Narrowing of the electronic bandgap of ZnO by doping with cadmium opens up further potential uses of the material for photocatalytic applications. However, the mechanism of this important bandgap modification is still unclear. This letter demonstrates that for doped materials, the Fermi level resides within the bandgap in the bulk but lies above the conduction band minimum at the surface of the material, thus producing downward band bending and electron accumulation in the near surface region. © 2012 American Institute of Physics
In this investigation, we studied electronic properties of the CdS/Zn1−xMgxO (x=0,0.15) interface u...
Bandgap engineering and shape control are important and advantageous for potential applications invo...
The geometrical structure and photoexcitation properties of Zn27-nCdnO27C42 complexes are investigat...
Introducing Cd into ZnO allows for bandgap engineering, potentially with particularly interesting pr...
The unique properties of metal-oxide semiconductors make them well suited to a variety of optoelectr...
We study the effect of doping on band gap in Mg- and Cd-doped zinc oxide nanostructures and molecula...
As a transparent conducting oxide, Cd:ZnO system is considered potential candidate for optoelectroni...
In the paper we present band-gap alignment diagrams for type-II/rype-1 heterostructures incorporatin...
The ternary Zn1-xCdxO (0less than or equal toxless than or equal to0.6) alloying films with highly c...
ZnO is one of the most popular materials for light-matter interaction applications, including photoc...
ZnO and Zn0.99Cu0.01O nanostructures were prepared by a simple sol–gel method. The band gaps of the ...
ZnO doped with some transitions metals (ZnO:M) has several significant potential application. ZnO:Co...
International audienceAl- and Ga-doped sputtered ZnO films (AZO, GZO) are semiconducting and metalli...
ZnO, which normally occurs in the hexagonal wurtzite structure, can be transformed to the cubic rock...
The geometrical structure and photoexcitation properties of Zn27-nCdnO27C42 complexes are investigat...
In this investigation, we studied electronic properties of the CdS/Zn1−xMgxO (x=0,0.15) interface u...
Bandgap engineering and shape control are important and advantageous for potential applications invo...
The geometrical structure and photoexcitation properties of Zn27-nCdnO27C42 complexes are investigat...
Introducing Cd into ZnO allows for bandgap engineering, potentially with particularly interesting pr...
The unique properties of metal-oxide semiconductors make them well suited to a variety of optoelectr...
We study the effect of doping on band gap in Mg- and Cd-doped zinc oxide nanostructures and molecula...
As a transparent conducting oxide, Cd:ZnO system is considered potential candidate for optoelectroni...
In the paper we present band-gap alignment diagrams for type-II/rype-1 heterostructures incorporatin...
The ternary Zn1-xCdxO (0less than or equal toxless than or equal to0.6) alloying films with highly c...
ZnO is one of the most popular materials for light-matter interaction applications, including photoc...
ZnO and Zn0.99Cu0.01O nanostructures were prepared by a simple sol–gel method. The band gaps of the ...
ZnO doped with some transitions metals (ZnO:M) has several significant potential application. ZnO:Co...
International audienceAl- and Ga-doped sputtered ZnO films (AZO, GZO) are semiconducting and metalli...
ZnO, which normally occurs in the hexagonal wurtzite structure, can be transformed to the cubic rock...
The geometrical structure and photoexcitation properties of Zn27-nCdnO27C42 complexes are investigat...
In this investigation, we studied electronic properties of the CdS/Zn1−xMgxO (x=0,0.15) interface u...
Bandgap engineering and shape control are important and advantageous for potential applications invo...
The geometrical structure and photoexcitation properties of Zn27-nCdnO27C42 complexes are investigat...