Products

Vanadium Oxytrichloride

    • Product Name: Vanadium Oxytrichloride
    • Alias: Vanadium oxychloride
    • Einecs: 231-841-9
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    124535

    Chemicalname Vanadium Oxytrichloride
    Chemicalformula VOCl3
    Molarmass 173.30 g/mol
    Appearance Yellowish liquid
    Meltingpoint -23°C
    Boilingpoint 126°C
    Density 1.823 g/cm3
    Solubilityinwater Reacts with water
    Odor Sharp, irritating
    Casnumber 7632-51-1
    Vaporpressure 18 mmHg at 25°C
    Flashpoint None (non-flammable)
    Refractiveindex 1.574 (20°C)
    Stability Hydrolyzes in moist air

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

    Packing & Storage
    Packing Vanadium Oxytrichloride is packaged in a 500 mL amber glass bottle, sealed, labeled with hazard warnings, and secured in a padded carton.
    Shipping Vanadium Oxytrichloride is shipped as a hazardous material due to its corrosive and toxic properties. It is transported in tightly sealed, corrosion-resistant containers, under dry, well-ventilated conditions. Proper labeling and documentation are required, complying with applicable transport regulations such as UN 2860, to ensure safe handling and storage during transit.
    Storage Vanadium Oxytrichloride should be stored in tightly sealed, corrosion-resistant containers, away from moisture, water, and incompatible substances such as strong bases and oxidizers. The storage area must be cool, well-ventilated, and protected from direct sunlight. Proper labeling and secondary containment are recommended to prevent leaks or spills, as the chemical is volatile, corrosive, and moisture-sensitive.
    Application of Vanadium Oxytrichloride

    Applications of Vanadium Oxytrichloride in Industrial Manufacturing

    As a vertically integrated manufacturer, we supply vanadium oxytrichloride to key global industrial sectors. The following sections detail specific application environments where proven production experience and regulatory compliance guide requirements for downstream use. All information reflects real-world industry standards and application data to support partners in process selection, formulation, and production controls.

    1. Synthesis of Vanadium-Based Catalysts for Sulfuric Acid Production

    Sulfuric acid plants utilize vanadium oxytrichloride as a source material when manufacturing high-performance vanadium pentoxide catalysts. This compound’s unique reactivity and controlled purity support both wet and dry catalyst fabrication routes. Operators adjust dosage according to targeted catalyst porosity and conversion rates, optimizing process efficiency in contact process reactors. Careful QA ensures catalysts conform to regional environmental and occupational safety norms before final packing for acid production lines.

    Industry compliance standards

    • ISO 9001:2015 Quality Management System (QMS)
    • REACH Regulation (EC 1907/2006) for chemical substances
    • European Sulphuric Acid Association (ESA) Bat Best Practice Guidelines
    • OSHA 1910.119 Process Safety Management as relevant to catalyst handling

    Typical usage ratio

    • 0.1%–0.5% by mass of total catalyst batch; precise addition individualized based on desired vanadia loading and physical structure tuning for SO2 conversion.

    Downstream process integration

    • Blended into catalyst slurry or directly impregnated onto silica/titania support during catalyst pre-forming.
    • Oxidative calcination process ensures the formation of catalytically active V2O5.
    • Integrated within DCS-controlled catalyst packing units prior to reactor charge.

    Final product types

    • Vanadium pentoxide catalyst pellets or tablets for contact sulfuric acid production units.

    2. Organic Synthesis: Chlorination and Oxidation Catalyst Intermediate

    Producers of fine chemicals and specialty monomers employ vanadium oxytrichloride as a highly selective reagent and catalytic precursor in multi-step organic transformations, notably for chlorination reactions and oxidation of aromatic compounds. Process formulations must balance benefits of high reactivity with trace contaminant control to ensure batch reproducibility. The dosing and process temperature synchronization significantly influence selectivity and minimize by-products in high-value pharmaceutical or polymer intermediate synthesis.

    Industry compliance standards

    • GMP Guidelines (ICH Q7) for pharmaceutical intermediates
    • ISO 14001:2015 (Environmental Management) in chemical manufacturing
    • FDA 21 CFR Part 211 (Current Good Manufacturing Practice for Finished Pharmaceuticals) for API intermediates
    • Registration, Evaluation, Authorisation and Restriction of Chemicals (REACH) for EU-based plants

    Typical usage ratio

    • Usually 0.05–1.2 mole equivalents relative to limiting substrate, depending on reaction step and desired conversion.

