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HS Code |
706010 |
| Cas Number | 79-21-0 |
| Appearance | Colorless, transparent liquid |
| Odor | Pungent, vinegary smell |
| Peracetic Acid Content | ≤ 43% |
| Water Content | ≥ 5% |
| Acetic Acid Content | ≥ 35% |
| Hydrogen Peroxide Content | ≤ 6% |
| Stabilizer | Present |
| Ph | Acidic (typically < 2) |
| Solubility In Water | Completely miscible |
| Boiling Point | Approx. 110°C (varies with concentration) |
| Density | 1.1 - 1.2 g/cm³ |
| Flash Point | 70°C (closed cup, approx.) |
| Decomposition Products | Acetic acid, water, oxygen |
As an accredited Peracetic Acid [Content ≤ 43%, Water Content ≥ 5%, Acetic Acid Content ≥ 35%, Hydrogen Peroxide Content ≤ 6%, Containing Stabilizer] factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Peracetic Acid is packaged in 25-liter high-density polyethylene drums, securely sealed, labeled with hazard symbols, and fitted with a tamper-evident cap. |
| Shipping | Peracetic Acid (≤43%, with ≥5% water, ≥35% acetic acid, ≤6% hydrogen peroxide, stabilized) is shipped as a corrosive, oxidizing liquid (UN 3109). Use approved containers with secure closures. Store upright, away from heat, direct sunlight, and incompatible substances. Transport under cool, ventilated, and dry conditions using proper hazard labeling. |
| Storage | Store Peracetic Acid (Content ≤ 43%, Water Content ≥ 5%, Acetic Acid Content ≥ 35%, Hydrogen Peroxide Content ≤ 6%, with Stabilizer) in a cool, dry, well-ventilated area away from heat, sparks, open flames, and direct sunlight. Use compatible, corrosion-resistant containers. Keep separate from combustible materials, reducing agents, and strong alkalis. Ensure containers are tightly sealed and clearly labeled. |
Applications of Peracetic Acid [Content ≤ 43%, Water Content ≥ 5%, Acetic Acid Content ≥ 35%, Hydrogen Peroxide Content ≤ 6%, Containing Stabilizer] in Industrial ManufacturingAs an experienced producer of high-purity peracetic acid, we supply this material to diverse industries, supporting advanced downstream operations. Below we present detailed application scenarios based on real-world industrial integrations. 1. Disinfection and Sterilization in Food and Beverage ProcessingPeracetic acid plays a critical role in food and beverage manufacturing facilities, particularly for sanitizing processing equipment, conveyor belts, storage tanks, packaging units, and pipelines. Facilities select this chemistry for its strong biocidal action against bacteria, yeasts, molds, and viruses, even at low temperatures, without leaving harmful residues. Operators must comply with food safety regulations, applying the chemical under strictly controlled exposure times and rinsing protocols to ensure safe final products with minimal residual traces. Plants use this chemistry during scheduled clean-in-place (CIP) and surface disinfection cycles to reduce pathogen risks on non-porous contact surfaces as well as for fruit and vegetable wash water treatment. Industry compliance standards
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2. Aseptic Packaging Sterilants in Dairy and Non-Dairy BeveragesAseptic filling plants use this material for packaging sterilization, particularly for single-use cartons, pouches, and PET bottles. It rapidly decomposes after application, minimizing chemical residues without affecting packaging materials or end-product taste. The correct integration of the chemical in vaporized or spray form guarantees microbial deactivation, specifically targeting spore-forming bacteria that survive standard cleaning. Regulatory guidelines strictly control permissible residue levels, with continuous quality monitoring of process steps and final packaged goods. Industry compliance standards
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3. Medical Device and Equipment SterilizationMedical device manufacturers and contract sterilization facilities use peracetic acid aqueous solutions for terminal sterilization of heat-sensitive instruments, surgical tools, and rigid endoscopes. Its broad-spectrum antimicrobial action meets strict hospital infection control protocols. Integration ensures thorough penetration of intricate device structures, with dedicated rinsing steps to remove residues and prevent cytotoxicity hazards in clinical settings. Production plants and reprocessing centers must follow pharmaceutical GMP requirements, verifying every sterilization batch with biological indicators. Industry compliance standards
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4. Pulp and Paper BleachingIn the pulp and paper sector, this material functions as an ecologically preferred alternative to chlorine-based bleaches. Used in the bleaching stages of kraft and sulfite pulping, it enhances lignin removal and brightness while reducing AOX emissions in effluents. Operators precisely meter dosing rates, often in conjunction with hydrogen peroxide and chelants, to match fiber type and desired optical properties. Its integration reduces the formation of toxic chlorinated organic compounds, aligning with stringent environmental controls for water discharge. Industry compliance standards
