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Sodium Hexachloroplatinate(IV) Hexahydrate

    • Product Name Sodium Hexachloroplatinate(IV) Hexahydrate
    • Alias Platinum(IV) chloride hexahydrate
    • Einecs 241-010-7
    • 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
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    Specifications

    HS Code

    411911

    Product Name Sodium Hexachloroplatinate(IV) Hexahydrate
    Chemical Formula Na2[PtCl6]·6H2O
    Molecular Weight 517.97 g/mol
    Appearance Yellow to orange crystalline solid
    Solubility In Water Soluble
    Cas Number 16421-15-5
    Melting Point Decomposes before melting
    Density 2.53 g/cm³
    Platinum Content 37.7%
    Stability Stable under recommended storage conditions
    Odor Odorless
    Shelf Life Stable if stored properly
    Storage Conditions Store at room temperature, keep container tightly closed

    As an accredited Sodium Hexachloroplatinate(IV) Hexahydrate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The 25g sodium hexachloroplatinate(IV) hexahydrate is supplied in a sealed amber glass bottle with tamper-evident cap and hazard labeling.
    Shipping Sodium Hexachloroplatinate(IV) Hexahydrate is shipped in tightly sealed, chemically resistant containers to prevent moisture and contamination. It should be labeled as toxic and environmentally hazardous. Transport complies with applicable regulations (DOT, IATA, IMDG), ensuring secure, ventilated conditions, and proper documentation for safe handling and emergency response is provided.
    Storage Sodium Hexachloroplatinate(IV) Hexahydrate should be stored in a tightly sealed container in a cool, dry, and well-ventilated area, away from incompatible substances like strong acids and reducing agents. Keep it away from direct sunlight and moisture. Proper chemical labeling and secondary containment are recommended to prevent exposure or spills. Handle using appropriate personal protective equipment to avoid skin and eye contact.
    Application of Sodium Hexachloroplatinate(IV) Hexahydrate

    Applications of Sodium Hexachloroplatinate(IV) Hexahydrate in Industrial Manufacturing

    Sodium Hexachloroplatinate(IV) Hexahydrate serves as a critical platinum source in several specialized industrial sectors. As an actual manufacturer, we collaborate directly with downstream production partners in high-precision fields where this compound enables platinum-based catalytic activity, advanced material synthesis, and electronic performance enhancements. All application scenarios listed below reflect established use cases with real industrial relevance, incorporating regulatory compliance, process methodology, and product specification requirements.

    1. Platinum Electrode Manufacturing for Electrochemical Analysis

    Many electrochemical sensor and analytical instrument producers use sodium hexachloroplatinate(IV) hexahydrate to deposit platinum coatings on electrode substrates. The platinum plating bath relies on this compound to generate dense, adherent layers required for precision instrumentation—particularly in industrial sensor fabrication for water quality monitors, biomedical devices, and research-grade electrochemical cells.

    Industry compliance standards

    • ISO 9001:2015 Quality Management Systems
    • IEC 60747-1: Semiconductor devices standard (for electroanalytical electrodes)
    • RoHS Directive 2011/65/EU (Restriction of Hazardous Substances in electronics)
    • REACH Regulation (EC) No 1907/2006 (substance authorization and restriction)

    Typical usage ratio

    • Bath concentrations typically range from 10–30 g/l, precisely adjusted according to desired platinum thickness and deposition speed. Higher loading increases plating rate but requires additional bath monitoring and filtration.

    Downstream process integration

    • Formulators dissolve the raw material directly into the electroplating solution, combining it with supporting acids and conductive additives. The electrode substrate enters the bath, passing current for controlled platinum deposition via electrodeposition protocols.

    Final product types

    • Platinum-tipped pH electrodes
    • Dissolved oxygen sensors
    • Reference electrodes for laboratory equipment
    • Analytical probe assemblies

    2. Automotive Catalyst Preparation

    Producers of automotive catalytic converters utilize sodium hexachloroplatinate(IV) hexahydrate as a soluble platinum precursor, which they apply to ceramic monoliths or metallic honeycomb substrates. The compound enables fine dispersion of platinum during washcoating, essential for exhaust treatment systems meeting stringent emissions regulations on passenger and commercial vehicles.

