Table of Contents |
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167 | Full Research Paper |
16 | Letter |
12 | Review |
5 | Editorial |
1 | Commentary |
Figure 1: XRD patterns of sonochemically coated fabrics with: (a) ZnO and (b) CuO NPs.
Figure 2: Images of textile fibers (shredded bandages) colored with RO16 and RB5 dyes and functionalized with...
Figure 3: Absorption measurements in the visible region of the colored bandages coated with dyes RO16 (a) or ...
Figure 4: HRSEM images of (a) RB5 sonochemically deposited on cotton, (b) ZnO coated in the presence of RB5, ...
Figure 5: 1H NMR spectra of the dyes solution of (a) RO16 and (b) RB5 before (i) and after (ii) the sonochemi...
Figure 6: Antibacterial properties of ZnO-coated bandages and ZnO/dye-coated bandages.
Figure 7: Antibacterial properties of CuO-coated bandages and CuO/dye-coated bandages.
Figure 8: Comparison of dye stability after leaching in saline solution for 72 h at 40 °C and shaking at 100 ...
Figure 1: Procedure A. Formation of AgNC arrays by means of the Langmuir–Blodgett technique. (a) π–A and Cs−1...
Figure 2: Procedure B. Formation of AgNC arrays by means of sequential physisorption. Δf3/3 (black curve, lef...
Figure 3: Change in Δf3/3 (black curve, left y-axis) and ΔD3 (blues curve, right y-axis) upon addition of gra...
Figure 4: Optical images of GO-covered AgNCs prepared with procedure A (a) and B (b).
Figure 5: (a) AFM image of GO-covered silver nanocubes obtained from Langmuir–Blodgett transfer at 15 mN/m. (...
Figure 6: SERS spectra of Adenine (9 × 10−7 M) adsorbed on single LB layer of AgNCs (B), on GO/AgNCs obtained...
Figure 7: SERS spectra of Adenine (9 × 10−4 M) adsorbed on GO/AgNCs obtained with procedure A (red curve) and...
Figure 8: Checkboard model for AgNCs arrays on SiO2 obtained with procedure A (surface density = 41 NC/μm2) a...
Figure 1: A scheme of ZnO-based chemiresistive gas sensor.
Figure 2: A) XPS spectra of the chemical elements in pristine ZnO: Zn 2p spectrum and O 1s spectra, deconvolu...
Figure 3: SEM (left side) and TEM (right side) images of ZnO A) dried at 120 °C, and annealed at B) 300 °C an...
Figure 4: A) Time response of chemiresistors based on pristine and Au-doped ZnO annealed at 300 °C, exposured...
Figure 5: Calibration curves in terms of the percentage relative electrical resistance change for a chemiresi...
Figure 6: Gas sensor resistance of pristine and Au@ ZnO annealed at A) 300 °C and B) 550 °C over time under e...
Figure 7: Mean sensitivity of pristine and Au@ZnO annealed at 300 and 550 °C towards H2S and NO2 gases at an ...
Figure 1: Structures of azobenzene (AB), 9-ring graphene fragment (G9), AB bonded to a G9 “corner” site (G9–A...
Figure 2: Energy level diagram comparing orbital energies for isolated AB and G9, compared to the G9–AB clust...
Figure 3: HOMO and H−1 orbitals for G9–AB for a range of dihedral angles between the G9 plane and AB aromatic...
Figure 4: Orbitals for G9–AB–G9 added to the orbital energy diagram of Figure 2. All structures are presented in thei...
Figure 5: Effect of dihedral angle on orbital electron distributions in G9–AB–G9. In the 0° case, the G9s and...
Figure 6: Comparisons of calculated electronic coupling t values in meV for G9–(AB)n–G9 and edge-oriented G9–...
Figure 7: A) tH−2/H−3 calculated for the planar geometries of the indicated G9–molecule–G9 clusters with vari...
Figure 8: A) Isolated AB and G9 molecules showing the calculated HOMO and LUMO energies relative to the exper...
Figure 1: (a) Schematic diagram of the device ITO/α-NPD/Alq3/Al. Steady-state current–voltage characteristics...
