Decabromodiphenyl Ethane

    • Product Name: Decabromodiphenyl Ethane
    • Chemical Name (IUPAC): 1,1′-(2-Ethyl-1,2-ethanediyl)bis(pentabromobenzene)
    • CAS No.: 84852-53-9
    • Chemical Formula: C14Br10H4
    • Form/Physical State: White powder
    • Factroy Site: No. 85, Sanmu Road, Dushan Village, Guanlin Town, Yixing City, Jiangsu Province, China
    • Price Inquiry: sales3@ascent-chem.com
    • Manufacturer: Jiangsu Sanmu Group Co, Ltd.
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    Specifications

    HS Code

    826545

    Cas Number 84852-53-9
    Molecular Formula C14H4Br10
    Molecular Weight 971.23 g/mol
    Appearance White powder
    Melting Point 345-350 °C
    Solubility In Water Insoluble
    Boiling Point Decomposes before boiling
    Density 3.20 g/cm³
    Purity Typically > 98%
    Vapor Pressure <1×10⁻⁵ Pa (25°C)
    Common Uses Flame retardant in plastics and textiles
    Odor Odorless
    Stability Stable under normal conditions
    Hazard Identification May cause skin and eye irritation

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

    Packing & Storage
    Packing Decabromodiphenyl Ethane, 25 kg net weight, is packaged in a sealed, double-layered polyethylene-lined fiber drum with proper labeling.
    Container Loading (20′ FCL) 20′ FCL container loading for Decabromodiphenyl Ethane: 16-18 metric tons packed in 25kg bags, on pallets or loose.
    Shipping Decabromodiphenyl Ethane is typically shipped in sealed, airtight containers or drums to prevent contamination and moisture absorption. It should be clearly labeled and transported as non-hazardous goods. Storage and transportation must be in cool, dry conditions, away from direct sunlight and incompatible substances, following all relevant regulations and safety guidelines.
    Storage Decabromodiphenyl Ethane should be stored in a cool, dry, well-ventilated area away from direct sunlight, heat sources, and incompatible substances such as strong oxidizers. Keep the container tightly closed and clearly labeled. Use only with appropriate chemical-resistant containers, and avoid contact with moisture. Follow all relevant safety guidelines and local regulations for chemical storage to prevent environmental contamination and health hazards.
    Shelf Life Decabromodiphenyl ethane typically has a shelf life of at least 2 years when stored in cool, dry, and sealed conditions.
    Application of Decabromodiphenyl Ethane

    Purity 98%: Decabromodiphenyl Ethane with 98% purity is used in high-performance thermoplastics for electronics housings, where it ensures superior flame retardancy to meet UL 94 V-0 certification.

    Particle size <5 μm: Decabromodiphenyl Ethane with particle size below 5 μm is used in polypropylene cable sheathing, where it provides smooth dispersion and enhances dielectric insulation.

    Thermal stability above 350°C: Decabromodiphenyl Ethane with thermal stability above 350°C is used in wire and cable compounds, where it maintains flame retardant performance during high-temperature extrusion processes.

    Melting point 345°C: Decabromodiphenyl Ethane with a melting point of 345°C is used in engineering resins for automotive components, where it ensures product safety under thermal stress conditions.

    Molecular weight 971 g/mol: Decabromodiphenyl Ethane with molecular weight 971 g/mol is used in polyurethane foams, where it ensures low migration and persistent flame retardancy during long-term service.

    Low volatility: Decabromodiphenyl Ethane with low volatility is used in insulation panels, where it minimizes emissions and maintains indoor air quality standards.

    Hydrophobicity: Decabromodiphenyl Ethane with high hydrophobicity is used in construction sealants, where it increases water resistance and prolongs material durability.

    High dispersibility: Decabromodiphenyl Ethane with optimized dispersibility is used in PVC floor coverings, where it provides uniform flame retardant performance and consistent appearance.

    UV resistance: Decabromodiphenyl Ethane with enhanced UV resistance is used in outdoor plastic furniture, where it prevents flame retardant degradation and maintains safety over prolonged sun exposure.

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    Certification & Compliance
    More Introduction

    Decabromodiphenyl Ethane: Experience-driven Insights From the Manufacturing Floor

    Reliability in Flame Retardancy: A Manufacturer’s Perspective

    Each year, the demands on flame retardants sharpen. Material engineers, plastics processors, formulators—they expect consistency, safety, and compliance with tightening regulations on hazardous chemicals. Since the late 1990s, Decabromodiphenyl Ethane (DBDPE) has stepped up as a leading replacement for Decabromodiphenyl Ether (decaBDE). With our years guiding blends from raw materials through synthesis, we understand why DBDPE answers so many industry headaches.

    Our Model and Its Practical Range

    Our production lines focus on DBDPE with high purity, tailored for both technical and commercial plastics. The chemical formula, C14H4Br10, with a molecular weight near 971g/mol, delivers a white, free-flowing powder. Most batches keep impurities well below global regulatory thresholds. The fine particle size—often controlled under 3 microns—means easier dispersion in resins, ABS, polystyrenes, polypropylene, and polyolefin blends. Every shift on our floor watches for moisture and contamination, so consistency holds batch to batch.

