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1-(2-Hydroxy-3-Sulfopropyl)-Pyridinium Betane

    • Product Name 1-(2-Hydroxy-3-Sulfopropyl)-Pyridinium Betane
    • Alias CSPyP
    • Einecs 242-894-7
    • 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

    247658

    Chemical Name 1-(2-Hydroxy-3-Sulfopropyl)-Pyridinium Betane
    Molecular Formula C8H11NO4S
    Molecular Weight 217.24 g/mol
    Appearance White to off-white solid
    Solubility Soluble in water
    Ph Neutral to slightly acidic (aqueous solution)
    Cas Number 15471-17-7
    Storage Conditions Store in a cool, dry place
    Structure Type Zwitterionic compound
    Synonyms Pyridinium, 1-(2-hydroxy-3-sulfopropyl)-, inner salt

    As an accredited 1-(2-Hydroxy-3-Sulfopropyl)-Pyridinium Betane factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing White plastic bottle with screw cap, labeled with product name, concentration, hazard warnings; contains 50 grams of 1-(2-Hydroxy-3-Sulfopropyl)-Pyridinium Betane.
    Shipping 1-(2-Hydroxy-3-Sulfopropyl)-Pyridinium Betane is typically shipped in tightly sealed containers, protected from moisture and direct sunlight. It is transported as a non-hazardous material under normal conditions, but careful handling is required to avoid spillage. Temperature control is not usually necessary, but storage in a cool, dry environment is recommended.
    Storage 1-(2-Hydroxy-3-Sulfopropyl)-Pyridinium Betane should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizers or acids. Protect from moisture and direct sunlight. Proper labelling and use of personal protective equipment are recommended to ensure safe handling and storage of the compound.
    Application of 1-(2-Hydroxy-3-Sulfopropyl)-Pyridinium Betane

    Applications of 1-(2-Hydroxy-3-Sulfopropyl)-Pyridinium Betane in Industrial Manufacturing

    1-(2-Hydroxy-3-Sulfopropyl)-Pyridinium Betane, as manufactured by our facility, is an advanced functional zwitterionic compound applied in several specialized downstream chemical sectors. We support customers globally in optimizing processes for electroplating, water-based pigment dispersions, photographic product manufacturing, advanced coating additives, and electronic materials. The following sections document verified application scenarios, broken down by actual industrial utility and required technical parameters.

    1. Acid Copper Electroplating (Decorative and Functional)

    Electroplating manufacturers use this raw material as a high-performance leveling and brightening agent in acid copper baths, contributing to smoother deposit morphology and enhanced luster across various substrate geometries. Our product enters the formulation at critical stages to support consistent deposit quality across large-scale or high-precision applications, directly impacting downstream electronics, automotive parts, and hardware components.

    Industry compliance standards

    • ISO 1456:2023 (Metallic coatings—Electroplated coatings of nickel, nickel plus chromium, copper plus nickel plus chromium)
    • RoHS Directive 2011/65/EU & amendment (Restriction of Hazardous Substances in electrical and electronic equipment)
    • IEC 62321 (Determination of certain substances in electrotechnical products)
    • GB/T 2423.17-2008 (Environmental Test for Electric and Electronic Product—Test Ka: Salt mist)

    Typical usage ratio

    • 0.5–1.5 g/L, adjusted based on bath makeup, current density, and target brightness level; precise dosing determined by substrate complexity and desired throwing power.

    Downstream process integration

    • Introduced during electroplating bath preparation after acid and copper salt dissolution; maintained in solution, with periodic top-up based on analytical bath monitoring and Hull cell tests.

    Final product types

    • PCB circuit boards
    • Automotive lighting reflectors
    • Decorative sanitary hardware (handles, faucets)
    • Precision electronic connectors

    2. Water-Based Pigment Dispersant for Inkjet and Printing Inks

    Formulators in the ink and digital printing sector incorporate this compound as a pigment dispersant and wetting agent for water-based inkjet formulations. It improves pigment stability, controls particle aggregation, and enhances color development, thus ensuring reliable jetting by modern printhead arrays and uniform color density on coated and uncoated media.

    Industry compliance standards

    • ISO 2846-1:2017 (Graphic technology – Color and transparency of printing ink sets for four-color printing)
    • EN 71-3:2019 (Migration of certain elements from inks on toys)
    • REACH Regulation (EC) No 1907/2006 (Registration, Evaluation, Authorization and Restriction of Chemicals for industrial ink production)
    • EN 646:2018 (Paper and board intended to come into contact with foodstuffs—Transfer of inks)

    Typical usage ratio

    • 0.2–0.8% w/w relative to pigment mass; dosage adjusted based on pigment surface area, solvent/water ratio, and required storage stability period.

    Downstream process integration

    • Added during pigment milling or post-milling let-down phase; dispersant is blended before final filtration and packaging of finished inkjet inks to prevent sedimentation or viscosity drift.

