¸¦µæ¼¼¥¼¥ß

• ÆÃÊÌ¥»¥ß¥Ê¡¼¡¡¡Î2012, 2009, 2008, 2007¡Ï

• ÏÀʸ¥»¥ß¥Ê¡¼¡¡¡Î2013, 2012, 2011, 2010, 2009, 2008, 2007¡Ï

• ¥Æ¥­¥¹¥ÈÎع֡¡¡Î2013, 2012, 2008]

ÆÃÊÌ¥»¥ß¥Ê¡¼ †

£²£°£±£²Ç¯ †

4·î4Æü(¿å)16:00¡Á¡¡¾®Àî¡¡¸­¡¡Çî»Î¡Ê¥»¥¤¥³¡¼¥¨¥×¥½¥ó³ô¼°²ñ¼Ò¡Ë †

¡ÖÅŵ¤±Ëưγ»Ò¤ÎÂÓÅÅÀ©¸æ¡×

£²£°£°£¹Ç¯ †

10·î14Æü(¿å)16:00¡Á¡¡µÜÁ°¡¡¹§¹Ô¡¡¡¡Çî»Î¡Ê»º¶Èµ»½ÑÁí¹ç¸¦µæ½ê¡Ë †

£²£°£°£¸Ç¯ †

2·î22Æü(ÌÚ)15»þ¡Á¡¡Prof.¡¡Wolfgang Bruetting¡¡¡ÊUniversitaet Augsburg¡Ë †

£²£°£°£·Ç¯ †

12·î13Æü(ÌÚ)13»þ¡Á15»þ¡¡¡¡¿¹°æ ¹î¹Ô¡¡Çî»Î¡¡¡Ê¶å½£Âç³Ø¡Ë †

ÏÀʸ¥»¥ß¥Ê¡¼ †

£²£°£±£³Ç¯ †

8·î7Æü¡Ê¿å¡Ë18:00~¡¡Ã´Åö¡§±º¾å¡¡Íµ´õ †

Charge carrier's trapping states in pentacene films studied by modulated photocurrent

S. Gorgolis, et al.; Journal of Applied Physics 113 123102 (2013)

7·î18Æü¡Ê¿å¡Ë16:30~¡¡Ã´Åö¡§µÜÆâ¡¡ÂóÌé †

Uniform and refreshable liquid electroluminescent device with a back side reservoir

Chang-Hoon Shim, et al.; Applied Physics Letters 101 113302 (2012)

7·î16Æü¡Ê²Ð¡Ë18:00~¡¡Ã´Åö¡§º´Æ£¡¡Í§ºÈ †

Contact De-electrification of Electrostatistically Charged Polymers

Siowling Soh, et al.; Journal of the American Chemical Society 134 20151-20159 (2012)

7·î8Æü¡Ê·î¡Ë18:30~¡¡Ã´Åö¡§Åļ¡¡½Ù¸÷ †

Decay process of a large surface potential of Alq3 films by heating

Norifumi Kajimoto, et al.; Journal of Applied Physics 100 053707 (2006)

7·î3Æü¡Ê¿å¡Ë16:30~¡¡Ã´Åö¡§Âçß·¡¡Í¤²ð †

Impact of electrode contamination on the ¦Á-NPD/Au hole injection barrier

A. Wan, et al.; Organic Electronics 6 47-54 (2005)

7·î1Æü¡Ê·î¡Ë18:30~¡¡Ã´Åö¡§¥¤¥à¡¡¥Ò¥ç¥ó¥¹ †

Probing interfacial charge accumulation in ITO/¦Á-NPD/Alq3/Al diodes under two electroluminescence operational modes by electric-field induced optical second-harmonic generation

Atsuo Sadakata, et al.; Journal of Applied Physics 112 083723 (2012)

6·î26Æü¡Ê¿å¡Ë16:30~¡¡Ã´Åö¡§Ãæ¸÷¡¡±É¿Î †

Small-molecule organic solar cells with improved stability

Q.L. Song, et al.; Chemical Physics Letters 416 42-46 (2005)

6·î24Æü¡Ê·î¡Ë18:30~¡¡Ã´Åö¡§ÊÆ»³¡¡ÆØ»Ö †

Energy level alignment at the interfaces in a multilayer organic light-emitting diode structure

S. Olthof, et al.; Physical Review B 79 245308 (2009)

6·î17Æü¡Ê·î¡Ë18:30~¡¡Ã´Åö¡§Åڼꡡ¹¨¼ù †

Wedging Transfer of Nanostructures

Gregory F. Schneider, et al.; Nano Letters 10 1912-1916 (2010)

6·î12Æü¡Ê¿å¡Ë16:30~¡¡Ã´Åö¡§ÉðÅÄ¡¡Í´´õ †

Photoabsorption and Photoelectron-yield Spectra of Polypeptides in the Vacuum-uv Region

S. Iwanami and N. Oda; Radiation Research 95 24-31 (1983)

6·î10Æü¡Ê·î¡Ë18:30~¡¡Ã´Åö¡§¹âÌÚ¡¡·ò¹Ô †

Planar and textured heterojunction organic photovoltaics based on chloroindium phthalocyanine (ClInPc?) versus titanyl phthalocyanine (TiOPc) donor layers

Weining Wang, et al.; Organic Electronics 12 383-393 (2011)

6·î5Æü¡Ê¿å¡Ë16:30~¡¡Ã´Åö¡§Luong Duy Xuan †

External Quantum Efficiency Above 100% in a Singlet-Exciton-Fission-Based Organic Photovoltaic Cell

