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HS Code |
718098 |
| Cas Number | 25321-14-6 |
| Molecular Formula | C7H6N2O4 |
| Molar Mass | 182.14 g/mol |
| Appearance | Yellow solid |
| Melting Point | 70-71 °C |
| Boiling Point | 300 °C |
| Density | 1.56 g/cm³ |
| Solubility In Water | Slightly soluble |
| Flash Point | 173 °C |
| Odor | Mild aromatic odor |
As an accredited Dinitrotoluene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
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Purity 99%: Dinitrotoluene with 99% purity is used in polyurethane foam production, where consistent cell structure and material strength are achieved. Melting Point 70°C: Dinitrotoluene with a melting point of 70°C is used in plasticizer synthesis, where controlled fusion ensures optimal blending and flexibility. Stability Temperature 150°C: Dinitrotoluene with a stability temperature of 150°C is used in explosives manufacturing, where thermal resistance guarantees safe processing. Molecular Weight 182.14 g/mol: Dinitrotoluene of molecular weight 182.14 g/mol is used in chemical intermediates production, where uniform molecular mass ensures reliable reaction results. Low Moisture Content <0.05%: Dinitrotoluene with moisture content less than 0.05% is used in isocyanate synthesis, where low water levels prevent unwanted side reactions. Particle Size 100 microns: Dinitrotoluene with a particle size of 100 microns is used in pigment dispersions, where fine granularity promotes consistent color distribution. Density 1.53 g/cm³: Dinitrotoluene with a density of 1.53 g/cm³ is used in precision dye blending, where accurate volume measurement supports formulation efficiency. Boiling Point 300°C: Dinitrotoluene with a boiling point of 300°C is used in high-temperature adhesive formulation, where elevated thermal stability prolongs product lifespan. |
| Packing | Dinitrotoluene is typically packaged in 200 kg steel drums, labeled with hazard warnings, batch number, and chemical identification details. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for Dinitrotoluene: Securely packed in drums or IBCs, approximately 16-20 metric tons per 20-foot container. |
| Shipping | **Dinitrotoluene** must be shipped as a hazardous material, typically under UN Number 1600. It should be packed in tightly sealed containers, kept away from heat, open flames, and incompatible substances. Proper labeling, documentation, and adherence to transport regulations (such as DOT or IMDG code) are required for safe shipping. |
| Storage | Dinitrotoluene should be stored in tightly sealed containers in a cool, dry, and well-ventilated area, away from sources of heat, sparks, or open flames. It must be kept separate from strong oxidizers, acids, and reducing agents. Proper labeling and secondary containment are essential to prevent leaks or spills, and storage areas should have suitable fire protection measures in place. |
| Shelf Life | Dinitrotoluene typically has a shelf life of 2–3 years when stored in tightly sealed containers under cool, dry, and well-ventilated conditions. |
Competitive Dinitrotoluene prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to sales3@ascent-chem.com.
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Tel: +8615365186327
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Dinitrotoluene draws plenty of attention as one of the essential intermediates that drive chemical production lines, with its reliable performance in downstream manufacturing. Our facility produces Dinitrotoluene in several grades and models, each aligned to the unique needs of our customers. The 2,4-Dinitrotoluene variety stands out in polyurethane foam manufacturing, while our 2,6-Dinitrotoluene maintains steady demand for specialty applications. Dinitrotoluene, in its different forms, shapes workflow decisions daily and supports the reliability that industrial users expect.
The heart of our operation embraces careful synthesis routes to ensure a consistent profile—no two batches are ever identical, but years of investment in precision chemistry make sure deviations stay within tight limits. Across production, Dinitrotoluene achieves specific melting and boiling points: details like these matter during downstream reactions and process control. Our technical labs routinely verify these points, often above industry baseline, allowing customers in polyurethane intermediates and explosives sectors to expect high compatibility between batches.
