Schools

  • GPU Course at IB since 2012

Dissertations

Doctoral Dissertations

  • Magnetic Hyperthermia of Magnetic Fluid in Phantoms: From Theory to Experiment (Doctoral Dissertation)
    • Author: Daniela P Valdés
    • Directors: Emilio De Biasi and Enio Lima Jr
    • Period: 2019-2024
  • Micromagnetism Applied to the Study of Nanostructures, Core-Shell Nanoparticle Systems.
    • Author: Dámaso Laura Ccauhana.
    • Director: Emilio De Biasi
    • Period: 2018 to the present.

Master’s Dissertations at Instituto Balseiro

  • Study of Roughness in Domain Walls in GdFeCo
  • Modelling the Effect of Dipole Interactions in Chain of Nanoparticles for Magnetic Hyperthermia (Master’s Dissertation)
    • Author: Daniela P Valdés
    • Director: Emilio De Biasi
    • Period: 2018
  • Study of Dipolar Interaction between Nanoparticles in Hyperthermia (Bachelor’s Thesis)
    • Author: Daniela P Valdés
    • Director: Emilio De Biasi
    • Period: 2017

Publications

Summary of Topics in Publications:

The publications cover a wide range of topics related to condensed matter physics, with a focus on magnetic, quantum, and dissipative systems. The main topics covered include:

  1. Magnetic Properties and Magnetic Phases:
    • Magnetic phase transitions and spin behaviors.
    • Magnetocaloric effects, magnetoresistance, and magnetostriction.
    • Magnetic textures, domain walls, and their dynamic behavior.
    • Study of exotic phases such as helimagnetism and magnetic solitons.
  2. Quantum Materials and Quantum Effects:
    • Kondo effects, inter-orbital Coulomb interactions, and Mott transitions.
    • Behavior of polaritons and optomechanics.
    • Dynamics of quasiparticles and quantum entanglement.
  3. Dissipative Systems and Disordered Flows:
    • Flow dynamics in disordered materials.
    • Depinning yielding of elastic interfaces.
    • Non-critical behavior and dynamic heterogeneities in disordered systems.
  4. Theoretical Models and Methods:
    • Theoretical models for confined materials and complex structures.
    • Continuous and numerical approximations to study dissipative systems.
    • Interactions between optics and mechanics in quantum systems.
  5. Applications and Effects in Advanced Materials:
    • Magneto-electric properties and multiferroics.
    • Effects of geometry and anisotropy in magnetic hyperthermia applications.
    • Behavior of nanoparticles in magnetic hyperthermia applications.

Most Used Journals for Publications:

The majority of the publications are in specialized journals in condensed matter physics and magnetism, with the following standing out:

  1. Physical Review B (Phys. Rev. B):
    This is the most commonly used journal, covering a wide range of topics including magnetism, electronic properties, and material dynamics.

  2. Journal of Magnetism and Magnetic Materials (JMMM):
    Another important journal for topics related to magnetism and magnetic material applications.

  3. Physical Review Materials (Phys. Rev. Materials):
    Focuses on material physics, including disordered systems and magnetic properties.

  4. Applied Physics Letters (APL):
    Publications related to practical applications of material physics.

  5. Journal of the American Chemical Society (JACS):
    Some publications focus on quantum chemistry and material properties.

  6. Scientific Reports (Sci. Rep.):
    An open-access journal that covers a variety of scientific topics, including material physics.

In summary, the most used journals are Physical Review B, Journal of Magnetism and Magnetic Materials, and Physical Review Materials, which together represent a large proportion of the publications.

Additional Aspects to Highlight:

  1. Interdisciplinarity and Collaboration:
    • Many of the publications reflect interdisciplinary collaboration between physicists, chemists, and engineers. This underscores the importance of collaboration in solving complex scientific problems.
  2. Contribution to Broader Scientific Fields:
    • The studies conducted not only contribute to the specific knowledge of the studied systems, but also have implications for broader fields such as data technology, energy, and electronic devices.
  3. Use of Advanced Computational Methods:
    • The majority of the publications incorporate advanced computational techniques such as numerical simulations and theoretical modeling, reflecting an increasing trend toward integrating computational sciences into physical research.
  4. Trends and Future Research Directions:
    • Some studies point to emerging trends, such as increasing interest in quantum materials and the application of machine learning in physical research. This could indicate promising directions for future research.
  5. Intersection of Different Scientific Disciplines:
    • The topics covered in the publications show an intersection between condensed matter physics, quantum chemistry, and materials science. This integrated approach allows for a deeper and more open understanding of natural phenomena.

In summary, these additional aspects highlight the importance of collaboration, the impact of research on practical applications, the use of advanced computational tools, and the intersection of different scientific disciplines, which collectively enrich the landscape of research in condensed matter physics.

2025

  • Sub-critical athermal flow in disordered materials caused by periodic variations of environmental conditions

    Autores: Ezequiel E. Ferrero, Eduardo A. Jagla

    Enlace: https://arxiv.org/abs/2501.07782

2024

  • Comparative test of theoretical methods for grazing-incidence fast atom diffraction

    Autores: A. S. Muzas, L. Frisco, G. A. Bocan, C. Díaz, y M. S. Gravielle

    Año de publicación o realización: Aceptado para publicación en Phys. Rev. A (2024)

    DOI o Enlace: Aún no disponible.

  • Theory of Optomechanical Locking in Driven-Dissipative Coupled Polariton Condensates

    Autores: I. A. Ramos Pérez, I. Carraro Haddad, F. Fainstein, D. L. Chafatinos, G. Usaj, G. B. Mindlin, A. Fainstein, A. A. Reynoso

    Aceptado PRB 2024

    Enlace: https://doi.org/10.48550/arXiv.2312.08420

  • Magnetic switching of spin-scattering centers in Dresselhaus [110] circuits

    Autores: E. J. Rodríguez, A. A. Reynoso, J. P. Baltanás, J. Nitta, D. Frustaglia

    Enlace: https://doi.org/10.1103/PhysRevB.109.035308

  • Coexistence of insulating phases in confined fermionic chains with a Wannier-Stark potential

    Autores: N. Aucar Boidi, K. Hallberg, Amnon Aharony, and Ora Entin-Wohlman

    DOI: https://doi.org/10.1103/PhysRevB.109.L041404

  • Unconventional correlated metallic behavior due to interorbital Coulomb interaction

    Autores: N. Aucar Boidi, A. P. Kampf, and K. Hallberg

    DOI: https://doi.org/10.1103/PhysRevB.109.085122

2023

2022

2021

2020

2019

2018

  • Landau theory for magnetic and structural transitions in Ce Ti1-x Scx Ge, GdFe1-x Cox Si, and related materials

    Autores: W.G. Carreras Oropesa, S. Encina, P. Pedrazzini, V. F. Correa, J.G. Sereni, V. Vildosola, D.J. García, P.S. Cornaglia

    Enlace: https://iopscience.iop.org/article/10.1088/1361-648X/aaca66

  • Intermittent collective dynamics of domain walls in the creep regime

    Autores: M. P. Grassi, A. B. Kolton, V. Jeudy, A. Mougin, S. Bustingorry, y J. Curiale

    Enlace: https://doi.org/10.1103/PhysRevB.98.224201

  • Título: Magnetic domain wall creep and depinning: A scalar field model approach

    Autores: N. B. Caballero, E. E. Ferrero, A. B. Kolton, J. Curiale, V. Jeudy, y S. Bustingorry

    Enlace: https://doi.org/10.1103/PhysRevE.97.062122

2017

2016

2015

2014

2013

2012