Javascript must be enabled to continue!
(Invited) Electrochemistry of Solid-State Inorganic Polymer Electrolyte
View through CrossRef
Electrochemistry explores the charge transfer reaction across the interfaces, such as solid/liquid interface, liquid/liquid interface and also solid/solid interface. Most reported charge transfer behaviours across the “solid/solid” interface are involved liquid electrolyte. For example, in the lithium-ion batteries, the redox of cobalt-based active material is coupled by the heterogeneous intercalation/deintercalation of Li+ ions, which is existed in the electrolyte solution. In another words, the electron transfer occurs at the solid/solid interface while the ion transfer occurs at the solid/electrolyte solution.
We employ SECM to construct the solid-solid interface and to study the electron transfer phenomena therein. That means there is no liquid electrolyte environment. When the electron transfer occurs at the solid/solid interface, the counterion transfer will occur in the crystal due to the crystalline defects. For example, we cultured the NaCl microcrystals, which are doped with iron oxides, between the pair electrodes on a microchip. The multi-step electron transfer processes of iron from Fe(0) to Fe(VI) through Fe(II) and Fe(III) were observed.
The solid-state electrolyte solution just like an inorganic polymer. The electron transfer is wired through hopping between the neighboring redox lattice sites, coupling with the counterion transfer in the crystalline defects. The electrochemical behavior in the solid-state inorganic “polymer” electrolyte will be discussed in this presentation.
Title: (Invited) Electrochemistry of Solid-State Inorganic Polymer Electrolyte
Description:
Electrochemistry explores the charge transfer reaction across the interfaces, such as solid/liquid interface, liquid/liquid interface and also solid/solid interface.
Most reported charge transfer behaviours across the “solid/solid” interface are involved liquid electrolyte.
For example, in the lithium-ion batteries, the redox of cobalt-based active material is coupled by the heterogeneous intercalation/deintercalation of Li+ ions, which is existed in the electrolyte solution.
In another words, the electron transfer occurs at the solid/solid interface while the ion transfer occurs at the solid/electrolyte solution.
We employ SECM to construct the solid-solid interface and to study the electron transfer phenomena therein.
That means there is no liquid electrolyte environment.
When the electron transfer occurs at the solid/solid interface, the counterion transfer will occur in the crystal due to the crystalline defects.
For example, we cultured the NaCl microcrystals, which are doped with iron oxides, between the pair electrodes on a microchip.
The multi-step electron transfer processes of iron from Fe(0) to Fe(VI) through Fe(II) and Fe(III) were observed.
The solid-state electrolyte solution just like an inorganic polymer.
The electron transfer is wired through hopping between the neighboring redox lattice sites, coupling with the counterion transfer in the crystalline defects.
The electrochemical behavior in the solid-state inorganic “polymer” electrolyte will be discussed in this presentation.
Related Results
Facile Chemistry Towards All Solid State Polymer Electrolytes and Lithium Ion Batteries
Facile Chemistry Towards All Solid State Polymer Electrolytes and Lithium Ion Batteries
Abstract: All solid state lithium batteries have been attracted intensive attention due to higher energy density and higher safety characteristics. Compared with inorganic solid st...
Improved Electrochemical Performance of an All Solid-State Microbattery By Electrodeposition of Polymer Electrolyte into the Nanostructured Electrodes
Improved Electrochemical Performance of an All Solid-State Microbattery By Electrodeposition of Polymer Electrolyte into the Nanostructured Electrodes
The miniaturization of Lithium ion batteries (LIBs) as a power source to drive small devices such as smartcards, medical implants, sensors, radio-frequency identification (RFID) ta...
Nanogold and nanosilver hybrid polymer materials
Nanogold and nanosilver hybrid polymer materials
<p>Significant opportunities exist in both the scientific and industrial sectors for the development of new generation hybrid materials. These multifunctional hybrid material...
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 ...
Exploring the Vapor Phase Infiltration of Trimethylaluminum into Polyacrylonitrile Fabrics
Exploring the Vapor Phase Infiltration of Trimethylaluminum into Polyacrylonitrile Fabrics
Vapor phase infiltration (VPI) creates a hybrid organic-inorganic material by modifying the bulk of a polymer substrate with a metalorganic vapor phase precursor. In VPI, the metal...
Investigating Ion Conduction Mechanism and Dielectric Characteristics of Sodium-Based PEO + PVDF-HFP Solid Polymer Electrolyte Membranes
Investigating Ion Conduction Mechanism and Dielectric Characteristics of Sodium-Based PEO + PVDF-HFP Solid Polymer Electrolyte Membranes
Abstract
This paper focuses on the preparation, characterization and dielectric studies of the flexible and free-standing solid polymer electrolyte membranes based o...
Barrier Polymers
Barrier Polymers
AbstractBarrier polymers are used for many packaging and protective applications. As barriers they separate a system, such as an article of food or an electronic component, from an...

