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HS Code |
195751 |
| Name | Veratrole |
| Chemical Formula | C8H10O2 |
| Iupac Name | 1,2-Dimethoxybenzene |
| Molar Mass | 138.17 g/mol |
| Appearance | Colorless liquid |
| Odor | Pleasant, aromatic |
| Melting Point | 16-18 °C |
| Boiling Point | 206-208 °C |
| Density | 1.07 g/cm³ |
| Solubility In Water | Slightly soluble |
| Flash Point | 87 °C |
| Cas Number | 91-16-7 |
As an accredited Veratrole factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Veratrole is packaged in a 500 mL amber glass bottle with a secure screw cap and safety label indicating all hazards. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for Veratrole: Standard 20-foot container, typically holds 16–18 metric tons, securely packed in drums or IBCs. |
| Shipping | Veratrole (1,2-dimethoxybenzene) is typically shipped in tightly sealed containers made of compatible materials to prevent leaks and contamination. It must be stored and transported in a cool, well-ventilated area, away from sources of ignition, as it is flammable. Shipping complies with local, national, and international chemical regulations. |
| Storage | Veratrole should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from sources of ignition, heat, and direct sunlight. It should be kept away from strong oxidizing agents. Appropriate safety labeling and secondary containment are recommended to prevent leaks or spills, and the storage area should have suitable fire extinguishing equipment nearby. |
| Shelf Life | Veratrole typically has a shelf life of 2-3 years when stored properly in a cool, dry, and well-sealed container. |
Applications of Veratrole in Industrial ManufacturingAs a dedicated producer of Veratrole with extensive industrial integration experience, we supply this specialty intermediate to downstream sectors that require precise chemical performance and strict consistency. Below, we outline distinct application scenarios where our material contributes as a key ingredient in advanced process formulations, referencing real usage data, regulatory requirements, and customer-validated practices. 1. Pharmaceutical Intermediate for Synthesis of Active IngredientsVeratrole serves as a tailored starting material in pharmaceutical manufacturing, specifically for the synthesis of certain psychoactive and antineoplastic agents. It functions as a building block for molecules such as methylenedioxyphenethylamines, where reliable reactivity and absence of residual metals are critical for final product quality. Our customers use Veratrole in controlled environments, as any impurity or deviation could alter the pharmacological profiles of APIs derived from it. Industry compliance standards
Typical usage ratio
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2. Agrochemical Synthesis for Select Pesticide IntermediatesMajor agrochemical companies rely on Veratrole as a foundational aromatic ether when producing advanced pesticide scaffolds, notably for constructing diaryl systems present in selective herbicides and fungicides. The compound’s controlled reactivity ensures that no hazardous by-products compromise downstream enzyme interactions in targeted field applications. Our strict traceability and residual solvent control help customers ensure downstream compliance in regulated markets. Industry compliance standards
Typical usage ratio
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3. Fragrance and Flavor Ingredient SynthesisVeratrole finds targeted use in the aroma chemical sector, particularly for the production of methylated phenolic compounds introduced into fine fragrances and synthetic vanilla formulations. Its high purity profile prevents the carry-over of unwanted olfactory notes, supporting consistent batch-to-batch sensory outcomes. Downstream customers focus on tight compliance with food and cosmetic safety regulations, especially for products destined for international markets where allowable levels are strictly enforced. Industry compliance standards
Typical usage ratio
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4. Dye and Pigment Intermediate ManufacturingIn the colorants sector, Veratrole acts as a defining precursor when creating azo and triarylmethane dyes for specialty ink, textile, and plastics applications. Its electron-rich aromatic system improves chromophore generation efficiency, directly impacting hue stability and color intensity. Chemical plants value the material’s high threshold for unwanted by-product generation during advanced coupling and oxidation steps, pivotal for achieving narrow batch color tolerances. Industry compliance standards
Typical usage ratio
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5. Polymer Stabilizer Precursor in Engineering PlasticsProducers of UV-absorbing and antioxidant additives for engineering plastics incorporate Veratrole as a key synthon in the manufacture of bespoke hindered phenolic stabilizers. These stabilizers play a crucial role in prolonging polymer service life under intense processing and extended outdoor exposure. The chemical’s consistent methyl substitution ensures reliable integration into stabilizer molecule frameworks, supporting predictable antioxidant strength and compatibility with polyolefin and PVC matrices. Industry compliance standards
Typical usage ratio
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Working in chemical synthesis every day gives us a close-up look at the challenges and the small victories that come from making fine chemicals like veratrole. Also known as 1,2-dimethoxybenzene, this compound doesn’t always get the spotlight, but its importance within specialty chemicals and pharmaceuticals can't be overstated. Our experience in its production runs deep, with a focus on clear sourcing, careful quality control, and listening to feedback from the industries that rely on us.