Daniel N. Congreve, et al.; Science 340 334 (2013)

6·î3Æü¡Ê·î¡Ë18:30~¡¡Ã´Åö¡§ÀÐÌεÂÀ †

Transient electroluminescence in heavy metal complex-based phosphorescent organic light-emitting diodes

V.K. Chandra, B.P. Chandra; Organic Electronics 13 329-334 (2012)

5·î29Æü¡Ê¿å¡Ë16:30~¡¡Ã´Åö¡§»³ËÜ¡¡¹ÉÊ¿ †

Revealing Buried Interfaces to Understand the Origins of Threshold Voltage Shifts in Organic Field-Effect Transistors

Simon G.J. Mathijssen, et al.; Material Views 22 5105-5109 (2010)

5·î22Æü¡Ê¿å¡Ë16:30~¡¡Ã´Åö¡§»³ËÜ¡¡¿¿¿Í †

Gate-Tunable Large Negative Tunnel Magnetoresistance in Ni-C60-Ni Single Molecule Transistors

Kenji Yoshida, et al.; Nano Letters 13 481-485 (2013)

5·î15Æü¡Ê¿å¡Ë16:30~¡¡Ã´Åö¡§¶â¾ë¡¡Âó³¤ †

Optically Induced Inter- and Intrafacial Electron Transfer Probed by Two-Photon Photoemission: Electronic States of Sexithiophene on Au(111)

Erwan Varene, et al.; J. Phys. Chem. Lett. 2 252-256 (2011)

5·î8Æü¡Ê¿å¡Ë16:30~¡¡Ã´Åö¡§»³ËÜ¡¡¿¿Ç· †

Strong Pressure Effect in the Sublimation from Tetracene Single Crystals and Development of Surface Cleaning Technique for Organic Semiconductors

Manabu Ohtomo, et al.; Applied Physics Express 4 021601 (2011)

5·î1Æü¡Ê¿å¡Ë16:30~¡¡Ã´Åö¡§ÌîÀª¡¡ÂçÊå †

Mechanically controlled molecular orbital alignment in single molecule junctions

Christopher Bruot, et al.; Nature Nanotechnology 7 212 (2011)

4·î24Æü¡Ê¿å¡Ë16:30~¡¡Ã´Åö¡§¾®ÅÄ¡¡·Ã±¦ †

Charge carrier mobility and lifetime versus composition of conjugated polymer/fullerene bulk-heterojunction solar cells

G. Dennler, et al.; Organic Electronics 7 229-234 (2006)

4·î17Æü¡Ê¿å¡Ë16:30~¡¡Ã´Åö¡§¸ÅÊÝ¡¡¿¿¶µ †

A single-electron transistor made from a cadminium selenide nanocrystal

David L. Klein, et al.; Nature 389 699 (1997)

£²£°£±£²Ç¯ †

12·î5Æü(¿å)16:30¡Á¡¡Ã´Åö¡§¸ÅÊÝ¡¡¿¿¶µ †

Single-Photon Emission Behavior of Isolated CdSe?/ZnS Quantum Dots Interacting with the Localized Surface Plasmon Resonance of Silver Nanoparticles

Hiroyuki Naiki, et al.; J. Phys. Chem. C 115 23299 (2011)

11·î28Æü(¿å)16:30¡Á¡¡Ã´Åö¡§ÌîÀª¡¡ÂçÊå †

Measurement and Statistical Analysis of Single-Molecule Current-Voltage Characteristics, Trnsition Voltage Spectroscopy and Tunneling Barrier Hieght

Shaoyin Guo, et al.; J. Am. Chem. Soc. 133 19189 (2011)

11·î21Æü(¿å)16:30¡Á¡¡Ã´Åö¡§¾®ÅÄ¡¡·Ã±¦ †

Biomolecular Recombination Coefficient as a Sensitive Testing Parameter for Low-Mobility Solar-Cell Materials

A. Pivrikas, et al.; PRL 94 176806 (2005)

11·î14Æü(¿å)16:30¡Á¡¡Ã´Åö¡§Nguyen Thanh Luan †

Observation of long-range exciton diffusion in highly ordered organic semiconductors

H. Najafov, et al.; NATURE MATERIALS 9 938 (2010)

11·î7Æü(¿å)16:30¡Á¡¡Ã´Åö¡§»³ËÜ¡¡¹ÉÊ¿ †

Direct evaluation of low-field mobility and access resistance in pentacene field-effect transistors

Yang Xu, et al.; J. Appl. Phys. 107 114507 (2010)

10·î31Æü(¿å)16:30¡Á¡¡Ã´Åö¡§¹¾ß·¡¡Âó †

Material challenge for flexible organic devices

Jay Lewis; materialstoday 9 4 (2006)

10·î24Æü(¿å)16:30¡Á¡¡Ã´Åö¡§»³ËÜ¡¡¿¿¿Í †

Computational Investigation of DNA Detection Using Single-Electron Transistor-Based Nanopore

Yan-Dong Guo, et al.; J. Phys. Chem. C 116 21609 (2012)

10·î10Æü(¿å)16:30¡Á¡¡Ã´Åö¡§¶â¾ë¡¡Âó³¤ †

Atomic force microscopy baed, multiphoton, photoelectron emission imaging

E. Spanakis, et al.; Appl. Phys. Lett. 89 013110 (2006)

''Nanoscale Chemical Imaging by Scanning Tunneling Microscopy Assised by Synchrotron Radiation

Taichi Okuda, et al.; PRL 102 105503 (2009)

