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HS Code |
832535 |
| Chemical Name | Alpha-Bromo-4-(1-Pyrrolidino)Acetophenone |
| Molecular Formula | C12H14BrNO |
| Molecular Weight | 268.15 g/mol |
| Cas Number | 49851-31-2 |
| Appearance | White to off-white powder |
| Melting Point | 74-78°C (approximate) |
| Solubility | Soluble in organic solvents such as ethanol, methanol, and DMSO |
| Purity | Typically >98% |
| Storage Conditions | Store at 2-8°C, protect from light and moisture |
As an accredited Alpha-Bromo-4-(1-Pyrrolidino)Acetophenone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White, opaque plastic bottle labeled “Alpha-Bromo-4-(1-Pyrrolidino)Acetophenone, 10 grams”, with tamper-evident seal and hazard markings. |
| Shipping | Alpha-Bromo-4-(1-Pyrrolidino)acetophenone is shipped in tightly sealed, chemical-resistant containers to prevent leaks and contamination. It is packaged in compliance with relevant hazardous material regulations, clearly labeled, and includes proper cushioning to avoid breakage. Temperature and humidity controls may be used, ensuring safe and secure delivery to laboratories or authorized facilities. |
| Storage | Alpha-Bromo-4-(1-pyrrolidino)acetophenone should be stored in a tightly sealed container, away from direct sunlight, moisture, and incompatible substances such as strong oxidizers. Keep it in a cool, dry, and well-ventilated area, ideally in a designated chemical storage cabinet. Proper labeling and adherence to local chemical storage regulations are essential for safety and to prevent contamination or degradation. |
Applications of Alpha-Bromo-4-(1-Pyrrolidino)Acetophenone in Industrial ManufacturingAlpha-Bromo-4-(1-Pyrrolidino)Acetophenone supports multiple downstream industries as a specialized intermediate. Its distinct molecular structure enables targeted syntheses, making it valuable in the production of pharmaceuticals, fine chemicals, agricultural formulations, and specialty organic compounds. 1. Pharmaceutical Intermediate for CNS-Active AgentsWe supply this material as a critical building block for CNS-active pharmaceutical agents, where its brominated acetophenone core streamlines selective amine introduction during active pharmaceutical ingredient synthon construction. Production teams employ it in secondary amination, yielding high-purity intermediates required for analgesic and anticonvulsant APIs. End users specify narrow impurity profiles and low residual bromide to meet stringent release criteria. Industry compliance standards
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2. Advanced Fine Chemical SynthesisSynthetic specialty chemical manufacturers rely on this material as a halogenated aromatic intermediate, especially for introducing β-keto functionalities into custom molecules. Custom synthesis teams design routes where they utilize the pyrrolidino group to influence selectivity during carbon-carbon coupling, supporting tailored aromatic ketone production. The consistent lot-to-lot reactivity enables cost-efficient scale-up and minimizes purification burdens for buyers. Industry compliance standards
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3. Agrochemical Active Ingredient DevelopmentAgrochemical R&D sites use this compound as a platform for new pesticide or herbicide intermediates. Its brominated structure readily incorporates into multi-step preparations for heterocycle-functionalized agroactives. Application in targeted alkylation reactions allows rapid exploration of structure-activity relationships, supporting pipeline expansion for innovative crop protection chemistries. Strict monitoring of residual impurities ensures compliance with agrochemical registration. Industry compliance standards
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4. Synthesis of Research and Analytical ReagentsLaboratory and industrial R&D teams incorporate this material into preparative routes for custom reagents and analytical standards. Chemists favor its defined bromo-acetophenone structure for supporting the production of calibration materials or markers, especially for mass spectrometry and chromatography. Research suppliers request consistent chemical purity, minimizing lot variability that may interfere with assay development. Industry compliance standards
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Alpha-Bromo-4-(1-Pyrrolidino)Acetophenone doesn't draw crowds in a trade show, but it's a workhorse for specialists who come looking for consistency. Manufacturing this compound in our plant never relies on chance: batches pass through reactors designed to handle brominations cleanly, even at high loadings, and we monitor every drop that passes from synthesis to crystallization. Over the years, we've learned what chemists expect. They look for clear, pure crystals or a reliably fine powder—not a grab bag of unknowns from a trader’s shelf. Most people only see the end result, but getting there draws on years of practice and close control of temperature, moisture, and timing.
The molecular structure is a mouthful, but it shapes everything we do during synthesis. Alpha-Bromo-4-(1-Pyrrolidino)Acetophenone slots into custom syntheses where bromoacetophenones often act as intermediates, feeding into a broader set of transformations. Subtle differences in batch quality or uninvited byproducts can make downstream reactions unpredictable. Our priority remains producing material that delivers on identity and purity every time—our own processes run analytics internally so we stay ahead of environmental and quality standards.
From our experience, small shortcuts at the bromination stage often spell trouble. Unreacted starting material, trace moisture, or a slightly overbrominated batch might seem like small problems at first glance. Down the line, these problems become headaches for analytical teams trying to fit data into validation windows. Years back, we had a production run where a small variate in the reaction temperature led to a yellowish tint in the product—minor to some, but it triggered a full investigation in our lab. The lesson stuck. From then on, temperature and time never drift even one degree or minute off target in our process, thanks to both hardware and vigilant people.
