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Lanthanum Nitrate

    • Product Name Lanthanum Nitrate
    • Alias Lanthanum(III) nitrate
    • Einecs 233-238-0
    • 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
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    Specifications

    HS Code

    471848

    Chemicalname Lanthanum Nitrate
    Chemicalformula La(NO3)3
    Molecularweight 324.92 g/mol
    Casnumber 10099-58-8
    Appearance White crystalline solid
    Solubilityinwater Highly soluble
    Meltingpoint 55 °C (decomposes)
    Density 2.68 g/cm³
    Odor Odorless
    Pubchemcid 62766
    Boilingpoint Decomposes before boiling
    Storageconditions Store in a cool, dry, and ventilated area
    Ph Acidic (in aqueous solution)
    Hazardclass Oxidizer
    Shelflife Stable under recommended storage conditions

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

    Packing & Storage
    Packing Lanthanum Nitrate, 500g, packed in a sealed, white HDPE bottle with tamper-evident cap and clear hazard labeling for safety.
    Shipping Lanthanum Nitrate is shipped in tightly sealed, corrosion-resistant containers to prevent moisture absorption and contamination. It must be clearly labeled and handled with care, avoiding contact with incompatible substances. Transport complies with regulatory guidelines, often as a hazardous material, requiring secure packaging, proper documentation, and adherence to environmental and safety protocols.
    Storage Lanthanum nitrate should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from moisture and incompatible substances such as strong acids and reducing agents. The storage area should be free from sources of ignition and protected from physical damage. Keep it separate from flammable materials and clearly label the container to ensure proper identification and handling.
    Application of Lanthanum Nitrate

    Applications of Lanthanum Nitrate in Industrial Manufacturing

    Lanthanum nitrate finds targeted roles in selected industrial fields due to its unique chemical and physical characteristics. As a direct manufacturer, we focus on key applications where this material delivers technical reliability in regulated production environments, supporting advanced processes and market-specific final products.

    1. Catalysts for Petroleum Refining

    Refineries utilize lanthanum nitrate as a precursor for fluid catalytic cracking (FCC) catalyst formulations. The compound provides lanthanum oxide for zeolite stabilization, improving selectivity and thermal stability. FCC units integrate this material during catalyst preparation, requiring strict control of feed purity and nitrate content because final attributes directly impact catalyst longevity and gasoline yield. Refineries rely on careful documentation throughout catalyst blending, followed by calcination and in-situ conversion to active oxide phases under controlled conditions.

    Industry compliance standards

    • API 936 (Refractory Installation Quality Control)
    • ISO 9001:2015 (Quality Management Systems)
    • Operator-specific catalyst qualification protocols

    Typical usage ratio

    • 2–5 wt% lanthanum component in total zeolite catalyst blend; adjusted for activity target and operational severity

    Downstream process integration

    • Mixing with catalyst support slurries before spray drying and calcination
    • Direct addition post-zeolite synthesis for lanthanum-exchange

    Final product types

    • FCC catalyst beads for gasoline and diesel upgrading
    • Hydrocracking catalyst blends

    2. Specialty Optical Glass Manufacturing

    Lanthanum nitrate serves as a key ingredient in the manufacture of high-refractive-index glass for optics and photonics. The material acts as a lanthanum oxide source, offering improved transmission and reduced chromatic aberration. Glass manufacturers melt weighted batches with nitrates, silicates, and other rare earths, monitoring residual nitrate decomposition to avoid bubble formation. Continuous quality tracking ensures finished glass achieves strict optical specifications for laser and imaging applications.

    Industry compliance standards

    • ISO 12123 (Glass Composition Determination)
    • DIN EN 1748-2-1 (Glass for Optics—Raw Materials)
    • RoHS Directive 2011/65/EU (Substance Restrictions)

    Typical usage ratio

    • 10–30 mol% lanthanum (as oxide) in specialty glass batches, tuned by desired refractive index and dispersion

    Downstream process integration

    • Direct batch addition to furnace or tank
    • Controlled thermal decomposition to oxide phase before glass melting

    Final product types

    • Camera lenses
    • Laser crystal host glass
    • Radiation-shielding optical glass

    3. Water Treatment for Phosphate Removal

    Municipal and industrial water treatment plants selectively dose lanthanum nitrate for advanced phosphate precipitation. The process relies on the in-situ formation of highly insoluble lanthanum phosphate, which enables stringent control of phosphorus discharges into natural waters. Dosing control systems adjust addition rates based on incoming phosphate levels, and operators verify final effluent quality per environmental discharge permits. Proper nitrate management and safe sludge handling remain critical to minimize secondary impacts.

