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HS Code |
493156 |
| Chemical Name | Tetrabromocyclodecane |
| Cas Number | 3194-57-8 |
| Molecular Formula | C10H16Br4 |
| Appearance | White to off-white powder |
| Melting Point | 97-104°C |
| Boiling Point | Decomposes before boiling |
| Solubility In Water | Insoluble |
| Density | 2.12 g/cm³ |
| Flash Point | >200°C |
| Ec Number | 221-695-9 |
| Odor | Odorless |
As an accredited TETRABROMOCYCLODECANE factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging for TETRABROMOCYCLODECANE, 500 grams, is a sealed, labeled HDPE bottle with hazard symbols and safety information. |
| Shipping | Tetrabromocyclododecane should be shipped in tightly sealed containers, protected from moisture and incompatible materials. It must be labeled as hazardous, handled according to local, national, and international transport regulations (such as IMDG, IATA), and kept in a cool, dry place away from heat sources. Suitable personal protective equipment is required during handling. |
| Storage | Tetrabromocyclodecane should be stored in a tightly closed container in a cool, dry, well-ventilated area away from incompatible substances such as strong oxidizers. Keep it away from heat, sparks, and open flames. Store in a designated chemical storage area and ensure containers are properly labeled. Protect from moisture and direct sunlight to maintain product integrity and minimize risk. |
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Purity 98%: TETRABROMOCYCLODECANE with 98% purity is used in polystyrene foam insulation, where high purity ensures consistent flame retardant performance. Melting Point 300°C: TETRABROMOCYCLODECANE with a melting point of 300°C is employed in high-temperature polymer processing, where it provides thermal stability during extrusion. Particle Size <10 µm: TETRABROMOCYCLODECANE with particle size less than 10 µm is used in intumescent cable coatings, where fine dispersion improves coating uniformity and fire protection. Stability Temperature 250°C: TETRABROMOCYCLODECANE with a stability temperature of 250°C is utilized in rigid polyurethane foams, where it enhances resistance to thermal degradation. Molecular Weight 641.7 g/mol: TETRABROMOCYCLODECANE with molecular weight of 641.7 g/mol is applied in electronic component encapsulation, where precise molecular characteristics enable predictable flame retardancy. Viscosity Grade Low: TETRABROMOCYCLODECANE of low viscosity grade is added to liquid resin formulations, where superior flowability allows for easy incorporation and mixing. Bromine Content 82%: TETRABROMOCYCLODECANE with 82% bromine content is included in textiles back-coating, where high bromine level contributes to superior flame resistance. |
Competitive TETRABROMOCYCLODECANE prices that fit your budget—flexible terms and customized quotes for every order.
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Tetrabromocyclododecane, often known as HBCD, stands among the trusted flame retardants with a clear track record in improving fire safety where plastic materials play a central role. Over the years, our chemists have consistently produced HBCD using robust, controlled bromination of cyclododecatriene, creating a finely tuned product that meets the strict technical and regulatory demands expected by plastics manufacturers around the globe. This isn’t an experimental batch or a speculative intermediate—our operation has honed the process to ensure every shipment offers the predictable stability and performance compounders expect.
Committed to batch consistency, we run systematic analytical checks on bromine content, melting range, and particle size throughout each production cycle. Our technical team maintains hands-on oversight, regularly reviewing the output of every reactor vessel for purity and ensuring the crystalline white powder matches the optical and mechanical reference standards. HBCD is rarely the “star” of a formulation—it doesn’t grab headlines—but when a fire breaks out in a building panel or insulation board, anything less than full performance simply isn’t acceptable. That’s why we keep a closer eye on trace impurities than many general commodity chemical producers.
Most of our HBCD leaves the plant as a fine, free-flowing powder, with true content tightly controlled by our own long-established testing protocol. We understand how changes in moisture or trace contaminants can play havoc with extrusion or mixing behavior, so process control remains a point of professional pride. Our lines can produce grades tailored for thermal insulation applications where the melt behavior, dispersibility, and bromine content must match what polymer processors need to develop consistent, reliable products.
Every batch of our Tetrabromocyclododecane is designed for real-world application. Bromine content hovers around 74–75 percent, supporting a high level of fire protection across a range of end uses. The melting range, usually in the vicinity of 180–190°C, ensures favorable processing in polystyrene foam, high-impact polystyrene, and other polymer systems. Because we manufacture from scratch at our own facility and trace everything from the incoming raw cyclododecatriene to outgoing shipment, we can stand behind every technical data point. Where most articles focus just on regulatory approvals, our experience tells us reliability equally matters: the product must always deliver during compounding, storage, and eventual processing into the final application.
