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HS Code |
342369 |
| Name | Arecoline |
| Chemical Formula | C8H13NO2 |
| Molecular Weight | 155.196 g/mol |
| Iupac Name | 1,2,5,6-tetrahydro-1-methylpyridine-3-carboxylic acid methyl ester |
| Cas Number | 63-75-2 |
| Appearance | Colorless to pale yellow oily liquid |
| Solubility In Water | Soluble |
| Boiling Point | 209-210 °C |
| Density | 1.021 g/cm³ |
| Pka | 6.82 |
| Origin | Naturally occurs in areca nut |
| Toxicity | Toxic if ingested in large amounts |
| Pharmacological Action | Parasympathomimetic (muscarinic receptor agonist) |
| Usage | Primarily research; historical use as a stimulant |
As an accredited Arecoline factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 10-gram amber glass bottle labeled "Arecoline," features a secure screw cap, hazard symbols, and detailed chemical handling instructions. |
| Shipping | Arecoline is shipped in tightly sealed, chemical-resistant containers to prevent leaks and contamination. It is transported according to relevant regulations for hazardous chemicals, often with clear labeling and Material Safety Data Sheets (MSDS) included. Proper temperature and ventilation controls are maintained to ensure stability and safety during transit. |
| Storage | Arecoline should be stored in a tightly sealed container, away from light, heat, and moisture. It must be kept in a cool, dry, and well-ventilated area, ideally at 2-8°C (refrigerated). Proper labeling and secure storage are essential due to its toxic nature. Avoid contact with incompatible substances, such as strong oxidizing agents, to ensure safe storage. |
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Purity 98%: Arecoline with 98% purity is used in neurological research, where it ensures consistent receptor binding and reproducible pharmacological results. Molecular Weight 155.23 g/mol: Arecoline at a molecular weight of 155.23 g/mol is used in bioassays, where it provides precise dosage calculation for dose-response studies. Stability Temperature 25°C: Arecoline with a stability temperature of 25°C is used in laboratory storage, where it maintains compound integrity during prolonged experiments. Melting Point 62°C: Arecoline with a melting point of 62°C is used in formulation processes, where it allows controlled liquefaction for blending with solvents. Liquid State (room temperature): Arecoline in liquid state at room temperature is used in in-vitro enzymatic assays, where it facilitates easy pipetting and homogeneous mixing. Volatility High: Arecoline with high volatility is used in inhalation exposure studies, where it ensures efficient vapor-phase delivery for mechanistic analyses. Density 1.03 g/cm³: Arecoline with density 1.03 g/cm³ is used in chemical synthesis pathways, where predictable volumetric calculations support accurate reaction scaling. Solubility in Water 90 g/L: Arecoline with water solubility of 90 g/L is used in aqueous formulation development, where rapid dissolution enables swift sample preparation. |
Competitive Arecoline prices that fit your budget—flexible terms and customized quotes for every order.
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Every day, batches of Arecoline run through our vessels. Arecoline isn’t simply a name on an MSDS or some ingredient in a chemistry set for researchers. It’s a specific alkaloid, with a long, established reputation in both industrial and scientific communities. Produced with clear intention and repeated methodologies, the Arecoline we bottle emerges as a colorless to pale yellow, oily liquid with a distinctive odor. Labs know it as C8H13NO2, but for us who have spent years surrounded by these molecules, it’s much more than formula or nomenclature. We consistently measure, test, and validate to ensure purity standards match those needed for the most demanding applications.
In our plant, Arecoline doesn’t trickle out according to what theoretical chemistry suggests—it reflects decades of process development, control, and a relentless focus on safety. It’s derived most often via extraction from the seeds of Areca catechu, then rendered to the proper standard via controlled distillation, always avoiding shortcuts. Some competitors claim shortcuts save time, but these erode real reliability. Over repeated cycles, our Arecoline batches show visible clarity and a GC purity that won’t fluctuate outside a tight margin.
Manufacturers use Arecoline in research and pharmaceutical development, in neurological and pharmacological testing. Much academic literature focuses on the molecule’s action as a cholinergic muscarinic agonist, but on the manufacturing floor, attention shifts to practical issues: stability of the product, ease of mixing, and factors like long-term storage.
