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Nickel Chloride

    • Product Name Nickel Chloride
    • Alias Nickel(II) chloride
    • Einecs 231-743-0
    • 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

    929978

    Chemical Name Nickel Chloride
    Chemical Formula NiCl2
    Molecular Weight 129.60 g/mol
    Appearance Green crystalline solid
    Melting Point 1001 °C
    Boiling Point 973 °C (decomposes)
    Density 3.55 g/cm³
    Solubility In Water 254 g/L (20 °C)
    Cas Number 7718-54-9
    Odor Odorless

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

    Packing & Storage
    Packing Nickel Chloride, 500g, packaged in a sealed HDPE bottle with hazard labels, product details, and safety instructions clearly printed.
    Shipping Nickel Chloride should be shipped in tightly sealed, corrosion-resistant containers, clearly labeled and protected from moisture. Transport according to local, national, and international regulations for hazardous materials. Handle with care to prevent leaks or spills, and ensure compatibility with other chemicals. Keep away from foodstuffs, acids, and incompatible materials.
    Storage Nickel Chloride should be stored in a tightly sealed, clearly labeled container in a cool, dry, and well-ventilated area, away from incompatible substances such as strong acids and oxidizers. The storage area should be resistant to corrosion, protected from moisture, and equipped with spill containment. Ensure the chemical is kept away from direct sunlight and out of reach of unauthorized personnel.
    Application of Nickel Chloride

    Applications of Nickel Chloride in Industrial Manufacturing

    As a manufacturer, we deliver high-purity Nickel Chloride to downstream industries that demand reliable quality backed by strict process control and regulatory alignment. The following sections outline how our material integrates into specific industrial scenarios, highlighting the application requirements, regulatory framework, and practical manufacturing usage for each sector.

    1. Electroplating of Metal Components

    Nickel Chloride is widely used in the electroplating industry, particularly for nickel electroplating baths that enhance corrosion resistance, wear resistance, and aesthetic appearance of metal parts. Industrial users select this material to ensure efficient anode dissolution and stable bath performance during continuous production. Different bath formulations integrate this salt according to the specific brightness, ductility, and deposit uniformity needed for the target components, with critical attention to bath operating conditions, impurity control, and environmental discharge limits dictated by local and international laws.

    Industry compliance standards

    • ISO 4527:2014 (Electroplated coatings of nickel for engineering purposes)
    • RoHS Directive 2011/65/EU (limiting hazardous substances in plated items)
    • REACH Regulation (EC) No 1907/2006 (chemical substances registration and use)
    • National Emission Standards for Electroplating Industry (e.g., GB 21900-2008 in China)

    Typical usage ratio

    • 50–150 g/L in nickel electroplating baths, with adjustments based on anode efficiency, workpiece surface area, and other bath constituents such as nickel sulfate and boric acid. Higher concentrations support faster deposition rates but elevate risk of stress and brittleness if not monitored carefully.

    Downstream process integration

    • Dissolved as part of the aqueous plating bath system after deionized water and complexors are charged; direct monitoring of nickel ion content ensures bath stability across extended production runs.

    Final product types

    • Automotive trim, fasteners, hardware fittings, precision electronic connectors, household appliance parts, plumbing fixtures

    2. Battery Electrode Material Synthesis

    Nickel Chloride serves as a core raw material for manufacturing high-performance nickel-based cathode materials, especially lithium nickel oxide and nickel-cobalt-manganese (NCM) precursor compounds for rechargeable batteries. Downstream producers value this input for precise nickel supply, low impurity profile, and controlled reactivity during the co-precipitation and subsequent calcination stages, which are essential to achieve target electrochemical characteristics and batch-to-batch quality conformity.

    Industry compliance standards

    • ISO 9001:2015 and IATF 16949:2016 (Quality Management for Automotive Battery Materials)
    • IEC 62660-2 (Secondary lithium-ion cells for automotive)
    • Procedure for Material Screening within UL 2580 (Standard for Batteries for Use in Electric Vehicles)
    • Chinese GB/T 34513-2017 (Nickel-based lithium battery material requirements)

    Typical usage ratio

    • Added at a metallic nickel content of 20–30% of the total transition metal mass during precursor co-precipitation; the precise ratio depends on the targeted stoichiometry (e.g., NCM622, NCM811), with adjustments for impurity control and crystal structure optimization.

