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HS Code |
605460 |
| Chemical Name | 1-Chloro-2,5-Diethoxybenzene |
| Cas Number | 13845-23-1 |
| Molecular Formula | C10H13ClO2 |
| Molecular Weight | 200.66 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 130-132 °C at 12 mmHg |
| Density | 1.12 g/cm³ (approximate) |
| Solubility In Water | Insoluble |
| Refractive Index | 1.521 (approximate) |
| Flash Point | Approximately 120 °C |
| Purity | Typically ≥98% |
| Smiles | CCOC1=CC(=C(C=C1)OCC)Cl |
| Inchi | InChI=1S/C10H13ClO2/c1-3-12-8-5-7-10(11)9(6-8)13-4-2/h5-7H,3-4H2,1-2H3 |
| Synonyms | 2,5-Diethoxy-1-chlorobenzene |
As an accredited 1-Chloro-2,5-Diethoxybenzene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 100-gram amber glass bottle, tightly sealed, labeled '1-Chloro-2,5-Diethoxybenzene,' with hazard symbols and handling instructions. |
| Shipping | 1-Chloro-2,5-Diethoxybenzene is typically shipped in tightly sealed containers to prevent leaks and contamination. It should be stored and transported in a cool, dry, and well-ventilated area, away from incompatible substances. Proper labeling and documentation are required. Personnel must use appropriate protective equipment during handling and shipping. |
| Storage | **1-Chloro-2,5-diethoxybenzene** should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from sources of ignition. Protect from direct sunlight, heat, moisture, and incompatible substances such as strong oxidizers. Store at room temperature and clearly label the container. Ensure proper chemical hygiene and follow all safety protocols when handling and storing this compound. |
Applications of 1-Chloro-2,5-Diethoxybenzene in Industrial ManufacturingAs a direct manufacturer specializing in chlorinated aromatic intermediates, we supply 1-Chloro-2,5-Diethoxybenzene to a range of production sectors focused on advanced synthesis and performance formulations. The following commercial application scenarios reflect its verified utility in established downstream industries. All listed areas are based on long-term bulk supply experience and confirmed client protocols in industrial environments. 1. Pharmaceutical Intermediate SynthesisProducers of certain specialty APIs use this raw material as a building block in the manufacture of active pharmaceutical intermediates, particularly for compounds requiring diethoxybenzene scaffolds. It is introduced during multi-step organic synthesis routes to support specific halogenation and etherification stages, underpinning the synthesis of target molecules in small-molecule drug research and commercial process chemistry. Industry compliance standards
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2. Agrochemical Active Ingredient ProductionBulk formulators in crop protection industries deploy this chlorinated diethoxybenzene as a modular precursor for the synthesis of select herbicides and fungicides, especially in cases where electron-rich aromatic cores enhance bioactivity. Its incorporation enables the creation of key intermediates required in regulated formulation projects. Industry compliance standards
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3. Specialty Dye and Pigment Intermediate ManufacturingIndustrial dye and pigment manufacturers select this compound when producing high-purity aromatic intermediates for advanced colorant synthesis, especially where electron-donating alkoxy groups enhance chromophore development. Its purity profile and reactivity support consistent batch-to-batch color stability in downstream dye coupling reactions. Industry compliance standards
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4. Liquid Crystal Monomer and Intermediate SynthesisManufacturers engaged in advanced materials utilize this halogenated aromatic as a key intermediate in producing specialized compounds for liquid crystal (LC) displays and related electronics. Its molecular architecture enables tailored mesogenic core construction needed for specific refractive and dielectric properties. Industry compliance standards
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The journey behind 1-Chloro-2,5-Diethoxybenzene reflects our dedication to aromatic compound production. For years, our technicians have refined this process on the plant floor, watching the subtle evolution from raw feedstocks to a clear, pure end product. Each batch gets more than a passing glance—we constantly validate the purity not just with paperwork, but at the bench and by direct inspection, ensuring that our standards remain high and unchanged over time.
1-Chloro-2,5-Diethoxybenzene exists as a valuable intermediate in specialty chemical synthesis. Its molecular structure, C10H13ClO2, balances chloro and ethoxy groups on a benzene ring. This arrangement allows selective reactivity and compatibility inside a wider range of organic transformations, compared to simpler halo-substituted benzenes. For chemists scaling up or running new pilot lines, a compound like this delivers reactivity without unwanted side reactions and limits the chance of unwanted isomer formation.
Years spent working up production routes to this molecule has given us an understanding of the finer points: tight temperature controls in the ethoxylation stages and precise ratio monitoring in chlorination sharply lower batch rejection rates. The product leaves our site as a colorless to pale yellow liquid, free from heavier organic byproducts and with water content carefully checked so downstream processes run smoothly.
