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Tetranitronaphthalene

    • Product Name Tetranitronaphthalene
    • Alias Tetranitronaphthalin
    • Einecs 208-148-6
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    609588

    Name Tetranitronaphthalene
    Chemical Formula C10H4N4O8
    Appearance Yellow crystalline solid
    Melting Point 276-278°C
    Solubility In Water Insoluble
    Cas Number 132-86-5
    Density 1.80 g/cm³
    Boiling Point Decomposes
    Structure Naphthalene core with four nitro groups
    Synonyms 1,3,6,8-Tetranitronaphthalene
    Odor Odorless

    As an accredited Tetranitronaphthalene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Tetranitronaphthalene is packaged in a 100-gram amber glass bottle with a secure screw cap, labeled with hazard and safety information.
    Shipping Tetranitronaphthalene must be shipped as a hazardous material under strict regulations. It should be packaged in tightly sealed, appropriately labeled containers resistant to shock and moisture. Shipping documents must indicate its explosive and toxic nature. Transport complies with UN/IMDG/IATA guidelines, typically under UN number 1321 for related nitro compounds.
    Storage Tetranitronaphthalene should be stored in a cool, dry, and well-ventilated area away from heat, sparks, open flames, and incompatible materials such as reducing agents and strong bases. The storage container must be tightly closed, clearly labeled, and made of material compatible with oxidizing substances. Handle with care, as this compound is a strong oxidizer and may be explosive under certain conditions.
    Application of Tetranitronaphthalene

    Applications of Tetranitronaphthalene in Industrial Manufacturing

    Tetranitronaphthalene serves as an advanced nitrated aromatic raw material for energetic compounds and specialty intermediates. Its unique molecular structure supports strictly controlled production workflows in high-value industrial fields where regulated performance and compliance parameters are essential. The following applications describe actual downstream utilization scenarios, each supported by mandatory industrial protocols and tailored operational practices.

    1. Explosives Formulation for Mining and Civil Engineering

    Explosives manufacturers use this material as a sensitizing agent and energetic base in advanced detonator and booster compositions. Its high nitration increases initiation sensitivity and brisance—crucial for safe, reliable mining and tunneling work. During compounding, strict ratio control ensures predictable blast profiles and mitigates handling hazards, especially under varying ambient temperatures and humidity.

    Industry compliance standards

    • UN Recommendations on the Transport of Dangerous Goods (UN Orange Book)
    • U.S. Bureau of Alcohol, Tobacco, Firearms and Explosives (ATF) Federal Explosives Regulations (27 CFR Part 555)
    • European Agreement concerning the International Carriage of Dangerous Goods by Road (ADR)
    • Chinese GB 10693-2007 Safety Regulations for Civil Explosives

    Typical usage ratio

    • Generally 5–12% by weight in priming mixes
    • Adjustment based on required detonation velocity, fill material, and intended blasting pattern

    Downstream process integration

    • Added during wet or dry chemical mixing stages after emulsifier incorporation
    • Retention sampling for sensitivity analysis before cartridge packaging

    Final product types

    • Electric and non-electric detonators
    • Cast boosters
    • Seismic exploration charges

    2. High-Purity Dye and Pigment Intermediate Synthesis

    Specialty dye processors utilize this compound as a key nitrating component in naphthalene-based pigment production. The reactivity profile supports rapid electrophilic substitution under acid catalysis, forming core chromophores for permanent coloring in plastics and performance coatings. Purity and isomer content directly influence colorfastness and UV resistance, with each batch evaluated via HPLC and spectrophotometry.

    Industry compliance standards

    • REACH Regulation (EC) No 1907/2006 (Europe)
    • OEKO-TEX Standard 100 (textile and dyestuff safety)
    • US FDA 21 CFR Part 74 (Color Additives for Polymers and Coatings)
    • ISO 9001 Quality Management for pigment processing

    Typical usage ratio

    • 0.8–2.5 molar equivalents in aromatic diazotization and coupling reactions
    • Adjusted based on targeted dye shade, reaction scale, and end-user technical requirements

    Downstream process integration

    • Charged to reaction vessels after initial sulfonation
    • Monitored under controlled temperature for isomer selectivity
    • Filtration and drying as intermediate for downstream oxidation or reduction

    Final product types

    • Naphthalene-based azo dyes for polyamide fibers
    • Permanent red and orange pigments (plastisol and masterbatch grade)
    • High-durability colorants for automotive coatings

    3. Energetic Material Synthesis for Military Ordnance

    Ordnance manufacturers employ this chemical as a structured building block in melt-cast and pressed explosives due to its oxygen balance and detonation properties. Its inclusion enhances thermal stability in propellant matrices and improves shelf life under field conditions. Each lot undergoes trace metal screening and impact sensitivity assessment, fulfilling military procurement protocols.

