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HS Code |
210318 |
| Name | 5-Methoxy-2-Methylbenzothiazole |
| Cas Number | 25288-14-8 |
| Molecular Formula | C9H9NOS |
| Molecular Weight | 179.24 g/mol |
| Appearance | Off-white to light yellow solid |
| Boiling Point | 332.6°C at 760 mmHg |
| Melting Point | 48-52°C |
| Density | 1.24 g/cm³ |
| Solubility | Slightly soluble in water; soluble in organic solvents |
| Smiles | CC1=NC2=C(S1)C=CC(=C2)OC |
| Inchi | InChI=1S/C9H9NOS/c1-6-10-9-7(5-8(6)12-2)3-4-11-9/h3-5H,1-2H3 |
| Refractive Index | 1.651 |
| Flash Point | 154.3°C |
| Storage Conditions | Store in a cool, dry place; keep container tightly closed |
| Synonyms | 2-Methyl-5-methoxybenzothiazole |
As an accredited 5-Methoxy-2-Methylbenzothiazole factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle labeled "5-Methoxy-2-Methylbenzothiazole, 25g" with hazard symbols, lot number, and manufacturer's information displayed. |
| Shipping | 5-Methoxy-2-Methylbenzothiazole is shipped in sealed, labeled containers compliant with regulatory standards. It is packaged to prevent leakage and contamination, with cushioning materials as needed. Transport is conducted by certified carriers, accompanied by a safety data sheet (SDS) and all relevant documentation, ensuring safe and traceable delivery to the specified address. |
| Storage | 5-Methoxy-2-Methylbenzothiazole should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from ignition sources. Keep it away from incompatible materials such as strong oxidizing agents. Store under inert atmosphere if possible and protect from light. Always follow standard chemical safety and storage protocols, and clearly label the container. |
Applications of 5-Methoxy-2-Methylbenzothiazole in Industrial ManufacturingAs a specialized manufacturer of 5-Methoxy-2-Methylbenzothiazole, we directly support industrial partners with consistent quality and technical guidance. Below, we outline established downstream applications where this intermediate plays a critical role in advanced material production, focusing on compliance, formulation, integration, and finished product types. 1. High-Performance Photoinitiator Production for UV-Cured CoatingsIn the synthesis of photoinitiators for ultraviolet-curable coatings used in electronics and industrial finishes, 5-Methoxy-2-Methylbenzothiazole serves as a key aromatic intermediate. Its electron-rich heterocyclic structure enhances the absorption characteristics of photoinitiator molecules, resulting in accelerated cure rates for high-throughput production lines. Downstream formulators modify the aromatic substitution pattern to optimize photoreactivity suited to complex coating systems, particularly in high-spec electronic device housings and metal finishes. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Synthesis of Functional Dyes for Industrial Textile Processing5-Methoxy-2-Methylbenzothiazole acts as a ring-modifying intermediate in the preparation of sulfur and thiazole dyes, where controlled substitution enhances bath fastness and shade reproducibility during textile dyeing. Dye producers value its role in tuning chromophore stability, enabling textiles to withstand industrial laundering and prolonged UV exposure without significant fading, which is vital for apparel, automotive interiors, and safety fabrics. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Performance Modifier in Specialty Rubber Vulcanization AcceleratorsThe benzothiazole core is essential for the synthesis of accelerators used in efficient sulfur vulcanization of synthetic rubbers. With its methyl and methoxy substitution, this intermediate enables precise tuning of accelerator activity, supporting consistent cross-linking kinetics in applications requiring stringent control over surface hardness, elasticity, and abrasion resistance. Rubber manufacturers rely on this for tires, seals, and automotive components subject to dynamic mechanical stress. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Organic Intermediate for Pharmaceutical and Agrochemical SynthesisOur material operates as an advanced aromatic intermediate for the construction of heterocyclic scaffolds tailored to novel active substances in pharmaceutical and agrochemical R&D. Medicinal chemistry researchers exploit its selective functional group for rapid diversification of lead compounds, supporting SAR studies in antimicrobial and plant growth regulator pipelines. This supports downstream GMP manufacture where molecular purity directly impacts therapeutic or agronomic performance. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Experience in chemical manufacturing teaches a great deal about how fine differences in structure change applications and value. 5-Methoxy-2-methylbenzothiazole, which we refer to by its short tag, MMOBT, brings a distinct aromatic profile and reactivity set to our portfolio. Compared to basic benzothiazole derivatives, this molecule draws attention for its methoxy and methyl substitutions attached at key positions. It’s not just another ring-modified thiazole; with the right production controls, MMOBT steps up to deliver reliability for downstream users who ask for clarity in performance.
