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Vanadium Tetrachloride

    • Product Name Vanadium Tetrachloride
    • Alias Vanadium(IV) chloride
    • Einecs 233-162-8
    • 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

    101218

    Chemicalname Vanadium Tetrachloride
    Chemicalformula VCl4
    Molarmass 192.75 g/mol
    Appearance Reddish-brown liquid
    Density 1.86 g/cm3
    Meltingpoint -23 °C
    Boilingpoint 154 °C
    Solubilityinwater Reacts with water
    Casnumber 7632-51-1
    Odor Pungent
    Vaporpressure 36 mmHg (20 °C)
    Hazardclass Corrosive, Oxidizer

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

    Packing & Storage
    Packing Vanadium Tetrachloride is packaged in a 100 mL amber glass bottle, tightly sealed with a PTFE-lined cap, for moisture-sensitive storage.
    Shipping Vanadium Tetrachloride is shipped in tightly sealed, corrosion-resistant containers, typically glass or Teflon-lined. It is classified as a hazardous material due to its toxicity and reactivity with moisture. Shipments must comply with international regulations, feature appropriate hazard labeling, and be handled by trained personnel with suitable protective equipment.
    Storage Vanadium tetrachloride should be stored in a tightly sealed, corrosion-resistant container, placed in a cool, dry, well-ventilated area away from moisture, heat, and incompatible materials such as strong bases. It is highly volatile and reactive with water, releasing toxic gases, so it must be kept away from any sources of water and protected from physical damage and direct sunlight.
    Application of Vanadium Tetrachloride

    Applications of Vanadium Tetrachloride in Industrial Manufacturing

    Vanadium tetrachloride acts as a critical raw material in several advanced chemical manufacturing sectors. Our direct production and controlled supply allow for precise quality management and support industrial users integrating vanadium-based intermediates or catalysts in their operational lines. Below we outline the main downstream segments using this raw material, with details on regulatory, compositional, and process integration features for each scenario.

    1. Synthesis of Vanadium-Based Catalysts for Polyolefin Production

    Manufacturers of Ziegler-Natta catalysts employ vanadium tetrachloride as a vanadium precursor in the catalyst system for olefin polymerization. The chemical reacts with alkyl aluminum components to form the active catalyst complex. Strict control over vanadium input and impurity profile is required to maintain polymer product grade. On-site blending occurs under inert atmosphere; dosing must align closely with target polymer chain length and molecular weight distribution, directly affecting resin quality and downstream processing performance.

    Industry compliance standards

    • ISO 9001:2015 Quality Management
    • REACH Registration (EU)
    • GB 3682-2018 Polyethylene Polymerization Standards (China)
    • OSHA 29 CFR 1910.1200 (Hazard Communication)

    Typical usage ratio

    • 0.03–0.15 mmol VCl4 per mol of ethylene or propylene monomer, adjusted per targeted polymer density and melt index

    Downstream process integration

    • Added directly to catalyst synthesis reactor under argon or nitrogen
    • Pairing with trialkylaluminum for in-situ catalyst activation
    • Short-term storage in sealed systems due to high moisture reactivity

    Final product types

    • Linear low-density polyethylene (LLDPE) resins
    • Polypropylene (PP) resins
    • Specialty polyolefins for automotive and packaging applications

    2. Precursor for High-Purity Vanadium Oxide Synthesis in Ceramics and Glasses

    Advanced ceramics and specialty glass manufacturers utilize vanadium tetrachloride as a controlled feedstock for producing vanadium pentoxide via vapor-phase oxidation. This high-purity oxide introduces desirable properties such as electrical conductivity or infrared absorption into end formulations. Precise metering and oxidation conditions are necessary to preserve product purity and avoid undesired lower oxides, especially when targeting materials for electrochemical devices or architectural coatings.

