Products

Hexanitro-1,2-Diphenylethylene

    • Product Name: Hexanitro-1,2-Diphenylethylene
    • Alias: HND
    • Einecs: 221-372-5
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    232228

    Iupac Name 1,1,2,2-Tetrakis(nitro)-1,2-diphenylethylene
    Common Name Hexanitro-1,2-Diphenylethylene
    Molecular Formula C14H8N6O12
    Molar Mass 452.25 g/mol
    Appearance Yellow crystalline solid
    Melting Point Decomposes before melting
    Solubility In Water Insoluble
    Density 1.70 g/cm³ (approximate)
    Cas Number 125-80-8
    Chemical Structure Consists of an ethylene backbone with two phenyl groups and six nitro groups attached
    Stability Sensitive to heat and shock
    Explosive Property Yes, classified as a high explosive

    As an accredited Hexanitro-1,2-Diphenylethylene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The packaging contains 25 grams of Hexanitro-1,2-Diphenylethylene, sealed in an amber glass bottle with a tamper-evident cap.
    Shipping **Hexanitro-1,2-diphenylethylene** must be shipped as a hazardous material, in compliance with proper regulations (e.g., DOT, IATA). Use UN-approved containers, segregated from incompatible substances, clearly labeled as an explosive or dangerous good. Ensure all documentation is complete, and shipment is only handled by licensed carriers authorized for hazardous chemicals.
    Storage Hexanitro-1,2-Diphenylethylene should be stored in a tightly sealed, non-metallic container, away from heat, flame, and direct sunlight, in a cool, dry, well-ventilated, and designated explosives storage area. Protect from physical shock, friction, and incompatible materials such as reducing agents and bases. Access should be restricted to trained personnel with proper protective equipment, and the storage area must comply with regulatory explosive safety standards.
    Application of Hexanitro-1,2-Diphenylethylene

    Applications of Hexanitro-1,2-Diphenylethylene in Industrial Manufacturing

    Hexanitro-1,2-Diphenylethylene (HNDPE) is a high-energy-density intermediate valued for its energetic, oxidizing, and specialty chemical properties in advanced materials manufacturing. As a direct producer, we supply HNDPE tailored for precision formulation processes in several specialized industrial sectors, focusing on rigorous quality and compliance throughout all downstream applications.

    1. Explosive Formulations for Military and Civil Engineering

    Leading munitions and civil blasting industries integrate HNDPE as a key active ingredient in the manufacture of high-performance explosives and demolition charges. Its high oxygen balance and energetic profile enable the production of compact charge systems with controlled brisance and detonation velocity. The compound undergoes precision blending with other nitroaromatics and plasticizers under tightly monitored safety protocols. Downstream processing includes roll-mill incorporation, slurry techniques, or melt-cast compounding to yield finished cast, sheet, or plastic bonded explosives suited for military ordnance or controlled demolition in mining and construction.

    Industry compliance standards

    • UN Recommendations on the Transport of Dangerous Goods (UN Orange Book)
    • US Department of Defense MIL-STD-286C for explosives ingredients analysis
    • REACH Regulation (EC) No 1907/2006 for chemical safety
    • ATEX Directive 2014/34/EU for explosive atmospheres in EU manufacturing environments

    Typical usage ratio

    • 2–15% by total mass of explosive composition, adjusted by required detonation load and compatibility with plasticizers and binders

    Downstream process integration

    • Direct addition during primary wet or dry mixing lines
    • Uniform dispersion into slurry or roll-milling operations under inert atmosphere
    • Integration into melt-cast or preform moldings for shaped charge production
    • Quality assurance using HPLC and impact-sensitivity testing pre-packaging

    Final product types

    • Military cast explosives (e.g., shaped charges, booster charges)
    • Industrial demolition charges for civil engineering
    • High-performance detonators
    • Formulations for airbag initiators and seismic exploration

    2. Energetic Materials for Aerospace Propellants

    Space propulsion specialists use HNDPE as a supplementary energetic component in solid composite propellant formulations. Its highly nitrated structure yields significant thrust enhancement when co-processed with ammonium perchlorate and polyurethane binders. Production facilities meter the material using micro-feeding systems to ensure precise percentage levels and stability, then incorporate it during propellant slurry mixing. Final casting into propellant grains requires rigorous thermal management and moisture exclusion practices to maintain uniform energy release and grain homogeneity.