    Downstream process integration

    • Nickel salt is dissolved with other metal sulfates or chlorides prior to co-precipitation with sodium hydroxide and complexors; material undergoes filtration, washing, and high-temperature calcination to yield finished electrode powder.

    Final product types

    • Lithium-ion battery cathodes, cylindrical and pouch battery cells, power storage modules, electric vehicle (EV) battery packs

    3. Chemical Catalyst Preparation

    Chemical processing plants utilize Nickel Chloride as a precursor for synthesizing homogeneous and heterogeneous nickel catalysts. Specific use includes the manufacture of supported nickel catalysts (e.g., on silica or alumina) for hydrogenation and reforming reactions in fine chemical and petrochemical sectors. Careful loading and calcination are essential to ensure optimal dispersion, particle size, and catalytic activity, directly influencing downstream process efficiency and selectivity.

    Industry compliance standards

    • ISO 9001:2015 (Quality management across catalyst manufacturing)
    • Responsible Care® Initiative (Global chemical industry safety and environmental guidelines)
    • REACH Regulation (EC) No 1907/2006 (Registration and safe use of nickel compounds in Europe)
    • Industry-specific cGMP, where catalysts are used in pharmaceutical synthesis (e.g., ICH Q7 for APIs)

    Typical usage ratio

    • Varies from 5–25% nickel loading by total catalyst mass. Nickel Chloride is charged in solution form during impregnation or co-precipitation, with loading ratios based on activity targets and support material characteristics.

    Downstream process integration

    • Integrated at the impregnation or co-precipitation step for catalyst carrier materials, followed by drying, reduction, or calcination to generate the active nickel phase responsible for surface reactions in downstream reactors.

    Final product types

    • Supported nickel hydrogenation catalysts, reforming catalysts, catalyst precursors for fine chemicals, pharmaceutical intermediates

    4. Nickel Metal Powder Production

    The raw material enters powder metallurgy as a key intermediate for producing nickel metal powders via chemical reduction of aqueous nickel chloride solutions. This process supports parts manufacturing in electronics, sintered components, and high-performance alloys. Uniformity of particle size distribution and purity directly impacts downstream utility, especially in magnetic materials and battery hardware industries where precise physical properties are mandatory.

    Industry compliance standards

    • ASTM B335-95 (Standard Specification for Nickel Metal Powder)
    • ISO 9001:2015 (Manufacturing and QC for metal powders)
    • RoHS Directive 2011/65/EU (Nickel as a restricted metal in some end uses)
    • Custom supply chain and process documentation for specific aerospace or electronics requirements

    Typical usage ratio

    • Nickel chloride concentration in feed solution according to desired powder yield; often ranges from 100–250 g/L, with final reduction efficiency and purity targets dictating batch size and reduction agent ratios.

    Downstream process integration

    • Dissolved in water or alcohol, then introduced to the reduction reactor with hydrogen or a reducing agent (e.g., sodium borohydride), followed by washing, drying, and, if required, classification according to particle size distribution.

    Final product types

    • Nickel powder for MLCC (multilayer ceramic capacitors), electronic component pressing, sintered parts, special alloy additives, magnetic materials

    5. Textile Dye Manufacturing

    Nickel Chloride is a functional ingredient in the synthesis of certain reactive and vat dyes for the textile sector, specifically where nickel complexes enhance color fastness, depth, and unique chromatic effects for cellulosic fibers. Accurate incorporation is crucial, as nickel content affects shade reproducibility, process safety, and compliance with consumer product standards. Strict monitoring ensures effluents meet regulatory discharge concentrations, particularly in regions with enhanced environmental oversight.

    Industry compliance standards

    • OEKO-TEX® Standard 100 (limit values for nickel in finished textiles)
    • ZDHC MRSL v3.1 (Zero Discharge of Hazardous Chemicals – Manufacturing Restricted Substances List)
    • GB 18401-2010 (National General Safety Technical Code for Textile Products, China)
    • REACH Restriction 1907/2006 (Annex XVII for nickel release in textiles/skin contact items)

    Typical usage ratio

    • Used at less than 0.5% by total dye batch mass; concentration is specifically tuned depending on the dye’s molecular structure and target depth/bath make-up. End use and compliance requirements dictate allowable upper limits.

    Downstream process integration

    • Added to the dye synthesis reactor during complexation or finishing stages when forming nickel coordination complexes, prior to purification and standardization of the dye intermediate or finished dye product.