10·î3Æü(¿å)16:30¡Á¡¡Ã´Åö¡§Ä®ÅÄ¡¡¿¿°ì †

Exciton Dynamics at CuPc?/C60 Interfaces: Energy Dependence of Exciton Dissociation

G. J. Dutton, et al.; J. Phys. Chem. C 116 19173(2012)

7·î18Æü(¿å)18:00¡Á¡¡Ã´Åö¡§¶â¾ë¡¡Âó³¤ †

Structural Phase Contrast in Polycrystalline Organic Semiconductor Films Observed by Broadband Near-Field Optical Spectroscopy

Robert Pomraenke, et al.;Nano Lett 7 4-998(2007)

7·î11Æü(¿å)18:00¡Á¡¡Ã´Åö¡§»³ËÜ¡¡¿¿¿Í †

Logic Operations of Chemically Assembled Single-Electron Transistor

Kosuke Maeda, et al.;ACS NANO 6 3-2798(2012)

7·î4Æü(¿å)18:00¡Á¡¡Ã´Åö¡§ÅÄÃæ¡¡Í­Ìï †

Determination of Quasi-Fermi Levels across Illumminated Organic Donor/Acceptor Heterojunctions by Kelvin Probe Force Microscopy

David J. Ellison, et al.;J. Am Chem. Soc 133 13802 (2011)

6·î27Æü(¿å)18:00¡Á¡¡Ã´Åö¡§»³ËÜ¡¡¿¿Ç· †

Growth of an Ordered Crystalline Organic Heterojunction

Richard R. Lunt, et al.;Adv. Mater 19 4229 (2007)

6·î20Æü(¿å)18:00¡Á¡¡Ã´Åö¡§»³ËÜ¡¡å¦Ê¿ †

Observation of electron behavior in ambipolar polymer-based light-emitting transistor by optical second harmonic generation

Yuki Ohshima, et al.;J. Appl. Phys 110 013715 (2011)

6·î6Æü(¿å)18:00¡Á¡¡Ã´Åö¡§ÌîÀª¡¡ÂçÊå †

Transition from Direct Tunneling to Field Emission in Metal-Molecule-Metal Junctions

Jeremy M. Beebe, et al.;PRL 97 026801 (2006)

5·î30Æü(¿å)18:00¡Á¡¡Ã´Åö¡§¸ÅÊÝ¡¡¿¿¶µ †

Electronluminescence from a Single-Nanocrystal Transistor

Mark S. Gudiksen, et al.;Nano Lett 5 11 (2005)

5·î23Æü(¿å)18:00¡Á¡¡Ã´Åö¡§¹¾ß·¡¡Âó †

Charge Transport in Proteins Probed by Resonant Photoemission

D. V. Vyalikh, et al.;PRL 102 098101 (2009)

5·î16Æü(¿å)18:00¡Á¡¡Ã´Åö¡§¾®ÅÄ¡¡·Ã±¦ †

Carrier Recombination in Orthorhombic Sulphur

F. K. Dolezalek and W. E. Spear;J. Phys. Chem. Solids 36 819-825 (1975)

5·î9Æü(¿å)18:00¡Á¡¡Ã´Åö¡§¥¤¥à¡¡¥Ò¥ç¥ó¥¹ †

Orientation of emissive dipoles in OLEDs:Quantitative in situ analysis

Michael Flämmich, et al.;Organic Electronics 11 1039-1046 (2010)

5·î2Æü(¿å)16:30¡Á¡¡Ã´Åö¡§µÜÆâ¡¡ÂóÌé †

Hybrid organic-inorganic liquid bistable memory devices

J. C. Ribierre, et al.;Organic Electronics 12 1800-1805 (2011)

4·î25Æü(¿å)18:00¡Á¡¡Ã´Åö¡§º´Æ£¡¡Í§ºÈ †

The Mosaic Surface Charge in Contact Electrification

H. T. Baytekin, et al.;Science 333 308-312 (2011)

4·î18Æü(¿å)17:00¡Á¡¡Ã´Åö¡§Âçß·¡¡Í¤²ð †

Horizontal Orientation of Disk-like Hole Transport Molecules and Their Application for Organic Light-Emitting Diodes Requiring a Lower Driving Voltage

Jun Y. Kim, et al.;J. Phys. Chem. C

4·î11Æü(¿å)16:30¡Á¡¡Ã´Åö¡§±º¾å¡¡Íµ´õ †

Electronic Structure and Geminate Pair Energetics at Organic-Organic Interfaces: The Case of Pentacene/C60 Heterojunctions

Stijn Verlaak, et al.;Adv. Funct. Mater. 19 3809-3814 (2009)

£²£°£±£±Ç¯ †

2·î22Æü(¿å)16»þ¡¡Ã´Åö¡§»³ËÜ¡¡¿¿¿Í †

Optical Modulation of Molecular Conductance

Shreya Battacharrya, et al.;nano lette.. 11 2706 (2011)

1·î25Æü(¿å)16»þ¡¡Ã´Åö¡§ÅÄÃæ¡¡Í­Ìï †

Spatial control of the recombination zone in an ambipolar light-emitting organic

Jane Zaumseil, et al.;nature materials. 5 (2006)

12·î28Æü(¿å)16»þ¡¡Ã´Åö¡§µÜºê¡¡¹ÔÀµ †

Exciplex Formations at the HTL\Alq3 Interface in an Organic Light-Emitting Diode:Lnfluence of the Electron-Hole Recombination Zone and Electric Field