    Industry compliance standards

    • USEPA Method 365.1 (Phosphorus Analysis in Water)
    • EN 12260 (European Standard for Phosphorus in Water)
    • ISO 14001 (Environmental Management Systems)

    Typical usage ratio

    • 2–4 molar equivalents per phosphate ion in influent; adjusted to site-specific phosphorus loads and effluent targets

    Downstream process integration

    • Metered injection in chemical dosing skids upstream of clarifiers
    • Co-precipitation with existing coagulant streams

    Final product types

    • Treated effluent meeting <10 ppb phosphorus
    • Lanthanum-rich treatment sludge for regulated disposal

    4. Ceramics & Electronic Capacitor Grades

    Producers of dielectric ceramics for multilayer ceramic capacitors employ lanthanum nitrate as a source of lanthanum in precise oxide form. The compound helps tailor the dielectric constant, temperature coefficients, and sintering profiles of finished tablets or tapes. Manufacturers dissolve and blend the nitrate with titanates and other rare earth salts in controlled aqueous systems, employing spray drying and calcining steps to achieve uniform powder morphology. Quality teams monitor every stage to prevent contamination and unreacted nitrate residues.

    Industry compliance standards

    • IEC 60384–1 (Fixed Capacitors for Electronic Equipment)
    • JIS C5101 (Japanese Capacitor Standards)
    • ISO 9001 for electronic ceramics manufacturing

    Typical usage ratio

    • 0.5–5 mol% lanthanum (as oxide) in ceramic formulations, optimized for device capacitance and temperature grade

    Downstream process integration

    • Solution blending before spray drying precursor powders
    • Calcination in rotary or tunnel kilns at 900–1200°C

    Final product types

    • Class II MLCC dielectric ceramics
    • High-permittivity barium titanate ceramics

    5. Fluorescent and Luminescent Phosphor Production

    Phosphor manufacturers consume lanthanum nitrate during wet chemical synthesis of lanthanum-based luminescent materials, such as LaPO4:Ce,Tb green phosphors and LaOCl:Eu. The nitrate guarantees precise stoichiometry, ensuring repeatable color and quantum efficiency after high-temperature firing. Strict documentation follows REACH and RoHS compliance due to downstream use in electronic displays and lighting. The nitrate precursor dissolves rapidly, suiting automated batching and consistent mixing for advanced phosphor lines.

    Industry compliance standards

    • REACH (EC) No 1907/2006 (EU Chemicals Regulation)
    • RoHS 2011/65/EU (Lead, Mercury, Cadmium Limits in Electronics)
    • ISO 10716 (Photoluminescence Spectra Measurement)

    Typical usage ratio

    • Stoichiometric: based on target phosphor formula, generally 15–35 wt% in precursor solutions

    Downstream process integration

    • Wet precipitation with phosphate or chloride solutions
    • Post-mixing calcination up to 1000°C to form crystalline phosphor

    Final product types

    • Phosphors for LED and LCD backlighting
    • Cathode ray and X-ray screen phosphors
    • Energy-saving lamp coatings
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    Certification & Compliance
    More Introduction

    Lanthanum Nitrate: Product Introduction from the Manufacturer

    Lanthanum Nitrate stands as a mainstay in our rare earth chemical line for customers who value both reliability and purity in their advanced applications. Through decades of hands-on work in lanthanide chemistry, we have seen how minor differences in batch quality and production approach ripple out into performance differences for things like catalysts, water treatment agents, and optical materials. We have honed our process to make sure the final product not only meets consistent high purity benchmarks, but also fits smoothly into demanding process environments in research, electronics, ceramics, and environmental remediation.

    Quality Driven by Process Control

    Precision in rare earths chemistry does not leave much margin for error. Minor contamination can alter reactivity or distort analytical results. That is why our lanthanum nitrate production relies on a controlled, multi-step extraction of lanthanum oxide from our incoming ore, followed by strict dissolution and filtration regimes. With years refining this process, we achieve a purity that consistently falls above 99.9%. Colored or off-grade lots do not leave the plant. Each production batch gets evaluated against trace element content by ICP-OES and checked for consistency in nitrate composition through titration. We monitor the process not simply to pass a checklist, but because we have witnessed firsthand how a single poorly managed variable can lead to customer delays, ruined research, or plant fouling further down the line.

    Crystal Form and Model Specifications

    Experienced users know lanthanum nitrate can appear as a crystalline powder, granulated salt, or clear solution. Over years of supporting research institutions and industrial clients, we have found a broad preference for the hydrated crystal form—La(NO3)3·6H2O. Our plant delivers this as free-flowing, white needle crystals. The water content stabilizes the salt and helps prevent thermal decomposition under standard storage. We manufacture custom particle sizes by demand, but our standard grade offers grains averaging between 1 and 3 millimeters. This size helps support even dissolution and prevents rapid caking in storage bins. For customers requiring direct solubility, we provide a 1 molar solution, always freshly prepared to prevent hydrolysis and clotting.