Decades spent in organic synthesis make clear: the difference between 2-methylbenzothiazole and our MMOBT isn’t an abstract technical point. The methoxy group at the 5-position transforms not just the polarity, but how this compound interacts during further transformations. In practical terms, our customers look for stability under storage and reactivity that fits custom synthesis schemes. We focus on batch-to-batch repeatability, a lesson learned from both R&D setbacks and round-table talks with reliability engineers in pharma and chemical research. Each lot undergoes full spectral analysis—NMR, GC, HPLC—rather than relying only on theory. Chemists running reaction screens rely on that predictability; we don’t shortcut those steps.
Talking shop with colleagues in flavor chemistry, electro-active material synthesis, and advanced dye research, we often hear requests for intermediates that can do “just a bit more” than the commodity thiazoles common to the market. MMOBT shines where electron-rich rings and oxygenated side chains matter. In our factory, we have seen its role as a scaffold for heterocyclic ligand development gain ground. Others use it in the construction of functionalized aromatic systems—especially where stereochemistry starts to matter and a methoxy group brings flexibility for later transformations or substitutions.
Some pick MMOBT for its role in high-performance dye precursors; it gives reliable color quality and fastness. Colleagues in material science appreciate its contribution in charge-transport polymer synthesis, where subtle tweaks to the aromatic core improve conductivity and final physical strength. Watching it move down the line from base synthesis into complex, value-added products proves how often the right starting material makes the difference between a process that hums and one that sputters.
Manufacturing brings a different perspective from trading or re-selling intermediates. We take direct responsibility for every step, from sourcing thiourea and o-toluidine, through the cyclization and methylation stages, to final purification. This hands-on approach means the chemists in our plant aren’t discussing numbers on a sheet—they know by smell, color, and crystal habit whether a batch will meet our target specs, long before high-end instruments give their readout. That embedded know-how cuts down on off-spec batches and builds confidence among end-users familiar with the perils of unreliable supply.
Customers sometimes ask about synthetic routes using either classic Sandmeyer or milder oxidative methods. Our process optimization team weighs throughput, yield, impurity profiles, and environmental footprint. Early approaches using more aggressive oxidants have slowly given way to methods that minimize waste, reduce the need for labor-intensive scrubbing, and improve worker safety. Commitment to in-house process improvement lets us adjust—and quickly fix—routes or solvent systems if new applications shift priorities.
Lab talk aside, purity isn’t a number chosen from thin air. Downstream yields drop, chromatography becomes tedious, and color or polymer performance changes when MMOBT harbors residuals like unreacted methylating agents or sulfur species. Every bottle we fill for shipment carries documentation tracking the entire synthetic and washing sequence, not just a percent-purity label. Trace-level analytics help spot deviations before they ruin a multi-step process for our clients.
Analysts from our quality team test for both trace solvents and common legacy byproducts from older production lines. If a customer in pharma needs clean starting materials for GMP, or a dye technician wants confidence in the precursors for a ton-scale run, they want to see that analytical trail—not just a generic certificate. We treat feedback about unexpected LC or GC peaks as a direct learning opportunity and adjust parameters, rather than brushing concerns aside.
