Chlorinated acid
- Product Name: Chlorinated acid
- Chemical Name (IUPAC): Chloroacetic acid
- CAS No.: 68442-42-4
- Chemical Formula: CCl3COOH
- Form/Physical State: Liquid
- Factroy Site: Wusu, Tacheng Prefecture, Xinjiang, China
- Price Inquiry: sales7@bouling-chem.com
- Manufacturer: Bouling Chemical Co., Limited.
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- In terms of specification, Chlorinated acid is supplied with high chlorine content and controlled acidity, making it suitable for industrial water treatment applications.
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HS Code |
800364 |
| Chemical Name | Chlorinated acid |
| Appearance | Colorless to pale yellow liquid |
| Odor | Pungent, chlorine-like |
| Chemical Formula | Varies (commonly HClO, HOCl, or mixtures) |
| Ph | Strongly acidic (typically < 2) |
| Solubility In Water | Highly soluble |
| Density | Approximately 1.05 g/cm³ (varies by formulation) |
| Stability | Unstable, decomposes in light or at elevated temperatures |
| Corrosivity | Highly corrosive to metals and tissue |
| Oxidizing Properties | Strong oxidizer |
| Boiling Point | Decomposes before boiling (varies by composition) |
| Typical Use Concentration | 0.1% - 10% in solutions |
| Reactivity | Reacts with organic matter, reducing agents, and ammonia |
| Flammability | Non-flammable |
| Common Uses | Disinfection, bleaching, water treatment |
As an accredited Chlorinated acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Chlorinated acid is packaged in a sturdy 25-liter HDPE drum, clearly labeled with hazard warnings, chemical name, and handling instructions. |
| Container Loading (20′ FCL) | Chlorinated acid is shipped in 20' FCL containers, securely packed in drums or IBCs, ensuring safe, compliant international transport. |
| Shipping | Chlorinated acid should be shipped in corrosion-resistant, tightly sealed containers, clearly labeled with hazard information. It must be transported upright, with secondary containment to prevent leaks or spills. Shipping should comply with applicable hazardous materials regulations, ensuring temperature control and protection from moisture, heat, and incompatible substances during transit and storage. |
| Storage | Chlorinated acids should be stored in tightly sealed, corrosion-resistant containers—such as glass or specific high-density polyethylene—within a well-ventilated, cool, dry, and designated chemical storage area. The storage location should be clearly labeled, away from bases, organic materials, and sources of ignition. Proper spill containment and emergency equipment must be accessible, and direct sunlight should be avoided to prevent decomposition. |
| Shelf Life | Chlorinated acid typically has a shelf life of 1 year, stored in tightly sealed containers, away from heat, light, and moisture. |
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Purity 99%: Chlorinated acid Purity 99% is used in semiconductor etching, where it ensures precision micro-patterning with minimal residue. Viscosity 240 cP: Chlorinated acid Viscosity 240 cP is used in textile bleaching processes, where it allows uniform penetration for consistent whiteness. Stability temperature 120°C: Chlorinated acid Stability temperature 120°C is used in high-temperature metal cleaning, where it maintains reactivity without thermal degradation. Molecular weight 84.46 g/mol: Chlorinated acid Molecular weight 84.46 g/mol is used in pharmaceutical synthesis, where it provides controlled reaction rates for high-yield active ingredient formation. Particle size <1 micron: Chlorinated acid Particle size <1 micron is used in surface treatment of electronics, where it achieves fine spread for optimal surface activation. Melting point -34°C: Chlorinated acid Melting point -34°C is used in cold environment decontamination, where it remains effective at sub-zero temperatures. pH <1: Chlorinated acid pH <1 is used in industrial descaling applications, where it rapidly dissolves mineral buildup to restore equipment efficiency. Corrosion inhibition additive: Chlorinated acid Corrosion inhibition additive is used in oilfield pipeline cleaning, where it protects metal integrity during acidization. Density 1.18 g/cm³: Chlorinated acid Density 1.18 g/cm³ is used in chemical formulation blending, where it ensures accurate dosing for consistent mixture outcomes. Solubility in water 100%: Chlorinated acid Solubility in water 100% is used in wastewater treatment, where it provides complete dispersion for thorough contaminant removal. |
Competitive Chlorinated acid prices that fit your budget—flexible terms and customized quotes for every order.
