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Sodium 3-Bromopropanesulfonate

    • Product Name Sodium 3-Bromopropanesulfonate
    • Alias 3-Bromopropane-1-sulfonic acid sodium salt
    • Einecs 246-667-6
    • 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

    847825

    Chemical Name Sodium 3-Bromopropanesulfonate
    Cas Number 28501-15-1
    Molecular Formula C3H6BrNaO3S
    Molecular Weight 241.04 g/mol
    Appearance White to off-white powder
    Solubility Soluble in water
    Melting Point Decomposes above 250°C
    Ph 1 Solution Around 6.0-8.0
    Storage Conditions Store at room temperature, tightly closed
    Synonyms 3-Bromopropane-1-sulfonic acid sodium salt
    Purity Typically ≥97%
    Hazard Statements Irritant
    Ec Number 249-067-4

    As an accredited Sodium 3-Bromopropanesulfonate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Sodium 3-Bromopropanesulfonate, 25g, packaged in a sealed amber glass bottle with clear labeling and hazard warnings for safe storage.
    Shipping Sodium 3-Bromopropanesulfonate is shipped in tightly sealed containers, protected from moisture and incompatible substances. It is labeled according to regulatory requirements and accompanied by a Safety Data Sheet (SDS). Standard shipping follows local, national, and international regulations for transport of non-flammable, non-toxic, but potentially irritant chemicals. Handle with appropriate precautions.
    Storage Sodium 3-Bromopropanesulfonate should be stored in a tightly sealed container, away from moisture and direct sunlight. Keep it in a cool, dry, and well-ventilated area, separate from incompatible substances such as strong acids or oxidizing agents. Properly label the container and ensure storage in compliance with local regulations and the chemical’s safety data sheet (SDS) recommendations.
    Application of Sodium 3-Bromopropanesulfonate

    Applications of Sodium 3-Bromopropanesulfonate in Industrial Manufacturing

    Sodium 3-Bromopropanesulfonate serves as a niche but highly targeted intermediate and functional additive across several demanding industrial verticals. With in-depth integration into specialty chemical synthesis, it supports precise control of molecular structures and performance across selected downstream production environments.

    1. Pharmaceutical Intermediate Synthesis

    As a sulfonate-containing haloalkane, this specialty raw material functions as a key alkylating agent during multi-step synthesis of active pharmaceutical ingredients and advanced intermediates. Chemists benefit from its high selectivity for sulfonation and bromination reactions, making it vital for constructing bioactive molecules with sulfonic acid moieties. Controlled incorporation improves downstream purification, resulting in high-purity APIs with improved pharmacokinetic profiles.

    Industry compliance standards

    • ICH Q7 – Good Manufacturing Practice Guide for Active Pharmaceutical Ingredients
    • USP-NF monographs for relevant APIs
    • EU GMP Part II (API)
    • 21 CFR Part 211 (FDA cGMP for finished pharmaceuticals)

    Typical usage ratio

    • 0.8%–2.5% molar equivalent relative to primary substrate; precise ratio depends on specific API structure and stage of introduction in synthesis route

    Downstream process integration

    • Introducted in early or mid-stage alkylation/sulfonation step, often under controlled temperature and inert atmosphere, preceding isolation and purification steps

    Final product types

    • Antiviral agents containing sulfonate groups
    • Oncology intermediates requiring selective haloalkane functionality
    • Small-molecule API precursors

    2. Electroplating Additive for Nickel and Alloy Baths

    This material acts as a grain refiner and stress reducer in nickel and nickel alloy electroplating processes. Its specific reactivity modifies the crystal morphology during electrodeposition, which enhances brightness and smoothness of the metallic coating. Additive dosage and process parameters control leveling, making it indispensable for achieving high-specification corrosion-resistant and decorative finishes in electronics and automotive plating.

