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HS Code |
344512 |
| Chemical_Name | N,N'-Dinitroso-N,N'-Dimethylterephthalamide |
| Molecular_Formula | C10H10N4O4 |
| Molecular_Weight | 250.21 g/mol |
| CAS_Number | 20941-65-5 |
| Appearance | Yellow to orange crystalline powder |
| Melting_Point | 168-170°C |
| Solubility_in_Water | Insoluble |
| Boiling_Point | Decomposes before boiling |
| SMILES | CN(C(=O)c1ccc(cc1)C(=O)N(C)N=O)N=O |
| InChI | InChI=1S/C10H10N4O4/c1-13(11-15)9(15)7-3-5-8(6-4-7)10(16)14(2)12-17/h3-6H,1-2H3 |
| Synonyms | Dimethyl dinitrosoterephthalamide |
As an accredited N,N'-Dinitroso-N,N'-Dimethylterephthalamide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging contains 25 grams of N,N'-Dinitroso-N,N'-Dimethylterephthalamide in a sealed amber glass bottle with hazard labeling. |
| Shipping | N,N'-Dinitroso-N,N'-Dimethylterephthalamide should be shipped in tightly sealed containers, protected from light, heat, and moisture. Handle as a hazardous chemical—use appropriate PPE and ship per local and international regulations for potentially toxic and nitroso-containing compounds. UN numbers and hazard classification should be checked for proper labeling and documentation. |
| Storage | N,N'-Dinitroso-N,N'-Dimethylterephthalamide should be stored in a tightly sealed container, protected from light, moisture, and heat. Store in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizers and acids. Properly label the container and ensure access is restricted to trained personnel. Use secondary containment to prevent spills and limit potential exposure. |
Applications of N,N'-Dinitroso-N,N'-Dimethylterephthalamide in Industrial ManufacturingN,N'-Dinitroso-N,N'-Dimethylterephthalamide, recognized within the industrial sector as a technical blowing agent, is integral to polymer and rubber processing operations where its unique decomposition behavior delivers precise cell structures and performance benefits. As the direct manufacturer, we supply this material to well-established downstream sectors using stringent control protocols and application-specific technical standards. Below outlines major industrial application pathways with real integration practices. 1. Polymer Foam Production (PVC, PE, EVA Foams)Demand for controlled foam morphology in polymer processing, including PVC, polyethylene, and ethylene-vinyl acetate foam sheets and profiles, drives widespread adoption of N,N'-Dinitroso-N,N'-Dimethylterephthalamide as a chemical blowing agent. Its stable decomposition profile and low activation temperature allow for uniform cell development required for flooring, insulation, and packaging-grade foams. Downstream processors integrate it into masterbatches or direct powder blends, calibrating loading to tune expansion levels and ensure product consistency. Industry compliance standards
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2. Automotive Interior Components (Foam Padding and Gaskets)Automotive component manufacturers rely on this blowing agent in the production of flexible foams and elastomeric parts for noise insulation and vibration damping. Its low odor and residue profile enable compliance with stringent automotive material specifications, providing consistent cell structure that supports high comfort standards in seating, door panels, and dashboard sections. Industry compliance standards
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3. Wire and Cable Insulation FoamingThe technical requirements for microcellular insulation coatings on wire and cable benefit from this material’s ability to create fine, adjustable foamed layers without compromising electrical insulation or mechanical strength. Compounding teams in cable manufacturing plants add the agent to polymer blends aiming for reduced weight and enhanced flexibility in data and power cables. Industry compliance standards
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4. Footwear Manufacturing (Molded Soles and Insoles)Shoe manufacturers employ this blowing agent in the development of lightweight expanded soles and orthotic insoles, enabling high energy absorption and underfoot comfort. By providing precise cell size control during batch preparation and molding, it supports performance requirements for sports, safety, and casual footwear lines. Industry compliance standards
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5. Flooring Materials (Foamed Underlays and Mats)Producers of technical flooring underlays, anti-fatigue mats, and utility pads depend on this agent to achieve specific compression, moisture barrier, and rebound properties in foamed polymers. Industrial flooring suppliers optimize its dosage for product thickness uniformity and durability during heavy use in commercial and sports installations. Industry compliance standards
Typical usage ratio
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Daily work in a chemical manufacturing plant often turns up requests for molecules that can’t be found on the shelves of broad-line traders. Over many years, our lab teams have perfected the controlled synthesis of specialty nitroso-based intermediates like N,N'-Dinitroso-N,N'-Dimethylterephthalamide—a mouthful of a name, but truly a staple for customers working on the boundaries of materials science and energetic systems engineering. Our direct role as the manufacturer means tighter control over purity, consistency, and the reliability buyers count on for technical processes.
