|
HS Code |
273377 |
| Cas Number | 105-64-6 |
| Chemical Formula | C10H18O6 |
| Molecular Weight | 234.25 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Purity | 52% < Content ≤ 100% |
| Boiling Point | Decomposes before boiling |
| Melting Point | -20°C to -22°C |
| Solubility | Insoluble in water; soluble in organic solvents |
| Density | 1.05 g/cm³ (at 20°C) |
| Hazard Class | Organic peroxide, Type D |
| Un Number | UN3108 |
| Flash Point | Below -20°C (closed cup) |
| Stability | Sensitive to heat, shock, and friction |
| Storage Temperature | 0°C to 10°C |
| Odor | Slight aromatic odor |
As an accredited Diisopropyl Peroxydicarbonate [52% < Content ≤ 100%] factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Diisopropyl Peroxydicarbonate is supplied in 25 kg UN-approved, blue HDPE drums with hazard labels and secure, tamper-evident seals. |
| Shipping | Diisopropyl Peroxydicarbonate (52% < Content ≤ 100%) must be shipped as a hazardous material under strict temperature control, typically with refrigeration to prevent decomposition. It should be packed in airtight, approved containers, away from heat, light, and incompatible substances, clearly labeled, and accompanied by appropriate safety and emergency documentation as per regulatory requirements. |
| Storage | Diisopropyl Peroxydicarbonate [52% < Content ≤ 100%] should be stored in a cool, well-ventilated, explosion-proof area away from direct sunlight, heat, and sources of ignition. Store in tightly closed, original containers, segregated from acids, alkalis, reducing agents, and combustibles. Maintain at recommended temperatures (typically below room temperature), and ensure appropriate signage and safety measures are in place to prevent accidental contamination or decomposition. |
Applications of Diisopropyl Peroxydicarbonate [52% < Content ≤ 100%] in Industrial ManufacturingAs a specialized manufacturer of Diisopropyl Peroxydicarbonate [DIPC], we supply this initiator-grade peroxide directly for precision polymerization in several industrial processes. Below, we detail real downstream application scenarios served by our high-content DIPC, with specific compliance, formulation, integration, and finished product guidance for each sector. 1. Suspension Polymerization of Polyvinyl Chloride (PVC)Major PVC resin producers depend on DIPC as a primary free-radical initiator during the suspension polymerization of vinyl chloride monomer (VCM). Formulators adjust peroxide input based on reactor design, thermal profile, and desired molecular weight distribution. DIPC’s fast initiation and decomposition performance supports efficient polymer chain propagation while ensuring controlled polymer size and porosity. Manufacturers implement rigorous batch and continuous feeding methodologies to synchronize initiator addition with VCM charging and agitation. Strict monitoring ensures peroxide decomposition aligns with regulatory and environmental control, limiting residual vinyl chloride in the harvested resin. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Emulsion Polymerization of Acrylic Esters for Coatings and AdhesivesIndustrial producers use DIPC as a low-temperature, solution-phase initiator for the emulsion polymerization of methyl methacrylate (MMA), butyl acrylate, and related monomers. The compound enables precise control of molecular weight and gel content during latex synthesis. Integration in closed-system reactors provides fast initiation kinetics and uniform particle nucleation at 40–55°C. DIPC facilitates fine-tuning of flow, viscosity, and film properties for waterborne acrylics used in architectural and industrial coatings, pressure-sensitive adhesives, and construction sealants. QC teams monitor reaction end-points, minimize residual peroxide, and validate finished latex against industry benchmarks. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Polymer Bead and Microcapsule ManufacturingDIPC finds key application in precise control of radical polymerization kinetics for the bead polymerization of styrene, MMA, and other monomer blends used to create high-uniformity microspheres. In pharmaceutical, cosmetic, and specialty plastics manufacturing, DIPC’s reactivity profile enables controlled particle nucleation and growth, which is essential for consistent microcapsule size, shell thickness, and encapsulation efficiency. Downstream users implement stepwise peroxide dosing in thermostated reactors, often in the presence of crosslinking agents and surfactants, to maximize encapsulate payload and batch reproducibility. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Copolymerization of Vinyl Acetate for Specialty PolymersManufacturers of specialty copolymers employ DIPC as a selective initiator in vinyl acetate–based copolymerizations involving ethylene or VeoVa monomers. The product’s decomposition temperature matches batch reactors running at 40–55°C, allowing accurate regulation of polymer composition and branching. Exact dosing strategies improve control over adhesive tack, glass transition, and film integrity for applications in wood glues, paper coatings, and nonwoven binders. DIPC’s introduction in aqueous and organic media adheres to customer GC-MS residuals specifications to ensure safety in end-use environments subject to human contact. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive Diisopropyl Peroxydicarbonate [52% < Content ≤ 100%] prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to admin@ascent-chem.com.