We devote inspection points to check particle size, water content, and product form. Many customers let us know if product texture shifts or residual bromide is higher than usual. We do a lot to avoid these calls—the blend of process control and transparent feedback means standards tighten year-by-year. Our staff gets familiar with the quirks of each production vessel, and we see how small tweaks can eliminate lot-to-lot variability. Knowing the source of your Alpha-Bromo-4-(1-Pyrrolidino)Acetophenone beats trusting a string of intermediaries. We can pinpoint exactly which technician oversaw a particular batch, and we have data for every step.
Alpha-Bromo-4-(1-Pyrrolidino)Acetophenone stands apart from simpler bromoacetophenones or unsubstituted analogs. The pyrrolidino group brings specific reactivity. In synthesis, the difference between this compound and an unsubstituted variant isn’t academic—yields, selectivities, and even safety profiles shift with each change. With the bromo substituent at the alpha position, it offers distinct synthetic utility. Many researchers have shown that it unlocks transformations that demand a bromo group ready for nucleophilic displacement, leaving the pyrrolidino group untouched to lend further functionality downstream. Often, chemists approach us with very targeted use cases—solid-phase reactions, formation of new heterocyclic scaffolds, or design of custom ligands. Each one draws on the unique reactivity profile this structure delivers. Our technical support teams understand these demands, so we watch for contamination or byproducts that could interfere in downstream coupling or ring closure steps.
Unlike some off-the-shelf bromo derivatives, this product isn't just about the bromo group. The pyrrolidino ring steers solubility and stability under reaction conditions. Heat-sensitivity or hydrolysis can make or break a run, especially in high-throughput labs. From our end, that means drying and storage protocols must stay strict. We vacuum-seal finished material, shield it from ambient humidity, and run regular shelf-stability studies. Our internal standards see tighter windowing than what's common in commodity offerings.
Over time, we saw that different labs ask for different grades. Some syntheses need rigorous HPLC purity at or above 99%, while others are satisfied with standard purity around 97%. From a manufacturing side, pushing to ultra-high purity needs more than a single column clean-up; we often cycle through multiple purification steps and fine-tune solvent ratios. Some customers ask about Brevetoxins and other trace element levels—here, we’ve implemented ICP-MS screening for heavy metals and routine GC-MS sweeps for organic volatiles. It's not just about ticking boxes for compliance. Years ago, a customer flagged a persistent sticking point in their downstream amination procedure that traced back to low-level chlorination byproducts in their Alpha-Bromo-4-(1-Pyrrolidino)Acetophenone. That single report ignited a multi-batch review from our analytical lab, and we built additional control checks into our process from then on.
As for physical state, particle size and flow matter more than most product guides let on. Pourability affects dosing consistency. So, we tested granulation methods, adjusted drying curves, and settled on a few tight windows for particle distribution that balance stability and ease of handling. Crystalline or powder forms both see demand, and we supply accordingly. Each order gets a stored subsample for traceability. Feedback pushes improvements; each batch builds on the last.
Supplying Alpha-Bromo-4-(1-Pyrrolidino)Acetophenone in kilogram to multi-hundred-kilogram quantities, we've navigated a shifting landscape of regulations and user requirements. Sourcing raw materials doesn't take shortcuts—every precursor comes with a documented origin, purity certificate, and checked against our in-house impurity standards. Market shifts and supply chain delays sometimes strain delivery, but we keep buffer stocks on hand knowing how disruptive a single missing kilo can be for our customers’ synthesis schedules. Years of managing risk mean we've built long-term relationships with core suppliers and alternate sources, so unexpected market tides don’t catch us scrambling.
All handling equipment faces a cleaning protocol at every turnover, detailed down to gasket materials and solvent flush volumes. Crystallization vessels see regular validation runs, and screens catch both physical debris and stray organics. The hands-on approach cuts recalls and lets us spot potential off-spec material before it ever leaves our gates. Some new clients expect generic documentation, but we show assay sheets, trace chromatograms, and batch data as part of our delivery. Trust, from our point of view, grows from standing behind every package we ship.
We often field questions—can standard bromoacetophenone substitutes do the job? For some cases, yes, but Alpha-Bromo-4-(1-Pyrrolidino)Acetophenone steps into roles where you need a specific reactivity pattern thanks to the pyrrolidino ring. Troubleshooting a synthesis project points to how changing one ring system or the position of bromine shifts yields or creates unexpected side products. Customers and academic groups walk us through their planned sequence when choosing the right input; we see this direct conversation as a way to avoid wasted material and bench hours.
Cheaper options flood the market at times. These often come without firm guarantees on purity, stability, or traceability. Stories circulate among chemists about mysterious byproducts showing up in their reaction scaffolds, only to trace back to imported material with shoddy controls over halide content or pyrrolidino group integrity. We focus on gaps that fragmented supply chains open up—this isn’t just a marketing point, but a practical move to safeguard both our reputation and our customers’ progress. Running our own analytics and keeping manufacturing close to demand helps us flag and correct issues well before they disrupt a synthetic campaign.