We produce N,N'-Dinitroso-N,N'-Dimethylterephthalamide under the internal code DNDMTA-245 to distinguish it from both in-house and outside analogs. The molecular structure includes a terephthalamide core with two nitroso groups and two methyl substitutions. This configuration places it in a narrow segment of nitroso compounds essential for several focused market applications.
Production takes place in closed systems specifically designed to handle the intermediate’s moderate sensitivity and vapor management. Over the years, modifiers to reaction temperature and solvent handling have minimized isomeric impurities, especially when compared with products sourced through branched vendor supply chains. Failures from inconsistent material can disrupt long-term R&D programs; everything from trace-level UV-Vis absorbance shifts to batch color and particle morphology is tightly watched under our standard QC regimen.
N,N'-Dinitroso-N,N'-Dimethylterephthalamide serves best as a controlled-release nitrosating agent and a starting block for building unique energetic compounds. For example, the most persistent buyers work in the development of specialty detonators, time-delay triggers, and propellant systems—it’s not about large-volume orders, but about keeping up reliable supply for highly regulated end uses. Many competitors market crude or sometimes simply rebranded versions of this compound, resulting in unpredictable performance, especially when handling needs cross into fine mechanical or electronic actuators.
Instead of remaining a lab curiosity, DNDMTA-245’s unique nitroso functionality opens doors in synthesizing high-temperature liquid crystals, advanced polymers, and side-chain modified aromatic systems. Within energetic material circles, it offers a nitroso-based alternative where regulated nitramines or nitro aromatics may bring logistical headaches or stricter traceability requirements. Users need not face the risk of finding unwanted amines or oligomeric residues in production-scale lots—the process here routinely yields spectroscopically clean batches tailored to downstream purity thresholds.
Within our logistics hub, every drum of DNDMTA-245 carries a reference to specific synthesis lots and intermediate drying cycles. Many of our recurring clients demand verifiable reproducibility—labs that cannot afford to rerun months of stability trials due to small shifts in impurity profile. The difference between a product made under closed, in-house monitoring and offshore or generic production can feel night and day: downstream syntheses with our product avoid nuisance byproducts that appear from casual handling of nitroso vapor or substandard solvent drying. Each drum passes FTIR and NMR checks to verify structural integrity, as well as checks for moisture content and iron trace levels—key in any process building sensitive detonating compounds.
Chemists sometimes ask why DNDMTA-245 stands out against other nitroso or terephthalamide derivatives. Experience shows two main edges: stability in solid storage and the buffering effect of both methylated nitrogen atoms. The methyl groups suppress unwanted self-condensation reactions, which plague non-methyl analogs during long-term storage, especially when facilities can’t guarantee fully climate-controlled conditions. Nitric oxide release rates, a performance metric tracked by several large defense and specialty chemical clients, remain tightly controlled batch to batch here, whereas material of unknown or mixed origin can shift—sometimes catastrophically—across process runs.
Innovators in detonator manufacturing value the non-hygroscopic nature and handling safety versus traditional crystalline nitrosoamines. Material prepared in our lines disables dust formation and offers manageable static charge buildup, which reduces risk during scale-up. Feedback from industrial technologists points to DNDMTA-245’s advantage in streamlining both synthesis and regulatory documentation. Traceability from our single-site process offers a record trail for internal audits and compliance reporting—there’s no confusion regarding lineage of batches, and therefore less risk during code or export regulatory checks.
