Researcher Information - HARUYAMA Junji |

HARUYAMA Junji

Department / Course

Aoyama Gakuin University College of Science and Engineering Department of Electrical Engineering and Electronics

Job Professor

Lecturer and lecture
1.	2021/11/18	Laser-beam derived atomically thin nanostructures; 2D Topological Insulators and 1D Schottky junctions (Rome, Italy)
2.	2021/08	Quantum spin Hall phases in atomically thin materials (Paris)
3.	2021/04	Quantum spin Hall phases in 2D atomocally thin layers (Turkey)
4.	2021/03	Laser-beam derived topological insulating states on atom-thin semiconductor MoS2
5.	2021/03	Laser-beam derived topological insulating phases on atom-thin semiconductors
6.	2020/01	Creation of topological phases on graphene and few-layer MoS2 (Tokyo)
7.	2019/08	Superconductivity in ensemble of boron-doped carbon nanotubes (Turkey)
8.	2019/08	Topological phases in atom-thin layers; Graphene and MoS2 (Seoul, Korea)
9.	2018/12	Topological phases in atom-thin layers and novel spin phenomena (Los Angeles, USA)
10.	2018/04	Spin-orbit interaction and topological phases in atom-thin materials
11.	2018/04	Topological phases in atom-thin layers (Turkey)
12.	2017/10	Magnetisms and spintronics in various atom-thin layers (London)
13.	2017/10	Magnetisms, spintronics, and topological phases in atom-thin layers (Manchester)
14.	2017/08	Electronic and spintronic behaviors of graphene and other 2D atom-thin layers (Los Angeles)
15.	2017/07	Spin-orbit interaction in graphene (Russia)
16.	2017/03	Spin protection by spin-orbit interaction in lightly hydrogenated graphene (Singapore)
17.	2016/11	Recent advancement of 2D atom-thin layers (Singapore)
18.	2016/10	Physics and applications of novel 2D atom-thin layers
19.	2016/10	Physics and applications of novel 2D atom-thin layers
20.	2016/09	Electronic and magnetic behaviors of 2D atom-thin layers: Graphene, black phosphorus, hexagonal boron-nitride, and MoS2 (Turkey)
21.	2016/09	Magnetic and spintronic behaviors of 2D atom-thin layers: Graphene, few-layer black phosphorus, and hexagonal boron-nitride (Turkey)
22.	2016/06	Recent advancement of black phosphorus, MoS2, and graphene spintronics and magnetism” (Chongqing, China)
23.	2016/04	Spintronics and superconductivity in few-layer black phosphorus and graphene (Turkey)
24.	2015/11	Black phosphorus edge spins, MoS2-atomically thin Schottky junction, and graphene spintronics (Qingdao, China)
25.	2015/10	Recent advancement of Graphene and 2D materials; Black phosphorus, MoS2, and graphene spintronics (Montreal, Canada)
26.	2015/09	Rare-metal free magnet and spin devices in graphene and black phosphorus nanomeshes (San Sebastian, Spain)
27.	2015/06	Graphene spintronics (Boston, USA)
28.	2015/04	Graphene spintronics and magnetism (Dubai, UAE)
29.	2014/09	Graphene and graphene nanomesh spintronics (Dublin, Ireland)
30.	2014/07	Graphene spintronics as topological insulator (Gothenburg, Sweden)
31.	2014/07	Self-assembled graphene nanomesh spintronics and magnetism (Marseille, France)
32.	2014/04	Topological insulator, spintronics, and magnetism in graphenes (Antalya, Turkey)
33.	2013/12	Graphene spintronics and magnetism (Las Vegas, USA)
34.	2013/10	Spin-based phenomena in graphenes (China)
35.	2013/09	Graphene spintronic (Istanbul, Turkey)
36.	2013/08	Spintronics, magnetism, and superconductivity in graphenes and carbon nanotubes (London, UK)
37.	2013/07	Graphene spintronics on graphene edges (St.Petersberg, Russia)
