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5 article(s) from Balan, Lavinia

Antimicrobial and mechanical properties of functionalized textile by nanoarchitectured photoinduced Ag@polymer coating

Jessica Plé,
Marine Dabert,
Helene Lecoq,
Sophie Hellé,
Lydie Ploux and
Lavinia Balan

Beilstein J. Nanotechnol. 2023, 14, 95–109, doi:10.3762/bjnano.14.11

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Figure 1: Cotton textile coated with Ag@PEG600DA (a), Ag@PEG600DA/PETIA (1:1) (b) and inserted images of PEG6...

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Figure 2: UV–vis spectroscopy monitoring of 100 µm-thick Ag@PEG600DA (a) and Ag@PEG600DA/PETIA (b) coatings, ...

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Figure 3: Reflectance measurements and corresponding images of Ag@polymer (PEG600DA and PEG600DA/PETIA) funct...

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Figure 4: SEM of the 100 µm-thick Ag@PEG600DA (a) and Ag@PEG600DA/PETIA (b) coatings.

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Figure 5: TEM cross sections of the Ag@PEG600DA (a) and the Ag@PEG600DA/PETIA (b) with the selected area elec...

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Figure 6: Images of flexible Ag@PEG600DA (a) and Ag@PEG600DA/PETIA (b) samples; inserted post-scratch tests.

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Figure 7: Influence of 500 and 1000 abrasion cycles on the surface of an Ag@PEG600DA coating (a) and on the t...

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Figure 8: Influence of 500 and 1000 abrasion cycles on the surface of an Ag@PEG600DA/PETIA coating (1:1) (a) ...

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Figure 9: Rheological characteristics of uncoated textile (a), PEG600DA/PETIA (b) and Ag@PEG600DA/PETIA (3 an...

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Figure 10: Colony forming units (CFU) per mL of suspension calculated from OD_600nm measurements of E. coli (a)...

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Figure 11: Growth inhibition of bacteria (E. coli) for different sample immersion times (a), and for the corre...

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Figure 12: Growth inhibition of fungus (C. albicans) for different sample immersion times (a), and for the cor...

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Figure 13: Plate diffusion test for the observation of growth inhibition zones of E. coli and C. albicans afte...

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Published 12 Jan 2023

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CdSe nanorod/TiO₂ nanoparticle heterojunctions with enhanced solar- and visible-light photocatalytic activity

Fakher Laatar,
Hatem Moussa,
Halima Alem,
Lavinia Balan,
Emilien Girot,
Ghouti Medjahdi,
Hatem Ezzaouia and
Raphaël Schneider

Beilstein J. Nanotechnol. 2017, 8, 2741–2752, doi:10.3762/bjnano.8.273

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Figure 1: TEM images of (a) TiO₂, (b) CdSe nanorods and (c) the CdSe (2 wt %)/TiO₂ composite. (d) HR-TEM imag...

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Figure 2: X-ray diffraction patterns of (a) CdSe and (b) TiO₂ and CdSe/TiO₂ composites with varying CdSe wt %...

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Figure 3: Raman spectra of TiO₂ and CdSe/TiO₂ composites.

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Figure 4: (a) UV–visible absorption spectra of TiO₂ and CdSe/TiO₂ composites, (b) plots of transformed Kubelk...

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Figure 5: High-resolution XPS spectra of the CdSe (2 wt %)/TiO₂ composite: (a) Cd 3d, where Cd 3d_5/2 (blue) a...

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Figure 6: (a) Photocatalytic activity of TiO₂ and CdSe/TiO₂ composites for the degradation of RhB under simul...

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Figure 7: (a) Effect of the catalyst concentration on the photodegradation efficiency (25, 50 or 100 mg of ph...

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Figure 8: Influence of pH on the degradation of rhodamine B using the CdSe (2 wt %)/TiO₂ photocatalyst.

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Figure 9: (a) UV–visible spectral evolution of rhodamine B as a function of irradiation time using the CdSe (...

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Figure 10: Recycling of the CdSe (2 wt %)/TiO₂ catalyst in the degradation of RhB under simulated solar light ...

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Figure 11: Schematic of the charge separation in the CdSe/TiO₂ photocatalyst under (a) solar light and (b) vis...

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Published 19 Dec 2017

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ZnO nanoparticles sensitized by CuInZn_xS₂₊_x quantum dots as highly efficient solar light driven photocatalysts

Florian Donat,
Serge Corbel,
Halima Alem,
Steve Pontvianne,
Lavinia Balan,
Ghouti Medjahdi and
Raphaël Schneider

Beilstein J. Nanotechnol. 2017, 8, 1080–1093, doi:10.3762/bjnano.8.110

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Figure 1: (a) TEM image of ZCIS QDs and (b) the corresponding size distribution. TEM and HR-TEM images of (c)...

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Figure 2: (a) SEM image of the ZnO/ZCIS composite. Elemental mapping of the ZnO/ZCIS composite heated at 400 ...

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Figure 3: High-resolution XPS spectra of (a) Zn 2p_3/2 and (b) O 1s in ZnO and in the ZnO/ZCIS composite.

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Figure 4: Band structure of ZnO and ZCIS QDs and redox potentials of O₂/O₂^•− and ^•OH/H₂O couples.

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Figure 5: (a) Influence of the Orange II concentration and (b) of the ZnO/ZCIS catalyst loading on the photod...

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Figure 6: (a) Influence of pH and (b) of phosphates and carbonates on the photocatalytic activity of the ZnO/...

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Figure 7: Influence of some transition metal chlorides used at 100 µM concentration on the photocatalytic eff...

