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Niobium Containing LLZTO Solid Electrolyte Tantalum Niobium Co Doped Lithium Lanthanum Zirconium Oxygen 500nm

Niobium Containing LLZTO Solid Electrolyte Tantalum Niobium Co Doped Lithium Lanthanum Zirconium Oxygen 500nm

MOQ: 10g
Price: 1-1000USD/Negotiable
Standard Packaging: Plastic box
Delivery Period: 5-8 work days
Payment Method: T/T
Detail Information
Cycle Life:
500-1000 Cycles
Capacity:
Typically 3.6V And 1000mAh/g
Disposal:
Requires Special Disposal Methods Due To Toxic Materials
Weight:
Lightweight Compared To Other Battery Types
Energy Density:
Up To 200 Wh/kg
Safety:
Highly Flammable And Sensitive To Temperature
Self-discharge Rate:
1-2% Per Month
Shelf Life:
2-3 Years
Recharge Time:
1-2 Hours
Operating Temperature:
-20°C To 60°C
Environmental Impact:
Contains Toxic And Rare Materials
Application:
Widely Used In Portable Electronic Devices And Electric Vehicles
Chemical Composition:
Lithium Cobalt Oxide (LiCoO2)
Cost:
Relatively Expensive Compared To Other Battery Types
Size:
Compact And Customizable
Highlight:

Niobium Containing llzto solid electrolyte

,

500nm llzto solid electrolyte

,

500nm llzto

Product Description

Niobium-containing LLZTO Tantalum-niobium co-doped lithium lanthanum zirconium oxygen solid electrolyte (500nm) battery material

 

LLZTO (Li6.4La3Zr1.4Ta0.6O12) is a garnet-type solid-state electrolyte material that has garnered significant attention in the field of solid-state lithium-ion batteries due to its high ionic conductivity, excellent electrochemical stability, and compatibility with metallic lithium. Below is a detailed introduction to LLZTO:

  1. ​Structure and Properties​
    LLZTO belongs to the cubic garnet structure, which exhibits high lithium-ion conductivity (typically ranging from toS/cm at room temperature). This makes it a promising candidate for solid-state electrolytes. The lithium ions in its structure can migrate rapidly through a three-dimensional network, enabling efficient ion conduction.
  2. ​Interfacial Stability​
    The interfacial stability between LLZTO and liquid electrolytes is a critical challenge. Research has shown that constructing self-assembled monolayers (e.g., 4-chlorobenzenesulfonic acid) on the LLZTO surface can significantly enhance interfacial stability, optimize solvation structures, and improve ionic conductivity (e.g., up to 1.19 mS/cm) and lithium-ion transference numbers (e.g., 0.647).
  3. ​Application of Composite Materials​
    LLZTO is often combined with other materials (e.g., graphene) to further enhance its performance. For instance, LLZTO-graphene composites with 25% graphene content exhibit optimal electrochemical performance, achieving a room-temperature ionic conductivity of S/cm and excellent cycling stability.
  4. ​Ion Redistribution Function​
    LLZTO is also utilized as an ion redistributor in composite separators, where it uniformly guides lithium-ion deposition to suppress lithium dendrite formation, thereby improving battery safety and cycling performance.
  5. ​Machine Learning-Assisted Research​
    Through machine learning techniques, researchers can quantify the impact of LLZTO’s microstructure (e.g., porosity and grain size) on its ionic conductivity, enabling optimized material design.

In summary, LLZTO is a high-performance solid-state electrolyte material. Through interfacial modifications, composite material designs, and advanced research methodologies, its performance and application potential have been significantly enhanced.

 

Parameters

 

Main Parameters​ ​Description​
​Product Name​ LLZTO (Tantalum + Niobium) Co-Doped Lithium Lanthanum Zirconium Oxide Solid-State Electrolyte
​Chemical Formula​ Li7-xLa3Zr2-x(Nb+Ta)xO12, x=0.2~0.7
​Physical Properties​ D50 particle size 500 nm, 99.9%
​Appearance​ White powder
​Application​ Used as a solid-state electrolyte in lithium batteries
​Ionic Conductivity​ >0.8 mS/cm
​Other​ Agglomerates can be treated by ball milling or grinding

 