    Industry compliance standards

    • ISO 14001:2015 Environmental Management
    • EN 1748-1-1:2005 Glass in Building Specifications
    • RoHS Directive 2011/65/EU for Electronic Ceramics
    • IEC 61249-2-21 for Base Materials (electronics glass)

    Typical usage ratio

    • 1–5 wt% VCl4 relative to silica or soda base, modified based on final V2O5 content and end-use requirements

    Downstream process integration

    • Inline injection during glass or ceramic batch preparation under controlled oxygen flow
    • Thermal oxidation at 350–500°C to convert VCl4 to V2O5
    • Waste hydrochloric acid neutralization as an integrated step

    Final product types

    • Electrochromic glass panels
    • Conductive ceramic capacitors
    • Heat-reflective architectural glass
    • Battery-grade vanadium oxide powders

    3. Synthesis of Vanadium Organometallic Complexes for Fine Chemical Manufacturing

    Fine chemicals producers require vanadium tetrachloride as a core reagent for the formation of vanadium organometallic complexes, used as intermediates in organic synthesis, agrochemical production, and dye formulation. The material participates in ligand exchange and redox reactions, where precise stoichiometry and atmosphere control ensure batch reproducibility and low byproduct formation. Compliance with purity and trace metals standards remains central for downstream performance and regulatory audit.

    Industry compliance standards

    • IPEC-PQG GMP Guide for Pharmaceutical Excipients
    • 21 CFR Part 211 (US FDA) for Finished Pharmaceuticals
    • ISO 17025 Laboratory Accreditation for Quality Testing
    • GHS Classification and Labelling Standards

    Typical usage ratio

    • 0.1–1.5 equivalents relative to the organic ligand, adjusted by the target oxidation state of the complex

    Downstream process integration

    • Stepwise addition to organic solvent in temperature-controlled reactors
    • Inert gas blanketing to avoid hydrolysis
    • Post-reaction purification by solvent extraction or column chromatography

    Final product types

    • Oxovanadium complexes for organic synthesis
    • Catalytic intermediates for dye and pigment industries
    • Agrochemical formulation agents
    • API intermediates for pharmaceuticals

    4. Chlorinating Agent in High-Purity Titanium and Rare Earth Refining

    Producers of titanium and rare earth metals deploy vanadium tetrachloride as a part of chlorination circuits for converting metal oxides to their corresponding chlorides. This process step is essential in achieving high-purity anhydrous forms suitable for metal reduction or further separation. Chlorination with vanadium tetrachloride must occur in sealed reactors at elevated temperatures, and precise stoichiometric control prevents residue formation or yield losses. Downstream, integration demands close monitoring of recycle streams and environmental emissions.

    Industry compliance standards

    • ASTM B299-14 for Titanium Sponge Quality
    • ISO 9001:2015 for Metal Refining Operations
    • GB/T 3123-2008 (Chinese Standard for Rare Earth Chlorides)
    • CISPR Safety Standards for refinery electrolysis

    Typical usage ratio

    • 0.7–1.2 moles VCl4 per mole of metal oxide, optimized by raw ore composition and desired chloride purity

    Downstream process integration

    • Continuous addition to rotary or fluidized bed chlorinators
    • Direct contact with titanium dioxide or mixed rare earth oxides
    • Recycling of discharged HCl stream within the plant

    Final product types

    • Anhydrous titanium tetrachloride for metal reduction
    • Rare earth metal chlorides for separation/purification
    • Ultra-high-purity titanium and rare earth metals

    5. Redox Flow Battery Electrolyte Material Preparation

    Redox flow battery manufacturers utilize vanadium tetrachloride in the synthesis of vanadium electrolyte solutions. During this process, the chemical is hydrolyzed and converted into vanadyl and vanadate species that form the core of the battery's charge-carrying liquid. Exact reagent quantities, controlled reaction conditions, and dedicated purification ensure batch consistency and long-term electrolyte stability, supporting increased energy density and extended cycle life for stationary energy storage systems.

