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2 * 1 * 2 * 3 Synthesis of highly phosphorescent copper(i) complexes. Taro TSUBOMURA* 1, Toshiaki TSUKUDA* 2, and Kenji MATSUMOTO* 3 EL EL 100% EL - - ig. 1 - (Me-mbim)(I) X (I)(I) (ig.2) (254 nm) 374 nm 482 nm (ig.3) 43% EL * 1 (Professor, Dept. of Materials and Life Science) * 2 (Assistant Professor, Dept. of Materials and Life Science) * 3 (Postdoctoral ellow, High-Tech Research Center) Cu Cu Me-mbim [Cu 2 (µ-me-mbim) 2 ](P 6 ) 2 ig. 1 Ligand and copper(i) complex. Cu C C C C Cu 2+ 2P 6 - ig. 2 Crystal structure of Cu(I) Me-mbim complex. ormalized intensity Wavelength / nm ig. 3 Emission spectrum of Cu(I) Me-mbim complex. (excitation: 320 nm)

3 * 1 * 2 * 3 Preparation and electrical properties of thin films for infrared sensors Yoji SAITO* 1, Tadashi MOMMA* 2, and Yoshiharu OZAKI* 3 TCR TCR 65 Mo W V 1x Ta x O y 2- VO(OCH 2 CH 2 CH 3 ) 3 Ta(OC 2 H 5 ) 5 Si 100, m * 1 (Professor, Dept. of Electrical and Mechanical Engineering) * 2 (Research Associate, Dept. of Electrical and Mechanical Engineering) * 3 (Professor Emeritus, Dept. of Material and Life Science) 1 V 1x Ta x O y Ta H , , 1 Al 0.1mm VO 2 Ta TCR Ta Ta cm TCR 23%/ =12%/ Ta

4 Wavelength Dispersion of Electrooptic Coefficients of LibO 3 Crystal Kuniharu TAKIZAWA* 1 Kazuya YOEKURA * 2 Lianhua JI * 3 L 5%MgO1.8MgO L Laser source r 13E (pm/v) r 22 r 13 E r 33 E r 33 E (pm/v) D filter λ/2 plate Polarizer X 1 X 3 X 2 X 2 X 3 X 1 L crystal High High power power amplifier amplifier Signal Signal generator generator Beam expander Multimeter Ref. Sig. λ (nm) measured value fitting curve 2 L EO r λ (nm) Pinhole Photo detector OSC. Lock-in Lock-in Amp. Amp. (Lock-in - freq.=1khz) measured value fitting curve 3 L EO r 33 Signal Band Band pass pass filter. filter. (Band pass freq.= 1kHz) Lock-in Lock-in Amp. Amp. (Lock-in freq.=3khz) * 1 (Professor, Dept. of Materials and Life Science) * 2 Graduate Student, Dept. of Applied Physics *3 (Research Associate, Dept. of Materials and Life Science)

5 * 1 * 2 * 3 umerical study of peeling and adhesion of single-walled carbon nanotube aruo SASAKI* 1, Arihiro TOYODA* 2, and oriaki ITAMURA* Å (SW-CT) 1),2) CT ig.1a-1i z ig.2a-2i CT [ig.1a:z =0 Å] z [ig.2a] [ig.1b:z =1.2 Å] [ig.2b]ct z CT S [ig.1c: z=19.3 Å] [ig.1dz =19.4 Å] z [ig.2c2d] CT CT [ig.1e: z =56.6 Å] [ig.1: z=56.7 Å] [ig.2e2] CT CT [ig.1i: z=12.9 Å] z [ig.2h2i] ig ev (CDEHI) * 1 (Professor, Dept. of Materials and Life Science) * 2 (Graduate Student, Department of Applied Physics) * 3 (Research Associate, Dept. of Materials and Life Science) Peeling (Retract) CT 1). Sasaki, A. Toyoda, H. Saitoh,. Itamura, M. Ohyama, K. Miura: e-j. Surf. Sci. anotech. 4, 133 (2006). A B C Line contact D Shape opening downwards Adhesion (Approach) orce acting on the moving edge z [ev/å] G A B E 2). Sasaki, A. Toyoda,. Itamura, K. Miura: e-j. Surf. Sci. anotech. 6, 72 (2008) D Sliding Point contact C H 13.0 Displacement z [Å] Reverse S-character Peeling I Adhesion, Line contact ig.1 Peeling and adhesion process of SW-CT 0 1 H I Peeling Adhesion E Peeling (Retract) ABCDEG Adhesion (Approach) ABIHG ig.2 Peeling and adhesion curves of SW-CT G

* 1 * 2 Examination of surface with ion beams; Secondary ion mass spectrometry and computer simulation Masahiro KUDO* 1 and obuhiko KATO* 2 [] SIMS ig.1 8 5000K (1MD 0.5fs) H 2 ig.

