Battery supporting materials
Lithium Aluminum Titanium Phosphate LATP Powder Li1.3Al0.3Ti1.7 PO4 3 Solid State Electrolyte SSE Lithium Ion Battery Material
Item Number : FZ62
Price varies based on specs and customizations
- Chemical Formula & Purity
- Li1.3Al0.3Ti1.7(PO4)3 (≥99.95% / 3N5)
- Average Particle Size (D50)
- 1.66 µm
- Ionic Conductivity
- 4.1 × 10⁻³ S/m
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Product Overview
This high-purity lithium aluminum titanium phosphate (LATP) powder is a premier NASICON-type solid-state electrolyte material engineered specifically for advanced lithium-ion battery research and next-generation energy storage applications. Formulated with a precise chemical stoichiometry of Li1.3Al0.3Ti1.7(PO4)3, this material delivers an exceptional combination of high ionic conductivity, excellent chemical stability in ambient environments, and outstanding mechanical strength upon consolidation. Designed to eliminate the safety hazards associated with volatile liquid electrolytes, this solid electrolyte powder enables the development of high-energy-density, all-solid-state lithium batteries.
The powder is ideal for researchers, battery engineers, and industrial manufacturers developing solid-state separator membranes, ceramic electrolyte disks, and polymer-ceramic composite membranes. Its tailored particle size distribution (D50 = 1.66 µm) makes it versatile for a broad range of processing techniques, including tape casting, slurry coating, uniaxial pellet pressing, and cold isostatic pressing (CIP). Target industries encompass automotive electric vehicle (EV) battery R&D, aerospace energy storage systems, wearable electronics, and advanced powder metallurgy laboratories.
Synthesized under strict quality control conditions, this material provides outstanding lot-to-lot consistency and ultra-low metallic impurity levels. Its high phase purity, verified through comprehensive X-ray diffraction (XRD) analysis, ensures stable lithium-ion transport channels across both grain bulk and grain boundaries. Whether utilized in academic prototyping or industrial-scale electrolyte membrane development, this solid-state electrolyte powder guarantees repeatable electrochemical performance and superior thermal stability under demanding operational conditions.
Key Features
- Ultra-High Chemical Purity (≥99.95% / 3N5): Manufactured to exacting standards with a total elemental purity exceeding 99.95%, minimizing unwanted secondary reactions and parasitic side interactions at the electrode-electrolyte interface.
- Optimized Submicron Particle Size (D50 = 1.66 µm): Features a tightly controlled median particle diameter that enhances powder packing efficiency, improves green body density during compaction, and facilitates rapid sintering kinetics.
- Superior Ionic Conductivity (4.1 × 10⁻³ S/m): Delivers robust intrinsic lithium-ion transport performance, providing a stable solid conduction pathway essential for high-rate capability in solid-state cell architectures.
- Rigorous Phase Purity & XRD Verification: Synthesized to maintain a pure NASICON crystalline framework, eliminating deleterious residual phases that could hinder lithium-ion migration or compromise mechanical integrity.
- Strictly Controlled Trace Metallic Impurities: Features single-digit to low double-digit PPM thresholds for transition metals and alkali elements (Fe ≤ 10 ppm, Cu ≤ 6 ppm, Ni ≤ 5 ppm), preventing micro-shorting and dendrite initiation.
- Exceptional Environmental and Thermal Stability: Demonstrates superior safety compared to sulfide-based electrolytes, allowing safer handling in dry room environments without generating hazardous gas species upon ambient air exposure.
- Excellent Compaction & Sintering Response: Responds exceptionally well to cold isostatic pressing (CIP) and thermal densification, consistently achieving sintered ceramic relative densities exceeding 86% with minimal internal micro-porosity.
- Precise Molar Stoichiometry (1.3 : 0.3 : 1.7 : 3 : 12): Perfectly balanced lithium, aluminum, titanium, phosphate, and oxygen molar ratios ensure lattice structural integrity and long-term cycling stability.
