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Lanthanum(III) Chloride

    • Product Name Lanthanum(III) Chloride
    • Alias Lanthanum trichloride
    • Einecs 233-237-5
    • 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

    970680

    Chemical Formula LaCl3
    Molar Mass 245.26 g/mol
    Appearance White crystalline solid
    Melting Point 860 °C
    Boiling Point 1960 °C
    Density 3.19 g/cm³
    Solubility In Water Highly soluble
    Cas Number 10099-58-8
    Pubchem Cid 24501
    Ec Number 233-237-5

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

    Packing & Storage
    Packing The packaging is a sealed, amber glass bottle containing 100 grams of Lanthanum(III) Chloride, labeled with hazard information and CAS number.
    Shipping Lanthanum(III) Chloride is shipped in tightly sealed containers to prevent moisture absorption and contamination. It is classified as a non-hazardous material but should be handled with care. Shipping must comply with local, national, and international regulations, ensuring clear labeling and documentation. Store and transport in cool, dry conditions away from incompatible substances.
    Storage Lanthanum(III) chloride should be stored in a tightly sealed container, away from moisture, as it is hygroscopic and can absorb water from the air. Store it in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizers. Ensure proper labeling and avoid exposure to air to maintain its purity and stability.
    Application of Lanthanum(III) Chloride

    Applications of Lanthanum(III) Chloride in Industrial Manufacturing

    Lanthanum(III) chloride plays a key role in multiple advanced manufacturing fields. As a direct producer of high-purity lanthanum compounds, we categorize its actual industrial applications into several crucial downstream sectors, each with distinct processing requirements, compliance regulations, and finished products.

    1. FCC Catalyst Formulation for Petroleum Refining

    Major refiners incorporate lanthanum chloride in the zeolitic cracking catalyst blend for fluid catalytic cracking (FCC) units. The material strengthens the rare earth stabilization of Y-type zeolites, enhancing thermal and hydrothermal stability under high operating temperatures. Production integrates it at the slurry preparation stage. The finished catalyst boosts gasoline yield, propane/butane production, and resistance to vanadium poisoning in heavy feedstock operations.

    Industry compliance standards

    • API 936: Refractory Installation Quality Control – Inspection and Testing Monolithic Refractory Linings and Materials
    • ASTM D5187 – Standard Test Method for Determination of Crystallite Size in FCC Catalysts
    • ISO 9001 certified production systems
    • Refiner-specific catalyst approval protocols

    Typical usage ratio

    • Lanthanum oxide content equivalent of 2–4 wt% in catalyst formulation based on feedstock quality and desired cycle length

    Downstream process integration

    • Add to catalyst slurry during zeolite ion-exchange or impregnation phase, followed by spray drying and calcination

    Final product types

    • FCC catalyst beads for petroleum refineries
    • Hydrocracking enhancements for residue upgrading units
    • Specialty cracking catalysts for light olefin maximization
    • Vanadium tolerant catalyst grades

    2. Optical Glass and Specialty Glass Manufacturing

    Glass plants select lanthanum chloride as a key additive in producing high-refractive-index optical glass blanks. The ingredient elevates the refractive index and improves the transmission properties for advanced lenses, laser optics, and camera elements. LaCl3 is introduced directly into glass batches prior to melting, with careful monitoring to meet optical clarity and absence of striae in high-value applications.

    Industry compliance standards

    • ISO 10110 Optical Drawing Standards
    • IEC 60747 for photonic device manufacturing
    • REACH regulation for glass additives in the EU
    • RoHS Directive on restricted substances

    Typical usage ratio

    • 1–8 wt% in the glass melt, tuned to product grade and target refractive index; strict upper limits to avoid phase separation and opacity

    Downstream process integration

    • Melt directly with silica and other network formers in the furnace batch; adjust composition before casting or pressing operations

    Final product types

    • High-index glasses for camera and projection lenses
    • Optical substrates for telecommunications
    • Precision glass blanks for laser and instrument components
    • Radiation shielding and display glass components

    3. Water Treatment Chemicals for Phosphate Removal

    Municipal and industrial water treatment facilities deploy lanthanum-based salts in phosphorus removal systems. Lanthanum compounds bind inorganic phosphate ions selectively, reducing eutrophication risk in effluent discharge. Dosing stations introduce aqueous solutions of lanthanum chloride downstream of primary clarification, prior to filtration or tertiary treatment. This process achieves low residual phosphate levels in compliance with current discharge permits.

