Effect of micro-electrode geometry on NO₂ gas-sensing characteristics of one-dimensional tin dioxide nanostructure microsensors

Keyphrases

• Conductance 33%
• Conductance Measurement 33%
• Dc Sputtering Technique 33%
• Dropping Function 33%
• Electrode Geometry 100%
• FIB Technique 33%
• Gap Sensor 33%
• Gap Size 33%
• Gas Sensing Characteristics 100%
• Gas Sensor 33%
• High Concentration 33%
• High Sensitivity 33%
• Large Gap 33%
• Micro Gas Sensor 33%
• Microgap 100%
• Microsensor 100%
• Multi-electrode 100%
• Nanostructures 100%
• NO2 Concentration 33%
• NO2 Sensor 100%
• Sensing Ability 33%
• Sensing Mechanism 33%
• Short Gap 33%
• SnO2 33%
• SnO2 Nanowires 33%
• Surface Temperature 33%
• Temperature Concentration 33%
• Tin Dioxide 100%

Engineering

• Electrode Gap 100%
• Electrode Geometry 100%
• Gas Sensor 100%
• Microsensor 100%
• Nanomaterial 100%
• Nanowire 50%
• Numerous Advantage 50%
• One Dimensional 100%
• Sensing Mechanisms 50%