    Usage: How Customers Work With DBDPE

    Mainstream demand comes from wire and cable, electronics housings, building panels, and automotive plastics. We see the bulk go into flame-retardant masterbatches or additive concentrates, where thermal stability means DBDPE can pass through extrusion, injection molding, and compounding temperatures without breakdown. Plastics producers value how the molecule resists color change, keeps volatility low, and doesn’t break down into toxic byproducts under the standard process window.

    Addressing the Sustainability Challenge

    We hear often about risks with legacy flame retardants—bioaccumulation, restricted use in electronics, growing pressure for alternatives. Transitioning from decaBDE to DBDPE has changed our quality controls, but it’s moved the needle on environmental assessment. DBDPE’s structure makes it less bioavailable and less prone to leaching. Our technicians work nonstop on dust suppression and containment, overseeing stricter inventory and housekeeping than a decade ago.

    Customer questions about risk come up often, so our response draws from experience. DBDPE’s lower environmental profile isn’t perfect, but it has dramatically reduced issues that haunted BDE-based lines—contaminants in effluent water, airborne dust hazards, compliance headaches. Suitability under RoHS, REACH, and other major programs usually draws keen legal review, and that keeps our formulation and QA records detailed and up-to-the-minute.

    Real-World Processing Insight

    Working behind the reactors day after day teaches us what goes right and what needs attention. For DBDPE, avoiding agglomeration takes constant vigilance. Moisture control and high-efficiency cyclone systems have slashed reject rates. Material handlers at the bagging stage now expect stable powder that keeps flow units running, not clumping or segregating, which means processors can meter precise amounts into formulations. Shipping overseas introduces challenges—container integrity, humidity spikes, temperature controls—so we’ve invested in better packaging film and stronger container seals.

    Product Differentiation: What Sets DBDPE Apart From Its Peers

    Many customers approach us comparing DBDPE to decaBDE, considering performance parity and regulatory language. DBDPE offers a robust thermal stability up to 330°C, which lets it slot into the hottest engineering plastics without breaking apart and fogging tooling. Its UV resistance beats brominated polystyrenes, so outdoor-grade panels and fixtures last longer between maintenance. No brominated ethane or styrene is completely trouble-free in production, but as a dust, DBDPE handles with less static and less visible dusting. That slashes operator exposure, supports audits, and speeds up cleanup.

    Not all flame retardants tackle this range of polymers. Some phosphorous-based types can’t fill the same role above 220°C, and antimony oxides often create extra health reviews and paperwork. Our DBDPE, derived from a direct bromination process using decades-refined SOPs, manages a gentle balance between strong retardancy and low material migration. Long-term leaching and discoloration, even in high-fill polyolefin systems, approach zero when compounded with a compatible synergist or stabilizer.

    Product Consistency and End-User Satisfaction

    Yearly audits remind us how critical traceability is. Compliance officers walk our warehouse, tracing every batch to its blend date, packing station, and shipping container. DBDPE buyers expect certification but also hands-on support if something seems off. Our service team cross-trains so plant workers can answer both QA and technical queries about recovery from off-target lots or response to new processing conditions. There’s no standing on ceremony—our record on complaint resolution strengthens trust, retention, and repeat orders.

    Regulatory Alignment: Lessons From the Front Lines

    Every adjustment to global legislation means all hands on deck in the office and out by the reactors. DBDPE now avoids classification under RoHS prohibited flame retardants. EU and APAC regulatory authorities track and question new studies, so every year we update safety data, review supply routes, invest in non-halogenated backup lines, and reinforce our approach to managing microquantities during synthesis and packaging.

    Producers pushing boundaries—looking for higher clarity, lighter tint plastics, or better recyclability—have worked with our technical teams on blend variants to limit visible impact when used at lower loadings. Iterating over years, the push for lower additive “print-through” in thin-gauge and translucent parts led us to tighter distribution controls and fresh QA checkpoints. Our technical center now tests each batch for fines and sieve retention beyond standard specs. Data moves from the QC floor back into manufacturing, speeding up root cause isolation whenever an issue pops up in the field.

    Handling Safety and Worker Health: Direct Experience

    There’s no shortcut for protecting the people running bagging, feeding hoppers, or clearing spills. Our experience shows strict PPE rules, positive ventilation, and automated handling equipment cut accidental exposure. Since we shifted to more ergonomic sack weights and introduced self-closing delivery valves, near-miss incidents dropped significantly. Regular medical monitoring plus honest job-hazard dialogue mean employees take safety as seriously as any compliance officer.

    Dust containment took real investment. After-line filters, regular duct cleaning, and upgraded vacuums underpin our system for collecting any airborne particles. Production areas use sealed floors and avoid forced-draft fans that could recirculate dust. We run regular plant-wide reviews of airflow maps, and invest in both spot sampling and continuous sensors so the environment stays within established exposure limits.