Naoki Matsumoto, et al.;J. Phys. Chem. 114 4652 (2010)

12·î14Æü(¿å)16»þ¡¡Ã´Åö¡§ÆâÆ£¡¡Î¼À¸ †

Band Bending in Conjugated Polymer Layers

Ilja lange, et al.;Phys. Rev. Lette. 106 216402 (2011)

12·î7Æü(¿å)16»þ¡¡Ã´Åö¡§¥­¥à¡¡¥Ò¥ç¥ó¥¸¥å¥ó †

Role of chemical reactions of arylamine hole transport materials in operational degradation of organic light-emitting diodes

Denis Y. Kondakov , et al.;J. appl. phys. 104 084520 (2008)

10·î26Æü(¿å)16»þ¡¡Ã´Åö¡§µÜÆâ¡¡ÂóÌé †

Photoemission of Holes from Metals into Anthracene

R. Williams , et al.;J. Chem. Phys. 46 6 (1967)

10·î12Æü(¿å)16»þ¡¡Ã´Åö¡§±º¾å¡¡Íµ´õ †

Organic-Organic Heteroepitaxy of Semiconductor Crystals:a-Quatethiophene on Rubrene

M. Campione , et al.;Chem. Mater. 21 4859-4867 (2009)

10·î5Æü(¿å)16»þ¡¡Ã´Åö¡§Âçß·¡¡Í´²ð †

Orientation-dependent ionization energies and interface dipoles in orderd molecular assemblies

S. duhm , et al.; nature materials 7 4 326-332 2008

7·î6Æü(¿å)16»þ¡¡Ã´Åö¡§º´Æ£¡¡Í§ºÈ [#me7b4403] †

Photoelectric Emission and Contact Charging of Some Synthetic High Polymers

Y. Murata,et al., Jap. J. Appl. Phys. 18 2 1979

Contact Charging and Photoemission of Anthracene Single Clystal

Y. Murata, Jap. J. Appl. Phys. 18 1 1979

6·î15Æü(¿å)16»þ¡¡Ã´Åö¡§»³²¼¡¡¹ä †

Concerted Emission and Local Potentiometry of Light-Emitting Electrochemical Cells

Deanna Rodovsky , et al.; acs nano 4 5 2673 2010

5·î11Æü(¿å)16»þ¡¡Ã´Åö¡§Md. Mijanur Rahman †

Carrier Mobility of organic semiconductors based on current-voltage characteristice

Z. B. Wang, et al.; J. Appl. Phys. 107 034506 2010

4·î27Æü(¿å)16»þ¡¡Ã´Åö¡§»³ÅÄ¡¡ÂÀµª †

Surface Potential Mapping of SAM-Ffunctionalized Organic Semiconductors by Kelvin Probe Force Microscopy

David J. Ellison , et al.; Adv. Mater.. B 23 502 2011

4·î20Æü(¿å)16»þ¡¡Ã´Åö¡§ÅÄÃæ¡¡Í­Ìï †

Transient photoconductivity in polymer bulk heterojunction solar cells: Competition between sweep-out andd recombination

Sarah R. Cowan , et al.; Phys. Rev. B 83 035205-1 2011

4·î13Æü(¿å)16»þ¡¡Ã´Åö¡§Ä®ÅÄ¡¡¿¿°ì †

Reversible Bound Formation in a Gold-Atom-Organic-Molecule Complex as a molecular Switch

Fabian Moha , et al.; Phys. Rev. Lett. 105 266102-41 2010

2·î02Æü(¿å)16»þ¡¡Ã´Åö¡§Md. Mijanur Rahman †

Molecular Semiconductors in Organic Photovoltaic Cells

Alexander W, Hains , et al.; Chem. Rev.. xx xxxx xxxx

1·î19Æü(¿å)16»þ¡¡Ã´Åö¡§Åļ¡¡½Ù¸÷ †

Studied of degradation mechanism of organic light-emitting diodes based on tris(8-quinolinolate9 aluminum Alq and 2-tert-butyl-9,10,-di(2-naphthyl)anthracene TBADN

Viktor V. Jarikov , et al.; J. App. Phys. 105 034905-1 2009

1·î12Æü(¿å)16»þ¡¡Ã´Åö¡§»³²¼¡¡¹ä †

Improvement of Electroluminecence Performance of Organic Lighrt Emitting Diodes with a Liquid Emitting Layer by Introduction of Electrolyte and a Hole-bloking layer

Shuzo Hirata , et al.; adv. mater 5 1 2011

£²£°£±£°Ç¯ †

12·î15Æü(¿å)16»þ¡¡Ã´Åö¡§»³ËÜ¡¡¿¿¿Í †

Simultamepus Deposition of Metallic Bundles of Single-walled Carbon Nanotube Using Ac-dielectrophoresis

R. Krupke , et al.; NANO LETTERS , 3 1019-1023 2003

12·î01Æü(¿å)16»þ¡¡Ã´Åö¡§µÜºê¡¡¹ÔÀµ †

Singel carrier deviced with electrical deped layers for the characterization of charge-carrier transport in organic thin-films

Matthias Cchober , et al.; App. Phys. Lett. , 97 013303-1 2010

11·î24Æü(¿å)16»þ¡¡Ã´Åö¡§»³ÅÄ¡¡ÂÀµª †

Ion Gel-gated Polymer Thin-Film Transistors:Operating Mechanism and Charactarization of Gate Dilect Capatitance, Switing Speed, and Stability