Sometimes numbers on a data sheet miss what really matters in a plant setting. We know that users want to see purity above 99.5%; that comes from responding to feedback when even trace phenolic or unreacted starting materials introduced headaches in hydrogenation or halogen exchange reactions. The residue on evaporation lies well below measurable thresholds—our distillation operators have spent years getting this step right, often by making small equipment adjustments rather than resting on theoretical yields.
Stability during storage gets just as much thought as purity. We store the product under sealed, inert gas, and monitor temperature swings so no unexpected polymerization or degradation threatens consistency. Each step considers eventual end use, whether in fine chemicals, pharmaceutical intermediates, or advanced agrochemical synthesis programs.
We hear from engineers and researchers facing a tight project timeline, where reliability matters more than marketing claims. Having 1-Chloro-2,5-Diethoxybenzene onsite means fewer troubleshooting headaches in their reactors. Its established reaction pathway makes it a trusted choice for building more complex molecules, and its regioselectivity helps control where subsequent functionalization happens on the ring.
Feedback from regular customers points to lower rates of batch failure and less need for corrective purification in processes like C-N coupling or selective reductions. Less time spent cleaning up impurities turns into fewer lost hours and more predictable project costs. Rather than aiming for minimum specification, we treat every batch with the rigor we expect in our own internal scale-ups.
Many downstream users begin with simple monochlorinated aromatics, but experience shows these variants increase selectivity problems when other substituents enter the mix. A 2,5-diethoxy substitution pattern blocks para and ortho positions, channeling further modification to well-defined sites. This steers the result more cleanly toward your target compound, cutting down on separation steps.
Ethoxy groups offer solubility and subtle electronic effects that unlock additional reactivity, compared to basics like chlorobenzene or dichlorobenzenes. We have customers switching over from more generic benzenes and reporting not only higher reaction efficiency but also fewer wastewater treatment challenges, since the byproducts exit the process in a less problematic form.
Process development often means adapting recipes written for glassware to thousands of liters. The hurdle rarely comes from textbook chemistry, but from reproducibility and material consistency at scale. Chemists regularly struggle with vendor changes or mysterious color or odor changes from one drum to the next. Our approach for 1-Chloro-2,5-Diethoxybenzene puts reproducibility first. Every production run draws on in-depth, hands-on knowledge—from adjusting reaction times to maintaining strict control during vacuum stripping.
We often hear from regular clients that the details, like consistent density and minimal trace chlorides, let them streamline scale-up trials. Purification steps become less taxing, and unexpected downtime shrinks. Every drop of our product holds up to real-world conditions, whether shipped to high-volume pharmaceutical synthesis plants or research groups preparing gram quantities for screening campaigns.
Our technical team has spent plenty of time working with downstream partners, troubleshooting bottlenecks that pop up in large continuous reactors. A molecule like this needs to maintain the same quality every week, not just meet spot checks every month. We take special care during filtration and drying, leveraging practical experience so the product’s physical properties stay locked in from start to finish.
No matter whether this material is moving through automated dosing systems or hand-charged into a reactor, the consistency of every drum reduces calibration drift and reagent wastage. Long-term users mentioned fewer instrument recalibrations after switching to our batches, cutting instrument downtime and operator frustration.
Any aromatic chlorinated intermediate carries risks if mishandled, which we acknowledge in our daily operations. Our plant has invested in closed-loop vapor recovery for each chlorination run, lowering fugitive emissions and capturing byproducts before they enter waste streams. Such operational experience isn’t learned in a day—we’ve established and continuously improved these practices to ensure safe, responsible manufacturing.
The backbone of our business is not just providing a chemical, but making sure it’s produced with responsible stewardship. Our effluent is treated for traces of hydrochloric acid and ethoxy residues, maintaining compliance with tightening discharge regulations and protecting the surrounding community. These process safeguards reflect a practical approach to balancing efficiency, output, and environmental responsibility.
Feedback from audits and third-party inspectors always goes back into process improvement discussions. We act fast on even small observations, since a well-run operation means nothing if it puts operators or the environment at risk.
From firsthand experience, storage and handling protocols make or break a product’s reputation. We take shipment logistics seriously. All containers undergo nitrogen blanketing, minimizing oxidation and moisture pickup. Warehousing avoids direct sunlight and wide temperature fluctuations, because a product’s shelf stability drops if these factors aren’t managed. Our own QC staff take periodic samples from drums in storage to look for any signs of degradation, and they’re encouraged to flag even minor deviation, so no surprises reach a customer’s site.