    Industry compliance standards

    • US EPA 40 CFR Part 136 for wastewater phosphate limits
    • EN 12255-10 for phosphorus removal in Europe
    • NSF/ANSI 60: Drinking Water Treatment Chemical – Health Effects
    • ISO 14001 Environmental Management compliance for plant operations

    Typical usage ratio

    • 10–30 mg/L of lanthanum as applied, calculated depending on influent phosphate concentration; thorough jar testing performed prior to scale-up

    Downstream process integration

    • Meter aqueous lanthanum chloride solution into rapid-mix or flash-mix zone before secondary sedimentation tanks

    Final product types

    • Phosphorus-depleted municipal final effluent
    • Industrial process water for discharge or reuse
    • Specialty adsorbent media for point-source phosphorus polishing
    • Water purification packs for closed-loop aquaculture systems

    4. Specialty Ceramics for Electronic Components

    Component manufacturers use lanthanum chloride as a precursor in fabricating advanced ceramics for capacitors and piezoelectric devices. During wet-chemical synthesis, LaCl3 provides a consistent lanthanum source for materials such as lanthanum-doped barium titanate and other perovskite oxides. The ceramic powders exhibit enhanced dielectric strength and tunable temperature coefficients suitable for multilayer chip capacitors and resonator applications.

    Industry compliance standards

    • IEC 60384-14: Fixed capacitors for electromagnetic interference suppression
    • JIS C5101 for ceramic capacitor materials
    • RoHS conformity for hazardous substance restrictions
    • IPC/JEDEC J-STD-033 for component moisture/reflow sensitivity

    Typical usage ratio

    • 0.5–10 mol% lanthanum dopant relative to ceramic batch, depending on dielectric specification; batch homogeneity confirmed by XRD and SEM-EDS

    Downstream process integration

    • Incorporate into co-precipitation or sol-gel synthesis step; used as a lanthanum dopant source prior to controlled calcination and milling

    Final product types

    • MLCC (Multilayer ceramic capacitors)
    • Piezoelectric resonators and transducers
    • Dielectric layers for RF and microwave filters
    • Thermistor ceramics for temperature and circuit control

    5. Scintillator Crystal Growth for Radiation Detection

    Specialty crystal growers select lanthanum chloride as a fundamental starting reagent for producing LaBr3 and LaCl3 scintillator crystals. These materials are cornerstones for gamma spectroscopy, medical imaging (PET scanners), and high-resolution industrial detectors. Manufacturers demand ultra-low impurity grades, integrating LaCl3 at the raw melt charge blending stage prior to high temperature Bridgman or Czochralski pulling protocols for large boules.

    Industry compliance standards

    • IEC 61675-2 for emission tomography systems
    • ISO 13485 for medical device component manufacturing
    • USP Class VI for selected medical radiation shielding parts
    • Spectroscopy manufacturer QC protocols for low alpha background

    Typical usage ratio

    • As chemical precursor, blended to stoichiometric excess (1–3 mol% above theoretical yield) to ensure full lattice formation and compensate volatilization during crystal growth

    Downstream process integration

    • Add to crucible with bromide or chloride salts; subject mixture to high vacuum drying before directional pulling and controlled solidification

    Final product types

    • LaBr3(Ce) and LaCl3(Ce) single crystals for radiation detection
    • Gamma-ray spectroscopy detectors for security and research
    • Scintillator arrays for medical diagnostic imaging
    • Well-logging crystal probes for oilfield exploration
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    Certification & Compliance
    More Introduction

    Lanthanum(III) Chloride: A Manufacturer’s Perspective on Quality and Application

    Manufacturing Precision, Delivering Purity

    Producing high-purity Lanthanum(III) Chloride takes more than machinery and raw materials; it relies on persistent attention to process controls and decades of combined plant experience. In our operations, raw lanthanum oxide must meet demanding purity thresholds before entering production. After careful dissolution and multiple purification steps, we convert it fully into the chloride salt by reacting it with pharmaceutical-grade hydrochloric acid in controlled reactors. We use advanced filtration and evaporation under clean-room conditions to yield a chemical free from visible impurities and measurable heavy metal contaminants. Consistency over long production cycles earns trust. Chemists and downstream users know cleanup or deviations can disrupt an entire batch of glass, catalyst, or ceramics. Clean feedstocks start with us at the factory level, batch after batch.