38.	2013/07	Research of high-Tc superconductivity in carbon nanotubes (Espoo, Finland)
39.	2012/10	Graphene magnets and spintronics arising from graphene edges (Szedo, Hungary)
40.	2012/09	Superconductivity and spintronics in nano-carbon materials (Paris, France)
41.	2012/08	Graphene edges: Physics and applications (Shanghai , China)
42.	2012/07	Magnetism and spintronics arising from graphene edges (Sydney, Australia)
43.	2012/06	Spintronics in graphene edges (Beijing, China)
44.	2012/04	Magnetism and spintronics arising from graphene edges (Istanbul, Turkey)
45.	2012/03	Edge-related magnetism and spintronics in graphenes (Kirchberg, Austria)
46.	2012/02	Spintronics and magnetism using graphene edge spins (Goa, India)
47.	2011/10	Large intrinsic band gaps and ferromagnetism derived from edge states: Graphene Nanoribbons and Antidot-lattice Graphenes (Dalian, China)
48.	2011/10	Physics and application of graphene edges: Nanoribbons and Nanopore arrays (China)
49.	2011/09	Physics and application of graphene edges: Graphene nanoribbons and Graphene nanopore arrays” (Beijing, China)
50.	2011/07	Physics of graphene edges and its application (Lancaster, UK)
51.	2011/06	Edge-state-related electron-spin transport and magnetism in graphene (Alvor, Portugal)
52.	2011/04	Large intrinsic band gaps, ferromagnetism, and anomalous magnetoresistance oscillations derived from edge states: Nanoribbons and Antidot-lattice Graphenes (Innsbruck, Austria)
53.	2011/02	Large intrinsic band gaps, ferromagnetism, and anomalous magnetoresistance oscillations derived from edge states: Nanoribbons and Antidot-lattice Graphenes”, (Lancaster, UK)
54.	2011/01	Superconductivity in carbon nanotubes and band gap engineering in graphene nanoribbons (Kerala, India)
55.	2010/09	Electronic transport and quantum phenomena in graphenes (Boston, USA)
56.	2010/09	Quantum phenomena in carbon nanotube and graphene; superconductivity and low-dimensional electron correlation
57.	2010/08	Superconductivity in carbon nanotubes; Toward high Tc (Tsukuba, Japan)
58.	2010/08	Superconductivity in carbon nanotubes” (Belgium)
59.	2010/07	Superconductivity in carbon nanotubes and its application to novel electronic devices (Portugal)
60.	2010/07	Superconductivity in carbon nanotubes; 1D electron correlation (Lausanne, Switzerland)
61.	2010/04	Superconductivity in carbon nanotube (Antalya, Turkey)
62.	2009/07	Superconductivity in boron-doped carbon nanotubes” (Beijing, China)
63.	2009/04	Quantum phenomena in double-walled carbon nanotubes and carbon nano-peapods (India)
64.	2009/03	Superconductivity in boron-doped carbon nanotubes (Tsukuba, Japan)
65.	2008/09	Superconductivity in boron-doped carbon nanotubes and its application to quantum computation (Boston , USA)
66.	2008/09	Superconductivity in boron-doped single-walled carbon nanotubes (Boston, USA)
67.	2008/08	Superconductivity in boron-doped carbon nanotubes (Antalya, Turkey)
68.	2008/07	Recent progress of study of carbon-nanotube superconductivity (Rome, Italy)
69.	2008/07	Superconductivity in thin films of boron-doped nanotubes (Orsay, France)
70.	2008/02	Recent progress of study of carbon-nanotube superconductivity (Nagoya, Japan)
71.	2008/02	Superconductivity in carbon nanotubes (South Carolina, USA)
72.	2007/09	Carbon nanotubes; High-Tc Superconductivity and one-dimensional electron correlation (Porto, Portgal)
73.	2007/04	High-Tc superconductivity in self-assembled carbon nanotubes in nano-porous alumina templates and its application (Uta, USA)
