IC-2 - 10th International Conference
Science and Engineering of Novel Superconductors
Chair:
Xianhui CHEN, University of Science and Technology of China, China
Convener:
John WEI, University of Toronto, Canada
Co-Organizers:
Dario DAGHERO, Politecnico di Torino, Italy
Cedomir PETROVIC, Shanghai Advanced Research in Physical Sciences, China
Members:
Ariando ARIANDO, National University of Singapore, Singapore
Christian BERNHARD, University of Fribourg, Switzerland
Valeria BRACCINI, CNR-SPIN, Italy
Tord CLAESON, Chalmers University of Technology, Sweden
Nathalie P. DE LEON, Princeton University, USA
Hiroshi EISAKI, AIST, Japan
Renato GONNELLI, Politecnico di Torino, Italy
Yoshihiro IWASA, RIKEN, Japan
Hechang LEI, Renmin University, China
Daniel LOSS, University of Basel, Switzerland
Marie-Aude MEASSON, Néel Institut, CNRS Grenoble, France
Masatomu MURAKAMI, Shibaura Institute of Technology, Japan
Venkat SELVAMANICKAM, University of Houston, USA
Takasada SHIBAUCHI, The University of Tokyo, Japan
Jeffery L. TALLON, Victoria University of Wellington, New Zealand
Alexey USTINOV, Karlsruhe Institute of Technology, Germany
Dirk VAN DER MAREL, Université de Genève, Switzerland
Joel I.J. WANG, MIT, USA
Xingjiang ZHOU, Institute of Physics, CAS, China
Xianhui CHEN, University of Science and Technology of China, China
Convener:
John WEI, University of Toronto, Canada
Co-Organizers:
Dario DAGHERO, Politecnico di Torino, Italy
Cedomir PETROVIC, Shanghai Advanced Research in Physical Sciences, China
Members:
Ariando ARIANDO, National University of Singapore, Singapore
Christian BERNHARD, University of Fribourg, Switzerland
Valeria BRACCINI, CNR-SPIN, Italy
Tord CLAESON, Chalmers University of Technology, Sweden
Nathalie P. DE LEON, Princeton University, USA
Hiroshi EISAKI, AIST, Japan
Renato GONNELLI, Politecnico di Torino, Italy
Yoshihiro IWASA, RIKEN, Japan
Hechang LEI, Renmin University, China
Daniel LOSS, University of Basel, Switzerland
Marie-Aude MEASSON, Néel Institut, CNRS Grenoble, France
Masatomu MURAKAMI, Shibaura Institute of Technology, Japan
Venkat SELVAMANICKAM, University of Houston, USA
Takasada SHIBAUCHI, The University of Tokyo, Japan
Jeffery L. TALLON, Victoria University of Wellington, New Zealand
Alexey USTINOV, Karlsruhe Institute of Technology, Germany
Dirk VAN DER MAREL, Université de Genève, Switzerland
Joel I.J. WANG, MIT, USA
Xingjiang ZHOU, Institute of Physics, CAS, China
The list of Invited Speakers will be available at the end of July 2025
Superconductivity is a fascinating macroscopic quantum phenomenon with numerous useful applications, and it is of major interest both for fundamental and technological reasons. The discovery of high-temperature superconductivity in cuprates generated an outburst of research activity that led to unprecedented advances in materials development, experimental techniques and theoretical models. Many new superconductors and several new classes of superconductors have since been discovered, including iron-based pnictides and chalcogenides, ruthenates, bismuthates, cobaltates, borides, borocarbides, carbon-based materials such as fullerenes and nanotubes, organic compounds, heavy-fermion intermetallics, hydrides, graphene bilayers, nickelates and so on.
The discoveries of new materials have been followed by in-depth characterization of their physical properties by means of a variety of experimental approaches and, often, by successful applications in wires, tapes, power cables, fault current limiters, processing in electronics and in novel nano-structured technological devices. Nonetheless, the mechanisms of (un)conventional superconductivity at play in many materials of interest for industry are still under debate and a comprehensive understanding is far from being achieved.
This Conference follows those on the analogous topics in 1990, 1994, 1998, 2002, 2006, 2010, 2014, 2018 and 2022, organized in the frame of CIMTEC. On one side it will highlight the progress achieved along the last years in the various issues of fundamental and technological character of the already known superconducting materials. On another side, the Conference will be focused on the recently discovered materials, their characterization, synthesis and processing and the prospective applications. Following the mission of the previous conferences of this type, the focus will be on novel aspects, issues and systems, but attention will be paid as well to all superconducting-related topics, including fundamental aspects of theory, advances in synthesis, functionalization and processing and the latest progress in the areas of small-scale and large-scale devices.
