|
HS Code |
819263 |
| Cas Number | 620-15-1 |
| Iupac Name | 1,4-Diethoxybenzene |
| Other Names | Hydroquinone Diethyl Ether |
| Molecular Formula | C10H14O2 |
| Molar Mass | 166.22 g/mol |
| Appearance | Colorless liquid |
| Boiling Point | 246-248 °C |
| Melting Point | 8 °C |
| Density | 1.045 g/cm³ |
| Solubility In Water | Insoluble |
| Refractive Index | 1.508 |
| Flash Point | 123 °C |
| Odor | Sweet, aromatic |
As an accredited Hydroquinone Diethyl Ether factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 250g amber glass bottle, airtight cap, labeled "Hydroquinone Diethyl Ether, 98%," hazard icons, batch number, and chemical safety instructions. |
| Shipping | Hydroquinone Diethyl Ether should be shipped in tightly sealed containers, protected from light, heat, and moisture. It must be labeled according to hazardous material regulations and handled with care to prevent leaks or spills. Transportation should comply with local and international chemical shipping guidelines to ensure safety and prevent environmental contamination. |
| Storage | Hydroquinone Diethyl Ether should be stored in a tightly sealed container, protected from light and moisture, in a cool, dry, and well-ventilated area. Keep away from heat, sparks, open flames, and incompatible substances such as strong oxidizers and acids. Store at ambient temperature and handle with proper protective equipment to prevent exposure or accidental release. |
Competitive Hydroquinone Diethyl Ether prices that fit your budget—flexible terms and customized quotes for every order.
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Hydroquinone Diethyl Ether, also known as 1,4-Diethoxybenzene, doesn’t always catch the spotlight in the line-up of aromatic ethers, but within our production halls, its role isn’t nearly as niche as one might expect. Over years of manufacturing, we’ve watched this specialty compound move from the sidelines in laboratory work to taking its place in larger-scale production environments. Our long-term experience with this material has not only shaped how we approach its quality control but also influenced how we support end users in the transition from pilot to regular industrial operation.
Our line of Hydroquinone Diethyl Ether carries the chemical identity C10H14O2 with CAS number 101-96-2. We consistently target purity above 99.5% (GC). The product appears as a crystalline, white to off-white solid at room temperature, free-flowing and manageable without significant clumping—attributes we monitor batch by batch. Melting point sits in the 54°C to 57°C range, and standardized GC analysis ensures no significant isomer or byproduct interference near the main peak. Each lot is supplied with full analytical details since even minor impurities—such as residual monoethoxy or hydroquinone itself—can play spoiler in downstream reactions. As a producer, we handle all crystallization and purification on-site, controlling each step to ensure homogeneity. In our experience, only stringent controls at the early stages (raw material selection and etherification) guarantee a repeatable finished product.
We’ve watched demand for diethyl ether derivatives rise, especially from the niche corners of organic synthesis, high-performance monomers, and research labs. One main appeal has been its use as an intermediate in the manufacture of perfumery chemicals, pharmaceuticals, and photographic processing agents. Where strict selectivity during alkylation or coupling stages is needed, this compound provides a reliable building block. We’ve supplied both kilogram-scale and multi-ton orders to pharmaceutical companies who require antioxidants or masking agents with finely tuned reactivity—no small feat given the sensitivity of many downstream active pharmaceutical ingredients (APIs) to trace impurities. Over time, we determined that certain impurities, including hydroquinone or para-benzoquinone residues, can catalyze unwanted polymerization or discoloration if left unchecked. Our protocols hence emphasize deep purification at every stage.
We’ve long found that many users value consistent melting behavior and low volatility. Larger ether molecules can be more sensitive to trace water or peroxides; our approach includes regular Karl Fischer titrations and peroxide content tests. Problems with color changes or odor usually trace back to improper storage during transit or residual process water—a challenge we face head-on by handling our own logistics and never using repurposed drums. Many traders and resellers may ship in unsuitable packaging, which risks contamination or partial hydrolysis, but direct manufacturing means we control these variables. Feedback from users in fine chemicals and electronics sectors often highlights how even seemingly minor batch-to-batch deviations in melting point or appearance can undermine entire batches of advanced intermediates. For us, every order's integrity reflects directly on our brand, not some faceless supply chain.
From our plant floor observations, Hydroquinone Diethyl Ether shows particular value as a stabilizer and antioxidant. We receive repeat orders from polymer resin producers needing to prevent premature crosslinking and yellowing in styrene or vinyl ester formulations. One customer in the coatings industry reported marked improvements in batch lifecycle after switching to our higher-purity grade, with fewer complaints of haze and gelling in their end-use paints. In photographic development, the compound’s role in modifying reduction-oxidation potential shows up in cleaner image production and fewer artifacts, based on direct feedback from imaging specialists who routinely test different stabilizer formulations.