    Final product types

    • Reactive and vat textile dyes, dyestuff intermediates, pre-metalized colorants for apparel and home textiles

    6. Ceramics and Glass Coloring

    In the ceramics and specialty glass sectors, controlled amounts of Nickel Chloride impart subtle grey, brown, or black tints to glazes, enamels, and melts. Accurate application affects the optical clarity, chemical durability, and compatibility with other colorant systems. Downstream processors rely on this input for repeatable hue control in high-value decorative and technical ceramics as well as architectural and automotive glass products, while also meeting occupational health and safety regulations due to the toxicity profile of nickel compounds.

    Industry compliance standards

    • EN 1388-1/2 (Materials and articles in contact with foodstuffs – ceramics and glass release limits)
    • ASTM C21 (Standard Test Methods for Ceramic Whitewares)
    • ISO 6486-2 (Release of lead and cadmium from ceramicware)
    • OSHA 29 CFR 1910.1000 (Occupational exposure limits for nickel-containing compounds)

    Typical usage ratio

    • 0.02–0.10% by batch mass for coloring glass, porcelain enamels, or ceramic bodies. Usage depends on the desired shade, other interacting metal ions present, and batch melt size. Excess may lead to unwanted color shifts or inhomogeneity.

    Downstream process integration

    • Charged to the raw batch mix or added during glaze slip preparation, ensuring thorough dispersal before high-temperature melting or firing stages to achieve stable, integrated coloration.

    Final product types

    • Architectural glass, ceramic tiles and sanitaryware, porcelain enamel cookware, glass beads, decorative glazes
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    Certification & Compliance
    More Introduction

    Nickel Chloride: Meeting Industrial Standards with Reliability

    Understanding Nickel Chloride from a Manufacturer’s Perspective

    Nickel chloride delivers consistent results to those seeking a reliable inorganic compound with a broad range of industrial applications. Working on the manufacturing side means ensuring this product leaves our facility as a well-refined solution or crystal, shaped by controlled processes that reflect decades of technical expertise. Many operations rely on stable chemical properties, and each batch must meet precise demands, guided by detailed monitoring at every step.

    Physical Form and Model Varieties

    Our plant typically produces nickel chloride in both anhydrous and hexahydrate forms. Over time, requests for nickel(II) chloride hexahydrate, identified by the chemical formula NiCl2·6H2O, have become dominant due to its ease of handling and high solubility in water. The hexahydrate comes as emerald-green crystals, a signal of its purity, whereas the anhydrous type, a yellow-green powder, finds specialized use where moisture must be excluded. Production lines run distinct protocols to prevent the introduction of contaminants, perform controlled crystallization, and avoid caking. The physical form influences not only logistics, but the solubility profile and turnaround time for downstream use in plating baths or chemical synthesis.

    What Sets Pure Nickel Chloride Apart

    As a manufacturer, daily focus rests on purity, consistency, and stability rather than mere compliance with industry norms. Our analytical laboratory conducts recurrent spectroscopic and chromatographic procedures to screen for iron, cobalt, copper, sodium, and other metallic trace elements, keeping impurities well below 0.005% where critical. Electroplaters and catalyst manufacturers notice even small differences in metal ion levels, as these influence both deposition rates and product sheen. Electrolytic nickel plating demands a material with tight control over acidity, particulate content, and trace impurity profile. Out-of-spec batches undergo immediate investigation, not only for documentation but to troubleshoot upstream process issues, such as contamination in feedstocks or problems during evaporation.

    Uses and Relevance in Modern Industry

    Plating and surface finishing have depended on nickel chloride for generations. As a key supporting salt in nickel electroplating baths, nickel chloride plays a role in anode dissolution and drives consistent metal build-up on target objects. Decades of direct engagement with plating businesses have shown us that changes in bath composition demand rapid technical support. If chloride levels drop, the efficiency of nickel transfer falls and “burning” or zone defects may surface. Our technical specialists help clients fine-tune concentrations in the 50-90 g/L range, balancing conductivity against corrosion risk on plant hardware. Nickel chloride’s solubility profile—compared to nickel sulfate—improves bath conductivity, a property exploited by manufacturers of decorative coatings, electronics, and automotive components.

    Beyond plating, nickel chloride enters as a precursor in catalyst production, chemical synthesis, battery technologies, and as a reagent in laboratory research. Hydrogenation catalyst manufacturers appreciate the product’s purity and consistent reactivity, since trace mineral interference slows conversion rates and introduces unpredictable by-products. In labs, analytical chemists value guaranteed assay ranges to eliminate confounding variables. After years supporting both large-volume chemical processors and R&D users, we understand they often calibrate routines to the qualities of a particular source.