    Industry compliance standards

    • ISO 9587 – Metallic and other inorganic coatings for electroplating
    • RoHS 2011/65/EU (for restricted substances in plating additives)
    • IEC 62321 for hazardous substance assessment
    • ASTM B571 for adhesive strength—metals

    Typical usage ratio

    • 0.03–0.12 g/L in the electroplating bath; optimized based on desired deposit thickness and substrate metal compatibility

    Downstream process integration

    • Dosed into the aqueous plating electrolyte along with primary salts and buffering agents, with continuous monitoring to maintain additive levels during plating runs

    Final product types

    • Decorative nickel-plated components for consumer electronics
    • Precision electromechanical connectors
    • Automotive trim and fasteners

    3. Synthesis of Specialty Surfactants and Zwitterionic Compounds

    Advanced surfactant manufacturers rely on this raw material for introducing brominated sulfonate groups, critical for the preparation of zwitterionic surfactants and betaines. The controlled reaction pathway ensures targeted balance of hydrophilicity and lipophilicity, improving detergency and anti-static performance in finished blends. Careful adjustment of molar ratios and reaction sequences is essential for producing high-purity specialty surfactant components meeting stringent application specifications.

    Industry compliance standards

    • ISO 9001:2015 Quality Management Systems (for specialty chemicals)
    • REACH (EC) No 1907/2006—Substance Registration and Safety Data
    • OECD Test Guidelines for biodegradability and toxicology
    • APEO-free and VOC limits per downstream customer request

    Typical usage ratio

    • 0.5–1.8 molar equivalents per mole of amine or amide reactant; adjusted by desired hydrophilic-lipophilic balance in target surfactant

    Downstream process integration

    • Fed into alkylation stage prior to quaternization or amidation, utilizing controlled temperature and pH for efficient conversion and minimal byproduct formation

    Final product types

    • Low-foaming industrial surfactants for textile or metalworking fluids
    • Zwitterionic cleaning agents
    • Anti-static additives for plastics and fibers

    4. Intermediate for Ion-Exchange Resin Production

    Manufacturers of high-performance ion-exchange resins incorporate this raw material during sulfonation steps for producing strong acid cation exchange matrices. The controlled functionalization enhances ion-exchange capacity while preserving bead structure and mechanical stability. This upstream input allows downstream processors to meet water treatment and industrial purification performance targets, with documented traceability to regulatory standards.

    Industry compliance standards

    • ANSI/NSF 61: Drinking Water System Components – Health Effects
    • ISO 9001:2015 (for resin production facilities)
    • EU Drinking Water Directive 2020/2184
    • EN 1508: Chemicals used for the treatment of water intended for human consumption

    Typical usage ratio

    • 1.0–2.5 wt% based on dry polymer substrate mass; determined by desired capacity and functional group density targets

    Downstream process integration

    • Added during sulfonation of styrene-divinylbenzene copolymer beads under controlled reaction temperature and humidity, followed by washing and neutralization prior to bead grading

    Final product types

    • Industrial water softening resins
    • Mixed-bed polisher resins for ultrapure water
    • Catalyst-support resins in chemical processing

    5. Advanced Organic Synthesis Building Block

    Custom synthesis organizations and contract manufacturers use this material as a selective chain-extension agent and masked sulfonic acid precursor in the development and scale-up of fine and specialty chemicals. It provides a ready point of introduction for subsequent substitution or elimination, facilitating efficient construction of complex frameworks for agrochemical actives, specialty monomers, and heterocyclic compounds.

    Industry compliance standards

    • ISO 9001:2015 (for custom synthesis)
    • GHS/CLP Regulation (EC) No 1272/2008—classification and labeling
    • REACH substance tracking and ECHA notification
    • Confidential Disclosure and Chain of Custody Assurance (per client need)

    Typical usage ratio

    • Varies 1.0–3.0 molar equivalents per step; established during process R&D based on molecular complexity and downstream conversion efficiency

    Downstream process integration

    • Charged into controlled substitution, elimination, or coupling steps within multi-stage synthetic sequences; handled under inert gas with constant analytical monitoring

    Final product types

    • Agrochemical intermediates with sulfonate functionality
    • Specialty monomers for high-performance polymers
    • Nonionic and anionic specialty additives
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    Certification & Compliance
    More Introduction

    Sodium 3-Bromopropanesulfonate: A Perspective from the Manufacturer

    Introduction

    From decades of hands-on production, we’ve learned that choosing the right chemical for a synthesis project shapes the entire workflow. Sodium 3-bromopropanesulfonate stands out as a specialty intermediate that bridges research ambitions with real-world process performance. Most of our clients work in the pharmaceutical, biotech, and advanced materials space; they depend on us to provide substances that perform predictably from kilogram to multi-ton scale. Each batch represents countless hours spent fine-tuning our steps, checking for consistency, and avoiding surprises that would slow down a project or impact downstream chemistry.