    Downstream process integration

    • Charged as a direct reagent to chlorination reactor vessels under inert atmosphere.
    • Used for preparation of vanadium-based oxidation catalyst beds in plug-flow reactors.
    • Applied in continuous-feed or batch reactors during functional group transformations.

    Final product types

    • Specialty aryl or alkyl chlorides and pharmaceutical intermediates
    • Monomer building blocks for advanced polymers

    3. Deposition of Vanadium Thin Films in Electronics Manufacturing

    Semiconductor and advanced glass coating industries incorporate vanadium oxytrichloride as a vapor phase precursor for controlled thin film deposition. Chemical vapor deposition (CVD) and atomic layer deposition (ALD) engineers specify it for manufacturing transparent conductive oxides, phase change memory materials, and electrochromic device layers. Purity requirements, material compatibility, and safe vapor handling dictate dosing and process integration throughout the coating cycle.

    Industry compliance standards

    • SEMI S2: Environmental, Health, and Safety Guideline for Semiconductor Manufacturing Equipment
    • IPC-6012: Qualification and Performance Specification for Rigid Printed Boards
    • IEC 60747: Semiconductor devices – discrete devices and integrated circuits
    • ISO 14644 Cleanroom standards for electronic-grade manufacturing

    Typical usage ratio

    • Film precursor input rates vary from 5–50 sccm (standard cubic centimeters per minute) for CVD; ALD process exposures typically range from 0.1–1.0 mg per cycle, adjustable for pattern thickness and device requirements.

    Downstream process integration

    • Loaded into precision-controlled vaporizers feeding CVD or ALD chambers.
    • Pulsed delivery synchronized with substrate heating and carrier gas injection.
    • Residue management and exhaust scrubbing implemented at reactor outlet.

    Final product types

    • Transparent conductive glass and coatings
    • Vanadium oxide thin-film resistors, photonic switch matrices
    • Electrochromic smart window films

    4. Manufacture of High-Performance Glass and Ceramics

    Advanced glassmakers and ceramics plants integrate vanadium oxytrichloride into formulations to impart controlled coloration, infrared absorption, and improved physicochemical durability. Commercial architectural and technical glass benefit from its solubility and precise dosing parameters during melting or sol-gel processing. All feedstocks undergo rigorous testing to ensure full traceability and compatibility with lead-free and eco-friendly formulation requirements.

    Industry compliance standards

    • EN 1717 (Protection against contamination of potable water in glass plants)
    • ISO 695: Glass — Resistance to attack by a boiling aqueous solution of mixed alkali
    • RoHS Directive 2011/65/EU (Restriction of hazardous substances in electrical and electronic equipment)
    • ASTM C1036: Standard Specification for Flat Glass

    Typical usage ratio

    • Generally 0.01–0.15% by weight of glass batch; variation based on required tint intensity, UV/IR filtering properties, and viscosity parameters during melt processing.

    Downstream process integration

    • Introduced alongside fluxes and stabilizers in batch mix hoppers or pre-reacted in sol-gel precursors.
    • Mixed and melted in high-temperature furnaces with real-time colorimetric QC monitoring.
    • Applied via surface treatment in specialty glassware coating lines.

    Final product types

    • Heat-absorbing window glass and architectural elements
    • Decorative colored glassware
    • Technical ceramics with tuned dielectric properties

    5. Preparation of Specialty Metal Alloys and Surface Hardeners

    Foundries and specialized metallurgical workshops deploy vanadium oxytrichloride as a targeted vanadium source for refining steel and superalloy compositions. Its reactive volatility allows precise simulation and adjustment of melt chemistry for high-strength, wear-resistant components. Documentation of addition rates and post-treatment analysis records maintain compliance with international standards for critical-use metal parts, especially in aerospace and heavy machinery sectors.

    Industry compliance standards

    • ASTM A827/A827M: Standard Specification for Vanadium Alloy Steels
    • SAE AMS 2261: Chemical Check Analysis Limits, Wrought Products
    • ISO 4957: Tool steels for industrial use
    • NADCAP AC7101: Chemical Processing Accreditation (for aerospace applications)

    Typical usage ratio

    • 0.02–0.20 wt% vanadium introduced via oxytrichloride addition, calculated by desired microalloy content plus proportional correction for process losses.

