about
Quantitative characterization of the influence of the nanoscale morphology of nanostructured surfaces on bacterial adhesion and biofilm formationBottom-up engineering of the surface roughness of nanostructured cubic zirconia to control cell adhesion.In Vivo Imaging Study of Angiogenesis in a Channelized Porous Scaffold.Nitric oxide synthase mediates PC12 differentiation induced by the surface topography of nanostructured TiO2.Ex vivo expansion of human circulating myogenic progenitors on cluster-assembled nanostructured TiO2.Biomimetic poly(amidoamine) hydrogels as synthetic materials for cell culture.Comparison between gamma and beta irradiation effects on hydroxypropylmethylcellulose and gelatin hard capsulesSingle particle optical extinction and scattering allows real time quantitative characterization of drug payload and degradation of polymeric nanoparticles.Versatile fabrication of vascularizable scaffolds for large tissue engineering in bioreactor.Adhesion and proliferation of fibroblasts on cluster-assembled nanostructured carbon films: the role of surface morphology.Direct microfabrication of topographical and chemical cues for the guided growth of neural cell networks on polyamidoamine hydrogels.Poly(amido-amine)-based hydrogels with tailored mechanical properties and degradation rates for tissue engineering.Intermittent contact mode AFM investigation of native plasma membrane of Xenopus laevis oocyte.Atomic force microscopy imaging of Xenopus laevis oocyte plasma membrane purified by ultracentrifugation.Nanostructured TiO2 surfaces promote polarized activation of microglia, but not astrocytes, toward a proinflammatory profile.Deep brain stimulation electrode used for radiofrequency lesion of the globus pallidus internus in dystonia.Atomic force microscopy characterization of Xenopus laevis oocyte plasma membrane.Atomic force microscopy imaging of actin cortical cytoskeleton of Xenopus laevis oocyte.Thermodynamic stability of high phosphorus concentration in silicon nanostructures.Three-dimensional hypoxic culture of human mesenchymal stem cells encapsulated in a photocurable, biodegradable polymer hydrogel: a potential injectable cellular product for nucleus pulposus regeneration.Unravelling the nucleation mechanism of bimetallic nanoparticles with composition-tunable core-shell arrangement.Lamellipodial tension, not integrin/ligand binding, is the crucial factor to realise integrin activation and cell migration.Influence of Cumulenic Chains on the Vibrational and Electronic Properties ofsp−sp2Amorphous CarbonCluster-Beam Deposition andin situCharacterization of Carbyne-Rich Carbon FilmsElectronic structure of cluster assembled nanostructured TiO2 by resonant photoemission at the Ti L2,3 edgeNanocrystalline Metal/Carbon Composites Produced by Supersonic Cluster Beam Depositionsp hybridization in free carbon nanoparticles—presence and stability observed by near edge X-ray absorption fine structure spectroscopyIn situ investigation of the first stages of growth of cluster-assembled carbon films by scanning tunnelling microscopyElectronic properties and applications of cluster-assembled carbon filmsA Simple Method for the Synthesis of Silicon Carbide NanorodsFlexible and biocompatible microelectrode arrays fabricated by supersonic cluster beam deposition on SU-8Evidence of Extended Solidlike Layering in [Bmim][NTf2] Ionic Liquid Thin Films at Room-TemperatureIn situgrowth and thermal treatment of nanostructured carbon produced by supersonic cluster beam deposition: An electron spectroscopy investigationThermally induced changes in cluster-assembled carbon nanocluster films observed via photoelectron spectroscopyNanoscale-Induced Formation of Silicide around Gold Nanoparticles Encapsulated in a-Si
P50
Q27319511-DB09DBEE-1922-49EA-9E71-C89254E212A7Q34461832-7CA7AFF6-ED72-4FFA-82ED-277954D8F049Q38707028-1669797C-0475-4C78-9C48-A6335F84AA14Q39080503-62FBE7BD-7992-4C0E-9FF7-6C4CF232DE97Q39713924-E21E18E1-6901-4A71-8500-BE7D4E79F473Q39915665-88953D13-FD6D-4CCA-9F38-FDBBD57674FAQ42564027-2CFECB09-42A0-4788-9742-DE6C789BCD38Q42649709-525C7CBD-BD13-446E-B1BD-3DAEE9026493Q42830584-FBDAE082-D61C-4845-83BA-F0666FBC8619Q42831595-CDD2962C-04AE-4288-B5FC-A6E80F06C3BCQ44933492-D7ECA6C8-3811-4CD0-9901-52D58B1D4F18Q45733852-9CB3C697-7B95-4395-B351-291F31395184Q46002923-7C23CC0E-44D6-4815-9DAD-273EC7AEE470Q46825040-9AC45822-76C4-454F-B6D5-1A552567E1C9Q46990699-0051AA2D-6B3F-4F65-9F9C-764DD8E87F6AQ48459461-C06086F0-3771-4635-9729-AE15CD943698Q50646465-900971B2-CF24-4D84-A44D-D9ADD73F3D7EQ50646662-6BBC0470-BE61-463C-AFB7-73C3EC26C58EQ50869941-694966FD-7BCA-4500-BA40-F3B8826A87F0Q51725922-E1F73317-9958-48A3-9324-C7E405597AE6Q52626413-16353014-CE46-4210-971B-3686F57D778FQ53807314-3B001AC9-F520-4620-A0AA-E228FBB59284Q59197478-35D838D8-B167-4D3E-94A7-9A2264605E4FQ59197521-39EBFE06-163C-42CE-9C25-276A9EF175EEQ59298118-091915F9-C4B8-4A0E-B9A9-D33CD7FE1F09Q59298155-04CEBD68-60C8-4D4C-9ACC-3F93E323696EQ59355078-2C6FA48A-0CFF-4606-B5B4-A445B0EA8CB4Q60182484-7BD9D218-DC7D-420E-9BA7-5DD2542521D4Q60753871-212D83E1-7D56-49F6-804D-08B3A66796CFQ61440943-203A74C6-8D51-419A-A444-C9C62122301CQ62047185-5A400990-6763-4D8E-855B-A6ADBF47DF36Q62047308-8A8A323C-C4F8-4025-AE7E-7C63B1264468Q62047585-7F4B5A9D-B7A6-436E-84C1-0E0D0A3712A8Q62047628-19AFEF04-6D1B-44D8-B240-236F177F13DEQ92493550-A228142A-8CBC-40A3-AF1E-D46417F64B57
P50
description
hulumtuese
@sq
researcher
@en
wetenschapper
@nl
հետազոտող
@hy
name
Cristina Lenardi
@ast
Cristina Lenardi
@en
Cristina Lenardi
@es
Cristina Lenardi
@nl
Cristina Lenardi
@sl
type
label
Cristina Lenardi
@ast
Cristina Lenardi
@en
Cristina Lenardi
@es
Cristina Lenardi
@nl
Cristina Lenardi
@sl
prefLabel
Cristina Lenardi
@ast
Cristina Lenardi
@en
Cristina Lenardi
@es
Cristina Lenardi
@nl
Cristina Lenardi
@sl
P1053
J-5872-2012
P106
P1153
7004651678
P21
P31
P3829
P496
0000-0002-5522-6803