Chapter
Chapter 2: Preparation, Calibration and Application of Potassium-Selective Microelectrodes
Special Technical Requirements
Preparation of Twisted Double-Barreled Potassium-Selective Microelectrodes
Calibration of Potassium-Selective Microelectrodes
Determination and Correction of Cross-Reactivity with Other Molecules
Application of Ion-Selective Microelectrodes for Measurement of Extracellular Potassium Concentration in Acute Brain Tissue Slices
Calculation of the Extracellular Potassium Concentration without Interfering Ions
Correction of Cross-Reactivity with Other Molecules
Chapter 3: Anodic Stripping Voltammetric Determination of Arsenic (III) Using Glassy Carbon Electrode Modified with Gold and Gold-Palladium Bimetallic Nanoparticles
3. Results and Discussion
Chapter 4: Electrical Detection of Immunoassay Using Gold Nanoparticles
3. Optimization of the Experimental Parameters
Chapter 5: Microfluidic Devices with Modified Electrochemical Detection for Biomarkers Analysis: A Review
Components and Configurations of Microfluidic Systems with Modified ECD
Modification Strategies and Significanceof Modification
Electrochemical Deposition in Microfluidic Systems
Self-Assembled Monolayer (SAM)in Microfluidic Systems with ECD
Chapter 6: Microelectrodes for Electrochemical Measurement of Cell Exocytosis
Traditional Platform and Newly Developed Automated Microdevices
Electrochemical Techniques
Techniques in Conjunction with Amperometry
Conclusion and Perspectives
Chapter 7: Intracellular Microelectrodes to Investigate Electrical Cardiac Properties In-Vitro
2. Microelectrode Recording Setup and Membrane Potential Measurements
3. Action Potentials Recordings in Physiological Conditions from Different Cardiac Preparations
4. Pathological Models and Action Potential Recordings
5. Action Potential Recordings in Combination with Other Parameters
6. Cardiac Action Potential Recordings with Related Techniques
Chapter 8: Invasive or Non-Invasive Techniques and Sensors for Real Time In Vivo Sensing in the Brain
1. Voltammetry and Electrodes for in Vivo Sensing
2. Sensors for Cerebral Oxygen [O2] Carbon Dioxide [CO2] Cerebral Blood Flow [CBF] and Temperarture [T]
3. Light (Laser)-Induced Fluorescence Emission (L.I.F.E.)
4. Near Infrared Spectroscopy [NIRS]
Chapter 9: Ion-Selective Microelectrodes in the Study of Renal Electrolyte Transport
Potassium Microelectrodes
Chapter 10: Microelectrode Study of H+ Redistribution in Characean Internodes during Long-Lastingand Prompt Responses to Environmental Cues
Studies of H+ Transport in Plant Cells with Sb Microelectrodes
Spatial Distribution of H+ Fluxes in Illuminated Green Cells
Perfusion Profiles of the Vacuolar Ph in Chara Internodes
Induction of Alkaline Patches by Cell Wall Microperforation
Chapter 11: Microelectrodes in Marine Environments: The Exploration of Sedimentary Sulfide Dynamics in Hypersaline Microbial Mats, Salt Marshes, and Shallow Estuaries
Study Locations and Descriptions
Microelectrode and Statistical Methods
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