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HS Code |
155249 |
| Product Name | Sodium 3-Chloro-2-Hydroxypropane Sulfonate P-10 |
| Chemical Formula | C3H6ClNaO4S |
| Molecular Weight | 216.59 g/mol |
| Appearance | White to off-white powder |
| Solubility | Freely soluble in water |
| Ph Value | 6.0-8.0 (1% aqueous solution) |
| Cas Number | 126-83-0 |
| Storage Conditions | Keep container tightly closed in a dry and well-ventilated place |
| Purity | ≥98% |
| Odor | Odorless |
| Synonyms | Sodium salt of 3-chloro-2-hydroxy-1-propanesulfonic acid |
| Melting Point | 160-165°C (decomposes) |
As an accredited Sodium 3-Chloro-2-Hydroxypropane Sulfonate P-10 factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Sodium 3-Chloro-2-Hydroxypropane Sulfonate P-10 is packaged in 25 kg plastic drums, labeled and sealed for industrial use. |
| Shipping | **Shipping Description:** Sodium 3-Chloro-2-Hydroxypropane Sulfonate P-10 is shipped in tightly sealed, corrosion-resistant containers, typically plastic drums or HDPE bottles. The product should be stored in a cool, dry place away from incompatible substances. Proper labeling, adherence to relevant transport regulations, and use of personal protective equipment are required during handling and transit. |
| Storage | Sodium 3-Chloro-2-Hydroxypropane Sulfonate P-10 should be stored in a cool, dry, well-ventilated area, away from direct sunlight and incompatible substances such as strong oxidizers. Keep the container tightly closed and properly labeled. Avoid moisture exposure to prevent clumping or degradation. Ensure the storage area is equipped with appropriate spill containment and that personnel have access to proper safety equipment. |
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Purity 99%: Sodium 3-Chloro-2-Hydroxypropane Sulfonate P-10 with a purity of 99% is used in electroplating baths, where it enhances leveling and brightness of metal deposits. Viscosity (Low Viscosity Grade): Sodium 3-Chloro-2-Hydroxypropane Sulfonate P-10 of low viscosity grade is used in textile processing, where it improves wetting properties and penetration efficiency. Molecular Weight 200-220 g/mol: Sodium 3-Chloro-2-Hydroxypropane Sulfonate P-10 with a molecular weight of 200-220 g/mol is used in synthetic detergent formulations, where it ensures better emulsification and cleaning performance. Stability Temperature up to 80°C: Sodium 3-Chloro-2-Hydroxypropane Sulfonate P-10 stable up to 80°C is utilized in high-temperature cleaning solutions, where it maintains surfactant efficacy and chemical integrity. Particle Size <50 μm: Sodium 3-Chloro-2-Hydroxypropane Sulfonate P-10 with a particle size less than 50 μm is deployed in powder coatings, where it guarantees uniform dispersion and smooth surface finish. Water Solubility >95%: Sodium 3-Chloro-2-Hydroxypropane Sulfonate P-10 with water solubility above 95% is used in aqueous polymerization, where it enables rapid dissolution and homogeneous polymer matrix formation. Chlorine Content 12%-14%: Sodium 3-Chloro-2-Hydroxypropane Sulfonate P-10 with chlorine content of 12%-14% is used in specialty chemical synthesis, where it acts as a controlled halogenating agent for targeted reactions. pH Stability Range 4-10: Sodium 3-Chloro-2-Hydroxypropane Sulfonate P-10 with a pH stability range of 4-10 is employed in industrial cleaning agents, where it provides consistent surfactant action across variable pH conditions. |
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In our factory, daily production centers on more than just assembling drums and tankers; it focuses on the transformation of essential raw materials into key ingredients that shape countless formulas around the globe. Sodium 3-chloro-2-hydroxypropane sulfonate P-10 serves as a trusted intermediate in the surfactant and epoxy resin modification landscape. Our chemists and operators know firsthand that not all batches are created equal, and the fine details can make or break a downstream process.
Every lot of P-10 emerging from our reactors distills years of development and process optimization. Here, purity isn’t just a label; it traces back to monitored reaction conditions, gradual feed rates, and stringent separation. Sodium 3-chloro-2-hydroxypropane sulfonate P-10, also known under other technical monikers, drives epoxide ring modification and introduces sulfoalkylation into frameworks where standard reagents fall short. With our team repeatedly running spectral analyses—watching the signature peaks of the product and rigorously checking for traces of unwanted by-products—quality forms the cornerstone of our reputation. Chemists and purchasing specialists relying on our shipments expect as little residual monochlorohydrin or sulfate as possible, giving their process the best chance at high, predictable conversion rates.
Our P-10 typically appears as a water-white to pale yellow, viscous liquid. What most users appreciate is its reliable solubility profile. End-users, especially in the resin and surfactant sectors, avoid nasty surprises with blockages or sluggish reactions because we hold our specifications tightly across every batch. In our experience, even slight swings in concentration or unwanted hydrolysate formation can force an entire day’s worth of production onto the reject list. For this reason, batch records and in-process controls aren’t a paperwork burden—they are a cost-saver.