Real-world manufacturing forces trade-offs. Engineers demand details like moisture content and nitrogen purity because these determine final product quality, not just on paper but in everyday results. Our inspection teams ensure the Dinitrotoluene we ship meets narrow ash and sulfur thresholds. Detailed spectroscopic testing screens for isomeric content—understanding exactly how much 2,4- versus 2,6-Dinitrotoluene is present has a direct impact on downstream reactivity, especially in binder production or pigment intermediates.
By working as a direct manufacturer, we control everything from raw material selection—nitration using fresh toluene, rigorous catalyst screening, managed waste reduction processes right down to refining steps. Being hands-on lets us keep close tabs on lot variations and gives our partners confidence their production lines won’t stall from unexpected changes in chemical feedstock. We don’t just hand off a product; we build a working relationship tested through customer audits, repeat business, and emergency orders.
Most people in the industry think of polyurethane when Dinitrotoluene comes up. Large-scale foam production plants draw huge quantities of 2,4-Dinitrotoluene, using it to create toluene diisocyanate (TDI). This application hinges on purity, since off-spec Dinitrotoluene introduces side reactions or inferior polymer structure. Decades of feedback have shown us where the line sits between laboratory promises and factory reality. Our technicians learned that even marginal increases in water or byproduct traces can spike rejection rates at customer sites—so every batch receives multi-point testing.
Dinitrotoluene also forms the basis for military-grade and civilian explosives production. Small shifts in isomer ratios or trace contaminants influence detonation properties. Contractors come back to us because our tracking exceeds the paperwork; technical coordinators review batch history alongside each shipment and stay involved after delivery through regular dialogue.
Certain pigment and dye manufacturers need tightly managed isomer content. A textile dye plant once reported consistent lot-to-lot color drift using competitor samples. By collaborating on real-world lab trials, we tailored a run with adjusted 2,6 isomer content, improving color repeatability and production yield. This drove process adjustments not covered in most data sheets, but possible only by having direct manufacturer input with technical expertise supporting every drum we send out.
The chemist’s view of Dinitrotoluene gains sharper focus at production scale. Good chemistry on paper can fall apart under pressure, moisture, or thermal cycling. Our facility runs reactors at scale that exposes Dinitrotoluene to real-life handling, outside the ideal confines of laboratory glassware. Every kilogram shipped faces strict tracking—spectra, melting point range, particle size, and shipping logistics reviewed side-by-side.
Unlike off-the-shelf supplies distributed by agents, our plant adapts production for large customers. Suppose a foam plant requires low-sulfur Dinitrotoluene for a specialty memory foam line; we adjust purification stages and confirm via batch testing before signing off. Furthermore, we field questions from users running older processing lines, who flag process upsets when input chemistry drifts even slightly; our response teams walk their engineers through the differences between grades and handle special batch requests—things distributors simply reroute.
Thinking long-term, we’ve witnessed regulatory clampdowns on aromatic nitro compounds. As restrictions evolved, our production and QC units responded with rapid updates, such as integrating vapor recovery or reducing residual byproducts to below current thresholds. Having the full supply chain in one place turns regulatory compliance into an advantage rather than a reactive burden.
Direct production means facing not only the utility of Dinitrotoluene, but bearing responsibility for how it reaches the end user—safely, consistently, and with minimal waste. Staff at every step, from reactor operators to logistics managers, receive continual material handling and emergency response training. Our warehouses invest in real mitigation infrastructure—active containment systems, vapor monitoring, and containment measures adopted after practical in-plant incidents, not just theoretical risk assessments. Emergencies rarely follow the playbook, so we task line supervisors with periodic reviews of both process safety improvements and chemical risk controls.
The broader community watches manufacturers closely, so our environmental stewardship grows every year. By capturing waste streams and recycling process water, we reduce not just regulatory burdens but also waste disposal costs, future-proofing our production system. Dinitrotoluene creates unique nitroaromatic residues—engineers here run bench-scale pilot trials to tweak waste remediation, turning process data into real improvements for future expansions.
Consistent with experience on export logistics, we recognize packaging and labeling as more than a shipping formality. Cross-border shipments face unpredictable customs checks, and improper labeling can result in delays or refusals. Our logistics team continuously reviews regulatory updates across target markets to avoid compliance snags before they escalate to production delays on the customer’s end.