    Product Offerings: Model, Granularity, and Packaging

    Labs and factories demand flexibility in their materials. Over years in production, we have optimized the particle size and moisture level of Lanthanum(III) Chloride for both bench and industrial use. Our standard model supplies fully dried, white to off-white crystalline granules, typically with a purity not less than 99.99% for electronics-grade lines. Other variants exist, such as solution formulations at specified molarity, which simplify dosing for certain catalysis and analytical workflows. We also provide anhydrous forms stabilized in inert atmospheres for users with stringent water sensitivity in organic synthesis or crystal growth. End users can request packaging from glass bottles for analytical labs, to larger sealed polyethylene drums for high-volume clients. Clients know direct-from-manufacturer lots mean full traceability and on-demand lot data, which audits and regulatory checks increasingly require.

    Understanding Lanthanum(III) Chloride: Key Characteristics and Identity

    Lanthanum(III) Chloride, with its line chemical formula LaCl3, shows up as white crystals, stable in dry air, and freely soluble in water. A strong Lewis acid, its trivalent cation binds with halides in solution, opening up reactivity options unlike organic acids or sodium salts. Our facility tracks every process—solubility, residual sulfate, and halide content—to verify quality with robust in-process controls. Less-experienced buyers sometimes underestimate how trace impurities—such as transition metals or alkaline earths—can disrupt optics or electronics-grade uses. Material from direct-from-manufacturer pipelines ensures each lot’s trace elemental profiles align with the application: glass manufacturing, ceramics, catalyst precursors, or rare earth R&D.

    Why Material Origin Shapes Performance

    A product’s history matters, starting with how pure the original lanthanum oxide feedstock is. Most downstream issues in applications—inconsistent solubility, yellowing, or pinhole defects in glasses or phosphors—can be traced to variability in the start material or incomplete conversion. Many traders and repackagers ignore the subtle differences from plant methods, but industry users quickly spot when raw materials shift. As a manufacturer, we keep full lot records for every step, offering clients not just product but also transparency about each shipment’s history. This approach reflects years of feedback from our largest customers, who report fewer production halts and lower defect rates with lot-traceable materials.

    Application Insights: Why Lanthanum(III) Chloride Remains Indispensable

    Glass makers count on it as a dopant for refractive index adjustment, especially in lenses for cameras and optical instruments, where even minor ionic contamination translates to performance drops or color shifts. Ceramics producers add this chloride precursor to boost dielectric constants and manufacture sensors that outlast standard alternatives. Catalyst manufacturers need reliable lanthanum sources for fluid catalytic cracking, car exhaust treatment, and specialty organometallic processes. Water treatment specialists exploit its affinity for phosphate removal in remediation projects. Direct sales to industrial and academic labs show an uptick, especially as rare earth availability from outside China fluctuates. Being able to rely on a consistent physical and chemical profile means fewer equipment recalibrations, more predictable reaction runs, and better scale-up success.

    Troubleshooting and Customization: Challenges Faced and Lessons Learned

    Common problems with Lanthanum(III) Chloride stem from moisture handling and unintentional ion cross-contamination. Early in our manufacturing operations, we confronted hygroscopicity issues in storage—the salt’s affinity for water led to clumping and, in some cases, visible hydrolysis. Lost time refiltering and repackaging finished goods affected both plant schedules and trust among research customers. Fine-tuning our drying and inert gas packaging, we cut moisture pickup to insignificant levels and now monitor storage close to the point of shipping.

    Labs developing new phosphors or LEDs periodically request tailored lots with ultra-low potassium or magnesium content. We meet these needs with secondary purification and high-sensitivity analytical checks. Often, questions about turbidity or color in user solutions reveal unnoticed contamination upstream. Our technical service team has traced these to supply chain repackaging—sometimes the product is handled in non-controlled spaces or diluted with tap water. Direct manufacturer sale avoids these cross-contaminations and provides faster, more accurate lot analysis. Industrial buyers have learned, at scale, that the minor cost increase per kilogram is offset by longer campaign runs and significantly less off-spec product downstream.