    Product Overview and Known Applications

    Our sodium 3-bromopropanesulfonate comes as a white crystalline powder, soluble in water and ethanol. The chemical structure features a three-carbon chain with a bromine atom at one end and a sulfonate group attached. We’ve tested this material under a wide range of lab and pilot plant conditions. The feedback from researchers is clear: in nucleophilic substitution and sulfoalkylation reactions, no other reagent delivers the same blend of mild reactivity and clean work-up needed by demanding projects.

    Chemists often use sodium 3-bromopropanesulfonate to introduce a sulfonate group into heterocycles, amino alcohols, and other core molecules. It acts as a useful building block when fine-tuning water solubility or ionic conductivity in a molecule. In battery research, some teams have explored it for making electrolyte additives. Drug manufacturers describe its neutral salt profile as a big help in making downstream purification much simpler. Over time, this product’s reputation has grown through word of mouth rather than slick brochures—most inquiries reach us because someone in the community suggested trying it out for a real problem in synthesis.

    Specifications and Manufacturing Insights

    We manufacture sodium 3-bromopropanesulfonate in-house using a process that puts quality and safety up front. Typical particle size falls between 100 and 300 microns. Every lot tests above 98% purity via HPLC, and we monitor trace metals and halides to meet customer requirements for high-end uses. Residual solvents and moisture content get checked in each batch, because these details shape how smoothly a reaction will run. If a client sends feedback about shelf stability or product flow, we use that data in our next campaign—sometimes it means tweaking drying temperatures, sometimes it’s a question of improved filtration or packaging.

    During each stage—sulfonation, bromination, crystallization—our technical staff follows strict protocols for traceability. No shortcut pays off in chemical manufacturing. Raw materials are sourced from audited vendors and lot-tracked through the building. Vacuum drying and closed transfer limit environmental exposure, and each drum carries production dates for backward traceability. We don’t cut corners, because we’ve lived through the pain of fixing problems from careless handling. Picture a reactor charge that foams over or an unexpected off-white color from minor impurities, causing rework and waste—by tracing origins, lessons turn into tighter specifications and practical improvements.

    Comparisons with Other Propanesulfonates

    Industry chemists sometimes debate the merits of sodium 3-bromopropanesulfonate against its cousins, like sodium 1-bromopropanesulfonate or the related chloropropanesulfonates. We’ve run side-by-side trials, both at the request of clients and for our own investigation. What shows up every time is the broader reactivity of the 3-bromo isomer in certain situations—especially ring closures and functional group transformations that are intolerant of harsher leaving groups. Substitution at the third carbon reduces side reactions and often keeps the process clean and robust, so downstream purification is less of a chore. Chlorine analogs are sometimes cheaper, but tend to resist nucleophilic attack or produce more persistent byproducts, raising the cost of waste disposal and lowering overall yield after accounting for extra purification.

    Sometimes clients want to use alcohol-based intermediates or a tosylate, imagining cost savings in raw materials. What they find in the plant is that the reactivity profile shifts—reactions slow down or incomplete conversions stack up. Sodium 3-bromopropanesulfonate slots into multi-step processes thanks to its water-soluble, salt-based composition. Easy separation from organic layers speeds up liquid-phase reactions. Compared to more hazardous alkyl bromides, this compound offers a practical compromise, delivering the reactive bromo group without the volatility or powerful odor. For scale-up work, that means fewer containment headaches, better air quality, and less downtime spent handling hazardous materials.

    Lessons from Field Use

    No chemical sees as much real-world scrutiny as an intermediate moving through the development pipeline. Teams in API manufacturing value sodium 3-bromopropanesulfonate for consistent performance during the transition from lab to pilot plant. Consistency cuts both ways: we monitor feedback not just in terms of “pass/fail,” but also how the product fits into changing regulatory frameworks or productivity targets.