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5. Wastewater Treatment and Odor ControlMunicipal and industrial wastewater plants utilize this chemistry for advanced disinfection and oxidation of sulfide-based malodors, phenols, and residual COD in effluent streams. Its fast decomposition produces no harmful halogenated byproducts, making it suitable for tertiary treatment applications. Dosage rates are tailored based on influent bioloads, downstream discharge regulations, and targeted odorant/contaminant removal goals. Automated dosing, online chemical sensors, and stringent compliance verification ensure permitted outflow qualities. Industry compliance standards
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6. Pharmaceutical API Manufacturing—Oxidative SynthesisIn pharmaceutical API facilities, operators use this oxidant for specific oxidative steps, such as epoxidation, sulfoxidation, and hydroxylation of selected intermediates. It offers high purity and minimal trace metallic contamination, suitable for sensitive pharmaceutical pathways where reaction selectivity and batch reproducibility are critical. Plants adjust addition rates and temperature profiles to maximize chemical conversion, maintaining GMP validation documentation across production lots. Strict impurity-control measures guarantee regulatory compliance in final API submissions. Industry compliance standards
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Competitive Peracetic Acid [Content ≤ 43%, Water Content ≥ 5%, Acetic Acid Content ≥ 35%, Hydrogen Peroxide Content ≤ 6%, Containing Stabilizer] prices that fit your budget—flexible terms and customized quotes for every order.
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Tel: +8615365186327
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Working in chemical manufacturing means facing a steady demand for reliable oxidizing agents. For years, our facility has dedicated resources to refining one such workhorse: peracetic acid, with concentrations up to 43% active component, accompanied by at least 5% water, at least 35% acetic acid, and hydrogen peroxide at a level not exceeding 6%. We stabilize our formulation for long-term storage and handling. Our clients in water treatment, food processing, healthcare, and dozens of related industries turn to this blend because it balances a high oxidation potential with manageability and safety features—something that unbuffered or unstable mixes just can’t offer.
Peracetic acid isn’t a one-size-fits-all solution. Many commercial blends fall in the 15-22% range, but our higher-concentration solution—up to 43%—addresses specific market needs where powerful action is demanded. This isn’t about inflating numbers for the sake of marketing. A higher peracetic acid content increases payload and efficiency in critical disinfection applications, especially in environments where rapid reduction of microbial contamination holds top priority. By carefully maintaining acetic acid at or above 35%, we ensure robust reactivity while keeping decomposition in check. The 6% maximum for residual hydrogen peroxide meets the best practices we’ve developed, reducing unwanted side reactions while supporting the desired oxidative punch.
Clients used to dealing with basic grades will notice the greater clarity and storage performance in this blend. Stabilizers prevent premature breakdown, extending the product’s working life and supporting predictable dosing in automated systems. On the shop floor, that translates to less downtime and less risk from degraded product.
We adopted kinetic mixing and in-line monitoring in our lines, because we saw what poor quality control can do: pressure spikes, clumping, inconsistent percentages, and even catastrophic bottle failures. With peracetic acid, bland statistics miss the mark. Microvariations in blend composition or stability points ruin process reliability, especially for users integrating the acid into piped disinfection systems or aseptic packaging machinery. That isn’t an abstract risk—we’ve helped clients recover production after buying off-standard solutions elsewhere and learned firsthand what fixes real-world problems.
Through routine feedback and audits, we learned to fine-tune not just overall percentages but the interaction effects between acetic acid, peracetic acid, and hydrogen peroxide. Those components react differently at scale and under shear; formula needs don’t look the same in a spreadsheet as they do in a mixing tank with real ambient humidity and variable raw input lots. By tracking reactions in real time and pulling samples from every batch, we cut out the most common culprits behind off-odors, poor clarity, and sedimentation—issues that can quietly degrade the effectiveness of the whole blend.
