Parkelj Potočnik, Tjaša

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Epitaxial ferroelectric oxides on silicon with perspectives for future device applications

Spreitzer, Matjaž; Klement, Dejan; Parkelj Potočnik, Tjaša; Trstenjak, Urška; Jovanović, Zoran M.; Nguyen, Minh Duc; Yuan, Huiyu; Ten Elshof, Johan Evert; Houwman, Evert; Koster, Gertjan; Rijnders, Guus; Fompeyrine, Jean; Kornblum, Lior; Fenning, David P.; Liang, Yunting; Tong, Wen-Yi; Ghosez, Philippe

(2021)

TY  - JOUR
AU  - Spreitzer, Matjaž
AU  - Klement, Dejan
AU  - Parkelj Potočnik, Tjaša
AU  - Trstenjak, Urška
AU  - Jovanović, Zoran M.
AU  - Nguyen, Minh Duc
AU  - Yuan, Huiyu
AU  - Ten Elshof, Johan Evert
AU  - Houwman, Evert
AU  - Koster, Gertjan
AU  - Rijnders, Guus
AU  - Fompeyrine, Jean
AU  - Kornblum, Lior
AU  - Fenning, David P.
AU  - Liang, Yunting
AU  - Tong, Wen-Yi
AU  - Ghosez, Philippe
PY  - 2021
UR  - https://vinar.vin.bg.ac.rs/handle/123456789/9627
AB  - Functional oxides on silicon have been the subject of in-depth research for more than 20 years. Much of this research has been focused on the quality of the integration of materials due to their intrinsic thermodynamic incompatibility, which has hindered the flourishing of the field of research. Nevertheless, growth of epitaxial transition metal oxides on silicon with a sharp interface has been achieved by elaborated kinetically controlled sequential deposition while the crystalline quality of different functional oxides has been considerably improved. In this Research Update, we focus on three applications in which epitaxial ferroelectric oxides on silicon are at the forefront, and in each of these applications, other aspects of the integration of materials play an important role. These are the fields of piezoelectric microelectromechanical system devices, electro-optical components, and catalysis. The overview is supported by a brief analysis of the synthesis processes that enable epitaxial growth of oxides on silicon. This Research Update concludes with a theoretical description of the interfaces and the possibility of manipulating their electronic structure to achieve the desired coupling between (ferroelectric) oxides and semiconductors, which opens up a remarkable perspective for many advanced applications. © 2021 Author(s).
T2  - APL Materials
T1  - Epitaxial ferroelectric oxides on silicon with perspectives for future device applications
VL  - 9
IS  - 4
SP  - 040701
DO  - 10.1063/5.0039161
ER  - 
@article{
author = "Spreitzer, Matjaž and Klement, Dejan and Parkelj Potočnik, Tjaša and Trstenjak, Urška and Jovanović, Zoran M. and Nguyen, Minh Duc and Yuan, Huiyu and Ten Elshof, Johan Evert and Houwman, Evert and Koster, Gertjan and Rijnders, Guus and Fompeyrine, Jean and Kornblum, Lior and Fenning, David P. and Liang, Yunting and Tong, Wen-Yi and Ghosez, Philippe",
year = "2021",
abstract = "Functional oxides on silicon have been the subject of in-depth research for more than 20 years. Much of this research has been focused on the quality of the integration of materials due to their intrinsic thermodynamic incompatibility, which has hindered the flourishing of the field of research. Nevertheless, growth of epitaxial transition metal oxides on silicon with a sharp interface has been achieved by elaborated kinetically controlled sequential deposition while the crystalline quality of different functional oxides has been considerably improved. In this Research Update, we focus on three applications in which epitaxial ferroelectric oxides on silicon are at the forefront, and in each of these applications, other aspects of the integration of materials play an important role. These are the fields of piezoelectric microelectromechanical system devices, electro-optical components, and catalysis. The overview is supported by a brief analysis of the synthesis processes that enable epitaxial growth of oxides on silicon. This Research Update concludes with a theoretical description of the interfaces and the possibility of manipulating their electronic structure to achieve the desired coupling between (ferroelectric) oxides and semiconductors, which opens up a remarkable perspective for many advanced applications. © 2021 Author(s).",
journal = "APL Materials",
title = "Epitaxial ferroelectric oxides on silicon with perspectives for future device applications",
volume = "9",
number = "4",
pages = "040701",
doi = "10.1063/5.0039161"
}
Spreitzer, M., Klement, D., Parkelj Potočnik, T., Trstenjak, U., Jovanović, Z. M., Nguyen, M. D., Yuan, H., Ten Elshof, J. E., Houwman, E., Koster, G., Rijnders, G., Fompeyrine, J., Kornblum, L., Fenning, D. P., Liang, Y., Tong, W.,& Ghosez, P.. (2021). Epitaxial ferroelectric oxides on silicon with perspectives for future device applications. in APL Materials, 9(4), 040701.
https://doi.org/10.1063/5.0039161
Spreitzer M, Klement D, Parkelj Potočnik T, Trstenjak U, Jovanović ZM, Nguyen MD, Yuan H, Ten Elshof JE, Houwman E, Koster G, Rijnders G, Fompeyrine J, Kornblum L, Fenning DP, Liang Y, Tong W, Ghosez P. Epitaxial ferroelectric oxides on silicon with perspectives for future device applications. in APL Materials. 2021;9(4):040701.
doi:10.1063/5.0039161 .
Spreitzer, Matjaž, Klement, Dejan, Parkelj Potočnik, Tjaša, Trstenjak, Urška, Jovanović, Zoran M., Nguyen, Minh Duc, Yuan, Huiyu, Ten Elshof, Johan Evert, Houwman, Evert, Koster, Gertjan, Rijnders, Guus, Fompeyrine, Jean, Kornblum, Lior, Fenning, David P., Liang, Yunting, Tong, Wen-Yi, Ghosez, Philippe, "Epitaxial ferroelectric oxides on silicon with perspectives for future device applications" in APL Materials, 9, no. 4 (2021):040701,
https://doi.org/10.1063/5.0039161 . .
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