Products

Sodium Peroxydicarbonate

    • Product Name: Sodium Peroxydicarbonate
    • Alias: Sodium percarbonate
    • Einecs: 239-290-0
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    385395

    Chemical Name Sodium Peroxydicarbonate
    Other Names Sodium percarbonate, Sodium carbonate peroxide
    Chemical Formula Na2C2O6
    Molar Mass 178.01 g/mol
    Appearance White crystalline solid
    Solubility In Water Moderate
    Density 2.14 g/cm³
    Melting Point Decomposes before melting
    Oxidizing Agent Yes
    Cas Number 15630-89-4

    As an accredited Sodium Peroxydicarbonate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing A sturdy 25 kg white HDPE drum, labeled "Sodium Peroxydicarbonate," features hazard symbols, batch number, and moisture-resistant tamper-evident seal.
    Shipping Sodium Peroxydicarbonate should be shipped in tightly sealed containers, protected from moisture, heat, and direct sunlight. It is classified as an oxidizing agent and should be transported according to relevant regulations for hazardous materials. Ensure proper labeling, document compliance, and segregation from incompatible substances during transit to prevent hazardous reactions.
    Storage Sodium peroxydicarbonate should be stored in a cool, dry, and well-ventilated area, away from heat, moisture, and incompatible substances such as acids, reducing agents, and combustibles. The container must be tightly closed, labeled, and made of materials resistant to corrosion. Protect from sunlight and sources of ignition. Storage should comply with local regulations for oxidizers.
    Application of Sodium Peroxydicarbonate

    Applications of Sodium Peroxydicarbonate in Industrial Manufacturing

    Sodium peroxydicarbonate serves as a reliable solid oxidizer in diverse process industries. Its stable oxygen release profile, non-chlorinated byproducts, and ease of handling make it suited for controlled-release systems, bleaching technology, and specialized surface treatments. Below, we detail major application tracks verified in modern industrial practice, with technical reference to real compliance protocols, recommended formula shares, direct production integration points, and actual finished product formats.

    1. Textile and Garment Bleaching

    In textile finishing lines, manufacturers incorporate sodium peroxydicarbonate for high-whiteness optical bleaching of cellulosic fibers. The controlled oxygen generation supports batch and continuous processes, reducing reliance on hydrogen peroxide while maintaining fabric tensile strength and brightness. Compliance with stringent colorfastness requirements mandates careful titration of the oxidant load during pad-batch or cold bleaching cycles, balancing bleaching effectiveness with residual trace content in effluent output.

    Industry compliance standards

    • OEKO-TEX Standard 100 Annex 4 for chemical inputs
    • ZDHC MRSL (Zero Discharge of Hazardous Chemicals Manufacturing Restricted Substances List)
    • ISO 105-C10:2006 (Textiles — Tests for colour fastness — Part C10: Colour fastness to washing with soap or soap and soda)
    • REACH Regulation (EC) No.1907/2006 for EU textile chemicals

    Typical usage ratio

    • 0.8%–2.5% w/w (solid-on-weight-of-fiber, SOWF), adjusted based on substrate absorbency, desired white index, and process time

    Downstream process integration

    • Integrated into pre-bleaching or main bleaching baths; powder added directly to liquor, dissolved for batch or continuous bleaching lines, monitored for active oxygen content to control reaction kinetics

    Final product types

    • Bale-bleached cotton yarn
    • Ready-to-dye cellulosic fabric rolls
    • Optically brightened garment pretreatments
    • Pre-bleached home textile goods

    2. Detergent and Cleaning Agent Production

    Major home and institutional cleaning product manufacturers utilize sodium peroxydicarbonate as an active oxygen source for non-chlorine bleach formulations. Its compatibility with both powder and tablet formats supports stable shelf life and efficient release in automatic dishwasher, laundry, and multipurpose cleaning concentrates. The oxidant is optimized in synergy with organic builders and surfactants to maximize stain decomposition within specified pH ranges, ensuring regulatory compliance for cleaning performance and safety.