The main reason customers stick with this peracetic acid product boils down to what they see on the plant floor: reliable, predictable oxidizing power that matches modern demands for speed and safety. Several features make all the difference:
There’s more to it, but these three differences have made our blend the basis for long-term supply agreements with multinational food companies and regional water utilities alike.
Adding water to the formulation is not just about cost dilution or easier handling. Peracetic acid breaks down rapidly under dry conditions or in the presence of trace metals. Too little carrier water leads to dangerous volatility. With our guaranteed minimum of 5% water, we keep stability during shipping and storage—especially important in warm regions or summer supply runs.
The acetic acid plays an equally critical role—not just as a feedstock precursor but as a stabilizing buffer. In earlier attempts to boost peracetic acid concentration, some manufacturers cut acetic acid too low. The result was fierce but fleeting oxidation, with unpredictable shelf life and higher risks for corrosion or vapor pressure spiking. Our choice to uphold a 35% minimum comes from tracking hundreds of industrial batch runs and listening to partners who process thousands of liters per month. Extra acetic acid sacrifices nothing in terms of activity, but dramatically extends safe shelf life, cuts risk, and ensures that the chemical arrives in peak condition.
From the production side, we take pride in a track record of safe bottling and shipping, but we’ve seen firsthand where end-users get tripped up: confusing high-concentration peracetic acid with milder blends, or assuming “just add water” brings all solutions to the same baseline. Our safety data and field guides emphasize differences: direct contact with this product needs chemical-resistant gloves and proper eyewear.
Many buyers run full safety audits with us before installing new storage tanks or switching from legacy peracetic acid blends. Our technical staff helps end-users develop response plans, eye-wash station placement, neutralization agent stockpiles, and spill containment routines based on their actual shop layouts. Several clients operating 24/7 production have fully integrated our handling training into onboarding and shift-change routines because, in practice, no single policy prevents every splash or vapor release. Training saves real injuries, we’ve watched it work, and we update protocols every year based on reports from our top users.
We’ve walked plant floors and processing rooms across sectors, seeing where our peracetic acid blend fits and where it doesn’t. The solution isn’t for every process—there are cases where a lower-concentration, buffered alternative fits better—but these are the roles that take full advantage:
While our peracetic acid can address many scenarios, we don’t recommend routine use for every sanitation step. Some delicate membranes, certain metals, and soft plastics degrade under strong oxidizers. Our technical team supports clients in assessing material compatibility and schedules plant walk-throughs to verify suitability before a switch.
Our operations are no stranger to logistical headaches—hot warehouses, long trucking distances, and unpredictable handling at receiving docks. Early on, we learned that peracetic acid blends call for careful container choices, leak-proof labeling, and real-time tracking of batch conditions. We now ship in high-density polyethylene drums with vented caps to handle off-gassing, and have worked out routines for warehouse stacking that prevent cross-contamination with incompatible chemicals.
For bulk customers, we supply product-specific documentation on temperature tolerance and storage layout, gathered from years of root-cause analysis on incidents. For instance, several customers operating in subtropical regions reported ballooning and minor cap leaks on early “universal” drums. We worked directly with materials providers to create options that withstand temperature swings without chemical migration or packaging distortion. Our on-site monitoring keeps incoming raw materials and outgoing finished product within narrow tolerance bands—one batch off-spec, and shelf life falls or drum pressures spike.
Each sanitizer and oxidizer tackles unique challenges. Chlorine-based options, for example, remain inexpensive and effective but bring byproduct issues, unpleasant odors, and tough compatibility questions for modern plastic components in food lines. Lower-concentration peracetic acids suit low-throughput or less demanding areas, but require larger volumes, raising storage and supply costs—points regularly shared with us by sanitation supervisors working to keep downtime low.
The real-world test comes during system breakdowns or load surges. We’ve received urgent calls from plant engineers during contamination incidents, asking if lower-strength products can match our 43% solution’s rapid action and throughput. The difference is clear: more potent solutions handle spikes and complex emergencies without a need for increasing dose rates that risk overloading neutralization or rinse systems.