Figure 2: Impedance phase frequency spectra recorded in the temperature range from 200 to 325 K with the step...
Figure 3: (a) Electrical equivalent circuit model used for data evaluation, (b) the comparison of recorded an...
Figure 4: Electric field dependence of the effective mobility at the temperature of 300 K. The solid line rep...
Figure 5: (a) Arrhenius plot of conductivities estimated from steady-state current density–voltage measuremen...
Figure 1: Configurational variables sampled and cluster geometry. In (a) and (b), d is the sulfur–gold distan...
Figure 2: The most stable binding configurations for binding sites on the model Au20 cluster. The figures ind...
Figure 3: The most stable binding configurations for binding sites on the model Au20 cluster. The figures ind...
Figure 4: The importance of dispersive corrections in non-dissociative adsorption. Site symbols are given on ...
Figure 1: Structure of (a) piroxicam molecule and (b) Cu(II)–piroxicam complex.
Figure 2: AFM height image of (a) Cu(II)-piroxicam-DNA film (scan size 5 μm × 5 μm) and (b) Cu(II)–piroxicam–...
Figure 3: X-ray reflectivity data at and away from Cu absorption edge (up shifted for clarity). Symbols: expe...
Figure 4: (a) Variation of ΔρCueff along the film depth for both Cu(II)–piroxicam–DNA and Cu(II)–piroxicam–DN...
Figure 5: Schematic of (a) metal–drug–DNA film and (b) metal–drug–DNA–buffer film.
Figure 1: AFM images (5 × 5 μm) of (a) c-20 (16.603 nm), (b) c-40 (26.756 nm), (c) c-60 (51.531 nm), and (d) c...
Figure 2: SEM images of the (a) c-20, (b) c-40, (c) c-60, and (d) c-70 ZnO@B samples and the panchromatic CL ...
Figure 3: Cross-sectional SEM images of the (a) c-20, (b) c-40, (c) c-60, and (d) c-70 ZnO@B samples. The thi...
Figure 4: CL spectra of the (a) c-20, (b) c-40, (c) c-60, and (d) c-70 ZnO@B samples for excitations of 5, 7,...
Figure 5: Absorbance (squared) of the four ZnO@B samples.
Figure 6: Raman scattering spectra of the four ZnO@B samples. The spectra display A1(TO) and A1(LO) modes for...
Figure 7: In-plane strain for the four ZnO@B samples as a function of ZnO thickness.
Figure 1: The NMR spectra for PDLA (a) and PLLA (b).
Figure 2: GPC curves of the synthesized PLLA and PDLA.
Figure 3: PLL/(PDLA/PLLA)3 multilayer deposition with (PAH/PSS)4/PSS precursor (a) and without (b), and (c) c...
Figure 4: Kinetics study on the thickness of the PLL/(PDLA/PLLA)5 multilayer on a silicon substrate with (PAH...
Figure 5: PDLA/PLLA stereocomplex spectrum by simple mixing (a) and comparison with PLA capsules with (PAH/PS...
Figure 6: The WXRD spectra of PDLA, PLLA, PDLA/PLLA complex film and PDLA/PLLA complex microcapsules.
Figure 7: The DSC curves of PDLA, PLLA, PDLA/PLLA complex film and PDLA/PLLA complex microcapsules.
Figure 8: (PSS/PAH)4/PSS/PLL (a), (PSS/PAH)4/PSS/PLL(PDLA/PLLA)3 (b) and (PSS/PAH)4/PSS/PLL(PDLA/PLLA)3/PSS (...
Figure 9: PLL(PDLA/PLLA)10 hollow microcapsules (a) and magnification of the PLL(PDLA/PLLA)10 hollow microcap...
Scheme 1: OsBp with dTMP. Reaction of osmium tetroxide with 2,2’-bipyridine forms a reactive complex (OsBp or...
Figure 1: Strategy for sequencing DNA using the osmylated strands. All sequences shown refer to deoxybases; f...
Figure 2: Reaction of 12.6 mM OsBp (the highest concentration of OsBp used under our conditions) with 20 μM dA...
Figure 3: Capillary electrophoresis (CE) overlapping traces of oligodeoxynucleotides pGEX3’-dA25 intact and p...
