- Full Research Paper
- Published 13 Nov 2019
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Figure 1: Fabrication process of all-fiber-based gel-state batteries.
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Figure 2: Digital photos of LiFePO4 nanofiber films. (a, b) The precursor fiber membrane; (c) the pre-treated...
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Figure 3: SEM pictures of LiFePO4 and Li4Ti5O12 nanofiber membranes. (a, b) LiFePO4; (c, d) Li4Ti5O12.
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Figure 4: TEM pictures and EDS spectra of LiFePO4 and Li4Ti5O12 fibers. (a)TEM of a LiFePO4 fiber; (b) TEM of...
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Figure 5: XRD patterns of LiFePO4 and Li4Ti5O12 fiber membranes.
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Figure 6: Raman spectra of LiFePO4 and Li4Ti5O12 fiber membranes.
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Figure 7: CV curves of LiFePO4 and Li4Ti5O12 fiber membrane electrodes.
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Figure 8: Charge–discharge curves of LiFePO4 and Li4Ti5O12 fiber membrane electrodes.
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Figure 9: EIS curves of LiFePO4 and Li4Ti5O12 fiber membrane electrodes.
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Figure 10: Rate performance of LiFePO4 and Li4Ti5O12 fiber membrane electrodes.
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Figure 11: Cycle performance of LiFePO4 and Li4Ti5O12 fiber membrane electrodes.
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Figure 12: Charge–discharge curves of the LiFePO4//Li4Ti5O12 all-fiber battery at 1C.
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Figure 13: Rate performance of the LiFePO4//Li4Ti5O12 all-fiber battery.
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Figure 14: Cycle performance of the LiFePO4//Li4Ti5O12 all-fiber battery at 1C.
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Figure 15: Sketch of 3D network structure for fast electron and ion transport.
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- Published 12 Nov 2019
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Scheme 1: Schematic representation of CuFe2O4/HYPS/cisplatin nanoformulation.
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Figure 1: Powder XRD patterns of CuFe2O4/HYPS with different Cu concentrations (x = 0.08, 0.10, 0.12, 0.15 an...
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Figure 2: BET adsorption–desorption isotherm and pore size distribution of (a) HYPS and (b) 30 wt% CuFe2O4/HY...
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Figure 3: FTIR spectra of HYPS and 30 wt % CuFe2O4/HYPS.
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Figure 4: Transmission electron microscopy of (a, b) 30 wt % CuFe2O4/HYPS at different scale magnifications a...
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Figure 5: Vibrating sample magnetometer spectrum of 30 wt % CuFe2O4/HYPS.
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Figure 6: DR-UV–visible spectra of (a) CuFe2O4/HYPS and (b) cisplatin/CuFe2O4/HYPS.
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Figure 7: Percentage cumulative cisplatin release in tumor pH 5 conditions for 72 h in (a) CuFe2O4/HYPS, (b) ...
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Figure 8: Percentage cell viability using MTT assay on the MCF-7 cell line. The cells were treated with the f...
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Figure 9: EC50 values for each condition. Data sets from Figure 8 were used to extrapolate the line equation of each ...
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- Published 11 Nov 2019
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Figure 1: (a) X-ray diffraction patterns of Ni1−xCoxS2; (b) FESEM images and (c) enlarged FESEM images of Ni1−...
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Figure 2: (a) EDS pattern of Ni1−xCoxS2 and high-resolution XPS spectra of (b) Ni 2p, (c) Co 2p, and (d) S 2p...
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Figure 3: (a) CV curves at sweep rates from 2 to 100 mV·s−1 (vs Hg/HgO); (b) GCD curves at different current ...
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Figure 4: a) Configuration of the ASC; (b) CV curves of the ASC at different potential windows with a scan ra...
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- Published 07 Nov 2019
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Figure 1: Synthetic approach (upper panel), final structure and nomenclature (lower panels) of the mannose-fu...
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Scheme 1: Synthetic pathway to obtain linear and four-arm mannosylated copolymers.
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Figure 2: A) Kinetic profiles obtained for the synthesis of (A4-)PEG9-PCL1 and (A4-)PEG8-PCL2 copolymers. Rea...
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Figure 3: Comparison of the 1H NMR spectrum of one selected polymer (A4-PEG8-PCL2, MeOD) before (upper panel)...
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Figure 4: TEM images of A4-PEG8-PCL2 10 mg/mL in water; size distribution is dominated by small nanoparticles...
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Figure 5: DLS size distribution (vol %) of the glycopolymers PEG9-PCL1-Man1 (A), PEG8-PCL2-Man2 (B), A4-PEG9-...
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Figure 6: A) Schematic representation of Con A clustering by multivalent ligands. B) Con A suspensions after ...
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Figure 7: Turbidimetric assay results. A) Optical density (OD) data were recorded at 420 nm every 12 s for 10...
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- Published 06 Nov 2019
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Figure 1: (a) Schematic principle of the x-scan method, the excitation focus is scanned in x-direction. The b...
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Figure 2: (a) Backward path and (b) forward path images of spherical gold nanostructures in the linear excita...
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Figure 3: (a) Backward path and (b) forward path images of the same ten spherical gold nanostructures shown i...
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Figure 4: (a) Backward path and (b) forward path images of the same ten spherical gold nanostructures as in Figure 3 ...
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Figure 5: (a) Excitation intensity dependent attenuation (blue dots), absorption (green dots) and backscatter...
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Figure 6: (a) Schematic of the experimental setup of the laser scanning system based on an inverted microscop...