On a day-to-day basis, R&D teams request Arecoline for studies involving neurotransmission, but also for formulation work that seeks to mimic or block cholinergic pathways. In those labs, consistency matters. No company conducting a pharmacological screen—or running receptor binding assays—wants unexpected shifts in assay results, which usually come down to contamination or unreported stability problems. Years of shipping this molecule have taught us that even minute variances will show up as spurious data or null results in sensitive experiments.
We often field questions from pharmaceutical groups and research labs about Arecoline’s solution behavior. Does it degrade in aqueous media? What temperature and pH ranges threaten its profile? These aren’t questions that can be met with generalities. Our records show that Arecoline holds well at refrigeration temperatures when packaged in amber-sealed bottles. Through repeated real-world accelerations and thermal exposures, fresh stock demonstrates stable assay—though exposure to light or air promotes oxidation. Handling recommendations spring from thousands of shipped units and their tracked performance, not from deskbound theory.
Arecoline available from us meets specifications built from years of customer feedback, batch data, and external audits. Each lot goes out at no less than 98 percent GC purity, with moisture well-controlled below 0.5 percent. In-process QC captures any deviation, and any batch outside accepted ranges never leaves the facility. Micro impurities below the detection limit confirm our process doesn’t just scrape by; it has redundancy, and routine third-party checks keep the numbers honest.
Researchers cite catalog numbers or batch IDs, but real trust comes from our willingness to answer tough questions about trace-level byproducts, or occasional color drift at elevated storage temperatures. Shipping to universities, biotech innovators, and multinational pharma, every feedback loop gets logged and translated into process or packaging improvement. Over time, standard 25 g packaging has emerged as the most popular, with requests for larger containers filled under argon and customized labeling as required.
Safety is not an afterthought. Arecoline, handled incorrectly, presents substantial toxicological risk—so packaging integrity, clear hazard labeling, and ample safety data all matter. Internal teams walk the warehouse and read incident logs closely, so lessons learned get reflected in new SOPs. Arecoline’s volatility, distinctive odor, and rapid onset of action mean operators take extra time checking seals and air flow before shipment.
Most users unfamiliar with large-scale chemistry see Arecoline production as something only limited by glassware or precursor costs. In practice, tight synthesis and purification controls define success. Some suppliers rely on bulk import or accept visible levels of unidentified byproducts. Several times we’ve received panic calls when these lower-grade lots disrupt research or tox studies. Experience shows that shortcutting vapor-phase purification creates problems down the line—impurities riding along that interfere with both bioassays and analytical work.
We detail our GC trace analytics for every customer on request, and frequently run full impurity panel screens for high-stakes applications. Word spreads in the field: when another supplier’s batch goes cloudy or emits foreign odors, calls come in for our stock. There is no replacement for process control and willingness to document every phase. Years ago, to improve shelf-life at the customer’s site, we switched to smaller unit bottles packed with tamper and light-resistant features. Arecoline’s susceptibility to degradation forced that change, and conversation with end-users confirmed it worked.
Many product offerings outside our facility use identical chemical descriptors but differ on careful analysis. Our product never includes synthetic shortcuts that trade cost for quality. We maintain full traceability on each raw material batch, tightly document yield loss and side-product evolution, and audit our solvent recovery cycles. These efforts seed the long-term supply relationships we value, both locally and internationally.
Unlike common solvents, Arecoline doesn’t move through the supply chain invisibly. Regulatory agencies and oversight bodies routinely audit our facility, checking documentation, standard operational discipline, and product labeling accuracy. End-users dealing with compliance crucially rely on verifiable chain-of-custody information, which is only possible when the actual manufacturer answers questions, not an anonymous reseller.
On the purchasing side, Arecoline’s cost profile reflects a reality of controlled supply. Sourcing fresh seed extract involves global supply chain negotiation and careful management of agricultural shifts. Our sources are regularly inspected for both quality of raw material and for environmental compliance—documentation is not optional, because clients demand full transparency.
Alternative Arecoline products often come from traders collecting finished batches from various small aggregators, homogenized into broad “chemical grade” labels. Over the years, university labs showed us how these pooled lots can produce spectral inconsistencies and contain obscure plant oil admixtures, causing false data or poor reproducibility in assays. As direct manufacturers, we absorb the cost and effort of unblended, tightly characterized lots.
