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HS Code |
435250 |
| ProductName | Dibenzoyl Peroxide |
| CASNumber | 94-36-0 |
| ContentRange | 77% < Content ≤ 94% |
| WaterContent | ≥ 6% |
| MolecularFormula | C14H10O4 |
| MolecularWeight | 242.23 g/mol |
| Appearance | White, granular or powder |
| Odor | Faint benzaldehyde-like |
| SolubilityInWater | Insoluble |
| MeltingPoint | 103-106°C (decomposes) |
| Density | 1.33 g/cm3 (at 20°C) |
| Stability | Unstable, decomposes exothermically |
| MainUse | Polymerization initiator, crosslinking agent |
| UNNumber | UN 3108 |
As an accredited Dibenzoyl Peroxide [77% < Content ≤ 94%, Water Content ≥ 6%] factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 25 kg packed in white HDPE drums with sealed lids, labeled with hazard symbols, product name, concentration, and handling instructions. |
| Shipping | Dibenzoyl Peroxide [77% < Content ≤ 94%, Water Content ≥ 6%] must be shipped as a hazardous material. It is typically packed in tightly sealed, non-reactive containers with water as a stabilizer. Packages require clear hazard labeling, and transportation follows strict regulations for organic peroxides, protecting from heat, shock, and incompatibles. |
| Storage | Dibenzoyl Peroxide [77% < Content ≤ 94%, Water Content ≥ 6%] should be stored in a cool, dry, well-ventilated area away from direct sunlight, heat sources, and incompatible materials (such as reducing agents and acids). Keep the container tightly closed and protected from physical damage. Storage temperature should be kept below 30°C to prevent decomposition and minimize fire or explosion risk. |
Applications of Dibenzoyl Peroxide [77% < Content ≤ 94%, Water Content ≥ 6%] in Industrial ManufacturingAs an established manufacturer with decades of technical experience, we supply high-purity dibenzoyl peroxide in precise grades tailored to industrial needs. Our product supports advanced production across specialty polymers, composite structures, coatings, and chemical synthesis. Below, we detail the primary industrial downstream applications and specify direct compliance, process, and product pathways. 1. Unsaturated Polyester Resin Curing for FRP CompositesDibenzoyl peroxide acts as the preferred initiator in unsaturated polyester resin systems for the fabrication of glass fiber reinforced plastics (FRP). Resin processors integrate the initiator during compounding, where it decomposes to generate free radicals, driving controlled crosslinking at room or moderate temperatures. The water content reduces dust hazards and ensures consistent dispersion during mixing, supporting low-exotherm curing processes for boat hulls, pipes, construction panels, and automotive parts. Industry compliance standards
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2. PVC Polymerization Initiator for Suspension PVC ProductionThis grade serves as a primary free-radical initiator in suspension polymerization of vinyl chloride monomer (VCM), where it reliably launches the formation of consistent polyvinyl chloride granules. Controlled wetness stabilizes peroxide dispersion in aqueous media and minimizes dust-related safety concerns. Plant operators monitor temperature and agitation closely to maximize molecular weight control and batch yields for technical and construction-grade PVC. Industry compliance standards
Typical usage ratio
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3. Crosslinking Agent for Polyethylene in Wire & Cable InsulationCrosslinking polyethylene with dibenzoyl peroxide enables insulation manufacturers to achieve the required thermal and mechanical properties for electrical cable sheathing. Addition occurs during low-density polyethylene (LDPE) compounding using specialized extruders equipped for temperature control. This technology drives durable crosslinked polyethylene (XLPE) jackets in medium- and high-voltage cable applications, ensuring electrical stability and insulation integrity under long-term loading. Industry compliance standards
Typical usage ratio
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4. Radical Initiator for Acrylic Sheet and Cast Polymer ManufacturingDibenzoyl peroxide is widely used in cast acrylic sheet production, where precise control of initiation phase directly impacts sheet clarity, impact resistance, and UV stability. Operators dissolve the initiator in methyl methacrylate monomer and carefully monitor polymerization in batch or continuous molds. The balance of active peroxide to water facilitates safer handling and accurate metering in high-purity, optical-grade casting lines. Industry compliance standards
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5. Free Radical Source for Polymer/Bulk Organic SynthesisChemical process plants employ dibenzoyl peroxide as a free radical source in selective bulk organic syntheses, including controlled oxidation and chlorination reactions. Technicians introduce the initiator in strictly metered amounts to reactor vessels, where thermal decomposition provides high-radical flux while limiting byproduct formation. Applications span pharmaceutical intermediates and custom specialty monomer syntheses under validated QC protocols. Industry compliance standards
Typical usage ratio
Downstream process integration
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Competitive Dibenzoyl Peroxide [77% < Content ≤ 94%, Water Content ≥ 6%] prices that fit your budget—flexible terms and customized quotes for every order.
