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HS Code |
577553 |
| Cas Number | 13654-09-6 |
| Molecular Formula | C12Br10 |
| Molecular Weight | 943.17 g/mol |
| Appearance | White to off-white powder |
| Melting Point | 345 °C |
| Density | 3.36 g/cm³ |
| Solubility In Water | Insoluble |
| Vapor Pressure | <1 x 10^-8 mm Hg (at 25°C) |
| Flash Point | Non-flammable |
| Pubchem Cid | 82184 |
| Synonyms | DBB, Decabromodiphenyl, DecaBB |
| Ec Number | 236-800-2 |
| Stability | Stable under normal conditions |
As an accredited Decabromobiphenyl factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Decabromobiphenyl is packaged in a 25 kg fiber drum with inner polyethylene liner, labeled for chemical use and safety instructions. |
| Shipping | Decabromobiphenyl should be shipped as a hazardous material in compliance with local and international regulations. It must be securely packed in approved, leak-proof containers, clearly labeled with hazard warnings. The shipping documentation should indicate its UN number (UN 3077) and ensure transport by authorized carriers, avoiding exposure to heat and moisture. |
| Storage | Decabromobiphenyl should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizing agents. The storage area should be secure, clearly labeled, and protected from physical damage. Ensure containers are placed away from direct sunlight and sources of ignition. Handling should be performed while wearing appropriate personal protective equipment. |
Applications of Decabromobiphenyl in Industrial ManufacturingAs a manufacturer specializing in halogenated flame retardants, we provide Decabromobiphenyl (DBB) exclusively to established industries where its performance and regulatory history are well documented. Below, we outline distinctive downstream segments where Decabromobiphenyl remains an acknowledged component, focusing on compliant use, precise process integration, and the nature of finished goods. 1. Thermoplastic and Thermoset Polymer Flame RetardancyDecabromobiphenyl finds established use in the production of flame-retarded polymers, particularly in high-impact polystyrene (HIPS), acrylonitrile butadiene styrene (ABS), and epoxy resins. Tailored for applications requiring stringent fire resistance, the additive enters compounding or resin mixing stages, designed to comply with international fire safety codes. Downstream users adjust dosage according to polymer matrix, mechanical loading, and local regulation targets, yielding finished items for electronics, automotive, and construction sectors. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Fabric Backcoating and Technical Textile TreatmentDBB is integrated into specialty backcoating formulations for industrial and institutional upholstery, curtains, conveyor belts, and heavy-duty tarpaulins. Its role is to help meet mandatory fire safety ratings by application onto fiber surfaces via coating machines or padding mangle processes, backed by documented textile industry regulation. Usage rates depend on fabric weight, fiber blend, and fire-retardancy class, with precise formula control at the coating or finishing line yielding critical goods for public infrastructure and transport. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Wire and Cable Sheathing FormulationDecabromobiphenyl forms a key part of halogenated flame-retardant systems for polyvinyl chloride (PVC) and polyethylene (PE) cable sheaths, particularly in low-voltage and building wiring. Compounders employ DBB to help achieve target flame spread indices and reduce smoke emissions under internationally recognized cable fire tests. Producers manage dosage based on cable dimensions, insulation wall thickness, and end-market requirements, introducing the raw material at the mixing or extrusion stage. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Adhesives, Sealants, and Encapsulation Materials for Electrical ComponentsManufacturers of adhesives, sealants, and potting compounds for switchgear, connectors, and transformer encapsulants incorporate DBB to achieve fire safety standards imposed on electrical infrastructure. The raw material enters at the batch blending phase in combination with other additives to preserve adhesive strength while imparting flame resistance. Placement and level depend on the viscosity of the compound, the resin base, and the certification level required for the final assembly. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Rigid Polyurethane (PU) Foam Fire ProtectionFactories producing rigid PU foams for building insulation, refrigeration, and transportation incorporate DBB during polyol blending or prepolymer charging. Used to address statutory building fire codes, the choice of addition point and level rests on cell structure, density, and insulation performance, with real-world applications governed by national building codes and end-use classification. Downstream quality control validates fire performance prior to board cutting or block conversion. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
6. Laminated Composite Panel Fire ProtectionDBB is added in the production of laminate boards where flammability requirements for mass transit interiors and heavy-traffic public infrastructure are non-negotiable. Producers apply it within resin impregnation stages just prior to sheet hot-pressing, linking addition rate to the thickness, resin type, and composite destination. Final laminates undergo standardized fire propagation and smoke index testing before release. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Decabromobiphenyl, which many call DBDP or DBDPO for short, plays a big role in fire safety for a wide range of plastic products. We started producing this flame retardant more than a decade ago, and if there’s one thing we see every year, it’s changing safety standards in electronics, construction, and textiles. Manufacturers count on us to supply a reliable additive for finished goods, not just something that shows up as a line in a product’s formulation.