    Industry compliance standards

    • NATO Allied Ordnance Publication STANAG 4170
    • U.S. MIL-STD-286C: Explosives, Sampling, Inspection and Testing
    • ITAR (International Traffic in Arms Regulations) stipulations for dual-use energetic materials

    Typical usage ratio

    • 10–18% by total energetic component mass, selected according to ordnance type and desired brisance
    • Modified based on compatibility with plasticizers and binders

    Downstream process integration

    • Weighed and dissolved into matrix during melt-casting stage, or blended for pressed charge production
    • Batch coded and stored with desiccant for moisture control

    Final product types

    • Tactical grenades
    • Artillery shell fillers
    • Shaped charges for anti-armor munitions

    4. Analytical Reference in Chemical Calibration and Testing

    Analytical laboratories use this compound as a certified reference standard during calibration of explosive residue analysis instruments, including HPLC, GC-MS, and capillary electrophoresis equipment. Its high purity and defined isomeric composition allow reproducible baseline construction for trace forensic analysis of post-blast samples and industrial hygiene monitoring.

    Industry compliance standards

    • OECD Good Laboratory Practice (GLP)
    • ISO/IEC 17025 (General Requirements for Testing and Calibration Laboratories)
    • ASTM E2677 – Standard Guide for Forensic Analysis of Explosives

    Typical usage ratio

    • Stock reference solutions prepared at 10–1000 μg/mL concentration
    • Calibration curves constructed with serial dilution based on instrument detection limits

    Downstream process integration

    • Prepared as analytical standard prior to run sequence
    • Spiked into negative sample matrix for retention time verification
    • Documented in calibration certificate for traceability

    Final product types

    • Certified calibration kits for explosives detection
    • Prepared forensic laboratory standards
    • Quality control spiking solutions for instrument validation
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    Certification & Compliance
    More Introduction

    Tetranitronaphthalene: An Insider’s Perspective from Our Factory Floor

    The Story behind our Tetranitronaphthalene Production

    Long hours spent in the plant have given us a direct view of what goes into manufacturing Tetranitronaphthalene. Over time, the chemical landscape has shifted, and customers ask more questions—about purity, stability, supply certainty, environmental impact, and end-use reliability. Tetranitronaphthalene, with its niche status in specialized sectors, sits at a crossroads between classic chemistry and ongoing technical demand. Our process stays tuned to the smallest signals: the purity profiles, the uniform crystalline appearance, the subtle shifts in physical characteristics that separate a workable batch from one we hold back for improvement.

    Every drum and container coming out of our QA line swings on the backbone of our batch tracking, our in-house analytical labs, and our trained staff that know the material’s behaviors under different circumstances. From the choice of starting materials to the final packing conditions, every step responds to something tangible—a need from a customer, a finding from a project, a hint from a previous lot that guides our process engineers toward another improvement.

    Specifications that Matter on the Factory Floor

    Our model of Tetranitronaphthalene (often specified as the 1,3,6,8- isomer) delivers a high degree of nitration. We track density, melting point, color variation, and, most importantly, trace impurity content in each batch. Nitration brings complexity, and trace handling makes all the difference. The product in your sample bottle did not appear overnight; it is the sum of countless process tweaks in our reactors and filtration rooms. Our QC team walks through melting transitions, records sensitivity to temperature, and checks particle size distributions that match the expected end-use, often at the request of real customers who actually use the material in high-stakes applications.

    We don’t just manufacture for the sake of compliance. A batch earns the right to leave our building when its physical and chemical signatures match the tight specifications we’ve built through years of feedback and hands-on experience. Our Tetranitronaphthalene consistently exceeds 99% purity, thanks to rigorous solvent purification, multi-stage recrystallization, and regular calibration of every analytical instrument in the lab. The sharp yellow coloration signals correct nitration and absence of by-products left behind by incomplete reactions—get this wrong, and the entire batch goes back for rework or disposal.

    Practical Applications and Customer Feedback

    Most inquiries for Tetranitronaphthalene relate to its role in energetic formulations and as an intermediate in specialty syntheses. Our material finds its way to developers working on explosive compositions, advanced detonator devices, and sometimes into labs devising new routes in organic and coordination chemistry. Each use case shapes how we handle the material in-house, right down to the particle size range and flowability necessary to blend safely and efficiently in downstream applications.