Jiyoul Lee , et al.; J. Phys. Chemi. C , 113 8972-8981 2009

10·î27Æü(¿å)16»þ¡¡Ã´Åö¡§¾®Àî¡¡¾°µª †

Electron transport in rubrene single-crystal transistors

Satria Zulkarnaen Bisri , et al.; APPLYDE PHYSICS LETTERS , 96 183304 2010

10·î13Æü(¿å)16»þ¡¡Ã´Åö¡§ÅÄÃæ¡¡Í­Ìï †

Interface trap level in top-contact pentacene thin-film transistors evaluated by displacement current measurement

S. Suzuki , et al.; Organic Electronics , 11 (2010) 594-598

10·î6Æü(¿å)16»þ¡¡Ã´Åö¡§Ä®ÅÄ¡¡¿¿°ì †

Charge Transport in Organic Crystals: Role of Disorder and Topological Connectivity

T. Vehoff , et al.; J. AM. CHEM. SOC. , 132 (2010) 11702-11708

7·î14Æü(¿å)16»þ¡¡Ã´Åö¡§Åļ¡¡½Ù¸÷ †

Deep-Level Optical Spectroscopy Investigation of Degradation Phenomena inTris(8-hydroxyquinoline) Aluminum-Based Organic Light-Emitting Diodes

Y. Nakano'''; Applied Physics Express , 2 (2009) 092103

6·î23Æü(¿å)16»þ¡¡Ã´Åö¡§»³²¼¡¡¹ä †

Organic light-emitting diode with liquid emitting layer

D. Xu and C. Adachi , et al.; APPLIED PHYSICS LETTERS , 95 (2009) 053304

6·î16Æü(¿å)16»þ¡¡Ã´Åö¡§»³ËÜ¡¡¿¿¿Í †

Controlled fabrication of nanogaps in ambient environment for molecular electronics

Strachan , et al.; APPLIED PHYSICS LETTERS , 86 (2005) 043109

6·î9Æü(¿å)16»þ¡¡Ã´Åö¡§¶â¾ë¡¡Âó³¤ †

Surface morphologies of anthracene single crystals grown from vapor phase

S. jo , et al.; Applied Surface Science , 252 (2006) 3514-3519

6·î2Æü(¿å)16»þ¡¡Ã´Åö¡§¾®Àî¡¡¾°µ­ †

Nucleation on the substrate surfaces during liquid flux-mediated vacuum deposition of rubrene

t. Shimada , et al.; Journal of Crystal Growth , 311 (2008) 163-166

5·î19Æü(¿å)16»þ¡¡Ã´Åö¡§»³ÅÄ¡¡ÂÀµª †

Comparison of the Mobility-Carrier Density Relation in Polymer and Single-Crystal Organic Transistors Employing Vacuum and Liquid Gate Dielectrics

C. D. Frisbie , et al.; ADVANCED MATERIALS , 21 (2009) 2174-2179

5·î10Æü(¿å)16»þ¡¡Ã´Åö¡§µÜºê¡¡¹ÔÀµ †

Investigation of defects in organic semiconductors by change based Deep Level Transient Spectroscopy (Q-DLTS)

T. P. Nguyen , et al.; Phys. Status Solidi C , 6 (2009) No. 8

4·î28Æü(¿å)16»þ¡¡Ã´Åö¡§Ä®ÅÄ¡¡¿¿°ì †

Sub-Å Resolution Electron Density Analysis of the Surface of Organic Rubrene Crystals

Y ,Wakabayashi et al.; PHYSICAL REVIEW LETTERS , 104 066103(2010)

4·î14Æü(¿å)16»þ¡¡Ã´Åö¡§ÅÄÃæ¡¡Í­Ìï †

Simultaneous Measurements of Drain-source Current and Carrier Injection Properties of Top-Contact Pentacene Thin-Film Transistors

Y. Majima , et al.; Japanese Journal of Applied Physics , 46 (2007) No. 1

1·î6Æü(¿å)16»þ¡¡Ã´Åö¡§¾®Àî¡¡¾°µ­ †

Time-of-Fright Measurement of Lateral Carrier Mobility in Organic Thin Films

M. Kitamura , et al.; Japanese Journal of Applied Physics , 43 (2004) No. 4B

£²£°£°£¹Ç¯ †

12·î16Æü(¿å)16»þ¡¡Ã´Åö¡§»³ÅÄ¡¡ÂÀµª †

High-performance organic field-effect transistors with binary ionic liquids

S. Ono , et al.; Organic Electronics , 10 (2009) 1579-1582

12·î9Æü(¿å)16»þ¡¡Ã´Åö¡§¾åÅÄ¡¡ÆÆ»Ë †

Modeling Disorder in the Crystal Structure of the ¦Á Polymorph of Alq3

M. Rajeswaran , et al.; Chemical Crystallography , (2009) 1-6

11·î25Æü(¿å)16»þ¡¡Ã´Åö¡§µÜºê¡¡¹ÔÀµ †

Correlation of lifetime and recombination zone in green phosphorescent organic light-emitting diodes

K.S. Yook , et al.; APPLIED PHYSICS LETTERS , 94 (2009) 093501

11·î11Æü(¿å)16»þ¡¡Ã´Åö¡§¾®Àî¡¡¾°µ­ †

Non-destructive probing of the anisotropy of field-effect mobility in the rubrene single crystal

M.-M. Ling , et al.; Synthetic Metals , 157 (2007) 257-260

11·î4Æü(¿å)16»þ¡¡Ã´Åö¡§Íû¡¡¸ù°Î †

Charge trapping in organic transistor memories:On the role of electrons and holes