    Industry compliance standards

    • ISO 16949:2016 (Automotive quality management)
    • Euro 6/7 Emission Standards (EU vehicular emissions limits)
    • US EPA Tier 3 Motor Vehicle Emissions and Fuel Standards
    • JIS K0102 Exhaust Emission Testing in Japan

    Typical usage ratio

    • Platinum charge typically ranges from 0.3–2.5 g per liter of washcoat slurry, depending on vehicle engine type and emission control requirements. Formulators adjust ratio by substrate surface area and target precious metal loading.

    Downstream process integration

    • Manufacturers dissolve the material in aqueous or acidic slurry with alumina or ceria binders before coating onto monolith substrates. Thermal activation follows, anchoring platinum particles and forming active catalytic sites after high-temperature calcination and reduction.

    Final product types

    • Three-way catalyst converters
    • Diesel oxidation catalysts (DOC)
    • Platinum group-metal coated filter systems (for diesel particulate filtration)
    • Automotive emission control assemblies

    3. Glass Industry: Electrically Heated Platinum Bushings

    In specialty glass manufacturing, sodium hexachloroplatinate(IV) hexahydrate functions as a precursor for producing electrically heated bushings, which facilitate precise fiber drawing in optical fiber and specialty filament production. The compound's use supports platinum alloy deposition on ceramic supports, delivering essential thermal stability and corrosion resistance in glass handling equipment.

    Industry compliance standards

    • ISO 12898:2019 Processed Glass Testing
    • ISO 9001:2015 (Glass manufacturing quality system)
    • ASTM C162-05(2016)e1 Standard Terminology of Glass and Glass Products
    • RoHS 2011/65/EU (For glass machinery components in electronics)

    Typical usage ratio

    • Precise dosage is calibrated per bushing based on throughput requirements; platination baths generally use 15–40 g/l, with adjustment for target coating thickness and repeat use cycles of the equipment.

    Downstream process integration

    • The raw material dissolves into the platination bath, where ceramic or alloy bushing parts undergo electroless or electroplating procedures. After washing and heat treatment, these bushings deliver exacting performance in high-temperature continuous fiber drawing lines.

    Final product types

    • Electrically heated platinum bushings
    • Glass fiber-forming machinery components
    • Optical fiber drawing hardware
    • Special glass strand production tooling

    4. Chemical Catalysis for Fine Chemical Synthesis

    Manufacturers of pharmaceuticals and specialty chemicals employ this platinum compound as a homogeneous catalyst or catalyst precursor in hydrogenation, oxidation, and other fine synthesis steps. Sodium hexachloroplatinate(IV) hexahydrate provides solubility and reactivity needed for controlled catalytic cycles in reactors where platinum selectivity and conversion rates drive process efficiency for strict regulatory environments.

    Industry compliance standards

    • GMP (Good Manufacturing Practice) for pharmaceuticals (ICH Q7, 21 CFR Parts 210/211)
    • ISO 14001:2015 (Environmental management in chemical plants)
    • REACH (EC No 1907/2006) for catalyst use import/export
    • USP–NF, EP (for APIs with platinum-catalyzed steps, where applicable)

    Typical usage ratio

    • Loading is reaction-dependent, often between 0.05–0.5 mol% relative to substrate, adjusted for batch vs continuous flow and based on required turnover number and target yield. Precise charge determined by lab-scale optimization and process validation.

    Downstream process integration

    • The material is dissolved in compatible solvent and charged to the reactor at the catalyst charging step, followed by substrate, reagent, and, if necessary, auxiliary ligands. Reaction proceeds under controlled temperature, pressure, and agitation, followed by catalyst separation and downstream purification.

    Final product types

    • Active pharmaceutical ingredients (APIs)
    • Advanced intermediates in specialty chemical production
    • Fine fragrance and flavor compound synthons
    • High-value agrochemical intermediates

    5. Semiconductor and Thin Film Deposition Processes

    High-purity sodium hexachloroplatinate(IV) hexahydrate serves as a platinum source for chemical vapor deposition (CVD) and atomic layer deposition (ALD) systems used by semiconductor and MEMS device manufacturers. The compound's controlled volatility, decomposition profile, and platinum content enable the formation of thin, conductive films or nanostructures required in device miniaturization and integrated circuit (IC) performance enhancement.

    Industry compliance standards

    • IATF 16949:2016 (Automotive semiconductor manufacturing)
    • SEMI E49.7 (Equipment Reliability Guide for Semiconductor Manufacturing)
    • ISO 14644-1:2015 (Cleanroom standards for microelectronics)
    • RoHS and REACH (for electronic components)

    Typical usage ratio

    • Precursor quantity determined by tool type and desired film thickness; typical CVD/ALD runs may require 0.01–0.1 g per wafer per run, with precursor flux calibrated for deposition rate and coverage uniformity.