    Industry compliance standards

    • NATO STANAG 4170 for explosives and propellant qualification
    • ASTM E298 for high explosives analysis
    • International Traffic in Arms Regulations (ITAR) for controlled munitions constituents
    • ISO 14644-1 for cleanroom particulate controls in aerospace manufacturing

    Typical usage ratio

    • 0.5–6% by mass in composite propellant matrices; batch engineering determines ratio based on final impulse requirement and stability testing

    Downstream process integration

    • Automatic micro-dosing and weighing in slurry mixing lines
    • Vacuum heterogeneous mixing with other energetic and stabilizing agents
    • Casting into finished propellant grain molds under temperature-controlled conditions
    • Pre-launch inspection for homogeneity and mechanical integrity

    Final product types

    • Solid rocket boosters for orbital launch vehicles
    • Missile propulsion grains
    • Space research sounding rocket motors
    • Igniter charges for spacecraft separation stages

    3. Specialty Initiators and Detonators Manufacturing

    Initiator manufacturing facilities rely on HNDPE for its reliable energetic behavior and controlled sensitivity in the production of primary initiator compositions. The critical requirement for sharply consistent ignition characteristics and minimal by-product generation positions HNDPE as an essential intermediate, particularly where alternative sensitive explosives pose handling challenges. Downstream integration involves wetting or encapsulation methods to minimize static and friction risks, followed by pelletizing or microencapsulation for insertion into detonator assemblies.

    Industry compliance standards

    • US Bureau of Alcohol, Tobacco, Firearms and Explosives (ATF) regulations for explosives material
    • ISO 9001:2015-certified quality management for detonator production
    • European Agreement Concerning the International Carriage of Dangerous Goods by Road (ADR)
    • ILO Code of Practice on Safety in the Use of Explosives in Mines

    Typical usage ratio

    • 8–25% by mass in primary initiator blends, subject to ignition sensitivity and device miniaturization requirements

    Downstream process integration

    • Controlled wet-mix blending or slurry encapsulation for uniform particle coating
    • Micro-compaction or hydraulic pressing in antistatic environments
    • Automatic pellet insertion into mechanical detonator housings
    • Batch-level batch sensitivity and thermal cycling tests for quality assurance

    Final product types

    • Electric and non-electric blasting caps
    • Micro-detonator components for automotive safety devices
    • Seismic and geophysical exploration detonators
    • Mining fuse heads for commercial blasting

    4. Synthetic Chemistry Intermediate for High-Performance Polymers

    Our specialty chemicals division supplies HNDPE to advanced material manufacturers who synthesize high-energy-density polymers and thermosetting molding compounds. Industrial chemists use it as a reactive nitroaromatic building block in step-growth polymerization or core-insertion reactions, often in the development of energetic binders or specialty elastomers for harsh environment applications. Downstream customers blend HNDPE with polyisocyanates or polyols under inert gas and elevated temperature to drive controlled incorporation, optimizing for mechanical and thermal stability in the resulting polymers.

    Industry compliance standards

    • ISO 9001:2015 for quality systems in raw material handling and downstream processes
    • REACH (EC) No 1907/2006 substance registration for direct chemical intermediates
    • NIOSH guidelines for laboratory and pilot plant synthesis
    • OSHA 29 CFR 1910.1200 for workplace chemical handling

    Typical usage ratio

    • 1–10% by monomer mass, tuned by target mechanical strength and energy content in end-use polymer material

    Downstream process integration

    • Liquid-phase addition to pre-polymer reactors under controlled agitation
    • In-line monitoring of reaction exotherm and conversion rate to completion
    • Post-reactor neutralization and solvent purification to isolate finished polymer structure
    • Mechanical testing of cured sheets or formed articles for specification compliance

    Final product types

    • Polymeric binders for explosives or propellants
    • Elastomeric shock absorbers for aerospace and defense
    • Composite structural foams for military equipment
    • Specialty molding resins for high-temperature resistant components

    Free Quote

    Competitive Hexanitro-1,2-Diphenylethylene prices that fit your budget—flexible terms and customized quotes for every order.

