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The figure consists of two comparative bar charts (labeled A and B) showing bacterial family composition, with the x-axis labeled “Bacterial families” and the y-axis labeled “Abundance (Reads)” on a logarithmic scale with tick marks at 1, 10, 100, 1000, 10000, and 100000. Each panel displays 14 gray bars, one per famil... | The figure consists of two bar charts (A and B) comparing bacterial family abundances based on read counts. Both plots have a logarithmic y-axis labeled “Abundance (Reads)” spanning 1 to 1,000,000, and an x-axis labeled “Bacterial families” listing specific families. Panel A shows the distribution for one group, with M... | The figure comprises two logarithmic bar charts (labeled A and B) showing bacterial family composition, with the y-axis labeled “Abundance (Reads)” (ticks at 1, 10, 100, 1000, 10000, 100000, 1000000) and the x-axis labeled “Bacterial families.” In panel A, bars (left to right) correspond to Mycoplasmataceae, Flavobacte... | |
The figure comprises two quantitative plots. Panel A displays force–distance measurements with a corrected separation axis: the y-axis is Force (nN) and the x-axis is D + Rq (nm). Multiple datasets, identified in the legend by surface roughness Rq (5, 10, 14, 17, 19, 20, 21, 22, and 26 nm), are shown as colored markers... | The figure presents two quantitative plots related to electrostatic double-layer interactions measured on nanostructured TiO2 (ns‑TiO2) surfaces. Panel A is a force–distance graph showing average interaction forces (y-axis: Force [nN], ranging approximately from −0.05 to 0.35 nN) as a function of corrected separation (... | The figure presents two scientific plots. A: Force–distance curves measured at nanostructured TiO2 (ns‑TiO2) surfaces, with the horizontal axis labeled “D + Rq (nm)” spanning approximately 20–100 nm and the vertical axis labeled “Force (nN)” ranging from about −0.05 to 0.30 nN. Nine datasets are shown with scatter poin... | |
The figure is a schematic diagram illustrating the synthesis and microstructure of a composite solid electrolyte. At the top left, chemical structures labeled “s@LLAZO nanofiber” and “PEGDA” are shown with red arrows pointing to reactive vinyl groups. An arrow labeled “AIBN (0.1 wt.%) Initiator,” “LiTFSI ([EO]/[Li+]=12... | The figure is a schematic diagram illustrating the synthesis and structure of a composite solid electrolyte and its application in an all‑solid‑state Li‑ion battery. At the upper left, chemical structures labeled “s@LLAZO nanofiber” and “PEGDA” are shown, with red arrows indicating reactive vinyl groups (–CH2=CH–). An ... | This figure is a schematic/chemical reaction diagram illustrating the fabrication and structure of a composite solid electrolyte. At the top left, “s@LLAZO nanofiber” and “PEGDA” monomer structures are shown with red arrows marking reactive vinyl/acrylate groups. A horizontal reaction arrow specifies the conditions “AI... | |
The figure combines microscopy, spectroscopy, electrochemical, and mechanical data. Panels (a–e) are TEM images (each with a 5 nm scale bar) of nanofibers: (a,b) show sharp crystalline lattice fringes at the fiber edge, while (c–e) display a core–shell morphology highlighted by red dashed lines, with a crystalline core... | Composite multipanel figure combining microscopy, spectroscopy, transport, and mechanical data. Panels (a–e) are high‑resolution TEM images (each with a 5 nm scale bar) of nanofibers labeled LLAZO (a) and silane‑modified s@LLAZO treated for 3 h (b), 6 h (c), 12 h (d), and 24 h (e); the images show crystalline lattices ... | Multi-panel figure combining TEM, XPS, transport, and mechanical data. Panels (a–e) are high‑resolution TEM images of nanofibers (each with a 5 nm scale bar): (a) shows a clean, sharp crystalline edge; (b) a uniform surface; (c–e) display a lighter-contrast amorphous shell delineated by red dashed lines along the fiber... | |
Composite multipanel figure combining a photograph and electrochemical plots. (a) Digital image showing an off‑white, flexible solid electrolyte membrane (s@LLAZO(6h)‑50PEGDA) bent while held by tweezers against a patterned background. (b) Linear sweep voltammetry: Current (mA) vs Potential (V vs Li/Li+) from 3.0 to 5.... | Composite multipanel figure combining a photographic image and electrochemical plots. (a) Digital photograph of a freestanding, flexible solid electrolyte membrane labeled s@LLAZO(6h)-50PEGDA, shown bent with tweezers over a patterned background, indicating uniform, opaque white film form. (b) Linear sweep voltammetry ... | This is a four‑panel figure comprising a photograph and three electrochemical plots. (a) Digital image of a flexible, freestanding white membrane strip held by tweezers; the strip is bent without cracking. (b) Linear sweep voltammetry: Current (mA) vs Potential (V vs Li/Li+), 3.0–5.5 V. Three traces are labeled in the ... | |
