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HS Code |
377440 |
| Chemical Name | Diethyl Diphenylurea |
| Molecular Formula | C17H20N2O |
| Molecular Weight | 268.36 g/mol |
| Appearance | White to off-white powder |
| Melting Point | 117-121°C |
| Solubility In Water | Insoluble |
| Density | 1.12 g/cm³ |
| Cas Number | 85-98-3 |
| Synonyms | 1,3-Diethyl-1,3-diphenylurea |
| Structure Type | Aromatic urea derivative |
| Odor | Odorless |
As an accredited Diethyl Diphenylurea factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 500g amber glass bottle with airtight cap, labeled “Diethyl Diphenylurea,” safety symbols, batch number, and manufacturer details clearly printed. |
| Shipping | Diethyl Diphenylurea is shipped in tightly sealed containers to prevent moisture and contamination. It should be stored in a cool, dry place, away from incompatible substances. Proper labeling and documentation are required, and handling should comply with local and international regulations for non-hazardous chemical transport. Personal protective equipment is recommended during handling. |
| Storage | Diethyl Diphenylurea should be stored in a tightly sealed container in a cool, dry, and well-ventilated area, away from incompatible materials such as strong oxidizing agents. Keep it away from direct sunlight, moisture, and sources of ignition. Proper labeling and spill containment measures should be in place. Store at room temperature and avoid exposure to excessive heat. |
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Purity 99%: Diethyl Diphenylurea with 99% purity is used in pharmaceutical intermediate synthesis, where it ensures high reaction yield and product reliability. Melting Point 173°C: Diethyl Diphenylurea with a melting point of 173°C is used in fine chemical production, where it enables efficient thermal processing without decomposition. Molecular Weight 316.38 g/mol: Diethyl Diphenylurea of molecular weight 316.38 g/mol is used in specialty polymer manufacturing, where it provides precise stoichiometric control. Solubility in Ethanol: Diethyl Diphenylurea with high solubility in ethanol is used in organic formulation processes, where it enhances formulation homogeneity and process efficiency. Particle Size <20 µm: Diethyl Diphenylurea with particle size under 20 µm is used in coatings production, where it improves dispersion and surface finish quality. Stability Temperature up to 200°C: Diethyl Diphenylurea stable up to 200°C is used in thermal-resistant material applications, where it maintains structural integrity during processing. Low Volatility: Diethyl Diphenylurea with low volatility is used in plasticizer additives, where it minimizes evaporation loss and improves end product durability. |
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Most folks outside the specialty chemicals business haven’t heard the name Diethyl Diphenylurea. The truth is, this isn’t a product for everyone—it lives in a narrow but important corner of industry, and once it crosses your path, you want to know what it really does and how it stacks up against the rest. Speaking from years working with technical teams, plant managers, and performance materials, I’ve seen products come and go, but advances around stable, reliable organics like Diethyl Diphenylurea have stuck around for good reason.
Products like Diethyl Diphenylurea show up in catalogs with labels that look cryptic to outsiders. What matters is this: users turn to this compound because of its backbone structure—two phenyl groups attached to a urea core, modified with ethyl chains. This subtle design choice sets it apart from other ureas and makes its melting point, chemical stability, and solubility unique compared to run-of-the-mill alternatives. Over the years, I’ve seen manufacturers gravitate toward this molecule when they hit roadblocks with plain Diphenylurea or simpler monoalkyl versions. It delivers practical performance that keeps a plant-manager’s phone quiet—no panic calls about clogs, corrosion, or inconsistency.
Talking chemistry specs sounds dry, but for the people stacking pallets in the warehouse, these details solve real problems. Diethyl Diphenylurea dust doesn’t cling to skin or float around in the air the way some finely divided powders can. That means safer and cleaner workdays, fewer wasted minutes cleaning up, and less risk when it brushes your coveralls. Chemists and process engineers talk about things like particle size or melting range, and while those numbers can look impressive, what I see is steady performance in hot environments where other compounds break down or distort. Consistency comes from tighter control during synthesis, with impurities kept to a minimum, and that translates into smoother processing on the shop floor.