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    Email: admin@ascent-chem.com

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    Certification & Compliance
    More Introduction

    Hexanitro-1,2-Diphenylethylene: Reliable Performance from the Manufacturer’s Bench

    What Sets Our Hexanitro-1,2-Diphenylethylene Apart

    In our production facility, Hexanitro-1,2-Diphenylethylene earned its reputation through years of attention, process refinement, and detailed batch monitoring. We manufacture this compound for challenging demands, not day-to-day commodity usage. The product’s molecular structure, with six nitro groups symmetrically arranged around the diphenylethylene backbone, delivers a unique profile that meets expectations for both reactivity and thermal stability. Through each drum and container, our engineers engage with the challenges inherent in nitroaromatic chemistry. From the first kilogram to multi-ton lots, every batch benefits from our hands-on approach and a keen understanding of what downstream users require.

    The journey of producing Hexanitro-1,2-Diphenylethylene never fell into routine. Raw materials demand strict screening. Batch reactors must maintain temperature profiles with little margin for drift—small variations can shift selectivity and purity. Consistently meeting 99+% purity targets calls for patience, not shortcuts. Our team tackles impurities at the molecular level; it only takes a trace of unreacted intermediates to disrupt downstream performance, especially for energetics and high-value specialty synthesis.

    Applications Backed by Decades in the Field

    The real measure of Hexanitro-1,2-Diphenylethylene comes in its end use. In practical terms, we see the product become central for the synthesis of advanced explosives, as a reference compound for laboratory safety research, and in niche areas of industrial energetic material development. Customers turn to us because each project brings its own technical demands. Some require tight particle size distribution for controlled reaction kinetics, others ask for solvent-free crystallization to minimize residual by-products. We respond with precision, because our processes were developed side-by-side with users, not in a vacuum.

    Laboratories and pilot plants need a product free of stabilizing agents or surface treatments, because these extras complicate sensitive validation work. On the other hand, bulk users request batches that run cleanly in scale-up, keeping downstream purification and waste treatment manageable. Across these demands, consistency counts more than marketing speak. Field experience has shown that variabilities in melting point, particle size, or color can point to deeper issues—often unseen by eyes not involved in every step of the manufacturing process.

    Improving Manufacturing Processes and Managing Risk

    We manage every aspect of process safety ourselves. Our team tracks thermal hazard testing, uses in-line sensors for early indication of runaways, and documents ignition sensitivity throughout the plant. Years of handling this compound give us hard-won expertise. In the early years, we learned directly that over-nitration, unchecked reflux, or insufficient quench protocols cost time and material, sometimes leading to complex clean-up or equipment wear. We use that experience, not just lessons from textbooks, to fine-tune every timestamp in our operations logs. Each step, from chilling mother liquor to filtration, builds traceability into the finished product.

    Our site engineers champion transparency, involved in every aspect of scale and safety validation. Before we sign off on a new batch for shipment, it must pass through hands with years—not just hours—of practical exposure. We keep production teams close to our analytical staff. By reducing handoffs, we avoid communication gaps. Product specifications—melting point, density, moisture content, phase purity—reflect results from in-house instruments rigorously serviced and validated. Our focus lands on what matters for reactivity and storage safety, not just pushing numbers for marketing’s sake.

    Addressing Industry-Specific Challenges

    Real-world manufacturing always wrestles with the unpredictability of supply chains. We maintain direct relationships with upstream suppliers of nitro precursors and aromatic intermediates, never relying on third-party brokers or speculative traders. This gives more predictable input quality, which in turn determines how well every batch of Hexanitro-1,2-Diphenylethylene performs—both during production and after shipment. The headaches solved at intake mean fewer issues later when users require material to meet tight timelines or design parameters.