We’ve also seen what happens when users experiment with “homebrew” blends or off-label products. Results include sediment build-up, unpredictable off-gassing, and real corrosion damage to expensive stainless hardware. Our blend, by contrast, results from years of iteration and on-the-ground use reports from industrial clients. This gives engineers and managers alike the confidence to move forward without fear of surprise breakdowns.
Our product’s development didn’t happen in a vacuum—we respond directly to evolving local and international rules governing disinfectant residues, environmental discharges, and worker safety. Years of lab reports, third-party audits, and client-side performance testing have shaped everything from our production line checks to our after-sales training kits.
Regulators have increased scrutiny on microbial reduction in process water, on product flow systems in meatpacking plants, and on outgoing effluents. Fines and recalls drive companies to demand not just any sanitizer, but one with proven record, transparency, and supporting documentation at every stage. As a manufacturer, our responsibility means taking raw data from the thousands of tests we run and turning it into process improvements, not just paperwork. When feedback shows a flaw in storage, handling, or transport, our teams address it at the root, updating both the blend and the usage protocols given to new clients.
Trust can’t be outsourced. Most of our larger clients audit our production and supply chain protocols, sometimes shadowing our QC teams or requesting third-party validation. We open our plant for their inspectors, because nothing undercuts a supply relationship more than a surprise field failure tied to hidden variability in chemical lots. This transparency has built long-term business, surviving commodity price swings and short-term supply disruptions.
Years ago, sustainability was an afterthought for most in the sector, but today, our clients want chemicals that work without lingering in water flows or entering the food chain. Peracetic acid, in properly formulated blends, breaks down into harmless byproducts—acetic acid (essentially vinegar) and oxygen—leaving little downstream residue when used and handled as directed.
Our investment in stabilizers with low environmental impact wasn’t easy or cheap, but it has paid off as new regulations pass. We actively test our blend’s breakdown profile in a range of local wastewater conditions before signing off on a batch formula. Our feedback loop includes both direct sampling—pulling from wastewater effluents after in-plant use—and internal lab simulation, which we run for major clients planning to scale up disinfection rates.
Continued innovation in peracetic acid production has real value. We’re developing new stabilizer systems and piloting tank-connection options that help our customers automate dosing, protecting operators from splash risks and exposure during transfer. As automated systems become more common in mid-size and large plants, we’re helping engineers optimize for both safety and cost, closing the loop between product quality and end-user results.
We don’t rely solely on lab results. Our biggest advances have come from direct conversations with plant managers, sanitation supervisors, and QA teams, both local and global. Customer feedback—problems, workarounds, unexpected successes—help shape not just our formulation, but the advice we give new users. Some shift from cheaper, lower-strength alternatives highlights our product’s better shelf-life, fewer breakdowns, and easier risk management during off-hours emergencies.
Fewer customer service calls about drum failures, less waste from product disposal, and smoother transition after system upgrades trace back directly to our continual improvement approach. Working day-to-day in the sector keeps us honest; if a tweak doesn’t work in actual plant conditions, we fix it. Many of our client partnerships span over a decade, and we take pride in how our willingness to share knowledge and adapt builds lasting relationships.
Chemical manufacturing isn’t just about mixing ingredients and filling drums; it’s a continual push to align what’s possible in the lab with what delivers value and safety at the end user’s site. Our peracetic acid blend was developed as a response to changing demands in critical industries—where reliable, powerful, and safe disinfection can’t depend on cut corners or guesswork.
We’ve seen firsthand—from troubleshooting clogged dosing system pumps to walking plant managers through incident reviews—that the right solution is the one that stands up to real conditions, year after year. As standards rise and applications become more demanding, our focus remains on blending chemistry, experience, and direct feedback to produce an acid formulation that truly integrates into high-stakes operations.
The journey isn’t complete. With each production year, fresh lessons and changes in regulation drive us forward, refining every step from raw material sourcing to end-user training. Those committed to safe, results-oriented operation will always find in us a partner ready to support, innovate, and respond to the challenges that come with modern sanitation and process control.