Trying to draw a line between MMOBT and its relatives means looking beyond a simple registry number or a one-line description in a compound catalog. Modifying the benzothiazole ring changes resonance; adding a methoxy group at position five upturns the electron density, and the methyl at position two affects both steric approach and subsequent reactivity. Early in our experience, process chemists aiming to swap 2-methylbenzothiazole for MMOBT in a reaction would report marked differences in solubility, melting point, and even odor—telling signs for anyone in the chemical trade.
This specific combination, present only in MMOBT, alters reaction pathways in functionalization or cross-coupling. If a customer’s process requires a reliable methoxy donor in later synthetic steps, alternative thiazole derivatives simply don’t fit. Customers pursuing advanced agrochemical actives or medicinal chemistry tools often learn the hard way that choosing the right starting material saves months of backtracking, rechromatography, and paperwork.
From years on the operations floor, we’ve learned that tight process control and minimized waste don’t just help the bottom line—they prevent day-to-day headaches and environmental fines. Advances in selective oxidation and solvent recapture have improved MMOBT’s green profile. For every kilo made, less gets sent to waste handling and more reaches final purity after fewer process steps. We invested in active feedback from the environmental, health, and safety team—because routine monitoring and immediate correction stave off both lost time and a poor safety record.
We apply routine solvent recovery and manage peroxide-forming oils to minimize both hazard and cleanup. In a world of increasing regulation, anyone running a chemical plant dodges unnecessary trouble by getting ahead of compliance. Our improvements in solid removal and wastewater separation came after years of in-the-field fixes, not by following a distant consultant’s plan.
Old habits die hard in chemistry, and skepticism about any “new” intermediate means we take feedback from lab chemists seriously. Some teams in specialty pigment plants, after switching to MMOBT, reported a sharper hue and improved light fastness on fabric. One case in OLED materials research demonstrated that switching from unsubstituted benzothiazole to MMOBT altered layer conductivity and boosted device lifespan—results verified in blind trials, not just company brochures.
Medicinal chemists trying to expand aryl thiazole libraries have mentioned how MMOBT simplifies transformations involving metal-catalyzed couplings, thanks to the directing effect of the methoxy group. These concrete outcomes shape how we formulate and deliver the next batches: tighter melting point ranges, stricter water and oxygen exclusion, and packaging sized to avoid repeated air exposure.
Manufacturing at scale doesn’t mean only stamping out drums of unvarying material; it means listening for the edge cases. We regularly collaborate with lead formulators requesting custom solvent systems or micronization for MMOBT destined for demanding R&D. Our synthesis team modifies crystallization profiles on request, and we coordinate with formulation labs to match downstream process needs. Instead of “one size fits all,” our lot-tracking and batch reporting give users documentation matched to their exact run.
Technical support comes direct from staff who ran the original syntheses, not from a distant call center reading a script. On occasion, a customer uncovers an impurity peak not previously reported; our group works through the raw data, runs additional analyses, and sends back both explanation and a corrective plan. Chemical manufacturing keeps people humble—surprises can arise even with the best-laid processes, but ongoing dialogue closes gaps far more than one-off, generic assurances.
Temperature, moisture, and air all touch the final delivered product. MMOBT’s stability profile stands up well to short-term room temperature exposure, but years of watching returned goods convince us to pack each lot under inert gas and offer clear storage instructions. Some clients choose amber glass; others favor lined metal containers, especially for humid climates. Packing and shipping teams learn quickly to inspect seals, knowing an undetected crack means questions when the product hits the customer’s dock.
Supply disruptions trace back all too often to small errors. By handling shipment in-house, we verify packing procedures, choose couriers experienced with specialty chemicals, and maintain feedback loops with logistics. It may seem minor, but a single mishandled drum can wreck a month’s worth of planning for both sides.
Regulatory questions rarely come as a surprise. Governments and industrial customers both want guarantee that specialty heterocycles meet traceability and reporting expectations, especially where pharmaceuticals, electronics, or dyes enter global commerce. By keeping all records from raw material intake through to lot-specific COA, our compliance team addresses audit requests quickly and thoroughly. This full-chain traceability grew out of past hard knocks—delays caused by missing paperwork or ambiguous chain-of-custody eat profit and damage trust.