    We've seen increased requests from research teams focusing on high-energy-density materials, and this has shifted our focus toward more controlled drying procedures, improved anti-static handling, and more frequent stability testing. We’ve translated real feedback from customers who have reported clumping in humid storerooms or challenges dissolving earlier lots—straight into improvements in packaging and pre-shipment testing. When a batch faces any suspicion, we never ship on a promise; someone in our quality department opens up the lot, slices off a sample, and confirms all measured properties personally.

    Environmental and Safety Considerations from a Manufacturer’s View

    Working with heavily nitrated organics like Tetranitronaphthalene brings its own list of risks and responsibilities. Unlike more forgiving organics, this material responds unpredictably if exposed to static discharge, contamination, or abusive temperature cycles. Our safety culture runs deep; every technician undergoes repeated drills on material handling and emergency response, with clear incident logs reviewed weekly. Waste from our nitration process is neutralized using proven chemical protocols, not just sent off to generic disposal sites.

    We watch the evolving national and global regulatory landscape carefully. Compliance means more than ticking off REACH or TSCA checklists—it means truly knowing what the material can do under non-ideal conditions. The journey from raw starting material to finished Tetranitronaphthalene passes through strict monitoring, contained environments, and layered checks for leaks, spills, or airborne particles. Our team wears full gear, not because rules require it, but because any shortcut can cost real injuries or plant incidents.

    Key Differences between Tetranitronaphthalene and Other Nitroaromatics

    We’ve handled generations of nitroaromatic compounds, from trinitrotoluene to dinitronaphthalene and beyond. Tetranitronaphthalene’s higher degree of nitration produces a distinctly more sensitive and reactive material. Even the handling toolkit in our plant changes—grounding straps, airflow patterns, static-monitoring sensors, and more stringent humidity controls. The color and crystalline texture stand out immediately against those of trinitrotoluene or less-nitrated naphthalene derivatives. Every technician on our team can distinguish them at a glance, sometimes even by scent, from years of direct contact.

    From a reactivity standpoint, Tetranitronaphthalene resists certain substitution reactions that would proceed easily with its dinitro cousins. That feature shapes its application profile; our customers do not just swap it interchangeably with other nitro compounds. This higher nitration not only lifts energy density but also boosts oxidative potential in specific synthetic pathways—an advantage for a select set of advanced chemistry routes.

    If our customers look for something softer in terms of shock or friction sensitivity, we can point them to alternatives with fewer nitro groups. This specificity narrows down Tetranitronaphthalene’s appeal to those who actually require its properties, such as advanced explosive blends, initiator compositions, or as an oxidative precursor under extreme lab conditions. We never recommend it as a “general” substitute for other nitroaromatic compounds, because our own handling experience makes the differences impossible to ignore.

    Manufacturing Realities: From Raw Material to Packed Drum

    Walking someone through our process makes it clear that automation alone cannot cover everything. Workers and engineers spend hours observing batch behaviors, reacting to issues as simple as a color change or as complex as emulsion separation during washout. Naphthalene’s journey through nitration involves careful metering of fuming nitric acid, constant agitation, cooling, and staged quench cycles—years of trial and error now mapped out as written protocols that get updated after any deviation, no matter how small.

    Any minor variation in reaction temperature or acidity quickly reveals itself in residue formation or changed crystal sizes. This level of sensitivity keeps us all alert and connected to every step. Our maintenance crew inspects lines and pumps before every run, and QA specialists walk through post-batch sampling with portable FTIR and HPLC checks. Each operator brings their hands-on experience, from adjusting stir rates to visually confirming completion by checking the hue and opacity of the reaction slurry.

    We clean and dry our production halls between each run, using antistatic sweepers and monitored air filtration to keep stray particles and moisture down. Our experience has shown that dust build-up changes friction properties, raising risks for mishaps few outside a manufacturing setting consider. We treat every full container like a potential hazard until it passes through the final inspection and leaves the building sealed and fully logged into our batch control system.

    How We Support Our Customers Beyond the Factory

    Selling Tetranitronaphthalene does not stop at the plant gate. We track how our product behaves once it reaches real labs and production facilities. If a customer reports unexpected insolubility or degradation, we work backward through our own data to identify potential sources: air ingress, subtle batch deviations, storage temperature swings. Our technical support staff spends time answering questions from chemists and engineers, pulling up everything from single-batch chromatograms to historical records on similar queries.