Figure 4: Translocation time histograms for four different oligos: Three are oligodeoxyadenylates, dA10XdA9 w...
Figure 5: Representation of osmylated DNA strands to illustrate the practically parallel line-up of the OsBp ...
Figure 6: Heat plots, normalized residual current, Ir/I0, vs translocation time, t (ms), for the deoxyoligos ...
Figure 7: Sample I–t traces for the control dA20 and for dA25-pGEX3’ R1 (with 4T(OsBp)) to show (a) continuou...
Scheme 1: a) Structural formula of the α-methyl-ω-p-vinyl-benzoate-polystyrene molecule. b) Schematic represe...
Figure 1: AFM height images and corresponding cross sections of a) a Si wafer and b) a PS brush.
Figure 2: ζ-potential of the Si wafer and the PS brush before and after modification measured in water.
Scheme 2: Mechanism of the proposed transesterification process, which modifies the polystyrene brush in the ...
Figure 3: ATR spectra of PS powder used for the preparation of the brushes before and after modification. The...
Figure 4: XRD diagrams of ZnO films deposited on a) SiOx and b) PS brushes after 20 mineralization cycles. Th...
Figure 5: a) AFM topography and cross section of ZnO islands deposited on SiOx after 20 mineralization cycles...
Figure 1: Artists impression of a gold nanoantenna loaded with a nonlinear optical active material. The nanoa...
Figure 2: (a) Production steps for the selective filling of gap nanoantennas with LiNbO3 nanocrystals. (i) In...
Figure 3: Linear extinction (1 − T) spectra for bowtie antenna arrays (blue) and bowtie antennas selectively ...
Figure 4: Linear and nonlinear properties of a bowtie antenna array and a filled bowtie antenna array. (a) Sp...
Figure 5: Linear and nonlinear properties of a bowtie antenna array and a filled bowtie antenna array. (a) Sp...
Figure 6: (a,b) Tilted view, close-up SEM images of two, exemplary, selectively filled, lithium niobate bowti...
Figure 1: Model of a nanohybrid-PET-system. MNP can assemble and disassemble at different pH. The disassemble...
Figure 2: Idealized 3D cave structure of a NP cluster. Grey spheres: MNP, lines: [Fe(II)(bzimpy)2] linking un...
Figure 3: Diameter of the unsubstituted and networked MNP.
Figure 4: Diameter of the synthesized MNP.
Figure 5: MNP after different functionalisation steps.
Figure 1: Molecular structure of complex 3 obtained from single-crystal diffraction. Dy(III) ions are marked ...
Figure 2: (a) Experimental χMT(T) and fitting (red trace) for compound 1 (parameters for fitting are describe...
Figure 3: Molar magnetic susceptibility (χMT) vs T plot for 2–5 under 0.1 T DC field and molar magnetization (...
Figure 4: Experimental dynamic magnetic behavior for 3. (a) χ"M(T) measured under a zero field (3.5 Oe AC fie...
Figure 5: Experimental dynamic magnetic behavior for 5. (a) χ"M(T) measured under an applied DC field of 800 ...
Figure 6: Single-crystal measurements of M(H)/MS vs µ0H measured on a micro-SQUID array for 3 (a) at 0.03 K a...
Figure 7: Magnetic axes obtained through the electrostatic method: (a) side and (b) top view for compound 3. ...
Figure 8: STM topography of 2 after deposition on Au(111). Image sizes are (a) 60 × 60 nm2 and (c) 20 × 20 nm2...
Figure 1: Bead arrangements in different optical force measurements. a) PDHs tethered to an anti-DIG bead (2....
Figure 2: Quantitative analysis of labelled and unlabelled DNA. Gel electrophoresis [(1.8% a) (lane 1, 2 and ...
Figure 3: Characteristic force–extension curve. The biotin bead interacting with the protein moiety by molecu...
Figure 4: Selected force distributions for protein–DNA coupled to anti-DIG beads with the ratio 40:1. a) Comb...
Figure 5: Optical force measurements of DIG-DNA-Thiol. Distribution of rupture forces for DIG-DNA-Thiol pulle...
