All Stories

  1. Machine learning for predicting physical parameters of atom-vacancy defects from low-frequency noise in few-atom layer MoS2

    Article • AIP Advances, April 2025, American Institute of Physics

    professor Junji Haruyama

  2. Gate-tunable resistance drops related to local superconducting gaps in thin TaS2 layers on SrTiO3 substrates

    Article • APL Materials, August 2023, American Institute of Physics

    professor Junji Haruyama

  3. Electrical hysteresis characteristics in photogenerated currents on laser-beam-derived in-plane lateral 1D MoS2-Schottky junctions

    Article • AIP Advances, October 2022, American Institute of Physics

    professor Junji Haruyama

  4. Quantum-spin-Hall phases and 2D topological insulating states in atomically thin layers

    Article • Journal of Applied Physics, March 2021, American Institute of Physics

    professor Junji Haruyama

  5. Optoelectronic properties of laser-beam-patterned few-layer lateral MoS2 Schottky junctions

    Article • Applied Physics Letters, July 2020, American Institute of Physics

    professor Junji Haruyama

  6. Edge-derived magnetisms in very thin non-doped Bi2Te3 nanomesh

    Article • Applied Physics Letters, August 2019, American Institute of Physics

    Professor Junji JH Haruyama, professor Junji Haruyama

  7. Edge magnetisms of 2D atom-thin layers; black phosphorus

    Article • Nano Research, December 2016, Tsinghua University Press

    Professor Junji JH Haruyama, professor Junji Haruyama, Dr. Miki Hasegawa

  8. Introduction of Spin–Orbit Interaction into Graphene with Hydrogenation

    Article • Journal of the Physical Society of Japan, October 2016, Physical Society of Japan

    professor Junji Haruyama

  9. Hexagonal boron-nitride nanomesh magnets

    Article • Applied Physics Letters, September 2016, American Institute of Physics

    professor Junji Haruyama

  10. Gate-Tunable Atomically Thin Lateral MoS2Schottky Junction Patterned by Electron Beam

    Article • Nano Letters, June 2016, American Chemical Society (ACS)

    professor Junji Haruyama, Dr. Miki Hasegawa

  11. Graphene and Graphene Nanomesh Spintronics

    Article • Electronics, December 2013, MDPI AG

    professor Junji Haruyama

  12. Magnetoresistance oscillations arising from edge-localized electrons in low-defect graphene antidot-lattices

    Article • Applied Physics Letters, January 2012, American Institute of Physics

    professor Junji Haruyama

  13. Large intrinsic energy bandgaps in annealed nanotube-derived graphene nanoribbons

    Article • Nature Nanotechnology, December 2010, Nature

    professor Junji Haruyama

  14. Novel Quantum Phenomena in Carbon Nanotubes; Superconductivity, One-Dimensional Electron Correlations, and Spin Quantum Bits

    Article • Journal of Computational and Theoretical Nanoscience, September 2010, American Scientific Publishers

    professor Junji Haruyama

  15. Superconductivity in Carbon Nanotubes

    Article • March 2010, IntechOpen

    professor Junji Haruyama

  16. Superconductivity in Thin Films of Boron-Doped Carbon Nanotubes

    Article • Physical Review Letters, July 2008, American Physical Society (APS)

    professor Junji Haruyama

  17. Superconductivity in Entirely End-Bonded Multiwalled Carbon Nanotubes

    Article • Physical Review Letters, February 2006, American Physical Society (APS)

    professor Junji Haruyama

  18. Multi-walled carbon nanotubes with NbN superconducting electrodes

    Article • Physica E Low-dimensional Systems and Nanostructures, August 2004, Elsevier

    professor Junji Haruyama

  19. End-bonding multiwalled carbon nanotubes in alumina templates: Superconducting proximity effect

    Article • Applied Physics Letters, June 2004, American Institute of Physics

    professor Junji Haruyama

  20. Anomalous localization effects associated with excess volume of cobalt catalyst in multiwalled carbon nanotubes

    Article • Applied Physics Letters, October 2002, American Institute of Physics

    professor Junji Haruyama

  21. Anti-localization caused by small doping of heavy-mass impurity-atoms in carbon nanotubes and a novel spintronics device

    Article • Physica E Low-dimensional Systems and Nanostructures, January 2002, Elsevier

    professor Junji Haruyama

  22. Weak localization and phase interference due to spin-orbit interaction in metal-doped carbon nanotubes

    Article • December 2001, American Physical Society (APS)

    professor Junji Haruyama

  23. Drastic change of phase interference by small diffusion of heavy-mass electrode atoms in carbon nanotubes and phase switching device

    Article • Applied Physics Letters, July 2001, American Institute of Physics

    professor Junji Haruyama

  24. Mesoscopic phenomena in nano-porous alumina films: single nano-tunnel junctions connected to Ni-nanowires and carbon nanotubes

    Article • Applied Surface Science, May 2001, Elsevier

    professor Junji Haruyama

  25. Coulomb Blockade Related to an Anti-localization Effect in External Environment in an Array of Single Tunnel Junctions/Carbon Nanotubes

    Article • Japanese Journal of Applied Physics, March 2001, Japan Society of Applied Physics

    professor Junji Haruyama

  26. Coulomb blockade related to a localization effect in a single tunnel-junction/carbon-nanotube system

    Article • January 2001, American Physical Society (APS)

    professor Junji Haruyama

  27. Coulomb blockade in a single tunnel junction directly connected to a multiwalled carbon nanotube

    Article • Applied Physics Letters, October 2000, American Institute of Physics

    professor Junji Haruyama

  28. Coulomb blockade related to mutual Coulomb interaction in an external environment in an array of single tunnel junctions connected to Ni nanowires

    Article • September 2000, American Physical Society (APS)

    professor Junji Haruyama

  29. Influence of phase fluctuation in external environment on Coulomb blockade in an array system of single tunnel junctions/Ni nanowires

    Article • Applied Physics Letters, March 2000, American Institute of Physics

    professor Junji Haruyama