Our research division explores how unique material properties—such as the ability to conduct electricity without resistance—emerge. These phenomena arise from intricate interactions among electron properties like charge, spin (magnetic behavior), and orbital motion. To understand these mechanisms, we observe not only material structures but also invisible dynamics like spin fluctuations and rhythms of electrons and atoms. Using advanced techniques such as neutron scattering and synchrotron radiation, we can detect subtle changes in wide spatial and time scales. Our goal is to unravel phenomena related to future energy and information technologies, including high-temperature superconductivity and spintronics, by identifying common principles across various materials. We also work on growing high-quality single crystals and aim to create novel materials with new functionalities.
Materials Property Division
Quantum Beam Materials Physics Research Laboratory
Prof.Masaki FUJITA
- Assoc. Prof. Yoichi IKEDA
- Assist. Prof. Takanori TANIGUCHI
- Specially Appointed Assist. Prof. Shusuke TAKADA
Exploring Spin Functions Using Quantum Beams: Visualizing the Dynamic World of Electrons
quantum beam, spin, high-Tc superconductors, crystal growth
[Neutron Spectrometer]
Enables observation of spin and atomic motion over wide spatial and time scales. IMR operates four
neutron instruments.
[Examples of crystal growth]
High quality single crystals with large volume are grown by floating-zone traveling-solvent and chemical vapor transport methods etc.