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- Chlorinated acid is manufactured under an ISO 9001 quality system and complies with relevant regulatory requirements.
- COA, SDS/MSDS, and related certificates are available upon request. For certificate requests or inquiries, contact: sales7@bouling-chem.com.
Chlorinated Acid: A Manufacturer’s Perspective on Solving Real-World Demands
From the manufacturing floor, watching how industrial chemistry continues to push boundaries, chlorinated acid stands out in daily operations. As a direct producer, we see this compound as more than another line item—it’s a cornerstone in dozens of processes where precision and results matter every day. Putting years of hands-on experience into every batch, our team learns directly from the challenges faced in waste treatment, chemical synthesis, textile processing, and metal surface preparation. We’ve seen enormous gains for customers who choose carefully between chlorinated acid and other acidic agents. Real-world differences grow out of composition, kinetics, and how well a product matches intended downstream use—not simply from purity certificates or data sheets.
Characteristics That Define Chlorinated Acid
So what sets chlorinated acid apart? The answer lies at the molecular level: the addition of chlorine atoms to an acid radically changes how it reacts and how end-users can apply it. We focus heavily on controlling chlorination levels during synthesis. At our plant, tight monitoring of temperature and residence time means we can offer several models, each with distinct chlorine concentrations and pH values. This translates to predictable reactivity. Our most requested grades range from low-chlorine (for subtle oxidative properties) to high-chlorine (where customers want a strong, immediate attack on contaminants or organic residues).
In everyday manufacturing, the difference you notice between standard mineral acids and chlorinated acid lies in the byproducts and speed of the reaction. With proper formulation, chlorinated acid can target organic or biological fouling that stumps traditional acids—without producing massive off-gassing or unpredictable secondary reactions. It gets deployed in water treatment for precise algae and biofilm removal and in specialized cleaning of pipes where organic buildup thrives. Industries tied to electronics and galvanics depend on high-chlorine models because a small margin for error exists on high-value metal parts. We’ve watched clients in these sectors cut downtime significantly, strictly based on product choice.
Understanding Real-World Applications
There’s no substitute for feedback gathered at the installation site. On one end, textile customers rely on chlorinated acid to bleach and scour fabrics in a single step, streamlining production cycles. The textile wash water from batched or continuous systems shows markedly fewer organic residues by the time it reaches our partner treatment plants. In pulp and paper, process engineers deploy highly chlorinated models for effluent management, handling tough lignin streams where generic acid fails. Rather than hoping bulk commodity acid works, specifying the right chlorinated model lets plants keep to tighter environmental discharge goals—avoiding fines and shutdowns linked to color or organic pollution.
In metal finishing, our chlorinated acid models take advantage of selective reactivity between chlorine and oxidizable metal residues. This control enables precise derusting and descaling. In on-site tests, corrosion is more evenly managed compared to standard hydrochloric acid, especially on exotic alloys or where operators can’t risk pitting. We’ve worked with automotive and aerospace lines that tracked measurable reductions in part rejection thanks to cleaner, less aggressive processing. Over years, those savings multiply. Clearly, it’s less about theoretical performance and more about predictable outcomes in tough manufacturing environments.
Comparing Our Models: Practical Lessons From the Plant Floor
Most of our chlorinated acid output falls into three main grades: low, medium, and high chlorine. Several years back, our engineering team standardized these batches for reliability. Low-chlorine acid remains popular in facilities balancing reactivity and safety—utility plants, for example, where controlling staff exposure is a non-negotiable. It cleans without releasing sharp fumes typical of more concentrated acids. Plant managers give high marks for minimizing PPE demands and avoiding frequent ventilation system upgrades.