    Downstream process integration

    • Process engineers load the precursor into heated vaporizer vessels of the CVD or ALD chamber. Carrier gas transports vapors to the substrate where platinum films condense and grow atomically, followed by in-situ or post-deposition annealing if required by downstream device fabrication steps.

    Final product types

    • Semiconductor platinum electrodes
    • Platinum gate layers for microchips
    • MEMS (Micro-Electro-Mechanical Systems) platinum contacts
    • Interconnect layers in high-reliability ICs

    6. Laboratory-Scale Platinum Salt Preparation and Reference Reagents

    Producers of analytical grade reagents and reference materials for laboratory use integrate sodium hexachloroplatinate(IV) hexahydrate to prepare calibration standards, certified reference salts, and indicators. These reference standards enable accurate QA/QC for metals analysis, research calibrations, and academic investigations requiring quantified platinum traceability and reproducible analytical results.

    Industry compliance standards

    • ISO 17034:2016 (General requirements for reference material producers)
    • ISO/IEC 17025:2017 (Testing and calibration laboratories)
    • CLSI EP06 (Evaluation protocols for quantitative measurement in laboratories)
    • USP–NF, EP (applicable for certain platinum salt standards)

    Typical usage ratio

    • Preparation of standards involves dilution to parts-per-million (ppm) or parts-per-billion (ppb) levels, with stock solution concentrations typically 100–1000 mg/l for subsequent serial dilution and gravimetric accuracy requirements.

    Downstream process integration

    • Technicians weigh and dissolve the raw material directly in high-purity water or defined matrix solution. Rigorous verification ensures homogeneity and stability of the reference material before final packaging, certification, and shipment.

    Final product types

    • ICP-OES/ICP-MS platinum calibration standards
    • Platinum salt reference substances
    • Chemical indicators for lab diagnostics
    • Precision platinum solutions for research laboratories
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    Certification & Compliance
    More Introduction

    Sodium Hexachloroplatinate(IV) Hexahydrate: A Trusted Building Block for Platinum Chemistry

    Introduction to Sodium Hexachloroplatinate(IV) Hexahydrate

    Sodium hexachloroplatinate(IV) hexahydrate, known among professionals as Na2PtCl6·6H2O, plays an important role in platinum chemistry and catalyst production. From the earliest stages of platinum group metal refining to the final steps of organoplatinum compound synthesis, this compound stands out as a versatile intermediate. Our expertise in producing sodium hexachloroplatinate(IV) hexahydrate draws on years of refining precious metals and responding to changes in both large-scale and specialty demand. Care in sourcing, extensive purification, and strict moisture control have always separated trusted manufacturers from those who cut corners; these steps matter, because customers cannot afford unreliable inputs in high-value chemical work.

    Physical Form and Handling

    Our sodium hexachloroplatinate(IV) hexahydrate comes as stable orange-red crystalline granules. Water binds as six molecules per formula unit; controlling this water content is not just a theoretical issue, but a practical consideration impacting handling, yield calculations, and reactivity in downstream reactions. Cutting dehydration corners creates unpredictable outcomes, especially when the end user relies on precise stoichiometry for platinum complex assembly or catalyst fabrication. In our plant, we use environmental controls to reduce micro-variations in moisture, which reduces errors in blending or solution work. The product dissolves in water without fuss, giving a clear orange solution. Avoiding contamination or partial anhydrous byproduct formation preserves its distinctive color and reactivity: our experience shows that such details set apart batches that function from those that frustrate.

    Purity That Influences Performance

    Platinum chemistry leaves little room for error—downstream costs rise steeply if invisible contaminants sneak into a customer’s process. Industrial users, including those scaling up processes for pharmaceutical intermediates or electronic applications, repeatedly point out how small impurities can degrade precious catalyst beds or lead to unpredictable convexities in plating baths. Our sodium hexachloroplatinate(IV) hexahydrate is refined for high purity, with platinum content regularly verified well above 99.9%. By investing in both classic wet analysis and modern instrumental methods inside our own laboratories, we reduce surprises on the customer end. Years of troubleshooting have taught us that filtration alone never guarantees removal of all silicates, iron, or residual organic material—so we treat removal of these impurities as a central production concern, not an afterthought. This owes less to any regulation and more to countless conversations with chemists frustrated by unreliable supplier batches.