Getting Alpha-Bromo-4-(1-Pyrrolidino)Acetophenone from pails to reaction kettles involves more than shipping a drum. End-users sometimes wrestle with material flow or static buildup, especially in dry winter air. Our technical team fields these calls directly. Advice grows from experience—sometimes running an antistatic liner or switching to a specific scoop breaks the jam. Others have asked about transitioning between solvent systems; we share solubility profiles and tips drawn from our in-plant pilot reactions. Feedback from customers trickles back to process tweaks or packaging upgrades, and it's acted on quickly. We see the practical side as essential, not afterthoughts.
Research settings use the product differently than custom process plants. In R&D, waste minimization, traceability, and certified documentation drive decisions. Large-scale users weigh costs, availability, and reproducibility. We've adapted to both, building custom packing options when needed and running extra quality checks for shipments destined for regulatory filings. The same batch that seeds a research campaign may scale to ton-level orders for pilot runs, and this continuum only works when confidence in product quality holds at every stage.
Producing Alpha-Bromo-4-(1-Pyrrolidino)Acetophenone at commercial scale brings its own set of challenges. Reactors see wear and face the persistent threat of corrosion from halide-rich chemistries. Process upsets happen—power blips, unexpected heat surges, or minor batch-to-batch raw material differences teach us humility and drive ongoing training for both operators and engineers. Mishaps can lead to off-spec product, so we've invested in process automation and layered redundancy. Safety systems—both chemical and procedural—shape our planning around bromination runs. Inspections go beyond compliance; our crew internalizes the responsibility that any slip in process not only dents product quality but could impact downstream research and end products.
Sustainability now takes bigger bites from every chemical operation. Waste minimization and recycling of solvents have become daily routines, not regulatory hoops to leap through. Our approach to bromine management shifted over time. Twenty years back, bromine was cheap and waste disposal was a mere afterthought. Now, we capture and recycle as much bromine as process chemistry allows. We track waste from synthesis, invest in continuous flow upgrades, and work with waste recovery partners to reclaim value and cut emissions. Responsible use and disposal make just as much sense as any technical gain in yield or purity.
We see Alpha-Bromo-4-(1-Pyrrolidino)Acetophenone as more than a code on a drum. Customers use it to unlock advanced coupling sequences in pharma research, legal chemical development, and complex building block synthesis. Applications vary—from preparing novel heterocycles to enabling key transformations in agrochemical intermediates. We regularly hear from university labs seeking high-purity lots for reactivity studies, as well as large firms who need repeat supply with tight documentation. Synthetic success downstream relies on solid inputs, and our investment in monitoring every stage of production pays off with batch files that answer lab audits and R&D questions fully.
Over the years, we’ve tracked plenty of use cases: from high-throughput pharmaceutical screens to scale-up batches where process validation triggers close attention to every impurity. In house, we've run pilot reactions simulating downstream use so that our own teams grasp what users face on their side of the bench. We keep strong ties to research partners and keep dialogue open—there is little substitute for real feedback from those chasing novel compounds for which every input matters.
Improvements in product quality don’t come from manuals. Direct reports from chemists using our material set our priorities. Several years ago, a customer showed us their chromatogram from a coupling run blocked by an impurity we hadn’t considered impactful. Bringing that issue into our lab led to a full revamp in how we scouted for side products—not just by target analyte but by potential downstream interference. Another case involved a customer frustrated with clumping during dosing. Our team ran mock dosing in a humidity chamber, then upgraded our drying cycle and switched to nitrogen backfill on packs meant for high-humidity regions. These changes improved both their workflow and our quality benchmarks.
The raw materials market moves fast, and sudden shortages or supplier issues can upend schedules. Rather than just passing on delays, we inform customers early and shift to backup sources or retool formulations where possible. Flexible operations safeguard continuity and build customer trust. It becomes a two-way street—feedback from larger users sometimes points us toward securing new supply options in advance of market swings.
Our technical outreach stays direct—we run workshops for customer labs, share best sampling and handling tips, and troubleshoot challenges as they come up. The entire approach pulls from daily production realities: equipment care, supply chain uncertainties, and the honest feedback loop between shop floor and customer bench. Alpha-Bromo-4-(1-Pyrrolidino)Acetophenone might only appear in the pages of synthesis protocols, but bringing dependable product to each order reflects a lot of pride and practical problem-solving.
Sustaining quality and availability for Alpha-Bromo-4-(1-Pyrrolidino)Acetophenone reflects our commitment to both user success and the evolution of specialty chemistry. As research pushes into more complex reactions and tighter regulatory climates, we remain ready to tweak production and tighten controls further. Our investments in analytics, feedback-driven process improvements, and transparent communication won’t slow down. The market may present new hurdles, but we trust that a hands-on, responsive approach keeps both our team and our customers a step ahead. Years in this business prove that offering dependable input materials forms the backbone of innovation for industries ranging from pharma to advanced materials. We draw satisfaction knowing each successful downstream application started with a manufacturer that cares deeply about the chemistry behind every batch.