Kenji Watanabe

Studying excitons in twisted hBN reveals new light-emitting properties.

Research reveals unique properties of twisted bilayer MoTe materials.

Researchers investigate exciton condensates in double-bilayer graphene under varying conditions.

Researchers reveal advanced methods for measuring current phase relations in graphene superconducting junctions.

Research on layered materials reveals unique electronic properties and possibilities for future technologies.

Research reveals unique electronic properties of twisted TMDs combined with graphene.

Scientists use metasurfaces to efficiently control exciton behavior with light.

New multi-focus ptychography techniques improve imaging of thick materials at atomic scale.

Research reveals superconductivity in twisted bilayer WSe2 under specific conditions.

New methods improve measurement accuracy of twist angles in advanced materials.

Research on twisted trilayer graphene reveals unique superconducting behaviors.

Research reveals new structures in twisted bilayer-trilayer graphene with unique electronic properties.

Study reveals interactions of MoSe and CrGeTe under light and magnetic fields.

Investigating how rhombohedral graphene's unique properties impact technology and science.

MoTe's unique properties offer new possibilities in optics and electronics.

Research reveals unique properties of twisted TMD layers for future technology.

Researchers examine twisted two-dimensional materials and their unique electronic behaviors.

Research reveals unique electron behaviors in twisted bilayer graphene's moiré patterns.

Research unveils the distinct behaviors of quasicrystals made from tungsten diselenide.

Research reveals unique properties of twisted bilayer graphene and its potential applications.

Research reveals new methods to control superconductivity in bilayer graphene.

This study explores superconductivity and magnetic properties in rhombohedral trilayer graphene.

This research highlights rhombohedral tetralayer graphene's role in superconductivity and the Hall effect.

Recent study reveals important properties of doped graphene leads for future electronics.

Research reveals how light alters material properties at the quantum level.

Research explores the superconducting diode effect using -RuCl and NbSe materials.

Research reveals methods to control charged localized excitons with strain tuning in two-dimensional materials.

Research reveals new insights into ferroelectric properties in transition metal dichalcogenides.

Exploring heat flow in insulating states of graphene under unique conditions.

Research shows strain boosts light emission in TMDs and InSe layers.

Research reveals how charge impacts exciton diffusion in TMD materials.

Discover how strain enhances the properties of bilayer WSe₂ for future tech.

Explore the fascinating properties of twisted bilayer graphene and its potential applications.

Research reveals fascinating states in twisted bilayer graphene, transforming our grasp of quantum materials.

Research highlights how strain enhances trion binding energy in monolayer WS2.

Field-resilient supercurrent diodes promise exciting advancements in electronics and computing.

Researchers explore charge transitions in bilayer graphene quantum dots for advanced technology.

Research reveals new behaviors in twisted semiconductor layers under magnetic fields.