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- Full Research Paper
- Published 06 Nov 2019
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Figure 1: (A) Amperometric responses for a blank solution and PSA solutions at concentrations of: (a) 12.5, (...
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Figure 2: Peak current as a function of the PSA concentration fitted with a Langmuir–Freundlich equation (das...
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Figure 3: ELISA and INμ-SPCE results for PSA in control cell lysates (PNT-2) and prostate cancer cells (LNCap...
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Figure 4: Parallel coordinates plot for PSA concentrations from 12.5 to 1111 fg·mL−1 after the feature-select...
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Figure 5: IDMAP plot obtained from the data in Figure 1A for buffers containing different PSA concentrations and from Figure 3...
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Figure 6: Schematic illustration of the fabrication of sandwich-type electrochemical immunosensors (INμ-SPCEs...
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Figure 7: Electrode modification with 10 μg·mL−1 monoclonal antibody (Ab1) using 5 μL of 2 mg·mL−1 PDDA and 5...
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Figure 8: Preparation of the bioconjugate complex of Ab2 and HRP (Ab2-MNP-HRP).
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Figure 9: Illustration of the PSA capturing step.
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Supp. Info
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- Published 05 Nov 2019
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Figure 1: COMSOL simulations of light propagation in a directional coupler and two MMIs, all having rectangul...
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Figure 2: Power output in the input waveguide as a function of the effective refractive index of the LC cladd...
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Figure 3: A directional coupler prototype showing power distribution between the output guides.
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Figure 4: Power density distribution in the first three periods (3Lπ) of a 1 × 1 symmetric MMI and a 2 × 2 as...
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Figure 5: The characteristic length of an MMI is nearly constant until the cladding index reaches values clos...
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Figure 6: A number of SU8 PWG MMIs of different lengths prepared at the lab. The substrate is SiO2 on an Si w...
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Figure 7: An MMI with inorganic Si3N4 core and high-birefringence LC cladding does not show variations in cha...
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Figure 8: Two waveguides at short distance interacting through evanescent fields. The interaction is tuned by...
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- Review
- Published 04 Nov 2019
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Figure 1: Simple representation of the structure of SmartLipids. The mixture of structurally very different s...
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Figure 2: Maximum loading reported for SLNs, NLCs and SmartLipids for the dermal active agents retinol [11-13] (left...
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Figure 3: X-ray diffraction patterns of SLNs (pink curve) and SmartLipids mixture (red curve) determined dire...
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Figure 4: Fast degradation of lipophilic active agents (R) in fluid carriers (blue), such as oil/water emulsi...
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Figure 5: Storage study with retinol loaded SmartLipids particles over six months. Remaining retinol content ...
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Figure 6: Left: Nile red-labeled lipid nanoparticle suspension (right arm) and nanoemulsion (left arm) applie...
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Figure 7: Determination of the relative film thickness by measuring the dielectric constant D on skin. Probe ...
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Figure 8: Penetration of curcumin into pig ear skin, vertical pig ear slices, fluorescence microscopy images ...
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Figure 9: Models of cosmetic active agents or drugs (green) incorporated into lipid nanoparticles, from left ...
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Figure 10: Examples of release profiles from lipid nanoparticles: very fast release of cyclosporine within min...
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Figure 11: In vitro release of the sunscreen oxybenzone from a nanoemulsion (grey) and from a SLN suspension (...
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- Review
- Published 04 Nov 2019
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Figure 1: Diamond NV center mediated optomagnetic imaging of brain sample neural activity [72]. Image reproduced ...
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Figure 2: Experimental set-up and characterization of NV centers and the gradient microcoil of [43]. Image reprod...
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Figure 3: Single-cell magnetic imaging quantum diamond microscope [53]. Image reprinted with permission from [53], co...
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Figure 4: NV-NMR detection system schematic of [73]. Image reprinted with permission from [73], copyright 2013, AAAS....
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Figure 5: Experimental setup and magnetometry with repetitive readout [78]. Image reprinted with permission from [78]...
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Figure 6: NV-ensemble sensor for coherently averaged synchronized readout (CASR) NMR. Image reprinted with pe...
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- Full Research Paper
- Published 01 Nov 2019
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Figure 1: Experimental (×) and calculated (—) X-ray powder diffraction patterns of 1-S0 (a) and 2-S2 (b). Pea...
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Figure 2: TEM images (a–c) and HRTEM images (d–f) for 1-S0, 2-S0, and 2-S2.
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Figure 3: The FTIR spectra of 1-S0, 1-S2 and 1-S5 (a); 2-S0, 2-S2 and 2-S5 (b).
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Figure 4: Core-level XP spectra of Ti 2p (a and d), O 1s (b and e) and S 2p (c and f) for 2-S1 and 2-S3. The ...
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Figure 5: Valence-band XPS of 2-S0, 2-S0.5, 2-S1, 2-S3 and 2-S5.
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Figure 6: The UV–vis DRS of 2-S0, 2-S0.5, 2-S1, 2-S3 and 2-S5. The inset is the magnified plot of the UV–vis ...
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Figure 7: The temporal evolution of the UV–Vis spectra during the photodegradation of aqueous MB over the sam...
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Figure 8: Nitrogen adsorption–desorption isotherms of samples 2-S0, 2-S and 2-S5. The inset shows the pore si...
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Figure 9: The PL spectra of 2-S0, 2-S0.5, 2-S2, 2-S3 and 2-S5 using an excitation wavelength of λex = 300 nm.
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Figure 10: ESR spectra of radical adducts trapped by DMPO in 2-S0 (a, e), 2-S2 (b, f), 2-S3 (c, g), and 2-S2 (...
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