    Key Differences from Related Nickel Salts

    Nickel sulfate and nickel nitrate appear side-by-side with nickel chloride in many applications, but not all compounds behave alike. From a process viewpoint, nickel chloride’s higher chloride ion content changes the aggressiveness of solutions, raises conductivity, and accelerates anode dissolution during electroplating. In contrast, nickel sulfate dominates as the principal salt for delivering nickel ions, but lacks the same influence on solution chemistry. For surface treatment professionals tackling highly detailed or intricate goods, nickel chloride helps even out plate thickness across substrates by supporting a more stable anode-cathode balance.

    Some companies may try to substitute between nickel salts, chasing lower prices or alternate supply. Through long-term customer feedback and our own internal trials, we see that switching compounds brings unexpected shifts: differences in bath pH, altered precipitation behavior of impurities, and changes in the rate of by-product formation. Engineers have observed how a small impurity in nickel chloride—which may barely register in nickel sulfate—suddenly shows itself during use. Studies in our technical reports repeatedly confirm that a single oversight in chloride source quality leads to rough deposits and lost production batches.

    Specification Standards and Real-World Requirements

    Specifications for nickel chloride reach beyond the certificate of analysis. On paper, most buyers ask for minimum nickel content, maximum allowable levels of sodium and magnesium, and strict limits for heavy metal contaminants. Consistently delivering on these specs requires a tailored integration of raw material sourcing, filtration equipment maintenance, and process optimization. Years of plant data confirm that basic purity tells only part of the story; batch-to-batch reproducibility matters just as much.

    End-users often request additional assurances: documentation of crystalline structure, particle size analysis, and certificates of origin free from conflict minerals. As regulatory reporting grows stricter, more clients call for REACH-compliant and RoHS-compliant declarations. Some sectors conduct their own audits, verifying not just the final product, but raw material sources and waste management practices. Our technical documentation team supports these audits, drawing upon years of archived process data and analytical reports. Since every customer approaches nickel chloride from a different operational background, the format and depth of supporting information carries real weight in finished product acceptance.

    Safe Handling and Worker Experience

    In a production facility, maintaining a safe workplace culture defines daily routines. Nickel chloride, especially as a powder, poses inhalation and skin-contact hazards, requiring diligent containment and personal protective gear. Our workforce follows strict protocols around the use of chemical-resistant gloves, eyewear, and fume hoods in packaging areas. Safety showers, emergency eyewash stations, and spill containment trays are tracked and maintained as part of a broader industrial safety system verified by external consultants. The bright green tint of the hydrated crystals carries a notable warning identity, so staff quickly recognize accidental spills.

    With years spent on the line, many of our operators train new recruits about both acute and chronic exposure hazards—lessons learned not only from manuals, but from lived experience and strict management intervention. Ongoing air sampling, surface wipe testing, and medical monitoring back up safe working practices. Safe handling is not simply an add-on but integrated with every step of quality production. Buyers who visit our site leave with confidence in both product quality and worker health.

    Supply Reliability and Adaptability

    Running our own reactors and crystallization equipment means we control each link in the supply chain, from receiving nickel raw materials through final packaging and shipping. This vertical integration reduces risk of stock-outs and lets us quickly respond to demand spikes or interruptions elsewhere in the chemical sector. Our logistics unit works alongside operations to coordinate buffer stocks for customers balancing just-in-time inventory schedules against seasonal swings.

    Nickel chloride’s shelf life depends on exposure limits to moisture, air, and reactive by-products. Feedback from clients prompted us to improve packaging: moisture-barrier films and tamper-evident seals limit clumping and oxidation, lengthening storage periods. Some electroplaters request partial pallet lots or resealable containers to drop waste and keep open product fresh for recurring jobs. Value for the purchaser comes not only from the chemical, but also from the reliability and adaptability of supply solutions tailored to unique site conditions. Our role as a producer revolves around problem-solving, not simply shipping crates out the gate.