We will respond to you as soon as possible.
Tel: +8615365186327
Email: admin@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
In our chemical plant, Diisopropyl Peroxydicarbonate never stays on the shelf for long. Customers from polymer, plastics, and specialty manufacturing already know this peroxide initiator keeps batch quality steady. Chemists in our team monitor every drum and tote as it moves from the reactor to finishing and filtration. Habit makes us double-check each step, and for good reason—despite its seeming simplicity, this compound can turn a so-so polymerization into a line of product meeting tightest spec. Plenty of initiators float around the market, but few match what Diisopropyl Peroxydicarbonate offers for suspension, emulsion, and solution-based PVC and related polymers. We keep our specs at the front of our operation—content range between 52% up to pure 100%, depending on use case and transport stability.
Out on the production floor, lab analysis happens fast after each batch. Even small differences in peroxide content show up in downstream yields, whether you are making a batch in June with thick humidity, or catching the tail end of a winter run in January. We see production teams order variants with content right above the 52% threshold for safer handling in bigger tanks, or ask for higher-purity grades if they are chasing faster initiator activity in specialty resins or experimental runs. Lower-content grades stick around in larger volume operations, especially where the focus falls on balancing cost with process stability. High-content material—approaching the 100% mark—serves teams demanding near-instantaneous kick-off for reaction processes. This technical mix hasn't changed because customers found what works over decades.
For those new to manufacturing diacyl peroxides or related initiators, solvent choice makes or breaks the end product. Our manufacturing lines leave almost nothing to chance. The plant strips residual solvents tightly, so customers get lower unwanted content—no one needs extra side reactions cropping up in a polymer kettle halfway through the batch. Every process manager on our floor plans around safe, documented methods for removing these solvents, not just for regulatory compliance, but because any corner cut in this step sabotages long-term batch reproducibility.
Customers primarily want Diisopropyl Peroxydicarbonate for controlled polymerization. Suspension and emulsion PVC, acrylics, polyvinylidene chloride — these materials depend on regular initiator performance. Our staff constantly reviews application feedback, especially when a customer switches formulations. One multi-national PVC producer pointed out that switching from a lower-grade initiator to our higher-content variant upped their throughput on peak shift, with fewer clogged transfer pipes and lower polymer dusting. They reported a smoother powder consistency and tighter particle size control in the dried product, which they traced directly to the initiator’s clean breakdown profile. That kind of detail only comes with close contact between manufacturing teams, and it shapes how we keep our lines tuned.
Liability gets real with bulk peroxides—nothing focuses attention like handling a material sensitive to heat and friction. Our supply chain team and the operations crew run storage audits and test container stability at each packing level. Adjustable content grades—starting above 52%, reaching up towards 100%—give purchasing departments options to match their on-site conditions. High-content initiator cuts shipping weight and package count, but needs more careful handling from everyone in the chain: driver, warehouse receiver, and blend operator on the polymer line. Lower-content material travels with fewer permit headaches for some shipping lanes. Our approach demands honest conversations with both veterans and new buyers about exactly how much risk and throughput a plant wants to manage on-site.
