|
HS Code |
163191 |
| CAS_number | 118-69-4 |
| Molecular_formula | C7H6Cl2 |
| Molecular_weight | 161.03 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Melting_point | -29 °C |
| Boiling_point | 198-200 °C |
| Density | 1.235 g/cm³ at 25 °C |
| Refractive_index | 1.548 at 20 °C |
| Flash_point | 85 °C (closed cup) |
| Solubility_in_water | Insoluble |
As an accredited 2,6-Dichlorotoluene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 500 mL of 2,6-Dichlorotoluene; secured with a screw cap, labeled with hazard and chemical information. |
| Shipping | 2,6-Dichlorotoluene should be shipped in tightly sealed, properly labeled containers made of compatible materials. It must be handled as a hazardous chemical, shipped according to applicable local, national, and international regulations. Adequate ventilation and protection from heat or ignition sources are required. Avoid spillage and environmental release during transport. |
| Storage | 2,6-Dichlorotoluene should be stored in a cool, dry, and well-ventilated area away from sources of ignition, heat, and incompatible materials such as strong oxidizers. Keep the container tightly closed and properly labeled. Store it in a corrosion-resistant container. Protect from direct sunlight and moisture, and ensure proper spill containment to prevent environmental contamination. |
Applications of 2,6-Dichlorotoluene in Industrial ManufacturingAs a direct manufacturer with extensive experience in the chemical sector, we supply 2,6-Dichlorotoluene for downstream use in tightly regulated industrial processes. The following application scenarios reflect fully-established end uses, with reference to industry-specific compliance, formulation practices, production workflow, and finished goods. Each section provides essential technical and regulatory context for specialized procurement and formulation teams seeking material fit for advanced manufacturing. 1. Agrochemical Active Ingredient SynthesisMajor agrochemical producers use 2,6-Dichlorotoluene as a core intermediate in chlorinated aromatic synthesis, especially for selective herbicides and fungicides. Its ortho-dichloro substitution enables stepwise halogenation or nitration to produce high-purity active molecules under strict process control. Integrating this material upstream ensures precise yields and minimizes byproduct formation before further derivatization, hydrogenation, or functionalization in batch reactors. Industry compliance standards
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2. Dye and Pigment Intermediate ManufactureThe dye and pigment sector utilizes 2,6-Dichlorotoluene as a key raw material during synthesis of specialty azo, anthraquinone, and phthalocyanine colorants. Its controlled reactivity supports formation of target chromophores with high consistency and colorfastness, which downstream manufacturers value for high-performance inks and coatings. Typical factory workflows introduce this material at the initial aromatic mono-chlorination or amidation phase, feeding continuous or batch production lines under quality-monitored conditions. Industry compliance standards
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3. Pharmaceutical Intermediate Synthesis2,6-Dichlorotoluene plays a significant role in the pharmaceutical sector, where regulatory stringency demands tight impurity profile control during complex molecule synthesis. API manufacturers employ this material for key halogenated aromatic intermediates in antihypertensives, anti-inflammatories, and certain CNS drugs. High purity is essential, with material entering early-stage route steps upstream of Suzuki coupling, Grignard, or selective hydrogenation within cGMP-compliant facilities. Industry compliance standards
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4. High-Performance Polymer Additive FormulationIn the specialty polymers sector, formulation engineers select 2,6-Dichlorotoluene for advanced polymer additive synthesis, including halogenated flame retardants and heat-resistant resins. Its dichloro substitution pattern provides predictable incorporation into aromatic polymer chains or additive scaffolds. Producers typically introduce this material during controlled copolymerization or condensation, optimizing for end-use processing temperatures and additive loading specifications. Industry compliance standards
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5. Fine Chemical Intermediate ProductionSpecialty fine chemical producers incorporate 2,6-Dichlorotoluene in the manufacture of advanced intermediates used in UV absorbers, specialty monomers, and bespoke aromatic compounds. Its stable reactivity profile supports multiple downstream transformations, including sulfonation and etherification, within automated reactor systems calibrated for batch reproducibility and minimal impurity carryover. Industry compliance standards
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Each step in our chemical production line matters, and none more so than the attention we put into manufacturing 2,6-dichlorotoluene. For more than a decade, our plant operators have seen firsthand how vital consistency and purity are in specialty organics. Among the chlorinated toluenes, 2,6-dichlorotoluene stands out, and not only for its demand in downstream syntheses. As the direct manufacturer, every batch tells a story of hard-earned reliability and focused process control.
