Javascript must be enabled to continue!
Flexible Lithium‐Ion Conducting Composite Electrolyte
View through CrossRef
AbstractIncorporation of a solid electrolyte into lithium‐ion batteries brings with it the potential to increase energy density, improve operational lifetime, and enhance safety. Although numerous ceramics with high lithium‐ion conductivity have been identified, use in batteries is hindered by fragility, inefficiency of fabrication processes, and difficulty sintering to a hermetic state. We present a novel composite electrolyte with nearly single crystal grains of Li1.3Al0.3Ti1.7(PO4)3 embedded within a flexible, PDMS polymer matrix. Each lithium‐ion conducting particle is exposed on both sides of the membrane to provide a fast conduction pathway that is unimpeded by grain boundaries. Membranes made with this structure and grains grown by slow cooling from the melt are hermetic and have lithium conductivity of ∼2.7×10−4 S cm−1. The principal conductivities of Li1.3Al0.3Ti1.7(PO4)3 crystals are σa=3.4×10−3 and σc=1.1×10−3 S cm−1.
Title: Flexible Lithium‐Ion Conducting Composite Electrolyte
Description:
AbstractIncorporation of a solid electrolyte into lithium‐ion batteries brings with it the potential to increase energy density, improve operational lifetime, and enhance safety.
Although numerous ceramics with high lithium‐ion conductivity have been identified, use in batteries is hindered by fragility, inefficiency of fabrication processes, and difficulty sintering to a hermetic state.
We present a novel composite electrolyte with nearly single crystal grains of Li1.
3Al0.
3Ti1.
7(PO4)3 embedded within a flexible, PDMS polymer matrix.
Each lithium‐ion conducting particle is exposed on both sides of the membrane to provide a fast conduction pathway that is unimpeded by grain boundaries.
Membranes made with this structure and grains grown by slow cooling from the melt are hermetic and have lithium conductivity of ∼2.
7×10−4 S cm−1.
The principal conductivities of Li1.
3Al0.
3Ti1.
7(PO4)3 crystals are σa=3.
4×10−3 and σc=1.
1×10−3 S cm−1.
Related Results
Study of Solid State Lithium Batteries with a Ceramic Electrolyte
Study of Solid State Lithium Batteries with a Ceramic Electrolyte
Solid state lithium batteries are considered as the next generation of batteries due to its potential higher energy density and better safety compared to Li-ion technology[1]. Oxid...
Study of Solid State Lithium Batteries with a Ceramic Electrolyte
Study of Solid State Lithium Batteries with a Ceramic Electrolyte
Solid state lithium batteries are considered as the next generation of batteries due to its potential higher energy density and better safety compared to Li-ion technology[1]. Oxid...
Towards Safer Batteries- 4D Imaging of Abuse Mechanisms in Lithium-Ion Batteries Using Synchrotron X-Ray Computed Tomography
Towards Safer Batteries- 4D Imaging of Abuse Mechanisms in Lithium-Ion Batteries Using Synchrotron X-Ray Computed Tomography
Higher energy density materials are being pushed by the research community to make lithium-ion batteries a better competitor to chemical fossil fuels for transport applications. Th...
Lithium Prospectivity in the Northeast German and Thuringian Ba-sins
Lithium Prospectivity in the Northeast German and Thuringian Ba-sins
Over the years many boreholes have been drilled into the Northeast German Basin (NEGB) in pursuit of the exploration of hydrocarbons. As well as gaining important information regar...
NONLINEAR STATIC ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS
NONLINEAR STATIC ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS USING ANALYSIS OF COMPOSITE SHELLS
This paper presents the results of the geometric nonlinear analysis of composite shell subjected to static load by using an edge-based smoothed finite elements (ES) and the mixed i...
Ion Intercalation into Vanadium Sulfides for Battery Applications
Ion Intercalation into Vanadium Sulfides for Battery Applications
Global battery manufacturing capacity will more than double by 2021 to about 280,000 megawatt-hours.1 Rechargeable batteries make up a significant fraction of battery manufacturing...
(Invited) Energy Storage at Ultra Low Temperatures through Electrolyte Innovation
(Invited) Energy Storage at Ultra Low Temperatures through Electrolyte Innovation
Operating rechargeable batteries at ultralow temperatures (below -40 ℃) has been essential for various applications, especially in scenarios such as defense operations, space explo...
Elaboration and Characterization of Flexible Li+ Conducting Membranes for Aqueous Li-Air Batteries
Elaboration and Characterization of Flexible Li+ Conducting Membranes for Aqueous Li-Air Batteries
Summary:
Lithium-air batteries have attracted a lot of research interest recently because they can close the gap between the electric vehicle ...