    A project lead once described how the compound’s narrow melting point range meant there were fewer surprises during scale-up. During complex sulfonation reactions, trace impurities can snowball into off-cycle events. By keeping crystal habits uniform and minimizing variable flow behaviors, we help customers reduce unplanned equipment cleaning and wasted solvent. We've seen that attention to these practical aspects isn’t just about chemistry—it speeds up qualification runs and saves tangible operating hours.

    Hypothetical problems always creep up during critical late-stage runs. If a client flags unexpected foaming or viscosity changes, we can trace lots or spot-check physical properties at short notice. Our in-house analytics make a difference here—we run GC-MS, Karl Fischer moisture titration, and trace metals screening to rule out upstream sources. Most troubleshooting ends up being a conversation between operators on both sides about how a specific source behaves differently in a customer's own synthesis line as compared to what we see on site.

    Process Improvements Driven by User Needs

    A recurring conversation with buyers involves shelf life and flow behavior. Early on, customer labs observed that some batches would take up moisture when left even briefly in open-air transfer. Each round of feedback led to revised packaging—now, multi-layer polyethylene liners inside the product drum offer a barrier against ambient humidity, and we ship with detailed guidance for long-term storage at both room temperature and refrigerated conditions. These iterative tweaks arise from a two-way relationship: chemists in our own labs run accelerated aging tests, but the reality in production is always richer than isolated stability data.

    Some customers require tighter control over trace metals or specific contaminants—pharmaceutical and electronics clients set exact parameters that go beyond typical industry thresholds. We brought in inductively coupled plasma optical emission spectroscopy (ICP-OES) and ion chromatography to confirm that specifications get met batch after batch. Investment in new instrumentation and trained staff pays off when auditors visit or a manufacturer faces regulatory scrutiny. Through years of experience, we've learned the value of documentation—every test sheet, certificate, and shipment record tells the story of a product’s progress from raw material to finished drum.

    Reducing Waste and Improving Safety

    Handling sodium 3-bromopropanesulfonate at an industrial scale brings its own set of challenges. Years ago, we noticed that fine particulate escaping during transfers resulted in loss and cleanup costs. Engineering controls like dust collection and closed transfer tanks turned out to be the answer—not just for yield, but for air quality and worker comfort. After implementing these measures, we saw a drop in employee reports of eye or skin irritation and cut our recorded waste quantities in half.

    Proper labeling and training matter more in chemical manufacturing than anywhere else. We hold monthly safety briefings to underscore storage guidelines and correct PPE. Near-miss reporting gets treated seriously—one misstep with a sealed drum in humid weather can cause caking or off-odor, leading to rework or, in worst cases, off-specification product. Over the years, we’ve incorporated these lessons into our training modules and share them openly with buyers, since a safer process at both ends leads to fewer surprises and tighter regulatory compliance.

    Support for Process Development and Scale-Up

    Clients often struggle with the jump from lab to plant scale. A new intermediate might perform as expected at gram scale in a glass flask, but throw a curveball at 100 kilograms in stainless steel. The difference sometimes comes from factors few anticipate—particle size changes how a powder flows, packaging affects moisture pickup, and longer mixing times alter reaction rates. We help by sharing our own scaling data, blending practical advice with insights from other users.

    Our technical service team does more than answer product questions—they walk through each upstream and downstream procedure, from charging and mixing to isolation and waste disposal. If a customer flags a bottleneck, we check whether the issue traces back to raw material quality, mixing routines, or even temperature fluctuations. By pooling insights from multiple real-world runs, we help turn process hiccups into streamlined steps, improving overall productivity and cycle time.

    Instead of just relying on standard spec sheets, our most successful collaborations grow through open feedback and shared troubleshooting. Whether it's an academic researcher needing just a few grams or a contract manufacturer ordering drums for a multi-ton campaign, our focus stays on practical results. By listening closely to each user's feedback, we update product handling recommendations and, when possible, redesign processes to fit emerging technical requirements.