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Figure 8: Recyclability of the ZnO/ZCIS photocatalyst.

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Figure 9: Concentration of (a) hydroxyl and (b) superoxide radicals and (c) hydrogen peroxide produced by ZnO...

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Figure 10: (a) Time evolution of SOSG−endoperoxide (SOSG-EP) photoluminescence (PL) intensity upon irradiation...

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Figure 11: (a) Influence of ^•OH, O₂^•−, electron and hole scavengers and (b) influence of ¹O₂ scavengers on the...

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Figure 12: Schematic illustration of the charge transfer process and of the ROS production in the ZnO/ZCIS pho...

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Published 17 May 2017

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High performance Ce-doped ZnO nanorods for sunlight-driven photocatalysis

Bilel Chouchene,
Tahar Ben Chaabane,
Lavinia Balan,
Emilien Girot,
Kevin Mozet,
Ghouti Medjahdi and
Raphaël Schneider

Beilstein J. Nanotechnol. 2016, 7, 1338–1349, doi:10.3762/bjnano.7.125

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Scheme 1: Schematic illustration of the synthesis of the Ce-doped ZnO rods.

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Figure 1: (a) XRD patterns of ZnO and Ce-doped ZnO rods and (b) magnification from 30 to 38°.

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Figure 2: Raman spectra of ZnO and ZnO:Ce rods.

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Figure 3: XPS analysis of the prepared ZnO:Ce (5%) rods. (a) Survey scan, and high resolution scans of (b) Zn...

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Figure 4: Room temperature UV–visible diffuse reflectance spectra of ZnO and Ce-doped ZnO rods.

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Figure 5: TEM images of (a) ZnO rods and (b–f) ZnO rods doped with 1, 3, 5, 7 and 10% Ce, respectively.

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Figure 6: (a) HRTEM image of 5% Ce-doped ZnO rods, and (b) TEM image of the 10% Ce-doped ZnO rods showing CeO₂...

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Figure 7: N₂ adsorption/desorption curves at 77 K for ZnO and 5%-doped ZnO rods, giving surface areas of 21.7...

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Figure 8: (a) Influence of the doping in Ce of ZnO rods for the degradation of Orange II in aqueous solution (...

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Figure 9: Influence of the pH of the Orange II solution on the photocatalytic activity of 5% Ce-doped ZnO rod...

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Figure 10: Effects of (a) the catalyst amount and (b) the dye concentration on the photocatalytic activity of ...

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Figure 11: Effects of various salts on the photocatalytic efficiency of the ZnO:Ce rods used under solar light...

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Figure 12: Effects of (a) transition metal salts and (b) of organic compounds and Na₂S on the photocatalytic e...

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Figure 13: Recyclability of the ZnO:Ce photocatalyst.

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Figure 14: Influence of t-BuOH, benzoquinone and oxalic acid used as ^•OH, O₂^•− and h⁺ scavengers, respectively...

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Scheme 2: Schematic representation of the photocatalytic activity of ZnO:Ce rods.

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Published 26 Sep 2016

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A facile method for the preparation of bifunctional Mn:ZnS/ZnS/Fe₃O₄ magnetic and fluorescent nanocrystals

Houcine Labiadh,
Tahar Ben Chaabane,
Romain Sibille,
Lavinia Balan and
Raphaël Schneider

Beilstein J. Nanotechnol. 2015, 6, 1743–1751, doi:10.3762/bjnano.6.178

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Figure 1: Schematic of the core/shell/shell Mn:ZnS/ZnS/Fe₃O₄ QD synthesis.

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Figure 2: XRD patterns of (a) Mn:ZnS/ZnS, (b–e) Mn:ZnS/ZnS/Fe₃O₄ (1), (1.5), (2) and (3) samples, respectivel...

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Figure 3: TEM and HR-TEM micrographs of (a) Mn:ZnS/ZnS and (b) Mn:ZnS/ZnS/Fe₃O₄ (1.5) nanocrystals, and (c) a...

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Figure 4: Colloidal dispersion of Mn:ZnS/ZnS/Fe₃O₄ (2) nanoparticles dispersed in water (a) in the absence of...

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Figure 5: (a) Absorption and (b) photoluminescence spectra of Mn:ZnS/ZnS and Mn:ZnS/ZnS/Fe₃O₄ (1), (1.5), (2)...

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Figure 6: (a–d) Magnetization loops of fluorescent, magnetic nanocrystals Mn:ZnS/ZnS/Fe₃O₄ (1, 1.5, 2 and 3)....

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Figure 7: FC and ZFC thermal variation of the susceptibility of the samples measured in a magnetic field of 5...

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Published 17 Aug 2015

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Antimicrobial and mechanical properties of functionalized textile by nanoarchitectured photoinduced Ag@polymer coating

CdSe nanorod/TiO2 nanoparticle heterojunctions with enhanced solar- and visible-light photocatalytic activity

ZnO nanoparticles sensitized by CuInZnxS2+x quantum dots as highly efficient solar light driven photocatalysts

High performance Ce-doped ZnO nanorods for sunlight-driven photocatalysis

A facile method for the preparation of bifunctional Mn:ZnS/ZnS/Fe3O4 magnetic and fluorescent nanocrystals

CdSe nanorod/TiO₂ nanoparticle heterojunctions with enhanced solar- and visible-light photocatalytic activity

ZnO nanoparticles sensitized by CuInZn_xS₂₊_x quantum dots as highly efficient solar light driven photocatalysts

A facile method for the preparation of bifunctional Mn:ZnS/ZnS/Fe₃O₄ magnetic and fluorescent nanocrystals