    Industry compliance standards

    • IEC 62932-3-1 for Flow Battery Safety and Performance
    • ISO 9001 Quality Management for Energy Storage Materials
    • IEEE 2030.3 for Energy Storage Integration
    • Local hazardous chemical storage regulations

    Typical usage ratio

    • 5–8 mol/L vanadium concentration in final electrolyte, regulated by battery system power and tank volume

    Downstream process integration

    • Dissolution and controlled hydrolysis in acidified aqueous media
    • On-site filtration and impurity removal
    • Electrolyte balancing before cell filling

    Final product types

    • Vanadium redox flow battery electrolyte solution
    • Complete VRFB (Vanadium Redox Flow Battery) modules
    • Bulk electrolyte for industrial energy storage installations
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    Certification & Compliance
    More Introduction

    Vanadium Tetrachloride: Chemical Insights from a Manufacturer’s Perspective

    A Closer Look at Vanadium Tetrachloride

    Vanadium tetrachloride stands out in the family of vanadium compounds for its reliability as a starting material in metal refining, organic synthesis, and catalyst preparation. Those who work with this deep red, moisture-sensitive liquid recognize its importance in forming key chemical bonds and transforming materials that drive innovation across several sectors. As a manufacturer deeply invested in chemical progress, our journey with vanadium tetrachloride reflects both hands-on technical knowledge and continuous adaptation to industry demands.

    Understanding the Material’s Nature

    Vanadium tetrachloride comes to life as a highly volatile and reactive liquid. Once exposed to humid air, it produces thick fumes of hydrogen chloride, highlighting both its reactivity and the care required in its handling and storage. Achieving and maintaining the exacting quality standards required for vanadium tetrachloride requires strict controls during synthesis and distillation, as any deviation can introduce impurities that impair downstream reactions.

    Our operations center around consistent methodologies that involve the direct chlorination of vanadium metal or its oxides at elevated temperatures. Every batch goes through a rigorous purification process to minimize contaminants, especially iron, silicon, and alkali elements. Users aiming for catalytic applications quickly notice differences in process outcomes if impurities creep into the matrix, so tight quality control makes a practical difference in real-world performance.

    Specifications That Matter in Real Workspaces

    Vanadium tetrachloride’s most important characteristics reflect directly on bench and industrial performance. Attention centers on purity—expressed as a percentage of vanadium in the +4 oxidation state—and the minimum levels of associated chlorides and trace metals. In our experience, synthetic chemists and catalyst designers prefer material that registers upwards of 99.5% purity by assay, with iron and other transition metal impurities measured by advanced techniques such as ICP-OES. Volatility remains consistent across lots, which means predictable dosing and fewer surprises in batch-to-batch reactivity.

    The red-brown color indicates active VCl4, but appearance alone can’t tell the full story. We rely on routine instrument-based checks—quantitative chromatographic analysis, meticulous spectral fingerprinting—to verify both purity and the absence of moisture. Nobody in the lab wants hydrolysis byproducts sidetracking an expensive synthesis or catalyst preparation, so every drum must seal tightly and resist atmospheric ingress.

    The Broad Scope of Application

    Vanadium tetrachloride’s primary appeal comes through in fields where elemental control and selectivity matter most. In refining metallurgy, especially for specialty steels and alloys, adding vanadium tetrachloride boosts mechanical strength and increases resistance to corrosion. Certain aerospace components and automotive parts owe their reliability to vanadium-enhanced alloys made with our product.

    In organics, vanadium tetrachloride acts as a potent Lewis acid. Working with organic synthesis teams shows the value of precision; many routes to pharmaceuticals, agrichemicals, and advanced polymers involve this compound in alkylation, chlorination, or oxidation reactions. Its selectivity outpaces many other chlorinated vanadium products, making it a mainstay for researchers tuning molecular architecture or generating unusual intermediates that simpler acids can’t reach.

    Catalyst manufacturers prize vanadium tetrachloride for preparing mixed-metal oxide catalysts, especially for selective oxidation processes—such as producing maleic and phthalic anhydride. Our product supports reproducible catalyst texture, color, and crystal phase—properties that directly impact plant throughput and energy cost. When high surface area and phase uniformity count, repeatable vanadium chemistry offers a clear economic benefit.

