|
HS Code |
221478 |
| ChemicalName | Oxovanadium |
| Formula | VO |
| MolecularWeight | 66.94 g/mol |
| Appearance | Black solid |
| MeltingPoint | 1790 °C |
| Density | 5.76 g/cm³ |
| CASNumber | 1314-62-1 |
| Solubility | Insoluble in water |
| MagneticProperty | Paramagnetic |
| CrystalStructure | NaCl type cubic |
| OxidationState | +2 vanadium |
| BandGap | Semimetallic to Metallic |
| Stability | Stable under standard conditions |
| CommonUses | Catalysis, material science research |
As an accredited Oxovanadium factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Oxovanadium, 100g, is supplied in a tightly sealed amber glass bottle with a screw cap, labeled with product and hazard details. |
| Shipping | Oxovanadium should be shipped in tightly sealed containers, clearly labeled, and protected from moisture and incompatible substances. Transport must comply with local, national, and international regulations for hazardous chemicals. Ensure proper documentation accompanies the shipment and personnel handling the material use appropriate personal protective equipment during loading and unloading. |
| Storage | Oxovanadium should be stored in a cool, dry, well-ventilated area away from incompatible substances such as strong acids and oxidizers. Keep the container tightly closed and properly labeled. Protect from moisture and direct sunlight. Store in corrosion-resistant containers to prevent reaction with the environment. Ensure access to spill containment and suitable safety measures in the storage area. |
Applications of Oxovanadium in Industrial ManufacturingAs a direct manufacturer, we supply high-purity oxovanadium for specialized industrial sectors that rely on strict quality standards and traceable raw material sourcing. Below, we outline selected downstream application fields demonstrating critical roles for oxovanadium in modern manufacturing supply chains. 1. Catalyst Formulation for Sulfuric Acid ProductionOxovanadium serves as a vital component in the preparation of vanadium pentoxide catalysts used in the Contact Process. Chemical processors add oxovanadium to achieve high-conversion efficiency when oxidizing SO2 to SO3. Our technical-grade supply supports catalyst blending operations, ensuring consistent performance at commercial scale. Customers adjust loadings to balance throughput, emissions, and operational economics during sulfuric acid manufacture. Industry compliance standards
Typical usage ratio
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2. Alloy Additive in High-Strength Steel ManufacturingSteelmakers use oxovanadium as a controlled microalloying agent to increase tensile strength, elasticity, and corrosion resistance in specific high-strength low-alloy (HSLA) steels. The material feeds precise vanadium input at steel refineries or electric arc furnace operations. This supports strict composition control for automotive frames, oil pipeline, and construction-grade steels under national specifications. Industry compliance standards
Typical usage ratio
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3. Electrode Material for Advanced Battery SystemsBattery manufacturers select oxovanadium as a precursor for vanadium-based cathode and anode materials in grid-scale vanadium redox flow batteries (VRFB) and emerging lithium-vanadium cell technologies. Controlled particle size and purity ensure repeatable electrochemical performance. Producers blend oxovanadium into electrode slurries and process through high-temperature calcination or wet-chemical synthesis. Industry compliance standards
Typical usage ratio
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4. Glass and Ceramic Pigments ManufacturingCeramic pigment and glass coloring manufacturers use oxovanadium to obtain controlled green, blue, or gray-black tints in architectural, automotive, and specialty glasses. The substance acts as a colorant oxide, supporting uniform dispersion and high-temperature stability during kiln and melting cycles. Technicians calculate formulations to prevent phase separation and optimize shade intensity for end market requirements. Industry compliance standards
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5. Chemical Intermediate for Organic SynthesisFine chemical producers employ oxovanadium as an oxidizing agent and reaction intermediate in multiple organic synthetic routes, particularly for epoxidation or selective oxidation of hydrocarbons. Controlled addition ensures predictable yields and minimal by-product formation in specialty intermediates and pharmaceutical building blocks. Compliance and traceability are essential for regulated market access. Industry compliance standards
Typical usage ratio
Downstream process integration
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Oxovanadium, or vanadyl oxide, is a material that speaks for itself in the world of chemical production. For generations in this business, Oxovanadium has stood up to heavy industrial workloads and a broad spectrum of demanding applications. In practice, it means working every day with a chemical that bridges the gap between high-grade catalysts for sulfuric acid plants, pigments with deep chromatic impact, and batteries meant to last through relentless charge and discharge cycles.
As manufacturers, upstream sourcing stands in our blood. We produce Oxovanadium in batch and continuous lines, shaped by our understanding of metallurgical feedstock quality and the aggressive demands of the refining process. Model numbers and purity grades serve a real role here, not as a marketing badge but as a record of what raw material has gone through—process temperature, filtration steps, drying conditions, and control parameters, all set and checked in a real-world production environment.
Our standard grades include V2O5 for use in catalyst production, pigment precursors, and vanadium redox flow batteries. The differences between technical, high-purity, and battery grades run deeper than the analytical certificate. At the plant, we see the physical changes: from color intensity to flow properties, to the way certain trace metals behave during crystal growth. Low-sodium and low-silicon grades, for example, demand a separate feedstock circuit, not only for the numbers on a spec sheet but for the reliability and safety demanded by end-users in high-stakes industrial settings.