    Environmental Responsibility on the Manufacturing Floor

    Manufacturers today feel the weight of environmental stewardship on every major decision. Nickel and chloride salts, if handled poorly, can harm aquatic life and present legacy soil risks. Our facility manages wastewater streams using multi-stage treatments: ion exchange, precipitation, filtration, and monitored effluent discharge. Process engineers track mass balances with digital systems, aiming for near-zero release. Nickel recycling in rinse waters offsets both cost and environmental impact. We invest in closed-loop systems and regularly upgrade containment to limit accidental discharges. Reports from regulatory inspections regularly reinforce that internal containment standards often surpass external benchmarks.

    Treating employees and neighbors responsibly shapes how the community regards a chemical producer. Engagement with local environmental groups, quick incident reporting, and transparent public meetings help build trust while shaping future projects. Years of open conversation with community stakeholders drive continuous improvement in emissions controls and accident planning. No innovation in chemical production matters if it comes at the expense of safety or public confidence.

    Global Demand and Adaptive Manufacturing

    As global markets shift, the demand curve for nickel chloride moves with new industrial growth in electronics, alternative energy, and advanced material sectors. Customers working in battery development or electronics fabrication demand even tighter purity limits, sometimes below assurances promised in legacy specifications. Regulatory compliance and origin tracing, absent years ago, now color every conversation with clients in North America, Europe, and Asia. RoHS and REACH regulations have sharpened focus on provenance, chemical registration, and impurity traceability. Our response has been to boost investment both in analytical capability—mass spectrometers, ICP-OES, trace contaminant testing—and in staff training so we've got the finest attention to detail.

    Shifts in raw material sources, whether due to geopolitical trends or mining constraints, repeatedly challenge supply plans. Having in-house refining and purification steps lets us adapt quickly if mines or third-party suppliers change their own outputs. Over the years, investments in process automation have reduced labor cost and allowed accuracy far greater than could be achieved by manual controls.

    Feedback Loops and Technical Problem Solving

    Reliable manufacturing depends not only on precision equipment but also on open communication with end-users. Several times each year we are called on to diagnose a customer’s tank-side issue: plating defects, solution cloudiness, unexpected deposits, or production downtime. Drawing on years of field experience, our technical teams travel to job sites, collect solution samples, and troubleshoot with customer operators. Improvements in drying temperatures, changes in feedstock nickel metal, or a tweak in crystallization parameters have solved dozens of persistent process headaches.

    Our archives of application reports, analysis logs, and failure investigations serve as tools to help new customers avoid the same pitfalls. Drawing on hundreds of batch histories, we advise customers about their cleaning routines, mixing protocols, and scrap management. In some cases, simple process changes—staged dissolution, finer filtration of make-up water, or altered tank agitation—eliminate chronic product rejects without any change in the chemical itself. Providing this depth of technical problem solving is how we distinguish ourselves in a crowded, price-driven market.

    Trends in Sustainable Chemistry

    Industry trends point toward greener chemistries, with both private and public customers seeking new substitutes or process modifications that limit heavy metal reliance. Nickel chloride, like other legacy salts, faces scrutiny and calls for alternative systems, especially in the context of waste minimization and safer chemical frameworks. Several R&D partners collaborate with our research lab, pushing for lower-waste electrolytes or safer ligands that preserve plating performance but reduce hazard profiles. Investment in pilot studies—such as exploring mixed metal systems or ion exchange alternatives—ensures the company remains on the front line of responsible chemistry.

    This focus on sustainability does not diminish attention to core technical excellence. As battery and electronics manufacturers chase higher performance and lower footprint, nickel chloride remains valued for its predictable reactivity and high-purity offerings. Ongoing dialogue with upstream nickel metal refiners and downstream recyclers supports supply continuity, while new recycling methods reduce landfill disposal in compliance with tightening waste laws.

    Lessons From Decades On the Floor

    Manufacturing nickel chloride at scale, day after day, brings a clear sense of both the technical and human challenges involved. A product can look identical by basic lab tests yet deliver wildly different results on the shop floor, depending on subtle impurity levels, particle size, storage conditions, or even handling proficiency at the customer’s plant. Both price and spec matter, but so do partnership and problem-solving. Many customers, large and small, rely on our regular shipments not simply for their chemical content, but for confidence that troubleshooting support, documentation, and batch consistency stand behind every bag, drum, or supersack delivered.

    The years spent refining process controls, updating analytical machinery, and collecting user stories combine to shape an approach centered on transparent quality and ongoing technical support. As requirements change across industries, adaptability, personal attention, and thorough record-keeping remain the best tools for delivering what the customer really needs in nickel chloride: reliability, clarity, and sustained performance.