    Final product types

    • Water-based inkjet inks
    • Flexographic and gravure inks for flexible food packaging
    • Digital textile printing inks
    • Security and anti-counterfeiting printing materials

    3. Photographic Photoresist and Silver Halide Emulsion Stabilizer

    The material serves as an emulsion stabilizing and grain size modifier in the manufacture of traditional silver halide photographic films and high-resolution photoresist coatings. Its molecular configuration helps control particle distribution during emulsion precipitation, resulting in consistent emulsion sensitivity and image quality, especially essential for micro-pattern transfer and archival imaging.

    Industry compliance standards

    • ISO 18911:2010 (Imaging materials—Processed safety photographic films—Storage practices)
    • ASTM E145—Standard Test Methods for Silver in Photographic Processing
    • Kodak Q-lab QA film manufacturing protocols
    • RoHS exclusions for silver-based imaging materials

    Typical usage ratio

    • 0.05–0.3% by emulsion mass, fine-tuned according to silver halide grain size and desired sensitivity gradation.

    Downstream process integration

    • Added during the controlled precipitation stage of emulsion making; mixed with gelatin and silver nitrate solution prior to dye sensitization and coating on film support.

    Final product types

    • Color and black & white photographic films
    • Holographic recording materials
    • Industrial X-ray imaging plates
    • Microelectronic photoresists for printed circuit fabrication

    4. Additive for Anti-Static and Conductive Polymeric Coatings

    In the coatings industry, the betaine derivative acts as an anti-static agent in water-based and solvent-based polymeric coatings designated for environments sensitive to dust accumulation or electrostatic discharge. Its zwitterionic nature imparts stable surface resistivity without compromising film-forming or gloss properties, making it suitable for advanced cleanroom, electronics enclosure, and packaging applications.

    Industry compliance standards

    • IEC 61340-5-1:2016 (Electrostatic discharge—Protection of electronic devices from electrostatic phenomena)
    • ISO 12944 (Paints and varnishes—Corrosion protection of steel structures by protective paint systems)
    • REACH-SVHC assessment for coating additives
    • GB/T 2794-2013 (Paints and varnishes—Determination of viscosity)

    Typical usage ratio

    • 0.1–0.7% by total coating formulation, optimized according to polymer matrix, expected durability, and substrate porosity.

    Downstream process integration

    • Incorporated during pigment dispersion or resin let-down, just prior to final thinning and packaging; compatible with both aqueous acrylic and polyurethane systems.

    Final product types

    • Anti-static floor coatings for cleanroom environments
    • Conductive packaging films for electronic components
    • Surface finishes for electronics housings
    • Aerospace static-dissipative coatings

    5. Performance Modifier in Electrodeposition of Functional Metal Oxides

    Electronics and energy storage manufacturers adopt this material to fine-tune nucleation and growth during electrodeposition of functional metal oxides such as manganese dioxide or ferrous oxide, especially where microstructure uniformity and surface adhesion are pivotal. This enhances the charge/discharge performance as well as the cycle life for devices including batteries and supercapacitors.

    Industry compliance standards

    • IEC 62660-2:2018 (Secondary lithium-ion cells for the propulsion of electric road vehicles—Reliability and abuse testing)
    • ASTM D1799-19 (Standard Test Method for Permanganate Value of Oils)
    • GB/T 31484-2015 (Cycle life requirements for traction battery of electric vehicles)
    • UN Manual of Tests and Criteria, Part III, 38.3 for transport of battery materials

    Typical usage ratio

    • 0.3–1.0 g/L within electrodeposition bath; tuned based on desired oxide phase and deposition rate.

    Downstream process integration

    • Added to metal salt solution before current application; monitored for concentration drift as process progresses with periodic analytical checks.

    Final product types

    • Supercapacitor electrode films
    • MnO2 cathodes for alkaline batteries
    • Conductive layers in fuel cell stacks
    • Oxide coatings for advanced sensor substrates
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    Certification & Compliance
    More Introduction

    1-(2-Hydroxy-3-Sulfopropyl)-Pyridinium Betane: Practical Uses and Distinct Advantages in Modern Chemical Applications

    Product Overview and Manufacturing Commitment

    Every product tells a story. For us, 1-(2-hydroxy-3-sulfopropyl)-pyridinium betane is the result of decades spent refining synthetic methods in our own facilities. We choose our feedstocks for consistency, not just lowest cost. We control every step, from incoming raw materials right through purification and packaging. Years of hands-on production have confirmed that reliable quality comes from controlling process variables, not from glossy sales promises. Customers in electronics, catalysis, and specialty coatings demand versatility, not just standard grades, and we bring forward a product meeting their challenges head-on.