    Industry compliance standards

    • EU Detergent Regulation (EC) No.648/2004
    • U.S. EPA Safer Choice program criteria
    • GB/T 13174-2014 (General technical conditions of laundry detergents, China)
    • ISO 4315:2022 (Detergents — Test method for evaluation of cleaning performance)

    Typical usage ratio

    • 3%–12% w/w in powder detergents (adjusted for tablet, granular, or monodose capsule applications according to required bleaching strength and dosage form stability)

    Downstream process integration

    • Dry blending or fluid-bed granulation with builders and enzymes during detergent base manufacturing; direct compaction for tableting lines, or included in slurry for spray-dried powder

    Final product types

    • Machine dishwashing tablets
    • Heavy-duty laundry powders
    • Multipurpose stain remover sachets
    • Oxygen bleach booster granulates

    3. Paper and Pulp Brightening

    In pulp and paper mills, sodium peroxydicarbonate is incorporated as a medium-alkaline-stage oxidizer. It achieves selective lignin removal while limiting damage to cellulose chains, supporting high-brightness mechanical and chemical pulps. Its low corrosivity compared to other inorganic peroxides protects process equipment and aligns with effluent discharge regulations, supporting integration in closed-loop bleaching systems to minimize environmental load.

    Industry compliance standards

    • EU BAT (Best Available Techniques) for Pulp and Paper Industry (Directive 2010/75/EU)
    • ISO 11465:1993 (pulp brightness and chemical composition)
    • GB 3544-2008 (White pulp for papermaking, China)
    • EPA 40 CFR Part 430 (U.S. Effluent limitations guidelines for pulp, paper, and paperboard)

    Typical usage ratio

    • 0.5%–2.0% w/w (dry pulp basis), dosage adjusted according to base lignin content, process pH, and target ISO brightness

    Downstream process integration

    • Added at the initial or intermediate bleaching towers after pulp washing; mixed in for controlled reaction at 60–80°C; spent bleaching liquor monitored for residual active oxygen before discharge.

    Final product types

    • High-brightness printing paper
    • Bleached kraft pulp bales
    • Tissue and hygiene paper stock
    • Specialty filter and photographic base paper

    4. Swimming Pool and Spa Disinfection

    Commercial pool and spa operators depend on sodium peroxydicarbonate for non-chlorine shock treatment regimens. The quick-release active oxygen oxidizes organic contaminants and residual chloramines, supporting bathers' safety by reducing irritating byproducts. This oxidant is measured and dosed in accordance with local pool chemical safety rules, integrating into weekly or biweekly maintenance protocols for both indoor and outdoor aquatic installations.

    Industry compliance standards

    • EN 15077:2013 (Chemicals used in treatment of swimming pool water — Sodium peroxydicarbonate requirements)
    • BS EN 16713-3:2016 (Domestic swimming pools — Essential requirements — Part 3: Water treatment and filtration)
    • ANSI/APSP/ICC-11 2019 (American National Standard for Water Quality in Public Pools and Spas)
    • Pool Water Treatment Advisory Group (PWTAG) UK safety guidelines

    Typical usage ratio

    • 8–20 g/m3 (ppm active oxygen) per shock treatment; frequency and quantity adjusted based on bather load, organic contamination, and baseline oxidant levels

    Downstream process integration

    • Dosed directly to the pool or spa basin as granulate or fast-dissolving tablet, with automated or manual feeder systems; followed by circulation for uniform dispersal

    Final product types

    • Non-chlorine shock treatment sachets
    • Active oxygen pool & spa oxidizer tablets
    • Commercial disinfectant granules
    • Weekly pool oxidizing regimens

    5. Denture and Oral Appliance Cleaners

    Leading oral hygiene manufacturers formulate active cleaning tablets and powders with sodium peroxydicarbonate for domestic and professional denture care. The compound rapidly releases reactive oxygen in aqueous solution, ensuring deep cleaning action on organic and inorganic residue without corroding polymer and metal surfaces. Each production lot is quality-checked to meet oral safety and cosmetic product purity.

    Industry compliance standards

    • EU Cosmetic Regulation (EC) No.1223/2009 (for oral hygiene products)
    • U.S. FDA CFR 21 Part 356 (Oral care product monograph)
    • ISO 16409:2006 (Dentistry — Oral hygiene products — Manual interdental brushes and cleaners)
    • Ph. Eur. 7.0 (European Pharmacopoeia for excipients in oral care)

    Typical usage ratio

    • 10%–18% w/w per tablet or powder dose, optimized for stain lift and microbe reduction while avoiding excessive foaming

    Downstream process integration

    • Blended into tablet mass or powder mix, granulated and compressed under dust-controlled GMP conditions; tested for reactive oxygen release and disintegration time

    Final product types

    • Denture cleaner effervescent tablets
    • Orthodontic appliance cleaning powders
    • Nightguard and aligner soak solutions (powder-to-liquid systems)
    • Professional dental bath sachets

    6. Laboratory and Analytical Oxidation Reagents

    Analytical and environmental laboratories depend on sodium peroxydicarbonate as a controlled oxygen donor for COD (Chemical Oxygen Demand) titrations, sample pretreatment, and oxidative digestion protocols. The precise active oxygen content supports predictable assay conditions and meets purity requirements for trace analysis, avoiding background contamination in sensitive determinations.

