Materials Map

Discover the materials research landscape. Find experts, partners, networks.

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The Materials Map is an open tool for improving networking and interdisciplinary exchange within materials research. It enables cross-database search for cooperation and network partners and discovering of the research landscape.

The dashboard provides detailed information about the selected scientist, e.g. publications. The dashboard can be filtered and shows the relationship to co-authors in different diagrams. In addition, a link is provided to find contact information.

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The Materials Map is still under development. In its current state, it is only based on one single data source and, thus, incomplete and contains duplicates. We are working on incorporating new open data sources like ORCID to improve the quality and the timeliness of our data. We will update Materials Map as soon as possible and kindly ask for your patience.

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in Cooperation with on an Cooperation-Score of 37%

Topics

Publications (7/7 displayed)

  • 2022Real and imaginary permittivity measured by thermal noise dielectric spectroscopycitations
  • 2022Origin of Relaxor Behavior in Barium‐Titanate‐Based Lead‐Free Perovskites30citations
  • 2022Large imprint in epitaxial 0.67Pb(Mg<sub>1/3</sub>Nb<sub>2/3</sub>)O<sub>3</sub>-0.33PbTiO<sub>3</sub> thin films for piezoelectric energy harvesting applications12citations
  • 2020Anisotropic Strain in Rare-Earth Substituted Ceria Thin Films Probed by Polarized Raman Spectroscopy and First-Principles Calculations10citations
  • 2020Temperature-independent giant dielectric response in transitional BaTiO3 thin films41citations
  • 2020Temperature-independent giant dielectric response in transitional BaTiO3 thin films41citations
  • 2020Temperature-independent giant dielectric response in transitional BaTiO3 thin films41citations

Places of action

Chart of shared publication
Bednyakov, Petr
1 / 2 shared
Savinov, Maxim
1 / 5 shared
Shnaidshtein, Ilya
1 / 1 shared
Spitaler, Jürgen
1 / 3 shared
Lins, Jonas
1 / 2 shared
Pasciak, Marek
1 / 1 shared
Popov, Maxim N.
1 / 5 shared
Buscaglia, Maria Teresa
1 / 9 shared
Kalendra, Vidmantas
1 / 8 shared
Mayer, Florian
1 / 4 shared
Veerapandiyan, Vignaswaran
1 / 2 shared
Banys, Juras
1 / 41 shared
Svirskas, Sarunas
1 / 3 shared
Deluca, Marco
1 / 20 shared
Canu, Giovanna
1 / 10 shared
Groszewicz, Pedro B.
1 / 5 shared
Buscaglia, Vincenzo
1 / 11 shared
Marssi, M. El
1 / 4 shared
Trstenjak, Urška
1 / 5 shared
Koster, Gertjan
1 / 31 shared
Spreitzer, Matjaž
1 / 18 shared
Lippert, Thomas
1 / 37 shared
Belhadi, J.
1 / 13 shared
Pergolesi, Daniele
1 / 11 shared
Bobnar, Vid
1 / 10 shared
Hanani, Z.
1 / 2 shared
Shepelin, Nick
1 / 2 shared
Drahokoupil, Jan
1 / 8 shared
Harrington, George
1 / 12 shared
Bohdanov, Dmytro
1 / 1 shared
Sediva, Eva
1 / 2 shared
Marton, Pavel
1 / 1 shared
Borodavka, Fedir
1 / 3 shared
Rafalovskyi, Iegor
1 / 2 shared
Catalan, Gustau
3 / 17 shared
Matzen, Sylvia
3 / 19 shared
Grãnebohm, Anna
1 / 1 shared
Zhou, Silang
3 / 10 shared
Shao, Yu-Tsun
3 / 4 shared
Ondrejkovic, Petr
3 / 4 shared
Zuo, Jian-Min
3 / 6 shared
Domingo Marimon, Neus
1 / 10 shared
Denneulin, Thibaud
3 / 19 shared
Noheda, Beatriz
3 / 41 shared
Everhardt, Arnoud S.
2 / 3 shared
Grünebohm, Anna
1 / 5 shared
Everhardt, Arnoud
1 / 2 shared
Gruenebohm, Anna
1 / 1 shared
Domingo, Neus
1 / 3 shared
Chart of publication period
2022
2020

Co-Authors (by relevance)

