|
HS Code |
361643 |
| Iupac Name | 3-Methyl-1H-pyrrole |
| Cas Number | 872-50-4 |
| Molecular Formula | C5H7N |
| Molar Mass | 81.12 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Density | 0.947 g/cm³ |
| Boiling Point | 124-126 °C |
| Melting Point | -71 °C |
| Solubility In Water | Slightly soluble |
| Flash Point | 25 °C (closed cup) |
| Refractive Index | 1.508 |
| Smiles | CC1=CC=CN1 |
As an accredited 3-Methylpyrrole factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle, sealed with a screw cap, labeled '3-Methylpyrrole, 250 mL', hazard symbols, manufacturer and lot number displayed. |
| Shipping | 3-Methylpyrrole is shipped in tightly sealed containers, protected from light, heat, and moisture. It is classified as a flammable liquid and should be transported according to relevant regulations (e.g., DOT, IATA). Proper labeling, use of compatible packaging materials, and safety documentation (SDS) are essential to ensure safe handling and delivery. |
| Storage | 3-Methylpyrrole should be stored in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances such as oxidizing agents. The container must be tightly closed and clearly labeled. Protect from moisture and direct sunlight. Use chemical-resistant containers, and keep away from heat and open flames. Follow all local, state, and federal storage regulations for hazardous chemicals. |
Applications of 3-Methylpyrrole in Industrial ManufacturingAs a vertically integrated manufacturer of 3-Methylpyrrole, we supply this intermediate to established downstream sectors. Our technical support covers precise blending parameters, regulated process routes, and traceability for each industrial segment below. Each scenario details authentic end-uses and processing practices validated via our direct customer partnerships and documented compliance requirements. 1. Pharmaceutical Intermediates for API Synthesis3-Methylpyrrole serves as a key intermediate in several pharmaceutical active ingredient synthesis pathways, including the manufacture of novel heterocyclic drug scaffolds. Our material integrates into Grignard coupling steps, cyclization protocols, and selective reduction processes to yield compound cores found in neuropharmacological agents. Process engineers closely monitor batch traceability to align with cGMP and regulatory filings. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Agrochemical Synthesis: Herbicide and Fungicide PrecursorsDownstream agrochemical formulators utilize 3-Methylpyrrole as a starting block for triazole and pyrrole-based herbicide actives. Production lines integrate this material into multistep syntheses where methyl group flexibility enables key functionalizations required for bioactivity. Operations rely on precise input dosing and effluent monitoring in line with crop protection standards. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Electronic Materials: Organic Semiconductor ManufacturingProducers in the electronics sector employ 3-Methylpyrrole as a monomer for synthesizing polypyrrole and related conjugated polymers. Its inclusion enhances charge mobility and processability in the matrix, critical for organic thin-film transistors and anti-static coatings. Our batch-to-batch purity is critical to reproducible electrical performance, and our support includes impurity mapping for device manufacturers. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Specialty Dyes and Pigment ManufacturingLeading dye producers use 3-Methylpyrrole to build indole and pyrrole-based chromophores for high-performance colorants. The methyl group offers tunable solubility and spectral properties, allowing for customized coloration in inks, plastic masterbatches, and technical coatings. Quality control addresses color fastness and solvent purity to meet end-user durability demands. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Flavor and Fragrance Ingredient Synthesis (Non-Food Contact)3-Methylpyrrole is incorporated into chemical processes for specialty aroma compounds, especially pyrazine and pyrrole derivatives for non-food-contact applications such as tobacco and aroma encapsulation. Input ratios are precisely controlled to target authentic aromatic notes. Only certified lots with impurity mapping support regulatory clearance for end-use labeling. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive 3-Methylpyrrole prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: admin@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
In our business, where every batch brings its own story, 3-Methylpyrrole carves out a role that’s hard to replace. This isn’t a generic solvent or an off-the-shelf intermediate – its character comes from a three-carbon chain branching off the pyrrole ring, producing a structure that reacts just differently enough to change the outcome. Over the years, watching how customers in fine chemicals, pharmaceuticals, and specialty polymers have worked with this compound, we’ve come to respect its unique value at each stage of the supply chain.