    Industry compliance standards

    • ISO 15705:2002 (Water quality — Determination of the chemical oxygen demand index - Small-scale sealed-tube method)
    • EN ISO 11969:2008 (Water quality — Determination of total organic carbon)
    • EPA 410.4 (Determination of chemical oxygen demand in wastewater)
    • GLP (Good Laboratory Practice) for chemical reagents

    Typical usage ratio

    • 10–40 mg per 25 mL assay or according to specific reaction stoichiometry; titrated to match target organic load or protocol requirements

    Downstream process integration

    • Dosed directly into sealed tubes, digestion vessels, or aqueous sample vials during oxidative sample prep or COD determination steps; excess decomposed and waste neutralized post-reaction

    Final product types

    • Single-use COD test kits
    • Reagent vials for automated water quality analyzers
    • Sample pretreatment powder sachets
    • In-lab chemical oxygen donor packs
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    Certification & Compliance
    More Introduction

    Sodium Peroxydicarbonate: What Sets It Apart for Industrial Use

    An Introduction From the Factory Floor

    Many chemicals promise high performance and reliability; very few deliver results as consistently as sodium peroxydicarbonate. On our production lines, experience shapes every step. We know this compound doesn’t just fill a niche—it creates new opportunities in processing and formulation. Every day, our teams put sodium peroxydicarbonate to work, drawing on years spent perfecting purity, tailoring particle size, and keeping safety front-and-center. We see the raw demand: from advanced cleaning agents, textile bleaching, papermaking processes, to specialty water treatments, each sector challenges us to deliver a product that works reliably, mixes clean, and stores safely.

    Key Specifications and Product Model

    The sodium peroxydicarbonate that leaves our plant goes through checks for active oxygen content, loss on drying, bulk density, and particle size range. Our most widely produced model features an active oxygen content in the range of 11–13%. Moisture levels stay consistently low—a critical property for stable storage and consistent reactivity. Sizing matters, so our standard offers a particle size distribution tuned to flow smoothly through industrial feeders and dissolves quickly in process solutions. In side-by-side trials, this gives lower dust potential and easier handling. As manufacturers, we track these metrics with calibrated in-line monitoring tools, not only to pass lab specifications but to make sure customers get the same quality with every shipment.

    Production Process: More Than Just Mixing and Reacting

    Sodium peroxydicarbonate starts from high-purity sodium carbonate. The behavior in downstream applications often comes down to how well this base converts to the peroxydicarbonate form—over- or under-reacted batches fall outside of spec and never reach customers. Oxygenation and drying parameters demand real attention. A shift in air temperature on the line will alter purity, so plant technicians monitor control parameters directly and revisit them when something shifts—unlike batch-traders or repackagers, we know at a glance when the process produces off-grade material. This focus on the root chemistry gives our product a stability edge under long-haul shipping and in warehouse storage.

    Performance In Use: What We Hear From the Shop Floor

    In cleaning and bleaching, sodium peroxydicarbonate’s active oxygen release leads the way as a safe, easy-to-use alternative to peracetic acid or hydrogen peroxide. Operators tell us it dissolves quickly in water, even at low temperatures. Effluent from textile lines shows bright, clear results without the harsher residues that some percarbonate-based products leave behind. In high-throughput laundries, workers see reduced fabric wear over multiple cycles, a difference that only comes with controlled oxygen release rather than harsh, instant reactivity.

    Manufacturers using our sodium peroxydicarbonate in papermaking or specialty pulp treatments tell us that fines and pitch settle out quickly, residue stays low, and machine surfaces stay cleaner for longer. Wherever there’s a need for oxygen donation—oxidative cleaning, pigment removal, disinfection—this compound shows efficiency that just doesn’t show up when operators switch to blended peroxide powders or lower-grade oxidizers. Less downtime, easier machine cleaning, and lower maintenance costs go straight to the bottom line.

    We measure feedback not just in phone calls or email queries, but in routine product returns. Across dozens of annual contract renewals, consistent repeat business from demanding end-users stands as the real barometer for sodium peroxydicarbonate’s value. It’s used widely in hard surface cleaners, denture and appliance cleansers, and even as a mild oxidant for specialty organic syntheses. This versatility doesn’t come by accident—it’s baked into how we run our lines, train our crews, and monitor the whole production flow from start to finish.