We produce veratrole using methylation of catechol under controlled conditions. Steady work in perfecting these processes—dialing in catalysts, sharpening purification steps, and maintaining batch consistency—has made a big difference over the years. The confidence we have in each lot doesn’t come from a spec sheet; it’s forged through countless hours making sure there’s no shortcut at any step or stage.
For those following closely, the physical profile of veratrole isn't difficult to recognize: a colorless to pale-yellow liquid, faintly aromatic, and reliably stable at room temperature. In our experience, the real test comes in impurity profiles and trace metal content, as many applications simply cannot tolerate any contamination. Pharmaceutical synthesis, in particular, is unforgiving. Our years in the lab—and the feedback from our partners—mean we have refined our downstream washing and distillation. These are not steps we take lightly.
The melting point, boiling range, and water content become talking points because folks in the field ask about them for good reason. Solvent traces, especially from methylating agents, have the power to derail a synthesis. So, we focus on maintaining residual solvent limits within pharmacopeia requirements. This may mean extra time spent sampling and testing, but skipping these checks only introduces headaches further down the pipeline.
Key Specifications From Our Own Line:A handful of other parameters like refractive index and density also remain consistent, but the focus on what’s measurable—each and every day—keeps our team focused on avoiding batch-to-batch deviations.
Walking through a production plant, one quickly learns that veratrole plays a bigger role in downstream chemical and pharmaceutical synthesis than most fully realize. As a building block, its two methoxy groups open up a host of downstream functionalizations that plain benzenes just don’t tolerate. We hear most often from three main groups of users.
First: Pharmaceutical and Fine Chemical SynthesisOur partners in the API (active pharmaceutical ingredient) field rarely see veratrole as the end goal—it’s more about what gets built from it. Baeyer–Villiger oxidations, Fries rearrangements, and electrolytic functionalizations all draw on the stability and activating effects that veratrole provides. We see veratrole acting as a precursor for catecholamines, various synthetic alkaloids, and advanced intermediates in some proton pump inhibitors and cardiovascular drugs.
Personal observations over the years: Small changes in water content or residual solvents in veratrole can dramatically decrease yields or introduce side products. We’ve received enough urgent phone calls after a single off-spec drum to understand just how sensitive many syntheses are to these variations.
Second: AgrochemicalsAgricultural chemistry often needs veratrole for synthesizing phenoxy herbicides or fungicidal agents. Compared to other dimethoxy or anisole derivatives, veratrole offers a particular balance—high enough reactivity for clean conversions, but not so labile that it decomposes under mild acid/base conditions. Our contacts in this space often mention that switching away from veratrole sometimes slows down their routes or, worse, increases byproduct formation, which leads to costly separations.
Third: Materials Science and DyesVeratrole's structure allows for further substitution, especially in the electron-rich aromatic ring, and researchers leverage this for building conjugated polymer systems and special dye intermediates. Requests for tight control of halogen content have increased alongside regulatory pressure, especially in coatings and electrical grades. Here, the differences between high-purity and commodity veratrole often appear late in development but cost real money to fix. As manufacturers, our batch consistency ensures that surprises don’t turn up when scaling from grams to tons.