Plenty of operators question why P-10 stands out from similar sulfonated reagents. In daily use, sodium 3-chloro-2-hydroxypropane sulfonate carries both reactivity and stability. Competing additives may foam or destabilize in the presence of high heat or alkaline pH, throwing off reaction balances. Over years of feedback from plant trial runs, we watched labs struggle with materials that either failed to dissolve fully or introduced a tinge of brown as iron or chloride impurity crept in from less refined production lines. By sticking to a stainless and glass-lined system, employing deionized water and filtered air at every step, we cut down on these off-notes, ensuring formulators see consistent brightness and get stability over extended storage.
What differs most between P-10 and cheaper-grade competitors often shows up under stress. Whether a customer in latex manufacturing or textile auxiliaries, challenges frequently emerge in the form of excessive foaming, inconsistent particle size, or unpredictable crosslinking. These downstream issues rarely get solved by broad tweaks in blending—they come from starting with reagents that behave as intended, with clean, pure sulfonate ready to react. Certificates of analysis trace every shipment, and lot samples remain archived should any query arise months later. This approach not only protects our customers’ brands but shields large-scale operators from the batch-to-batch drift found in low-purity sulfonates on the wider market.
Most customers demand more than a box-ticking ingredient; they want reliable integration into their existing recipes. P-10 has carved out a practical niche for those seeking to boost anionic content without introducing unwanted color, odor or tough-to-remove residues. The molecule’s chlorinated and sulfonated structure allows functionalization of epoxy resins, surfactant bases, and specialty polymer backbones. In the realm of water treatment chemicals, it’s the go-to intermediate for crafting tailor-made dispersants and detergents.
We’ve worked alongside customers chasing challenging performance features—toughness in paint resins, flexibility in bindings, improved wetting in textile processing. Often, formulators credit their success to what at first seemed like a small tweak: the switch to P-10, replacing erratic purity or shifting away from alternatives that left halos or required extra neutralizing washes. Real-life plant experience consistently shows that selecting a reagent of this pedigree reduces troubleshooting down the line.
For those scrutinizing certificates and laboratory data, our standard product reaches a purity profile that meets or outperforms the benchmarks set by international and major regional manufacturers. We know that holding to a consistent active content—calculated by titration and regularly checked via NMR—drives both yield and product safety in applications where every step counts. Too many years in the industry have shown us where shortcuts lead: inconsistent viscosities, gelling, or costly downtime for cleaning out-of-spec products from pipelines and reactors. Each lot gets checked for sodium content, residual mineral acid, and color, because a transparent appearance remains a strong marker for the cleanest synthesis route.
Optimization starts not with the spreadsheet but with the noise, smells, and pace of an actual plant. Early on, we watched our own reactors run hot or slow as we tweaked addition rate, agitation speed, and cooling. Results from trial-and-error flowed back to our engineers as concrete process improvements. Our operators do not accept waste or rework as business-as-usual; every deviation triggers a root-cause review, often revealing where better sensor placement or improved raw material storage cuts future defects. Consultation with downstream blenders and packers pressed us to improve pumpability and shelf-stability—getting away from sedimenting formulations that had plagued some grades shipped in the past.
Shipments leave our warehouse only after a triple cross-check between plant, quality, and documentation. We aim to reduce total lifecycle costs for every customer by keeping their focus on product development, not back-end troubleshooting.
Chemists often ask for more than a supply—they want close collaboration. We answer questions not from the position of remote analysts but from years solving practical issues in our own facility and hearing candid feedback from long-term customers. In adhesives manufacturing, one miscalculation in sulfonate amount can mean delamination or too-soft bonds. Our technical support team draws on production experience to suggest adjustment ranges and storage advice. For detergent houses transitioning toward more sustainable processes, P-10’s readily biodegradable profile (supported by published studies on related sulfo compounds), checks off environmental boxes while avoiding the persistence issues flagged with older-generation surfactants.
A pattern emerges in batch trials: higher reproducibility, minimized off-grade output, and straightforward cleanup for workshop staff. Since P-10 delivers a stable outlet for further functionalization, startup chemists transitioning from research to scale-up find the curve less steep. Large processors who run multi-ton reactors benefit similarly; every detail we refine in our own process translates into real-world gains at our customers’ sites.
Demand cycles for sodium 3-chloro-2-hydroxypropane sulfonate P-10 swing across the calendar, shaped by fluctuating feedstock prices, regulatory changes, and evolving end-market expectations. During global disruptions, such as material shortages or export restrictions, our inventory controls and supply relationships give us some resiliency. Because we run synthesis rather than just blend purchased intermediates, there’s direct control over scheduling. This means manufacturing capacity can be flexed based on customer forecasts, not just market speculation.
We’ve learned to build transparent communication with users. Advanced warnings about shipment delays, clarity on trace impurities, and sharing methods for handling material in less-than-ideal storage settings all flow out of this focus. Formulators frustrated by stop-start deliveries or opaque sources have switched to our P-10, often after months of lost production and troubleshooting. In practice, a well-run manufacturer saves partners more money on unexpectedly smooth scale-up than on fractional discounts for inferior raw material.