    Chemical Features and Purity

    As a zwitterion, 1-(2-hydroxy-3-sulfopropyl)-pyridinium betane demonstrates strong water solubility, making it suited for aqueous formulations, something that hydrophobic analogs cannot offer. We found users often run into problems with precipitation or incomplete dispersion when switching to other sulfonic acid derivatives. Our product stays clear in solution, even under challenging high-solid loading conditions. Batch purity typically sits above 99%, as confirmed through HPLC and conductivity testing, and we meet tight residual solvent standards by using an extended vacuum drying step in our production line. Over the years, we have tested alternate synthetic routes and found that only slow, controlled addition coupled with continuous pH monitoring delivers the highest batch consistency.

    Model Options and Physical Characteristics

    Our 1-(2-hydroxy-3-sulfopropyl)-pyridinium betane comes in both free-flowing powder and fine-granule form. After trial runs and pilot sampling, we've optimized particle sizing to balance quick dissolution with low dusting. Users working in automated feed systems value this granule form since bridging and caking rarely occur. We avoid anti-caking agents, as some formulations show downstream problems when such additives are present. Each lot is checked for bulk density and loss on drying, which the R&D lab tracks for process reproducibility. We limit foreign particulate through careful filtration and inspection. These small steps ensure users can weigh and handle the product efficiently and confidently on the factory floor.

    Applications Across Industries

    Our customers come from many backgrounds, but the largest interest consistently comes from surface treatment, metalworking fluids, and electronics. In electroplating baths, this zwitterionic compound acts as a leveling agent and improves plating smoothness thanks to its ability to form stable complexes with metal ions. Users blending complex bath chemistries have told us that replacing traditional pyridinium derivatives with our product sharply reduces rough deposit formation. This outcome matters for the automotive and connector industries, where finish and adhesion are key performance metrics.

    In water-based coatings and pigment dispersions, our betaine replaces less compatible surfactant systems. The sulfonic group ensures adhesion to metallic and oxide substrates, while the pyridinium ring resists unwanted degradation. Over the years, we've worked directly with formulators to help minimize foaming, something common with alternative surfactants. By maintaining stable pH and buffering capacity, our betaine helps extend bath life, which saves customers money and helps their sustainability reporting.

    This molecule has also supported novel uses in organic synthesis and analytical chemistry. Researchers found unique selectivity patterns and stabilization effects for reactive intermediates, providing new routes for functionalizing organic compounds. In chromatography, its compatibility with mixed aqueous-organic mobile phases aids separation of charged analytes, an advantage over simpler, single-function surfactants.

    Differences from Similar Products in the Market

    Many new customers initially look for simple pyridinium or sulfonic acid derivatives thinking these will work interchangeably. We believe our proprietary synthesis and validation process makes a real difference. First, many commercial-grade products on the market, especially from traders or mixed sources, fail on two key application challenges: stable water solubility and batch-to-batch purity. Offspec batches typically form haze or gels under stress conditions, which interrupts automated dosing and clogs pumps in larger production settings.

    Our manufacturing practice involves on-site batch analytics and full traceability, which most importers cannot provide. We routinely compare samples from other suppliers with our batch controls: our 1-(2-hydroxy-3-sulfopropyl)-pyridinium betane exhibits sharper end-point in conductivity titrations and a lower background ionic profile. That translates directly to improved process yields and less background interference in sensitive electrochemical applications.

    Competing zwitterions often use shorter synthetic paths or utilize lower-cost feedstocks, resulting in uncontrolled impurities—especially in the fine granule and powder segments. We once traced strange corrosion issues in a large plating facility to minor traces of non-neutralized sulfonic acid in their supplier’s product. Contaminants at trace level worked their way through a filtration stack and caused uneven deposition. After switching to our product, follow-up surface microscopy confirmed a consistent layer and no further grain boundary defects.

    Handling, Storage, and On-Site Support

    In our own plants, operators need products that remain easy to manage season after season. We designed our packaging and recommend local storage protocols based on real experience. In humid environments, the product resists clumping thanks to its intrinsic stability. Since the granule and powder forms both feature low hygroscopicity, bins and hoppers stay clean. This saves time and keeps production lines running. Our technical team shares advice on best storage temperature and handling practices during customer onboarding, so new clients avoid common mishaps like moisture ingress or static buildup.

    We believe training makes a difference. We support technicians and engineers with practical training on safe product handling, transfer, and weighing protocols designed for the fast-moving needs of high-volume users. No reliance on generic guidance—we document what our teams have learned from decades of hands-on use, and we transfer that directly to our partners.

    Product Safety, Environmental Factors, and Compliance

    Stringent safety and documentation practices guide our every batch. As per national and regional regulations covering specialty chemicals, we run regular audits for raw material sourcing, waste stream management, and packaging recovery. Our betaine is biodegradable in typical downstream treatment processes, and we provide full chain-of-custody traceability for every shipment. We respond to emerging regulatory developments not by waiting, but by actively phasing out obsolete stabilizers and adjusting manufacturing parameters.