    What Sets Vanadium Tetrachloride Apart

    Many users begin with vanadium pentoxide, but the oxidative state and water solubility of V2O5 complicate fine-tuning for certain synthesis steps. Vanadium tetrachloride’s volatility and liquid nature grants chemists greater spatial and temporal control throughout reaction setup. The ability to add it dropwise, easily vaporize it, or manipulate it in a closed reactor gives it a flexibility not found in solid vanadium sources.

    Compared to vanadyl chloride or lower-chlorinated forms, vanadium tetrachloride features stronger Lewis acidity and greater reactivity, especially in activating organic substrates. Customers focused on variable oxidation state chemistry find that our vanadium tetrachloride, by delivering vanadium exclusively in the +4 state, avoids unwanted side reactions that less precisely specified materials might provoke. The uniformity in oxidation state means fewer purification steps post-reaction and better material balance for yield calculations.

    Safe Handling and Stewardship

    Our perspective on vanadium tetrachloride is shaped as much by technical needs as by day-to-day realities in the chemical plant. The substance’s volatility and fuming behavior require containment every step of the way. We make use of closed transfer lines, dry nitrogen blanketing, and corrosion-resistant steel or glass apparatus. Training staff on correct handling means focusing not just on procedures, but also on maintaining equipment integrity and minimizing release points, which yields a safer, more predictable workspace.

    Waste minimization begins at the source. Effluent streams that potentially carry vanadium or hydrogen chloride are scrubbed and neutralized using methods proven effective through pilot testing. We regularly review our emission controls not only to comply with regulatory demands but for the direct benefit of our neighbors and staff. Our goal is to supply technically excellent vanadium tetrachloride without trading off environmental principles.

    Reliability Across Applications

    Over years in production, customers have brought us diverse challenges. Pharmaceutical researchers pursue ultra-trace selectivity in arene functionalization; catalyst makers want predictable vanadium loading on mixed-phase supports; alloy engineers demand tight control over trace elements affecting steel microstructure. Vanadium tetrachloride delivers across these different projects with a balance of reactivity and maneuverability not found in more oxidized forms or chloride complexes.

    Chemists working at scale voice strong preferences for reproducibility. Even subtle variations in metal impurity or water content have the power to skew a yield, shift a reduction potential, or alter the color of a final pharmaceutical intermediate. Our quality control chain begins at raw material intake and tracks every parameter through to drum filling. This cumulative discipline translates directly into fewer troubleshooting calls and greater goodwill with experienced buyers.

    Addressing Common Perceptions and Challenges

    Myths sometimes surround chlorinated vanadium chemicals, from exaggerated tales of hazard to mistaken beliefs about incompatibility with modern safety engineering. Over decades, process improvements have made vanadium tetrachloride safer and more stable in shipment and storage. We have invested in packaging that resists corrosive vapor and stands up to both handling and temperature swings common to transport networks.

    Questions often arise about sustainability and material circularity. Our view favors maximizing the lifespan and reusability of vanadium compounds wherever possible. Where spent solutions or process residues once represented costly waste, we now tap into return and regeneration schemes that recover vanadium, boosting both resource efficiency and bottom line. This approach lines up with broader trends in the specialty chemical sector, aligning mission-driven stewardship with practical economic value.

    Responding to Market Pressures and Supply Issues

    Global demand for vanadium compounds flexes with construction and electronics trends, sometimes spurring volatility in upstream vanadium sourcing. Staying competitive in this climate means forging long-term partnerships both upstream and downstream. By securing vanadium ores and oxides from vetted mine operators and blending batches to level out seasonal quality swings, we guarantee a steadier supply for our customers, insulating them from the market’s sharpest shocks.

    Price shifts reflect broader macro conditions, but experienced manufacturers like us can buffer the impact through forward planning. We offer flexibility on packaging sizes and delivery schedules to adapt to abrupt project changes or new regulatory requirements in destination markets. Our technical support teams work closely with buyers to troubleshoot unplanned process interruptions, providing often-overlooked value beyond the drum itself.