Each day our teams face the realities behind Oxovanadium’s reputation. Control over particle size ensures dust-free handling for catalyst producers and pigment blenders. In catalyst applications, tiny shifts in impurity content lead to bigger changes in downstream yield. Every step—from calcination to packaging—marks another chance to prove a batch’s quality, determined as much by the skill of operators as by process automation.
Many battery manufacturers come looking for vanadium pentoxide with strict requirements on iron and aluminum levels. These contaminants shorten battery life, waste energy, and raise costs. Meeting such specifications means more than ticking boxes. It means adjusting leaching protocols, switching filter media, or lengthening crystallization times even if it stretches plant scheduling. High-purity battery-grade material requires more than an extra filtration; it demands experience accumulated from thousands of kilograms produced and tested over years.
Traders and resellers speak about the product in the abstract, but on the manufacturing floor, the smallest raw material fluctuation changes everything. Technical-grade Oxovanadium supports massive sulfuric acid plants, where resistance to aging and strong performance under shifts in feed gas are more important than abstract purity numbers. We focus on what real operators notice—dustiness, clumping, and a product’s ‘feel’ during transfer. Reproducibility from drum to drum takes precedence, built on careful blending and attention paid to every incoming lot.
Battery manufacturers often try “off-spec” grades in pilot projects and see the difference after six months: lower cycle counts, reduced capacity, deposits building up. Materials crafted with the battery-grade process don’t just carry a sticker; they protect investments in energy infrastructure for years. That’s not marketing talk: warranty disputes, field failures, and downtime follow sloppy material choices, and it’s our technical managers answering those calls from clients and plant managers, not a distant third party.
Some pigment applications have less dependency on trace elements, but artists and manufacturers both recognize what a tiny trace of chromium or manganese can do to consistency and shade. We see those outcomes in lab results as well as customer complaints. Fine-tuning starts by choosing the right ore stock and doesn’t finish until the dried product comes through the last screen, passing color and particle size checks. These decisions don’t appear on sales sheets, but they shape the quality of the paint on scaffolding or in printed packaging found all over the world.
Direct experience shapes every product batch. Industries using Oxovanadium rely on traceable, consistent supply, not just theoretical quality. Technical support means listening to a customer’s plant manager explain a process upset, troubleshooting the possible effects of last month’s impurity drift, or sending out a replacement batch when a tank accidental intake compromises a reactor run. It’s not a remote transaction; it’s a partnership built on repeat orders and clear communication.
Plants running round-the-clock lines know interruptions from poor product. If a shipment arrives with out-of-spec sodium, production lines slow down, costs climb, or worse, output fails certification. This cost and risk motivate continuous improvement. We have walked the floor with maintenance technicians and corrosion consultants, mapping facility upgrades that cut cross-contamination between different grades of vanadium. Real upgrades stem from lessons learned the hard way—lost lots, fines for non-compliance, recertification routines, and customer feedback.
R&D teams exploring new battery chemistries and catalyst formulations regularly request samples of intermediate purity levels or variations in crystal morphology. This pushes our process flexibility. Plants fine-tune the ratio between throughput and cost, and product consistency rests on the shoulders of operators who have run the kilns from one shift to the next, often relying on subtle cues—smell, color shade, humidity—a result of years watching raw ore react under different atmospheric conditions.
Demand for Oxovanadium mirrors changes in global energy storage and clean chemical technologies. Battery manufacturers are ramping up as grid operators shift more assets to renewable power. We noticed early signs: rising requests for battery-grade vanadium, supply chain audits from multinational customers, and stricter levels for transition metal impurities. As production scales, pure numbers aren't enough. Factories end up balancing between cost, consistency, and longevity.
The shift toward low-carbon technologies has forced upstream adaptation. Sourcing raw vanadium feedstock from responsibly operated mines shapes future competitiveness. We partner with miners willing to invest in cleaner extraction and traceability all the way back to the pit. Battery sector buyers care about the origin story of every kilogram; pigment manufacturers respond to regulations banning certain trace elements. We stay ahead by updating incoming quality controls and adjusting internal processes to reflect both regulatory shifts and the stricter expectations of the newest generation of plant managers.
Translating lab-scale knowledge into plant-scale productivity is a daily challenge. New production lines involve real trial and error—leaving the comfort of textbook chemistry for the real variables of dust management, acid recycling, and waste minimization. Teams make direct adjustments based on what comes out of the reactors, and feedback moves upstream in real time. Reliability is a product of hands-on experience as much as instrumented quality control.
Regulatory standards grow stricter every year. Environmental approvals, product safety reviews, and independent audits become business as usual. We don’t look at compliance as just a hurdle; old stories in the plant remind us of production stops, audits revealing hidden faults, or buyers pulling contracts over a misplaced shipment tag. Routine lab testing and process documentation—what looks bureaucratic on paper—originated from these lived experiences.
