Giant enhancement of silicon plasmonic shortwave infrared photodetection using nanoscale self-organized metallic films

Keyphrases

• Plasmonics 100%
• Schottky Photodetector 100%
• Metallic Films 100%
• Short-wave Infrared 100%
• Giant Enhancement 100%
• Infrared Photodetection 100%
• Order of Magnitude 50%
• Relaxation Process 50%
• Sensing Applications 50%
• Responsivity 50%
• LiDAR 50%
• Photodetection 50%
• Ultrathin 50%
• Optical Detection 50%
• Momentum Relaxation 50%
• Internal Photoemission 50%
• Complementary Metal Oxide Semiconductor 50%
• Hot Carriers 50%
• Bottom-up Fabrication 50%
• Metal Film 50%
• Fractal Geometry 50%
• Incident Light 50%
• Low Visibility 50%
• Band-to-band Absorption 50%
• Infrared Light 50%
• Internal Quantum Efficiency 50%
• Refractive Index Sensor 50%
• Detection Range 50%
• Rangefinder 50%
• Bulk Refractive Index 50%
• Optical Absorber 50%
• Consumer Technology 50%
• Quantum Efficiency Enhancement 50%
• Surface Ratio 50%
• Specific Detectivity 50%
• Infrared Sensing 50%
• Semiconductor Industry 50%
• Bulk Metal 50%
• Nano-aluminum 50%
• Noise Equivalent Power 50%
• Proximity Sensor 50%

Engineering

• Plasmonics 100%
• Nanoscale 100%
• Photodetection 100%
• Photodetector 66%
• Relaxation Process 33%
• Internals 33%
• Sensing Application 33%
• Energy Engineering 33%
• Responsivity 33%
• Refractive Index 33%
• Promising Candidate 33%
• Photoemission 33%
• Structural Parameter 33%
• Optical Radar 33%
• Infrared Light 33%
• Complementary Metal-Oxide-Semiconductor 33%
• Internal Quantum Efficiency 33%
• Light Incident 33%
• Proximity Sensor 33%
• Fractal Geometry 33%
• Detection Range 33%
• Refractivity 33%
• Range Finder 33%

Material Science

• Silicon 100%
• Metallic Films 100%
• Refractive Index 33%
• Aluminum 33%
• Hot Carrier 33%
• Complementary Metal-Oxide-Semiconductor Device 33%
• Metal Film 33%
• Surface (Surface Science) 33%
• Absorption Spectra 33%