Specifications do not stand still. A material once satisfactory for open-cell foam in furniture may prove less suitable for automotive-grade foam requiring lower chlorinated contaminants or tighter melting range. As factories modernize, customers demand adaptations fast. At our site, process chemists maintain a direct channel with quality management leads to evolve metrics based on seasonal data, user lab results, and after-action reviews from supply interruptions.
Back in the early days of Dinitrotoluene manufacturing, wide specification bands created downstream problems—batch incompatibilities, excessive maintenance downtime, and avoidable scrap rates. Tightening proprietary control over refinement and blending enables us to promise supply stability and technical service as opposed to transactional product drops.
A foam customer facing a ramp-up for insulation boards during a cold spike, or an ammunition producer scaling for government bids—each brings unique demands for trace consistency and purity. On our end, technical advisors drill into prior shipment analyses and, on request, support process debugging, assisted by careful record-keeping of feedstock variability and process upsets. This shared expertise does not show on a specification sheet but forms the backbone of our customer relationships.
Manufacturing lines live and die by week-to-week input quality. An off-spec batch can bring a foam molding line to its knees, prompting long downtime, increased scrap, or rushed troubleshooting at considerable cost. Plant engineers need swift answers on how impurity spikes occurred—a call to a hands-on manufacturer carries the weight of production experience behind the response.
Our approach keeps open logs on production anomalies—minor color shifts, melting point deviations, or micro-contamination events reported by the laboratory are immediately relayed to customer-facing staff for coordinated notification. Production doesn’t pause for paperwork, and proactive communication can often preserve trust and save operators from larger headaches. Customer sites come to value this responsiveness, knowing that technical reviewers from our facility understand not just chemical standards but the industrial pressures at stake.
Failure to manage these deviations creates trickle-down impacts: delayed shipments, poor foam expansion, brittle plasticizers, or explosive batches that perform unpredictably. Our teams respond with technical advisories and, when needed, custom production runs or expedited replacements. These actions require a manufacturer that operates its reactors and understands the reality of industrial risks and timelines.
Years in chemical production reinforce the value of listening. Real feedback from plant operators—variability in application, residue on equipment, downtime from unexpected contaminants—feeds back directly into process adjustments. Our on-site technicians keep records of such concerns and revisit process control protocols during plant shutdowns. An observed pressure surge traced to a trace contaminant prompted us to redesign our filtration cycle, avoiding a repeat not only for that batch, but for future runs as well.
These cycles of feedback-driven improvement compound over time, separating a producer invested in the long-term from those content to simply meet minimum commercial specifications. By visiting customer sites and testing production-side changes together, we see firsthand the impact of choices made in our reactors and labs. Recent advances involved integrating inline sensors to monitor temperature and moisture content at multiple steps, with the express intent to detect and correct process swings before final packaging.
In practice, this means customers benefit from batches with fewer surprises and more predictable behavior in their own processes, which fuels shared growth and trust in the supply relationship.
While Dinitrotoluene shares structural features with other nitroaromatics such as trinitrotoluene (TNT) or mononitrotoluene compounds, critical differences exist in physical properties, regulatory considerations, and downstream uses. For instance, trinitrotoluene poses different environmental and handling risks and is almost never suitable for polyurethane feedstock production. Our own experience handling both large-scale and specialty nitroaromatics allows us to offer practical guidance to customers unsure which material suits a new process line.
On the commercial front, Dinitrotoluene available from resellers often lacks traceability—missing detailed history on precursor lots, test records for isomer content, or full transparency on deviation reports. Through direct manufacturing, our plant closes the loop: from the incoming toluene, through each nitration charge, all the way to dry end-state product delivered in user-specified packaging. That background isn’t visible in a commodity quote but becomes indispensable the moment a line experiences trouble and rapid troubleshooting is required.
In conversations with customers, we encounter stories of past unpredictability from non-manufacturer sources—batches that performed irregularly, or whose impurity load forced reprocessing or plant shutdowns. Our emphasis remains on not only selling Dinitrotoluene, but supporting its integration with plant operators and process engineers at every stage. That approach sets a direct manufacturer apart from trader-dominated supply chains.