    Applications Across Industry and Research

    Few platinum salts carry such broad utility as sodium hexachloroplatinate(IV) hexahydrate. Laboratories rely on the compound for straightforward chloride exchange reactions, where it sets the stage for platinum(IV) to enter organic structures or coordinate with other ligands. Chemical vapor deposition (CVD) shops employ it to introduce platinum into support materials for the electronics and optics industries. Some long-standing customers work in platinum recovery, drawing upon it as an intermediate in scrapping and metal purification cycles. More specialized fields, such as homogeneous catalysis research, prize sodium hexachloroplatinate for its ability to generate stable platinum complexes under mild conditions.

    Our technical staff has seen growth in sales to advanced ceramics producers, who require first-stage platinum salts for use in composite manufacturing and conductive coatings. This spread of uses reflects the reliability and adaptability of sodium hexachloroplatinate(IV) hexahydrate as a base material—properties that result from decades of cumulative feedback and manufacturing refinement.

    Handling Differences vs. Other Platinum Salts

    In platinum compound chemistry, reliability and predictability separate successful synthetic routes from costly failures. Sodium hexachloroplatinate(IV) hexahydrate stands apart from cousins such as ammonium hexachloroplatinate, chloroplatinic acid, or potassium hexachloroplatinate. Those familiar with chloroplatinic acid recognize its aggressive acidity and reactivity—potential assets or liabilities, depending on the context. In contrast, sodium hexachloroplatinate delivers a neutral pH in water and more measured chloride ion reactivity, which suits it for application with acid-sensitive organic substrates or in processes where corrosion risk must be minimized.

    Compared with potassium hexachloroplatinate, sodium hexachloroplatinate(IV) hexahydrate dissolves more readily, which can speed up blending or bulk solution preparation. Unlike ammonium hexachloroplatinate, which can become troublesome due to its limited stability under basic or high-temperature conditions, sodium hexachloroplatinate can better handle a range of pH values and moderate heating. These differences spring not from marketing claims, but from hands-on production feedback—operators adjusting pH curves in synthesizers, research chemists scaling up yields, and recovery specialists stripping platinum metal from industrial waste.

    Refining and Quality Control: Lessons Learned

    Producing consistently high-quality sodium hexachloroplatinate(IV) hexahydrate comes down to constant attention across the workflow, from platinum source material to finished packaging. Over the years, we have moved away from old batch reflux methods towards continuous flow systems, which allow finer control of reaction rates and impurity profiles. Newcomers to precious metal salt manufacturing often underestimate the value of granular input control; even small differences in raw platinum purity or hydrochloric acid stock affect the ultimate suitability for high-stakes catalysis or analytical use.

    Our facility’s track record includes partnerships with research universities and industrial catalyst groups. These partners routinely test and challenge our manufacturing with specifications requiring lower cationic impurities or tighter granulometry distribution. Feedback from these collaborations points towards improved reproducibility in downstream platinum catalyst runs, lower batch-to-batch variation, and increased confidence for scale-up, especially for pharmaceutical or electronics work with little tolerance for unexplained outliers.

    Storage and Packaging for Real-World Needs

    Customers who depend on sodium hexachloroplatinate(IV) hexahydrate value not only the purity but also practical details: moisture-proof packaging, tamper-evident seals, and easy access for weighing and solution preparation. We package under low-humidity conditions and employ double-containment to prevent contact with atmospheric moisture. Poor handling leads to caking or even partial hydrolysis—problems that transfer costs to end-users, especially in automated handling systems. Careful labeling and batch traceability help users in regulated sectors, such as pharmaceutical manufacturing or electronics, integrate our products into their own compliance systems.

    Feedback from customers working in large-scale catalyst manufacture—often operating under tight regulatory and operational schedules—has reinforced the value of meaningful batch documentation and responsive technical support. Our technical staff remain available to discuss packaging changes or custom requirements, because operational difficulties frequently circle back to seemingly minor packaging or handling adjustments.

    Sustainability and Platinum Recovery

    Responsible handling of precious metals demands more than simple supply and delivery. Decades of experience in platinum chemistry have brought us face-to-face with the rising costs and environmental challenges tied to primary metal extraction. Sodium hexachloroplatinate(IV) hexahydrate serves not only as a fresh precursor to higher-value platinum chemicals, but also as an efficient intermediate in recycling. By partnering with users who send spent platinum catalyst or waste complex for recovery and reprocessing, we support circular economy objectives and reduce the need for primary mining.