Our team handles tons of 2,6-dichlorotoluene every year, and you can spot the difference right at the drum. Pale, crystalline flakes and a sharp sweet smell always let you know you’re looking at the right isomer. With a melting point close to 44°C and a boiling point above 210°C, you see how it resists extremes during storage in the warehouse or on the truck. The careful attention we pay to maintaining minimal moisture and low impurity levels pays off whenever customers run it in their reactors.
Our own process follows a refined chlorination route using methyl-substituted benzenes and highly controlled conditions. Tuning temperature and catalyst load, managing light exposure and solvent systems—operational know-how lets us dial in for the 2,6-isomer and keep the 2,4- or 3,4-dichlorotoluene to a minimum. This difference in isomeric ratio makes or breaks the value of the final product. Every month, the lab team reviews spectra and gas chromatography profiles. We don't ship product until specs align with hard-won benchmarks, and that means not exceeding select impurity thresholds.
Lab techs and plant managers sometimes get asked why not just use another dichlorotoluene isomer, or substitute a more available monochlorotoluene. The answer shows up in every downstream application. The 2,6 bis-chlorine pattern, sitting across from the methyl group, allows follow-on substitutions that simply aren’t possible with 2,4- or 3,4- arrangements. This matters most in fine chemicals and agrochemical intermediates. You need to start with the right isomer, or you won’t make the target molecule at all—no way around it.
Our observations show that even small isomeric impurity levels cause headaches downstream, clogging catalyst beds or leading to byproducts in coupling reactions. We learned over years that a generic “dichlorotoluene” label won’t cut it—processes fall apart if the wrong mix comes in. That’s why we keep tight control, routinely achieving isomeric purities exceeding 98% by area, based on in-house GC analysis.
We hear from purchasing agents and technical leads across pharmaceuticals, dyes, and crop protection sectors. Most need consistent and scalable quantities for stepwise syntheses, especially where reliability upstream affects every kilogram downstream. For example, 2,6-dichlorotoluene forms a central feedstock in the synthesis of certain benzyl chloride derivatives and specialty acids. In these products, performance and regulatory standards enforce batch-to-batch accountability. Mistakes during the raw material stage multiply later—our QA team brings this message home to every shift.
The importance grows as end-use sectors face stricter regulatory controls. We vet our own raw material sources, check for residual solvents, and track shipment histories—all to guarantee the integrity of each lot that leaves our gate. We’ve seen how overlooked storage or transport can ruin an otherwise perfect product: trace oxidation or contamination not only lowers product value but can trigger entire batch rejections at customer sites.
Our experience reminds us that a spec sheet tells only half the story. The real measure of quality shows up in how materials perform on customer lines and in new molecule development projects. That’s why we invest in batch tracking, long-term retention samples, and open technical support. In one R&D partnership, a complaint about crystal habit led to an adjustment in cooling rates during isolation—simple, but worth tens of thousands in customer reprocessing costs avoided.
Solubility and volatility matter too. We fielded calls from bulk formulators whose product unexpectedly thickened after blending. Turns out that even tiny changes in the 2,6-dichlorotoluene’s water content or residual chlorotoluene isomers were enough to alter viscosity. We took extra steps in drying and handled more closed-system sampling—problem solved at the source.
Buying direct from a manufacturer means more than price advantage—there’s accountability at each stage, from order confirmation and QA sampling through logistics handoff. In several markets, users have struggled with off-spec material sourced through informal channels or outside distributors. We learned that keeping a clear chain of custody protects both us and our customers. Each loaded drum and tank container carries a batch ID linking it to our central database, available for trace-back, something third parties rarely provide in the same way.
We put practical reliability before abstract promises. With cold snaps and transport delays sometimes stretching our infrastructure, we invested in heated storage near major ports and established fixed testing protocols before and after bulk transfer. If a batch sits longer than planned, we re-check it rather than take chances—it’s the only way to keep confidence high at both ends of the pipeline.
Chemical firms with experience know that the biggest financial surprises don’t come from commodity purchase prices, but from costs tied to troubleshooting, rework, or compliance deviations. In a real-world plant, one tanker load with 0.2% of the 2,4- isomer may still technically pass an average spec, but can set off expensive root-cause reviews if subtle performance drifts show up in downstream hydrogenation or bromination steps. We’ve resolved these scenarios by doubling down on process analytics, not just for regulatory peace of mind, but because it saves money and headaches in the long run.