The steady presence of Dinitrotoluene in industrial chemical chains suggests reliability should never give way to the pursuit of higher margins or shortcuts. We invest in both incremental process improvements—energy efficiency in nitration, smart recycling, advanced batch analytics—and completely new approaches, such as solvent recovery systems and digital oversight of reactor variables. These investments pay off not just for our plant, but for every downstream user relying on stable, high-purity input for their own manufacturing needs.
New regulatory guidance on health, safety, and emissions requires adaptive manufacturing approaches. Our team tracks policy changes and runs pilot projects to assess impact and feasibility, making improvements that strengthen both compliance and product consistency. Customers receive regular updates about facility upgrades or changes to standard operating procedures, making transitions as smooth as possible without interruptions to their own production flow.
Supply disruptions from geopolitical changes or supply chain bottlenecks have underscored the importance of local manufacturer agility. By controlling the entirety of production, packaging, compliance, and shipping, our Dinitrotoluene remains available, consistent, and tailored to evolving requirements—even during unexpected market shifts.
Through decades at the helm in Dinitrotoluene production, the biggest lesson is that reliability, transparency, and dialogue underpin every strong supply relationship. No data sheet or marketing slogan can replace the impact of walking the factory floor, seeing process improvements in action, or searching for root causes alongside plant operators at 2 am. Dinitrotoluene leaves the plant with a full pedigree: process logs, spectroscopic profiles, moisture charts, packing records, and shipping confirmations—all targeted at one goal: unfailing performance under industrial conditions.
A deep bench of in-house chemists and process engineers empowers rapid turnaround—from routine shipments to custom formulation requests and after-action support. Our teams field requests for alternative packaging, advice on optimization, and regulatory documentation, never relying on third-party information. Integrated expertise comes from repeated cycles of production feedback and hard-earned lessons.
Many of our long-term customers once arrived with problems that, on the surface, looked like simple bad luck from a troublesome upstream supplier. Only after analyzing their challenges together—loading dock to lab bench—did the story reveal upstream production gaps, shipment handling oversights, or mismatch in product specifications. Direct manufacturing allows us to adapt and improve results quickly, eliminating the blind spots that creep into longer, more convoluted supply chains.
No production line runs without hitches, and Dinitrotoluene brings its share of material hazards, processing variables, and environmental obligations. Managing these requires not just regulatory compliance, but an ingrained safety culture that recognizes and learns from near-misses, deviation reports, and new customer requirements. Our management enforces strict incident reporting and continuous retraining—moves rooted in lessons from both internal reviews and external audits.
Shifting regulations and evolving application requirements push us to anticipate changes. For example, rising interest in lower-impact intermediates for polyurethane drives research into greener nitroaromatic production or alternative feedstocks. Our plant piloted advanced purification techniques, such as membrane filtration and catalyst recovery technologies, to achieve higher purity while reducing secondary pollutant formation. While industry-wide demand drives the pace of innovation, only direct investment in R&D and production infrastructure unlocks real step changes in both efficiency and environmental performance.
The trust customers place in our Dinitrotoluene depends on a proven track record of problem-solving, both in routine shipments and urgent requests. Building redundancy in supply chains, offering technical support for rapid process changes, and maintaining open channels for regulatory updates keep customer operations moving smoothly and safely.
Anticipating where chemical manufacturing is heading, our ongoing investments center on plant modernization, process automation, and workforce training. Traceability, transparency, and expertise mark every stage of Dinitrotoluene manufacture and delivery. Customers across foam, explosives, pigment, and niche specialty markets bring evolving technical and compliance requirements, and we grow with them by remaining both consistent and flexible in response.
The unique role of a direct manufacturer shapes every aspect of how we produce and support Dinitrotoluene in the market. Technical precision, reliability, and environmental responsibility blend through continual improvement and long-earned experience, ensuring every batch delivers more than just a commodity, but a genuine partnership that stands behind performance, quality, and safety.