Working directly with material that comes from the primary manufacturing source, not a repackager, matters most for research designers and production managers alike. A drum of DNDMTA-245 from our plant reflects both the formula and the workflow: inventory draws only from production lots synthesized onsite, so the user deals only with the single set of physical metrics confirmed at the time of shipment. Over time, our support team has even consulted on how to adjust upstream solvent systems or finishing cycles for those pushing the envelope on end material performance—a flexibility rare when sourcing from distributors chained to offshore or contract suppliers.
Much of what differentiates DNDMTA-245 comes down to subtleties honed only by hands-on production experience. Refining the crystalline habit—whether producing more plate-like particles for rapid dissolution or aiming for denser, blockier crystals for storage—adds real value for specific process setups. For instance, one explosives lab in the northern states recently reported shaved minutes off their batch load-in times on account of our custom crystal grading.
Buyers working in synthetic protocols for advanced dyes and liquid-crystal materials notice fewer agitation or dissolution issues with our material. These differences track back to thorough in-process washing and drying, not just simple recrystallization or off-the-shelf micronization performed as an afterthought. Years of experiment driven by customer request have shown that even small changes in moisture or trace solvent loading will create micron-scale defects in derivatized products—nothing theoretical about it, just hard-earned production knowledge.
Others trying to replicate DNDMTA-245 by crude nitrosation or shortcut syntheses deliver off-color, oily, or low-melting-point products that may work for low-end purposes but fail certification anywhere critical safety or performance data is required. We’ve seen many cases where industrial clients tried saving pennies on supply and landed in weeks—or months—of regulatory delays thanks to inconsistent compound identity or unknown side product carryover.
Sourcing specialty nitroso compounds can be a minefield for R&D managers. Too many purchase off-the-shelf material from brokers unaware of the specifics needed for precision synthesis or downstream device assembly. DNDMTA-245 sets itself apart thanks to direct origin and ongoing support—engineers know they are getting an intermediate purpose-built rather than a residual byproduct. Various imported or “house brand” products on the market today often lack documented controls for volatile impurities; their batch paperwork sometimes omits dates, true origin, or storage details.
Our in-house batches are supported with analytical data from both production scale and finished drum lots. By skipping intermediaries, the proof of identity, storage method, and lot history always aligns to reality on the factory floor. The feedback circle flows smoothly—critical users send us their specs, and our team fine-tunes around particle size, purity, or reactivity. Many years of steady use in pyrotechnics, advanced coatings, and flexible electronics parts business have forged a relationship of transparency that simply does not exist with third-party trading houses.
What really makes DNDMTA-245 useable on a daily basis is not just what it’s made for, but what it can enable. Defense research groups have engaged us to supply the compound for tunable detonation profile studies, thanks to our willingness to monitor and control both crystalline morphology and low-level impurity spectrum. Over the past decade, material supported at the producer level has made its way into military-validated devices, where trace performance shifts are simply not tolerated.
The market for specialty nitroso intermediates is gradually moving away from single-source sub-components to integrated, multi-stage systems. As semiconductor, propellant, and micro-detonator companies press for greater reliability and auditability, our DNDMTA-245 meets rigorous acceptance with full analytical support. From an engineering manager’s perspective, tighter batch control means process engineers can minimize revalidation work and rerun costs. Our internal documentation enables not only traceability but robust performance prediction—qualities hard to find from mass-market or brokered supplies.
For synthetic organic chemists, DNDMTA-245 gives a reproducible jumping off point for condensation reactions, cross-coupling campaigns, and other derivatizations of the nitrosoaromatic core. Feedback from research partners has steered us to produce narrow meltdown ranges and ultra-low DMSO/solvent carryover. These aren’t theoretical luxuries: any QC researcher who tries scaling up with non-specific or impure versions will quickly discover why knowing your production origin makes the difference between failed batch and deliverable compound.
