Hydrogen effects in dilute III-N-V alloys: From defect engineering to nanostructuring

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Abstract

The variation of the band gap energy of III-N-V semiconductors induced by hydrogen incorporation is the most striking effect that H produces in these materials. A special emphasis is given here to the combination of N-activity passivation by hydrogen with H diffusion kinetics in dilute nitrides. Secondary ion mass spectrometry shows an extremely steep (smaller than 5 nm/decade) forefront of the H diffusion profile in Ga(AsN) under appropriate hydrogenation conditions. This discovery prompts the opportunity for an in-plane nanostructuring of hydrogen incorporation and, hence, for a modulation of the material band gap energy at the nanoscale. The properties of quantum dots fabricated by a lithographically defined hydrogenation are presented, showing the zero-dimensional character of these novel nanostructures. Applicative prospects of this nanofabrication method are finally outlined. © 2014 AIP Publishing LLC.

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Pettinari, G., Felici, M., Trotta, R., Capizzi, M., & Polimeni, A. (2014). Hydrogen effects in dilute III-N-V alloys: From defect engineering to nanostructuring. In Journal of Applied Physics (Vol. 115). https://doi.org/10.1063/1.4838056

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