The figure comprises six electrochemical performance plots. (a) Nyquist electrochemical impedance spectra (EIS) at 25 °C for three composite solid electrolytes, plotted as −Z'' (Ω cm^2) versus Z' (Ω cm^2) up to ~800 Ω cm^2, with legends s@LLAZO(6h)-70PEGDA (red circles), s@LLAZO(6h)-50PEGDA (blue squares), and s@LLAZO(... | The figure comprises six electrochemical data panels for lithium cells. (a) Nyquist impedance plots (−Z″ vs Z′, units Ω cm²) at 25 °C compare three solid electrolytes: s@LLAZO(6h)-70PEGDA (red circles), s@LLAZO(6h)-50PEGDA (blue squares), and s@LLAZO(6h)-30PEGDA (green triangles). All show a high-frequency partial semi... | The figure presents multi-panel electrochemical data for all-solid-state cells. (a) Nyquist EIS plots at 25 °C (−Z'' vs Z', units Ω cm^2) compare s@LLAZO(6h)-70PEGDA (red circles), s@LLAZO(6h)-50PEGDA (blue squares), and s@LLAZO(6h)-30PEGDA (green triangles), showing semicircles of increasing diameter from 70 to 30 PEG... | |
The figure is a schematic workflow diagram for dynamic light scattering microrheology. It comprises three stages labeled at the top: “Mix tracer particles,” “Perform DLS,” and “Extract rheological properties.” In the first stage, “Tracer particles (<0.5% w/v)” are combined with a “Polymer solution or gel precursor” and... | Schematic workflow diagram for microrheology by dynamic light scattering (DLS). The left panel shows sample preparation: tracer particles labeled “< 0.5% w/v” are mixed with a “Polymer solution or gel precursor” and loaded into a “Low volume (12 μL) cuvette.” The central panel depicts measurement: a benchtop instrument... | The figure is a schematic workflow diagram for dynamic light scattering microrheology. It shows three stages: (1) “Mix tracer particles,” where tracer particles (<0.5% w/v) are combined with a “Polymer solution or gel precursor” and loaded into a “Low volume (12 μL) cuvette”; (2) “Perform DLS,” depicting a benchtop DLS... | |
The figure combines a log–log rheological plot and displacement/trajectory maps. Top: a double-logarithmic graph of the magnitude of the shear modulus, |G*| (Pa), versus angular frequency, ω (s^-1), comparing “micro” (red circles) and “macro” (blue circles) measurements across series labeled 3%, 4%, 5%, and 10%. The x-... | The figure combines a log–log rheological plot and tracer trajectory visualizations. Top panel: a scatter plot of the magnitude of shear modulus |G*| (Pa) versus angular frequency ω (s⁻¹), with the y-axis spanning 10⁰ to 10⁵ Pa and the x-axis spanning 10⁻¹ to 10⁶ s⁻¹. Four horizontally separated data bands correspond t... | The figure combines a rheology plot and particle-displacement maps. Top: a log–log plot of the magnitude of the shear modulus |G*| (Pa) versus angular frequency ω (s^-1), with |G*| spanning 10^0–10^5 Pa on the y-axis and ω spanning 10^-1–10^6 s^-1 on the x-axis. Data are shown for four gel formulations annotated “3%,” ... | |
The figure combines a frequency-dependent rheology plot with schematic illustrations to depict distinct relaxation regimes. Top: a log–log plot of the complex shear modulus (y-axis: “G* − iηω (Pa)”, 10^−2 to 10^4 Pa) versus angular frequency (x-axis: “ω (s^−1)”, 10^0 to 10^6 s^−1) shows red filled circles for G′ and re... | The figure combines a log–log rheological plot and illustrative schematics. Top panel: a viscoelastic frequency sweep showing complex shear modulus G* = G′ − iωη (units: Pa) versus angular frequency ω (s−1) for a semidilute DNA solution. The vertical axis spans 10−2 to 104 Pa; the horizontal axis spans 100 to 106 s−1. ... | The figure combines a log–log rheology plot with schematic illustrations to depict frequency-dependent viscoelastic behavior. Top panel: The vertical axis is labeled G* − iηω (Pa) spanning 10^−2 to 10^4 Pa, and the horizontal axis is angular frequency ω (s^−1) spanning 10^0 to 10^6 s^−1. Three frequency regions are ind... | |
The figure is a multi-panel composite comprising rheological spectra, schematic cartoons, and fluorescence micrographs. Top-left: a log–log plot of complex shear modulus G* (Pa) versus angular frequency ω (s⁻¹) for intestinal mucus, with red and blue solid curves for G′ and G″, respectively, each with semi-transparent ... | The figure comprises two logarithmic rheological plots, schematic cartoons, and confocal micrographs. Top left is a log–log plot of complex shear modulus G* (Pa) versus angular frequency ω (s⁻¹) for intestinal mucus from healthy mice, with G′ (red) and G″ (blue) shown as mean curves with shaded confidence bands. The y-... | The figure combines rheological spectra, schematics, and fluorescence micrographs. Top left: a log–log plot of the complex shear modulus versus angular frequency for intestinal mucus, with the y axis labeled G* (Pa) spanning 10^0–10^3 and the x axis labeled ω (s^-1) spanning 10^-1–10^5. Red and blue curves show the sto... |
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