  • Bednyakov, Petr
  • Savinov, Maxim
  • Shnaidshtein, Ilya
  • Spitaler, Jürgen
  • Lins, Jonas
  • Pasciak, Marek
  • Popov, Maxim N.
  • Buscaglia, Maria Teresa
  • Kalendra, Vidmantas
  • Mayer, Florian
  • Veerapandiyan, Vignaswaran
  • Banys, Juras
  • Svirskas, Sarunas
  • Deluca, Marco
  • Canu, Giovanna
  • Groszewicz, Pedro B.
  • Buscaglia, Vincenzo
  • Marssi, M. El
  • Trstenjak, Urška
  • Koster, Gertjan
  • Spreitzer, Matjaž
  • Lippert, Thomas
  • Belhadi, J.
  • Pergolesi, Daniele
  • Bobnar, Vid
  • Hanani, Z.
  • Shepelin, Nick
  • Drahokoupil, Jan
  • Harrington, George
  • Bohdanov, Dmytro
  • Sediva, Eva
  • Marton, Pavel
  • Borodavka, Fedir
  • Rafalovskyi, Iegor
  • Catalan, Gustau
  • Matzen, Sylvia
  • Grãnebohm, Anna
  • Zhou, Silang
  • Shao, Yu-Tsun
  • Ondrejkovic, Petr
  • Zuo, Jian-Min
  • Domingo Marimon, Neus
  • Denneulin, Thibaud
  • Noheda, Beatriz
  • Everhardt, Arnoud S.
  • Grünebohm, Anna
  • Everhardt, Arnoud
  • Gruenebohm, Anna
  • Domingo, Neus
OrganizationsLocationPeople

article

Large imprint in epitaxial 0.67Pb(Mg<sub>1/3</sub>Nb<sub>2/3</sub>)O<sub>3</sub>-0.33PbTiO<sub>3</sub> thin films for piezoelectric energy harvesting applications

  • Marssi, M. El
  • Trstenjak, Urška
  • Koster, Gertjan
  • Spreitzer, Matjaž
  • Hlinka, Jiri
  • Lippert, Thomas
  • Belhadi, J.
  • Pergolesi, Daniele
  • Bobnar, Vid
  • Hanani, Z.
  • Shepelin, Nick
Abstract

<jats:p> Tuning and stabilizing a large imprint in epitaxial relaxor ferroelectric thin films is one of the key factors for designing micro-electromechanical devices with an enhanced figure of merit (FOM). In this work, epitaxial 500 nm-thick 0.67Pb(Mg<jats:sub>1/3</jats:sub>Nb<jats:sub>2/3</jats:sub>)O<jats:sub>3</jats:sub>–0.33PbTiO<jats:sub>3</jats:sub> (PMN–33PT) films, free from secondary phases and with extremely low rocking curves (FWHM &lt; 0.05°), are grown on ScSmO<jats:sub>3</jats:sub> (SSO) and DyScO<jats:sub>3</jats:sub> (DSO) substrates buffered with SrRuO<jats:sub>3</jats:sub> (SRO). The PMN–33PT is observed to grow coherently on SSO substrates (lattice mismatch of −0.7%), which is c-axis oriented and exhibits large tetragonality compared to bulk PMN–33PT, while on DSO substrates (lattice mismatch of −1.9%), the PMN–33PT film is almost completely relaxed and shows reduced tetragonality. Due to the compressive epitaxial strain, the fully strained PMN–33PT film displays typical ferroelectric P–E hysteresis loops, while the relaxed sample shows relaxor-like P–E loops. Samples present large negative imprints of about −88.50 and −49.25 kV/cm for PMN–33PT/SRO/SSO and PMN–33PT/SRO/DSO, respectively, which is more than threefold higher than the coercive field. The imprint is induced by the alignment of defect dipoles with the polarization and is tuned by the epitaxial strain. It permits the stabilization of a robust positive polarization state (P<jats:sub>r</jats:sub> ∼ 20  μC/cm<jats:sup>2</jats:sup>) and low dielectric permittivity (&lt;700). In addition, the relaxed PMN–33PT film shows improved piezoelectric properties, with a 33% enhancement in d<jats:sub>33,eff</jats:sub> relative to the fully strained sample. The obtained low dielectric permittivity and the high piezoelectric coefficients at zero electric field in the studied PMN–33PT films hold great promise to maximize the FOM toward applications in piezoelectric devices. </jats:p>

Topics
  • impedance spectroscopy
  • phase
  • thin film
  • defect