|
HS Code |
746738 |
| Chemicalname | Dicumyl Peroxide |
| Casnumber | 80-43-3 |
| Appearance | White to off-white granular solid |
| Peroxidecontent | ≤52% |
| Inertsolidcontent | ≥48% |
| Molecularformula | C18H22O2 |
| Molecularweight | 270.37 g/mol |
| Meltingpoint | 38-40°C |
| Boilingpoint | Decomposes before boiling |
| Solubility | Insoluble in water, soluble in organic solvents |
| Odor | Faint aromatic |
| Storagetemperature | Below 30°C |
| Stability | Stable under recommended storage conditions |
| Decompositiontemperature | Above 145°C |
| Use | Polymerization initiator and crosslinking agent |
| Packaging | Typically packed in polyethylene-lined fiber drums |
As an accredited Dicumyl Peroxide [Content ≤ 52%, Inert Solid Content ≥ 48%] factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Packaged in 25 kg fiber drums with inner plastic lining, clearly labeled with concentration, safety warnings, and batch information. |
| Shipping | Dicumyl Peroxide [Content ≤ 52%, Inert Solid Content ≥ 48%] must be shipped as a hazardous material, in tightly sealed containers, protected from heat and ignition. It should be transported under cool, dry conditions, with appropriate hazard labeling and documentation, complying with relevant regulations such as IMDG, IATA, and DOT guidelines. |
| Storage | Store Dicumyl Peroxide [Content ≤ 52%, Inert Solid Content ≥ 48%] in a cool, dry, well-ventilated area away from heat, direct sunlight, and sources of ignition. Keep in tightly closed containers, separated from incompatible materials such as acids, bases, and reducing agents. Ensure proper labeling and avoid physical shocks or friction. Use explosion-proof equipment and follow all safety guidelines. |
Applications of Dicumyl Peroxide [Content ≤ 52%, Inert Solid Content ≥ 48%] in Industrial ManufacturingDicumyl peroxide, with controlled active and inert solid percentages, supports advanced polymer crosslinking and modification in high-volume industrial manufacturing. As the original manufacturer, we supply this specialty organic peroxide to meet the stringent requirements of the polymer industry, wire and cable insulation, footwear EVA foaming, and high-grade thermoplastic elastomer processes. Each sector applies unique process, compliance, and downstream integration practices. 1. Polyethylene Wire and Cable Insulation CrosslinkingWire and cable producers use dicumyl peroxide to induce crosslinking in low-density and high-density polyethylene compounds for power cable insulation and sheathing. Strict quality and regulatory controls define dosage and blending conditions for thermal and mechanical stability. Consistent crosslinking elevates electrical resistance, flexibility, and environmental stress cracking resistance, supporting infrastructure and energy transmission upgrades. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. EVA Foam for Footwear and Sporting GoodsEVA compounders and footwear manufacturers utilize dicumyl peroxide for uniform foam cell structure and controlled crosslinking in midsole and outsole production. The peroxide reacts under defined thermal cycles for predictable cell expansion, compression set, and rebound. Precision in dosage and processing ensures batch-to-batch consistency according to global footwear safety and consumer performance regulations. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Thermoplastic Polyolefin (TPO) Elastomer ModificationAutomotive and construction industries modify polyolefin matrices using dicumyl peroxide to enhance melt strength and heat resistance in TPO elastomers. Peroxide-initiated controlled crosslinking achieves precise rheological tuning, facilitating downstream fabrication of bumper fascias, roofing membranes, and weather sealing without permanent network formation that hinders recyclability. Processers require rigorous control over peroxide content and activation profiles to comply with regulatory and mechanical performance criteria. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Silicone Rubber VulcanizationSpecialty silicone rubber manufacturers incorporate dicumyl peroxide as a key crosslinking agent for high-consistency rubber (HCR) and liquid silicone rubber (LSR), particularly for industrial, electrical, and healthcare applications. This approach enables stable vulcanization under high temperature, delivering rubber parts with consistent mechanical, dielectric, and compression set properties. Compliance with food contact and medical standards requires rigorous control of residual peroxide content and byproducts. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Polypropylene Impact Modifier CrosslinkingCompounders in the automotive, appliance, and consumer goods industries use dicumyl peroxide for producing polypropylene copolymer blends with tailored impact-modified performance. Through controlled peroxide addition, manufacturers adjust melt flow and interfacial adhesion among rubbery and crystalline phases, resulting in improved impact strength, dimensional stability, and surface finish. Downstream quality assurance targets regulatory approval for use in high-value technical components. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