Performance in foam insulation boards or electrical housings depends on the integration of HBCD with polymer matrices. Any deviation from particle size or surface characteristics can cause uneven distribution, poor fire performance, or failure in certification tests. Through years of practical application feedback from foam molders and compounders, we’ve dialed in the optimal balance between flow properties and compatibility, supporting both expanded and extruded polystyrene manufacturers. We don’t just record these as data points; our teams have worked alongside processors on troubleshooting extrusion die fouling or sluggish dispersion, so we’ve shaped our manufacturing and screening methodologies to solve real shop-floor issues.
We supply HBCD mainly to manufacturers who produce extruded and expanded polystyrene insulation for construction. In those settings, the demands are high. Building codes rarely bend, and fire regulations grow tighter each year. Our decades of experience have revealed what truly matters: consistency from batch to batch, so insulation boards retain the same level of protection regardless of processing temperature or seasonal humidity swings. Process engineers and safety managers have told us countless times that unexpected product variation creates far more downstream costs than any supply price shift. We take this to heart in our operations by sticking to production discipline.
Electrical and electronic appliance makers rely on HBCD to impart flame retardancy in housings and components. Processing temperatures in injection molding lines demand an additive that resists thermal degradation, avoiding surface blooming or plate-out issues that can affect item finish and mechanical durability. Insulation manufacturers, especially in regions with severe fire standards, often request documented control on particle size distribution and impurity profiles. We share both technical product bulletins and a history of supplier trust, so customers know they’re sourcing material that stands up to lab and field scrutiny alike.
Outside the routine, we’ve seen our HBCD assist in applications such as textile back coatings, where both handling and end-use performance matter. Here, the challenge comes from system compatibility and process cleanliness, not just bromine content alone. Technical teams from our company have worked with customers to troubleshoot unforeseen discoloration or batch-to-batch viscosity changes in back-coated fabric lines. Such collaborations keep us grounded in real processing needs instead of just what looks good on a specification sheet.
We’re fully aware that HBCD has come under closer regulatory review in recent years. Many of our customers have asked about alternatives, sustainability, or end-of-life handling. Having walked through those same conversations and audits ourselves, we support partners by providing transparency into our manufacturing processes, remaining up front about both the benefits and the points where emerging alternatives might fit better for some applications. Our manufacturing background helps us avoid wishful thinking around regulatory compliance; we work from practical timelines and technical facts.
The discussion around flame retardants rarely stops at a single molecule. End users compare HBCD to other brominated products, and more often these days, to alternatives like decabromodiphenyl ethane (DBDPE), polymeric flame retardants, or even phosphorus-based compounds. Each system brings a distinct chemical structure, handling profile, and regulatory context. We’ve run production trials and side-by-side lab comparisons for customers who need a clear-eyed view of how these alternatives stack up. With our HBCD, users know exactly what to expect: fast integration into EPS and XPS foam, strong thermal stability under foam processing conditions, and reliable migration resistance.
From our vantage point as an actual manufacturer, we see a few recurring trade-offs that not every technical data sheet will spell out. HBCD stands out for its high bromine density per unit weight, which translates to efficient fire protection with lower additive loads. Certain polymeric alternatives require higher dosing, raising cost and affecting mechanical properties of the host foam. Polymeric options often come with less dust or migration but can face complications in processing lines set up around legacy HBCD-based recipes. Switchovers call for technical support and, sometimes, a reworking of process temperatures or feeding systems. Because we’ve handled these transitions firsthand, our team can cross-check real processing behavior—not just theoretical advantages—of replacement candidates.
Trying new alternatives often presents hidden costs. We’ve seen compounders run into problems with melt flow, poor compatibility, or volatility under heat. Some alternative flame retardants have a larger molecular footprint, leading to foam structure changes or unpredictable flame test results. Our approach as producers includes supporting our partners with the latest comparative studies and providing real samples for pre-production trials. It’s become clear that regulatory pressures shape material choices, but end users want verified performance in their finished goods above all else.
Longstanding relationships with both large foam producers and compliance officers have shaped our stance on regulatory changes. We’ve watched international frameworks grow stricter on persistent organic pollutants, with HBCD gradually phased down or replaced in certain countries and applications. This remains a controversial area, often debated far from the operational floors where insulation and construction materials are tested for flame spread. Our commitment is straightforward: maintain the highest possible quality in every HBCD shipment, document every step of the process, and work transparently with customers who want to evaluate their future options.