6 * 1 * 2 Examination of surface with ion beams; Secondary ion mass spectrometry and computer simulation Masahiro KUDO* 1 and obuhiko KATO* 2 [] SIMS ig K (1MD 0.5fs) H 2 ig MD PE PAM SIMS 20 SIMS SIMS * 1 (Professor, Dept. of Materials and Life Science) * 2 (Assistant Professor, Dept. of Materials and Life Science Relative Intensity ( x 20) 800MD 4000MD MD 5000MD ig.1 Simulation of thermal decomposition for PE model molecule Mass, amu ig. 2 Calculated distribution of fragments for PE with the experimental results. Relative Intensity ( x 20) Mass, amu ig. 3 Calculated distribution of fragments for PAM with the experimental results.

7 * 1 * 2 Effective electron emission and insulation properties of Magnesium oxide films Shigeru BABA * 1, and Takeo AKAO* 2 MgO MgO Ar ig.1 Jpn. J. Appl. Phys., 45 (2006) akada, et al., proc. of ISSP2007, p nm MgO WC 50mm 1V/s 1mA ig V 9.2V 200 nm ig GV/m ig.1 MgO * 1 (Professor, Dept. of Materials and Life Science) * 2 (Assistant Professor, Dept. of Materials and Life Science requency I s / I p Breakdown voltage(v) Breakdown Voltage (V) ig.2: Histogram of Breakdown Voltages nm 100nm 150nm 200nm V C (V) V C /t MgO (GV/m) ig.1: Universality of secondary electron collection characteristics with film thickness ilm thickness(nm) 0sccm 2sccm ig. 3: ilm thickness dependence of Breakdown Voltage

8 * * * A facile method for the detection of RA-polypeptide interactions by MALDI-TO MS Akira KATOH* 1, Maki SUGAYA* 2, and Yuriko MATSUMURA* 2 RA- SPR DA RA- MALDI-TO MS HIV RRE RA RRE DLA M.W. 2391, Kd = 0.5 nm RA M+a, M+K MALDI-TO MS RA RA DLA RRE DLA RRE DLA RRE RLA M.W. 2432, Kd = 30 nm DLA 30 nm RA- boxb RA RA 3 RRE RRE RRE MALDI-TO MS RA- MALDI-TO MS 96 RA- ig. 1 The secondary structures of HIV RRE RA and phageλ boxb RA. RRE DLA 10 DLA * 1 (Professor, Dept. of Materials and Life Science) * 2 (Research Associate, Dept. of Materials and Life Science) ig. 2 MALDI-TO mass spectra of mixed peptides and RRE RA or RRE C46G74 RA. (A) DLA, RLA, and λ peptides (B) DLA, RLA, and λ peptides-rre RA (C) DLA, RLA, and λ peptides-rre C46G74 RA

9 *1 *2 ovel photocyclization of photochromic hemithioindigo Kiyoshi TAAKA *1 and Satoru IWATA *2 *1 (Professor, Dept. of Liberal Arts and Sciences) *2 (Assistant Professor, Dept. of Liberal Arts and Sciences Scheme 1 S O X X 1-Z (X = H); 2-Z (X = ) Abs. S S O O H H O OH + X = H 390 nm 490 nm 3 4 Reference K. Tanaka, K. Kohayakawa, T. Irie, S. Iwata, and K. Taguchi, J. luorine Chem., 128 (10) (2007). S O O S O O X 1-E; 2-E S O 390 nm Wavelength / nm ig. 1 UV-vis spectra change of 1 by irradiation with 390 nm light. [1} = 1x10-4 M in toluene. S X X =