Figure 6: Studying the stability and force-induced disruption of streptavidin-labelled DNA handles in TICO bu...
Figure 7: Characteristic force–extension curves of double-handle experiments. a) DIG-DNA-Bio and streptavidin...
Figure 8: Fluorescence measurements of Qdot–streptavidin conjugates that were attached to freely accessible D...
Figure 1: (a) Global energy consumption growth from 1965 to 2013. (b) The share of different energy sources f...
Figure 2: (a) Carbon concentration in the energy mixture from 1890–2100 (projected), i.e., kilograms of carbo...
Figure 3: Hybridization states of carbon-based nanomaterials. Reprinted with permission from [19]. Copyright (200...
Figure 4: Structure of the most significant fullerenes, C60 and the C70. All fullerenes exhibit hexagonal and...
Figure 5: Schematic depiction of an auto-loading version of an arc-discharge apparatus used for fullerene pro...
Figure 6: Diffusion flame chamber for fullerene production. Reprinted with permission from [31]. Copyright (2000)...
Figure 7: Formation of C60 through dehydrogenation/dehydrochlorination. Reprinted with permission from [32]. Copy...
Figure 8: Synthesis of PC61BM by reaction between C60 and diazoalacane with subsequent refluxing with o-dichl...
Figure 9: Graphene and carbon nanotubes as a (a) single-walled carbon nanotube (SWCNT) and (b) multiwall carb...
Figure 10: Schematic models for SWCNTs with the nanotube axis normal to the chiral vector, which, in turn, is ...
Figure 11: Schematic representation of methods used for carbon nanotube synthesis: (a) arc discharge; (b) chem...
Figure 12: Honeycomb lattice of graphene. Graphene layers can be stacked into graphite or rolled up into carbo...
Figure 13: (a) Representation of the electronic band structure and Brillouin zone of graphene; (b) The two gra...
Figure 14: Several methods for the mass production of graphene that allow a wide choice in terms of size, qual...
Figure 15: Graphene-based display and electronic devices. Display applications are shown in green; electronic ...
Figure 16: (a) Schematic illustration and photo of the electrochemical exfoliation process for graphite. (b) P...
Figure 17: Chemical structure of graphene oxide with functional groups. A: Epoxy bridges, B: hydroxy groups, C...
Figure 18: Atomic resolution, aberration-corrected TEM image of a single layer, H-plasma-reduced GO membrane. ...
Figure 19: (a) Low magnification and (b) high magnification SEM images of graphite oxide flakes [112].
Figure 20: High resolution C 1s XPS spectra: deconvoluted peaks with increasing reduction temperature (Tr). (a...
Figure 21: Plot of sheet resistance against annealing temperature with a comparison to key carbon and oxygen r...
Figure 22: CVD graphene. (a) Schematic of the transfer of graphene produced on Cu using the roll-to-roll metho...
Figure 23: Millimeter-sized graphene grains produced on polished and annealed Cu foils. (a) Schematic of the c...
Figure 24: Millimeter-sized graphene grains produced on the inside of enclosure-like Cu structures. (a) Schema...
Figure 25: Millimeter-sized graphene grains made on resolidified Cu. (a) Schematic of the Cu resolidification ...
Figure 26: The characteristic tetrahedron building block of all SiC crystals. Four carbon atoms are covalently...
Figure 27: Schematic representation of the stacking sequence of hexagonal SiC bilayers for 2H, 3C, 4H and 6H p...
Figure 28: Number of graphene layers grown by annealing 3C-SiC for 10 h in UHV as a function of temperature. R...
Figure 29: TEM images of MLG on the C-face. (a) A cross-sectional TEM image. (b) A low-magnification TEM image...
Figure 30: High frequency graphene transistor. (a) and (b) Structure of a graphene-based FET for an analogue r...
Figure 31: Record solar cell efficiencies, worldwide, as reported by NREL in 2014 [180].
Figure 32: Photocurrent generation steps in an organic solar cell. Step 1: photon absorption in the conducting...
Figure 33: (a) Electron transfer from P3HT to PCBM after generation of the exciton at the interface of the two...