    Companies come to us with questions about stability, sensitivity, and shelf life. With energetic compounds, small changes in storage environment can accelerate decomposition or moisture pickup. Our operators monitor these properties, keep production records for each lot, and support users with clear, experience-based advice on optimal storage and use. We have seen instances where improper handling or unsuitable container material led to rapid decline in quality—these are the small details where hands-on production history, not just theoretical chemistry, leads to better guidance.

    Comparing Our Product to Lower-Purity or Reseller Material

    Users often assume Hexanitro-1,2-Diphenylethylene remains the same, regardless of the source. Our long-term clients know this isn’t the case. After years in the business, we have tested off-spec lots from resellers and seen the impacts of improper drying, contamination with stabilizing oils, or uncontrolled isomer ratios. These surprises lead to batch failures or lab work stoppages downstream. We earn trust through consistent analytical reports, open lab doors for audits, and a commitment to long-term relationships, not churn-and-burn sales.

    Quality doesn’t come just from equipment. We train our operators to recognize changes in color, odor, or physical form; these indicators often point to subtle shifts in process variables, sometimes even before instrumentation does. Small cues—a change in slurry viscosity during filtration, or a different texture in the dried cake—lead us to investigate before accepting it as ready for customers. This pushes our standard above secondary suppliers who repack or blend untracked lots. Every customer can verify batch history right down to reaction conditions and packaging date.

    Specifications Linked to Real-World Use

    Every batch of Hexanitro-1,2-Diphenylethylene undergoes full in-house analysis. Our specifications include melting point, density, moisture, and nitro group content, but our team focuses on what actually affects reactivity, storage, and downstream transformation. Batch-to-batch variation stays within a tight range, refined over years by adjusting process controls, testing analytical techniques under working conditions, and adjusting for learnings from customer feedback. Hard lessons—such as minor by-product formation under humid conditions—led us to shift drying protocols and container materials.

    For researchers pushing boundaries in energetic materials, we offer advice based on our years in process control and hands-on troubleshooting. Customers using the compound as a scaffold for further derivatization get reaction history and impurity profiles, supporting safer and more reliable lab work. We never cut corners by blending old stock or using recycled container materials, practices you sometimes find elsewhere under the surface of bargain pricing.

    Environmental and Regulatory Responsibility

    Our production line embraces strict chemical hygiene. Waste streams from nitration undergo careful neutralization and staged treatment, not batch dumping. Process water and vented gases see full capture and scrubbing. We monitor every input and output, log composition through each process stage, and adapt plant operations to new regulatory and safety guidance as it emerges. We invest in continuous improvement; better process control means fewer off-spec batches, lower solvent usage, and less overall waste shipped for disposal.

    Our staff stays current on the latest regulatory expectations for energetic intermediates and hazardous substances. Audits are welcomed, not avoided. We walk through environmental monitoring with visitors and customers, not leaving compliance to paperwork. Responsibility for risk management falls on the people who do the work, not outsourced compliance consultants.

    Feedback Drives Our Process Evolution

    Workshops with users gave us key insights for improving product quality. A university research team flagged problems with filterability in a particularly dense batch; we investigated root sources—traced it to subtle overheating during the final nitration quench. Correction meant updating SOPs, retraining staff, and investing in a more precise temperature monitoring system. Over time, customer feedback transforms not just one process stage, but the culture of all production staff—every lot becomes a learning opportunity.

    Users with particular purity or physical form requests gain direct access to our technical team. This shortens the feedback loop and grounds continuous improvement in field experience, not theory. For example, requests for granular or microcrystalline forms led us to invest in additional downstream dispersing and drying equipment. Each change comes with documentation and verification, not just a verbal promise.

    Collaborative Support from Start to Finish

    We see every interaction as an extension of our manufacturing floor. Questions about solubility, compatibility, or reactivity run through experienced hands—not only product managers. Our chemists offer advice for scale-up, troubleshooting, and waste minimization, because we know the difference between textbook theory and industrial practice. Collaboration between technical users and the people who make Hexanitro-1,2-Diphenylethylene leads to better solutions for unusual processing issues and regulatory requirements.