Scientific literature often mentions its value as a protecting group in multiple-step organic synthesis. A number of biotech startups have explored our product as a protective agent or a precursor for agrochemical intermediates. While larger multinationals focus on commodity aromatics, our setup allows small-batch runs tailored for specialty research, where certainty in reactant quality can mean saving weeks of trial and error. We regularly support R&D labs that need consistent supply for months-long pilot programs, supplying real lot data to help them identify subtle process correlations that poor-quality inputs would hide.
Process stability isn’t just a buzzword to us; it stems directly from the challenges manufacturers face in synthesis and handling. For instance, diethyl ether derivatives can display sensitivity to oxidative conditions over prolonged exposure. Small traces of peroxides develop over weeks if storage isn’t ideal. Since we run in-house peroxide analysis per lot, users in electronics or sensitive monomer production count on this extra step to reduce the risk of uncontrolled side reactions. Few production partners can match that level of quality assurance, and we regularly invite auditors to review our traceability chain—raw material lots, cleaning protocols, even storage temperature logs.
Temperature is another recurring theme. Hydroquinone Diethyl Ether can exhibit bleaching or mild decomposition if heated well above its melting point or exposed to air under UV. Our recommendation—to keep storage below 30°C in airtight packaging—arose from actual off-spec incidents during hot months. Years ago, a shipment to a low-latitude client degraded after warehouse mishandling, prompting a complete revision of our storage protocols and supply chain checks. Now each container includes a color stability tag for visual reference. These insights come from years of direct feedback, not just theory.
Comparing Hydroquinone Diethyl Ether to close relatives helps users understand why the shift to the diethyl variant sometimes offers meaningful value. Hydroquinone alone offers phenomenal antioxidant properties but oxidizes much faster in air, making it less stable for certain applications. The diphenyl and dimethyl ethers present different trade-offs. Dimethyl ether, for instance, brings slightly higher volatility and lower melting point, impacting shelf life and resin compatibility. Longer-chain ethers such as dibutyl analogues often lose solubility benefits and generate lingering odors, especially in coatings and adhesives. Based on these distinctions, diethyl ether offers a sweet spot: moderate solubility in organic solvents, manageable volatility, and reliable crystal formation, all without the odor and discoloration issues that sometimes plague other ethers.
We’ve heard from some resin formulators that where pure hydroquinone can discolor batches or alter polymer properties through side reactions, the fully etherified molecule lends longer shelf stability with minimized tint. In our field trials, the use of the diethyl derivative reduced yellowing in several synthetic rubber compounds by up to 25% compared to unprotected controls. These findings feed directly into how we approach batch process design: monitoring not just chemical purity but also impact on downstream polymer color, shelf life, and mechanical properties.
Users across various fields cite specific pain points solved by Hydroquinone Diethyl Ether. Fine chemical makers in need of robust protection during aryl amination or alkylation steps often report better conversion rates compared to analogous ethers—again, purity and low reactivity towards unintended byproducts help here. In the semiconductor industry, where even minute metal traces can spell disaster, our direct synthesis route—using corrosion-resistant, high-purity reactor linings—helps keep contamination levels far beneath thresholds set by most international quality frameworks. Over the past decade, we’ve kept logs of these run specifications, and customer audits regularly verify our in-process checks.
Some research organizations exploring advanced battery electrolytes and conductive polymers have found the compound’s aromatic structure offers benefits for improving film uniformity and oxidative resistance. This feedback only gets back to us through long-term partnerships involving sample and pilot runs rather than one-off transactions. We track such technical feedback closely, adjusting trace impurity controls when a user identifies particular needs.
Direct manufacturing makes a difference. Importantly, we do not rely on outside custom processors for finishing or packaging. Our in-house approach means tighter control over each lot and prompt handling of deviation events. Workshops with chemical engineers, quality teams, and end users help us tweak reaction and purification steps, so the next batch always builds on the experience from the last. Our process engineers keep a close eye on reaction parameters—controlling temperature, pressure, and reaction time precisely to limit over-alkylation and any formation of mixed ethers.
We’re often called upon to supply documentation for compliance work, whether for EU REACH, US TSCA, or other regulatory environments. Rather than just filling out forms, our team checks upstream supply, process residuals, and downstream waste management as part of our commitment to traceability and transparency. Many newcomers to the material are surprised by the number of non-obvious variables that can tip the balance towards a stable or problematic batch.
Long-term customer partnerships matter. We don’t just ship material and wait for the next order. Follow-up calls and technical visits are routine, giving us insight into emerging trends or challenges users face. More than an exercise in service, these partnerships help us identify reactivity quirks or shelf-life concerns long before they affect our broader customer base. This ongoing dialogue shapes our manufacturing priorities every season.