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Producing Dibenzoyl Peroxide with a content between 77% and 94% and a water content over 6% reflects years of refining both technique and quality control. From early prototypes to current models, it has always been clear that real value for end users comes from materials they can depend on. In our experience, few ingredients have earned such a long-standing place as Dibenzoyl Peroxide, both for its effectiveness and its reliability across a range of industries, especially plastics, rubber, and polymers.
On the factory floor, there is no shortcut when handling this material. Teams know how sensitive the raw ingredients can be to heat and friction, so every batch requires careful attention. While high-purity forms have their place in specialty applications, our focus often comes back to formats that strike a balance—safe enough for routine handling, concentrated enough to deliver predictable results, and manufactured with the end-user’s workflow in mind.
No two operations look exactly alike, but certain challenges come up again and again. Consistency, flow, and storability often reach the top of operators’ lists. Our product’s content range — 77% minimum, 94% maximum, paired with a water content of at least 6% — meets practical processing and storage needs for many industrial users. Higher water content lowers the risk of unwanted decomposition and increases safety, particularly during shipping and storage. In the workplace, technicians regularly comment on the stability and predictability this brings, especially once the product passes into mixing hoppers, reactors, or extrusion systems.
Competition can sometimes claim “more active ingredient is always better.” Experience suggests the equation involves more than just raw percentage. With higher concentrations, self-heating becomes a real concern, especially under friction or mechanical shock. Careful blending and controlled addition rates matter. Our factory lines remain tuned to customer preferences—where operators need a solid, wettable product that disperses smoothly and responds predictably in production, they rely on this model.
Crafting a consistently safe yet powerful Dibenzoyl Peroxide requires strict quality measures. Technicians keep each production zone within narrowly defined limits, ensuring the active material holds steady during ongoing packaging and dispatch. Years of field feedback pushed us toward this content range. Early on, overly dry forms showed a pattern of dustiness and elevated risk during handling, since fine powders can ignite more easily and leave residue behind in process vessels and storage bins.
Maintaining water content above 6% is an industry standard not by chance but by necessity. In practice, this boost in water acts as a physical buffer—minimizing the chance of thermal runaway if, against best efforts, the material is exposed to pressure, heat, or sparks. Our production approach includes consistent agitation and careful temperature controls throughout synthesis and blending. This minimizes not only batch variability, but also downstream issues during storage and use on the customer’s end.
Trying to manufacture on either side of these specification boundaries can prove costly. Too little water and the batch can self-react or become difficult to meter; too much water and you risk diluting active performance, especially in tasks that demand precise reactivity, such as cross-linking unsaturated polyester resin. Workers with long hands-on experience often mention that our targeted specs help streamline their mixing and dosing processes, making for fewer surprises during scale-up runs or seasonal humidity shifts.
Dibenzoyl Peroxide’s widest reach traces back to molded resin and rubber goods. In our manufacturing days, both large and small customers depend on it to initiate polymerization—turning liquid resins into tough, finished parts. In the composites sector, demand remains high, especially where marine, automotive, or structural components need resilient finishes. Experienced staff in boatyards and OEM facilities know the difference between a batch that cures on time and one that fails due to poorly stabilized peroxide blends.