Implementing digital batch recording early on, and maintaining records in both local language and English, lets us respond to export documentation demands without scrambling. In the last round of regulatory changes affecting synthetic aromatic compounds, we had the advantage of quickly mapping new requirements onto our MMOBT production protocol, rather than pausing shipments or playing catch-up.
Years in manufacturing shape a direct culture: problems tackled early prevent the need for high-stakes recovery. We don’t leave SMEs out of decision loops; scale-up operators, purification leads, and shipping coordinators share root-cause finds before corrective action. This open-book attitude cuts through red tape and ensures that when a customer’s process needs shift—a change of solvent, a new reaction condition, a demand for higher analytical transparency—we hear and adapt.
Customers appreciate real accountability. Stories from our own QA lead—who once caught a mislabeling issue before international export—underscore that effective teams don’t hide imperfections. Not every problem makes it out the door as a defect, but every learning makes it into the next batch and the next team meeting. Fact-based improvement doesn’t rely on buzzwords but on record-keeping, humility, and acceptance that making chemicals right is the only path to staying in business.
Manufacturing doesn’t end at the shipping dock. Ongoing partnerships with academic and private research drive both volume and innovation for MMOBT. We answer routine questions about scale-up or impurities, but the deeper discussions—optimizing transformation conditions, adjusting for new substrate compatibility, tuning physical endpoint—feed both science and business. Repeatedly, breakthroughs in applications map directly to open communication between bench chemist and supplier.
In one notable collaboration, a research group reconfigured a pilot process for light-activated antimicrobial dyes using MMOBT, relying directly on custom specifications and interim preps shipped in real-time. That experience didn’t just help the researchers publish their findings; it gave us in the plant firsthand feedback on what process adjustments mattered, what data gaps to fill, and how to shape future QC routines.
Long-term manufacturing stands on a foundation of small, regular improvements. For MMOBT, adopting more selective methylating agents reduced both hazardous waste and after-processing. Switching filtration media cut solid residuals, and customer data pointed the way for each change. The product has become cleaner, purer, and more consistent because each improvement gets rolled out plant-wide.
Market demand doesn’t stay still. Regulatory requirements, downstream use standards, and customer requests grow steadily more complex. Flexibility in process, dedication in technical support, and direct accountability in each batch form the backbone of how we keep MMOBT valuable in the supply chain. It’s not about following fads or piling on boilerplate claims—it’s about listening, learning, and delivering reliability others can build on.
The best teachers in chemical manufacturing remain the problems that cost time and material. Over the years, we’ve seen bottleneck steps hold up delivery, new impurity peaks mystify analysts, and the usual dance with raw material quality require quick pivots in supply contracts. By addressing issues head-on, whether a batch comes out darker than expected or a customer reports reactivity quirks, we improve both our process and our credibility in the market.
Customers sometimes surface challenges in scaling lab results without uninvited byproducts. These reports carry more weight than any internal test—if a kilo-batch doesn’t behave like the pilot, we re-examine the reactor run, sample schedule, and air/moisture load. Each time, such field learning keeps the process grounded, and tighter than any theoretical control system could assure on its own.
5-Methoxy-2-methylbenzothiazole keeps gaining ground across applications—from core chemical synthesis to advanced electronics and specialty materials. Its unique combination of chemical groups continues to open doors for downstream innovation. We stay focused on mastering both the science and day-to-day demands, grounded in direct relationships with those who use our material in the real world. The feedback forms, the calls from formulation labs, the hard-won improvements in waste handling or packaging—these are the heart of making not just a good product, but the right one for a changing industry.
Behind every drum, amber bottle, and carefully wrapped shipment stands a team trained by years of direct production—not trading, not guessing, but making and delivering to the standards our customers define. MMOBT represents more than a label on a bottle. It’s the result of ongoing conversation, technical refinement, and shared commitment to quality at every step of the journey.