts. Regulatory audits at our site generally focus on air and water discharge standards, so we keep historical datasets on file and run environmental monitoring at several points, not just final outflow. Most importantly, operators and engineers share environmental responsibility as a base expectation—this means reporting any suspected excursion the moment it arises, not after a paperwork trail. Compliance costs are real, but so is our reputation for reliability among both regulators and neighbors.
2-Methylpiperidine, with its low freezing point and volatility, rides well in temperature-controlled tankers, drums, or IBCs. Yet the compound must arrive intact, without evidence of container seal breakage, headspace contamination, or oxidized byproducts. We instruct all contract carriers to train their staff specifically for our product class, reviewing shipment photos and documentation, double-checking UN-approved packaging before any load leaves the warehouse.
Receiving teams at customer sites need predictable transfer and emptying, so we equip documentation packages with handling tips, incident response guidance, and a direct line to our logistics manager, not a call center. Routine post-shipment follow-up builds mutual confidence; any stumble or complaint triggers same-day investigation, with root cause analysis feeding future planning. Our aim is to make chemical movement predictable and low-risk at every step.
Our relationship with research labs runs deep. Projects often start when a synthetic chemist runs into unexpected crystallization or off-reaction color while using a competitor’s product. Lab managers call for help; our technical team routinely pulls recent COAs, GC-FID, and NMR data, matching impurity profiles from our archives to customer samples. Frequently, our batch demonstrates lower background noise in chromatograms, saving analysts hours of frustrating troubleshooting.
If a partner wants to try substitutions between piperidine, 2-Methylpiperidine, or N-methylpiperidine, we share kinetic and spectral differences documented during our own process development. Sometimes, optimizing yield depends not on the reagent’s headline purity but its subtle impurity spectrum—particularly when the chemistry targets asymmetric products or highly sensitive intermediates.
Several collaborative projects have led to new optimization playbooks for customers, especially where regulatory or environmental pressure temporarily forces a switch in process solvents or reagents. Through these partnerships, we have developed a strong network of field data that not only streamlines scale-up but occasionally sparks research publications in major chemistry journals. We view these as natural extensions of our manufacturing mission, rooted in practical, real-world problem-solving as much as laboratory science.
As every operations manager here will admit, chemicals like 2-Methylpiperidine don’t sell solely on technical specification. In a shifting business climate—with new regional restrictions, stricter QC from leading pharma majors, and unpredictable global logistics—our long-term partners look for support, not just a product drop. They need trusted troubleshooting, transparent process data, and a team that doesn’t duck hard questions.
Our vision for production balances customer objectives with our own standards for safety, sustainability, and reliability. Whether down the hall in the plant’s quality control lab or on calls with a production chemist on another continent, our team respects that every molecule we ship reflects our collective experience. That experience, built batch by batch, defines our reliability today and ensures our adaptability in the years to come.