Products
PRODUCTS DETAILS
Niobium Containing LLZTO Solid Electrolyte Tantalum Niobium Co Doped Lithium Lanthanum Zirconium Oxygen 500nm
MOQ: 10g
Price: 1-1000USD/Negotiable
Standard Packaging: Plastic box
Delivery Period: 5-8 work days
Payment Method: T/T
Detail Information
Cycle Life:
500-1000 Cycles
Capacity:
Typically 3.6V And 1000mAh/g
Disposal:
Requires Special Disposal Methods Due To Toxic Materials
Weight:
Lightweight Compared To Other Battery Types
Energy Density:
Up To 200 Wh/kg
Safety:
Highly Flammable And Sensitive To Temperature
Self-discharge Rate:
1-2% Per Month
Shelf Life:
2-3 Years
Recharge Time:
1-2 Hours
Operating Temperature:
-20°C To 60°C
Environmental Impact:
Contains Toxic And Rare Materials
Application:
Widely Used In Portable Electronic Devices And Electric Vehicles
Chemical Composition:
Lithium Cobalt Oxide (LiCoO2)
Cost:
Relatively Expensive Compared To Other Battery Types
Size:
Compact And Customizable
Minimum Order Quantity:
10g
Price:
1-1000USD/Negotiable
Packaging Details:
Plastic box
Delivery Time:
5-8 work days
Payment Terms:
T/T
Highlight

Niobium Containing llzto solid electrolyte

,

500nm llzto solid electrolyte

,

500nm llzto

Product Description

Niobium-containing LLZTO Tantalum-niobium co-doped lithium lanthanum zirconium oxygen solid electrolyte (500nm) battery material

 

LLZTO (Li6.4La3Zr1.4Ta0.6O12) is a garnet-type solid-state electrolyte material that has garnered significant attention in the field of solid-state lithium-ion batteries due to its high ionic conductivity, excellent electrochemical stability, and compatibility with metallic lithium. Below is a detailed introduction to LLZTO:

  1. ​Structure and Properties​
    LLZTO belongs to the cubic garnet structure, which exhibits high lithium-ion conductivity (typically ranging from toS/cm at room temperature). This makes it a promising candidate for solid-state electrolytes. The lithium ions in its structure can migrate rapidly through a three-dimensional network, enabling efficient ion conduction.
  2. ​Interfacial Stability​
    The interfacial stability between LLZTO and liquid electrolytes is a critical challenge. Research has shown that constructing self-assembled monolayers (e.g., 4-chlorobenzenesulfonic acid) on the LLZTO surface can significantly enhance interfacial stability, optimize solvation structures, and improve ionic conductivity (e.g., up to 1.19 mS/cm) and lithium-ion transference numbers (e.g., 0.647).
  3. ​Application of Composite Materials​
    LLZTO is often combined with other materials (e.g., graphene) to further enhance its performance. For instance, LLZTO-graphene composites with 25% graphene content exhibit optimal electrochemical performance, achieving a room-temperature ionic conductivity of S/cm and excellent cycling stability.
  4. ​Ion Redistribution Function​
    LLZTO is also utilized as an ion redistributor in composite separators, where it uniformly guides lithium-ion deposition to suppress lithium dendrite formation, thereby improving battery safety and cycling performance.
  5. ​Machine Learning-Assisted Research​
    Through machine learning techniques, researchers can quantify the impact of LLZTO’s microstructure (e.g., porosity and grain size) on its ionic conductivity, enabling optimized material design.

In summary, LLZTO is a high-performance solid-state electrolyte material. Through interfacial modifications, composite material designs, and advanced research methodologies, its performance and application potential have been significantly enhanced.

 

Parameters

 

Main Parameters​ ​Description​
​Product Name​ LLZTO (Tantalum + Niobium) Co-Doped Lithium Lanthanum Zirconium Oxide Solid-State Electrolyte
​Chemical Formula​ Li7-xLa3Zr2-x(Nb+Ta)xO12, x=0.2~0.7
​Physical Properties​ D50 particle size 500 nm, 99.9%
​Appearance​ White powder
​Application​ Used as a solid-state electrolyte in lithium batteries
​Ionic Conductivity​ >0.8 mS/cm
​Other​ Agglomerates can be treated by ball milling or grinding

 

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