Medium-chlorine options deliver the muscle for industrial cleaning, supporting clients who convert organic sludges or scale into discharge-safe streams. Waste processors choose these models to post-treat effluents, stripping out brown-and-yellow color bodies before water meets a discharge permit. We’ve taken calls from facility heads who ran side-by-side pilot tests: when they swapped generic acid for our medium-grade chlorinated acid, their COD (chemical oxygen demand) readings fell by more than a third, all else being equal. Lower COD means smoother audits, lower surcharges, and clearer water—all of which matter every day.
Our high-chlorine models serve the specialty chemical industry, where precision is crucial. Bleaching applications in pulp and paper arise as routine use cases. Clients in these sectors appreciate how the increased oxidative strength ties closely to batch yield and consistency, not just theoretical maximum outputs listed on spec sheets. We emphasize strict quality assurance before each shipment, with batch tracking and chlorine concentration tests built into each production run. We never forget that small errors in chlorine content can cascade into hours (or days) of errors at the customer’s site—real accountability drives every production shift.
Contrasts With Conventional Acids
When clients ask about differences, conversations always come back to outcome and side effect. Hydrochloric acid, sulfuric acid, and phosphoric acid have their place. From our experience, these chemicals excel at bulk neutralization, pH control, and inorganic scale cleaning. They operate without introducing chlorinated byproducts, which can be a regulatory benefit where halogenated waste faces restrictions. That said, users sometimes end up increasing dosage or repeating cleaning cycles when dealing with situations high in organic loading or biological matter. Our observations from on-site troubleshooting visits confirm that switching to the appropriate chlorinated acid model reduces total chemical usage—and the labor tied to stubborn residue removal.
Another reality involves process safety. Clients often voice concern about chlorine release, but proper handling protocols, rigorous training, and stable product formulation make incidents rare. We offer training and documentation because reliable product performance alone doesn’t guarantee safe, efficient operation. Customers who treat staff education as a cornerstone get measurable benefits: longer equipment life, smoother audits, and fewer workplace injuries. This boots-on-the-ground learning never makes a technical data sheet but resonates with plant teams who deal with product daily.
Observations on Sustainability, Handling, and Waste
From a manufacturer’s standpoint, sustainability claims ring hollow unless backed by operational discipline. The inevitable reality: every acid requires attention to environmental responsibility. Chlorinated acid often gets flagged for chlorinated organics in waste streams. We’ve worked directly with environmental engineers to address that. Our bulk customers appreciate frank discussions and pilot support, adjusting dosing range or applying follow-up neutralization steps where needed. Years of tracking regulatory trends mean we adjust formulations and recommend process modifications as governments tighten discharge targets. Winning loyalty means helping clients anticipate—not just react to—evolving standards.
Bulk delivery presents another learning point. Accurate labeling and robust containment remain essential, but we don’t just ship and forget. The volume of handling and the risk of accidental exposure are higher in busy plants—every new facility gets direct support from our technical crew, not just written instructions. We collect feedback on drum size, valve reliability, and storage system compatibility, making plant-specific adjustments where possible. Our goal is always safe, efficient transfer with product losses and exposure risks held to a minimum. We have learned that fast, direct manufacturer support prevents many avoidable accidents or production hiccups.
Balancing Productivity and Regulatory Risk
Navigating the tension between throughput and compliance characterizes manufacturing today. Each year brings new scrutiny on discharges, including trace chlorinated compounds. We stay close to regulatory trends and adjust formulations accordingly. Over the past decade, we worked hand-in-hand with downstream users—from landfill leachate plants to paper mills—modifying product blends and supply cadence to help customers meet emission goals. This partnership goes further than commodity trading: it’s about solving real operational puzzles together.
One example stands out. As new regional wastewater regulations landed over the last five years, we saw a surge in requests for technical support, lab pilots, and emissions modeling. In one paper mill, side-by-side trials with old versus new chlorinated acid grades resulted in 22% less absorbable organic halide (AOX) in the discharged effluent. Further process tweaks, developed in collaboration between our engineers and the user’s in-house team, pushed this still lower. The result: regulatory compliance, risk reduction for the client, and a permanent improvement in their corporate environmental reporting. These are gains you can see in black-and-white on annual filings—and in the relationships we build on trust.