We manufacture 3-Methylpyrrole with a focus on chemical purity and reliable performance. The process starts with well-controlled cyclization and methylation stages, making sure side reactions don’t leave behind unwanted byproducts. The finished material shows up as a colorless to pale yellow liquid, often with a sharp, characteristic aroma that signals proper formation of the methyl group at position three. In our facility, routine analysis confirms its assay by GC methods, consistently above 98%. We take care to minimize water and low-boiling impurities, since small errors here can snowball during downstream processing.
The product we deliver supports projects where quality and predictability aren’t negotiable. Its melting point, boiling range, and refractive index line up with expectations laid out in well-established literature. Many of our end-users tell us that slight fluctuations in purity make all the difference for their applications. For instance, tiny traces of dimethylated pyrroles can disrupt polymerization yields or cause subtle changes in pharmaceutical intermediates. That’s why our QC program tracks these minor components batch by batch.
Customers don’t call us for 3-Methylpyrrole just to fill up a warehouse. Most want its dialed-in reactivity for assembling building blocks that feed value-added syntheses. Chemists in pharmaceutical R&D lean on it as a precursor to substituted pyrroles, which can go on to deliver everything from anti-infectives to CNS-active molecules. In agrochemicals, the methyl group at position three sets off new pathways for pyrrolidine and lactam synthesis, giving designers more options as resistance pressures grow.
By using our 3-Methylpyrrole, polymer manufacturers have tuned mechanical and electrical properties in high-temperature resins. The difference comes not just from the methyl side chain but from consistent batch profiles – since anything less opens the door to gelation or discoloration under processing conditions. We’ve heard from users of lower-grade material that polymer flow or final color often shows up as the first red flag of a bad supply.
If you’ve worked with pyrroles for a while, you’ll notice that 3-Methylpyrrole reacts cleaner than its parent compound in many substitution reactions. That extra methyl group at the three position does more than shift boiling points. It steers both steric and electronic properties, changing rates and selectivity in alkylation, sulfonation, and acylation. There’s less risk of overreaction compared to 2-methyl or unsubstituted pyrroles – a point that’s often overlooked by buyers until a failed scale-up prompts a second look at sourcing.
As a manufacturer, we deal with the quirks of this chemistry up close. Throughout production, even a slight slip in temperature or feed ratio changes impurity profiles. End-users rarely see this side, but fine control at every step prevents downstream headaches. Distillation is especially demanding, since both water and methyl group migration can introduce off-odors or color bodies. By keeping these variables reined in, we’ve helped chemists cut troubleshooting time and improve reproducibility in their syntheses.
Some customers wonder why they can’t substitute other pyrroles, like 2-methylpyrrole or N-methylpyrrole, for the three-methyl version. The answer isn’t just in the structure on a page. In practice, placing the methyl group at position three influences electron distribution and nucleophilicity in ways that shift the whole course of a reaction. For some syntheses, 2-methylpyrrole introduces steric hindrance too close to the nitrogen, blocking essential ring transformations. N-Methylpyrrole behaves more like an amine, reducing suitability as a building block for certain heterocycles.
Our experience shows that choosing the right regioisomer up front saves a lot of optimization. 3-Methylpyrrole enables pathway selectivity, minimizes side product formation, and gives access to intermediates that are hard to reach by other routes. This makes it better suited for work that relies on precise substitution patterns, such as the assembly of complex organic frameworks or the construction of biologically active scaffolds. Users focused on traditional polymer or dye syntheses sometimes try to swap products for cost reasons, only to find that color and stability suffer with the wrong starting material.
Working directly with manufacturers like us, you get access to the material data behind each batch. We don’t hide behind CAS numbers and general purity claims; our process data and assay sheets track exactly how each lot matches up to project requirements. This makes it easier to trace activity and troubleshoot unexpected results.
Every drum or tote we ship reflects the lessons we’ve learned about storing and handling 3-Methylpyrrole. This compound resists oxidation better than some of its cousins, but it still calls for proper closures and dry storage to avoid degradation. The methyl group lowers its tendency to form peroxides, making routine lab work and industrial scale-up safer and more predictable. That said, we still recommend processing under nitrogen and minimizing exposure to air, especially for batches that might sit unused for months.
Our packaging uses high-grade liners and tamper-resistant seals. Purity preservation goes beyond marketing language; once opened, the material can start to absorb water from the air, so we work closely with customers to provide sizing options that fit their consumption rates. Field feedback reminds us that losses from evaporation or contamination creep up faster when storage gets overlooked. Delivering directly from the reactor to sealed drums shortens the distance between production and use, keeping trace impurities to a minimum.
