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Bis(2-Phenoxyethyl) Peroxydicarbonate [85% < Content ≤100%]

    • Product Name Bis(2-Phenoxyethyl) Peroxydicarbonate [85% < Content ≤100%]
    • Alias Peroxydicarbonic acid, bis(2-phenoxyethyl) ester
    • Einecs 221-362-6
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    404075

    CAS_Number 455-86-7
    Chemical_Formula C18H18O8
    Molecular_Weight 362.33 g/mol
    Appearance White crystalline solid or powder
    Purity 85% < Content ≤ 100%
    Melting_Point 27-30°C
    Density 1.19 g/cm³ (approximate)
    Solubility Soluble in organic solvents, insoluble in water
    Odor Faint aromatic odor
    UN_Number 3106
    Hazard_Class 5.2 (Organic Peroxide)
    Decomposition_Temperature Above 30°C
    Storage_Temperature Below 0°C (refrigerated temperatures recommended)
    Stability Sensitive to heat and shock
    Uses Polymerization initiator

    As an accredited Bis(2-Phenoxyethyl) Peroxydicarbonate [85% < Content ≤100%] factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Supplied in a 25 kg UN-approved HDPE drum, Bis(2-Phenoxyethyl) Peroxydicarbonate [85-100%] is tightly sealed and clearly labeled.
    Shipping Bis(2-Phenoxyethyl) Peroxydicarbonate [85%-100%] must be shipped as a hazardous material, protected from heat and direct sunlight. Use temperature-controlled, insulated packaging to maintain recommended storage temperature (typically 0–10°C). Ensure secure, upright containers, compliant labeling, and all relevant safety documentation per local and international regulations for organic peroxides (UN 3106 class 5.2).
    Storage Store **Bis(2-Phenoxyethyl) Peroxydicarbonate [85% < Content ≤100%]** in a cool (2–8°C), well-ventilated, dry area away from heat sources, direct sunlight, and incompatible materials (such as acids, bases, and reducing agents). Keep the container tightly closed and protect from physical damage. Use appropriate, explosion-proof refrigeration. Handle only with proper personal protective equipment and avoid friction, shock, and contamination.
    Application of Bis(2-Phenoxyethyl) Peroxydicarbonate [85% < Content ≤100%]

    Applications of Bis(2-Phenoxyethyl) Peroxydicarbonate [85% < Content ≤100%] in Industrial Manufacturing

    As a direct manufacturer, we supply Bis(2-Phenoxyethyl) Peroxydicarbonate with a high active content range targeted to meet the strict requirements of polymer, specialty plastics, and composite material industries. The following application scenarios reflect the most relevant downstream use sectors based on current global practice.

    1. Initiator for Suspension Polymerization of Polyvinyl Chloride (PVC)

    PVC producers use this compound as a free radical initiator in suspension polymerization. The material provides precise molecular weight control and reduces residual monomer content. Integrators select it to achieve consistent batch properties, ensure uniform particle morphology, and meet regulatory compliance for pipe, cable, and film resin grades.

    Industry compliance standards

    • ISO 9001:2015 Quality Management
    • ASTM D1755 PVC Resin Standard
    • EU REACH Regulation (EC) No 1907/2006
    • US EPA TSCA Inventory Listing

    Typical usage ratio

    • Typically 0.03–0.08 phr (parts per hundred resin) in PVC suspension formulations.
    • Formulators adjust within this window based on target K-value, conversion efficiency, and local process temperature.

    Downstream process integration

    • Charging into the aqueous monomer suspension after the dispersant addition and before agitation under nitrogen atmosphere.
    • Often combined with secondary initiators or co-initiators to achieve multi-stage thermal control.

    Final product types

    • Rigid PVC pipes for water and drainage
    • Soft PVC cables and film sheets
    • Window profiles and construction panels
    • Automotive interior materials

    2. Initiator for Precision Acrylic Polymer Beads

    Acrylic polymer bead manufacturers select this peroxydicarbonate for its precise decomposition temperature, which allows controlled particle size distribution. Consistent free radical generation is critical in bead polymerization for cast and suspension acrylic. This initiator supports clarity, high purity, and minimal discoloration in final acrylic molding resin.