    A number of customers cite uncertainty over product lifecycle and downstream residues when testing new chemical additives. We share full impurity profiles and support risk assessment teams during pre-approval cycles. Our shipping documentation always includes recent lab data and user-friendly, scenario-based handling recommendations, not just raw specifications. This transparency reduces onboarding times and supports client ESG targets.

    Customer Feedback and Collaborative Improvement

    We maintain regular communication with most of our key clients, and their feedback has directly shaped our product development roadmap. For instance, our transition from high-dusting powders toward more user-friendly granules followed consistent field reports about operator comfort and indoor air quality benchmarks. Several customers working under ISO-driven conditions led us to revise certain particle sizing targets, which in turn improved both their uptake rates and internal product yields. Our technical team seldom introduces a process change without extensive beta testing on customer lines.

    Clients developing new surface finishers or working with sensitive electronics noticed a drop in product rejects following the switch to our betaine. These reports underscore the value of strong partnerships between manufacturer and end user. Change doesn’t come from brochures—change emerges from day-to-day production goals and troubleshooting in the field.

    Supporting Innovation and Scalability

    Lab researchers and pilot-scale innovators reach out to our team regularly with new formulation challenges. We draw on direct manufacturing experience to propose alternative concentrations, mixing protocols, or application techniques that reliably transfer to the large-scale plant environment. The technical knowledge our staff brings to scaling up batch sizes and replicating lab results in real-world settings means fewer surprises and faster project ramp-up.

    Many breakthroughs in high-performance coatings, energy storage devices, and electroplated components stem from details like ion migration rates, long-term shelf stability, or blend compatibilities—all points we directly influence by fine-tuning our process controls. By aligning our batch analytics with customer feedback and published industry standards, the end-product fits more neatly into established and emerging supply chains.

    Frequently Asked Questions and Common Pitfalls

    Years of fielding technical queries have taught us that users often misjudge the true interchangeability of similar compounds. 1-(2-hydroxy-3-sulfopropyl)-pyridinium betane, for example, stands apart in its resistance to unwanted byproduct formation in high-voltage plating and in its stability during long-term storage. We discourage off-the-shelf substitutions, as these often introduce new failure points—such as surface pitting, delamination, or lack of wetting in coatings.

    Scale-up surprises and downstream compatibility issues typically follow from overlooked trace impurities. One client overlooked a seemingly small uptick in residual sodium and later faced crystallization inside a dosing line. Only by revisiting their choice of supplier, targeting known purity benchmarks, did they resolve the issue and return to reliable throughput.

    Some users raise questions about the environmental persistence or recycling of process residues. We assist with waste stream analysis and advise on integrating compatible flocculants or separation protocols, drawing on our own experience running internal wastewater recovery units. Meeting both production and environmental metrics remains a point of pride for our team.

    Meeting New Industry Demands

    Market needs shift fast, and specialty chemicals like 1-(2-hydroxy-3-sulfopropyl)-pyridinium betane must keep pace. Electronic manufacturers raise purity requirements, water-based coatings shift regulatory targets, and advanced material developers watch for downstream toxicity risks. Our direct control over raw material qualification and process validation allows us to adapt batches with minimal turnaround. Whether targeting lower trace metal content for semiconductor use or seeking alternative packaging for circular economy reporting, we listen and respond based on real project requirements, not hypothetical sales models.

    Many of our upgrades over time have come from on-the-ground conversations rather than quarterly reviews. We stay agile by running tandem pilot lines, cross-validating modifications with our in-house application lab, and supporting beta customers through every scale-up. Technical support isn't an extra charge; it's built into how we've always done business.

    Looking Ahead: A Manufacturer’s Perspective

    As we look to the future, the importance of stability in supply, technical transparency, and practical support only grows. Regulations evolve, markets demand faster rollouts of new processes, and product recalls due to inconsistent chemical quality have become a costly risk. By maintaining full control over our production process, validating each lot with hands-on lab technicians, and directly engaging with users, we deliver more than a product—we deliver partnership and reliability.

    1-(2-hydroxy-3-sulfopropyl)-pyridinium betane remains in high demand because it solves tangible problems, not just delivers an impressive data sheet. Whether improving plating quality, reducing waste in pigment dispersion, or extending bath life in electrochemical systems, this compound keeps production lines running and quality metrics on target. Our commitment is to offer not just consistent product, but honest advice—drawn from deep manufacturing experience—and adaptation as market needs change.

    For those who measure success by smooth operation and minimal production downtime, we invite collaboration—not just transaction. Each drum shipped stands behind real expertise, ongoing R&D investment, and a shared goal of genuine problem-solving in the world of specialty chemicals.