The effect of hydrophobin protein on conductive properties of carbon nanotube field-effect transistors: First study on sensing mechanism

Engineering & Materials Science

• Carbon nanotube field effect transistors 100%
• Nanotubes 85%
• Proteins 61%
• Hysteresis 31%
• Atomic force microscopy 21%
• Graphene 19%
• Phosphates 19%
• Field effect transistors 17%
• Carbon nanotubes 17%
• Electric potential 17%
• Degradation 11%

Physics & Astronomy

• nanotubes 63%
• carbon nanotubes 57%
• proteins 53%
• field effect transistors 52%
• hysteresis 26%
• electric potential 18%
• phosphates 16%
• buffers 14%
• graphene 13%
• atomic force microscopy 12%
• degradation 12%
• conduction 11%
• electronics 8%

Chemical Compounds

• Field Effect 66%
• Nanotube 53%
• Carbon Nanotube 48%
• Hysteresis 32%
• Protein 27%
• Voltage 24%
• Length 20%
• Solubilization 16%
• Compound Mobility 12%
• Graphene 11%
• Phosphate 11%
• Buffer Solution 10%
• Resistance 10%
• Surface 5%