    Industry compliance standards

    • JIS K6932 (Cast Acrylic Standards, Japan)
    • ISO 7822:2013 Acrylic Polymer Beads
    • FDA 21 CFR 177.1010 (Acrylic and Modified Acrylic Plastics)
    • EN 71-3 (Toys—Migration of Certain Elements, for bead applications)

    Typical usage ratio

    • Ranges from 0.02–0.06 phr depending on required bead size, targeted conversion rate, and optical grade specifications.

    Downstream process integration

    • Direct addition to monomer mix before aqueous suspension or emulsification.
    • Temperature ramping controlled to match initiator half-life profile for the desired molecular weight.

    Final product types

    • PMMA beads for lighting and reflective materials
    • Casting grade acrylic for signage and aquariums
    • Acrylic composite decorative sheets
    • Dental and medical acrylics where approved

    3. Free Radical Initiation in Specialty Vinyl Acetate Copolymers (VAC Copolymers)

    Leading specialty chemical companies employ this initiator in emulsion or suspension polymerization of vinyl acetate copolymers. Its high selectivity supports production of resins with tailored glass transition temperature, superior film formation, and good adhesion for industrial coatings, adhesives, and specialty emulsions.

    Industry compliance standards

    • ISO 14001:2015 Environmental Management (for waterborne polymers)
    • FDA 21 CFR 175.105 (Adhesives regulation for indirect food contact)
    • EN 927-1 (Coating Materials and Coating Systems)
    • REACH SVHC screening (for monomers and initiator residues)

    Typical usage ratio

    • 0.01–0.05 phr based on total monomer mass, adjusted for required solids content and viscosity control.

    Downstream process integration

    • Metered in after surfactant and buffer introduction in high-shear homogenizer.
    • Integrated into multi-stage feeding protocols for copolymerization sequences with controlled radical flux.

    Final product types

    • High-performance industrial adhesives
    • Low-VOC emulsion paints and binders
    • Paper and nonwoven textile binders
    • Flexible and semi-rigid packaging films

    4. Controlled Radical Initiation in Unsaturated Polyester Resins (UPR) and Composite Manufacturing

    Producers of composite materials use Bis(2-Phenoxyethyl) Peroxydicarbonate for room temperature or low-temperature curing of unsaturated polyester resins. The decomposing profile suits thick-section parts and pre-preg production where thermal gradients must remain low. The initiator plays a key role in facilitating even polymer network formation and minimizing voids during laminate cure.

    Industry compliance standards

    • ISO 9001:2015 (Quality Systems for Composite Manufacturing)
    • UL 94 Flammability Standard (for finished laminates)
    • EN 13501-1 Fire Classification (for building products)
    • BS EN 13706 (Pultruded profiles—polyester resin systems)

    Typical usage ratio

    • Employed at 0.5–2.5 wt% (by weight of resin), calculated based on required gel time and laminate thickness.
    • Formulators decrease the amount for thin sections and increase for high-filler systems.

    Downstream process integration

    • Dispersed into polyester resin with agitation before addition of accelerators or promoters.
    • Handled under cooled storage and dosed immediately prior to layup or casting.

    Final product types

    • Corrosion-resistant GRP (glass-reinforced plastic) panels
    • Architectural and infrastructure composite profiles
    • Marine and automotive body parts
    • Tooling and structural prepregs

    5. Polymerization Initiator for Medical Device Grade Polymers

    Manufacturers of medical polymers employ this initiator because it enables low-residual monomer content and precise control over molecular chain length. These features help meet the demanding safety and biocompatibility standards that are mandatory for products in clinical and laboratory technology.

    Industry compliance standards

    • ISO 13485:2016 (Medical Devices Quality Management)
    • USP Class VI (Plastics—Biological Reactivity Tests)
    • EU MDR (Medical Device Regulation 2017/745)
    • FDA 21 CFR 820 (Quality System Regulation for Medical Devices)

    Typical usage ratio

    • Carefully controlled between 0.01–0.04 phr, subject to extractables, leachables testing, and sterilization requirements.

