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HS Code |
147834 |
| Chemical Name | 4-(Dimethylamino)pyridine |
| Synonym | DMAP prilled |
| Cas Number | 1122-58-3 |
| Molecular Formula | C7H10N2 |
| Molecular Weight | 122.17 g/mol |
| Appearance | White to off-white prilled solid |
| Odor | Amine-like |
| Melting Point | 110-114°C |
| Solubility In Water | Slightly soluble |
| Boiling Point | 220-222°C |
| Density | 1.1 g/cm³ at 25°C |
| Flash Point | 91°C (closed cup) |
| Purity | Typically ≥99% |
| Storage Conditions | Store in a cool, dry place, tightly closed |
As an accredited 4-(Dimethylamino)pyridine prilled factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The chemical is packaged in a 500-gram white HDPE bottle with a tamper-evident screw cap and detailed hazard labeling. |
| Container Loading (20′ FCL) | 4-(Dimethylamino)pyridine prilled is typically loaded in 20′ FCLs, with 10MT packed in 200kg UN-approved drums or bags. |
| Shipping | 4-(Dimethylamino)pyridine prilled is shipped in tightly sealed containers, protected from moisture and light. It is classified as a hazardous material and must be transported according to local regulations, typically via ground or air freight. Packaging is designed to prevent leaks and contamination, ensuring safe and compliant delivery to the destination. |
| Storage | 4-(Dimethylamino)pyridine prilled should be stored in a tightly sealed container in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizers and acids. Protect from moisture, direct sunlight, and sources of ignition. Store at room temperature and ensure good ventilation to prevent dust accumulation. Follow all applicable safety guidelines and chemical storage regulations. |
| Shelf Life | 4-(Dimethylamino)pyridine prilled has a typical shelf life of 3 years if stored in a cool, dry, sealed container. |
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Purity 99%: 4-(Dimethylamino)pyridine prilled with 99% purity is used in pharmaceutical synthesis, where it ensures high reaction efficiency and product yield. Particle size 0.5 mm: 4-(Dimethylamino)pyridine prilled with 0.5 mm particle size is used in catalyst feed formulations, where it provides homogeneous dispersion and consistent catalytic performance. Melting point 110°C: 4-(Dimethylamino)pyridine prilled with a melting point of 110°C is used in acylation reactions, where it supports rapid substrate activation under mild heating conditions. Moisture content <0.1%: 4-(Dimethylamino)pyridine prilled with moisture content below 0.1% is used in moisture-sensitive coupling reactions, where it preserves reagent stability and prevents hydrolysis. Stability temperature up to 80°C: 4-(Dimethylamino)pyridine prilled stable up to 80°C is used in continuous flow synthesis, where it maintains structural integrity and catalytic activity over prolonged processing. Bulk density 0.72 g/cm³: 4-(Dimethylamino)pyridine prilled with a bulk density of 0.72 g/cm³ is used in automated dosing systems, where it enables accurate and dust-free handling. Assay (HPLC) 99.5%: 4-(Dimethylamino)pyridine prilled with 99.5% assay by HPLC is used in fine chemical production, where it assures product purity and consistency in sensitive formulations. |
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Looking at the fine details of 4-(Dimethylamino)pyridine prilled (often called DMAP prilled), the first thing that comes to mind is practicality. In every production batch, we see the importance of supplying a product that brings genuine value to downstream synthesis. Our DMAP prilled stands apart not just because it features a recognizable chemical, but because of how the prilled form solves recurring issues in labs and plants. The transition from powder to prill may seem subtle on paper, but those who have struggled with dust, caking, or wandering particles during transfer and dosing understand the difference. DMAP in powder or crystalline form tends to generate fine airborne dust, which complicates weighing, portioning, and clean-up. Prilled DMAP, offered in stable bead-like spheres, significantly reduces these handling woes—a benefit built from our regular dialogue with industry engineers, formulation chemists, and logistics supervisors who have explained what slows down their day.
Our process for manufacturing DMAP prilled does not happen in isolation. We build each batch from pharmaceutical-grade raw materials, put tight control on reaction temperatures, and closely monitor amination and quenching steps. The focus is always on purity, not just by certificate but by method. Strings of batch data show a typical purity over 99%, but it’s the tactile quality—flow, low static cling, durability of prills—that operators mention most after switching from standard DMAP powder. Each bead resists breaking down into dust under normal transport and packaging, which makes daily work safer and reduces product loss during transfer. That small change keeps product on the belt rather than in the air, a detail recognized during the busiest production shifts.