I’ve walked the floor in places where Diethyl Diphenylurea lines the shelves. You’ll rarely find it in supermarkets, but it pops up in polymer modification, high-performance plastics, and rubber manufacturing. Its molecular backbone stiffens chains in certain specialty polymers, keeping them from drooping in the heat or getting brittle in the cold. In practical terms, an operator uses Diethyl Diphenylurea when they want coatings or molded parts that don’t crack under strain or lose their gloss on hot days. Formulators appreciate its reactivity profile, which can be dialed in to hit things like curing speed or hardness step by step—better than what you get from more common ureas or simple catalysts.
Plenty of alternatives crowd the shelves, and most claim similar benefits. I’ve watched engineers debate whether to stick with older solutions or try something newer or cheaper. Those who’ve switched to Diethyl Diphenylurea usually mention how it doesn’t break a sweat keeping up with tough process demands. Swap it in for N,N’-diphenylurea or simpler disubstituted versions, and you’ll likely see products that hold their shape longer, resist yellowing, and don’t slump under pressure. Not every application will notice, but in high-value settings—making optical-grade plastics or temperature-resistant adhesives—the right urea can turn a borderline process into a steady, money-saving part of the line.
It’s easy to get lost in the technical background, yet bridge failures or peeling coatings often reveal what separates a good product from a great one. Years ago, I saw a customer swap out a lower-grade modifier for Diethyl Diphenylurea after repeated headaches with inconsistent batches. The phone calls to the support desk slowed to a trickle. People underestimate what stable materials can do for process efficiency and peace of mind. You pay a little more up front, but that investment comes back when you don’t lose a shift fixing equipment or fielding complaints from end-users.
No product sits in a vacuum, and Diethyl Diphenylurea is no different. Markets shaped by global demand for electronics, specialty polymers, and high-end coatings decide how much sits on warehouse racks. I’ve seen raw material disruptions ripple down the chain—one region gets hit by a refinery fire or a feedstock price jumps, and inventory tightens overnight. Companies running lean just-in-time operations sometimes get caught flatfooted. It’s a lesson I’ve watched play out: if a recipe relies on a specialty ingredient like this, keep your supply chain on a short leash and build relationships with suppliers who care about reliability as much as price.
There’s no getting away from health and safety questions. Workers on the manufacturing line want to know what’s coming out of the bag, and regulators care about release into air, soil, and water. Compared to the older crop of urea derivatives, Diethyl Diphenylurea tends to produce less dust and shows lower acute toxicity in typical handling situations, given established controls. It doesn’t vaporize easily at room temperature, so you don’t smell it or inhale large quantities. Still, gloves, goggles, and ventilation keep everyone safe, especially when larger amounts move through the process. Players in the industry now look for technical bulletins and independent studies before they pick additives; the trend toward transparency isn’t slowing down, and products like this must fit into clearer regulatory frameworks.
Green chemistry isn’t just a buzzword—it’s reshaping the additives space. Through years listening to sustainability managers and R&D teams, I’ve seen demand shift toward products with clean supply chains, responsible sourcing, and low environmental footprints. While Diethyl Diphenylurea doesn’t tick every green certification box yet, its low VOC emissions and high stability help cut waste from failed batches and reduce off-spec material. Users are starting to track not just what goes into their process, but what comes out at end of life. Down the line, expect more scrutiny—companies that can source renewable feedstocks or build take-back recycling for these specialty chemicals will win business in a crowded field.
Senior technicians and buyers know: a fancy label means little if the product on the truck doesn’t match the spec sheet. I learned this lesson walking a plant floor at dawn, solving batch problems nobody caught on a spreadsheet. Reputable producers of Diethyl Diphenylurea stake their reputations on product consistency, timely delivery, and thorough documentation. No engineer wants surprises during formulation. Companies with deep technical benches offer troubleshooting, mixing guidance, or process tweaks based on real-world experience. For a specialty compound, access to that kind of expertise—actual people who’ve solved problems before—turns an ordinary chemical purchase into a partnership that keeps the line running and workers safe.
Switching to or optimizing with Diethyl Diphenylurea means more than reading a brochure. I encourage teams to run pilot batches before making big commitments. Bring in chemists and operators early. Listen to feedback from the shop floor—these people spot differences batch-to-batch and catch supply hiccups sooner than top management does. Document any process changes, especially if you tweak temperatures, mixing rates, or use new catalysts next to Diethyl Diphenylurea. Over the years, I’ve learned that process discipline pays off. Keep detailed records, and use routine quality checks to flag any shift in performance. Stay in contact with the supplier about modifications or special requirements; custom blends often solve problems before they start.