Working on the front line of chemical manufacturing, safety and environmental responsibility stay woven into each batch of 3-Methylpyrrole. The process doesn’t generate large volumes of spent solvents or toxic byproducts, but any pyrrole derivative requires careful containment and waste neutralization. We operate in compliance with strict local, national, and international guidelines, integrating real-time monitoring systems for emissions and releases.
End-users in research and pilot plants often look for guidance on safe handling and storage, so we provide material safety data and make sure every shipment includes full traceability. For scale-up or continuous production, understanding the volatility and flammability curves of 3-Methylpyrrole allows customers to design safer transfer systems and ventilation regimes. Preventing exposure means more than ticking off compliance boxes – it lowers employee risk and reduces costly downtime from avoidable incidents.
Over time, we’ve seen how small differences in starting materials amplify across a supply chain. For us, it goes beyond filling an order: it’s about making sure your process doesn’t face bottlenecks due to inconsistent supply or off-spec batches. Many users stick with us after running side-by-side tests, seeing fewer failed reactions and better yields. We set up feedback lines directly with lab leads and process teams to log performance insights, making every batch a chance to improve both quality and reliability. Our troubleshooting and technical support teams aren’t third-party salespeople—they’re the people who made your 3-Methylpyrrole.
Chemical manufacturing never stands still. We see new methods for synthesizing 3-Methylpyrrole evolving as chemists hunt for greener and more cost-effective routes. Our team tracks developments in catalytic and flow-based systems, exploring catalyst lifetimes, waste minimization, and energy use. At the same time, real-world conditions often outpace pure research. Reaction scale-up can bring surprises like unexpected impurity formation or thermal management issues. We address challenges with continuous small-batch trials and close coordination between R&D and plant engineers.
The demand for sustainable production grows every year. Our lab has shifted toward solvent recycling and integrated waste-management loops, reducing water use and byproduct volumes. This isn’t a marketing slogan, but something driven by tighter regulations and community expectations. Customers ask for lifecycle impact data not to check regulatory boxes, but to answer their own stakeholders about environmental impact. We openly share this information, tailoring production cycles to balance cost, quality, and environmental commitment.
Feedback shapes our next steps. Over the years we’ve collected plenty of stories from research benches and production floors. Some highlight how reliable 3-Methylpyrrole keeps batch records simple and troubleshooting short. Others push us to adapt our process for specialized needs, like custom packaging or lower residual moisture for anhydrous syntheses. Our in-house application support team often collaborates directly with formulation scientists to tweak product specs for new reactions, sharing insights as new routes for pyrrole-based molecules emerge.
This two-way communication helps anticipate changes in regulatory requirements, shifts in demand, and new quality benchmarks. Instead of waiting for formal complaints, our quality team checks in with users at routine intervals. Whether through plant visits or digital feedback channels, the goal stays the same: build the supply chain backward from end use, not just push material out the door.
Where you source 3-Methylpyrrole matters for long-term success. As a direct manufacturer, we back up our commitments with real data from the plant floor. We steer clear of diluted specs or rebranded intermediates that muddy the chemical story. Each shipment carries detailed quality and assay records, matched by retention samples stored for years. If a question arises about a synthesis or an unexpected side reaction, we can track every step back through prodution.
While many intermediates look interchangeable, experience proves that the wrong regioisomer or an off-spec byproduct can introduce months of delays. Customers who’ve been burned by low-cost imports or generic barrels know this firsthand. We’re set up to support both fine chemicals producers and scaling pharmaceutical companies, adapting batch sizes and delivery formats to fit your changing project needs.
Our approach to making and delivering 3-Methylpyrrole comes from direct experience, not generic promises. Every improvement, safety upgrade, and process tweak reflects lessons learned with customers and our own teams. We invest in new technology when it drives measurable gains for end-users – whether that means better purity, a safer work environment, or a shorter development cycle for your products.
At the end of the day, high-quality 3-Methylpyrrole supports better chemistry. The methyl group at position three enables new routes to complex molecules and improved material properties. Reliable sourcing, batch-to-batch consistency, and open technical support make the difference between good chemistry and great results. We bring these elements together, not because they’re in a standard, but because they keep our customers at the forefront of their fields.