Figure 34: (a) Schematic of a regular organic solar cell structure. (b) Schematic of an inverted organic solar...
Figure 35: Simple equivalent circuit for a solar cell.
Figure 36: I–V curves of a solar cell. IL indicates the current under illumination. Voc and Isc represent the ...
Figure 37: Detailed equivalent circuit for a solar cell.
Figure 38: UV–vis spectra of PC71BM and PC61BM, both in toluene. To illustrate the contribution of MDMO-PPV to...
Figure 39: (a) Molecular dynamics simulations of P3HT wrapped around a SWNT (15,0). Reprinted with permission ...
Figure 40: (a) and (b) TEM images of P3HT wrapping around a SWNT (7,6) (images taken at QUT, not yet published...
Figure 41: Schematic of an organic solar cell with a transparent graphene electrode. Reprinted with permission...
Figure 42: (a) Schematic of a photovoltaic device with a P3HT/GO–PITC thin film as the active layer and the st...
Figure 43: (a) Schematic illustration of a device structure with GO as the buffer layer. (b) Energy level diag...
Figure 44: Device structures (a) and energy level diagrams (b) of the normal device and the inverted device wi...
Figure 45: Addition of a small amount of SWCNTs into the GO buffer layer can increase the FF and JSC of device...
Figure 46: (a) Structure of carbon solar cells where TFB and PEDOT/PSS are the electron-blocking and hole-cond...
Figure 47: Schematic of the two basic all carbon nanomaterial-based solar cell device structures: (a) a typica...
Figure 48: Energy density vs power density (Ragone plot) for various energy storage devices [257].
Figure 49: Hierarchical classification of supercapacitors and related types [259].
Figure 50: Charge and discharge processes of an EDLC.
Figure 51: Models of the electrical double layer at a positively charged surface: (a) the Helmholtz model, (b)...
Figure 52: Simple equivalent circuit.
Figure 53: CV curve of an ideal supercapacitor.
Figure 54: Simulation of CV curves with increasing internal resistance (1, 5, 10, 25 and 50 Ω) at 20 mV/s scan...
Figure 55: Simulation of the charge/discharge curves with increasing internal resistance (0, 1, 5, 10 and 25 Ω...
Figure 56: Schematic representation of the Nyquist impedance plot of an ideal capacitor (vertical thin line) a...
Figure 57: Schematic illustration of the space in a carbon nanotube bundle available for the storage of electr...
Figure 58: Comparison of conducting paths for electron and electrolyte ions in aligned carbon nanotubes and gr...
Figure 59: CV curves of the EDLC using the SWNT solid sheet (red) and as-grown forest (black) as electrodes, c...
Figure 60: SEM images of CNT–carbon aerogel nanocomposites. Reprinted with permission from [289]. Copyright (2008) ...
Figure 61: Graphene-based EDLCs utilizing chemically modified graphene as electrode materials. (a) Scanning el...
Figure 62: Morphology of graphene oxide and graphene-based materials. (a) Tapping-mode AFM image of graphene o...
Figure 63: (a–d) Schematic illustration of the process to make laser-scribed graphene-based electrochemical ca...
Figure 64: (a–c) Schematic diagram showing the fabrication process for a laser-scribed graphene micro-supercap...
Figure 65: (a) SEM image of the interior microstructure of a graphene hydrogel. (b) Photograph of the flexible...
Figure 66: (a) Schematic illustration of a supercapacitor cell fabricated from reduced graphite oxide (rGO) an...
Figure 67: (a) and (b) are schematic, equivalent circuit illustrations for a polymer solar cell and a supercap...
Figure 1: The reduced frequency of the quartz crystal for the different overtones measured (overtones ν = 3, ...
Figure 2: AFM images and height profiles taken along the diagonal of the images for multilayers (PDADMAC + PS...
Figure 3: (a) Weight fraction of water as a function of N, obtained following the methodology proposed by Vör...
Figure 4: (a) Multilayer thickness of (PDADMAC + PSS)N films formed at an ionic strength of 0.10 M as a funct...
Figure 5: (a) Dependence on the salt concentration of the atomic fraction of nitrogen in (PDADMAC + PSS)N fil...