    What Sets Sodium Peroxydicarbonate Apart

    On the surface, it’s easy to confuse sodium peroxydicarbonate with more familiar oxidizers like sodium percarbonate. Both release oxygen on contact with water; both can brighten fabrics and strip stains. Look closer, though, and some clear differences emerge—especially for those familiar with plant processes. Sodium peroxydicarbonate releases oxygen at a slightly steadier rate, particularly at moderate pH, and delivers a higher total active oxygen yield per weight unit. In our own trials, this steadier release allows for longer cleaning cycles with less risk of overheating or sudden foam generation.

    Sodium peroxydicarbonate’s higher bulk stability means it withstands mechanical agitation and moderate humidity better than simple percarbonate blends. We see reduced caking in storage bins and hoppers even after several months. Customers who switched over from legacy oxidizers have reported fewer process interruptions due to bridging or clumping, which means less manual cleaning and more automated, continuous throughput.

    Unlike some oxygen-releasing powders, sodium peroxydicarbonate works across a broad temperature range. It doesn’t require insulated storage or special mixing tanks, which matters to operators who lose productivity each time a line stops to clear a blockage. In cold-weather processing environments, product performance stays consistent, so cleaning strength doesn’t dip on chilly mornings. With hydrogen peroxide and peracetic acid, safety demands limit handling; with sodium peroxydicarbonate, plant teams work with standard PPE and less hazard training.

    The difference in performance becomes sharper in specialty applications, such as pool and spa shock treatments. High-purity, slow-dissolving sodium peroxydicarbonate corrects cloudy water, destroys chloramines, and works alongside most chlorine systems without leaving behind persistent by-products. Unlike cheaper percarbonate or oxone formulations, we hear fewer complaints about skin irritation or chemical odors after treatment, especially in smaller, poorly ventilated facilities.

    Handling, Safety, and Storage Considerations

    Plant workers appreciate a chemical that doesn’t sting eyes, burn skin, or off-gas irritating fumes. Airborne dust from sodium peroxydicarbonate is low with typical precautions—dampers and air curtains in critical areas cut it even further. In bulk storage, we bag the product with moisture barriers sealed right on the line, stopping caking and active oxygen loss. Unlike liquids, powders don’t leak, and this particular compound stays free-flowing even in humid coastal warehouses along the trade routes we serve.

    On packaging days, QC teams sample each batch for fine particle content, since oversized grains slow dissolution in end-uses and fines tend to float, missing the reaction tank inlet. It’s this attention to detail that preserves customer trust, not just during pilot-scale deliveries, but after multi-ton orders. Our crews check every truck for container integrity, and every day, we see the difference in how few complaints roll in compared to trading houses or gray imports.

    Comparing Alternatives: Real-World Choices

    Many customers ask why sodium peroxydicarbonate, with its higher unit cost, should edge out cheaper sodium percarbonate or basic hydrogen peroxide solutions. On plant audits, we show how the oxygen yield per dose stretches further at comparable concentrations. Since sodium peroxydicarbonate’s active oxygen content holds for months in unopened containers, shipments don’t go stale—even if customs delays slow delivery or facilities scale production up or down seasonally.

    We sometimes walk customers through swap-outs for sodium percarbonate. The bottom line: peroxydicarbonate gives a tighter control over reaction stages, doesn’t spike pH so dramatically, and falls harmlessly into neutral sodium carbonate and water after reaction. No legacy build-up, no odor, and no vigilance over venting excess gas in non-industrial settings. Users see stronger initial results and fewer repeats for stubborn soils, saving on labor and rinse water costs.

    Compared to hydrogen peroxide, sodium peroxydicarbonate removes the risks of liquid spills, overflows, or fast decomposition under sunlight. Product managers making the switch usually report improved workplace safety stats—no emergency eyewashes activated, no skin burns, and no waste management issues from spent solutions. Operators can handle powder, slug-dose reaction tanks, and then walk away until the cycle finishes—simpler training, fewer mistakes.

    What Challenges Remain: The Manufacturer’s View

    No industrial chemical is perfect, and sodium peroxydicarbonate presents a few persistent challenges. Handling large volumes means static can build up, so plant teams install grounding wires and use bonded transfer chutes. Any oxidizer will react with residual organic dust in the plant, creating hot spots; keeping these compounds away from starch or flour remains good practice. Even though shelf-life is good, open bags pick up moisture and drop active oxygen content—so we train customers to reseal after every pour.

