5 article(s) from Castrucci, Paola
Figure 1: (a) Typical SEM image showing the morphology of the as-collected sample; EFTEM images obtained at (...
Figure 2: HAADF-STEM micrographs of a SiNS with two connected SiNWs, acquired at (a) 0°, (b) 35° and (c) 70° ...
Figure 3: (a) Volume reconstruction of the system formed of (b) a SiNS and (c) two SiNWs having a Fe nanopart...
Figure 4: STEM-EDX spectra acquired at the points indicated in the BF STEM image in the insets: (a) SiNWs gro...
Figure 1: Photograph of a dish containing CNT-sponges, and two cut pieces of few cubic mm.
Figure 2: SEM micrographs showing the entangled structure of the network acquired at two different magnificat...
Figure 3: Electron energy loss spectra (Ep = 300 eV) obtained on the CNT-sponge. The π and π + σ plasmons hav...
Figure 4: Photographs of water droplets of different volumes (a) and contact angle profile of a single drop (...
Figure 5: Stability of the super-hydrophobic state. No roll-off angle was measured, even when the substrate i...
Figure 6: Burning and reuse of the CNT-sponge. Photograph of the starting of the oil-adsorption process (a), ...
Figure 7: SEM micrographs of the CNT-sponge surface after one (a) and two (b) burning processes. Corresponden...
Figure 8: Incident-photon-to-current efficiency (IPCE, %) obtained from a MWCNT 2D film (purple circles), and...
Figure 1: (a) Schematic front view and (b) side view of the Si substrate produced by Fondazione Bruno Kessler...
Figure 2: (a) Scanning electron microscopy (SEM) image of MWCNT samples grown on the implantation area. The i...
Figure 3: Dark current comparison of the Si substrate and the CNT–Si heterojunction.
Figure 4: (a) Details of the dark current around the threshold voltage with a curve fit. (b) C–V plot of the ...
Figure 5: (a) Photocurrent induced by a 730 nm continuous wave, low power light source at various illuminatio...
Figure 6: (a) Dark current and photocurrent tunneling in a CNT–Si heterojunction under 378 nm light illuminat...
Figure 1: Scanning electron micrographs of SWCNT (a,c) and MWCNT (b,d) films at different magnifications 200,...
Figure 2: Scanning electron micrographs of SWCNT/MWCNT (a,c) and MWCNT/SWCNT (b,d) films at different magnifi...
Figure 3: Water droplets cast on SWCNT (a), MWCNT (b), SWCNT/MWCNT (c), and MWCNT/SWCNT (d) films. Owing to t...
Figure 4: (a) Contact angle of the SWCNT/MWCNT (blue squares) and MWCNT (red dots) films as a function of eth...
Figure 5: Variations of the contact angle as a function of the elapsed time from drop cast on the porous SWCN...
Figure 1: (a) Photograph of the chemical vapour deposition chamber used to synthesize MWCNTs. The reactor com...
Figure 2: SEM image of the MWCNTs after growth on a stainless-steel substrate. The MWCNTs are randomly orient...
Figure 3: (a) Low-resolution TEM image assessing the multiwalled nature of the carbon nanotubes synthesized o...
Figure 4: Core-valence-valence (CVV) Auger spectra of MWCNTs (red curve) and HOPG (black curve). An electron ...
Figure 5: Energy-loss spectra of MWCNTs (red curve) and HOPG (black curve). In the case of MWCNTs, the σ+π-pl...
Figure 6: Comparison of the π-plasmon peak (0–12 eV) for MWCNTs (red curve) and HOPG (black curve). It is wor...
Figure 7: AFM 10 × 10 μm2 topography image of the as-exfoliated HOPG sample. The surface appears clean and se...
Figure 8: Scheme of the photovoltaic device. The Schottky junction between the Si and the MWCNT film is the p...
Figure 9: External quantum efficiency (EQE) spectra obtained in the top-down (dotted curve) and in-plane (fil...
Figure 10: J–V characteristics acquired in the dark and under illumination by white light. (a) In the in-plane...
Figure 11: Schematic depiction of the airbrush deposition process. A solution of MWCNTs in isopropyl alcohol w...