    Downstream process integration

    • Injected or metered directly into molten steel or alloy melts at controlled points in the ladle refining stage.
    • Gas-phase additive in surface hardening batch furnaces for tool steels.
    • Continuous spectrographic monitoring ensures target alloy composition.

    Final product types

    • High-strength microalloyed construction steel
    • Wear-resistant tool steels
    • Aerospace superalloy forgings

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    Certification & Compliance
    More Introduction

    Vanadium Oxytrichloride: Backed by Decades of Chemical Manufacturing Experience

    Introducing Vanadium Oxytrichloride

    Vanadium oxytrichloride, often recognized by its chemical formula VOCl3, stands out in the specialty chemical world. In our factory, we have spent years producing this compound to meet the real needs of industrial users who require a dependable, high-purity reagent for advanced chemical applications. Our operations are built on rigorous protocols, consistent process checks, and respect for both tradition and innovation, because our customers, in industries ranging from catalysts to advanced material synthesis, deal with zero tolerance for impurity or inconsistency.

    Physical and Chemical Properties: What We Deliver at Scale

    VOCl3 presents itself as a yellowish liquid that gives off dense fumes of hydrogen chloride as soon as it meets moisture. At our plant, we maintain strict control over atmospheric conditions to prevent contamination or unwanted hydrolysis during every step of manufacturing and packaging. Years of production have proven that vanadium oxytrichloride’s reactivity and volatility are exactly what our clients need when carrying out complex chlorination or oxidation reactions. Solid engineering underpins our entire process — the right pressure, temperature, and raw material purity turn out to be the keys for consistent output.

    Compared to other vanadium compounds, such as vanadium pentoxide or ammonium metavanadate, this product serves a unique role in catalysis and organic synthesis — not in metallurgy or pigment production. Our model V-157 routinely tests above 99.5% purity, with strict controls on trace iron, silicon, and alkali content. This level of control rises from two decades of continuous process improvement, where even minor impurities from the chlorine feedstock or raw vanadium can trigger batch rejections. We load every container under negative pressure, using custom-engineered transfer lines that minimize exposure and human error.

    Why Industrial Chemists Choose VOCl3

    Most of our customers operate at the sharp end of performance chemistry. They aren’t interested in generic commodity vanadium salts; they want precisely engineered VOCl3 for high-value processes. In titanium dioxide pigment manufacture, chlorination of rutile with vanadium oxytrichloride boosts process efficiency compared to classic agents. Synthetic rubber sectors rely on VOCl3 to initiate polymerization where nothing else delivers the required molecular structure, and our customers remind us regularly that any drift in product quality will ruin batches worth tens of thousands of dollars.

    Polyolefin producers — especially those making high-grade polypropylene and polyethylene — use VOCl3 as a proven catalyst co-component. Here, even trace moisture or metal impurities trigger off-spec polymer, so we double-seal every container using dehydrated argon blanketing, with tamper-proof seals. Every batch passes through a full panel of analytical checks: titration, mass spectrometry, spectrophotometry, and Karl Fischer determination of traces of moisture. While other suppliers might dilute strength to cut costs, we don’t. Our VOCl3 maintains low ppm levels of sodium, potassium, and calcium, protecting critical catalysts downstream.

    Usage: Real Factory Insights

    Over years of direct feedback and troubleshooting support, we’ve learned the real-world routines and headaches that industrial chemists face when using VOCl3. Storage conditions matter more than most imagine. Our own tanks and those of our customers use PTFE-lined systems and double-walled drums, since ordinary steel or iron will degrade. For every shipment, technical support doesn’t end with delivery. We advise on drum handling, vapor containment, and purging. Our presence on customer sites over hundreds of service calls has shaped how we design our filling stations, drum closures, and emergency protocols. The nature of VOCl3 means spillage or venting isn’t a theoretical risk — a small mistake in handling means lost product and greater risk.