6. Industrial Rubber Goods and Conveyor Belt ProductionHeavy-duty rubber goods manufacturers employ dicumyl peroxide for peroxide-cured EPDM, NBR, and SBR elastomer compounds. This ensures resistance to high temperatures, oil, and aggressive environments in applications such as industrial conveyor belts, seals, and automotive hoses. The compounder tailors crosslink density and dispersion within the matrix, following dedicated industrial and environmental safety protocols for each product segment. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive Dicumyl Peroxide [Content ≤ 52%, Inert Solid Content ≥ 48%] prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: admin@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
We’ve spent years on the shop floor witnessing firsthand what makes a great organic peroxide. Our Dicumyl Peroxide, always holding content below or equal to 52% and carried on an inert solid of at least 48%, reflects this commitment. It isn’t just a blend for the shelves—it’s chemistry shaped by real production needs, from high-yield polymerization to daily plant safety. Every batch gets tested because we know failures in real operations cost more than material—reputation, process uptime, and even safety ride on these atoms connecting as they should.
Ours isn’t the finest white powder in the market just for show. We’ve invested heavily in both reactor design and purification, keeping traces of water, stabilizers, and byproducts to the bare minimum, so our peroxide consistently initiates reactions at the temperature you expect. This avoids problems—partial cure, insufficient crosslinking, uneven melt index. Operators trust that the product behaves same barrel to barrel, year after year. In practice, this gives downstream flexibility, especially for producers of low-density polyethylene and wire & cable compounds who can’t accept surprises in crosslinking degree. After years of working side by side with polymer plants and rubber mixers, we see how reliable decomposition profiles and manageable physical forms save crews from process headaches and line reworks.
The 52% maximum active provides a solid margin for thermal and storage stability, allowing safer handling at typical warehouse temperatures. Our inert solid—often high-grade silicate or similar—captures fines and reduces clumping, giving consistent dosing in both manual and automated feeders. In larger compounding systems, clumping or uneven dispersal can kill cycle time; engineers on the floor see how this product flows, even when humidity spikes. Our plant managers collaborate directly with end users, gathering their feedback on storage, pumpability, and mixing.
Polyethylene manufacturers frequently operate multiple lines at varying throughputs, sometimes in humid and sometimes in dry environments. Our formulations favor this changing reality. Rigid crosslinking of foam sheets, insulation in electrical cables, and specialty rubber parts all demand peroxide initiators that won't shift performance season to season. We ensure product shape and size fits the feeder, so downtime from pinched hoppers or excess dust doesn't eat shift margins. Peroxide dusts, in particular, bring both nuisance and risk; this composition keeps worker exposure within best-practice targets, often beating regulatory numbers by a healthy margin. Decades of field feedback have shaped this inert carrier—a small design point that keeps shop floors cleaner and air filtration systems happier.
Manufacturers often weigh Dicumyl Peroxide against alternatives such as benzoyl peroxide, t-butyl peroxide, or blends with differing active percentages or carrier systems. We keep up with these competitive materials not out of habit, but because end users face claims about cost savings, faster cure rates, or “advanced” formulations. Experience shows that our Dicumyl Peroxide, restricted to under 52% actives, brings a balance missing from many others: shelf stability, manageable hazard communication profile, and low batch-to-batch drift. Pure actives above 52%, although available elsewhere, run hotter and present much tighter storage requirements. Accidents and unplanned decompositions aren’t stories—they are real plant risks. We keep our product at this saturation to stay ahead of unexpected line shutdowns, evacuated buildings, or insurance headaches.