M. Debucquoy , et al.; Organic Electronics , 10 (2009) 1252-1258

10·î7Æü(¿å)16»þ¡¡Ã´Åö¡§ÅÄÃæ¡¡Í­Ìï †

Hole trap related hysteresis in pentacene field-effect transistors

C. Ucurum , et al.; APPLIED PHYSICS , 104 (2008) 084501

7·î29Æü(¿å)16»þ¡¡Ã´Åö¡§Ä®ÅÄ¡¡¿¿°ì †

Determination of spin injection and transport in a ferromagnet/organic semiconductor heterojunction by two-photon photoemission

M. Cinchetti , et al.; nature materials , 8 (2009) 115

7·î16Æü(¿å)16»þ¡¡Ã´Åö¡§½®±Û¡¡Î¼Çî †

High-Performance Organic Single-Crystal Transistors on Flexible Substrates

A. Briseno , et al.; Advanced materials , 18 (2006) 2320

7·î1Æü(¿å)16»þ¡¡Ã´Åö¡§»³ÅÄ¡¡ÂÀµª †

A comparative study of organic single-crystal transistors gated with various ionic-liquid electrolytes

S. Ono , et al.; APPLIED PHYSICS LETTERS , 94 (2009) 063301

6·î24Æü(¿å)16»þ¡¡Ã´Åö¡§µÜºê¡¡¹ÔÀµ †

Photoinduced reduction and pattern preservation of giant surface potential on tris(8-hydroxyquinolinato) aluminum(??¡¡thin films

K. Ozaka , et al.; APPLIED PHYSICS LETTERS , 93 (2008) 263304

6·î10Æü(¿å)16»þ¡¡Ã´Åö¡§µ×ÊÝ¡¡ÂîÌé †

Organic Field-Effect Transistors

G. Horowitz , et al.; Advanced materials , 10 (1998) No.5.

6·î3Æü(¿å)16»þ¡¡Ã´Åö¡§Íû¡¡¸ù°Î †

Organic Non-Volatile Memory Based on Pentacene Field-Effect Transistors Using a Polymeric Gate Electret

K-J Baeg , et al.; Advanced materials , 18 (2006) 3179-3183.

5·î20Æü(¿å)16»þ¡¡Ã´Åö¡§¾®Àî¡¡¾°µ­ †

Analysis of time-of-flight transient photocurrent in organic semiconductors with coplanar-blocking-electrodes configuration

T. Yoshikawa , et al.; Thin Solid Films , 516 (2008) 2595-2599.

4·î22Æü(¿å)16»þ¡¡Ã´Åö¡§ÅÄÃæ¡¡Í­Ìï †

Charge injection process in organic field-effect transistors

T. Minari , et al.; APPLIED PHYSICS LETTERS , 91 (2007) 053508.

1·î22Æü(ÌÚ)13»þ¡¡Ã´Åö¡§Ä®ÅÄ¡¡¿¿°ì †

Band alignment at metal/organic and metal/oxide/organic interfaces

M. G. Helander , et al.; APPLIED PHYSICS LETTERS , 93 (2008) 193310.

1·î15Æü(ÌÚ)13»þ¡¡Ã´Åö¡§½®±Û¡¡Î¼Çî †

Electronic functionalization of solid-to-liquid interfaces between organic semiconductors and ionic liquids:Realization of very high performance organic single-crystal transistors

T. Uemura , et al.; APPLIED PHYSICS LETTERS , 93 (2008) 263305.

£²£°£°£¸Ç¯ †

12·î11Æü(ÌÚ)14»þ¡¡Ã´Åö¡§µÜºê¡¡¹ÔÀµ †

Trap levels in tris(8-hydroxyquinoline)aluminum studied by deep-level optical spectroscopy

Yoshitaka Nakano , et al.; APPLIED PHYSICS LETTERS , 88 (2006) 252104.

11·î13Æü(ÌÚ)13»þ¡¡Ã´Åö¡§¾®Àî¡¡¾°µ­ †

Bulk electrical properties of rubrene single crystals:Measurements and analysis

D.Braga , et al.; PHYSICAL REVIEW B , 77 (2008) 115205.

11·î6Æü(ÌÚ)13»þ¡¡Ã´Åö¡§Íû¡¡¸ù°Î †

Electrical Bistability of Organic Thin-Film Device Using Ag Electrode

Masaya TERAI , et al.; Japanese Journal of Applied Physics , 45 (2006) No.4B pp.3754-3757.

10·î16Æü(ÌÚ)13»þ¡¡Ã´Åö¡§ÅÄÃæ¡¡Í­Ìï †

Impedance spectroscopy on organic bulk-heterojunction solar cells

M. Glatthaar* , et al.; phys. stat. sol. , 11 (2005) R125–R127.

10·î2Æü(ÌÚ)13»þ¡¡Ã´Åö¡§Ä®ÅÄ¡¡¿¿°ì †

Large impurity effects in rubrene crystals :First-principles calculations

L. Tsetseris , et al.; PHYSICAL REVIEW B , 78 (2008) 115205.

7·î28Æü(ÌÚ)13»þ¡¡Ã´Åö¡§½®±Û¡¡Î¼Çî †

Patterning organic single-crystal transistor arrays

Alejandro L.Briseno , et al.; Nature , 14 (2006) 444.