In the plant, decabromobiphenyl looks like a fine white or light grey powder. It goes out the door only after strict quality and purity controls. Quality matters deeply here, since even a small impurity can ruin a plastic’s appearance or drop performance below the standard set by regulatory testing. We engineer our process using controlled bromination of biphenyl, keeping watch on temperature, reagent feed, and time to avoid overbromination (which can create sticky, unusable product) and underbromination, which leaves too much biphenyl behind. The result: stable batches of DBDP above 97% purity, controllable for particle size below 5 microns when required for certain compounded plastics.
All manufacturers, us included, work under steadily tightening safety rules. Standards for ignition resistance keep changing. Customers often ask why we still make decabromobiphenyl when some regions call for alternative flame retardants. This flame retardant remains valuable because of its strong performance and familiarity in many applications. Most important, it withstands heat without turning plastic brittle, chalky, or hard to mold. Its high bromine content brings flame suppression even at smaller loadings, which lets designers keep the mechanical and color properties they want. We have seen plant trials in electrical housings, connectors, appliance parts, and laminates where competitive alternatives couldn’t meet electrical insulation requirements or UL 94 fire ratings at the same loading and cost.
When customers talk about differences from similar brominated products, they often compare decabromobiphenyl to decabromodiphenyl ether (DecaBDE). Both give major flame resistance at similar bromine levels (near 82% by weight). What we see daily is that decabromobiphenyl offers much lower volatility, so it stays in the polymer far longer, especially as plastics get heated during molding or end-use. Loss of additive brings down fire performance over time; DBDP resists this. Its minimal blooming (surfacing out of the polymer) cuts down on dusting in filled thermoplastics and helps coatings hold color.
We often hear questions about handling and processing. Some older flame retardants release more dust or clump during mixing, but our tight control on drying, milling, and particle grading eliminates those risks. Bagging speed matters too: a flowable powder lets large processors automate dosing without blockages. Our customers usually run DBDP through twin-screw extruders and see no spikes in torque or need for special feeding compared to common resins. Chemical compatibility comes up often with polyolefins, ABS, HIPS, EPDM, and certain polyester blends. We recommend pre-blending techniques based on feedback from our in-house mixing lines. Compared to decabromodiphenyl ether, decabromobiphenyl produces less fume and doesn’t yellow the polymer as much above 180°C—our troubleshooting team assists on site if problems arise during production.
In polymer composites where DBDP anchors the formulation, our flame retardant lets customers reach V-0 classifications in vertical burning tests at filler levels of 10–18%. That’s significant in applications like transit vehicle seating, cables, and electrical trays. Some alternatives demand higher loadings, which usually leads to softness loss or poor surface finish.
One concern gaining scrutiny in recent years is the environmental and occupational safety of brominated flame retardants. As manufacturers, safe production isn’t just compliance—it’s good practice. Our plant engineers dedicate real resources to dust abatement, closed transfer, and vacuum systems, so that decabromobiphenyl doesn’t escape into the shop or nearby environment. Recent upgrades include HEPA-backed isolation booths for packaging and negative pressure storage rooms. Each batch includes a safety data sheet detailing up-to-date toxicological research.
Scientific organizations and regulatory agencies occasionally focus new studies on persistent organic pollutants. We track these findings closely, because a recall or ban affects jobs, not just product lines. We switched away from certain solvents a few years back to reduce byproduct formation and residuals. Regular worker health monitoring remains standard, both for acute exposure and long-term effects. Though the current consensus rates DBDP as less bioaccumulative than some flame retardants, the risk of dust inhalation, skin contact, or accidental ingestion cannot be ignored at high plant volumes. This data isn’t abstract to us; it factors into daily operation decisions.
Many customers approach the market with lists of newer flame retardant options, such as organophosphates, nitrogen-containing systems, and non-halogenated alternatives. Some manufacturers expected these new products to quickly replace DBDP, but technical differences emerge in large-scale use. Halogen-free options sometimes introduce water sensitivity, higher smoke formation, or corrosive byproducts during fires. In cable sheathing and structural foams, we routinely see DBDP maintain dimensional stability and prevent ignition without warping or losing insulating properties.
Production experience shows us that attempted swaps for DBDP—such as using high-load magnesium hydroxide—drive up basic resin costs and pump energy consumption because of their high filler demand. Plus, switching means re-certifying products under multiple safety regimes, halting production lines and retraining operators. Many plants keep DBDP on their bill of materials as a reliable reference product, even when blending with some newer retardants for dual systems or gradient fire performance.
Decabromobiphenyl remains a staple additive in global manufacturing, with steady year-on-year demand despite shifts in regional legislation. Our production facilities run batch campaigns matched to seasonal buying patterns in automotive, infrastructure, and E&E sectors. Reliability here means more than just quantity: customers demand consistency in purity, weight, melting point, and flow characteristics. We never ship lots outside of expected specification windows; it’s far too easy for off-grade material to cause line shutdowns, client rejections, or even field failures after years of use.