Our operators keep logbooks so any process deviations—say, a power dip during addition, or slight temperature overshoot during distillation—get recorded and traced. This habit pays off when technical teams at customer sites start troubleshooting a problem with their end products. Our detailed records give us the ability to dig in, spot root issues quickly, and prevent recurrence. Many clients have told us that this transparency sets us apart, especially in sectors where traceability becomes a condition of supply.
We see new demand for 2,6-dichlorotoluene in areas like high-performance polymer intermediates and niche pharmaceuticals. Trends toward greener syntheses and more stringent impurity profiles mean that every upstream choice puts added focus on material quality. We’re working with several partners who selected our 2,6-dichlorotoluene precisely because of its robust impurity control and traceable origin. These aspects enable their own process innovations and often support stronger regulatory submissions.
There’s been movement recently around possible reclassification of certain chlorinated materials in local regulations. Our team has joined industry working groups to share data from real manufacturing conditions, rather than generic hazard models. We advocate that regulation should always reflect actual industry best practice—outcomes are more effective when informed by real production experience, not just abstract guidelines. Where required, we have applied pre-treatment steps to reduce trace impurities, helping customers classify final mixtures out of certain risk categories.
Consistency wins business in specialty organics. Over many years, we noticed that some competitors focused on maximizing volume or achieving minimum compliance. We chose a different path, keeping lines dedicated for critical steps and investing in closed-loop analytics. Few things matter more to us than being able to guarantee for each buyer that what they get is what they ordered, batch after batch. We heard from downstream users that off-grade lots—often from resellers or bulk traders—correlate with both performance deviations and expensive after-sales service claims.
Our investment in process control delivers three main advantages:
With every drum and container shipped, our work is open for review. The analytics lab stays in direct communication with plant managers and the whole quality system maintains a healthy skepticism of “good enough” products. Our teams know customers measure success by more than typical industry specs.
Beyond fulfilling routine orders, we recognize a growing number of users looking for technical advice and partnership. When customers bring a new application to us—like an unusual polymerization, or a pharmaceutical process requiring even tighter residual solvent levels—we’re prepared to adapt. We built extra analytics capacity and can prepare custom COAs in response to evolving regulatory needs, which saves our partners considerable effort at the approval stage.
Our philosophy doesn’t stop at the factory gate. We work alongside end users on waste minimization, process troubleshooting, and methods to further reduce trace impurities downstream. The best innovation happens when both manufacturer and user share knowledge in real time, instead of operating in a vacuum. We’ve participated in process scale-up trials at customer sites, sitting in on planning meetings and offering hands-on technical support as they run pilot batches. This open approach builds trust and leads to better long-term value for both parties.
Disruptions in global supply chains have challenged both buyers and producers of chemicals like 2,6-dichlorotoluene. Our experience tells us that over-reliance on multi-tiered intermediary suppliers amplifies risk. Instead, we prioritized keeping lines flexible and geographic supply routes diverse, adding backup capacity where possible. By forecasting ahead and staying in direct contact with our core buyers, we can often anticipate and head off looming shortages.
We also respond quickly if a load falls out of spec or external events halt planned shipments. Between backup blending operations and warehouse partnerships near critical ports, our logistics team pivots fast. This agility prevents downtime downstream, which our regular customers value just as much as price or paperwork adherence.
In talking with engineers, purchasing leads, and R&D teams over the years, we see the future of chemicals like 2,6-dichlorotoluene moving steadily toward transparency, partnership, and innovation. Our approach prioritizes not only direct quality control and process rigor, but also open lines of communication and long-term technical support. By addressing problems at the production site rather than leaving customers to troubleshoot alone, we help keep projects on schedule and costs under control.
Every day, our operators at the reactors, analytical chemists in the labs, and logistics coordinators in the warehouse carry out work that respects both the science and the practical realities of manufacturing chemicals to tight standards. For us, supplying 2,6-dichlorotoluene is less about commoditized trade and more about reliability, accountability, and continuous improvement. We have learned through hands-on experience—strong, direct relationships build trust that outlasts price cycles or regulatory shifts. The best results in competition, customer partnerships, and innovation all rest on this foundation.