    Market Shifts and Industry Demand

    As the fields of pharmaceutical and specialty materials evolve, so do the demands placed on versatile intermediates. Sodium 3-bromopropanesulfonate used to be a niche chemical; now, requests come from sectors as diverse as electrolyte development, water-treatment additive research, and advanced monomer synthesis. Part of its attraction stems from tighter environmental requirements—manufacturers look for ways to replace volatile, high-risk alkylating agents without sacrificing product purity or throughput.

    Over the last decade, an uptick in regulatory scrutiny and waste management costs led buyers to reconsider the total lifecycle of every reagent. This compound fits the bill for many, since it blends reactivity with a relatively benign environmental profile. It doesn’t produce heavy-metal waste streams, and proper process design enables simple neutralization and salt recovery. Many users shift from traditional halogenated alkylators after running pilot studies and seeing real savings in waste disposal and operator training.

    We keep tabs on legislative and regulatory trends so that our batches always reflect what’s safe and acceptable for global supply chains. Traceability has moved from a "nice-to-have" to a hard requirement, resulting in new documentation standards. Every customer wants assurance that the product won’t trigger compliance issues during audits or, worse, cause downstream bottlenecks just when filings need to go in.

    Continuous Improvement and Sustainable Manufacturing

    Continuous improvement stands at the core of what we do. On the shop floor, operators collect process data and flag potential trouble spots—sometimes minor, often easily overlooked, but always essential for long-term reliability. Our manufacturing team believes in proactive maintenance and regular calibration, rather than hurried fixes after a breakdown. By tracking cleaning cycle durations, energy usage, and yield loss batch by batch, we spot trends and implement solutions that directly impact end-user satisfaction.

    Sustainability also figures into every conversation. Ten years ago, green chemistry felt like an add-on—increasingly, it’s a stated goal from R&D to bulk production. We’ve shifted to closed washing loops, recycled water, and, where possible, locally sourced feedstocks. Our partners challenge us to lower not just greenhouse gas emissions but also overall process waste. These efforts feed back into stronger supplier relationships and cost stability over longer horizons.

    The global supply chain remains in flux. Raw material price spikes, freight delays, and shifting demand patterns all flow downstream to the producer. With sodium 3-bromopropanesulfonate, we invest in supply redundancy—trusted sources, dual-qualified vendors, and practical contingency plans. These choices cost more up front, but keep projects moving on schedule. Our approach means customers see stable supply and reliable documentation, instead of missed deadlines or inconsistent quality.

    Customer Collaboration and Long-Term Value

    Our relationships with customers spring from more than just a shipping record. We’ve supported process development teams through rushed clinical timelines, troubleshooting late-night production runs, and navigating unexpected export hold-ups. Sometimes the chemistry goes as planned; sometimes a shift in regulatory climate or a new process requirement throws a wrench in old routines. Either way, clear communication makes a difference.

    We encourage buyers—new and long-standing alike—to share both positive results and sticky process challenges. Often, what seems like a small variation in handling or storage can hint at bigger opportunities for improvement. By pooling our knowledge with customers, missed shipments and bottlenecks turn into new handling guides or improved packaging. As more research emerges about the downstream effects of intermediates in product life cycles, we stay at the front by anticipating regulatory changes and proactively updating material handling.

    Some of our proudest moments come from hearing back from clients years after an initial order. Success in process development, increased yields, or a newly approved pharmaceutical all reflect not just our chemistry, but the ongoing feedback loop between producer and end user. That’s what keeps us committed to investing in infrastructure, training, and real-world support.

    Conclusion: Practical Value in Every Drum

    The story of sodium 3-bromopropanesulfonate in our business is about more than molecular diagrams or product codes. Experience shapes every improvement and each batch builds on lessons learned—sometimes in response to a new technical hurdle, sometimes because a customer shared their pain points with us directly. Whether supporting pharmaceutical research, specialty material development, or new avenues in battery technology, our priority remains providing a material that works predictably on the shop floor and in the final application. By staying focused on practical outcomes, hands-on feedback, and reliable supply, we play our part in advancing the field—one batch at a time.