    Downstream process integration

    • Introduced under aseptic mixing on closed systems, with temperature and humidity monitoring.
    • Polymerization conducted under nitrogen purge to prevent contamination and maintain batch integrity.

    Final product types

    • Sterile laboratory tubing
    • Diagnostic film substrates
    • Blood collection system polymers
    • Surgical-grade flexible plastics
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    Certification & Compliance
    More Introduction

    Bis(2-Phenoxyethyl) Peroxydicarbonate: Real Insights From the Plant Floor

    More Than a Formula: Our Direct Experience With Bis(2-Phenoxyethyl) Peroxydicarbonate

    Every day on our manufacturing floor, we work with Bis(2-Phenoxyethyl) Peroxydicarbonate, which most people in the trade know as an organic peroxide initiator for polymerization, usually called by its shorthand, BPODC. Our plant handles this product at concentrations from 85 up to 100 percent, and plenty of hands-on knowledge goes into every batch that leaves our site.

    People outside the industry often ask about the relevance of content percentages. In our setup, we commit to making sure that what we label as 85 percent and above always meets the demands of polymer producers for both safety and consistent performance. We know that drifting content even slightly can impact viscosity, molecular weight distribution, and reaction times. Operators in polymer facilities tell us directly they watch these variables closely, so we monitor every step for accuracy.

    Batches that test higher than 90 percent content have shown faster initiation and sharper molecular weight profiles, but storage and shipment become more sensitive with the increase in active ingredient. Every year we field questions about safe handling, and we speak plainly: the higher content versions require colder and tighter storage, with health and safety procedures at the front of everyone’s training.

    We’ve worked with customers who run PVC resins, copolymers, and occasionally specialty foams. Their lines run smoother with predictable release rates, which come from our quality control on BPODC. This is not a product for casual handling. Its organic peroxide nature means sensitivity to impact and temperature, which is why all our tanks, drums, and transport containers are constructed from materials proven to withstand these compounds.

    Our Model of BPODC: What Sets It Apart With Proof

    We produce BPODC to exacting standards. The most recent model is the BPODC-100, which delivers assay content right above 99 percent by titration methods traceable to international norms. Our team confirmed, through a run of large-scale bulk synthesis, that higher-purity material gives more reliable yields to end-users working in suspension polymerization of PVC. A lot of polymer manufacturers insist on minimal side-products, because these can radically affect product clarity or cause unstable processing windows.

    The thermal decomposition profile of our BPODC-100 is sharp, with a well-documented half-life at established temperature intervals. We've run trials at 30°C, 40°C, 50°C, and have cross-checked every output by gas evolution and residual monomer content. These measurements tell us, not in theory but in plant reality, how BPODC triggers chain reactions and how you can plan your production cycle for the most efficient turnover.

    You’d expect tight batch-to-batch reproducibility, and our records confirm this. Since we operate our own synthesis and purification lines, any deviation gets flagged long before packing and shipment. Less pure grades from resellers and intermediates often miss the mark, especially when their distribution systems rely on extended storage or repackaging. Such gaps introduce moisture, dust, or even incompatible residues, reducing the peroxide’s life span and power.

    All containers leaving our plant receive tamper-proof seals. This is not just about regulatory box-checking; it stems from our experience dealing with accidents in the early years. Once, an off-the-shelf drum from a third-party source contained less than 70 percent peroxydicarbonate—diluted and contaminated. The customer’s process stalled, valuable resin was scrapped, and everyone lost. Now, our fill and seal process is tracked end-to-end, with QR-coded batch tags for instant lookup.

    Why Content Matters and How We Manage It

    Anyone who has stood on the loading dock in summer understands that weather swings test the peroxide’s shelf stability. Formulations around the 85 percent mark tolerate storage near 0°C, but once you cross 95, our practice is to fit shipments with cold-chain monitoring tags. In past years, we saw that ignoring short elevation in temperature led to decomposition, pressure buildup, and hazardous venting. Ever since introducing thermal monitors and training every logistics partner in “no exceptions” temperature control, we stopped those incidents.