Supporting Reliability Through Direct Partnerships
We often encounter the notion that industrial acid supply is all about lowest cost and fastest shipment. Real-world practice keeps proving otherwise. Production stability and repeatable results require more: consistent product, rapid troubleshooting, and honest communication about batch changes or delivery logistics. No abstract promise matches having a direct manufacturing contact who knows what’s being delivered, in what form, and how it will behave under plant conditions. By working through problems in real time, we forge relationships that survive even as supply chains tighten, tariffs rise, or commodity price swings bite into annual budgets.
Take the example of a semiconductor manufacturer we’ve worked with for over a decade. Their lines demand not only high purity but exacting batch-to-batch consistency. Fluctuations as small as 0.1% in chlorine content or trace metals can derail an entire production sequence costing millions. By tightly integrating our plant’s QA/QC with their in-house analytical lab, we catch and resolve anomalies long before bulk product ever arrives at their dock. This kind of upstream-downstream coordination isn’t for show; it means zero tolerance for surprises, faster root-cause analysis, and fewer rejected runs. Over time, these partnerships eliminate many unseen costs for both sides.
Technical Innovations and Future Outlook
Staying relevant as a chlorinated acid producer demands constant investment in people and process. Over recent years, our R&D team has advanced both synthetic control and impurity removal, cutting undesirable byproducts and streamlining purification. We have incorporated advanced monitoring—inline sensors, automated dosing feedback, and tighter process analytics. These investments result in higher-quality acid and smoother transitions between different production runs. Our goal is to make every shipment as predictable as the last, regardless of batch size or changing input stock. We take pride in feedback from customers who notice smoother operations months after switching.
Beyond production, our technical service engineers work to anticipate new chemistry challenges. Industries using less water, running at higher throughput, or dealing with changing raw feeds come to us for pilot-scale trials. We’ve designed specific grade tweaks based on feedback from bio-refineries and food processors needing non-residual cleaning—developments that were impossible with bulk commodity acids. We share these lessons learned with partners, knowing that tomorrow’s best practices start with today’s field experience.
Risks, Realities, and Solutions for Industrial Users
Real challenges exist in working with chlorinated acid, as with any potent chemical. Industry headlines occasionally highlight accidents or improper disposal. We treat these examples seriously, investing in direct user education rather than relying on paperwork alone. Our factory provides on-site demos, updated handling protocols, and emergency drills for both new and ongoing customers. Our team gets feedback from operators, gathering insights that shape future product tweaks or process improvements. The trust required to implement these changes only comes from showing up and solving problems together.
Waste management teams have shared that the biggest stumbling block in handling chlorinated acid waste comes from unpredictable byproducts. We respond with two approaches: building batch tracking and audit trails into every shipment, and offering on-demand technical troubleshooting. Where local rules shift suddenly, we provide bondable written confirmation of batch contents, chlorine profiles, and secondary analysis. Our technical crew often helps install, monitor, and refine neutralization systems or alternative process steps to limit environmental risk. These hands-on partnerships continue long after the initial sale, because each plant runs just a bit differently. We view our role as collaborators in productivity, reliability, and compliance.
Listening and Learning: The Path Forward for Manufacturers
No product stays relevant by standing still. As new industries emerge and old ones adapt, chlorinated acid faces new tests. Our factory’s team listens closely to feedback from every sector: direct calls with buyers, on-site process walk-throughs, and close tracking of plant performance data. These lessons become part of our ongoing product improvement. In one striking example, a regional water district tested a post-treatment tweak for seasonal algal blooms—sharing real-time data and pitfall analysis with our chemists, which resulted in a tailor-made product blend for future seasons. This ongoing dialogue forms the backbone of innovation in a crowded, demanding market.
The tighter environmental rules and calls for greater transparency keep shaping the future of chlorinated acid manufacturing. Automated traceability, upgraded analytical labs, and real-world application pilots all play a part in keeping ahead. Our commitment is simple: never cut corners on quality, data integrity, or support, and always stand with partners as the landscape shifts. Whether for industry veterans or new entrants, the message remains clear from our plant: the right chemical, used properly, boosts safety, efficiency, and reliability—and that matters more than any sales brochure can ever show.