    Trace element analysis is not just for compliance—it addresses the real-world need to avoid contamination by other rare earths, especially cerium, praseodymium, and neodymium. In practice, we monitor for iron, calcium, and silicon as well, since these elements crop up during extraction. From our experience, cross-contamination above 0.01% can quickly degrade performance in glass, ceramics, or high-purity catalyst synthesis. Those applications taught us that simply quoting percent purity is not enough—our customers have driven us to target and disclose upper limits on dozens of elements. This way, research chemists know precisely what to expect and can plan their uses around each impurity profile.

    Applications and Industry Experience

    Lanthanum nitrate is not a commodity chemical that can always be swapped between sources. Watching customers scale from beaker to pilot reactor, we have seen lanthanum nitrate play out as a key input in a range of fields.

    In environmental science, our lanthanum nitrate has been used directly to remove phosphates from polluted water. Municipal engineers favor our material because of its fast dissolution, easy metering, and low risk of insoluble residue. We recognize that in phosphate polishing, every contaminant left behind can accelerate scaling, so our routines target the lowest possible iron and manganese levels.

    Glass producers have relied on lanthanum nitrate for creating high-refractive index and precision optical glasses. When sodium, potassium, or transition metal impurities creep in, they can cloud the glass or shift its color. Years of partnering with technical glassmakers taught us how even fractional differences in elemental contaminants can affect production yields. So, our focus on full assay reporting is not just a compliance measure—it springs from direct industry feedback and our own production trials.

    Catalyst manufacturers in petroleum refining trust our product line because the nitrate decomposes cleanly under controlled heat to produce lanthanum oxide, without introducing carbonate or sulfate ions that disrupt active sites. Customers have reminded us time and again that a catalyst’s activity can crater if trace sodium or heavy metal impurities enter the mix. Sourcing lanthanum nitrate from suppliers who shortcut purification causes more plant downtime and unpredictable results. That is why we never batch-mix or downgrade our nitrate output, since customers have traced defects back to such short cuts at other facilities.

    Ceramics and electro-ceramic customers depend on lanthanum nitrate for preparing high-quality perovskite materials, capacitor dielectrics, and transparent ceramics. They face the challenge of forming reproducible grain size, phase purity, and dependable doping profiles. Having worked with labs scaling up to production, we have seen how even tiny levels of strontium or barium contamination in lanthanum nitrate can skew sintering temperatures or change dielectric constants. We produce specialized grades with < 1 ppm of these elements available upon request.

    In research and analytical chemistry, our product gets used for prepping calibration standards, as a matrix modifier in atomic absorption, and as a precursor in complex coordination chemistry. Many labs require certificates of analysis with batch-specific impurity data, loss on drying, and exact nitrate content. We have responded by improving both trace analysis and reporting, and by storing reference samples from every production run. Our clients have caught more than a few analytical anomalies that, when traced back, got fueled by poorly controlled nitrate stocks from other sources. We keep records going back over a decade so we can review and improve product reliability.

    Comparing Lanthanum Nitrate to Other Lanthanum Products

    Lanthanum customers often ask how nitrate compares to lanthanum chloride, lanthanum carbonate, or the oxide. From both our manufacturing and user experience, each form suits a different niche. The nitrate brings some clear advantages for ease of handling in water-based processes: it dissolves fast, and it introduces no competing anions. Chlorides add the risk of introducing halide ions that can corrode processes or interfere with later steps, which matters in precise glass, catalyst, or battery applications. Our team saw several pilot lines hit snags when trying to switch out nitrate with chloride to cut costs—the supposed savings evaporated in reworking bad batches.

    Developing adsorbents for water treatment, our customers lean on nitrate because it leaves behind only non-volatile lanthanum oxide after thermal conversion. The carbonate, while useful for some slow-release or soil applications, risks introducing hard-to-remove carbonate residues, slowing down sintering or hydrolysis reactions. The nitrate avoids these issues—it decomposes cleanly, and process control is easier when dealing with standardized aqueous chemistry.

    Lanthanum oxide is the basis for most specialty ceramics and glass formulations, but direct use of oxide demands higher temperature reactions, more dust control, and special equipment handling. Over the years, we have helped customers reduce plant downtime by switching to nitrate—a form that cuts out multiple steps, since solution-based syntheses are more repeatable and controllable. Our oxide plant can match nitrate for purity, but powder handling and solubility always stack up in the nitrate’s favor if workflows require rapid, repeatable mixing without loss.

    Not every nitrate is created equal. Lower grade material—sometimes called “industrial” or “agricultural”—brings broader impurity levels and relaxed QA. We have seen customers run in circles trying to stretch such grades into electronics or high-purity applications, only to return for our higher specification product. In every case, recordkeeping by the manufacturer, transparency on source and lot composition, and a clear chain of custody prove to be the difference between a good batch and a wasted one.

