Applied Physics Letters · 1994 · 53 citations · 14 references
EngineeringMaterials EngineeringMaterials ScienceElectronic MaterialsMaterials ChemistrySemiconductor MaterialsDopingElectronic Band StructureSemiconductor Crystal GrowthSemiconductor Device MaterialsSemiconductor PhysicsDoping EffectsLattice DistortionLattice EnergyMolecular Beam EpitaxyN-type DopingP-type Doping
The p-type doping of ZnTe, CdTe, and Cd1−xZnxTe (CZT) using a nitrogen dc plasma source during growth by molecular beam epitaxy is demonstrated. For ZnTe, doping levels as high as 1020 cm−3 were achieved. In CZT alloys, a progressive decrease of the maximum doping level is observed for decreasing Zn content. Using pulse doping methods, a doping level of p≊3×1018 cm−3 is obtained for a 12% Zn CZT layer. For CdTe layers, the highest level achieved is p≊1017 cm−3. The progressive acceptor compensation phenomenon is discussed with emphasis on the role of the lattice distortion on the nitrogen incorporation mechanisms.
14
New Set of Tetrahedral Covalent Radii
J. A. Van Vechten, J. C. Phillips · Physical review. B, Solid state · 1970 · 317 citations
Natural Sciences, Chemistry, Physics +16
Heavily doped <i>p</i>-ZnSe:N grown by molecular beam epitaxy
Jun Qiu, J. M. DePuydt, Hai‐Ping Cheng et al. · Applied Physics Letters · 1991 · 294 citations
Acceptor states in CdTe and comparison with ZnTe. General trends
E. Molva, J.L. Pautrat, K. Saminadayar et al. · Physical review. B, Condensed matter · 1984 · 222 citations
Doping in ZnSe, ZnTe, MgSe, and MgTe wide-band-gap semiconductors
D. J. Chadi · Physical Review Letters · 1994 · 213 citations
Graded band gap ohmic contact to <i>p</i>-ZnSe
Y. Fan, Jung Han, Junji Saraie et al. · Applied Physics Letters · 1992 · 208 citations