资料摘要
资料下载研究领域：神经生物医学+微电极 交流阻抗频率范围：1MHz - 0.1Hz Electrode-electrolyte impedance is one of important characteristic for neural recording applications due to its influence on the signal/noise ratio and signal distortion. In this work a model of the electrode-electrolyte is described and validated through electrochemical impedance spectroscopy technique (EIS), using commercial platinum and platinum/iridium alloy microelectrodes used in acute neural recording. The impedance of the electrodes was measured in standard physiological saline solution (0.9% NaCl). A two electrode setup was used in which the working electrode was connected to the microelectrodes and the counter electrode was short-connected to the reference (stainless steel). The data was collected using an electrochemical analyzer (CompactStat, IviumTechnologies).In order to address the behavior of the electrode impedance an equivalent circuit of the electrode/electrolyte interface has been modeled. Since the impedance is strongly dependent on the electrode area, electrochemical characterization of the area was also performed using a standard iron ferricyanide solution – K3Fe(CN)6.
文献贡献者
染料敏化太阳能电池DSSC
简介：Investigation on photovolatic performance of hollow sphere/nanoparticle composite TiO2 electrodes for solid state dye sensitized solar cells. Dynamic Response of Charge Transfer and Recombination at Various Electrodes in Dye-sensitized Solar Cells Investigated Using Intensity Modulated Photocurrent and Photovoltage Spectroscopy.
锂离子电池电解质
简介：Nature SR-JLU-Integrated Solid-Nanoporous Copper-Oxide Hybrid Bulk Electrodes for High-performance Lithium-Ion Batteries
阻抗文献7
简介：Performance of non-porous graphite and titanium-based anodes in microbial fuel cells
阻抗文献6
简介：Influence of CO2 on ionic conductivity of anion exchange membrane for alkaline DMFCs
阻抗文献5燃料电池
简介：Electrochemical impedance spectroscopy (EIS) is in potential a powerful tool for the in depth analysis of microbial fuels cells (MFCs). To prevent the risk of drawing false conclusions from invalid EIS measurements we investigated the feasibility of this method on an MFC by checking: linearity, causality, stability and finiteness. EIS application under steady state conditions was partly feasible. For further application EIS on MFCs we recommend to: (1) use the constant anode or cathode potential measurement mode with a fast couple at the counter electrode; (2) record the polarization curve and measure at different amplitudes to check the linearity condition; (3) perform preliminary measurements to reveal measurement presets; (4) apply prolonged pretreatment to facilitate the stability criterion; (5) perform duplicate measurements to examine the stability; (6) use a broad frequency range to validate the finiteness criterion; (7) use a statistical based validation check based on the Kramers-Kronig transformation.
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