The discoveries of new materials have been followed by in-depth characterization of their physical properties by means of a variety of experimental approaches and, often, by successful applications in wires, tapes, power cables, fault current limiters, processing in electronics and in novel nano-structured technological devices. Nonetheless, the mechanisms of (un)conventional superconductivity at play in many materials of interest for industry are still under debate and a comprehensive understanding is far from being achieved.
This Conference follows those on the analogous topics in 1990, 1994, 1998, 2002, 2006, 2010, 2014, 2018 and 2022, organized in the frame of CIMTEC. On one side it will highlight the progress achieved along the last years in the various issues of fundamental and technological character of the already known superconducting materials. On another side, the Conference will be focused on the recently discovered materials, their characterization, synthesis and processing and the prospective applications. Following the mission of the previous conferences of this type, the focus will be on novel aspects, issues and systems, but attention will be paid as well to all superconducting-related topics, including fundamental aspects of theory, advances in synthesis, functionalization and processing and the latest progress in the areas of small-scale and large-scale devices.
Session Topics
IC-2.A Structure, dimensionality, physical chemistry and general properties
- Experimental study of average and local properties (XRD, neutron diffraction, electron diffraction, EXAFS, XANES, STM, TEM, AFM)
- Proximity-induced superconductivity
- Superconductivity induced by epitaxial strain
- Low-dimensionality effects: intrinsic & nanostructured
- Superconducting heterostructures: superlattices & multilayers
- New phases and metastable superconducting high-Tc materials
- Intercalation and decoration of layered materials
- Functionalized materials
IC-2.B Properties of superconductors (of any type)
- Resonant x-ray spectroscopy
- IR, Raman and acoustic spectroscopy of superconductors
- Inelastic neutron scattering of superconductors
- NMR, ESR, μSR, Mössbauer spectroscopy
- Photoemission and ARPES
- Ultrafast terahertz spectroscopy of superconductors
- SQUID, tunneling and point-contact spectroscopies
- Thermal, magnetic, thermodynamic and electrical properties
- Electric field effect, structures and devices
IC-2.C Mechanisms (for normal and superconducting states)
- Correlation effects, spin liquids and quantum criticality
- Heavy-fermion superconductors
- Phonons, spin excitations and strong coupling
- Inhomogeneous order parameters
- Stripes, phases separation and granularity effects
- Pressure induced superconductivity
- CDW, SDW and superconductivity competition; coexistence of magnetism and superconductivity
- Unconventional superconductors: phenomenology and theory
- Order parameters, pseudogap, tunnelling, Andreev reflection and related experiments
- Multiband / multiorbital character and related effects
- Superconducting fluctuations and related effects
IC-2.D Vortex lattice physics
- Vortex dynamics
- Understanding and control of flux pinning
- Electromagnetic characterization of superconductors over wide parameters ranges
- Vortex-defect interactions, defect structures, vortex penetration
- Complex vortex phases and related phenomena
- Magnetic screening
IC-2.E Synthesis and processing
- New superconducting materials in bulk form
- Films, multilayer, wires, tapes and coated conductors
- Heterostructures and interface nanoengineering
- Josephson junctions and JJ arrays
- Nanostructured superconductors
- Superconducting inks
- Proximity and interface effects, hybrid structures
- Novel synthesis processes
- High-pressure materials
- Intercalation and doping
IC-2.F Power applications
- Cables, transformers, motors and generators, current limiters and magnets
- Magnetic energy storage, high field magnets, accelerator and nuclear fusion technology
- MRI and MEG novel devices
- New prospective applications
- Aerospace & lunar applications
IC-2.G Low-power applications and superconducting electronics
- Microwave filters and passive devices
- Josephson and digital devices
- Novel SQUID systems, hybrid electronic devices
- Superconducting qubits
- Spin impurities & flux noise in quantum processors
- Superconducting spintronic devices
- Superconducting nanowires single photon detectors (SNSPD)
IC-2.H Topological Superconductivity & Spin-Orbit Effects
- Intercalated topological insulators
- Fe-based chalcogenides
- Majorana Fermions in vortex cores
- Proximity effects in heterostructures
- Chiral p-wave superconductors
- Ising superconductors
IC-2.I Superconductivity in two-dimensional and layered materials
- Transition metal chalcogenides
- Superconductivity in MXenes
- Misfit compounds
- Multilayer superconductors
- Moiré superconductivity and twistronics
- 2D electron gases and interfacial superconductivity
- Gate-induced superconductivity