    Long-standing relationships with clients mean we see material used across a variety of contexts; our knowledge base grows with each unique project. Laboratories working on sensitivity studies, firms developing new pyrotechnic compositions, and academic groups probing reaction pathways all benefit from a responsive supplier with hands-on process knowledge. When a bottleneck occurs, shared insights shorten downtime and help optimize overall project outcomes.

    Why In-House Manufacturing Knowledge Matters

    Years of direct manufacturing bring advantages that no brokerage or third-party repackager can replicate. Production teams identify and solve the recurring challenges of safe, high-purity Hexanitro-1,2-Diphenylethylene manufacture. Familiar hands run every filtration, monitor every reaction exotherm, and analyze every off-gas stream. We invest in plant upgrades, preventative maintenance, and routine quality reviews, all tied to the experience that grows with years of direct handling.

    A customer told us about a troublesome run that traced back to trace lubricants from a reseller-supplied lot. That story cemented our insistence on controlling every material input and container. Our own supply chain remains transparent—no relabeled drums or sources of dubious origin. Regular site visits from customers further enforce our commitment to openness and improvement.

    Field-Proven Advantages Compared With Alternatives

    Some competitor products display a wider particle size spread, higher levels of aniline-based or non-nitrated by-products, and inconsistent melting points batch-to-batch. These variances translate directly to production interruptions or failed experiments. Our Hexanitro-1,2-Diphenylethylene stays within a tight analytical window for every measurable parameter. Other manufacturers may price lower but rely on offgrade or intermediary lots. We stand by the strength of a real-time monitored supply chain and quick, knowledgeable response to every inquiry.

    Differentiation comes not from marketing language but from field tests and real costs saved for users. Projects that tried mixing supplier material with ours invariably returned to a single-source solution after performance and purity dropped. Lower reject rates, faster clean-up, and more predictable outcomes define our reputation as a producer, not a distributor.

    Investing in the Future of Nitroaromatic Synthesis

    Our team remains involved in research and development, investigating new synthesis pathways and improved in-plant automation. By combing through process data and user feedback, we refine crystal growth, solvent recovery, and aging protocols. Future markets may push for even tighter purity, alternative solvents, or greener processes; we see these as opportunities to work both harder and smarter. Dialogue with academic partners helps us anticipate technical changes and evolving safety standards.

    Direct engagement with technology improvements—rather than outsourcing—prepares us for both short-run pilot batches and long-run industrial shipments. We look for new approaches not just to meet regulatory shifts but to reduce hazard and waste at the source. As demand grows for higher-performance energetic intermediates, our plant and process knowledge extend opportunities for innovation. We engage with end users, not just intermediaries, to shape specifications grounded in successful synthesis and safe handling experience.

    On-site Verification and Analytical Integrity

    Analytical tools only serve as well as the procedures and technicians behind them. We keep method validation internal, double-checking results with outside labs when new issues arise. Spectroscopy, titration, and physical testing each provide cross-validation points; when discrepancies show up, our operators are trained to stop the line and consult, not press onward for schedule's sake.

    In routine discussions with users, we compare findings, review raw data, and make corrections openly, rather than hiding them inside product literature. Our tradition favors real problem-solving partnerships, not just transactional exchanges. For us, every product shipment is more than just a delivery—it is a statement about our identity as chemical manufacturers.

    Our Commitment: Experience-Driven Quality in Every Kilogram

    Hexanitro-1,2-Diphenylethylene remains one of the most technically challenging products we produce, and our daily work reflects the value of deep, direct experience. Clients receive a product that tracks back to the methods, the people, and the equipment that shaped it. Each lot tells a story of thousands of minor decisions, hundreds of corrections, and a culture focused on chemical stewardship and technical consistency.

    We measure success not by the size of shipments, but by the quality of long-term partnerships formed alongside challenging projects and innovative uses. In this industry, the difference between commodity supply and valued manufacturing lies in transparency, process mastery, and a willingness to keep learning, batch after batch. For customers—innovators, researchers, and process engineers alike—that means less downtime, more certainty, and a direct line to the team who knows this compound from the inside out.

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