Resultados de investigación

Extra details of the mean-field dynamics of the trimer and an explanatory note on cascaded quantum systems., Peer reviewed

Optimization of heating time in batch synthesis (Figure S1); physical and geometrical parameters adopted for Comsol Multiphysics simulation (Table S1); N2 adsorption analysis (Table S2); reproducibility analysis (Figure S2); TEM and HRSTEM characterization of SBA-15, unsupported Ag NCs, and Ag NCs/SBA-15 with 0.16, 0.62, and 0.96 wt % (Figure S3); leaching test for propargylguanidine cyclization (Figure S4, Table S3, and Figure S5); catalytic reusability and stability study by reaction of 2-(phenylethynyl)phenol (Figure S6); continuous flow reaction and activation energy for 2-(phenylethynyl)phenol cyclization (figure S7); reaction mechanism for hydroamination of propargylguanidines (Scheme S1); general procedure for the synthesis of starting material with corresponding characterization data., Peer reviewed

Crystallographic structure of [Au25(Cys)18], intensity distribution and emission wavelength of white light, time-resolved 1O2 phosphorescence decay of treated silicones, stability test of treated silicones, and comparison of photobactericidal enhancement by [Au25(Cys)18] nanoclusters synthesized through two different synthetic methods., Peer reviewed

In this manuscript, we demonstrate a new approach to develop highly transparent thin films with effective refractive index close to unity that can be easily generalized to create highly performing photonic materials. Central to the procedure herein proposed is the used of sacrificial polymer nanosphere thin films that can be coated by chemical vapor deposition with thin interconnected shells of metal oxides, which gives rise to ultralow refractive index slabs upon removal of the organic template. The method herein presented is compatible with the processing techniques employed for other nanomaterials, which allows us to over-come the challenge of integrating ultralow refractive index materials into more complex photonic architectures. As proofs-of-principle of their potential significance in the field of photonics, we show how to obtain (i) a very thin film acting as a highly diffusive random optical medium, which results from the high refractive index contrast between the air-like refractive index film and spherical scatterers dispersed in it, and (ii) a film loaded with nanophosphors displaying enhanced photoluminescence out-coupling, as a result of the reduced light guiding losses achieved by the low dielectric contrast between the host of the emitters and the surrounding environment., This project received funding from the Spanish Ministry of Science and Innovation under grant PID2020-116593RB-I00, funded by MCIN/AEI/10.13039/501100011033, the Junta de Andalucía under grant P18-RT-2291 (FEDER/UE), and the European Research Council (ERC) under the European Union’s Horizon 2020 Research and Innovation Programme (NANO-PHOM, grant agreement no. 715832)., Figure 2: - Data_2d_RT_exp_1cy.txt - Data_2d_RT_exp_2cy.txt - Data_2d_RT_exp_3cy.txt - Data_2d_RT_the_1cy.txt - Data_2d_RT_the_2cy.txt - Data_2d_RT_the_3cy.txt - Data_2e_nk_1cy.txt - Data_2e_nk_2cy.txt - Data_2e_nk_3cy.txt - Data_2f_1cy.txt - Data_2f_2cy.txt - Data_2f_3cy.txt - Data_2f_glass.txt Figure 3: - Data_3d_r_146nm.txt - Data_3d_r_188nm.txt - Data_3d_r_225nm.txt - Data_3d_r_250nm.txt - Data_3e_r_146nm.txt - Data_3e_r_146nm_air.txt - Data_3e_r_188nm.txt - Data_3e_r_188nm_air.txt - Data_3e_r_225nm.txt - Data_3e_r_225nm_air.txt - Data_3e_r_250nm.txt - Data_3e_r_250nm_air.txt Figure 4: - Data_4c_corrected_PL.txt - Data_4d_theoretical_outcouplig_versus_refractive_index.txt, Peer reviewed

Additional STEM images with different magnifications and additional snapshots and analysis of the simulation set Sim1 (PDF). Movie S1: Formation and stabilization of the core–satellite structure with single-layer water molecules (MP4). Movie S2: Rotational motion that causes the separation of core and satellites (MP4). Movie S3: Rotational motion that causes the separation of the two big NPs (MP4)., Peer reviewed

Fabrication of μ-preconcentrators (Section S1), experimental setup for the electrochemical synthesis on Cu-modified glass substrates (Section S2), breakthrough testing of functional preconcentrators (Section S3), experimental setup for preconcentration factor determination (Section S4), and morphologies of the structures used for Monte Carlo simulations (Section S5)., Peer reviewed

Examples of stress–strain curves for (A) PCL nanofibers and (B) THY-loaded PCL nanofibers. Kinetic release models and parameters obtained., Peer reviewed

This document contains the Supplementary Material to the article published under the same name. We outline the derivation of the Hamiltonian in the main text from first principles. During this process we also derive the general Hamiltonian for all cavity modes (including non-resonant terms) which could be useful for future investigations. We show how the inclusion of only the fundamental mode l = (0, 1, 1) is valid for the parameters considered in the main text. Finally we extend the model to include image dipoles, and show that the omission of these and nonresonant terms was valid in the main text., Peer reviewed

-(Figure S1) Thermographic image of a free-standing rectangular-shaped LCE strip (90 μm thick) with uniaxial orientation and (50 mW/cm2 illumination) (Figure S2) photoresponse of a dog bone-shaped LCE strip with uniaxial orientation under a sequence of ten pulses (50 mW/cm2illumination) (PDF). -(Movie S1) Light actuation of a rectangular LCE strip (90 μm thick) with uniaxial orientation (50 mW/cm2 illumination) (AVI). -(Movie S2) Light actuation of a rectangular LCE strip (90 μm thick) with uniaxial orientation (200 mW/cm2 illumination) (AVI)., Peer reviewed

Additional file 1. Additional file regarding the complete atomic composition of the nanoparticles and the chemical environment of the C present in the NPs is included. Moreover, in the Additional file it is also shown a scheme of the functionalization process performed with the EDC-NHS linker and the CD9 antibody binding. Figure S1.. Hysteresis loop measured at 300 K for the Fe3O4–EDC-NHS-NPs. The NPs show superparamagnetic properties at room temperature. Figure S2.. A) Complete atomic percentage of Fe3O4NPs and Fe3O4–EDC-NHS-NPs during 30 days after their synthesis. B) Study of the atomic environment of the C present in the NPs. Figure S3.. A) NTA of control exosomes and B) DLS of magnetic nanoparticles employed for the exosome capture. Figure S4.. A) Scheme of the functionalization of the MNPs with the EDC-NHS linker, followed by the CD9 antibody binding., Peer reviewed