Chemical consistency shows up not on paper but on the plant floor. Our DMAP prilled holds a melting point between 110°C to 115°C, comparable to standard DMAP, and retains strong basicity. Each production lot gets its own certificate but real consistency is built in the process. Quality means more than a clean spec sheet; it means a product that behaves the same every time, regardless of fluctuations in temperature or humidity. Years of feedback have shaped our prilling methods, leading us to a physical format that pours cleanly and resists bridging in feeders, right up to the last kilo in the drum. This helps maintain dosing precision, whether managed by gravimetric hoppers in a large reactor suite or on the scale in a boutique fine chemicals facility. The end material needs no breaking or scraping—just simple scooping and direct addition.
From an environmental and workplace standpoint, our prilled DMAP has clear advantages. Dust mitigation does more than keep the air clean; it cuts exposure risk for operators who shouldn’t be breathing or absorbing amines. Routine cleaning is simpler too. Sweeping up coarse prills takes a fraction of the time needed to vacuum clouds of fine powder. During batch production, we notice less product lost to filters or captured by local exhaust systems. The gains, as reported to us by plant personnel, extend to storage rooms. Drums of prilled DMAP do not weld into blocks under normal humidity as powdered products sometimes do. Whether stored for a month or a year, the product remains pourable and easy to handle—a detail favored by both warehouse managers and quality auditors.
DMAP has a home across many synthetic pathways. When we look at our order logs, the bulk of shipments supports acylation, esterification, and transesterification reactions. In these roles, DMAP’s nucleophilic catalyst activity speeds up otherwise slow conversions. Synthesizers who use prilled DMAP mention smoother addition profiles—no more clumpy powders getting stuck in reagent carriers or dosing lines. The improved flow and dosing control that come with prilling allow for more predictable initiation, especially important in scaled-up batch synthesis where uneven DMAP addition can skew reaction rates, and in turn, impact selectivity or cause side reactions. For those producing pharmaceuticals, agrochemicals, flavors, and specialty polymers, these details add up to higher yields and less batch-to-batch variability.
Working with prilled DMAP, chemists achieve uniform dispersion in solution, preventing the formation of concentrated hot spots or local deactivation of the catalyst. In one common application—esterification of carboxylic acids with anhydrides—adding prilled DMAP by automated feeder solves the long-standing issue of agglomeration, which has stopped batch sequences in the past. The prill holds together through storage and feeding cycles, hitting the reaction at the intended dose. Customers who switched from traditional crystalline forms report simplified protocol adjustments, often able to drop in the prilled product without recalibrating mass ratios or solvent schemes. The chemical acts the same, but the handling difference shows in reduced waste and better accountability from drum to reactor.
Moisture reactivity ranks among the top complaints for amine-rich chemicals. We manufacture DMAP prilled specifically to tackle this concern. Each prill is dense enough to shrug off routine air exposure; multiple tests in varying climates confirm that prilled DMAP absorbs less ambient water vapor than the regular powder. After months of shelf time, drums easily tip and pour. There’s little if any caking under recommended storage. This pays off most in large-scale operations where leftover product from one campaign must sit idle for a quarter or more before the next run begins. Plant managers recognize substantial savings from reduced rework and less down-time caused by pulling apart lumpy, degraded intermediates.
We pack DMAP prilled in heavy-gauge, lined drums or high-barrier bags that keep out both moisture and contaminants. Fine powders often draw static, picking up debris or sticking to packaging walls, but our prill moves cleanly from container to scoop. Bulk customers using automated systems prefer the lack of clogging, and there’s less fear about product binding to the inside of feeders. For smaller labs and specialty shops relying on partial drums, prilled DMAP stays consistent from the first scoop to the last, which helps keep analytical methods and product quality tight.
Customers approach us with direct comparisons in mind. The shift from DMAP powder or crystalline grades to prilled DMAP comes from years of small frustrations accumulating—dust clouds, inconsistent dosing, and variable storage life. With the traditional powder, static charge creates messy workspaces and potential losses during transfer. Even minor air currents can carry milligrams away, shifting calculated yields and introducing calculation headaches for quality control. In some batches, the powder bridges or clumps, slowing down automated feeds.
Our prilled DMAP does not behave in this way. Each bead resists packing together during transport; we seldom field complaints about stuck drums or caked pails. Sweeping up after handling prilled material takes less time. In high-throughput plants with many operators, this saves both labor and cost. The denser, tactile prill also reduces airborne spread—which regulators and safety professionals cite as a meaningful gain. When spills occur, the prills gather up quickly with minimal loss. Plant maintenance teams have told us that after switching, filter changes and vacuuming frequency drop because the product stays in the process rather than coating infrastructure.