74.	2006/09	High-Tc superconductivity in entirely end-bonded multi-walled carbon nanotubes (Grenoble, France)
75.	2006/09	High-Tc Superconductivity in Multi-walled Carbon Nanotubes (Roppongi, Japan)
76.	2006/09	Superconductivity in carbon nanotubes (Basel, Swiss)
77.	2006/08	Superconductivity in entirely end-bonded multi-walled carbon nanotubes (Chicago, USA)
78.	2006/07	Superconductivity in entirely end-bonded multi-walled carbon nanotubes (Dresden)
79.	2006/06	High - Tc Superconductivity in entirely end-bonded multi-walled carbon nanotubes (Nagano, Japan)
80.	2006/03	High - Tc Superconductivity in entirely end-bonded multi-walled carbon nanotubes” (Kirchberg, Austria)
81.	2005/12	High - Tc Superconductivity in entirely end-bonded multi-walled carbon nanotubes (Paris, France)
82.	2005/12	High-Tc Superconductivity in entirely end-bonded multi-walled carbon nanotubes (Paris, France)
83.	2005/12	Panel Session: CARBON NANOTUBES: APPLICATION DRIVERS, PROCESSING METHODS AND FABRICATION CAPABILITIES (Paris, France)
84.	2005/09	Electron-electron interaction in carbon nanotubes; Superconductivity and Tomonaga-Luttinger liquid (Boston)
85.	2005/09	High-Tc Superconductivity in entirely end-bonded multi-walled carbon nanotubes (Czech)
86.	2005/03	Possibility of quantum computation in carbon nanotubes,-Cooper pairs, Tomonaga-Luttinger liquids, and spin entanglement-”, (Greece)
87.	2005/03	Quantum spin entanglers using Cooper pairs and Tomonaga-Luttinger liquid in Carbon nanotubes
88.	2004/09	Correlation of Luttinger liquid, superconductivity, and spin entanglement in carbon nanotubes (London)
89.	2004/09	Correlation of Luttinger liquid, superconductivity, and spin entanglement in carbon nanotubes (Poland)
90.	2004/06	Nano-science in carbon nanotubes; Suppression of Cooper-pair breaking, coexistence of Cooper pair with Luttinger liquid, and atomic-like behaviors
91.	2004/03	Unique behaviors of Cooper pairs in carbon nanotubes within proximity-induced superconductivity (Toronto, Canada)
92.	2003/09	Supercurrent through quasi-diffusive multi-walled carbon nanotubes; strong spin entanglement (Delft, Netherland)
93.	2003/09	Supercurrent through quasi-diffusive multi-walled carbon nanotubes; strong spin entanglement and quantum computation (Paris)
94.	2003/08	Injection of Cooper pairs into diffusive niobium/multi-walled carbon nanotube/ aluminum junctions with phase memory (San Francisco, USA)
95.	2002/12	Proximity-induced superconductivity and its re-entrance effect in niobium/multi-walled nanotube junctions (Brazil)
96.	2002/11	Spintronics and superconductivity in multi-walled carbon nanotubes (Dresden)
97.	2002/08	Superconductivity and Spintronics in carbon nanotubes (New York)
98.	2002/07	Superconducting proximity effect and spintronics in multi-walled carbon nanotubes (San Diego)
99.	2002/06	Proximity-induced Superconductivity and spintronics in multi-walled carbon nanotubes (Italy)
100.	2002/03	Quantum-mesoscopic phenomena in carbon nanotubes; spintronics and superconductivity (Boston, USA)
101.	2001/08	Impact of Self-organized Nanostructures, Nanoporous Alumina Membranes, on Nano-physics (Spain)
102.	2000/06	Abrupt magenetoresistance jumps in Ni-nanowire systems and Coulomb blockade under elastic environment in Carbon nanotube/single junction systems (Napoli, Italy)
103.	1999/08	“Coulomb blockade in single tunnel junction connected to nanowire and Carbon nanotube: Can mutual Coulomb interaction and weak localization play the role of high impedance environment? (Turkey)