about
High-mobility solution-processed copper phthalocyanine-based organic field-effect transistorsControl of charge transport in a semiconducting copolymer by solvent-induced long-range order.Tuning the polarity of charge carriers using electron deficient thiophenes.A thin-film microprocessor with inkjet print-programmable memory.Hydrogen-bonded organic semiconductor micro- and nanocrystals: from colloidal syntheses to (opto-)electronic devices.Carbon Nanotube Flexible and Stretchable ElectronicsControlling electronic effects and intermolecular packing in contorted polyaromatic hydrocarbons (c-PAHs): towards high mobility field effect transistors.Photo-reactive charge trapping memory based on lanthanide complex.Self-aligned, full solution process polymer field-effect transistor on flexible substratesSolution-Processed Donor-Acceptor Polymer Nanowire Network Semiconductors For High-Performance Field-Effect TransistorsIndacenodibenzothiophenes: synthesis, optoelectronic properties and materials applications of molecules with strong antiaromatic character.Charge transport in nanoscale vertical organic semiconductor pillar devices.Simultaneous Improvement of Hole and Electron Injection in Organic Field-effect Transistors by Conjugated Polymer-wrapped Carbon Nanotube Interlayers.Electronic conduction in polymers, carbon nanotubes and graphene.Charge injection in solution-processed organic field-effect transistors: physics, models and characterization methods.Colloids in Flatland: a perspective on 2D phase-separated systems, characterisation methods, and lineactant design.Near-infrared phosphorescence: materials and applications.Electric-double-layer field-effect transistors with ionic liquids.Toward printed integrated circuits based on unipolar or ambipolar polymer semiconductors.25th anniversary article: progress in chemistry and applications of functional indigos for organic electronics.25th anniversary article: microstructure dependent bias stability of organic transistors.Advances in star-shaped π-conjugated systems: properties and applications.Versatile organic transistors by solution processing.Mechanisms, Capabilities, and Applications of High-Resolution Electrohydrodynamic Jet Printing.H-bonding directed programmed supramolecular assembly of naphthalene-diimide (NDI) derivatives.Silk Fibroin for Flexible Electronic Devices.Recent Progress in the Development of Printed Thin-Film Transistors and Circuits with High-Resolution Printing Technology.Self-Assembled Monolayers as Patterning Tool for Organic Electronic Devices.Naphthobischalcogenadiazole Conjugated Polymers: Emerging Materials for Organic Electronics.Rodlike Tetracene Derivatives.Recent progress of core-substituted naphthalenediimides: highlights from 2010.Quantum tunnelling and charge accumulation in organic ferroelectric memory diodesParylene C as a versatile dielectric material for organic field-effect transistors.Fabrication of InGaN thin-film transistors using pulsed sputtering deposition.Electrospun Polymer Fibers for Electronic ApplicationsEvaluation of intrinsic charge carrier transport at insulator-semiconductor interfaces probed by a non-contact microwave-based technique.Charge carrier mobility and electronic properties of Al(Op)3: impact of excimer formation.Tailoring the Dielectric Layer Structure for Enhanced Performance of Organic Field-Effect Transistors: The Use of a Sandwiched Polar Dielectric Layer.Energy-level alignment at interfaces between manganese phthalocyanine and C60.Charge carrier mobility in thin films of organic semiconductors by the gated van der Pauw method.
P2860
Q28822409-A83FDD04-76F3-4A8A-97FC-E3A37090C719Q30446266-C1DE2585-1A51-4B83-90EC-6ABD85CB7AA0Q33782623-EBB4ED1B-70F5-4D74-8540-C71BDD818536Q34664990-DBBBFD78-4306-44C7-A9C6-0ED222200FB7Q34778292-78302A20-7453-4636-A650-251795A65E57Q35938232-4A9BBDB9-6005-4C65-AD70-420BE28C21D7Q36020438-B3D12B57-51A4-4793-A56B-F369625A6EBDQ36139399-71993B0B-E181-49CC-8506-B5202D7434BBQ36206206-43A79CC8-BE80-4205-AFFC-89D53EF24D7AQ36810106-95C77511-6047-466D-9FB7-8517378696F7Q37551467-3012FE0F-C067-47BC-921D-CD04827590DFQ37602066-5B091937-3B5C-495E-ADF5-87935C3EA3AEQ37734468-7A027A7E-7D53-4815-A759-43421330F2A6Q37853883-2EFF9205-5FEB-4A0F-9320-D63AFE1707FEQ37987059-A5D61495-F605-4913-9816-D506E797A651Q38068086-2F75F814-0177-4333-B051-2B0C3A203856Q38104999-EF246135-10F7-474F-89D0-07BAFE830CC2Q38105885-DC0F0984-A062-49E8-9EC6-C9F3A4C31E74Q38114006-E7DFAEAC-3D09-4681-8323-092EE23C7DF1Q38154862-2BE721A7-C060-4C4D-B560-C1C727A54F23Q38200046-ECC156C3-59D4-4FF9-9BE3-9688AFB35317Q38202078-D1B1C59E-99DE-4B6F-A93D-217274367639Q38372187-CC047578-7D6F-4C5B-A82E-D652B3C9D5B5Q38540156-1BED5BEB-E978-4DEE-A981-01C28ECA7DDFQ38813707-73F38FF1-57C1-4F6D-842B-3908B8387A8DQ38930344-01AFBC70-1E6A-40FE-99FA-FC2A90E828E5Q39021920-24BEFEA2-3AA8-4257-90F8-FBDA908D0B5EQ39119241-3C3489DE-5A32-49A9-9075-8DE10490CC72Q39152638-00EE94C6-1F3F-4713-8913-E735163626C7Q39410624-B58316AD-8C80-428A-934E-C2A2B9EB8CE0Q39588404-31AC3B32-A569-42A4-B10D-CF7426CC0DBBQ41089678-EE433B64-7740-4F2B-A577-10ADFAC5A8A6Q41334850-98486359-5842-4D6D-937F-68576F87BD64Q41811980-FEAA6BFC-12B8-4854-8D6A-C26C0D867982Q41826387-0FB3D76B-41B9-4E64-8619-6EF32B613ED0Q42068140-41D6D725-AFA9-4DF1-8F51-9EBC12274195Q42197885-1FB32C31-9888-4510-861E-756A9894D526Q42225494-02C7A728-6493-452E-809C-8126CF09B397Q42264150-55F06DE7-C1DA-4C39-9F97-5A78067F6BF0Q42291214-718DE101-F127-4C4F-831C-FFEF4DC3B82E
P2860
description
article científic
@ca
article scientifique
@fr
articolo scientifico
@it
artigo científico
@pt
bilimsel makale
@tr
scientific article published on 16 April 2010
@en
vedecký článok
@sk
vetenskaplig artikel
@sv
videnskabelig artikel
@da
vědecký článek
@cs
name
Organic thin-film transistors.
@en
Organic thin-film transistors.
@nl
type
label
Organic thin-film transistors.
@en
Organic thin-film transistors.
@nl
prefLabel
Organic thin-film transistors.
@en
Organic thin-film transistors.
@nl
P356
P1476
Organic thin-film transistors.
@en
P2093
Hagen Klauk
P304
P356
10.1039/B909902F
P577
2010-04-16T00:00:00Z