Molecular Nano Dynamics (PDF)

(Volume 1) I. SPECTROSCOPIC METHODS FOR NANO INTERFACES Fluorescence and Raman Spectroscopy Coupled with Scanning Tunneling Microscopy Real-Time Measurement of Solid/Liquid Interfacial Electron Transfer Dynamics by Nonlinear Spectroscopy Time-Resolved Near-Field Spectroscopic Study on Photophysical Processes of Molecules and Quantum Dots at Interfaces Time-resolved Anisotropic Decays of Polymer Chains Studied by Near-Field Optical Microscopy Nonlinear Raman Spectroscopy of THz Vibrations at Liquid-Solid Interfaces II. NANOSTRUCTURE CHARACTERISTICS AND DYNAMICS Hierarchical Structures in Molecular Systems with Self-Organization Methods Light-Induced Hierarchical Morphology of Polymer Mixtures Confined in Mesoscopic Length Scales Molecular Photo-Recognition and Segregation at Solid Surface with Periodic Metal Nano-Architecture Formation of Nanostructures at the Interface of Polymer Films: Time-Resolved Fluorescence Microspectroscopy Clarification of Mechanisms of Cooperative Chemical Phenomena by Microspectroscopy in Bistable Systems Study on Ionic-Liquid/Nanocrystal Interfacial Reaction Based on Single Particle and Single Molecule Spectroscopy Construction of Nanostructures in Reaction Fields and Measurement of Reaction Dynamics at Solid-Liquid Interfaces by Use of Strong Magnetic Fields and Spin Chemistry Asymmetric Potential Generation on a Substrate and Reaction Analysis by SECM/ AFM/Optical Microscopy Control of Temporal Intermittence of Photoluminescence from Single Quantum Dots III. SINGLE BIOCELLS Light Scattering Imaging and Femtosecond Nonlinear Processing of Single Living Cells Super-resolution Infrared Microspectroscopy for Single Living Cells 3D Super-resolution Microspectroscopic Study on Environment-sensitive Photosynthetic Units Photothermal and Photoinonization Spectroscopy on Single Living Cells Fluorescence Lifetime Imaging Study on Single Living Cells in View of External and pH Effects Photon Force Measurement on Single Living Cells and Their

Hiroshi Fukumura studied the biocompatibility of polymers in the Government Industrial Research Institute of Osaka from 1983 to 1988. He became an Assistant Professor at the Kyoto Institute of Technology in 1988, then moved to the Department of Applied Physics of Osaka University in 1991, where he worked on the mechanism of laser ablation and laser molecular implantation. Since 1998, he is Professor in the Department of Chemistry at Tohoku University. His current interests include molecular physical chemistry employing ultra-fast spectroscopy and scanning tunneling microscopy.

Masahiro Irie received his B.S. and M.S. degrees from Kyoto University and his Ph.D. degree in radiation chemistry from Osaka University. He started his research on photochemistry at Hokkaido University in 1970 and went on to Osaka University. In 1988 he was appointed to Professor at Kyushu University, where he initiated the study of photochromic diarylethene derivatives. He is currently interested in developing single-crystalline photochromism and single-molecule photochemistry using diarylethene derivatives.

Yasuhiro Iwasawa pioneered the integration of modern surface science and organometallic chemistry into surface chemistry and catalysis on the atomic/molecular scale, and he has a leading position in the creation of the new research field of catalysis and surface chemistry at oxide surfaces by XAFS and SPM techniques. His honors include the Japan IBM Science Award (1990), Inoue Prize for Science (1996), Catalysis Society of Japan Award (1999), The Surface Science Society of Japan Award (2000), Medal with Purple Ribbon (2003), and the Chemical Society of Japan Award (2004).

Hiroshi Masuhara held a Professorship at the Kyoto Institute of Technology (1984-1991) before returning to Osaka University as Professor in the Department of Applied Physics. With his research, he opened a whole new field on laser nanospectroscopy, nanophotochemistry and laser nanoablation. In addition to his

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