Resultados de investigación

Peer reviewed

Peer reviewed

6 pages. -- Figure S1: Final aspect of the as-prepared ionogels pictures. -- Figure S2: Differencial scanning calorimetry thermogram (DSC) of the EMIMP/CNFc mixtures (99:1, 98:2, 97:3 and 96:4). Pristine CNFc and EMIMP were added for comparison purposes. -- Figure S3: Rheological results at room temperature vs. time of the EMIMP/CNFc mixtures (99:1, 98:2, 97:3 and 96:4). Pristine CNFc and EMIMP are added for comparison purposes. -- Figure S4: Current (µA) vs. time for supercapacitors with EMIMP and EMIMP/CNFc (99:1, 98:2, 97:3 and 96:4) as electrolytes for a period of 24h. -- Figure S5. The capacity variation with the cycles and for supercapacitors with EMIMP and EM-IMP/CNFc (99:1, 98:2, 97:3 and 96:4) as electrolytes. -- Figure S6: Galvanostatic charge-discharge curve of EMIMP and ionogels with different ratio of CNFc at i = 1 mA cm−2. -- Figure S7. (a) Real part of the capacitance vs Frequency and (b) Imaginary part of the capacitance versus Frequencies of EMIMP and ionogels with different ratio of CNFc. -- Table S1: Temperature decomposition for each EMIMP/CNFc mixtures (99:1, 98:2, 97:3 and 96:4) mixtures, obtained from differential scanning calorimetry thermograms (DSC). Pristine CNFc and EMIMP temperatures are also added. -- Table S2: Summary of the key performance parameters on different current density such as specific capacitance, ESR, Emax and Pmax; Table S3: Summary of the key performance parameters on different current density such as specific capacitance and ESR of EMIMP/CMC vs EMIMP/CNFc 99:1; Table S4: Summary of specific capacitance of EMIMP and ionogels with different ratio of CNFc at 10 mV s−1 and 50 mV s−1. scan rate for CV., Peer reviewed

15 pages. -- Figure S1: Characterisation data of liposomal formulations used in the study. Figure S2: Assessment of the behaviour function, histological brain changes and weight loss at different time points following induction of ICH model by collagenase injection. -- Figure S3: Histological analysis of brain tissues of ICH mice at different time points after ICH without injection of DiI-Lp confirmed that minimum autofluorescence signal (yellow signal) was detected in the injury site due to the presence of RBCs in the brain and tissue damage.-- Figure S4: Representative confocal images of (A) ipsilateral and (B) contralateral side of brain tissues after ICH, suggested enhanced Cav1 positive area 3-5 h after ICH (indicated by white arrows) and showed a clear co-localisation with DiI-Lp positive areas. (C) quantification of Cav1 and (D) DiI-Lp positive areas showed a significant increase 3-5 h after ICH which suggest a role of transcytotic transport in the accumulation of liposomes into the lesion site after ICH. -- Figure S5: Representative widefield overview images were obtained at x40 magnification without oil utilising Leica Thunder imager microscope. -- Figure S6 Histological analysis of iron deposition in the n after ICH using H&E and Prussian Blue stain on two different coordinates from the bregma; -0.58 (A&C) and -0.122 (B&D) both in the lesion core (A-B) and lesion rim (C-D). -- Figure S7: Evaluation of DiI-Lp co-localisation with microglia and astrocytes.. -- Figure S8: representative image analysis using Imaris software. -- Supplementary Table 1. Details of MRI scan time points for each mouse.. -- Graphical abstract and schematic graphes were performed using Biorender., Peer reviewed

General information for the Experimental Section, structural analysis, and NMR spectra., Peer reviewed

7 pages. -- Figure S1: Sample preparation. -- Figure S2: IR spectra second derivative and pc loading of EVOO, pomace, corn, and soy-nut oils. -- Figure S3: Photoluminescence of EVOO adulterated with different concentrations of: (a) corn, (b) soy-nut blend, (c) high oleic sunflower, (d) sunflower oils, and (e) olive-pomace oils. -- Figure S4: Normalized Raman spectra of EVOO adulterated with different concentrations of: (a) ol-ive-pomace, (b) soy-nut blend, and (c) corn oils. -- Figure S5: Normalized Raman spectra of EVOO measured directly from its package. -- Figure S6: 2DCOS map of pure EVOO. -- Table S1: Schematic representation of FTIR dataset for PCA. -- Table S2: Acid content of the studied edible oils., ICN2 is supported by the Severo Ochoa program from the Spanish Research Agency (AEI, grant no. SEV-2017-0706) and by the CERCA Programme/Generalitat de Catalunya., Peer reviewed

Experimental details, crystallographic data, theoretical studies, NMR and IR spectra, and deuteration and kinetic experiments (PDF). Cartesian coordinates of the optimized structures (XYZ)., Peer reviewed

General information, crystallographic data, computational details, and NMR spectra (PDF). Cartesian coordinates of calculated structures (XYZ)., Peer reviewed

The Supplementary Material provides the details for the Hamiltonian transformation, the numerical methods, and the supplementary figures for phase diagrams, barrier height, and conductance., Peer reviewed

See the supplementary material for M–H loops after long-term storage of the nitride films (Fig. S1), extra MFM characterization (Fig. S2), and a movie (Fig. S3) of MFM imaging showing the evolution of magnetic domains as a function of an applied field for patterned Co3O4., Peer reviewed