    Switching over from sodium percarbonate sometimes calls for recalibration on mixing and dosing equipment, since peroxydicarbonate’s higher density and lower solubility alter feed rates. We run on-site start-ups and provide a few easy rule-of-thumb ratios for calculating equivalent doses in common applications. Some long-standing users prefer a blend of both chemicals for tricky stains or unpredictable feedstock batches, and our engineering teams help them dial in those mixtures---because, at the end of the day, chemical manufacturing is about supporting real-world processes, not forcing one-size-fits-all solutions.

    Cost always gets attention. As our own feedstock prices rise and global demand for advanced cleaning agents climbs, costs shift. We continually work on bulk purchasing arrangements for sodium carbonate and plant investments targeting higher output at lower energy input. Upgrades to process automation allow QC techs to flag deviations before a single out-of-spec kilogram leaves the line, cutting waste and supporting tighter cost controls, so customers see steady prices.

    Every batch’s journey carries lessons. Sometimes, an unexpected spike in humidity or heat will push a blend close to caking, requiring rework and eater energy bills during drying. Our maintenance schedule features frequent filter changes and fan checks; this carries over to customers who adopt similar preventive routines, seeing lower downtime in their production cycles. Chemical manufacturing rarely waits for textbook conditions—success in this field means staying flexible, sharing best practices, and improving line setups as the environment dictates.

    Opportunities Moving Forward

    As regulatory scrutiny tightens globally over hazardous chemicals, sodium peroxydicarbonate stands out as a substitute for compounds attracting increased restrictions. It enters wastewater streams as sodium carbonate and carbon dioxide, both well-tolerated by most municipal processing systems. Upstream, reforms in plant air control, effluent treatment, and bulk handling let us offer customers a product they can stand behind during audits and compliance checks.

    Market demand for lower-hazard, highly effective cleaning agents continues to outpace generic sales of caustic bleaches or strong acids. Through partnerships with detergent manufacturers, food processing companies, and even specialty chemical labs, sodium peroxydicarbonate secures a crucial role in the move toward “greener” industry. Our in-house R&D teams work directly with partner facilities, running pilot batches, stress-testing packaging, and developing new blends that leverage peroxydicarbonate’s stable, high-oxygen delivery at lower total chemical use. The next step looks at optimizing our own utility usage and scaling to deliver larger volumes at an improved carbon footprint, building a supply chain that rewards long-term, responsible customers.

    Our teams also see an uptick in small-scale demand from makerspaces, specialty food processors, and decentralized labs, all drawn by sodium peroxydicarbonate’s easy handling and reliable reactivity. Unlike more volatile agents, it fits well into distributed shipment models. Orders arrive in tip-top condition with every shipment; no special containers or tight temperature tracking required. Because every kilogram produced meets our specs, small operators see the same benefits as industrial giants: high purity, safe storage, easy measurement, strong and predictable results.

    Direct Experience: Lessons From the Plant

    Everything said above comes not from brochures, but from years behind the control panel, filling order books, and troubleshooting batch inconsistencies right on the line. We see new batch operators master handling in a single shift; we see tenured staff trust the product to work as intended, rain or shine. Transitioning away from older oxidizers often brings skepticism—few want to break what seems to work. But presenting side-by-side cleaning results, highlighting the reduced irritant complaints among staff, and tracking lower downtime seals the case.

    Missteps in scaling, modifications to packaging, and shifts in process chemistry teach lessons money can’t buy. We now design bag seals for one-handed operation and install batch traceability on every ton for full accountability. If a process deviates, we can trace it back in hours, not days. Chemistry isn’t just about molecules—it’s about the people who use them and the systems that deliver them. At our facility, sodium peroxydicarbonate gets made, packed, shipped, and supported by teams that understand what industrial users face every day. From the loud, dust-filled loading docks to the climate-controlled final QC labs, reliability drives every round of improvements.

    Supply chain strains in recent years reinforced the importance of close coordination. Our solution: connecting closer to end-users, sharing real-world observations and trial data, staying nimble enough to tweak production lines for urgent orders. This doesn’t just keep contracts flowing; it keeps actual product moving safely, minimizing idle time in customer plants. Through seasonal spikes and regulatory curveballs, our loyalty goes beyond the sale: we remain ready to answer questions as formulations shift or new uses develop.

    Conclusions From the Manufacturing Perspective

    For anyone weighing options in oxidizers, sodium peroxydicarbonate bridges the gap between reliability, safety, and performance. We know its strengths and its quirks because our teams make it from scratch, troubleshoot the hiccups, and celebrate its wins. As the market expands and technical demands keep rising, the compound’s consistent results, clean handling, and strong safety profile stand out more than ever. In this plant, and in the facilities we serve, sodium peroxydicarbonate earns trust the old-fashioned way: through real, measurable performance and years of hands-on experience.

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