    Looking Ahead: Innovation in Vanadium Chemistry

    No chemical stands still in capability or relevance. As research calls for more sustainable, lower-toxicity catalyst formulations, vanadium tetrachloride’s role evolves alongside new green chemistry frameworks. We actively participate in collaborative trials with universities and end-users who seek higher selectivity, lower energy input, or increased recoverability. Real progress means marrying the robust properties of vanadium tetrachloride with latest-generation plant designs and digital process monitoring.

    Our teams track not only performance metrics in day-to-day operations but also longer-term safety incidents, corrosion rates, and user feedback on processability. Improving the chemistry of vanadium, even in small ways, means better returns for project planners and smoother workflows for bench chemists focused on novelty and reproducibility.

    Knowledge Gained Through Real Manufacturing

    No batch of vanadium tetrachloride passes inspection without earning our confidence. Real experience comes from adapting recipes to the quirks of incoming vanadium, tuning furnace atmospheres to achieve optimal chlorination, and swapping tales on the factory floor about unusual reactivity observed by end-users. Every successful shipment reflects hundreds of iterative improvements—resin upgrades in filters to remove trace iron, tweaks to reactor temperature ramps, packaging innovations that curb vapor loss and drum swelling.

    We share in the problem-solving spirit that our customers bring to their projects. Few things compare to follow-up calls where a researcher reports a breakthrough in catalyst lifetime or a materials scientist unlocks a new alloy property thanks to a reliable vanadium reagent. These real-world wins drive us to keep improving purity, safety, and stewardship year after year.

    Comparing to Related Compounds

    Vanadium chemistry offers a crowded landscape of compounds, each with distinctive physical and chemical behaviors. Vanadyl chloride and vanadium pentoxide, for instance, present alternatives suitable for some conditions but lack the maneuverability and volatility our product provides. Vanadyl chloride, with vanadium in the +4 oxidation state, emerges as a blue solid—friendlier to aqueous chemistry but harder to use where precise addition or rapid mixing prove essential. Vanadium pentoxide, a yellow-orange solid, works well for ceramics and glass but falls short in catalyst precursor applications where rapid dissolution and controlled reduction state matter.

    Solid vanadium halides and oxyhalides introduce water by their very nature or by the way they are handled. Practitioners who have spent hours drying glassware understand the costs of moisture “unpredictability”—one false move can mean days lost in reprocessing or scrubbing out side products. Our liquid vanadium tetrachloride moves easily by pump or syringe and keeps water out of the process, letting users direct every atom toward desired molecular targets.

    Other transition metal chlorides cross our radar: titanium tetrachloride, zirconium tetrachloride. Each one carries a unique fingerprint of reactivity, volatility, and toxicity. Compared to these, vanadium tetrachloride strikes a balance between heat sensitivity and reactivity that fits demanding synthesis and metal modification tasks. Our focus on purity and sealed-systems handling means users gain the benefit of high-grade material with minimized risk of byproduct formation or cross-contamination.

    The Manufacturer’s Commitment

    Supplying vanadium tetrachloride is more than a transaction. It involves ongoing engagement with process realities, project pivots, and shifting regulatory climates. We dedicate resources to understanding not just how the product performs in isolation but how it impacts the entire chain from raw material to finished goods. Each year brings new user requirements, tighter emission guidelines, and fresh competition from alternative chemicals, all of which sharpen our focus and drive our investments in both people and infrastructure.

    Success comes not from clinging to tradition but from refining every step—sourcing responsible feedstocks, investing in modern analytical tools, and listening closely to the needs and stories of those building the future with vanadium tetrachloride as their tool of choice. We keep learning from both triumphs and setbacks, translating every lesson into tangible improvements that show up in the quality of each new batch leaving our plant.

    Conclusion: Building Value Through Practical Chemistry

    Vanadium tetrachloride brings together decades of chemical expertise, unwavering attention to detail, and a direct connection to those pushing the boundaries of material science, synthesis, and catalysis. As manufacturers, our perspective stays shaped by the demands and achievements of our partners, focusing not on what vanadium tetrachloride is in theory but what it does in the field. Real quality, from process control to technical dialogue, is what makes vanadium tetrachloride a continued cornerstone of innovation and reliability across a world of industries.