Familiarity with European REACH, North American EPA standards, and Asian import regulations comes out of necessity, not theory. Audit teams have spent weeks on our site, checking how we store, track, and label every metric ton of Oxovanadium. Battery-grade customers show up for full-day supplier reviews, walking every plant line and verifying every calibration document. That routine means building out a documentation team and production records that reach back years. These steps show that a batch stamped today stands on generations of operational learning and real accountability.
Changes in regulatory limits on dust, heavy metals, and discharge water have forced new investments. Many plants, ourselves included, committed to closed-loop water use and capture technology before guidelines made it mandatory. That came at a price, in both downtime and capital outlay, but it removed future uncertainty and positioned us as a trusted source in regulated markets.
Purely paper compliance cannot prevent poor product from reaching a reactor. Our technical team meets regularly with customers’ engineers, comparing our process parameters to their plant incidents or maintenance logs. Field data often suggest minor changes—a new moisture control step, a slight tweak to dryer temperature, or a night-shift inspection frequency increase. These stories don’t reach sales brochures, yet they define real product quality and customer trust far better than any certification logo.
The focus on Oxovanadium’s properties carries all the way from ore delivery to onsite unloading. Consistency in flow, low dust formation, packaging integrity—these have as much to do with the finished product’s usefulness as the oxide's chemical composition.
On the floor, drum damage from shipping or condensation from transit threatens more than inventory math. Wetting or caking in the field ruins catalyst charges or clogs process feeders. Years of feedback taught us to double down on packaging improvements, invest in weatherproof storage, and add silica gel packs or double liners when shipping to humid regions. Our shipments have to perform in hot deserts, wet coastal areas, and cold inland facilities without interruption.
End users measure trust by downtime events and batch rejections more than by price per kilogram. Strong supply relationships emerge when plant operators know what to expect from every shipment and can link the technical label on each drum to the performance on their production line. This kind of reputation builds slowly, but a single failure undermines years of effort.
Modern markets for Oxovanadium run on thin margins and steady competition. Price swings, raw material supply disruptions, and global transportation delays present challenges both up and downstream. We run procurement and production teams day and night to bridge these gaps for long-term customers. It means holding enough raw material onsite, building buffer inventory, and working with logistics partners who know our product’s quirks under changing weather, customs, and port conditions.
Strategic partnerships define this market as much as plant technology does. Large buyers value not only capacity, but also the silent routines that keep product flowing—weekly check-ins, rapid rerouting, or after-hours shipments when an unforeseen outage happens. Solutions don’t depend only on numbers. They depend on recognizing a client’s unique pain points and sharing the experience gained through tough market years, currency crises, or border holdups.
Pricing negotiations reflect the costs of compliance, the unpredictability of feedstock quality, and the rising labor and utility bills that mark every industrial producer’s ledgers. Low-cost competitors come and go, but reliability rewards those who can supply critical industries through both feast and famine. We have been through market shortages and shipping strikes, absorbing hits to maintain our position as a steady partner when volatility hits.
New waves of customer interest in sustainable sourcing reshape our priorities at every level. The trend is not just a marketing opportunity—it becomes an operational reality. Sustainability means investing in closed-loop effluent management, using more recycled or by-product vanadium streams, and increasing traceability by batch. Life waits for no one: regulatory and customer pressure both require improvements that often take years to pay back.
Customers from the energy storage industry ask hard questions about carbon footprint and mine-of-origin. Customers in pigments and catalysis want proof of absence for certain rare impurities that regulators just added to their restricted schedules. Fulfilling these requests means increased laboratory workload, but it also means adapting data systems to keep records on each batch’s history and trace each variation to a physical source on the production line.
Few understand the resource and time involved in offering this depth of traceability. Manufacturing teams must adapt older infrastructure, digitize plant and logistics paperwork, and train personnel who came up through years of pen-and-paper record keeping. Audit trails and transparency sometimes feel cumbersome, but they are now part of our competitive edge. Partners who remember quality missteps from older, less documented times recognize the trust that comes from an open data trail stretching back years.
Ultimately, this work protects not only customers but every person who handles, blends, or ships Oxovanadium along the supply chain. As chemical manufacturers with years of firsthand experience, we recognize that no technical sheet or price quote captures all the knowledge and accountability that go into every drum. Instead, our reliability grows from diligence at every step, open dialogue about new requirements, and the collective wisdom of teams who have spent their entire working lives at the heart of the chemical business.
Whether the application is a power grid, a chemical reactor, or a production line in a paint plant, the value in our Oxovanadium lies in every detail and every back-and-forth with our customers. Product names, models, and specifications only begin to tell the story. What sets our manufacturing process apart is not the boast of meeting minimum standards, but the way our teams internalize each specification and stand ready to adjust process variables, even at sacrifice to speed or cost, if it means the application works better out in the real world.
The result is not just measurable in purity or moisture—though these matter—but also in operational stability and suitability for every industry we serve. These lessons have been earned through years of honest feedback, ongoing investment, and countless hours standing in front of kilns, reactors, sack lines, and clean room tables. When customers say they rely on our Oxovanadium, it comes from the certainty born of a thousand shipments, tested and trusted, from our plant floor to theirs, every day.