Dr Satoshi Sasaki
- Position: Lecturer (Academic)
- Areas of expertise: condensed matter physics; spintronics; topological insulator; topological superconductor; dirac fermion; majorana fermion
- Email: S.Sasaki@leeds.ac.uk
- Phone: +44(0)113 343 3578
- Location: 301E Bragg Building
- Website: ORCID
Profile
Responsibilities
- CM group seminar organiser
Research interests
Topological Insulators: Realization of quantum spin Hall state; Creation, control, and detection of the spin-momentum locked surface state for spintronics with devices fabricated by lithography.
Topological Superconductors and Andreev bound states consisting of Majorana Fermions: Search for candidate materials with soft point-contact spectroscopy technique; Tunneling spectroscopy with tunnel junction devices, Josephson junction devices and SQUID fabricated by lithography; Specific heat measurements and magnetization measurements.
Helium at ultralow temperatures: Superfluid and quantum solid helium 3 with an adiabatic-demagnetization dilution fridge; Supersolidity of quantum solid helium 4 with an optical dilution fridge; NMR measurements and ultrasound measurements at ultralow temperatures.
Current postgraduate researchers
<h4>Postgraduate research opportunities</h4> <p>We welcome enquiries from motivated and qualified applicants from all around the world who are interested in PhD study. Our <a href="https://phd.leeds.ac.uk">research opportunities</a> allow you to search for projects and scholarships.</p>Projects
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<li><a href="//phd.leeds.ac.uk/project/2414-emergent-quantum-phenomena-in-moiré-patterned-ti/fm-heterostructures">Emergent Quantum Phenomena in Moiré-Patterned TI/FM Heterostructures</a></li>
<li><a href="//phd.leeds.ac.uk/project/2415-surface-acoustic-phonon-and-dirac-quasiparticle-coupling-in-strong-spin-orbit-semiconductors-">Surface Acoustic Phonon and Dirac Quasiparticle Coupling in Strong Spin Orbit Semiconductors </a></li>
<li><a href="//phd.leeds.ac.uk/project/2416-ultrafast-terahertz-spin-currents-in-engineered-novel-2d-materials">Ultrafast Terahertz Spin Currents in Engineered Novel 2D Materials</a></li>