From our perspective, the biggest difference comes from attention at each manufacturing step. Producing veratrole as a manufacturer (not a reseller or trader) means day-to-day responsibility for quality, traceability, and transportation safety. Buying cheap product from a trading desk, only to discover an impurity spike or mysterious degradation during transit, falls back on the end user. Standing behind a manufacturing process forces us to get it right the first time, because we clean up the messes when something goes wrong. Most distributors view volume as a number on a spreadsheet. For us, it’s a relationship built through every repeat order and every feedback loop from partners.
Another seldom-discussed difference: We monitor the supply chain straight from starting aromatic feedstocks—usually petrochemical benzene, moving through recognized methylation agents. We run the same GC analyzers and micro-Kjeldahl methods in our in-house laboratory that our customers use, often cross-checking samples to make sure nothing slips past. Temperature logs are not paperwork for us; they are part of the routine, especially for export shipments subject to Customs scrutiny.
We also keep an eye on changes in regulatory frameworks and emerging green chemistry standards. Veratrole can be bio-derived, but the logistical and cost hurdles are not trivial. We experiment with catechol sources from renewable feedstocks and keep collaborators informed about progress.
Addressing common problems comes from plenty of tough lessons. One of the issues often raised by colleagues in formulations or process development is color instability following long storage or exposure to oxygen. Over the years, we have modified storage procedures—dedicated drums, nitrogen blanketing, and UV-protective packaging—to keep color drift minimal. Most of those changes came not from protocol, but from seeing the effect on a customer’s finished product.
Another sticking point is handling and logistics. Veratrole’s relatively low freezing point means it may crystallize in cold weather, leading to headaches if left on a dock or in a cold warehouse for too long. We design our drums to handle these conditions and recommend gentle heating only in controlled environments. Every call about material stuck in a delivery line or drum reminds us why hands-on experience teaches more than any sales brochure can.
Waste disposal and solvent recovery have grown in conversation with growing regulatory focus. Over the years, we worked alongside waste processors to ensure residual veratrole and any side streams meet local discharge limits and don’t create headaches for downstream wastewater processing. That experience has paid dividends: customers stop calling us with environmental questions, saving everyone trouble.
In practice, the key differences between veratrole and related aromatics show up in two ways: the types of reactions it can undergo and the purity levels achievable at scale. As an electron-rich aromatic compound, veratrole supports specific electrophilic substitutions that plain methoxybenzenes can’t match in terms of selectivity and yield. This direct experience comes from trialing dozens of catalytic systems for specialized oxidations, nitrations, and brominations.
Compared to anisole, for example, veratrole shows higher selectivity in ortho/para coupling and supports di-substitution under milder conditions, which means fewer steps and cleaner products. Customers working on advanced intermediates tell us the difference: less byproduct, less time spent on tedious separations, and easier compliance with residual solvent and metal content regulations.
We assembled dedicated lines for pharmaceutical intermediates, ensuring that any upstream material meets expectations for impurity content. Not every facility commits to that, and we get those calls from technicians around the world when “generic” veratrole doesn’t perform. The frustration is obvious, and it's why we keep honing the supply side rather than diluting it with unrelated products.
Newer applications in green chemistry opened our eyes to how veratrole fits into catalysis, especially for oxidative coupling reactions in solventless conditions. These applications demand not just raw material purity, but an active partner who understands process safety and is ready to batch-release on time. It’s rare that an unexpected falter in process scheduling comes from our end, and we’re proud of that.
We learned early not to rely on “certified” paperwork without follow-up. Reproducible GC methods, moisture analysis, and batch holds before shipment are habits that make a difference. Our in-house QC lab doesn’t just punch data—every anomaly triggers a team investigation and, if necessary, a full batch recall. Experience teaches that catching one issue in time is cheaper than handling a truckload of rejected finished product.