7·î10Æü(ÌÚ)13»þ¡¡Ã´Åö¡§º´Æ£¡¡Ä¾¼ù †

Effects of process parameters on trap distributions in organic semiconductors

A. Hepp , et al.; Synthetic Metals , 138 (2003) 201-207.

6·î26Æü(ÌÚ)13»þ¡¡Ã´Åö¡§µÜºê ¹ÔÀµ †

Carrier Injection Characteristics of Organic Electroluminescent Devices

Shun EGUSA , et al.; Jpn. J. Appl. Phys. , 33 (1994) 2741-2745.

6·î19Æü(ÌÚ)13»þ¡¡Ã´Åö¡§µ×ÊÝ¡¡ÂîÌé †

Formation of the Interfacial Dipole at Organic-Organic Interfaces:C60/Polymer Interfaces

Wojciech Osikowicz , et al.; ADVANCED MATERIALS, 19 (2007) 4213-4217.

6·î5Æü(ÌÚ)13»þ¡¡Ã´Åö¡§¾®Àî ¾°µ­ †

Physical vapor growth of organic semiconductors

R.A.Laudise , et al.; Crystal Growth, 187 (1998) 449-454.

5·î29Æü(ÌÚ)13»þ¡¡Ã´Åö¡§ÅÄÃæ Í­Ìï †

Potential barriers to electron carriers in C60 field-effect transistors

Atsushi Konishi , et al.; APPLIED PHYSICS LETTERS, 92 (2008) 173302.

5·î8Æü(ÌÚ)13»þ¡¡Ã´Åö¡§º´Æ£ ľ¼ù †

Electroluminescence of organic light-emitting diodes with an ultra-thin layer of dopant

Weizhi Li , et al.; Materials Science and Engineering B , 149 (2008) 77.

5·î1Æü(ÌÚ)13»þ¡¡Ã´Åö¡§½®±Û μÇî †

Space charge limited transport and time of flight measurements in tetracene single crystals:A comparative study

R.W.I.de Boer , et al.; JOURNAL OF APPLIED PHYSICS , 95 (2004) 3.

4·î24Æü(ÌÚ)13»þ¡¡Ã´Åö¡§ÅÄÃæ Í­Ìï †

Two-step exciton dissociation in poly(3-hexylthiophene)/fullerene heterojunctions

Matthew T. Lloyd , et al.; APPLIED PHYSICS LETTERS , 92 (2008) 143308.

4·î10Æü(ÌÚ)13»þ¡¡Ã´Åö¡§Ä®ÅÄ ¿¿°ì †

Quantitative analysis of electronic transport through weakly coupled metal/organic interfaces

A.S.Molinari, et al.; APPLIED PHYSICS LETTERS, 92 (2008) 133303.

3·î13Æü(ÌÚ)13»þ¡¡Ã´Åö¡§½®±Û μÇî †

High Current Density in Light-Emitting Transistors of Organic Single Crystals

Taishi Takenobu , et al.; PHYSICAL REVIEW LETTERS , 100 (2008) 066601.

3·î6Æü(ÌÚ)13»þ¡¡Ã´Åö¡§º´Æ£ ľ¼ù †

Spatial control of the recombination zone in an ambipolar light-emitting organic transistor

Jana Zaumseil , et al.; Nature materials, 5 (2006) 69.

2·î28Æü(ÌÚ)13»þ¡¡Ã´Åö¡§ÅÄÃæ Í­Ìï †

Depletion layer studies in organic films: Low frequency capacitance measurements in polycrystalline tetracene

Allen J. Twarowski , et al.; Journal of chemical Physics, 70 (1979) 05.

2·î21Æü(ÌÚ)13»þ¡¡Ã´Åö¡§Ä®ÅÄ ¿¿°ì †

Role of synthesis for oxygen defect incorporation in crystalline rubrene

Oleg Mitrofanov, et al.; Journal of Applied Physics, 91 (2007) 212106.

1·î10Æü(ÌÚ)13»þ¡¡Ã´Åö¡§½®±Û μÇî †

Thermal and Morphological Effects on the Hydrolytic Stability of Aluminum Tris(8-hydroxyquinoline) (Alq3)

Keith A. Higginson, et al.; Chem.Mater, 10 (1998) 1017-1020.

£²£°£°£·Ç¯ †

12·î20Æü(ÌÚ)13»þ¡¡Ã´Åö¡§º´Æ£ ľ¼ù †

Degradation mechanisms in organic light-emitting devices : Metal migration model versus unstable tris(8-hydroxyquinoline) aluminum cationic model

Yichun Luo, et al.; Journal of Applied Physics, 101 (2007) 034510.

11·î29Æü(ÌÚ)13»þ¡¡Ã´Åö¡§ÅÄÃæ Í­Ìï †

Photocarrier generation in organic thin-film solar cells with an organic heterojunction

T. Osasa, et al.; Solar Energy Materials & Solar Cells, 90 (2006) 1519–1526.

11·î22Æü(ÌÚ)13»þ¡¡Ã´Åö¡§Ä®ÅÄ ¿¿°ì †

Conformation degree and molecular orientation in rubrene film by in situ Xray absorption spectroscopy

L. Wang, et al.; Journal of Applied Physics, 102 (2007) 063504.

11·î8Æü(ÌÚ)13»þ¡¡Ã´Åö¡§½®±Û μÇî †

Bulk crystals of tetracene grown by the vapor-Bridgeman technique

J. Niemax and J. Pflaum; Applied Physics Letters, 87 (2005) 241921.

11·î5Æü(·î)17»þ¡¡Ã´Åö¡§º´Æ£ ľ¼ù †

High-efficiency tandem organic light-emitting diodes

L. S. Liao, et al.; Applied Physics Letters, 84 (2004) 167-169.

10·î29Æü(·î)17»þ¡¡Ã´Åö¡§ÅÄÃæ Í­Ìï †

Influence of codeposition on the performance of CuPc?-C60 heterojunction photovoltaic devices