Competition in the market breeds plenty of peroxide initiators. Some plants use Dibenzoyl Peroxide, others lean on Lauroyl Peroxide, and some even push for newer formulations when chasing green chemistry initiatives or specialty effects in plastics. We've watched customers switch initiator types for performance gains, but most stay loyal to Diisopropyl Peroxydicarbonate for the predictability it brings. Its low decomposition temperature doesn't force process engineers to rewrite operating instructions. In continuous reactors, the gentle, controlled release means fewer downtime disruptions, reduced fuming, and less acid corrosion on pipes. Dibenzoyl variants can lag with certain fast-throughput needs; Lauroyl Peroxide asks for different temperature ranges entirely. Direct trials in customer plants show Diisopropyl Peroxydicarbonate matching or exceeding rivals by holding tighter thermal windows and delivering steadier molecular weights in finished resins.
We hold pride in process transparency. Quality control teams regularly field questions about our specific testing standards. Every finished run circles through gas chromatography analysis, and the standard check for active oxygen verifies each lot before it heads out the door. Raw material procurement leans on long-tested suppliers—sometimes the same ones we started with more than a decade ago. This isn’t just about checklists; if a test comes back out-of-spec and doesn’t match our plant’s running history, that product stalls until we clear every variable. Some years, that might mean a few tight deadlines, but batch reproducibility means more in the long run. Customers facing rising regulatory scrutiny or aiming for food-contact grades depend on this level of detail, and we don’t leave any part of the process untested.
In actual manufacturing, safety doesn’t mean ticking boxes. Handling Diisopropyl Peroxydicarbonate in higher content forms changes daily routines. Anyone filling, blending, or repackaging it wears full protective gear, even in summer when temperature climbs in the filling bay. Our safety protocols came out of long trial and error, matching regulatory requirements and field-tested logic learned by working alongside line operators. The difference between a dust warning on a data sheet and an actual near-miss on the fill line—most people on our crew see it within their first year. We communicate hazard information not just to purchasing, but straight to floor supervisors, drivers, and anyone near the product. This real-world teaching stops accidents before they happen and keeps our record clean.
The front office always wants to dig into cost per ton, but in process chemistry, every unexpected downtime or batch rework carries a hidden cost that isn’t in the purchase price. For large polymer plants, the right initiator does more than drive down chemical spend; it trims hours from changeovers and rescue batches due to poorly controlled polymerization. A plant manager we work with in Asia cut nearly ten percent off their overtime last quarter by switching to a narrow-range, higher-content initiator. Tighter production translates into steadier labor demands and less drain on utilities per batch. Procurement teams who factor in all those elements—risk mitigation, yield, performance—end up sticking with the same trusted supplier year after year, knowing downtime kills more profit than small per-ton price swings.
Regulators increasingly place organic peroxides in the spotlight, as they should. Verification demands from customs or local authorities slowed international shipments more than once in the last five years. For our part, every label, container, and grade matches what our plant’s documentation stamps. Meeting REACH, TSCA, or GHS requirements doesn't mean rewording spec sheets at the office. It means collaborating with logistics partners to keep chain-of-custody visible all the way from our drum storage to factory end-use. Some clients have regulatory specialists who walk through our documentation before cutting their first purchase order. We welcome it—our experienced compliance team keeps documentation open and straightforward, which ultimately saves both sides from costly surprises at the border or on a plant audit.
Every so often, we face a challenge on the formulation front. A specialty composites group searching for improved fiber-matrix adhesion came to us with a puzzle: a legacy initiator failed to meet their new product line’s UV resistance goals. Our R&D lab ran side-by-side degradation profiles, adjusting both active content and stabilizer packages until the customer reached their spec. Long-term, those sorts of development partnerships provide insight we can’t get from sitting behind a test bench all day. Years ago, a customer from a PVC pipe plant highlighted issues with compound stability during long storage. We worked through heat cycle stability and reactivity testing, and customized storage advice improved their 12-month shelf life. Feedback flows both ways, and every improvement in our facility reaches the next customer with more confidence and speed than any off-the-shelf solution.