    Lanthanum(III) Chloride Among Alternatives: Not All Sources Perform Alike

    Lanthanum acetate, nitrate, and oxide all find a place in specialty chemical supply. Each derivative suits a different synthesis or application. The chloride’s high solubility and lower decomposition temperature give it an edge for direct incorporation into aqueous systems or as a feedstock where gentle processing is needed. The nitrate and acetate salts, on the other hand, release their anions into product systems, which can sometimes introduce side reactions or create nitrate/nitrite by-products in delicate syntheses. Our long-term clients report smoother glass and catalyst production when switching from the oxide—needing aggressive acid digestion—to our chloride, which dissolves directly without heating, saving hours of process time.

    Anhydrous Lanthanum(III) Chloride provides a streamlined route for vapor-phase applications and certain organic syntheses, while the hydrate finds favor for simpler bench-scale studies and where moisture levels don't impact end use. Each form emerges from specific handling steps in the manufacturing line: low-temperature dehydration for the hydrate, staged vacuum evaporation for the anhydrous. Direct-from-source means reliable handling instructions and clear data for each shipment. Application success depends on matching the exact salt and grade with the needs of the downstream process.

    Supporting Industry Growth: Sustainable Solutions and Responsible Sourcing

    Responsible sourcing dominates conversations among glass and catalyst producers, especially given rare earths’ global supply questions. We invest in feedstock verification at the mine level, ensuring lanthanum supplies do not come from environmentally hazardous or politically unstable regions. Closed-loop waste processing within our plant recycles process effluents, minimizing both chemical use and solid waste. Not every supplier tracks this way, but regulatory scrutiny and customer audits now treat such oversight as non-negotiable. Feedback from our technical partners informs continuous improvement, and our product quality reflects changes in mining technology, solvent management, and energy efficiency.

    End users increasingly request data on supply chain carbon footprint, pushing us to improve not only reagent efficiency but also transport and packaging. By shifting to high-integrity, recyclable containers for bulk shipments, we cut down end-user disposal needs and their own supply chain risks. Labs value reduced packaging and clearer labeling, while process operators benefit from a smaller waste stream. Better logistics planning translates to fewer urgent shipments and more stable inventory management, particularly for sensitive applications in optics, telecommunications, or R&D.

    Staff Experience and Industry Trends

    Fielding calls from labs and factories, we notice buyers increasingly ask about impurity profiles and supply assurance, not just price or bulk availability. As manufacturing complexity grows—in integrated circuits, specialty ceramics, or next-generation catalytic converters—process specifications tighten. Lot uniformity and trace documentation often matter more than small price differences. Competition from global suppliers sharpens our in-plant discipline and keeps us upgrading both analytical equipment and on-the-floor training.

    Emerging applications in energy storage, rare earth magnets, and even medical technology push us to trial ever-purer batches and improved moisture stability. Cross-disciplinary clients bring fresh requirements. For example, researchers developing transparent conductive oxides for electronics urge us to eliminate even trace sodium; clients in biomedical imaging flag rare, element-specific requests. Our technical team collaborates directly with users, offering both standard and tailored production runs and sharing best practices for storage, dissolution, and waste handling.

    Maintaining direct feedback loops—in person as well as digitally—connects our daily plant operations with end-user goals. Staff chemists regularly follow up on new R&D results from major industry conferences. That way, formula tweaks or new particle size fractions feed directly back into our next round of production planning. This approach keeps us nimble and responsive, building real partnerships with firms striving for tighter process windows and lower defect rates.

    Quality Control, Analysis, and Trust

    Every manufacturing shift starts and ends with quality analysis. Each batch leaves our site only after multiple points of analytical testing: purity checks using ICP-MS, halide analysis, and moisture quantification with Karl Fischer titration. Routine screening for trace metals, sulfates, and organics head off many operational setbacks at client facilities. Having full control of our process means we catch variability before shipping, drastically reducing the need for returns or last-minute substitutions.

    Lab and procurement heads realize that consistent paperwork, real-time support, and no-questions-asked lot data access contribute to process predictability and regulatory compliance. Partnering with an actual manufacturer streamlines audits, since every shipment’s identity, production conditions, and storage logs connect back to specific in-plant batches. Auditors especially value being able to track every shipment’s source, storage temperature, and handoff process. That level of trust proves essential during plant upscales, new product launches, or compliance reviews.