Most customers glance at price tags, but engineers and operators know the difference when support shows up fast—especially for specialty compounds. A few years back, a maintenance supervisor told me how a supplier of Diethyl Diphenylurea caught an error in dosing rates during scale-up by showing up in person and training the crew. That hands-on expertise prevented a week of troubleshooting and saved thousands of dollars. For industrial sites, that partnership makes the difference between a smooth launch and costly downtime.
Not every story ends with success. In my earlier days, I worked with a company that switched away from Diethyl Diphenylurea to save costs. The replacement wasn’t a drop-in fit—the new compound brought unpredictable reactivity and thicker waste streams. Cleanup took days, and downstream customers felt the pain. After that, the plant manager put value on more than just raw material cost. Sometimes paying for a solid, proven material means you don’t lose sleep—and your customers don’t lose confidence.
You’ll see more research into applications that stretch what Diethyl Diphenylurea can do. Innovations in material science, energy storage, or advanced coatings drive demand for urea derivatives with specific traits. Years ago, single-function additives filled the bill, but now users expect better synergy with other modifiers or performance under extreme cycling. Competitive pressure means more suppliers aim to optimize synthesis paths, cut impurities, and fit into cleaner manufacturing models. Watching the patent filings and technical forums, I notice greater interest from tech-savvy startups and Asian chemical groups looking to outflank legacy players on both cost and quality.
Skilled operators and formulators decide how much value anyone gets from Diethyl Diphenylurea. Learning on the job, I picked up that small changes in feed rates or process temperatures make a big difference in downstream performance. For companies bringing new staff on board, it pays to invest in real training, not just slide decks. On-site demos, site visits, and access to supplier experts keep mistakes to a minimum and foster a culture of continuous improvement. Encouraging collaboration between R&D and production teams shortens the path from trial batch to full-scale reliability.
No specialty chemical finds its place without end-user feedback. Gather input from those mixing, pouring, and testing the final blend. I’ve watched companies avoid expensive recalls by taking operator suggestions seriously—adjusting packaging, labeling, or dosing instructions in ways that don’t show up on a data sheet. Technical teams who stay curious and open to feedback become trusted partners, not just suppliers. In my experience, the best process improvements come from shop floor observations, not boardroom decisions.
Product performance can falter if process parameters slip or if raw materials vary between shipments. Over the years, I recommend companies set up alerts for key quality specs—moisture, particle consistency, and even shelf life. Make sure handlers review storage conditions to prevent cakes or clumping. If you hit incompatibility with resins, reach out to technical liaisons—manufacturers often suggest slight formula tweaks or different mixing protocols. Document issues and share learnings across sites; even a quick post-mortem helps others avoid the same mistake.
Unpredictable events from trade restrictions to sudden shutdowns can pull the rug out from under well-laid plans. To build resilience, develop ties with more than one supplier and keep tabs on global trends in precursor materials. Effective communication with upstream partners and flexible procurement strategies cushion the blow when sourcing hits a snag.
At every step in the lifecycle, people make the difference. Chemistry on paper tells only part of the story. Technicians, buyers, safety officers, and floor operators all shape how Diethyl Diphenylurea adds value, solves real problems, and slots into new applications. No certification or digital tool replaces the experience built up on the ground—watching products perform under real-world challenges, clocking overtime when trials run late, or showing up at dawn to troubleshoot a stubborn process.
Even in a world chasing faster, cheaper, and greener solutions, some products hold their value by proving themselves in the field. Diethyl Diphenylurea stands out in its tight niche through consistency, safety, and support. For companies with rigorous standards or high-value applications, the cost of cutting corners far outweighs the modest premium this specialty adds to a bill of materials. The key is to evaluate not just price tags but how a material like this fits into a sustainable, reliable, and safe process over the long run.
Whether you’re responsible for a small batch run or a giant processing line, decisions about specialty additives trickle down to people, processes, and performance. From my years at the intersection of R&D and production, I’d say Diethyl Diphenylurea’s value comes through in stability and trust—not just technical specs. Invest the time in understanding how it fits with your needs, listen to your teams, and build partnerships with suppliers who care about your success. The right questions and a few smart precautions now can set your operation up for fewer headaches and stronger returns tomorrow.