Producing aromatic ethers demands environmental stewardship. We segment all process streams, recycle solvents where possible, and minimize waste at each step of the reaction and purification process. Our teams constantly review new methods for reducing water and energy footprints. The choice to produce Hydroquinone Diethyl Ether locally, rather than depending exclusively on bulk, offshore supply, means lower emissions from transit and better oversight of raw material sourcing.
We also work directly with downstream users to manage life-cycle impacts. Regular audits of our supply chain, coupled with periodic reviews from regulatory bodies, ensure that improvements never stall out. The move towards greener chemistries and increased sustainability targets has us reevaluating our catalyst usage and exploring bio-based alternatives where technically feasible. Some experimental approaches involve integrating renewable feedstocks or capturing off-gases from related processes. These aren’t just things we do for marketing; internal targets follow from years of work linking process changes to measurable environmental improvements.
Industry needs rarely stand still. Fields like advanced materials, specialty polymers, and synthetics shift their focus every few years, introducing new requirements for purity, performance, or regulatory compliance. Over the past decade, we’ve adapted to shifting demands—whether that means offering smaller batch runs for cutting-edge labs, or scaling up production to meet commercial launches in adhesives or additives. Flexibility in planning and logistics allowed us to meet urgent, pandemic-era surges just as easily as routine, long-term supply contracts. Even today, the drive for more sustainable, higher-purity specialty chemicals continues to push us to refine our synthesis and quality controls.
Feedback loops between manufacturing, application, and research help shape our progress. Technical seminars, customer surveys, and regular site visits create a real-world sense of what matters most for varied use cases—from small molecule synthesis to advanced coatings. We see the cumulative results of these efforts not in awards or market share graphs, but in the trust and direct feedback from customers who depend on our Hydroquinone Diethyl Ether for mission-critical work.
As global logistics grow more complex, secure and predictable access to key raw materials becomes a concern. We keep safety stocks of aromatic feedstocks and critical reagents, buffering our operations against both sudden demand spikes and longer-term geopolitical shifts that might disrupt overseas supply chains. Our plant team maintains a risk registry, reviewing and updating action plans for different scenarios—from transport interruptions to regulatory rule changes on import/export clerical errors.
Another concern lies in compliance. Regions differ in their requirements for documentation, allowable impurities, and transport labeling. Our regulatory and compliance group maintains a regular dialogue with clients and authorities to ensure preemptive adjustments. Whether a new hazardous material labeling standard emerges or a region tightens its impurity thresholds, our in-house lab and logistics staff move quickly to update processes and reporting, so customers don’t miss tight release or production windows.
Market volatility, especially in the cost of feedstock aromatics, demands vigilance. We negotiate long-term contracts with upstream suppliers where possible, while frequent internal reviews help identify points of process optimization to offset fluctuating input costs without lowering material quality.
None of this progress happens in a vacuum. Continuous improvement starts with our people—technicians, operators, shift leaders—who bring both experience and energy to daily problem-solving. We run regular training days focused on emerging technical issues, best practices, and new quality standards. As the primary manufacturer, only we know the small process quirks that enable smooth scale-up from lab-scale flasks to industrial reactors. Documented best practices, bench notes, and lessons learned on the floor ensure knowledge stays inside the company and doesn’t vanish with staff changes.
Industry peers often comment on our low turnover and high retention rates. We take pride in this, considering it proof that a deep-seated commitment to quality and safety runs not only through our processes but also through our people. We reward suggestions that boost process safety or lower off-spec rates, and recognize teams that find and fix inefficiencies before they add up to major concerns.
Aside from supplying high-quality Hydroquinone Diethyl Ether, we know users have technical questions or process puzzles to solve. Our technical team fields inquiries daily, supporting process troubleshooting, analytical method sharing, and even offering advice on safe disposal or residual handling for off-spec product. We view every tech support call as a window into the day-to-day experiences of our customers—real stories that help us improve not just the product, but the entire user experience.
Pre-shipment samples and quick-turn lab results mean customers never have to wait long to troubleshoot a sticking point. For larger process changes, we provide on-site consultation or remote support, depending on project needs and budget. No request is too minor overnight—because every batch matters, whether destined for a research flask or a multi-ton chemical reactor downstream.
Hydroquinone Diethyl Ether may not grab headlines, yet in settings where consistency, purity, and stable performance rule the day, this compound continues to earn its place. We stake our reputation on each lot, knowing first-hand how small deviations can carry big consequences for users around the globe. As the original manufacturer, our mission goes beyond simply fulfilling orders—we’re in it for problem-solving, honest partnership, and incremental progress. Decades of direct experience, attention to detail, and a refusal to cut corners define everything we bring to each batch created, every new challenge faced, and every customer relationship built on trust and results.