In our production process, most shipments leave the plant packed for use in unsaturated polyester resins. These include glass fiber reinforced laminates, marble-patterned coextrusions, and automotive body repair compounds (body fillers). We regularly hear back from users on how the water-laden grade of Dibenzoyl Peroxide helps improve worksite safety and controls pot life — the workable period before the mixture gels or sets.
Injection molding and sheet molding compounding lines also rely on predictable cure cycles. In these fast-paced environments, our intermediate grade offers a sweet spot. Experience shows that higher content grades can lead to “hot spots” or inconsistent cures, especially in larger mass-casting operations. Products in our specified range give operators confidence that cycle times and cure throughput remain stable, which reduces waste and rework, especially on complex or large-volume orders.
Decades of work in this business shape our approach to every batch. Production teams recall years past testing powder, paste, and moistened “wet cake” variants, with innumerable tweaks based on finished product feedback. Handling full-scale oxidizer production teaches a clear respect for in-plant risks, yet an equally keen sense for what end-users need.
We weigh up each process: raw benzoyl chloride enters jacketed reactors cooled under precise conditions. Rigid adherence to water addition keeps temperature excursions in check. Each batch undergoes real-time monitoring with automated sensors—hundreds of runs teach that scalable, safe output relies on never cutting corners, even if that means slower cycle times or temporarily limiting capacity during plant upgrades or seasonal temperature swings.
Our lab staff frequently cross-check results with outgoing batch samples, evaluating active content, moisture stability, flow properties, and contaminate controls. Shipping partners rely on robust, UN-approved packaging tailored to dampen vibration and avoid exposure. Industrial customers, from resin extruders to adhesives makers, note that each drum, pail, and liner arrives as expected, ready to integrate without further adjustment.
Manufacturers and end-users continually ask about differences between content grades. Lighter (lower percentage) grades, often used in hobby or laboratory settings, bring lower reactivity and typically slower cure times. These products might come as diluted pastes or putties. At the higher end, specialty grades exceeding 94% enter niche applications—such as high-intensity initiators for targeted processes or ultra-fast hardeners in restricted-access settings.
Our sweet spot remains the intermediate range. Years of plant use and feedback confirm that it consistently delivers what most industrial customers want: swift, predictable polymerization that doesn't trade safety for performance. Higher content brings more restrictions, both in transport (additional labeling and hazard precautions) and in-plant handling (more rigorous environmental controls). Our grade arrives ready for integration on existing lines without unexpected system changes. Injection molding, SMC, BMC, and composite layups all rely on these midrange concentrations to keep productivity and product quality stable.
Direct feedback from production leads in diverse industries guides continual refinement of the product. Teams processing bulk resin for spray layup or mold casting praise the blend for its dampened dust, reduced fume-off when loaded into mixers, and fewer disposal concerns over fine residuals or accidental spills. More concentrated or dryer grades often bring headaches—rapid clumping, greater spill hazard, and the need for specialized ventilation and PPE at every handling step.
Every manufacturer storing volumes of Dibenzoyl Peroxide learns early on that safety hinges not only on training, but on the physical properties of the product itself. Designed with water content surpassing 6%, our grade prioritizes risk reduction. In daily workflow, this translates into less aggressive temperature control during storage, more manageable cleanup in the event of package rupture, and extended shelf life without the risk of accelerated decomposition.
Our on-site protocols reflect the demands of industrial-scale oxidizer use. Workers maintain strict separation of storage zones from points of friction, impact, and direct sunlight. Automated systems flag temperature spikes well before risk thresholds, and regular training ensures nobody overlooks stray packaging or unattended open drums. Drawing from decades in the business, we maintain an open-door policy for customer questions on safe storage, even after purchase, and routinely partner with clients to refresh their site protocols after equipment upgrades or staff changes.