    Improving Application Outcomes: User Education and Onsite Support

    Our manufacturing experience has shown the vital difference between knowledge and simply distributing material. Educating clients on storage, handling, and dissolution practices improves their own product yields and plant efficiency. Onsite technical teams visit key accounts, sharing best practices for safe moisture control, correct solution preparation, and how to identify and prevent cross-contamination. Workshops for lab technicians and operators foster confidence with new product lines, while case studies based on client feedback highlight emerging industry challenges and opportunities.

    Direct partnerships with research institutions allow pilot-scale trials of modified Lanthanum(III) Chloride, feeding back discoveries into our bulk commercial production. In one recent collaboration, we helped a glassmaker reduce finishing defects by adjusting both the hydration state and sieve fraction of supplied chloride—a modification that proved more cost-effective than modifying the downstream melting process. Being able to support users through both technical problems and regulatory transitions positions us as more than just a supplier—we become solution partners on the factory floor or in the research lab.

    Customer Stories and Long-Term Value

    Glancing back over years of supply relationships, we find the most satisfied users understand the long-term value in knowing how their Lanthanum(III) Chloride was produced. One advanced ceramics client, frustrated by variable shrinkage and electrical properties, traced the root cause back to inconsistent trace calcium in imported lots. Our tracked batches, coupled with technical analysis, restored their process confidence and slashed defect rates. Glass industry engineers report a similar trend: lower lens rejection rates after switching from commercial repacked chloride to manufacturer-certified lots with guaranteed traceability and customized impurity limits.

    In research and R&D, consistent salt helps reproducibility and faster discoveries. Groups developing rare earth-doped single crystals have cut development timelines by sourcing directly from our plant-whitelisted shipments. We regularly receive updates describing time saved or troubleshooting steps avoided thanks to our technical service team’s input and tracked product quality.

    Market Landscape: Direct Sourcing vs. General Distributors

    Industrial and academic buyers navigating today’s complex rare earth supply chain see real risks in the traditional distributor model. Once material leaves the original manufacturer, repackaging, variable storage, and poor handling habits introduce new uncertainties. Appearance and lot certificates sometimes look similar, but in-use results tell a different story. At the manufacturer level, full integration with process data, analytical results, and handling instructions secures each consignment from start to finish.

    End-users in optics, catalysis, and advanced electrical applications prefer to work with dedicated manufacturers, citing fewer process interruptions, higher first-pass yields, and strong technical backup. Being able to call a production chemist or quality manager to review batch specifics—rather than trade emails through layers of resellers—saves time, especially in troubleshooting or scaling up.

    Why Commitment to Excellence Matters

    Years of daily operation in the rare earth chemical sector prove that product quality and reliability are a manufacturer’s responsibility. Every batch of Lanthanum(III) Chloride that meets spec, every client whose process works without issue, reinforces the reason to stay invested in top-tier analytical tools, employee training, and supply chain vigilance. In a field where single-ion contamination derails a month’s output, no shortcut pays off long-term.

    Providing Lanthanum(III) Chloride directly from our manufacturing plant means supplying more than just a chemical; it means backing up every shipment with documentation, responsive technical advice, and a history of best practices developed in partnership with users. Our ongoing investments in process control, purification advances, and customer education serve not just our business, but the industries that depend on high-purity rare earths to innovate and grow.

    Driving Innovation and Future Readiness

    Changes in global manufacturing, stricter regulations, and advanced technology all shape our role as a rare earth chemical manufacturer. We see demand rising not just for higher purity but for smarter logistics, transparent sourcing, and supporting documentation tailored to end-user compliance and research needs. Every feedback loop, every R&D partnership, and each technical exchange strengthens both our internal processes and the quality of material reaching the end user.

    Lanthanum(III) Chloride lies at the heart of many emerging applications, from new lighting solutions and high-efficiency batteries to sustainable water treatment. Providing trusted supply, backed by traceable production and ongoing technical support, empowers customers and advances the industries we serve. Our plant, our staff, and our product lines exist to push boundaries, solve problems, and supply chemical solutions that support rapid progress and lasting value.