Our combination of actives and inert carrier means gradual release during mixing and better integration during extrusion or mold-filling. Where other peroxides can “burst” or deliver a too-rapid onset, our product’s decomposition profile keeps temperature control at the heart of processing—this makes for stronger, more reproducible polymer properties. For large rubber articles, wire insulation, or foams, that means fewer scrapped parts per day and fewer headaches at quality check. Technical teams in the field know how tough it is to dial in optimal cure times when switching peroxide suppliers, so they often return to this formulation for less frequent process tuning.
Cost is always part of the decision. Buyers looking at faster peroxides or higher-load products often see cost-savings on paper but factor in spillage rates, waste from off-specification batches, and added safety equipment. Our peroxide, with a stable solid content, keeps process losses low—one less call from production to the front office about missing inventory or extra PPE. Years of tracked downtime and process audits prove value: fewer incidents and more reliable output.
Having worked onsite during installations and annual maintenance, I’ve seen how a steady peroxide source shapes a line’s entire rhythm. In foam slab plants, packs of our peroxide handle bulk feeding with fewer clogs, so operators keep lines running instead of fishing out lumps. PE suppliers for wire and cable need not only the stated active oxygen content but also a blend that moves through gravimetric feeders without clogging. A poorly stabilized, dust-prone blend can mean hours lost to cleaning blowers and extractor fans, unplanned downtime, or even code violations if local air standards shift.
Engineering teams at customer sites trust our lots to discharge accurately, bag after bag. They see dependable oxygen content and no flare-ups in the mixer. For rubber processors, switching lots or tweaking peroxide grades to chase cost savings can throw off cure profiles, impact part flexibility, or raise scrap rates. Experience proves our peroxide lets engineers keep process parameters steady batch to batch. For many, this simply means the day’s production target gets met without drama or rework.
In countries pushing tighter fire and personal safety standards, local authorities inspect organic peroxides with ever-growing attention. Our recipe fits this trend. Lower pure peroxide content and a specially chosen inert base give improved shelf life and decreased accidental ignition risk, making compliance simpler. Many of our long-term users say this quietly prevents regulatory headaches, letting them focus on core production and scheduling instead of sudden plant inspections.
Data from our QC labs show thermal decomposition curves tight to specification, with initiation temperature suited to industry-standard extrusion and molding—even if actual temperatures drift slightly in production. Fielded lots seldom deviate more than one or two percent from their stated actives, a track record some rival peroxides rarely achieve outside specialty lines. Longitudinal studies at customer plants have shown a reduction in average cure variance, measured by torque rheometry and physical property testing, when switching from unbranded blends over to our Dicumyl Peroxide. Actual cure times stay within hour-to-hour targets, with reduced need for operator adjustments.
Worker exposure surveys back up our decisions about inert carrier. Less airborne particulates—recorded during continuous feeding—mean fewer respiratory complaints, and lower personal air monitoring results across shifts. As a manufacturer, we know the numbers go straight to annual safety audits. This safer profile pays off in less wear on HVAC and filter systems, which keeps maintenance costs down and shifts labor from cleaning back into value-generating work.
We’ve seen global trends in peroxide formulation change, from higher-purity small-batch grades to cost-reduced mass-market blends. Through it all, core process performance and plant-level safety never leave our checklist. Through ongoing collaboration with industry partners and end users, we gather feedback not just on technical parameters, but on how product features impact actual operations. We’ve refined our inert carrier mix to answer demands for better flow under both cold winter and humid summer storage. We depend on in-house storage trials, running accelerated aging programs to predict how each new iteration behaves over the long term—a critical element missing in one-off or “custom” peroxide blends offered by less established market entrants.
Our partners in Africa, Southeast Asia, and the Americas face unique logistical challenges—from variable transport temperatures to unpredictable warehouse environments. Our peroxide’s formulation shields active content from these swings, cutting losses owed to aged or prematurely decomposed material. This consistency preserves both value and operational continuity. In regions facing new environmental and waste-management regulations, the reduced dust and safer handling profile of our blend lessen compliance costs and, in some markets, open the door to continued business where higher-purity or untreated blends are now restricted.
