{113} defect-engineered silicon light-emitting diodes
Grant Z. Pan, Roman Ostroumov, Yaguang Lian, K. N. Tu, K. L. Wang
Abstract
Grant Z. Pan, Roman Ostroumov, Yaguang Lian, K. N. Tu, K. L. Wang
Abstract
We correlated electroluminescence of p-n junction silicon light-emitting diodes (Si LEDs) with boron implant-induced defects and found that {113} defects other than dislocation loops result in strong silicon light emissions. The electroluminescence of {113} defect engineered Si LEDs is twenty-five times higher than dislocation loop engineered Si LEDs. This finding, for the first time, is highly significant for monolithic Si nanophotonics.
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We correlated electroluminescence of p-n junction silicon light-emitting diodes (Si LEDs) with boron implant-induced defects and found that {113} defects other than dislocation loops result in strong silicon light emissions. The electroluminescence of {113} defect engineered Si LEDs is twenty-five times higher than dislocation loop engineered Si LEDs. This finding, for the first time, is highly significant for monolithic Si nanophotonics.
Key concepts: Electroluminescence, Light-emitting diode, Materials science, Silicon, Optoelectronics, Diode, Boron, Nanophotonics