    This compound’s real-party strength is its chemistry: rapid reaction with olefins and activated organics. In the laboratory, producers can’t simply swap it out for vanadium pentachloride or vanadium trioxide. Those products just don’t deliver the required reactivity in key reactions, such as the Friedel–Crafts-type acylations or certain oxidative chlorination routines. Polymer makers report increased catalyst life and finer molecular weight control using our high-purity VOCl3. We’ve invested in pilot-scale tests at customer sites to directly see how subtle shifts in product specification influence process yields, recognizing that each problem solved helps us improve the next production cycle.

    We also supply VOCl3 to the battery industry, especially for next-generation vanadium redox systems. Here, the product’s stability and guaranteed low impurity levels are mission-critical. As redox flow batteries mature, their manufacturers come to us with increasingly tight specifications, and our heritage of manufacturing purity matches their needs without compromise. Over the last five years, this segment has grown, and our own process monitoring has evolved — not from theory, but from listening to the engineers doing the actual scaling-up in gigawatt-hour factories.

    Key Differences from Other Vanadium Products

    There’s a tendency in the chemicals market to treat all vanadium compounds as equivalent, or at least interchangeable. Not a week goes by without a purchasing agent asking, “Can I substitute vanadium oxytrichloride for pentoxide or sulfate?” The answer is no if the goal is chlorination or advanced catalysis. Each form of vanadium has a unique activity profile, volatility, and downstream effect. Our customers running bismuth-vanadium catalyst beds in dichloride syntheses know from experience: only VOCl3 gives them the fast-start, low-residual activity needed for optimal throughput.

    Take pigment manufacture. Vanadium pentoxide is a fine oxidizer and a key input in certain color formulations. But it lacks the volatility and molecular configuration of VOCl3, making it unsuitable for the high-temperature vapor-phase processes where oxytrichloride shines. Likewise, metallurgists prefer ferrovanadium or ammonium metavanadate in alloying, but neither gives the reactivity demanded in organics or complex polymerizations. In polymerization, VOCl3 activates catalysts that would otherwise remain dormant, and the structure of the product gives especially fine control in Ziegler-Natta or Phillips-type catalyst systems.

    Specifications for Proven Industrial Reliability

    We’ve never operated under the illusion that a “specification” is just a piece of paper; it’s a contract with everyone who relies on our VOCl3. For us, minimum purity levels of 99.5% are the baseline, not the upper limit. Each production run is triple-checked, not because regulators demand it, but because years in this business have taught us that even small lapses turn up later as plant shutdowns, off-spec product, or operator hazards.

    We meet — and often exceed — the standard benchmarks for vanadium, chlorine, and residual acid content. Moisture content runs below 50 ppm, because even a fraction higher can hydrolyze the batch during long shipment. By keeping trace transition metals and alkali below 10 ppm, downstream catalysts operate better and last longer, reducing unplanned maintenance in our customers’ facilities.

    Every drum and tanker leaves our gate with full batch traceability — not as an afterthought, but as the byproduct of robust internal tracking and quality audits going back over a decade. Our R&D chemists work on continual process tweaks to further reduce impurities, because in this market, nobody wants to explain why polyolefin catalyst residue spiked unexpectedly halfway through a production run.

    Safety, Handling, and Technical Support Built on Experience

    Handling VOCl3 is not for the guessing game. Its fuming, corrosive vapor demands respect and proper engineering controls. In our own facility, we build every line and valve out of proven corrosion-resistant materials. Our operators work in sealed suits, and automated sampling systems reduce the need for manual intervention. Not because this looks impressive — but because early incidents taught us that even minor releases can damage equipment and delay production. We regularly invest in advanced leak detection and personal protection, and recommend suppliers and users do the same.

    We also support customers with practical advice: How to neutralize accidental spills quickly, how to arrange vapor extraction, how to train new staff for hazardous unloading. Beyond the technical tips, we share insights on logistics: which freight carriers have the clean record, what season brings riskier transit conditions, right down to the best valve gaskets approved for this product. This isn’t a sideline. Our technical team answers hundreds of calls and emails each year, often troubleshooting in real time with team leads on the receiving end. It’s become a hallmark of our approach — working as partners on the ground, not just suppliers.

    Responding to Real-World Problems

    Decades of supplying VOCl3 worldwide have exposed us to problems no how-to guide covers. From broken cold-chain shipments to customs delays in humid climates, we’ve seen how even the best-made product can stumble at the last mile. Our own approach emphasizes prevention. We use desiccant-packed secondary containment, schedule shipments to avoid temperature spikes, and track container humidity in real time for all overseas orders. Shipping documents include specific unloading and emergency protocols based on lessons learned — not borrowed from a manual, but developed in direct consultation with customer safety officers and plant managers.