    Synergy in Formulation: Making DBDPE Work Harder

    In plastics compounding, synergy matters as much as the base ingredient. Mixing DBDPE with antimony trioxide, typically at a three-to-one ratio, amplifies flame retardancy while spreading out the cost. We monitor the market for metal oxide price spikes, so our custom masterbatches help customers hedge their input costs. For cable, construction foams, and appliance parts, the added value shows up as faster passage of UL 94 and IEC tests, smoother extrusion, and longer color life.

    Working with global customers, it becomes clear some lines require fine-tuning for optimal DBDPE dispersion. Tech teams share not just a data sheet but mixing protocols—adjusting screw speed, melt temperature, and feed timing to secure uniform cell structure in foamed parts, and preventing surface blooming in critical films. Customer feedback cycles directly into product development, so factory adjustments often show up first in the next production run, not months later.

    Challenges and Forward Moves: Facing Market Shifts

    Supplying DBDPE isn’t static. Scrap rates, global disruptions, and raw material pricing all impact continuity and cost. Over the last five years, bromine sourcing faced volatility, with weather and transport backlogs pushing feedstock pricing. De-risking meant vetting new suppliers, qualifying new tank farms, and routinely testing every inbound delivery. Sudden changes in regulation—like new ECHA guidance—forced late-night rewrites of SDS, swift retraining on labeling, and close dialogue with customers worried about shipment rejections at the border.

    We have watched the trends in halogen-free retardants, especially as eco-labeling pulls some customers away from brominated types. That motivates constant review of what DBDPE contributes—high efficacy at low loadings, performance under harsh temperatures, and regulatory resilience compared to legacy flame retardants. Our research team spends significant time exploring alternatives, collaborating with additive makers and polymer labs on hybrid systems that promise strong flame ratings with lower environmental impact. Improvements in production have shaved waste generation and improved reuse, but industry-wide, everyone faces the balance between safety, reliability, and cost.

    Building Partnerships Through Transparency

    We work openly with downstream users. Quarterly visits, live processing trials, and in-house seminars set the foundation for mutual problem-solving. Whether troubleshooting a production run or mapping out a product roadmap, insight passes two ways. The trust built from transparency—open formulas, honest yield figures, rapid response to supply chain snags—sets the bar higher across the sector. Technical support doesn’t end at the loading dock. We field calls from global teams, sometimes stepping into production lines to help untangle sudden downtime or product drift.

    Customers count on clear, accurate documentation. Every shipment travels with a full regulatory compliance file, batch test results, and traceable production dates. Root cause analysis runs not just for internal defects but for any off-notes, unplanned color shift, or surface issues reported by users. These feedback loops close quickly: issues surface, teams huddle, adjustments emerge, and new quality protocols roll out with minimal lag. Our lab logs run deep, built up over years of playing detective whenever a field report surfaces.

    Continuous Improvement: What Drives The Line Forward

    Our business has grown stepwise—new reactors mean broader production windows, modern filtration cuts dust even further, and digital monitoring keeps tabs on every kettle, blending vault, and storage pallet. Investment doesn’t stop with hardware. Cross-training and upskilling keep our operators ready for updated SOPs and changing global requirements. On the R&D side, pilot lines run round the clock, testing both upgrades to existing formulas and alternatives that could take the edge off raw bromine demand or environmental pushback. Over time, many plant-level tweaks—better sealing, line cleaning, more accurate weighing—come straight from experienced operators who have watched failures and found fixes firsthand.

    On the supply side, our procurement partners train shoulder to shoulder with plant workers, visiting mines, checking inbound quality, and flagging even subtle shifts in purity or particle grind. Escalation paths move quickly—from a flagged bag to a shift lead, to the QA head. This approach hardwires accountability. Managers analyze not just overall yield or gross margin but root cause for every deviation, asking what will help avoid a second occurrence.

    Supporting Global Trends and Regulation

    Growth in the construction, transportation, and electronics markets stretches our ability to innovate. Regulation pushes everyone higher: new thresholds for hazardous substances, calls for transparency, and pressure on lifecycle data. As a manufacturer, experience has taught us to lean into these requirements, redesigning some recipes, fine-tuning mix protocols, and providing clear documentation for every load. Internally, digital records allow quick recall, instant verification, and live updates for any customer or regulatory auditor.

    As the flame retardant landscape keeps evolving, the single biggest lesson remains: flexibility and honesty underpin long-term stability. When a client hits a snag, we offer support not just on the tech side but with direct dialogue—finding supply workarounds, backup stock, or just a factual update as rules shift in real time. Mutual learning happens every day, in the plant, on calls, and through hands-on collaboration across entire supply chains.

    Future Outlook: Innovation From Experience

    Each year brings a sharper focus on environmental profile, health and safety standards, and customer-driven changes in product design. Decabromodiphenyl Ethane’s role changes along with these pressures. New product testing aims for lower additive content without sacrificing flame resistance. Our staff invests time in industry groups, sharing what works and finding ways to adapt production techniques for lower energy use, less waste, and better accountability. The path forward for DBDPE and related flame retardants comes through direct field experience, rapid process improvement, and open exchange with customers and regulators alike.

    Manufacturing DBDPE keeps us at the center of safety, performance, and progress, balancing time-tested expertise with a readiness to rethink and adapt. This spirit, rooted in hands-on knowledge, defines our approach to challenges both present and ahead.