    End-users making medical-grade PVC or optical-grade polymers mostly specify high-content BPODC. Their requirements trace directly to downstream polymer performance—brightness, clarity, and strength. One client processing emulsions for floor coatings mentioned that our 99 percent product tightened their batch-to-batch color differences and made mixing more reliable. That feedback confirms our decision to focus on stringent content checks.

    You can make things easier on yourself by matching BPODC content to your plant’s risk level and capacity. Smaller processors who lack sub-zero cold rooms prefer the 85 percent option, since they report fewer headaches around shipment and interim storage. Larger, automated lines with full climate control get best results using our high-content variant.

    Not All Organic Peroxides Are the Same: Real-World Differences

    There’s no single initiator that fits all chemistries. We have years behind us working with other dialkyl peroxides, diacyl peroxides, and peroxyesters. Across safety, performance, and storage, BPODC stands in a unique place. For one, its reactivity profile fits PVC and vinyl chloride copolymerization better than diisopropyl peroxydicarbonate or benzoyl peroxide—customers often tell us about smoother start-ups, less foaming, and cleaner monomer conversion. On the other hand, it is more sensitive to temperature than some of the peroxyesters, which means we can’t let our attention slide during storage.

    People sometimes ask about switching between peroxides to save costs. Our response is grounded in what we’ve seen: simply substituting another peroxide often means re-checking the entire reaction kinetics. For instance, BPODC decomposes at a temperature sweet spot which matches most PVC plant profiles; using a faster or slower initiator changes the molecular weight, yield, and—crucially—the safety envelope. We’ve worked with teams forced to shut down after foaming issues from untested alternate peroxides. That’s why polymer technicians tend to stick with proven sources and proven chemistry.

    Handling and waste management also set this product apart. Some peroxides require neutralization or careful dilution at the site; BPODC, as we produce it, is designed for straightforward closing of the reactive cycle. If a customer wants spent peroxide containment standards or destruction protocols, we give technical advice built from our lab and regulatory experience.

    How Reliability and Quality Shape Our BPODC Manufacturing

    From the reactor operators to our control room staff, the focus is always on process reliability. BPODC synthesis starts with precisely measured phenoxyethyl alcohol and phosgene substitutes. Every run is tracked by in-line spectrophotometry, and samples go for bench titration. Our batch records include shelf-life projections under both expected factory conditions and worst-case temperature spikes.

    Quality checks don’t stop until product reaches your facility. Every drum ships with full assay sheets certified on-site, never contracted out. Over the years, we have taken in returned materials from others—some off-color, some with chemical fog or residue. Analysis usually reveals contamination or mislabeling upstream, so we keep our feedstocks under rigid access control. This includes shipment log audits, regular supplier reviews, and every load documented by multiple sign-offs.

    Over the last decade, we have seen regulatory expectations climb, with national and cross-border teams stepping up site checks. We meet audits head-on, revamping handling procedures, overhauling our fire suppression, certifying pressure-relief infrastructure, and digitizing all compliance records. The culture here rewards operators for reporting quality issues, and every production halt gets a rapid joint review. Once, a slight temperature dip in the reactor led to an unplanned hold; subsequent investigation led us to recalibrate our inline sensors and roll out new training. From those experiences we draw our confidence—the product on the pallet matches the label, batch after batch.

    Supporting Our Users With Technical Experience

    Most buyer questions focus on safe handling, polymerization kinetics, and regulatory paperwork. Our technical service team works right out of plant labs, so advice comes from staff who run the same analyzers and pilot reactors seen by major processors. If you run batch or continuous polymerization, we help review thermal data, reaction profiles, plant safety, and end-point reliability.

    Customers who choose the 85 percent grade often look for easier logistics or blended initiator systems. We walk them through cooling curves, venting recommendations, and what to expect during long-distance hauls. Those with advanced polymer controls and temperature monitoring achieve best results with content over 95 percent, provided all handling SOPs stay rigorous.

    In response to new GHS classifications and stricter export controls, our compliance crew maintains updated SDS and supports customer certifications. Over the years, new buyers sometimes try to skip formal documentation; past incidents taught us to never compromise on transparency, labeling, or safety data.