Inside the manufacturing line, extraction starts with authenticated Areca catechu seed material, milled under nitrogen to inhibit early oxidation. Our technicians run acid-base extraction at temperatures determined through process mapping, and then direct the mixture through solvent washes. Distillation takes place in glass-lined columns, fully monitored for temperature and vacuum level. Fresh distillate cools directly into reduction vessels, checked for color and odor by both analytical means and experienced chemists who’ve smelled thousands of samples—olfactory “memory” catches issues instruments sometimes miss.
Analytical staff bring batches to the instrument room, confirming clean GC-MS spectra, and cross-referencing against stored benchmarks for known trace impurities—these routines were shaped by decades of data, not a single “validation protocol.” If a bottle ever leaves the plant, it represents a process that’s been both audited and constantly improved, reflecting both regulatory pressure and loyal customer feedback.
No distributor or third-party can answer specific formulation or stability questions the way a full-cycle manufacturer does. End users often reach out directly to discuss Arecoline’s performance in particular solvents, or want to know the best handling for parallel screening. On-call application chemists provide direct responses derived from ongoing use, not abstract data sheets.
In one widely cited case, a customer working with microgram-level Arecoline experienced sample evaporation in high-throughput dosing. After investigation, we recommended a tweak in carrier solvent and adjusted aliquot container sizes, eliminating future sample loss. Solutions like this only occur when the people who make the product are actively connected to its real-world use.
Over many years, customer input has changed how we refine and package Arecoline. Requests for smaller, sealed vials led to new product lines. Concern over trace-level moisture resulted in new vacuum-drying stages. When a customer struggled to break emulsions during extraction, our process team engineered a modified wash that reduced carry-over plant residues—improving the product not just for a single user, but for everyone down the line.
It’s common now for us to provide real-time batch QC snapshots with every order, along with stock stability recommendations and detailed impurity breakdowns. These measures—born from customer challenges—have raised the overall utility of Arecoline, making experimentation more predictable.
Producing Arecoline at consistently high purity isn’t a process that runs on autopilot. Fluctuations in raw material composition, especially when dealing with natural extracts, force continual adjustment. Agricultural variables like rainfall or drought in growing regions shift the alkaloid content; every new harvest year, process conditions get retuned, both upstream and downstream. Data from each lot gets fed back to process chemists and production engineers for long-term tracking.
We have experienced firsthand the instability Arecoline can exhibit during improper storage or under imprecise pH management, manifesting as yellowing or odor changes. That’s why over time, our packaging now emphasizes small-unit quantities, oxygen and light exclusion, and temperature-controlled shipping whenever possible. Each step, from raw seed to delivery, gets scrutinized and updated, removing guesswork and uncertainty.
The best solutions for persistent issues in Arecoline production and usage stem from close contact with customers and direct understanding of chemical realities. Requests for longer shelf-life led us to trial multiple bottling materials and sealing techniques until we landed on the current best practice. Several research partners preferred custom analyte concentration, so we built out a process to supply both standard and pre-diluted Arecoline in certified solvents.
Supply interruptions due to volatile agricultural inputs sometimes threaten continuity—so we diversified approved seed sources and hold buffer inventory on hand, shielded from the cycles of the global market. Supply teams stand ready to answer real questions on batch origin, recent QC, or packaging—no bureaucracy, just direct lines of communication from plant to bench.
With years of shipping Arecoline, the answer to “why buy from a real manufacturer” has become obvious. Researchers, pharmaceutical teams, and technical buyers demand consistency, detailed documentation, and the ability to ask “what’s really in this batch?” without being stonewalled. Our shift toward transparency—sending full impurity reports, providing batch-specific advice, and engaging in audits of both our process and our supply chain—gives end users something no repackager or anonymous trader can: earned trust.
The future of Arecoline, like any specialty molecule, belongs to those willing to learn from every batch and every question. By keeping close to our customers, employees, and raw materials, we ensure each bottle represents not just compliant product, but a culmination of expertise, focus, and care that comes only from those who truly make what they sell.