We learned early on that delivering small-batch or high-purity DNDMTA-245 only works with collaborative discussion. Every major contract opens with a roundtable on process bottlenecks, environmental conditions on the receiving line, and anticipated regulatory hurdles. It is rare to find a specialty producer that still picks up the phone at the production site—our staff do, and increasingly that’s the distinguishing factor separating robust high-purity supply from generic alternatives. We offer composition documentation, regularly run impurity panels, and are open to further customization. Many users have found that a direct relationship with the plant ensures adaptations and troubleshooting in days, not months.
Repeatedly, complex projects in energetic material synthesis and advanced functional material engineering have survived bottlenecks or regulatory clampdowns because their inputs come from a clear, maintainable supply stream. If a new standard emerges, or an end customer requires a one-off purity check, the process for our DNDMTA-245 is already set up to respond. The focus remains on measurable, factual controls—x-ray and spectrophotometric characterization, solvent compliance, and responsive production adjustments as needed.
Operating as the producer rather than a trader means that our daily challenges—like scaling labs to industry, or managing custom filtration under nitrosation conditions—lay the foundation for delivering technical and regulatory assurance. Many in our team spent years as process chemists or industrial engineers, so they know firsthand why seemingly “minor” aspects like batch analytics or packing procedures shape the outcome for our end users. Facility investments in analytics, air-handling, and environmental controls draw on real-world feedback from commercial partners, not speculative advice from the sidelines.
Our history includes troubleshooting countless issues found in brokered products—from trace catalytic metals that interfere with downstream catalyst beds, to solvent confounds discovered only when mid-process reaction runs failed. With in-house production and transparent workflow, DNDMTA-245 users have recourse to factual troubleshooting, not best-guess. If a research chemist discovers unexpected degradation or discoloration, we can trace every supply drum back to batch synthesis, drying, and QC logs.
Feedback has led us to refine everything from product drying temperatures to the cycling of nitrogen purge environments. Where off-the-shelf material sometimes ships with unknown handling histories—layering on both paperwork confusion and actual risk—our single-lot records narrow the window for potential issues. Repeated experience with pilot-scale and industrial partners proved that even tiny shifts in moisture uptake over storage or transit introduce major hurdles further down the line. Storage stability studies, carried out over multiple seasons, have shown that our handling and packaging practices reduce clumping and color drift, a critical requirement for scaled detonator and time-delay programs.
Often, project leaders contact us to commission tailored crystalline sizing or further purification for key applications. Unlike with standard catalog suppliers, our willingness to push beyond bulk spec opens new windows for technical adaptation—whether a lab needs lower residual solvent content, alternate drying, or very fine powder shape control. Technical challenges flagged by engineers or researchers rarely fall through the cracks. Our direct involvement speeds up adaptation, saves on re-validation, and prevents interruption of major R&D projects.
Technical staff see day in and day out that brokers and mass marketers can’t match the customization, traceability, and support available straight from the production line. Any buyer looking to ensure robust chemical input—be it for advanced energetic systems, fine chemical synthesis, or innovation in electronics—eventually discovers where the value lies. N,N'-Dinitroso-N,N'-Dimethylterephthalamide (DNDMTA-245) is more than a line on a chemical list; it is a building block underpinned by decades of industrial know-how—chemical expertise shaped by real experience, in response to real demands.
Materials like DNDMTA-245 don’t simply satisfy regulatory or operational hurdles, they carry the experience and reliability formed by direct, hands-on production. That reliability is no small thing in industries where almost every process depends on trustworthy materials and honest support. There are no secrets, no silent intermediaries, just the facts verified by every drum that leaves our factory. Experience at the source makes all the difference—from consistent reactivity and minimal impurity spectrum to the security of a direct technical support pipeline, DNDMTA-245 reflects the absolute value of knowing your source.