Applications
| Application | Description | Key Benefit |
|---|---|---|
| All-Solid-State Lithium Metal Batteries (ASSLBs) | Utilized as the primary ceramic solid electrolyte layer separating the lithium metal anode and high-voltage cathode. | Prevents lithium dendrite penetration while enabling high thermal stability and enhanced energy density without liquid leakage risks. |
| Composite Polymer-Ceramic Electrolyte Membranes | Blended with polymer matrices (such as PEO, PVDF, or PAN) to formulate flexible hybrid solid electrolyte sheets. | Combines the high mechanical flexibility of polymers with the high ionic conductivity and mechanical strength of inorganic LATP fillers. |
| Rigid Ceramic Electrolyte Separator Disks | Formed via uniaxial or cold isostatic pressing followed by high-temperature sintering to create dense ceramic separator plates. | Delivers relative densities above 86% with low grain boundary resistance, ideal for coin cell and pouch cell research. |
| Lithium-Air and Aqueous Lithium Battery Protection Layers | Used as a water-impermeable, lithium-ion conducting protective barrier membrane in semi-solid or hybrid aqueous battery designs. | Prevents moisture ingress to the lithium anode while maintaining continuous lithium-ion transport during charge and discharge. |
| Thin-Film & Micro-Battery Component Fabrication | Processed into specialized target materials or suspensions for advanced thin-film electrolyte deposition and micro-electronic energy storage. | Ensures precise stoichiometry and uniform grain structure across micro-scale solid electrolyte thin films. |
| Battery R&D & Academic Prototyping | Applied in benchmark laboratory research testing new cathode materials, interlayers, and solid-state cell assembly methodologies. | Provides reliable, standardized material performance for reproducible academic and industrial testing results. |
Technical Specifications
| Parameter Category | Specification Details | Value / Standard |
|---|---|---|
| Product Identifier | Item / Model Number | FZ62 |
| Chemical Identity | Material Name | Lithium Aluminum Titanium Phosphate (LATP) Powder |
| Chemical Identity | Chemical Formula | Li1.3Al0.3Ti1.7(PO4)3 |
| Chemical Identity | CAS / Structure Type | NASICON-type Solid State Electrolyte |
| Physical Properties | Powder Color | White |
| Physical Properties | Standard Package Net Weight | 1000 g |
| Physical Properties | Median Particle Diameter (D50) | 1.66 µm |
| Chemical Purity | Overall Material Purity (wt%) | ≥ 99.95% (3N5 Grade) |
| Stoichiometric Ratio | Molar Ratio (Li : Al : Ti : P : O) | 1.3 : 0.3 : 1.7 : 3 : 12 (mol) |
| Electrochemical Metrics | Room Temperature Ionic Conductivity (K) | 4.1 × 10⁻³ S/m |
| Trace Impurity Profile | Iron (Fe) Maximum Limit | ≤ 10 ppm |
| Trace Impurity Profile | Copper (Cu) Maximum Limit | ≤ 6 ppm |
| Trace Impurity Profile | Nickel (Ni) Maximum Limit | ≤ 5 ppm |
| Trace Impurity Profile | Calcium (Ca) Maximum Limit | ≤ 7 ppm |
| Trace Impurity Profile | Sodium (Na) Maximum Limit | ≤ 6 ppm |
| Trace Impurity Profile | Potassium (K) Maximum Limit | ≤ 5 ppm |
| Trace Impurity Profile | Magnesium (Mg) Maximum Limit | ≤ 10 ppm |
| Trace Impurity Profile | Silicon (Si) Maximum Limit | ≤ 15 ppm |
| Trace Impurity Profile | Zirconium (Zr) Maximum Limit | ≤ 10 ppm |
| Processing Compatibility | Cold Isostatic Pressing (CIP) Response | Dense green body formation with minimal internal pore gradients |
| Processing Compatibility | Sintered Pellet Relative Density | > 86% achieved after high-temperature densification |
Why Choose This Product
- Uncompromising Chemical & Phase Purity: Every batch undergoes strict analytical characterization to guarantee ≥99.95% chemical purity and pure NASICON phase alignment, ensuring predictable and reproducible test results.
- Controlled Submicron Particle Morphology: The optimized 1.66 µm median particle size ensures seamless incorporation into slurry formulations and superior packing density under pressure.
- Ultra-Low Trace Contaminants: Strict control over metallic impurities (Fe, Cu, Ni) protects your battery prototypes from unwanted short-circuiting and structural degradation during extended cycling.
- Proven Densification Performance: Formulated to integrate seamlessly with standard cold press and cold isostatic press (CIP) workflows, yielding ceramic electrolyte bodies with relative densities exceeding 86%.
- Comprehensive Technical & Customization Support: Backed by extensive expertise in advanced battery equipment and materials research, offering technical guidance for processing, pressing, and cell integration.
For custom packaging sizes, detailed technical data sheets, or a competitive volume quote, please contact our expert engineering team today.
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