Differential response of doped/defective graphene and dopamine to electric fields: A density functional theory study

Engineering & Materials Science

• Dopamine 99%
• Density functional theory 96%
• Graphene 76%
• Electric fields 59%
• Boron 29%
• Defects 26%
• Molecules 25%
• Electronic density of states 25%
• Fermi level 22%
• Physisorption 21%
• Charge density 18%
• Wave functions 17%
• Vacancies 17%
• Biosensors 15%
• Doping (additives) 14%
• Field effect transistors 13%
• Probability density function 12%
• Nitrogen 12%
• Geometry 7%

Chemical Compounds

• Dopamine 61%
• Electric Field 58%
• Graphene 45%
• Cohesive Energy 42%
• Valence 28%
• Crystal Vacancy 22%
• Wave Function 18%
• Fermi Level 18%
• Density of State 17%
• Physisorption 17%
• Field Effect 16%
• Charge Density 15%
• Strength 10%
• Density Functional Theory 10%
• Molecule 5%
• Surface 5%

Physics & Astronomy

• graphene 52%
• density functional theory 49%
• electric fields 38%
• Wales 37%
• rocks 25%
• boron 22%
• defects 21%
• valence 18%
• bioinstrumentation 14%
• molecules 13%
• electronics 13%
• field effect transistors 10%
• wave functions 10%
• nitrogen 9%
• optimization 8%
• shift 7%
• energy 7%
• geometry 7%
• interactions 5%