about
Self-organization of nano-lines and dots triggered by a local mechanical stimulus.Single molecule magnets: from thin films to nano-patterns.Molecular scale energy dissipation in oligothiophene monolayers measured by dynamic force microscopy.Patterning pentacene surfaces by local oxidation nanolithography.Kinetic characterization of amyloid-beta 1-42 aggregation with a multimethodological approach.Multiscale morphology of organic semiconductor thin films controls the adhesion and viability of human neural cells.Customizing properties of β-chitin in squid pen (gladius) by chemical treatments.Experimental investigation of the contact mechanics of rough fractal surfaces.Applications of dewetting in micro and nanotechnology.Micro- and nanopatterning by lithographically controlled wetting.Selective growth of α-sexithiophene by using silicon oxides patterns.Extracellular electrical recording of pH-triggered bursts in C6 glioma cell populations.Self-assembled monolayers in organic electronics.Electric Field Effects on Short Fibrils of Aβ Amyloid Peptides.Structure-activity relationship of acridine derivatives to amyloid aggregation of lysozyme.Surface nanostructures in manganite films.In situ nanomechanical characterization of the early stages of swelling and degradation of a biodegradable polymer.Neural cell alignment by patterning gradients of the extracellular matrix protein laminin.High-performance single crystal organic field-effect transistors based on two dithiophene-tetrathiafulvalene (DT-TTF) polymorphs.The effect of mechanical interlocking on crystal packing: predictions and testing.Supramolecular organization of alpha,alpha'-disubstituted sexithiophenes.The contact mechanics of fractal surfaces.Organic ultra-thin film transistors with a liquid gate for extracellular stimulation and recording of electric activity of stem cell-derived neuronal networks.DNA adsorption measured with ultra-thin film organic field effect transistors.Monolayer control of discotic liquid crystal by electromigration of dewetted layers in thin film devices.Electrical release of dopamine and levodopa mediated by amphiphilic β-cyclodextrins immobilized on polycrystalline gold.Quantitative analysis of scanning tunneling microscopy images of mixed-ligand-functionalized nanoparticles.Field-effect transistors based on self-organized molecular nanostripes.High-resolution mapping of the electrostatic potential in organic thin-film transistors by phase electrostatic force microscopy.Specific Dopamine Sensing Based on Short-Term Plasticity Behavior of a Whole Organic Artificial Synapse.Nanotechnology for forensic sciences: analysis of PDMS replica of the case head of spent cartridges by optical microscopy, SEM and AFM for the ballistic identification of individual characteristic features of firearms.Layered distribution of charge carriers in organic thin film transistors.Field effect transistors with organic semiconductor layers assembled from aqueous colloidal nanocomposites.A nanoporous molecular magnet with reversible solvent-induced mechanical and magnetic properties.Self-organization of rotaxane thin films into spatially correlated nanostructures: morphological and structural aspects.Parallel-local anodic oxidation of silicon surfaces by soft stamps.Flattening mountains: micro-fabrication of planar replicas for bullet lateral striae analysisElectrocardiographic recording with conformable organic electrochemical transistor fabricated on resorbable bioscaffoldSelf-assembly of mono- and bidentate oligoarylene thiols onto polycrystalline AuMolecular reorganization in organic field-effect transistors and its effect on two-dimensional charge transport pathways
P50
Q30478453-808C18E7-A815-4CD2-B3DE-80BAB1968A1DQ33317296-A2EBA7C6-157B-486A-9BBA-343D41708A41Q33508419-31027D1B-2327-4886-BA4F-11CE27C531F8Q33540423-788163AD-B805-415A-802F-DDC57A1EBB28Q33855016-66EC8491-E182-4BD1-8666-DC2AA89F0760Q33908375-D78D8C11-0FEF-4B7D-93D6-E973211243FBQ34780538-9FD4A49D-CDDA-483F-9564-D15841A8F3EFQ35894837-D824EE7F-CF45-4A18-99D8-557A29C13815Q38001553-A25A039F-DC22-45BC-9DB9-4E71B680487DQ38414412-4A287E51-65FA-4A1A-B126-37E65A7D5888Q38661308-CB9C0AA3-1336-4372-B336-1B2C5D3CA5ADQ38724034-854B8F48-1AC4-4C45-8039-6CF32EBA9A29Q38976893-CA133560-120B-4C9C-B7CB-2EA04DEEAA51Q39284409-797A5041-7643-40E6-B3D4-6093A7B36832Q39601151-0EDDA94E-268F-4340-95B2-0064132C7315Q40869796-D5E3B724-988F-40C6-9DBC-FBC2AD849745Q41332659-57F6AD32-9B14-4883-A134-388AEA11B9B2Q41861636-6881D954-640E-4262-B6D0-012277FE6D92Q43011443-0AF14EBA-7EF2-4CB2-A4D8-74D9E6E53AE8Q43848403-F28000B8-6BD8-4B43-BD1F-FDE17B6FB42CQ43883611-57A15CFB-E045-4297-A99B-963C96D08438Q44400180-32B321EE-29CA-41BB-AA05-49D7394D8C2EQ44632253-3C63B579-BE17-4A01-93BB-E53A90BC730EQ46094494-0018BCD2-4744-4982-BD6E-674A42D7F832Q46426464-95D443A5-7429-443D-9D89-6D65D3A8C7B8Q46639796-0ABA1A8B-06FD-4B16-A179-5BAB7CBA9FA2Q46667869-4A900925-5CBE-47C3-B207-E6D6FE36DC57Q46849056-766567E6-218B-437F-B84D-98CA9B576547Q46871873-65C0FB4C-DDAF-4FE8-8F1B-18AD87AAD68FQ47262818-D4A6109B-4954-4AD6-B16F-39B41DE6FEE7Q48558938-B44F9CE5-128C-4E5F-AFEA-07163C6413ACQ49732490-941E41B2-62DE-4B06-B77E-4A8B2F892CBEQ50706291-6C4120CF-1CC6-4617-BBF5-733A0F345F1AQ51684108-83EB5DAD-AB12-4FDB-8C81-7F33CF46B354Q52568169-27ECF578-37AA-45C8-8947-DAD00ACE2306Q53087752-06D4161D-E41D-4F65-9549-5A4F413D4B69Q56971142-1A290CFE-074E-46DB-8DFA-2E039B23C23AQ56973989-A0B02A1D-0945-4607-98D6-8ABA458B09A2Q56977075-E9FB2129-F393-4574-8AA4-D4EE7376BD97Q56979058-336A4D78-2BB1-465E-8144-CE003709D556
P50
description
hulumtues
@sq
onderzoeker
@nl
researcher
@en
հետազոտող
@hy
name
Fabio Biscarini
@ast
Fabio Biscarini
@en
Fabio Biscarini
@es
Fabio Biscarini
@nl
Fabio Biscarini
@sl
type
label
Fabio Biscarini
@ast
Fabio Biscarini
@en
Fabio Biscarini
@es
Fabio Biscarini
@nl
Fabio Biscarini
@sl
prefLabel
Fabio Biscarini
@ast
Fabio Biscarini
@en
Fabio Biscarini
@es
Fabio Biscarini
@nl
Fabio Biscarini
@sl
P1053
I-6814-2012
P106
P1153
56228171600
P21
P31
P496
0000-0001-6648-5803