    In the event of a customer complaint or reported off-spec batch, response teams jump on root-cause analysis immediately. We don’t simply offer a replacement product. We examine logs from batch production, review shipping and storage data, and even dispatch technical experts where needed to audit storage and pipeline systems. These investments cost time and effort but prevent recurrences and preserve the trust that underpins all chemical supply relationships.

    We regularly share process improvements with major users. For instance, one large polyolefin producer partnered with us to redesign their unloading dock, based on operational feedback after a series of minor leaks. The result: more uptime, fewer incidents, and a direct reduction in insurance costs for all parties. This cooperative approach is what moves the field forward; it’s not just about maximizing product throughput, but also improving worker safety and asset longevity.

    Environmental Considerations and Compliance: More Than a Checkbox

    The chemical industry moves quickly, but environmental and regulatory scrutiny moves faster. For VOCl3, careful environmental management is essential not only at our site, but throughout the supply chain. Chlorinated byproducts pose genuine disposal challenges. Our internal processes recapture byproduct acids and neutralize waste streams before discharge, well ahead of regulatory mandates.

    Many of our clients approach us with sustainability targets, whether for reduced Scope 3 emissions or closed-loop water recycling. In response, we’ve upgraded our own facilities to minimize venting, recovering hydrochloric acid and recycling wash water. Our degassing units and containment tanks have evolved with best practices stemming from both regulatory feedback and shared learning from users.

    Certification requirements become stricter every year, especially in European and North American markets. Our documentation system is set up to supply downstream processors with all requisite information for REACH, EPA TSCA, and similar frameworks, without any lag time. We consult with regulatory experts and industry associations to anticipate future demands, so that our VOCl3 production stays ahead of the curve — and our customers aren’t left scrambling at audit time.

    Supporting Product Innovation

    Innovation doesn’t just mean tweaking specs for marketing. Over the years, we’ve worked alongside polymer chemists, battery designers, and catalysis experts to push VOCl3 into new applications. It wasn’t always clear what could work, but direct feedback has paid the biggest dividends. Some customers came to us with ambitious new polymer targets, but choked on cost or stability when their old catalyst mixes wouldn’t scale. Joint testing with our on-site R&D delivered a product variant with tighter moisture spec, which in turn produced higher yields and less downtime. These cycles of feedback, adjustment, and reevaluation have kept us and our customers ahead of the game.

    Some of the best product ideas originated not from our laboratory, but from the field. Visiting customer plants, we saw how onsite conditions — from tank design to local weather — could impact performance. Those lessons shaped both our packaging and our fill procedures. Even the best product on paper can let down the user if packaging or delivery doesn’t fit real-life conditions; this is where our experience as a manufacturer, not a distributor, stands out.

    We’re also seeing more custom-use blending and advanced additive projects, especially from users scaling up in renewable energy and advanced polymers. Our plant has adapted batch-size flexibility and filling schedules to support these users. By keeping lines open between R&D chemists at both ends, we’ve created partnerships that look beyond one-off orders to shared long-term success.

    The Road Ahead

    Looking forward, we expect industries using high-performance vanadium reagents to keep demanding tighter specs, better logistics, and more robust documentation. Battery manufacturers seek higher cycle stability and longer life, and this will translate to ever-finer impurity allowances in VOCl3. Polymer makers want even less water content, driving us to invest in better drying processes and real-time quality tracking.

    Ultimately, producing and supplying vanadium oxytrichloride is more than a question of technical process or chemical reaction — it’s about understanding and anticipating how each batch will be used, and what new challenges the next generation of chemists will uncover. We don’t outsource production, and don’t treat safety or quality as a formality. Our factory’s routines, analytical practice, and field support all reflect an accumulated knowledge that only comes from decades of hands-on experience in chemical manufacturing and customer support.

    We remain committed to raising the standard for vanadium oxytrichloride, not just to meet current demand but to help shape where high-performance industrial chemistry goes next. For us, that means reliable product every time, transparency in what we deliver, and a willingness to tackle tough problems shoulder to shoulder with our customers. That’s been our focus for years, and it’s how we believe trust is built in this business.

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