Unlike traders and resellers, our knowledge comes from resolving breakdowns, not just selling a drum and moving on. Sometimes a plant team runs into crosslinking fluctuations they can’t source to resin differences. After reviewing process records, we often find the answer in inconsistent peroxide batches from generic suppliers. A switch back to our lot stabilizes outputs. Similar stories pop up at rubber compounding lines: batches failing tear strength, only to trace the culprit back to a shipment of high-dust, low-carrier product. These aren’t marketing stories—they’re what production engineers and plant managers share with us after months running on new supply.
We examine each of these root causes with lab reports, on-site visits, and detailed consultation. Sometimes, changes to feed hoppers or real-time feedback from high-volume users prompt us to change carrier proportions, not just to meet spec but to prevent the next bottleneck. This way, process improvements flow both directions, refining each new run based on genuine shop floor experience. Time and resources saved here translate directly into better yields, lower operating costs, and more predictable scheduling across weeks and months.
Industry asks more than a one-size-fits-all initiator. Users want assurance that today's purchase will perform the same a year from now, under changing global inventories and shifting workplace standards. As a manufacturer, we own the consistency behind each product—not only chemical contents but also how it arrives, stores, and feeds into the process. Our Dicumyl Peroxide—kept at or under 52% actives with at least 48% well-vetted inert solid—answers more than technical requirements. This specific formulation grew out of continuous adaptation to real operator needs and ongoing regulatory change.
Every lot leaving our facility builds on lab trials, plant walkthroughs, and a record of safe handling from end to end. No generic blend from an anonymous shipper provides the same peace of mind or documentable performance in live production. Buyers making real, large-scale products know the difference within a week—less waste, more uptime, and fewer operator complaints, backed by process data.
Polymer lines, rubber calenders, and cable extrusion facilities all operate under tight tolerances and just-in-time scheduling. Quality mishaps with poorly controlled peroxides grow costly quickly, both in wasted material and missed orders. Using a predictable, field-tested Dicumyl Peroxide keeps growth plans on track and production targets meaningful. Years of direct manufacturing experience taught us that every process win—smoother feeding, safer storage, easier compliance—starts with a stable, proven material, not a theoretical lab grade tossed over the wall.
Our customers don’t chase incremental product swerves for the sake of novelty. Instead, they demand what any veteran manufacturer wants: a well-behaved blend that solves actual shop problems, from mixing to molding, day after day. We keep Dicumyl Peroxide within the 52% active limit for precisely this reason. Higher-load variants may seem appealing on cost at first pass, but the hidden risk in storage, safety, and real process loss tells a different story as months go by. We’ve seen a steady stream of switchbacks, where lines try “innovative” brands only to return to our stable formulation after downtimes and quality headaches mount.
As global standards for chemical stewardship continue to evolve, we improve both our blend precision and supply stability. Engineering teams at our facility study each round of regulatory guidance, evaluating how to keep peroxide composition safe, compliant, and simple to audit. Buyers no longer accept just paperwork. They want evidence, batch history, certificates, and—when necessary—fast answers in the rare event of a claim. Field engineers visiting our customers walk the lines, gathering field data, suggesting feeding modifications, and working to tune dosing for unique plant conditions.
Through years spent serving hundreds of facilities around the world, our experience keeps pointing back to the value of disciplined process, safety, and knowledge transfer. Whether via firsthand install support or process audits, our manufacturing teams remain on-call to troubleshoot blending, storage, or delivery. This partnership means that if operational realities demand a tweak—a shift in carrier ratio, adjustment to granule size, packaging innovation—we adapt, drawing on real evidence and front-line feedback.
Expectations for chemical suppliers keep growing. Dicumyl Peroxide will remain a foundational building block wherever clean crosslinking, process reliability, and predictable curing matter. Our commitment involves direct accountability: each product run, formula update, and improvement in dust control stems from field realities and documented results. With more than a generation of feedback informing every blend, we put our name behind each shipment—not a generic mark or repackaged drum, but a material that thousands of production experts have trusted to keep lines moving, workers safe, and products on spec.
Anyone choosing Dicumyl Peroxide for an extrusion, molding, or compounding line makes a long-term investment in more than a chemical. They gain knowledge, accountability, and a manufacturer’s experience, supporting both output quality and the safety record behind every finished part. That’s the difference real makers deliver—and what we keep standing behind.