    Environmental and Safety Considerations Built From Experience

    Manufacturing BPODC in these content ranges means strict environmental controls. Our wastewater plant neutralizes traces before discharge, and we retrain maintenance on peroxide risks twice yearly. Unlike some peroxy compounds, which can persist in soil or water, BPODC and its breakdown products show manageable risk under controlled disposal. That said, we still conduct local monitoring to document absence of residues downwind and downstream.

    Operators who handle this product undergo real drills—fire, spill, and thermal run-off. This is not academic theory; several years ago, a transport drum ruptured during summer shutdown and prompt action prevented a serious incident. Now, drum chambers feature vented, monitored alarm panels, and each shift knows where peroxide sensors are placed.

    In high-content forms, BPODC’s strong reactivity means even a few degrees warmer than advised can prompt rapid pressure generation. It’s why we keep distribution chains short. Some competitors opt for centralized warehousing to cut costs, resulting in aged stock and unpredictable risk profiles, while our shipments go direct as logistics allow. This extends product shelf-life and reduces risk, protecting both our users and the environment.

    The Practical Edge: Real Results and Lessons Learned

    From the start, polymer plants using our BPODC have seen improvements in polymerization time, clarity, particle size, and end-use qualities—direct feedback that shapes how we operate. We talk with line engineers at customer sites and get practical feedback on how our BPODC performed under pressure. One batch pushed hard due to a local power spike still finished within spec because of decent headroom in our content sizing and quality.

    Every inquiry for custom formulations gets a technical walkthrough, not a catalog page. We share case files anonymized—what worked, what didn’t, why yields were high, how to avoid common foaming traps, or how upstream monomer quality interacts with BPODC. If a customer proposes a change in grade or handling, we run stability and interaction checks at our own cost. This transparency wins the trust we need to keep long partnerships growing.

    People often ask what to watch most—our top replies remain temperature vigilance, container integrity, and end-to-end documentation. One successful customer implemented monthly joint stock audits, catching one developing delivery issue before a single failed batch.

    What Sets Factory-Direct BPODC Apart

    There are plenty of ways to buy peroxides in today’s global market, many through intermediaries or online aggregators. We manufacture and ship directly, giving us full control over every process variable, content check, storage condition, and shipment tracking. This includes immediate adjustment to regulatory changes, customer specs, or even emergency orders—not possible when chasing distant suppliers or third-party warehouses.

    With decades of combined plant and field experience, our staff knows how every factor—raw material quality, reactor stability, power reliability, even cleaning protocols—affects final BPODC output. Our customers see this play out in consistent results season after season and low rejection rates on incoming goods. When questions arise, nobody gets a generic answer; our managers walk the floor, check records, and talk through solutions anchored in real production data.

    This approach stands apart from trading-based supply, where quality is “as received” and traceability ends at the transporter’s door. Our setup allows full recall trace if something unusual happens. If you ever run into unexplained process shifts, we can match every drum back through to source chemicals, batch numbers, and shipment dates—giving true root-cause answers, not speculative theories.

    Future Developments and Customer-Driven Improvements

    Each year, as new polymerization processes and environmental standards emerge, our R&D team pilots revised BPODC grades, alternative stabilizers, and safer packaging. We field-test these changes at both our plant and long-term customer sites before any rollout. As market needs or regulations shift, we keep customers in the loop, sharing new certificate formats, handling methods, and best practice notes.

    Customers interested in new applications—elastomers, coatings, even some pharmaceutical excipients—rely on our willingness to experiment at scale and bench. We routinely adapt our peroxydicarbonate processes for greater safety margin or narrower content bands, and we tailor these changes through one-on-one engineering dialogue.

    Over time, we’ve also identified cost-saving moves grounded in local workflow. For mid-sized clients, we recently developed storage rental alliances to keep product within optimal temperature and handling protocols near their plants, sparing the outlays for their own dedicated cold rooms.

    In all these efforts, the end-goal remains clear: predictable, safe, and usable BPODC for every qualified polymer process. That’s the standard we hold ourselves to, year after year, batch after batch.