Over the years, we’ve shared best handling practices with clients: avoid copper or brass hardware, stay strict about decanting into clean glass or PTFE-lined equipment, and always reseal containers promptly after sampling. Clients who follow these practices have returned with stories of reduced failed reactions and cleaner end products. Our willingness to share real practical knowledge, not just generic handling advice, stems from years troubleshooting alongside users.
Shipping delicate organics is more than loading drums onto trucks. We’ve worked with bulk handlers and custom-packed specialized formats to meet just-in-time project needs. Each shipment includes a full analytical dossier—not simply a template certificate but real batch data, uniquely matched to each container. The records include GC trace, water content by Karl Fischer, and detailed sensory assessment from experienced staff who recognize the subtle cues that machines sometimes miss.
We regularly review our transportation chain, checking seals, pallet wrappings, and temperature logs, then gather feedback from recipients. If spoilage or leaching ever occurs, we trace the source methodically and take corrective measures quickly, not months later. The value for our customers comes from trust built over repeated successful deliveries, not just a one-time shipment.
1-Chloro-2,5-Diethoxybenzene finds use in real laboratory and production settings. Several pharmaceutical projects have adopted this material for preparing phenolic derivatives with high regioselectivity, saving time and cost during downstream separations. Fine chemical producers value its profile for crafting building blocks destined for advanced polymer additives, where controlled electron distribution improves material properties.
Agrochemical research teams use it to make novel aryl ethers, where minimizing batch-to-batch impurity levels means faster regulatory screening. We have collaborated with process chemists at contract manufacturing organizations who rely on our technical consultation during route design, helping them avoid scale-up snags that stem from unpredictable impurity profiles found in off-spec material sourced from spot markets.
Users in academia, on the other hand, have praised the ease of purification, noting that the product comes close to textbook purity, streamlining the process of structure proof and reducing the need for labor-intensive column chromatography. These field reports confirm that practical value emerges from attention to detail, both large and small, over the years of honing our manufacturing process.
Markets and technology never stand still, so neither can production chemistry. Research teams inside our organization routinely run pilot experiments, seeking greener solvents and less energy-intensive synthesis routes for 1-Chloro-2,5-Diethoxybenzene. Improvements come incrementally—one year optimizing raw material recycling, another year tuning the byproduct quenching system for lower maintenance downtime. Laboratory and production staff share what they learn directly with engineering and management, closing the information loop so actionable changes reach the shop floor quickly.
We report not only on yield or costs, but also disruptions, near-misses, and unexpected reactions observed during full plant operations. The real progress comes from sharing mistakes as well as wins. By keeping an open technical dialogue both across internal teams and with trusted external partners, we adapt fast. Our reliability record today grows out of this continuous improvement mindset; it doesn’t rest on inherited processes or unchallenged habits.
We have learned a lot from the customers who use 1-Chloro-2,5-Diethoxybenzene across the globe. They share stories of long nights troubleshooting a tough coupling reaction or late shipments that threatened a project’s timeline. Our customer support team stays grounded in real chemical work, not just in paperwork and order tracking. When a user reports a sticking point, we dig in alongside them, running test reactions if needed or reviewing upstream handling conditions to find a root cause. That willingness to stand behind every drum is built into the company’s fabric, not just an afterthought.
Open technical channels with key users lead to product improvements. When process chemists found that minor color shifts indicated higher trace iron levels, we changed from a steel to a glass-lined reactor for the final chlorination step. These changes grow out of genuine dialogue and mutual respect for on-the-ground chemical know-how. Our commitment is not just to supply a molecule, but to empower our customers to meet their goals with less uncertainty.
Each lot of 1-Chloro-2,5-Diethoxybenzene reflects lessons taken directly from shop floor and laboratory. We put time into every production step—rechecking raw material grades, verifying analytical equipment calibration, and keeping experienced eyes on the process, not just automated monitors. Beyond minimum standards, every drum needs to stand up to tough scrutiny: reliable melting and boiling behavior, clear spectral identification, and, above all, purity that reflects our hands-on approach. Operators’ experience and willingness to make on-the-fly adjustments are just as vital as any written procedure.
This practical commitment shows up at every stage, from careful storage under inert gas to repeated internal checks, and from controlled shipping to direct technical support. We see ourselves as partners in the work our clients pursue—the pharmaceutical advances, new functional materials, safer agrochemicals—each supported by a core of dependable, reproducible building blocks. By staying connected to the concrete realities of production, troubleshooting, and daily laboratory life, we deliver more than a specification: we deliver peace of mind and a foundation for future discovery.