Some process lines require customization. On occasion, users request a tighter pH range, lower salt content, or altered water fractions to suit novel applications. We treat these as solvable engineering problems rather than hurdles. If a paint manufacturer needs a batch with reduced haze at low temperatures, our team sets up a pilot run on our own lines, testing parameters before committing to the full order. Documenting tweaks and reporting side effects, such as changes in viscosity or storage life, form part of responsible production—not just box-checking compliance steps.
We also work with knowledge partners and research groups seeking new uses for the compound—ranging from specialty water migration blockers in cable sheathing to nascent projects involving injectable hydrogels for biomedical devices. Our belief is that proactive information sharing reduces bad surprises later in the product’s use.
Generating, storing, and transporting P-10 safely emerges from experience, not just data sheets. In facilities across climates, controlling humidity has proven pivotal for preventing material thickening and crystallization. Bulk tanks hold heated jackets and level gauges specifically calibrated for this intermediate. Our teams rotate inventory using a strict FIFO logic to keep flow smooth, even through sudden order surges or off-season lulls.
Training means more than signs or manuals—it flows from paired work along the line, where seasoned hands lead new hires through transfer pump operation, sample bottle labeling, and incident response. This operational expertise, grounded in repeated routine rather than quarterly audits, pushes down workplace risk and gives partners an assurance built on lived practice, not just intention.
Unlike blenders or resellers, direct control translates into meaningful quality and security for our partners. Traceability runs from the incoming raw material lots through final packaging, allowing buyers an audit trail for every delivered drum. Adjustments to process conditions at our site, rather than at an off-site third party, streamline corrective measures if anything goes off-spec, minimizing delivery lag and uncertainty.
Competitors relying on fluctuating supply chains often encounter unexpected cost runs, shipment mix-ups, or even mislabeling from less transparent sources. By overseeing our own synthesis lines, we limit those surprises. Regular customer feedback shapes our ongoing process modifications—if a plant in Europe or Asia reports a challenge, a trial adjustment runs overnight rather than getting delayed by third-party coordination or approval.
Building up storage know-how took more than one winter and a string of hot summers. P-10 preserves best in sealed drums under moderate, dry conditions. Operators in humid, unconditioned warehouses may encounter caking or viscosity jumps, so we reinforce the value of shaded and temperature-controlled storage—lessons borne from actual offloads in suboptimal environments.
We’ve worked with logistics teams to schedule deliveries ahead of seasonal extremes, and on occasion provided heated trucks or insulated containers to maintain fluidity during transit. Customers getting containers with slushed or congealed material report back promptly, prompting targeted advice or swift resupply. Scaling production and logistics operations to cope with these real-world disruptions marks the difference between trading on paper and delivering practical value.
As downstream industries face mounting scrutiny, attention turns to life cycle analysis and emissions. The conversion efficiency of our P-10 synthesis process stands at the higher end of the range, meaning fewer unreacted materials and less waste discharged for treatment. Solvent recovery units and closed-loop water cycles shield both the operator and surrounding communities from avoidable exposure, showing sustainability isn’t hitched to slogans but the steady tightening of operational basics.
For customers navigating requirements tied to REACH registration or extended producer responsibility, documentation runs deeper than surface-level forms. We keep on hand the supporting studies and batch histories often required for audits, and continue improving the process to support both productivity and environmental stewardship in tandem. Buyers can’t simply rely on theoretical “green” designations—they must see real operational improvements backed by auditable records and measurable reduction in source and downstream impacts.
For many, sodium 3-chloro-2-hydroxypropane sulfonate P-10 forms part of a complex mix whose performance hinges on every link in the supply chain. It’s the result of chemistry, yes, but just as much about engineering judgment, day-to-day logistics, and feedback from application specialists. Customers signaling new demands—lower salt, tighter consistency, new grade developments—don’t get met with a web form alone. In our plant and through our technical support, real people answer with specifics, often rooted in past jobs, failures, and incremental fine-tuning.
This approach means problems get solved at the source, not pushed downstream. Supply systems built on direct manufacturer relationships yield more predictability, especially in an era marked by regulation and resource stress. Those trusting our P-10 get more than a product; they gain a working partnership aimed at sharper process control, lower complaint rates, and more predictable schedules.
In talking with R&D labs and established chemical groups investing in next-generation resins and specialty compounds, we sense a deeper push into functional versatility. Sodium 3-chloro-2-hydroxypropane sulfonate P-10 rarely serves as a headline ingredient but reliably unlocks enhanced performance, green chemistry routes, and operational safety. Its role will expand as industries look for better sulfonation agents and as traceability creates growing market incentives for transparent, fully-audited production.
Our plant staff watch for shifts in demand—a trend to ultralow salt content or new solubility specifications. We embrace product evolution, not just as a market response but as the natural output of paying close attention to real use data, operational feedback, and expanded pilot testing. It’s this grounding in hard-earned experience that underpins our optimism for the future applications of P-10 and our dedication to those who trust their production pipeline to our hands.