Out-of-Plane Ionic Conductivity Measurement Configuration for High-Throughput Experiments.
Ruiyun HuangChris J KucharczykYangang LiangXiaohang ZhangIchiro TakeuchiSossina M HailePublished in: ACS combinatorial science (2018)
An approach for measuring conductivity of thin-film electrolytes in an out-of-plane configuration, amenable to high-throughput experimentation, is presented. A comprehensive analysis of the geometric requirements for success is performed. Using samaria-doped ceria (Ce0.8Sm0.2O1.9, SDC) excellent agreement between bulk samples and thin films with continuous and patterned electrodes, 100-500 μm in diameter, is demonstrated. Films were deposited on conductive Nb-doped SrTiO3, and conductivity was measured by AC impedance spectroscopy over the temperature range from ∼200 to ∼500 °C. The patterned electrode geometry, which encompassed an array of microdot metal electrodes for making top contact, enabled measurements at hundreds of positions on the film, implying the potential for measuring hundreds of composition in a single library.
Keyphrases
- high throughput
- solid state
- reduced graphene oxide
- quantum dots
- carbon nanotubes
- single cell
- room temperature
- highly efficient
- ionic liquid
- visible light
- metal organic framework
- high resolution
- magnetic resonance imaging
- computed tomography
- energy transfer
- optic nerve
- risk assessment
- tissue engineering
- mass spectrometry
- ion batteries