From a manufacturer’s desk, regulatory adaptation means more than a change of paperwork. Retooling entire process lines or substituting new additives imposes cost, revalidation, and operational stress. Companies that have relied on HBCD for fire performance in polystyrene insulation don’t swap to new solutions overnight. We work hand-in-hand with users preparing for shifts, offering a mix of technical expertise and practical advice based on production experience rather than theory. We’ve seen conversion timelines stretch well beyond what regulatory summaries might predict. The best results come when the discussions start early and focus on stepwise trials, not just end-state declarations.
We don’t push HBCD in applications where it no longer meets market or legislative demands. Instead, we support safe, transparent transitions to alternatives, leveraging years of production know-how to help processors minimize downtime and waste. In markets where HBCD remains essential, we maintain full transparency over composition, trace residues, and the quality systems undergirding our manufacturing. We facilitate downstream testing, because we recognize that our credibility depends not merely on passing audits, but on real, problem-free performance within the supply chains of our customers.
Supporting thousands of cubic meters of foam insulation per year, we have learned hard lessons about the importance of traceability. It isn’t just about responding to audits or regulatory inquiries—if a technical or safety concern arises for a processor, the ability to review batch records, input trace samples, and consult with our lab team saves valuable time and lost productivity. Every drum, bag, and shipping pallet from our plant is coded and logged through our enterprise systems, with supporting test data available on request. Retention samples from each lot allow backtracking to root causes if a downstream issue appears. As a manufacturer, solving these kinds of problems is part of our everyday reality.
Certifying HBCD for specific markets involves both regulatory review and independent performance tests. Naturally, each region and application carries its own stamp of approval or challenge. Our materials have met the expectations of construction safety agencies and have passed repeat flame resistance qualifications in end-use applications. Outside of documentation, our in-house engineers work directly with client teams to help interpret standards and adapt production parameters. This on-the-ground technical assistance separates day-to-day manufacturing support from generic product claims.
We pay particular attention to continuous improvement in our operations. Investing in more precise process controls, next-generation analytical tools, and employee training means each batch is better understood than the last. Regular debriefs with safety, regulatory, and plant teams have produced small but critical advances: tighter impurity control, reduced dusting during filling, and better shipping stability during hot and cold weather. These changes stem from practical experience, not abstract quality frameworks.
Our work as a Tetrabromocyclododecane manufacturer seldom stops at fulfilling orders. We serve as an early warning point for shifts in market requirements and field performance. By collaborating with downstream users in construction, insulation, and electronics, we receive direct feedback on how fire test standards, processing challenges, or environmental criteria evolve. That input guides both our process optimization and our research into next-stage flame retardant technologies.
Adoption of new flame retardant systems, in developed regions and emerging markets alike, hinges on pragmatic evaluation: does the material fit the process, keep the end user safe, and align with evolving rules? We test out new recipes alongside HBCD in our labs, conducting pilot foam runs, extrusion lines, and real-world application trials. These side-by-side evaluations provide fact-based comparisons that sidestep both hype and fear. As manufacturers, our reputation rests on not overpromising—and on providing honest guidance when HBCD or a replacement works or falls short for a specific job.
Even as the chemical industry adapts to broader sustainability goals, safety remains central. For us, that means not only keeping up with approved additives, but also ensuring our own people handle these materials safely, with the proper exposure controls, ventilation, and training. We share those insights with our customers, so processor safety protocols remain robust across the full value chain.
Direct experience manufacturing Tetrabromocyclododecane instills values of accountability. Consistency in every delivery stands as the metric our clients judge us by, because failures anywhere down the chain—during compounding, transport, or regulatory review—have real costs. While market headlines often focus on new launches or spectacular product failures, it’s the behind-the-scenes process control and accountability that define long-term supplier reliability.
We’ve witnessed the full arc of HBCD’s industry role, from early widespread use to current scrutiny under REACH, Stockholm, and similar frameworks. Our stance emphasizes open communication: shielding partners from surprises, sharing all test results, and staying attuned to regulatory developments. By producing HBCD in our own facilities and managing every step from synthesis through packaging, we can anchor those commitments in practice, not just marketing.
Decades of manufacturing have shown that technical partnerships go beyond product supply. Real collaboration happens in trial rooms, factory lines, and regulatory reviews, where specifications and performance get stress-tested every day. Whether End-of-Life management for old foam stockpiles, guidance switching to new flame retardants, or in-depth troubleshooting for blow-molding process changes, our teams carry the firsthand knowledge earned through manufacturing, not just documentation.
Our industry faces rapid change, but proven, hands-on manufacturing remains essential. By focusing on dialed-in production parameters, full traceability, transparent communication, and honest technical advice, we help processors, compounders, and end-users stay ahead in safety and reliability. Tetrabromocyclododecane continues to deliver on its core mandate in flame retardancy—supported and improved year after year by real operator know-how, continuous learning, and a willingness to adapt as the technical and market landscape shifts.