P. Sullivan, et al.; Applied Physics Letters, 84 (2004) 1210-1212.

10·î18Æü(ÌÚ)13»þ¡¡Ã´Åö¡§Ìî¸ý ͵ †

Growth and Electronic Transport in 9,10-Diphenylanthracene Single Crystals -- An Organic Semiconductor of High Electron an Hole Mobility

A. K. Kumar, et al.; Advanced Materials, 19 (2007) 2097-2101.

Electronic properties of organic semiconductor blends: Ambipolar mixtures of phthalocyanine and fullerene

A. Opitz, et al.; Applied Physics Letters, 90 (2007) 212112.

10·î4Æü(ÌÚ)13»þ¡¡Ã´Åö¡§Ä®ÅÄ ¿¿°ì †

Photoemission study of the electronic properties of in situ prepared copper phthalocyanine (CuPc?) thin films exposed to oxygen and hydrogen

J. Szuber and L. Grzadziel; Thin Solid Films, 391 (2001) 282-287.

9·î27Æü(ÌÚ)13»þ¡¡Ã´Åö¡§½®±Û μÇî †

Growth of high quality anthracene crystals by a simple solution technique

G. Madhurambal and P. A. Srinivasan; Crystal Research and Technology, 41 (2006) 231-235.

8·î9Æü(ÌÚ)13»þ¡¡Ã´Åö¡§Ã滳 ÂÙÀ¸ †

Atomic-Scale Coupling of Photons to Single-Molecule Junctions

S. W. Wu, et al.; Science (AAAS), 312 (2006) 1362-1365.

¥Æ¥­¥¹¥ÈÎØ¹Ö †

£²£°£±£³Ç¯ †

Nobuo Ueno, Satoshi Kera "Electron spectroscopy of functional organic thin films: Deep insights into valence electronic structure in relation to charge transport property" (Surface Science, 2008) [ÅÅ»Òʬ¸÷¥°¥ë¡¼¥×]

°ÂãÀéÇÈÌð "Í­µ¡È¾Æ³ÂΤΥǥХ¤¥¹ÊªÀ­" (¹ÖÃ̼Ò, 2012) [¥Ç¥Ð¥¤¥¹¥°¥ë¡¼¥×]

º½Àî½Å¿® "ÍýÏÀÅż§µ¤³Ø" (µª°Ë¹ñ²°½ñŹ¡¤2011) [ñʬ»Ò¥°¥ë¡¼¥×]

»°¹¥Ã¶Ï»¤Û¤«¡¤"¥Ê¥Î¥¨¥ì¥¯¥È¥í¥Ë¥¯¥¹¤Î´ðÁÃ" (ÇÝÉ÷´Û¡¤2007) [ñʬ»Ò¥°¥ë¡¼¥×]

M. A. Nielsen and I. L. Chuang "Quantum Computation and Quantum Information" (Cambridge University Press, 2012) [Ìî¸ý½õ¶µ¡¤»³ËÜ¡Ê¿¿¿Í¡Ë¡¤¸ÅÊÝ]

¸¶ÅÄ·®¡¤¿ù»³ÃéÃË "ÎÌ»ÒÎϳحµ" (¹ÖÃ̼ҡ¤2011) [¸ÅÊÝ¡¤Henrik(J-PACα³ØÀ¸)¡¤ÅÚ¼ê]

J. J. Sakurai "Modern Quantum Mechanics" (Addison Wesley, 1994) [¸ÅÊÝ¡¤¹õÅÄ(Kruger¸¦)¡¤ÅÚ¼ê]

¹â¶¶¡¡À¶ "ȾƳÂι©³Ø" (¿¹Ë̽ÐÈdzô¼°²ñ¼Ò¡¤2010) [¥¤¥à¡¤¸ÅÊÝ]

£²£°£±£²Ç¯ †

M. A. Nielsen and I. L. Chuang, "Quantum Computation and Quantum Information" (Cambridge University Press, 2012) [Ìî¸ý½õ¶µ¡¤»³ËÜ¡Ê¿¿¿Í¡Ë¡¤¸ÅÊÝ]

°ÂãÀéÇÈÌð¡¤"Í­µ¡È¾Æ³ÂΤΥǥХ¤¥¹ÊªÀ­" (¹ÖÃ̼Ò,2012) [¸ÅÊÝ¡¤ÌîÀª¡¤¾®ÅÄ¡¤¹¾ß·¡¤Henrik(J-PACα³ØÀ¸)]

¸¶ÅÄ·®¡¤¿ù»³ÃéÃË¡¤"ÎÌ»ÒÎϳحµ" (¹ÖÃ̼ҡ¤2011) [¸ÅÊÝ¡¤Henrik(J-PACα³ØÀ¸)]

£²£°£°£¸Ç¯ †

M. Schwoerer and H. C. Wolf, "Organic Molecular Solids" (Wiley-VCH, Weinheim, 2007) [¸¦µæ¼¼Á´ÂÎ]

M. Pope and C. E. Swenberg, "Photoemission from organic molecular crystals" from "Electronic Processes in Organic Crystals and Polymers" 2nd. ed. (Oxford University Press, Oxford, 1999) [ÅÅ»Òʬ¸÷¥°¥ë¡¼¥×]