CONTENTSPREFACE ····································································································································································  γ
CONTENTS ·································································································································································  ε
ORGANIZATION ·······················································································································································  ζ
CURRENT STATUS OF NewSUBARU
NewSUBARU Storage Ring ··································································································································  1Beamlines ··································································································································································· 2
Improvement of beam injection using the injection bump waveform monitor at NewSUBARU ··························  9Development of automatic tune measurement and correction system at NewSUBARU storage ring ·················  11
RESEARCH ACTIVITIES
Laser-Compton Gamma-Ray Source by using 2μm Tm-Laser ·············································································  13
Imaging for Stress Corrosion Cracking in Stainless Steel with Laser Compton Scattering Gamma Ray ············  15
Study of 12C(,2)4He with NewSUBARU laser Compton scattered -ray beam ·················································  17
Laser-plasma debris from a rotating cryogenic–solid-Xe target ·······································································  20
Mitigation by argon buffer gas of fast debris from cryogenic xenon laser plasma EUV light source ··················  22
Mitigation effect of plasma debris from cryogenic xenon target by argon jet ······················································  24
Propose of Three-dimensional Micro Fluidics Device Using Centrifugal Force ·················································  26
Fabrication of electrodes for multiplex nerval interface ······················································································  28
Efficiency Microfluidic Reactor Chip Operated only using Surface-Acoustic-Wave ···········································  30
High-sensitive enzyme-linked immunosorbent assay in three-dimensional lab-on-a-CD ····································  32
Mask Observation Results using a Coherent EUV Scattering Microscope at NewSUBARU ······························  34
Imaging Performance Improvement of an Extreme Ultraviolet Microscope ·······················································  42
Development of the Extreme Ultraviolet Interference Lithography System ·························································  50
High-Precision Analysis for Material Analysis Beamline at BL05 for Industrial Enterprises ··························  58
Effect of the Soft X-ray on the Highly-Hydrogenated Diamond-Like Carbon Film ·············································  60
Photoemission Study of Hydrogenated Amorphous Carbon Thin Films as a Function of Annealing Temperature ·······  61
Control of Oxygen Contamination in BN Thin Film Prepared by Reactive Magnetron Sputtering ·····················  63
Semi-quantitative analysis of carbon contamination on MLMs using high power EUV light ··························  65
Electronic State of Ti in Ultra-fine Grained SUS316L-1%TiC ·············································································  67
Fabrication of High Aspect Ratio Microcoils ·······································································································  69
Fabrication of X-ray Grating Using X-ray Lithography for X-ray Talbot Interferometry ···································  71
Fabrication of High Hardness Ni Mold with Electroless Ni-B Thin Layer ··························································  73
Fabrication of Light Guide Plate for Ultraviolet Range ······················································································  75
Fabrication of Micro Capacitive Inclination Sensor by Resin Molding Method ·················································  77
LIST OF PUBRICATIONSPapers ······························································································································································  79
International Meetings ····································································································································  83
Awards ······························································································································································  90
ACADEMIC DEGREES ············································································································································  91
EDITORIAR BOAD ···················································································································································  92ε