L
László Forró
Researcher at École Polytechnique Fédérale de Lausanne
Publications - 474
Citations - 26681
László Forró is an academic researcher from École Polytechnique Fédérale de Lausanne. The author has contributed to research in topics: Carbon nanotube & Superconductivity. The author has an hindex of 72, co-authored 467 publications receiving 24083 citations. Previous affiliations of László Forró include University of Notre Dame & École Polytechnique.
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Dye metachromasy on titanate nanowires: sensing humidity with reversible molecular dimerization
TL;DR: In this article, the authors reported on the reversible dimerization of methylene blue (MB) on titanate nanowires and fabricated a humidity sensor using optical fiber technology which is adapted for medical, industrial or environmental applications.
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ESR study of potassium-doped aligned carbon nanotubes.
O. Chauvet,G. Baumgartner,Michel Carrard,Wolfgang Bacsa,Daniel Ugarte,Walt A. de Heer,László Forró +6 more
TL;DR: In this paper, the electron spin resonance (ESR) measurements of opened, potassium-doped, and aligned carbon nanotubes were studied by using the ESR measurements.
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Versatile force–feedback manipulator for nanotechnology applications
Marc Jobin,Raphael Foschia,Sebastien Grange,Charles Baur,Gérard Gremaud,Kyumin Lee,László Forró,Andrzej J. Kulik +7 more
TL;DR: In this article, a force-feedback haptic haptic device and a commercial atomic force microscope are used for nanomanipulation of a carbon nanotube and noncontact manipulation of silicon beads.
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Size dependence of the magnetic response of graphite oxide and graphene flakes – an electron spin resonance study
Luka Ćirić,Andrzej Sienkiewicz,Dejan M. Djokić,Rita Smajda,Arnaud Magrez,Tommy Kaspar,Reinhard Nesper,László Forró +7 more
TL;DR: In this paper, a series of Graphene oxide (GO) samples with three distinct size distributions were prepared by the Brodie method and the electron spin resonance (ESR) technique was employed to investigate the properties of different size distributions.
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In situ viscometry by optical trapping interferometry
TL;DR: In this paper, the authors demonstrate quantitative in situ viscosity measurements by tracking the thermal fluctuations of an optically trapped microsphere subjected to a small oscillatory flow, which displays a characteristic peak at the driving frequency of the flow, when measured in units of the thermal power spectral density at the same frequency.