10 *1 *2 Synthesis of biologically active macromolecules from polysaccharides Keisuke KURITA *1, Jin YAG *2 β-1,3 5 2 β-1,6 C-6 - C-6 C-6 C-6 *1 (Professor, Dept. of Materials and Life Science) *2 (Research Associate, Dept. of Materials and Life Science) C-6 - Table 1. - application amount ds a T b O (µg /ml) (ng /ml) (µm) a: Degree of substitution determined from the peak area ratio Ac / Ph in 1 H MR. b: Tumor necrosis factor. - Table 1 Tα

11 * 1 * 2 Prevention effects of polyphenol compounds for heat-deterioration of frying oils Setsuko HARA* 1 and Ayato KADA* 2 * 1 (Professor, Dept. of Materials and Life Science) * 2 (Research Associate, Dept. of Materials and Life Science

* 1 * 2 Development of neuronal cell models and clarification of neuronal growth/survival

1 Immnohistochemical staining of oligodendrocytes in the fetal rat.

of Materials and Life Science) * 2 (Research Associate, Dept.

12 * 1 * 2 Development of neuronal cell models and clarification of neuronal growth/survival cascades in the central nerve system. Hisashi HISATOMI* 1, Satsuki EGASHIRA* 2 ig.1 Immnohistochemical staining of oligodendrocytes in the fetal rat. * 1 (Associate Professor, Dept. of Materials and Life Science) * 2 (Research Associate, Dept. of Materials and Life Science ig.2 PC12 cells extending neurites on G. ig.3 Expressions of GAP and GAP mra in PC12 cells with/without neurite extension. M, Size Marker; +, positive extension; -, negative extension.

13 * 1 * 2 Eco-technologies for environment, energy and materials. Toshinori KOJIMA* 1, and Shigeru KATO* 2 CO 2 Ks ig Ks ig.2 ig.1 SAP * 1 (Professor, Dept. of Materials and Life Science) * 2 (Research Associate, Dept. of Materials and Life Science δθ (p=1.84.2) m 3 /m SAP 0.2 Gypsum (After 2.5 months) Gypsum (After 20 months) Humic acid (After 2.5 months) Humic acid (After 20 months) Worm (After 2.5 months) Worm (After 20 months) 0.1 Water only (After 2.5 months) Water only (After 20 months) Leaves of E.C. (After 2.5 months) Leaves of E.C. (After 20 months) Black soil Saturated hydraulic conductivity (Ks) µm/s ig. 1 Time variations of water retention capacity and water permeability with formation of aggregate δθ (p=1.84.2) m 3 /m Peat 20% Peat 40% Peat 60% SAP 0.1% SAP 0.2% Bauxite after calcination 20% Bauxite after calcination 50% Bauxite before calcination 20% Bauxite before calcination 50% Toyoura sand Saturated hydraulic conductivity (Ks) µm/s ig. 2 Changes in water retention capacity and water permeability by blending water absorbent

1 Estimated electric potential and field in micr-fluid channel by ASYS. ig.1 * 1 (Assoc. Professor, Dept.

14 * 1 * 2 Dielectrophoretic Sepalation of Biological Cell Seiichi SUZUKI* 1 and Tutomu TAKAHASHI* 2 ig.2 a) Cultured cells labeled with DiBAC4 dye. luorescence intensity slightly increases by application of electric field. ig.1 Estimated electric potential and field in micr-fluid channel by ASYS. ig.1 * 1 (Assoc. Professor, Dept. of Materials and Life Science) * 2 (Research Associate, Dept. of Materials and Life Science b) luorescence intensity change before and after stimulation. ig.2a) b) 2

* 1 * 2 * 3 Impact Simulation of the Human Head Kohei YUGE* 1, Junji HORIGUCHI* 2, and

of Electrical and Mechanical Engineering) * (Research Associate, Dept.

0[ms] Rotation (b) 8.0[ms] (d) 14.0[ms] ig.

loss of the ability to execute coordinated movements Brain stem Center of

15 * 1 * 2 * 3 Impact Simulation of the Human Head Kohei YUGE* 1, Junji HORIGUCHI* 2, and Dai WATAABE* 3 CT 1 1 * 1 (Professor, Dept. of Electrical and Mechanical Engineering) * (Research Associate, Dept. of Electrical and Mechanical Engineering * 3 Acceleration (a) 0.0[ms] (c) 11.0[ms] Rotation (b) 8.0[ms] (d) 14.0[ms] ig. 2 Von-Mises equivalent Stress distribution in a coronal plane while a lateral rotational impact [Pa] ig. 1 Applied boundary condition and acceleration curve Corpus callosum Due to a lesion, loss of the ability to execute coordinated movements Brain stem Center of consciousness Cingulate gyrus Due to a lesion, absence of spontaneity blunting of emotion Inside of temporal lobe Due to a lesion, memory disorder disorientation absence of spontaneity personality change depression ig. 3 Localization of brain functions in the higher stress areas