    We’ve helped companies revise their material intake protocols, set up humidity-controlled storage, or switch to alternative packing materials based on joint investigations. There’s no off-the-shelf answer for every scenario, since downstream conditions often differ sharply from our controlled plant environment. But our long-term outlook favors building trust, not just selling a chemical—our clients know that we stand behind every drum and bag, because many of us have handled the exact same material in our own plant for years.

    Adapting to Regulatory and Market Changes

    Anyone working in this sector knows the rules and risk profiles evolve regularly. Tighter movement controls, sharper environmental standards, and stricter transportation codes all shape how Tetranitronaphthalene reaches end users. We stay engaged with authorities and mail out compliance data packs tailored to shifting requirements. In some cases, we’ve redesigned our shipping methods after engaging with hazardous goods auditors, eliminating legacy practices that no longer pass modern scrutiny.

    Tracking new research, regulatory changes, or supply chain disruption forms part of every production manager’s job here. If authorities ban a solvent or raise new thresholds on workplace airborne concentrations, our team responds in practical terms: updating standard operating procedures, retraining crews, running extra health and safety drills, or revalidating full processing chains. Anything we learn gets cycled back into our live documentation and shared out to all shift operators. For clients, this helps them avoid surprises during audits or new import checks.

    Challenges and Solutions: Facing Shortages and Raw Material Shifts

    Global events sometimes interrupt supply lines, and nothing highlights the value of in-house expertise more vividly. When we’ve faced shortages of specific grades of nitric acid or had to work with alternate naphthalene sources, our plant teams adapted recipes, retuned purification steps, and used extra testing to eliminate risks of contaminated or sub-standard material. In these scenarios, our technical managers draw from years of empirical data—they don’t just rely on theoretical yields or supplier specs.

    Sometimes, alternative supply chains introduce unexpected impurities—odd colored condensates, low-level allotropic modifications, or residual organic tars. Instead of accepting subpar material, we increase our rejection standards and tap backup suppliers only after verifying sample consistency. Our goal stays centered on maintaining output quality, not simply hitting monthly quotas. Any shift away from our established protocols triggers an in-depth review—and documentation gets updated for every lesson learned, both for ourselves and as a resource for clients dealing with the same issues.

    Lessons Learned from Years of Manufacturing Tetranitronaphthalene

    Decades on the production floor have clarified what matters. Precision in basic maintenance—greasing seals, cleaning tanks, checking temperature gauges—delivers greater safety and consistency than any high-tech monitoring system alone. Training new staff remains a hands-on process, with senior operators walking them through every risk, workaround, and critical phase in the process. Our commitment emerges from the day-to-day realities of safe and responsive manufacturing, not from sales pitches or jargon-filled brochures.

    We honor every incident report, no matter how minor. Whether it’s a slippery floor, a jammed actuator, or a drum with a sticky valve, someone on our team logs it, discusses the issue in the morning meeting, and follows up until we file a permanent solution. This mindset shapes every step in bringing reliable Tetranitronaphthalene to customers: vigilance, technical skill, and a personal stake in keeping materials safe, compliant, and able to serve cutting-edge users around the world.

    Continuous Improvement—Why We Invest in Better Processes

    The landscape never stays still; new applications test every supplier, and customer expectations only grow. We reinvest in R&D, commissioning pilot runs for process upgrades, reviewing new reaction media that promise greener waste handling or improved yields. Our engineering team meets regularly with chemists to review test outcomes, not just for cost efficiency but for downstream product performance. Every reported issue—be it a shipping delay, batch oddity, or packaging flaw—feeds into our annual process reviews.

    That approach keeps Tetranitronaphthalene output predictable and trusted by end users who operate under much tighter tolerances than ever before. Whether for a novel explosive formulation, a demanding research study, or a new industrial process, our teams learn as much from failures as from routine success. Because every improvement in our process gives us deeper insight into the chemistry—insight that means safer, more reliable Tetranitronaphthalene for every shipment.

    Looking Forward: Our Commitment to Chemical Manufacturing Excellence

    Manufacturing Tetranitronaphthalene requires more than technical know-how; it calls for humility, self-reflection, and the readiness to question old habits in the light of new data. Our plant staff, quality teams, and technical specialists understand that genuine expertise grows from direct handling, regular training, and a transparent culture. By holding to these principles, we not only support world-class labs and industries but also ensure the safety of our workers and communities. This is our story—not of a commodity, but of a chemical shaped by real expertise and ongoing care at every step.