BUSCADOR RECOLECTA

Figure S1:- Growth procedure followed to prepare MS and VMS. Figure S2:- Experimental setup. Figure S3:- Structural characterisation. Figure S4:- Morphology Study. Figure S5:- Investigate the optical properties. Figure S6:- Comparison PL spectra of high and low doped VMS. Figure S7:- Polarisation of emitted light. Figure S8:- Defect dependent valley polarisation study. Figure S9:- Schematic of SHEL. Figure S10:- Valley polarisation study from SHEL. Figure S11:- The band calculations., Peer reviewed

The supporting information: Figure S1: Gel permeation chromatograph of the P[St-co-DMAEMA] co-polymer in THF.; Figure S2: Digital photographs of the perovskite nano-crystals solution.; Figure S3: Raman spectra of pristine graphite (grey) and the isolated exfoliated graphene nano-sheets (black) under 514 nm excitation., Peer reviewed

Experimental and characterization details; computation details; XRD, HR-STEM, and STEM–EDS analyses; Raman spectroscopy; DFT band structure of WSSe layers; steady-state optical extinction and absorption; pump–probe optical measurement-TA spectroscopy; FDTD simulations; and absorption and extinction derivative plots., Peer reviewed

Multimedia component 1. The supporting information includes the following: Description of the multilayering approach in the PLD (Fig. S1); STEM-HAADF images and EEL spectra (Figs. S2 and S3); structural, optical, and electrochemical properties of LTO (Fig. S4, Eqs. S1 – S2); spectroscopic Ellipsometry raw data and modeling description using the Bruggeman EMA and optical models based on dispersion formulas (Fig. S5, Eqs. S3 – S4); optical properties of the thin films dependent on the Li2O content (Fig. S6); charge–discharge profiles of the operando experiment (Fig. S7); first charge–discharge profiles of each cut-off voltage series (Fig. S8); thickness and mass calculations (Table S1); and Raman spectroscopy analysis (Table S2)., Peer reviewed

Procedure for tapering Au wires; additional HRTEM image; details of the calculation for the possible dimensions of a coherent domain enabled by large radii of curvature of concentric graphenes; tentative growth scenario for the cone parts; further data on modeling., Peer reviewed

Experimental section including preparation of MoSe2, f-MoSe2, PorMn, and MoSe2–MnP, high-magnification HAADF-STEM images, UV–vis spectra, and electrochemical data., Peer reviewed

Raman measurements; NLO parameters of different concentrations of TMDs; optical limiting measurements at different irradiation wavelengths; Tauc plots; variation of the NLO parameters (β, γ′) with the laser intensity., Peer reviewed

Tables summarizing the Ru NP morphology and size obtained for different experimental conditions; figures showing TEM images, STEM-HAADF images, and high-resolution STEM-HAADF images of Ru NPs; local EDS analyses of Ru icosahedra; high-resolution XPS spectra of Ru NPs in the C 1s and Ru 3d energy range; X-ray photoelectron spectra of Ru NPs; table summarizing the DFT energies of Ru polyhedra of 147 atoms (hcp, ico, cubo); and the link to interactive three-dimensional (3D) models., Peer reviewed

Experimental procedures, protocols for the synthesis of nanoparticles, preparation of membrane electrode assemblies, cyclic voltammetry of NPs, acquisition of diffractograms, NEXAFS measurements under applied potentials, Co L- edge under reduction potentials, O K-edge under reduction and oxidation potentials, HRTEM microscopy of NPs before and after the application of a potential (oxidation or reduction)., Peer reviewed

Additional information on the synthesis of graphene oxide, stability of water dispersions of P3HTNPs–GO using different GO sheet sizes, UV–vis and Raman spectra, AFM/KPFM images of P3HTNPs and P3HT–GO nanohybrids, and cyclic voltammetry results of films of P3HTNPs and P3HTNPs–GO as a function of the scan rate., Peer reviewed