    Philosophy of Purity and Traceability

    In manufacturing, we found real-world purity is about process control, not just clean rooms or raw material spend. Lanthanum nitrate’s performance hinges on raw ore quality, the precision of chemical separations, and handling in the final crystallization. By cross-checking every stage, sampling for both major and minor contaminants, and comparing against industry-driven standards, we prevent costly recalls and keep pace with developments in display glass, solid oxide fuel cells, and specialty catalysis. We push for both batch-to-batch repeatability and consistent reporting, because it only takes one anomaly to disrupt a customer’s process and break trust.

    There is no shortcut to reliability. We invest in equipment upgrades and deep-dive our traceability systems, so we can track any deviation back to source lot and processing date. We don’t use generic “spec sheets” as a marketing tool—we show customers real data, accumulated across years of product improvements and recorded feedback from plant trials, pilot studies, and commercial runs. If a client asks for an additional trace analysis, we keep archives of reference samples for each lot so side-by-side comparisons are possible. Our quality record stands as a response to genuine industry challenges we’ve navigated together with customers.

    Field Experience and Problem-Solving

    We have walked factory floors with catalytic converter engineers. We have watched glass technicians struggle with batch-to-batch haze, only to trace it to inconsistent iron content in lanthanum salts. Analytical labs have called us in a panic after discovering surprising backgrounds in their rare earth standards, sometimes because a previous supplier switched ore sources without alerting anyone. These lessons push us to keep refining our process and document every change. From raw material sourcing in the mine to packaging and shipment, small factors compound, and a single oversight can cost days of labor and lost product. We treat every customer feedback as an opportunity to improve—not simply to patch up a complaint, but to preempt the next obstacle further down the line.

    Flexibility matters too. Some industrial users require higher purity, so we have developed capabilities for sub-ppm purification. Others need standard grade at larger scale, preferring consistent particle size and lower cost. We tune crystallization and drying routines to balance both needs: stable flow for automated dosing, rapid solubility for continuous reactors, and layered QC checks. If a project demands trace element guarantees below typical spec, our in-house chemical lab adapts the process and runs additional separation cycles—drawing on experience with dozens of special cases accumulated over years of custom manufacture.

    Safety, Handling, and Compliance Culture

    Lanthanum nitrate merits respect for both its chemical reactivity and regulatory standing. We approach safety above all by controlling dust and crystalline fines at the point of packaging and filling, and by training all line operators to recognize and resolve abnormal production events. Our facility operates under strict environmental and occupational controls, not because the rules demand it, but because we have seen firsthand how a commitment to worker and community health builds trust and long-term partnerships. Shipments leave our plant in UN-approved packaging with clear lot numbers, full hazard identification, and safe storage guidance based on actual observed properties.

    Transport and paperwork go beyond compliance. We monitor all regulatory updates and maintain in-house expertise for import, export, and customs across all regions we serve. Quality management does not end at our door—customers regularly contact our support staff for guidance on long-term storage, accidental spills, or handling procedures for pilot reactors. Over time, we have built a knowledge base from real events in the field, so that new users benefit from the experience of those before them.

    Continuous Improvement and Industry Collaboration

    The market for lanthanum nitrate does not stand still. Fields from catalysis to battery technology continue to push for new purity markers, trace element guarantees, and cleaner environmental footprints. We prioritize R&D partnerships, open collaboration with research labs, and soliciting feedback from both new and long-standing customers. No one facility or process holds all the answers. Our best process improvements have come directly from working side-by-side with material scientists, ceramic engineers, and wastewater chemists who confronted barriers we had not foreseen. That culture of honest engagement has shaped the way we invest in new production lines, select ore sources, and document traceability.

    As lanthanum nitrate’s role expands in emerging technologies—think rare earth magnets, hybrid vehicle batteries, and even advanced lighting—customers look for suppliers who do not simply move product, but actually touch every step of the process. Our facility team stays both nimble and focused on long-term relationships rather than single transactions, since the costs of change can be high, and trust built through years of consistent quality is hard won and easily lost.

    Looking Forward

    We see more customers demanding both traceable supply chains and deeper data around source, processing, and downstream performance. The next decade brings tighter supply constraints in rare earths, not just for lanthanum but for the full suite of related materials. We invest ahead to secure both raw material supplies and improved analytical capabilities. We work closely with partners to anticipate shifts in environmental regulation, end-of-life product stewardship, and green chemistry demands.

    Through all these changes, our guiding principle remains: no single batch or product stands apart from the broader trust we build in every transaction. Lanthanum nitrate from our factory is not simply a chemical, but a record of detailed process work, quality improvement, and open feedback with the people who put it to its greatest uses. The growth and success of end-users—engineers, researchers, environmental managers—form the backbone of what we define as real product excellence.