n-type chalcogenides by ion implantation

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Mark A. Hughes
Yanina Fedorenko
Behrad Gholipour
Jin Yao
Tae-Hoon Lee
Russell M. Gwilliam
Kevin P. Homewood
Steven Hinder
Daniel W. Hewak
Stephen R. Elliott
Richard J. Curry
机构
[1] Advanced Technology Institute,Department of Electronic Engineering
[2] University of Surrey,Department of Chemistry
[3] Optoelectronics Research Centre,Department of Mechanical Engineering Sciences
[4] University of Southampton,undefined
[5] University of Cambridge,undefined
[6] The Surface Analysis Laboratory,undefined
[7] University of Surrey,undefined
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Carrier-type reversal to enable the formation of semiconductor p-n junctions is a prerequisite for many electronic applications. Chalcogenide glasses are p-type semiconductors and their applications have been limited by the extraordinary difficulty in obtaining n-type conductivity. The ability to form chalcogenide glass p-n junctions could improve the performance of phase-change memory and thermoelectric devices and allow the direct electronic control of nonlinear optical devices. Previously, carrier-type reversal has been restricted to the GeCh (Ch=S, Se, Te) family of glasses, with very high Bi or Pb ‘doping’ concentrations (~5–11 at.%), incorporated during high-temperature glass melting. Here we report the first n-type doping of chalcogenide glasses by ion implantation of Bi into GeTe and GaLaSO amorphous films, demonstrating rectification and photocurrent in a Bi-implanted GaLaSO device. The electrical doping effect of Bi is observed at a 100 times lower concentration than for Bi melt-doped GeCh glasses.
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