Handling must always be deliberate. Even experienced technicians stress the value of water-dampened grades for safer bundling, movement, and feeding into processing machines. Downstream users comment that this choice reduces worksite dust—a real advantage for both equipment lifespan and workplace hygiene. Disposal routines are less prone to incident with semi-moist product, and compliance documentation details benefit from transparent, standardized content ranges.
Our responsibility does not end with shipping a drum from the plant. Each batch carries the cumulative result of years of lab and field testing — both at the molecule level and through real-world end-use. Failures, even rare ones, drive critical reflection among both the factory team and customer product development engineers. Tracing impurities, performance drift, or packaging anomalies can disrupt business, so robust protocols remain a constant focus.
As a company rooted in chemical production, our identity links directly to active engagement with real-world users. We do not separate ourselves behind generic assurances or out-of-touch policies. Plant management remains accessible for questions or on-site troubleshooting. Whether optimizing for paint curing, adhesives, sealants, or bulk chemicals, we adjust production upstream to match recurring customer requirements. Our QC teams evaluate every output through moisture determination, titration for active ingredient, and spot checks for contaminants, reflecting a real confidence in ongoing process improvements.
Industrial operators know well the cost of downtime, performance breakdowns, and field recalls. Choosing proven, reliably backed material lessens the risk of downstream processing issues and unpredictable batch-to-batch variation that can derail tight schedules or precision-driven programs.
Regulatory complexity always looms in chemical manufacturing. Each logistic step, from offsite shipment to customer warehousing, meets tough rules set by both domestic and international bodies. We approach compliance as a shared responsibility, not just a paperwork hurdle. Every shipper completes extensive documentation; shipment containers bear clearly indicated hazard class and handling details; and every batch links to traceable lot records.
Environmental standards, evolving in both scope and enforcement, drive continual factory investment. Closed-loop water systems, air scrubbers, and automated containment back major upgrades, reducing risk to workers and surrounding communities. Customers comment on the peace of mind that comes with buying from a factory that makes these investments visible. End-use regulations in automotive, marine, and consumer products sectors track closely with our own traceability and assurance protocols.
Chemicals like Dibenzoyl Peroxide challenge even the most experienced teams. From raw ingredient sourcing through production and eventual delivery, nothing can substitute for hands-on knowledge and proactive planning. Unexpected power outages, shipping embargoes, or even weather events can halt production or delay shipments. We maintain backup capacity, multi-regional warehouse nodes, and solid partner relationships throughout the supply chain.
Waste and recycling sit high on the agenda in modern manufacturing. Reclaiming off-spec product, reducing leftover residues, and improving housekeeping minimize long-term environmental impact. The plant continually pilots new recycling strategies, from solvent recovery to mechanical rejuvenation of spent packaging.
Product stewardship extends to providing customers with practical, honest feedback about suitability for their specific processes, rather than pressing higher-value or higher-margin grades where the technical benefits simply do not translate. The focus remains on finding the best fit and reserving specialty production only for those cases where it delivers real, tangible benefits.
Ongoing dialogue with manufacturers, batch processors, and field technicians shapes how the Dibenzoyl Peroxide offering evolves over time. We regularly gather reports on processing windows, handling incidents, and performance snapshots across settings as distinct as automotive refinish workshops, plywood laminators, and OEM mold houses. Feedback loops between production, QA, and R&D keep failures from repeating and improvements tracked closely.
Direct plant engagement highlights a shared reputation: delivering consistent material means more than hitting a certificate-of-analysis target. It means adapting to seasonal demand spikes, new regulations, or advancements in automation. Every challenge faced on the shop floor, whether minor or systemic, drives further innovation and commits resources toward resilience.
Years spent refining product output show that attention to detail pays off. Dibenzoyl Peroxide with content between 77% and 94% and solid industry-standard water inclusion delivers the safe, reliable performance that production lines depend on. This reflects direct lessons from the field—where predictable results, transparent specifications, and experienced help make a critical difference. Operations benefit from robust, proven material that stands up to both daily workload and unexpected challenges. Confidence, not just technical compliance, sets trusted chemical manufacturers apart.