On the cost side, switching to prilled DMAP means more of the purchased active ingredient actually makes it into the reaction. It’s one thing to source a pure product—another to ensure little is wasted to the inevitable inefficiencies of handling. Our production records and customer reports both confirm tighter material balances and improved yield calculations, simply because the product arrives and is dispensed as intended.
Over decades of serving customers in pharmaceuticals, fine chemicals, and intermediates, the strongest endorsements for DMAP prilled have come from users upgrading their handling and feeding systems. In one pharmaceutical operation scaling up an esterification process, plant engineers reported that a switch to prilled DMAP cut operator exposure events by half and improved batch reproducibility. The need for room air changes decreased, and operators commented on the reduction in dust during the daily opening and closing of storage containers.
Another case involved a specialty polymer firm with high dust hygiene standards. They had previously struggled to load fine DMAP powder into gravimetric feeders—powder bridging led to costly line stoppages. After introducing the prilled form, they resumed continuous operation for longer stretches, needing less maintenance and cleaning between batches. Management recorded a drop in material loss and noted that the documentation required by health and safety auditors became easier to compile, thanks to fewer contamination incidents and cleaner sample-taking.
We have seen new customers in biotechnology and agricultural intermediates experiment with prilled DMAP for the same reasons: easier material tracking, fewer issues during long storage, and more reliable batch records. In many cases, the shift pays for itself in reduced rework and consistent product quality, a point shared by teams who care about long-term equipment performance and operational safety.
Our history with DMAP prilled is built on conversations with working chemists and production technicians. We gather insights not just from lab trials but from full-scale deployments, learning from interruptions and feedback loops. With each round of production, we adjust our prilling and purification steps, based on what customers relay after thousands of kilos have moved through their sites. No update or tweak comes from theory alone—it’s the direct experience of users facing a clogged feeder at midnight, or those who lost half a batch due to static-laden powder.
We do not add unnecessary coatings or introduce additives to our DMAP prilled. This keeps the process transparent and maintains the intended reactivity for catalysis. Every time we look at process improvements, we ask a simple question: will it help the downstream user? This no-nonsense attitude pushes us to prioritize purity, tactile quality, and long shelf life. Adjustments are documented and incorporated after real-world validation, not handed down from lab experiments with no connection to industrial reality.
Manufacturing DMAP prilled brings its own challenges and responsibilities. We monitor residual solvent content and track any byproducts tightly. Our protocols follow best practices for chemical safety, and we routinely invite external auditors to validate clean-room and production standards. Safety data and purity results are not just paperwork—they’re tools customers use to comply with internal audits and regulatory filings. By offering a product with traceable batch records and validated analytical data, we support compliance alongside operational efficiency.
From a worker health perspective, prilled DMAP addresses inhalation and skin-contact risks that powder forms never solved. Plant and warehouse teams spend less time in protective gear, and air monitoring results consistently drop when using the prilled material. Our approach emphasizes not only what’s inside the drum but also what escapes into the workplace—showing respect for people, not just process.
Disruptions in chemical supply chains hit hardest where substitutes lack functional equivalence. Our role as a manufacturer gives us direct control over raw material sourcing, production planning, and logistics. We maintain excess capacity for prilled DMAP, drawing on qualified regional suppliers for feedstock to buffer against sudden interruptions. When pandemic-related disruptions tested global supply, we prioritized consistent deliveries based on customer usage data, keeping reserves for long-term partners who rely on frequent shipments.
In every relationship, we encourage open lines of communication. Changes in formulation, modifications to storage, or requests for tailored packaging reach our process team with urgency. We see our customers as collaborators, not just end-points for product flow. In turn, we update prilling technology when we see an opportunity to ease process bottlenecks or reduce risk further.
In-house experience supports the claim: 4-(Dimethylamino)pyridine prilled doesn’t simply duplicate the function of DMAP powder. Instead, it brings measurable gains in batch reliability, safety, and workflow efficiency. The feedback from years of supply cycles, plant visits, and process integration shows that addressing handling realities matters even more than small shifts in nominal purity. Our commitment remains rooted in listening to end-users, delivering product quickly, and ensuring that no important detail gets lost between lab scale and industrial deployment. With every prilled batch, we build on that approach, always looking for new ways to support the work that actually happens inside real plants.