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Materials Science

D-Index
61
Citations
11275
World Ranking
6878
National Ranking
1731

Overview

Marek Skowronski is affiliated with Carnegie Mellon University in the United States. Their research spans multiple fields, primarily focused on engineering and materials science. Within these disciplines, their work concentrates on subfields such as electrical and electronic engineering, materials chemistry, polymers and plastics, biomedical engineering, and atomic and molecular physics.

Their major research topics include:

  • Advanced Memory and Neural Computing
  • Phase-change materials and chalcogenides
  • Ferroelectric and Negative Capacitance Devices
  • Transition Metal Oxide Nanomaterials
  • Semiconductor materials and devices
  • Chalcogenide Semiconductor Thin Films
  • Electronic and Structural Properties of Oxides

Skowronski's frequent publication venues reflect a focus on applied physics and materials science, with notable contributions in:

  • Journal of Applied Physics
  • ACS Applied Electronic Materials
  • AIP Advances
  • arXiv (Cornell University)
  • ACS Applied Materials & Interfaces

Noteworthy recent papers authored or coauthored by Skowronski include:

  • "Evolution of the conductive filament with cycling in TaOx-based resistive switching devices," published in 2020 in the Journal of Applied Physics
  • "Exchange of Ions across the TiN/TaOx Interface during Electroformation of TaOx-Based Resistive Switching Devices," 2020, ACS Applied Materials & Interfaces
  • "Electrical and Thermal Dynamics of Self-Oscillations in TaOx-Based Threshold Switching Devices," 2020, ACS Applied Electronic Materials
  • "Nanoscale density variations in sputtered amorphous TaOx functional layers in resistive switching devices," 2020, Journal of Applied Physics
  • "Temperature Distribution in TaOx Resistive Switching Devices Assessed In Operando by Scanning Thermal Microscopy," 2023, ACS Applied Electronic Materials

Collaboration plays a significant role in Skowronski's work, with frequent co-authors including:

  • Yiqi Yu
  • Jingjia Meng
  • Qiyun Xu
  • Yuanzhi Ma
  • Jonathan M. Goodwill

Their research contributions predominantly address the development and characterization of materials and devices at the nanoscale, specifically focusing on resistive switching devices and related transition metal oxide systems. Their publications often investigate physical phenomena such as conductive filament evolution, ion exchange at material interfaces, and thermal dynamics in threshold switching devices.

Best Publications

  • Degradation of hexagonal silicon-carbide-based bipolar devices

    M. Skowronski;S. Ha

  • Determination of wurtzite GaN lattice polarity based on surface reconstruction

    A. R. Smith;R. M. Feenstra;D. W. Greve;M.-S. Shin

  • Microstructural characterization of α‐GaN films grown on sapphire by organometallic vapor phase epitaxy

    W. Qian;M. Skowronski;M. De Graef;K. Doverspike

  • Reconstructions of GaN(0001) and (0001̄) surfaces: Ga-rich metallic structures

    A. R. Smith;R. M. Feenstra;D. W. Greve;M. S. Shin

  • Dislocation conversion in 4H silicon carbide epitaxy

    S. Ha;P. Mieszkowski;M. Skowronski;L.B. Rowland

  • Open‐core screw dislocations in GaN epilayers observed by scanning force microscopy and high‐resolution transmission electron microscopy

    W. Qian;G. S. Rohrer;M. Skowronski;K. Doverspike

  • Intracenter transitions in the dominant deep level (EL2) in GaAs

    M. Kaminska;M. Skowronski;J. Lagowski;J. M. Parsey

  • Structure of recombination-induced stacking faults in high-voltage SiC p–n junctions

    J. Q. Liu;M. Skowronski;C. Hallin;R. Söderholm

  • Lifetime-limiting defects in n− 4H-SiC epilayers

    P. B. Klein;B. V. Shanabrook;S. W. Huh;A. Y. Polyakov

  • Semi‐insulating 6H–SiC grown by physical vapor transport

    H. McD. Hobgood;R. C. Glass;G. Augustine;R. H. Hopkins

  • The mechanism of micropipe nucleation at inclusions in silicon carbide

    M. Dudley;X. R. Huang;W. Huang;A. Powell

  • Structural instability of 4H-SiC polytype induced by n-type doping

    J. Q. Liu;H. J. Chung;T. Kuhr;Q. Li

  • Identification of the 0.82-eV electron trap, EL2 in GaAs, as an isolated antisite arsenic defect.

    Kaminska M;Skowronski M;Kuszko W

  • GaN(0001) surface structures studied using scanning tunneling microscopy and first-principles total energy calculations

    A. R. Smith;R. M. Feenstra;D. W. Greve;M.-S. Shin

  • Spontaneous formation of stacking faults in highly doped 4H–SiC during annealing

    Thomas A. Kuhr;JinQiang Liu;Hun Jae Chung;Marek Skowronski

  • Microstructure and optical properties of epitaxial GaN on ZnO (0001) grown by reactive molecular beam epitaxy

    F. Hamdani;M. Yeadon;David J. Smith;H. Tang

  • Recombination-enhanced defect motion in forward-biased 4H–SiC p-n diodes

    M. Skowronski;J. Q. Liu;W. M. Vetter;M. Dudley

  • Native hole trap in bulk GaAs and its association with the double‐charge state of the arsenic antisite defect

    J. Lagowski;D. G. Lin;T.‐P. Chen;M. Skowronski

  • Joule Heating-Induced Metal-Insulator Transition in Epitaxial VO2/TiO2 Devices.

    Dasheng Li;Abhishek A. Sharma;Darshil K. Gala;Nikhil Shukla

  • Mobility of oxygen vacancy in SrTiO3 and its implications for oxygen-migration-based resistance switching

    W. Jiang;M. Noman;Y. M. Lu;J. A. Bain

  • Properties of Si donors and persistent photoconductivity in AlGaN

    A.Y. Polyakov;N.B. Smirnov;A.V. Govorkov;M.G. Mil'vidskii

  • Proximity effect induced magnetism in graphene

    Devashish Gopalan;Joe Seifert;Amanda Haglund;David Mandrus

Frequent Co-Authors

James A. Bain
James A. Bain Carnegie Mellon University
Paul A. Salvador
Paul A. Salvador Carnegie Mellon University
Gregory S. Rohrer
Gregory S. Rohrer Carnegie Mellon University
A. Y. Polyakov
A. Y. Polyakov National University of Science and Technology
Randall M. Feenstra
Randall M. Feenstra Carnegie Mellon University
Michael Dudley
Michael Dudley Stony Brook University
Philip G. Neudeck
Philip G. Neudeck Glenn Research Center
Charles R. Eddy
Charles R. Eddy United States Naval Research Laboratory
D. Kurt Gaskill
D. Kurt Gaskill United States Naval Research Laboratory
Joan M. Redwing
Joan M. Redwing Pennsylvania State University

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