Field failures don’t just mean recalls—they can mean lost trust. By controlling bromination parameters, washing efficiency, and drying cycles, we cut the risk of off-odor, uneven color, or bulk density deviation in every drum and super sack. Plant engineers work directly with QC labs to catch even minor polymorph differences, so processors can count on each delivery to blend and perform as expected. Where local regulatory traceability or material certification is required, we maintain full chain of custody back to the original biphenyl source.
For the past decade, attention on persistent organic pollutants (POPs) has influenced every plant’s operations, including ours. Decabromobiphenyl, though lower profile than some legacy persistent chemicals, receives scrutiny from environmental groups, consumer safety agencies, and major corporate buyers. We invest in product stewardship not just to follow local and international law, but because the balance between necessary fire performance and ecological safety shapes public perception of plastics, electronics, and building goods.
Reducing emissions from our factory and downstream at the consumer level drives every upgrade we make. High-efficiency scrubbing, effluent recycling, and waste minimization cut both cost and risk. In addition, our R&D team pursues modified production routes to minimize trace dibenzofuran and polychlorinated biphenyl contaminants—these byproducts can arise if bromination runs too hot or for too long. We work closely with downstream partners to recommend safe disposal and recycling of plastic products containing decabromobiphenyl. Incineration under regulated, high-temperature conditions remains the preferred end-of-life route for avoiding environmental release.
No flame retardant can be said to have zero risk. Newer testing methodologies continue to improve understanding of how DBDP performs under real-world use and breakdown scenarios. We directly support independent audits from top manufacturers and consult directly with regulatory entities and NGOs to provide transparent sampling and process data. Our position gives us a special insight—practical barriers loom large when phasing out any established flame retardant.
Any regulatory development or media spotlight quickly churns up questions from supply chain partners. We take communication seriously, providing real contact points for safety engineers, R&D formulators, and purchasing managers to discuss formulation changes, emerging compliance updates, or risk scenarios. There’s no substitute for expertise grown from daily production experience; online summaries or marketing sheets can never cover every possible handling or recycling situation.
We believe transparent, traceable, and accurate product labeling builds real confidence throughout the plastics and manufacturing industries. All outgoing containers carry grade, batch, and quality test data, which is accessible electronically as well. Major accounts rely on us to support verification through annual audits, sample checks, and quality deep dives at their site or ours. By keeping open lines directly with manufacturers—not intermediaries—we address design, safety, and regulatory challenges together.
We urge customers to stay current on regulations affecting decabromobiphenyl, both in their region and globally. We dedicate staff to collecting and passing along updates from the US EPA, European REACH authorities, and Asian regional safety standards. As the conversation around flame retardant safety keeps moving, there’s a big need for practical advice, not just regulatory summaries.
As producers, we know material selection drives not just product success, but operational reliability, compliance ease, and cost-of-ownership for every customer. The right flame retardant can mark the difference between market approval and years of rework. Decabromobiphenyl continues to play that stabilizing role, especially in legacy infrastructure and time-tested electrical goods. At the same time, our research teams keep searching for alternatives with lower environmental persistence and reduced toxicity, using both new synthesis methods and advanced testing protocols.
Many professional users now explore hybrid flame retardancy—using decabromobiphenyl alongside nitrogen synergists, nanoclays, or other advanced additives. We share field data to accelerate safe adoption, organizing shared plant trials and collecting long-term performance evidence across manufacturing regions. This type of knowledge exchange won’t show up in a generic product brochure, but it’s vital to actual, on-the-ground progress.
Big questions always remain about balancing material utility against regulatory and public health demands. Even though alternatives see growing investment, we find that widespread change always arrives through tested, collaborative effort. Our responsibility goes beyond simply making and shipping decabromobiphenyl. We commit to safer handling, continual improvement in purity, and open dialogue between experts at every level of the chain.
Real-world results set our approach apart. We don’t just match competitive grades on paper; we open up our facility to customer inspection teams, provide real performance data, and allow test runs with material fresh off the line. End-users everywhere—from auto interiors to power grid equipment—count on our flame retardant to meet the increasing bar for fire safety, durability, and process ease. Schedule trust matters: we scale output to customer forecasts, absorb unexpected demand swings, and back every shipment with technical support, not just supply guarantees.
Decabromobiphenyl remains integral to many vital supply chains across the world, even as innovation and environmental change reshape the chemical industry every season. Our investment in process control, health safety, and honest communication offers a dependable base for every customer navigating new standards, market shifts, or industry surprises.
In the end, as manufacturers, we stand behind every sack and drum, knowing what’s really at stake: the safety of finished products, the health of our workforce, and the trust of a supply chain that demands consistency and technical honesty above all else.