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Materials Science Research Laboratory | ||||
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Diamond transistors - Doping mechanism and improved RF device characteristics - |
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M. Kasu / M.Kubovic | ||||
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Aluminium nitride light-emitting diodes at 210 nm - Increased emission intensity by non-polar plane - |
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Y.Taniyasu / K.Hirama | ||||
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Step-free Gallium nitride grown surface - Atomically flat surface grown by selective growth - |
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T.Akasaka | ||||
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Ultraviolet luminescence of h-BN epitaxial fims - Study of its luminescence mechanism - |
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Y.Kobayashi | ||||
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Carbon nanotube growth from diamond - Toward low-cost, large-amount production and structure control of carbon nanotubes - |
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D.Takagi | ||||
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Dependence of structure and electronic properties of epitaxial few-layer graphene on the number of layers |
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F.Maeda / H.Hibino | ||||
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AFM analysis of structural dynamics in receptor - Scientists see receptors open the channel - |
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Y.Shinozaki | ||||
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Examination of reconstituted membrane proteins - Do proteins prefer specific membranes? - |
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N.Kasai | ||||
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Manipulation of biomolecules using artificial cell membrane - Selective adsorption/transport of proteins to desired position - |
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H.Nakashima | ||||
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Physical Science Research Laboratory | ||||
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Influence of single atom on transistor characteristics - towards single-dopant electronics - |
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Mohammed Khalafalla / Y.Ono | ||||
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Electron dynamics in single-electron transfer - towards high-accuracy charge manipulation - |
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S.Miyamoto / A.Fujiwara | ||||
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Atomic level design of device materials - Computational experiments - |
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H.Kageshima | ||||
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Compound Semiconductor Mechanical Devices - Highly sensitive detection technique using nano-mechanical vibration - |
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H.Okamoto / Imran Mahboob / K.Onomitsu | ||||
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Electrical resistance measurement of nanomaterials - Evaluation of graphene materials using nanotools - |
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M.Nagase | ||||
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Block Copolymer Lithography - Fine nanopatterning by rapid directed polymer self-assembly - |
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T.Yamaguchi | ||||
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Nanoprobing electrons in quantum structures - Imaging quantized states of semiconductor electrons - |
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K.Kanisawa / K.Suzuki | ||||
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Correlated coherent oscillations in coupled semiconductor charge qubits - Development of multi-functional quantum information processing devices using semiconductor nano-structures - |
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T.Ota | ||||
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18 | ![]() |
NMR study of electronic states in semiconductor quantum structures - Spontaneous breaking of spin symmetry probed by nuclear spins - |
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M.Kumada / K.Muraki | ||||
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Superconductive Atom Chip - Exploring the Quantum with Atoms and Superconductor - |
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T.Mukai | ||||
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20 | ![]() |
Quantum phenomena in a superconducting circuit - Observation of measurement induced wave packet reduction - |
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K.Kakuyanagi | ||||
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21 | ![]() |
Photoluminescence of the two-dimensional electron system in electric fields - Towards realization of a dilute two-dimensional electron system - |
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M.Yamaguchi | ||||
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22 | ![]() |
Evaluation of thin films by means of superconducting resonator - Reveal of thin film properties at microwave frequencies due to superconductivity - |
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Y.Harada | ||||
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Optical Science Research Laboratory | ||||
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Experimental entanglement swapping in the 1.5-um telecom band - Towards realization of quantum repeaters - |
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H.Takesue / Miquel / K.Harada | ||||
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Nonlocality in quantum theory - Counterintuitively correlated information - |
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F.Morikoshi | ||||
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Ultracold quantum gases trapped in optical lattices - Challenges to many-body problems via cold atoms - |
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K.Inaba / M.Yamashita | ||||
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26 | ![]() |
Development of high-repetition rate optical frequency comb for optical
arbitrary waveform processing - toward the development of an optical synthesizer - |
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T.Nishikawa / A.Ishizawa | ||||
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Fabrication of various heterostructures from semiconductor nanowires - Toward nanophotonic devices - |
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K.Tateno / Guoqiang Zhang | ||||
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Optical Memory with Extremely-low Energy Consumption - for future optical RAM buffer - |
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A.Shinya | ||||
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Dynamic Tuning of Optical Nanocavity - Manipulating trapped light - |
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H.Taniyama | ||||
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30 | ![]() |
Nanoimprint technology with electrochemical reaction - We can make nano easy - |
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A.Yokoo | ||||
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31 | ![]() |
Nanoimprint technology with electrochemical reaction - Nanoimprint technology with electrochemical reaction - |
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A.Takano / T.Makimoto | ||||
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Microsystem Integration Laboratories | ||||
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Silicon Photonics - On-chip integration of photonic and electronic devices - |
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H.Nishi | ||||
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33 | ![]() |
Bio-sensing Technology ~Lab on a Chipによる迅速診断~ |
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T.Miura | ||||
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34 | ![]() |
Millimeter- and Terahertz-wave Application Technology - Ultra-high-speed wireless data transmission and millimeter- and terahertz-wave imaging - |
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S.Mochizuki / J.Takeuchi / H.Takahashi | ||||
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MEMS Devices Technology - Electrochemical technique to control surface tension in micro-structures - |
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T.Sakata / J.Ishii | ||||
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Ultra-lower-energy Wireless Sensor Node Technology - Nano-Watt level Hardware for Ambient Intelligence - |
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K.Ono / T.Shimamura | ||||
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37 | ![]() |
VLSI Desingn Technologies for Future Network - A High-Speed Packet-Filter with Mismatch-Detection Circuit - |
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N.Miura | ||||
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Photonics Laboratories | ||||
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High-power and Broadband Photomixer for Terahertz-Wave Generation - Development of New Frequency Range Between Electric-Waves and Lightwaves - |
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A.Wakatsuki / Y.Muramoto / T.Yoshida | ||||
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39 | ![]() |
Epitaxial growth of InP-based semiconductors for ultra-high-speed electronics |
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H.Sugiyama | ||||
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40 | ![]() |
Low-power-consumption electroabsorption modulator integrated DFB laser - uncooled (cooler less) operation for low power consumption - |
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T.Fujisawa / W.Kobayashi / N.Fujiwara | ||||
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41 | ![]() |
Wavelength tunable distributed amplification DFB laser array - Triple features of Highspeed, wideband and stable operation - |
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H.Ishi / N.Nunoya / H.Ohashi | ||||
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42 | ![]() |
Photonic hybrid integration devices based on silica planar lightwave circuits |
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T.Yamada / H.Yamazaki | ||||
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43 | ![]() |
Hybrid Optoelectronic Router - Large-capacity, low-power router for Green ICT - |
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H.Takenouchi | ||||
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44 | ![]() |
3-D scanner - A Fast 2-D scanner and a varifocal lens made of KTN - |
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Y.Sasaki | ||||
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