Tantalum-doped LLZO (LLZTO) Powder
A garnet-type oxide electrolyte for researchers balancing lithium compatibility, air handling and room-temperature ionic transport.
LLZTO is a tantalum-doped garnet electrolyte used in dense pellets, composite cathodes and ceramic separator studies. Fine, standard and custom particle-size directions can be requested; actual ranges and availability depend on the selected source.
- Application
- Solid-State Battery Materials →
- Sample
- 25 g / 100 g / 500 g
- Dispatch
- Confirm by product, quantity and destination
Choose the closest direction.
These choices help us understand the inquiry. They are not guaranteed inventory or specifications; availability varies by product and source.
Availability differs by product. Ask us to confirm the exact documents for this inquiry.
Composition route
- LLZO
- Ta-doped LLZTO
- Other dopant — inquire
Particle-size direction
- Fine micron
- Standard micron
- Custom range — inquire
Sample quantity
- 25 g
- 100 g
- 500 g
| Exact composition / grade | Varies by selected product and source |
|---|---|
| Purity / particle-size data | Ask for the available specification |
| Performance test data | Method and availability must be confirmed |
| COA / SDS / other files | Availability differs by product; inquire specifically |
Typical screening context—not a supplied-lot specification.
These values describe common research-grade directions and help buyers formulate an inquiry. They are not a quotation, acceptance specification or guarantee. Before purchase, every value must be checked against the selected supplier specification; after a lot is assigned, use the lot-specific COA or test report where available.
| Phase | Cubic garnet, XRD verified |
|---|---|
| D50 | 0.8–1.5 μm or 3–8 μm |
| Purity | ≥99.5% (metals basis) |
| Ionic conductivity | ≥0.3 mS/cm, typical dense pellet |
| Specific surface area | 2–8 m²/g, grade dependent |
Reference values are editorial context only. Actual options, methods, tolerances and documents vary by source and selected product.
Where this grade enters the workflow.
Store dry and reseal after use. Dry-room handling is recommended for reproducible results.
Four items confirmed separately.
25 g / 100 g / 500 g
Confirm the selected grade and quantity by inquiry.
Depends on product, source and destination.
Quoted and confirmed for each product separately.
Send me the options for LLZTO powder.
Leave your name, work email and organization. Choose whether you need grade options, sample pricing or available product documents.
Questions technical buyers ask first.
Is LLZTO stable in ambient air?+
LLZTO is easier to handle than sulfide electrolytes, but prolonged air exposure can form surface Li₂CO₃. Dry storage and controlled handling are recommended. For a reproducible evaluation of LLZTO powder, confirm the selected grade, test method, packaging condition and assigned-lot evidence rather than applying a general catalogue statement to every source. State the acceptance point in your inquiry, including any composition, particle-size, moisture, handling or performance limit that matters to your process. Available specifications and documents differ by source, so the quotation should identify what can be confirmed before shipment.
Can I request a specific particle size?+
Fine, standard and custom directions can be requested. The actual range and availability must be confirmed for the selected source. For a reproducible evaluation of LLZTO powder, confirm the selected grade, test method, packaging condition and assigned-lot evidence rather than applying a general catalogue statement to every source. State the acceptance point in your inquiry, including any composition, particle-size, moisture, handling or performance limit that matters to your process. Available specifications and documents differ by source, so the quotation should identify what can be confirmed before shipment.
Do you provide a lot-specific COA?+
Document availability varies by product and source. Add the exact items you need to your inquiry so they can be confirmed. For a reproducible evaluation of LLZTO powder, confirm the selected grade, test method, packaging condition and assigned-lot evidence rather than applying a general catalogue statement to every source. State the acceptance point in your inquiry, including any composition, particle-size, moisture, handling or performance limit that matters to your process. Available specifications and documents differ by source, so the quotation should identify what can be confirmed before shipment.
Why is there no public price or stock status for LLZTO powder?+
iChangly handles LLZTO powder as a technical sourcing inquiry rather than a fixed retail listing. Price and availability can change with the selected composition or grade, particle-size direction, evaluation quantity, supplier, assigned lot, packaging, destination and shipping route. A catalogue price or an automatic in-stock label would therefore be easy to misread as a firm offer. Send the closest product option, quantity and destination instead. The reply will identify which options can currently be sourced, what documents can be reviewed, the applicable quotation and whether the requested delivery route needs additional handling or transport review.
Which specifications should I include when requesting LLZTO powder?+
Start with the cell system or synthesis route, the quantity needed for screening, and the variables that could cause a failed experiment. For LLZTO powder, list the composition or grade direction, particle-size or physical-form requirement, any impurity or moisture limits, and the test method behind a performance target. Also state the receiving atmosphere, pack preference and destination. This lets the sourcing review distinguish a useful acceptance requirement from a catalogue value and confirm which items are available for the selected source before quotation.
Which documents can be supplied with LLZTO powder?+
Document availability is confirmed for the selected product and source, not assumed across the entire catalogue. Ask separately for the supplier specification, SDS, assigned-lot COA or test report, particle-size or phase data, and any transport files required for the destination. Some documents may only exist after a lot is assigned or an order is accepted. The quotation should state which files can be reviewed before purchase and which accompany shipment, so the laboratory does not treat a general product sheet as lot-specific evidence.
What sintering temperature and atmosphere are typically used for LLZTO ceramics?+
Published LLZTO densification studies use a broad high-temperature window because powder history, lithium compensation, green density, crucible arrangement and dopant level all change the result. A commonly discussed research direction is roughly 1,000–1,230 °C, often with mother powder or a covered crucible to reduce lithium loss, but this is not a universal processing specification. The laboratory should design a small temperature-and-time matrix, control the atmosphere and measure phase purity and final density. Ask for the selected powder’s phase, particle-size information and any supplier processing guidance before defining a cycle.
How does grain-boundary resistance in LLZTO affect measured ionic conductivity?+
An impedance result combines transport through crystal grains with resistance at grain boundaries, pores, secondary phases and electrode contacts. A sample can contain conductive cubic LLZTO yet show modest total conductivity when it is porous or when insulating contamination accumulates between grains. Reported values should therefore include pellet density, geometry, electrode type, temperature, frequency range and the fitting method used to separate bulk and grain-boundary contributions. When comparing grades, request the complete test context rather than ranking powders by one conductivity number copied from different pellet preparations.
Can LLZTO be used as a composite electrolyte with polymer materials?+
Yes. LLZTO is widely studied as a ceramic filler or continuous phase in polymer–ceramic composite electrolytes, where it may improve mechanical strength, lithium-ion pathways or interfacial behavior. Performance depends on particle size, surface chemistry, filler fraction, polymer chemistry, lithium salt, dispersion and film porosity. More ceramic is not automatically better because agglomeration and poor polymer–ceramic contact can increase resistance. A useful screen keeps salt content and film thickness constant while varying LLZTO loading and surface treatment, then compares conductivity, mechanical behavior and lithium-interface stability under the same conditions.