    Platinum recycling from spent catalyst streams often starts with dissolution or oxidative digestion, leading to the hexachloroplatinate(IV) form for further purification. Years spent optimizing these flowsheets—balancing between yield, energy use, and waste minimization—show that a robust sodium hexachloroplatinate(IV) hexahydrate process lowers overall environmental burden. Staying close to customers gives us insight into how supply chain requirements around ESG reporting and sustainability have changed, and how real-world recycling impacts supply stability.

    Changing Market Requirements and Adaptation

    Market needs for sodium hexachloroplatinate(IV) hexahydrate keep shifting, driven by regulatory tightening, advances in catalysis, and emerging electronics applications. Working across continents has taught us to accommodate regional regulatory expectations—across REACH, U.S. EPA, and Asian import standards. End users in pharma and electronics expect more than product; they expect a manufacturer willing to deliver comprehensive compliance documentation and environmental impact data with each batch.

    The recent uptick in demand for platinum-based oxygen sensors, fuel cell catalysts, and specialty chemical precursors has highlighted the need for supply chains free from interruptions or inferior material. Our experience has taught us that regular investment in staff training, equipment upgrades, and crisis management drills pays off during raw material shortages or unexpected demand spikes. Stable supply, responsive support, and technical transparency count more in tough times than marketing gloss: these are qualities built from years of manufacturing, not trading.

    Solutions to Ongoing Challenges

    Manufacturing sodium hexachloroplatinate(IV) hexahydrate at scale brings a set of practical challenges. Maintaining consistent batch quality, especially in the face of fluctuating input material streams, required us to develop in-house analytical suites and adjust standard operating procedures regularly. We field more questions than ever about trace impurity profiles, traceability, packaging customization, and special-formulation requests as customers adapt their own processes.

    Regular meetings with customers in fields as varied as emission control, pharmaceutical synthesis, and fine chemical manufacturing highlight the unpredictability in demand cycles and the need for flexible manufacturing scheduling. Our team monitors changes in technical standards, waste recycling rules, and logistics bottlenecks. In tight markets, we have adjusted production to prioritize those with ongoing contracts or urgent needs while keeping lines open to new research customers looking to push the envelope with platinum chemistry.

    Logistics disruptions during global crises have underlined the importance of close supplier relationships and the value of local warehousing. Modern customers care less about price and more about surety—knowing their platinum precursor will ship as scheduled and support isn’t far away. Being a manufacturer means carrying the responsibility through good times and bad, making every effort to meet timelines and provide straight answers instead of overpromising.

    Supporting Advanced Platinum Research

    Moving beyond basic supply, many of our long-term partnerships trace back to collaborative research projects. Chemists developing new platinum complexes or materials often need technical consultation about handling, compatibility, and accurate dosing of sodium hexachloroplatinate(IV) hexahydrate. Our R&D team makes site visits, troubleshoots blending issues, or helps set up pilot lines for solution preparation.

    None of these services originated out of a sales handbook—they grew organically from genuine, ongoing exchanges between manufacturing staff and advanced users. Clients working under confidentiality or filing new patents need a manufacturer who offers discretion, adaptability, and a strong track record with scaling unusual batch sizes. We welcome custom requests based on honest discussions about formulation changes, supply timing, and new technological needs drawn from platinum chemistry’s evolving frontier.

    Long-Term Reliability and Value

    Anyone working with platinum salts knows the cost of unscheduled downtime or failed reactions—financially and in lost reputation. Over decades, we have learned the difference between transactions and relationships comes down to trust in the product and the people making it. Sodium hexachloroplatinate(IV) hexahydrate production is not glamorous, but pride in technical accuracy, consistency, and open communication wins more customer respect than low prices ever did.

    The biggest compliments we have received rarely mention the compound itself, but rather focus on reduced process headaches, cleaner product output, and fewer compliance worries. That feedback shapes the way we envision the future of platinum chemistry. We keep investing in both people and process improvement because every batch shapes production goals, downstream safety, and new research. Our goal is always to deliver a sodium hexachloroplatinate(IV) hexahydrate you can trust—batch after batch—whether you are advancing green chemistry, building a new electronics line, or recovering platinum for tomorrow’s challenges.