Figure 6: (a) Variation of thickness, obtained using ellipsometry for the adsorption of single layers, as a f...
Figure 7: Atomic ratios obtained from XPS measurements at an angle of electron emission of 0°. (a) Ratios of ...
Figure 8: (a) Changes in the surface potential, ΔV, as a function of N for (PDADMAC + PSS)N films formed at d...
Figure 1: A schematic diagram of the apparatus used to synthesis graphene. (A) surfactant solution, (B) peris...
Figure 2: Effect of the initial graphite suspension concentration in water on the final graphene concentratio...
Figure 3: 1H NMR spectra of the graphene–surfactant complexes (blue) stabilized with SDS (top) and CTAB (bott...
Figure 4: The Raman spectrum of surfactant-stabilised graphene (red) compared with the spectrum of graphite (...
Figure 5: Surface pressure/area isotherms of graphene(+)CTAB monolayers on the water surface. Numbers 1, 2, a...
Figure 6: AFM images of the same sample of a graphene(+)CTAB layer deposited onto a silicon substrate using t...
Figure 7: (a) SEM image of PAH/graphene(−)SDS layer on a silicon surface; (b) EDX spectra recorded on a graph...
Figure 8: (a) AFM image (tapping mode) of a PEI/graphene(−)SDS film, and (b) a corresponding sectional analys...
Figure 9: (a) Spectra of ellipsometric parameters Ψ and Δ recorded on a bare silicon surface (*) and on PAH/g...
Figure 10: The variation of the film thickness upon deposition of alternating graphene(−)SDS and graphene(+)CT...
Figure 11: (a) Ψ, Δ and (b) δΨ, δΔ spectra of PEI/graphene(−)SDS films deposited on gold-coated glass slides.
Figure 12: TIRE spectra of (a) Ψ, and (b) Δ recorded on a bare gold-coated glass slide (*) and after depositio...
Figure 1: Schematics of the atomic force microscopy-based assay. We graft two sets of ssDNA nanostructures, w...
Figure 2: Schematic view and AFM topographic images of HS-SNP-C and HS-SNP-T nanografted patches (a) before a...
Figure 3: Schematic representation of the electrode/electrolyte interface. The first layer in contact with th...
Figure 4: Differential capacitance measurements of the kinetics of DNA hybridization in presence of multiple ...
Figure 1: Simulation snapshots at 700 K, taken at different points in time (0, 4, 12 and 20 ps) spanning the ...
Figure 2: (a) Simulation snapshots at 700 K, taken at different points in time (24, 46 and 54 ps) spanning th...
Figure 3: (a) Simulation snapshots at 700 K, taken at different points in time (80, 360, 800 and 1230 ps) spa...
Figure 4: Snapshot of the nanostructure at 575 K temperature taken at t = 68 ps. As the snapshot shows, at th...
Figure 5: The potential energy of the simulated nanostructures as a function of the time at (a) low-temperatu...
Figure 6: Radius of gyration plotted as a function of the simulation time for several temperatures belonging ...
Figure 7: (a) Double exponential fit to the mean atomic volume of the simulated nanostructure as a function o...
Figure 1: Chemical structure of fully protonated C1P.
Figure 2: Surface pressure–area isotherms at (a) pH 9 without calcium (borax buffer with 150 mM NaCl and 1 mM...
Figure 3: BAM pictures obtained at pH 4 without calcium (citric buffer with 150 mM NaCl and 1 mM EDTA) at sel...
Figure 4: Wavenumbers of the CH2 asymmetric stretching vibration band (incidence angle 40° and s-polarization...
Figure 5: IRRAS spectra (incidence angle 40°, s-polarization) of C1P monolayers on the different subphases (r...
Figure 6: Contour plots of the corrected X-ray intensities plotted versus the in-plane (Qxy) and out-of-plane...
Figure 7: 1/cos(t) as a function of the surface pressure of C1P monolayers at 20 °C on (red circle) pH 9 with...
Figure 8: Lattice distortion as a function of sin2(t) of C1P monolayers at 20 °C on (red circle) pH 9 with ca...
Figure 1: Experimental setup for stability evaluation of differently coated metallic nanoparticles in differe...