We invite partners—not just customers—to review samples, validation data, and even tour our labs. We found that transparency reduces miscommunication and leads to stronger technical partnerships. Feedback from process chemists, not just purchasing leads, shapes how we document and certify each batch. It keeps us grounded, and it has helped us avoid the disconnects that can come from a manufacturer hiding behind a distributor’s shield.
Shipping chemicals isn’t glamorous, but it’s one of the most time-consuming steps. In our daily work, we check for leaks, monitor seal integrity, and invest in drums and totes that survive the real world. International transport almost always prompts questions from border and customs officials about provenance, hazard declarations, or documentation. We preempt most problems with third-party verification and clear, direct communication—not boilerplate, but real batches, real certificates, and a track record that stands up under scrutiny.
Experience tells us that supply security doesn’t come from switching suppliers with every quarter’s price change. Customers who value consistency tend to stick with partners who understand real-world process bottlenecks and share data quickly. We have seen emergency requests for replacement drums from users who tried other channels, only to find themselves scrambling when a promised import didn’t clear inspection or arrived with questionable paperwork.
We see seasonal and regional shifts in demand for veratrole, especially as pharmaceutical development cycles gear up or slow down. Sudden spikes in order volume tend to follow regulatory changes on competing solvents or after supply chain disruptions elsewhere in the world. Our direct contact with both downstream users and upstream suppliers lets us smooth out much of this whiplash, readying reserve stocks and scheduling extra production shifts when it’s clear a supply pinch is coming.
We learned to distinguish between true demand and speculative buying—there’s a clear difference in cadence and communication. Experienced partners share forecasts, helping us plan long-term capacity without flooding the market or letting inventory go stale. This perspective—never theoretical to a working manufacturer—keeps both pricing and supply reasonable, benefiting everyone involved.
Years of experience show that taking shortcuts with chemical safety never pays off. We have built processes to minimize both worker exposure and environmental releases, and share those methods during audit and compliance checks. Our training programs cover everything from PPE to safe transfer procedures, and we keep up with changes in local and international safety guidelines.
We also run regular reviews following any incident—near-miss or otherwise—so our protocols grow with each lesson learned. The result is fewer surprises and steady reliability for customers who depend on regular bulk shipments. Conversation with safety inspectors and rare close calls highlighted the value of hands-on experience: reaction dynamics and possible off-gassing can’t always be predicted from literature or a certificate of analysis.
Improving veratrole production hasn’t been about one breakthrough or a fancy new reactor; it's a sum of small, consistent improvements year after year. We keep reviewing raw materials contracts, invest in new analytical tools, and update procedures based on what process feedback and our frontline operators observe. The best upgrades come from conversations with floor staff, not consultants, and from listening to end users rather than just chasing certification requirements.
Looking ahead, we’re tracking developments in green chemistry and renewable feedstocks, knowing these shifts won’t happen overnight. We see opportunities to cut down on waste, conserve energy, and bring sustainable processes into routine production without sacrificing batch quality. Supporting pilot plant trials, sharing data openly, and keeping customers up to date keeps us all moving forward.
Manufacturing veratrole is a blend of science, engineering, and honest communication. We stake our reputation on each batch, standing behind the product in ways that paperwork can’t capture. Each improvement has come from real-life lessons—lessons collected over years from every client call, technical feedback, and quality review meeting. This kind of insight doesn’t come through trading desks or generic fact sheets. It comes from walking the production floor, handling the product ourselves, and troubleshooting every curveball as it comes.
We believe knowledge grounded in practice and history brings lasting value to those who use veratrole in their processes. Every partner benefits from the habits and standards we have built into every step, from sourcing to delivery—efforts informed by experience, reinforced by technical feedback, and kept honest by the demands of the industries and people we serve.