16 * * * * Development of a system detecting a symptom of abnormal health of elderly people living alone using acoustical information. SungHwan SHI* 1,Takeo HASHIMOTO* 2, Shigeko HATAO* 3 and Toshimitsu TAAKA* 4 * 1 (Post doctoral fellow, Dept. of Electrical and Mechanical Engineering) * 2 (Professor Emeritus, Dept. of Electrical and Mechanical Engineering) * 3 (Assistant Professor, Dept. of Electrical and Mechanical Engineering) * 4 (Professor, Dept. of Electrical and Mechanical Engineering) 4 Blocking into frame (rame length & Overlap factor) t M t 3 t 2 t 1 At T k, Classification ( ) max log ( Pr ( i ) ) 1 i ( 1 k ) log ( Pr ( j ) ) ( 1 j ) Group j eature extraction eature 1 eature 2 eature V Designed HMM Group 1: Pr(1) Group 2: Pr(2) 1 Group : Pr() 3 t t 1 2 T 1 T 2 T 3 T Designed A Model Hidden layer Output layer 2 Digitization Group 1 Group 2 Group t m Data sequence ig. 1 Suggested hybrid model for the detection of cough sound. Recognition rate (%) Input signal (monitoring) Envelope ERB level Signal-to-noise ratio, SR (db) Suggested hybrid model A model Conventional HMM ig. 2 Comparison of performances of the suggested hybrid model with the existing models as a function of SR. Hybrid model (detection result) A model Start/Stop button ig. 3 Main window of the software for the real-time detection on cough sound and the functions of each part. t M

3 Horizontal and vertical coordinate of maximum cumulative position EC () a) b) 2 Top: thermal image Bottom: marginal distribution onto

17 * 1 * 2 Human detection and tracking through far-infrared image sequence Masayoshi AOKI* 1 and Shunji KATAHARA* 2 1) 2 2) 3) ig. 1 Principle of human detection ig. 3 Horizontal and vertical coordinate of maximum cumulative position EC () a) b) 2 Top: thermal image Bottom: marginal distribution onto horizontal axis ig. 2 Typical example of human detection * 1 (Professor, Dept. of Computer and Information Science) * 2 (Research Associate, Dept. of Computer and Information Science ig. 4 Typical example of real-time human detection 4. 1) 2) 3) 4)

18 * A preliminary evaluation of a tactile guiding indicator paved on crosswalk from the viewpoint of psychological stress of blindfolded pedestrians 2 JR 2 25m B * (Professor, Dept. of Electrical and Mechanical Engineering) Motohiro OHKURA* A A

* 1 * 2 * 2 Information Transfer Tools for Home Help Staff Atsuko IKEGAMI* 1, Akihide KOISO* 2, and Rui SAKAGUCHI* 2 2007 11 4 23 75 2004 * 1 (Associate Professor, Dept.

19 * 1 * 2 * 2 Information Transfer Tools for Home Help Staff Atsuko IKEGAMI* 1, Akihide KOISO* 2, and Rui SAKAGUCHI* * 1 (Associate Professor, Dept. of Computer and Information Science) * 2 4 (Undergraduate, Dept. of Industrial Engineering ig ig1. Pie chart of contents

20 Preferred color temperature on LCD screens Age related difference Satoru KUBOTA * 7,000K20,000K 20 (6379 ) 20 (2023 ) ,, * (Professor, Dept. of Electrical and Mechanical Engineering) REAL Diamondcrysta VISEO IV

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<4D F736F F F696E74202D208E9197BF362D32288CF68A4A298DC C55F92C789C18D9E2E707074> 1/30 (1) (2) (3) 2/30 (1) 3/30 (1) * * * * * * * 100% (1) /4 4 5/30 (1) 50 nm 10 nm(mfm) 5150% MFM MFM (etc) MFM II-T MFM MFM (etc) 6/30 (1) @2005 MFM 100% MFM2010 7/30 (1) 10nm (2006.6) 2 @ MFM CoFeCT300/3