Figure 2: Transmission electron micrographs (TEM) of different silver nanoparticles coated with trisodium cit...
Figure 3: Transmission electron micrographs (TEM) of differently coated superparamagnetic iron oxide nanopart...
Figure 4: Zeta-potential (ζ) values of differently coated silver (AgNPs) and superparamagnetic iron oxide nan...
Figure 5: Temporal evolution of the hydrodynamic diameter (dH) obtained from size distributions by volume of ...
Figure 6: Transmission electron micrographs (TEM) and corresponding size distributions by volume of different...
Figure 7: Transmission electron micrographs (TEM) of different silver nanoparticles coated with trisodium cit...
Figure 8: Transmission electron micrographs (TEM) of different silver nanoparticles coated with sodium bis(2-...
Figure 1: The main molecule–metal combinations discussed in this report: alkane chalcogenides (CnT), 1,4-benz...
Figure 2: (a) S 2p XPS spectra for a small dose of BDMT evaporated [26] onto Cu(100). (b,c) S 2p spectra for S ad...
Figure 3: (a) XPS spectra [48] in the S 2p region before (blue, normal emission; red, grazing emission) and after...
Figure 4: (a) XPS in the Se 3d region [48] after initial selenization of Pd with atomic selenium and heating to 5...
Figure 5: XPS in the Se 3d region after (a) initial selenization of Ni with atomic selenium and heating to 50...
Figure 6: (A) EDOT-related molecules and XPS S 2p spectra for these cases [62]. Figure adapted with permission fr...
Figure 7: XPS S 2p spectra for 1T, 2T and DH4T adsorption on Au films on mica. The DT spectra are shown for t...
Figure 8: Se adsorption on Cu(111) from a Na2Se solution and after heating to the indicated temperatures.
Figure 9: Selenophene (Seph) adsorption on Cu(111). (a,c) Se 3d spectra and (b,d) NEXAFS spectra for the indi...
Figure 1: In situ resonance excitation of Sb2S3 NW. SEM images of NW with dimensions: length L = 10 μm and ra...
Figure 2: SEM images of resonantly excited Sb2S3 NW with rectangular cross-section, showing two mutually orth...
Figure 3: Young’s modulus of Sb2S3 NWs as a function of their size. Data points represent the measured Young’...
Figure 4: a) Schematic of the static bending of a single Sb2S3 NW. SEM images of the NW b) in a relaxed state...
Figure 1: Simplified cross-section schematic of a beam with bonded piezoelectric layer. An electric field E3 ...
Figure 2: (a) Annotated photo, (b) schematic and (c) electrical circuit model of the piezoelectric cantilever....
Figure 3: Block diagram representing the transfer function from voltage actuation and tip disturbance to char...
Figure 4: Block diagram of the self-sensing scheme with dual feedforward compensator to cancel the capacitive...
Figure 5: Photo of the implemented PCB circuit for bimodal charge sensing.
Figure 6: (a) Frequency response measured with the OBD sensor (−) of an NT-MDT NSG01 base-excited cantilever ...
Figure 7: (a) Frequency response of the first flexural mode measured with the charge sensor before (−) and af...
Figure 8: (a) Voltage noise density estimate of demodulated amplitude obtained from LIA with low-pass filter ...
Figure 9: Approach (red, −) and retract (blue, −) curves obtained on a TGZ1 calibration grating with OBD sens...
Figure 10: AFM Experiment on a TGZ1 calibration grating showing the 3D images of topography and fundamental mo...
Figure 11: Bimodal experiment with the first and fifth eigenmode of the piezoelectric cantilever on a PS/LPDE ...
Figure 1: (a) Fabrication of nanoelectrode interfaces (NEIs). Track-etched, polycarbonate (PC) filter membran...
Figure 2: “Symbionic” slime mold/NEI unions. A fragment of Physarum p. was placed between a PGE and an NEI (a...
Figure 3: Membrane potential oscillations of Physarum p. measured with NEIs. Typical recordings from Physarum...
Figure 4: Physarum p.-based, autonomous humidity sensing. Physarum p. sandwiched between NEI/PGE or PGE/PGE s...