Plant operators using Diisopropyl Peroxydicarbonate in their reactors see downstream effects first-hand. On a busy day, stable initiator bead or liquid form means less rework and higher yields, especially as demand pressures shift. Lower trace impurity levels reduce side-chain formation and push up product purity for both bulk and specialty resins. One technical manager at a midsize film producer reported faster troubleshooting thanks to the initiator’s well-documented performance—no need for hours spent on root-cause analysis of failed batches. They now use our product as a reference standard during trials, and as a teaching example in their training workshops for junior chemists.
After the drums leave our lot, storage environment takes top priority. The initiator can hold quality for well over the industry average shelf life—given proper storage at reduced temperature and out of direct light. Some clients install remote temperature monitoring in their on-site warehouses, reporting improved reliability and fewer headaches at scale-up. Technical field support lines open every day, not just for emergencies but for real-time troubleshooting, especially in places seeing quick seasonal swings.
Fewer plants today have in-house training programs for specialty chemicals, so manufacturers like us step in to fill that gap. Whether by running plant-side demonstrations or walking a new hire through safety routines, our staff spends as much time on customer plant floors as behind our own. These field visits show theory meeting practice—operators watching the peroxide’s action up close as they adjust process timing and venting rates. In recent years, plant modernization and digital controls improved consistency, but human experience still settles what specs fit best.
Raw material price swings and supply chain disruptions in recent years forced us to reinforce our procurement and storage protocols. As pandemic-driven shutdowns threw delivery schedules into chaos, relationships with raw material suppliers pulled us through. We saw firsthand how a day’s delay upstream could ripple through entire production schedules. Constant conversation with both logistics and technical customers avoided excess backlogs and improved trust when stock ran thin. We adapted packaging to better fit unpredictable shipping, and shifted to modular batch production for more flexible response. Global economic uncertainty pushed our team closer, sharpening focus on not just quality but the predictability of having product where it’s needed, exactly when critical demand spikes.
Today, many of our partners select initiators with an eye on their environmental reporting. We engage with process engineers seeking to not only boost throughput but also lower overall emissions and energy use. While Diisopropyl Peroxydicarbonate’s clean decomposition pathway already reduces certain process byproducts, our R&D push has looked at optimized stabilizer systems to further cut any emissions. Direct feedback from downstream processors—especially those facing third-party audits—spurs further focus on waste minimization and recycle-friendly formulations. We offer ongoing support to customers designing their own internal green chemistry programs, leveraging in-field experience and product documentation to back their reporting and certification requirements.
For most manufacturing partners, the defining difference isn’t always a point-by-point data comparison; it’s trust in a steady supply and transparent quality. We keep batch records stretching back years, and use that historical data to troubleshoot not only our own process but even those of our customers. Manufacturing Diisopropyl Peroxydicarbonate at this scale means owning every step, from feedstock selection to drum delivery. Teams call for more than a one-off drum, they ask for solutions based in lived experience, not marketing claims.
Each year brings tighter specs and higher stakeholder expectations. With every regulatory change and innovation push, production crews and technical support teams adapt, sometimes learning new chemistry and sometimes refining logistics. While doing this, we remain rooted in the foundational belief that the right product delivered to the right process builds lasting partnerships. We have adjusted, sometimes at a daily pace, investing in technical support, customer education, and tighter integration with every layer of the supply chain. Lessons learned at the plant get shared across partner sites, and direct experience shapes every improvement. The story of Diisopropyl Peroxydicarbonate is built by those who make it, handle it, solve problems with it, and trust it to keep their production lines running—batch after batch, year after year.