BUSCADOR RECOLECTA

2 files.-- Supplementary files for https://doi.org/10.1080/10871209.2024.2423924, Recreational hunting, particularly trophy big game hunting, significantly influences large territories and demands specific wildlife management measures. The pursuit of maximum hunter satisfaction can compromise species conservation. Is key to identify the factors that drive the satisfaction of recreational trophy hunters. We investigated the factors influencing recreational trophy hunters' satisfaction in Southern Spain. We attended 20 dog-driven Iberian red deer hunts, collecting geographical and biometrical data from 556 hunted specimens and conducting 159 face-to-face surveys with hunters. Based on partial least-square path models, we found that overall satisfaction was positively correlated with achievement, appreciation, and service dimensions. Contextual variables, including hunters' experience, hunting scenarios, and individual and group hunting bags, showed different effects on these satisfaction dimensions. Several dimensions of hunters' satisfaction were affected by management decisions, which may have implications for conservation within our study system and broader implications for natural game management versus canned hunt practices, Peer reviewed

Custom code and supporting data for manuscript: "Global meta-analysis shows action is needed to halt genetic diversity loss", Peer reviewed

Peer reviewed

Ministry of Science, Innovation and Universities (MICINN) of Spain, Peer reviewed

Peer reviewed

A) Results from stochastic simulations showing the conjugation frequency (T/D, y axis) against time (min, x axis) obtained at different cellular densities (D). Shadowed areas correspond to 1 and 2 generation times. B) Comparison between computational simulations (dots) and theoretical predictions (lines) for the conjugation frequency (x axis, T/D) obtained at different cellular densities (x axis), at different generation times (legend). The normalized estimation error obtained at different generation times is shown in the inner graph. The normalized estimation error was measured as the difference between the conjugation frequency computed and estimated, divided by the average of the two. C) Effect of growth differences between donor and transconjugant cells on the estimation of the conjugation frequency. Computed (dots) and predicted (line) conjugation frequencies (x axis, T/D) obtained at different cell concentrations (x axis), when the transconjugants experience a growth deficit with respect to the donor cells indicated in the legend. As shown in the figure, a significant deviation from the estimated values was observed only for growth deficits >50%., Peer reviewed

Additional file 1. Histopathology and parasite DNA detection and quantification in the small intestine., Ministerio de Ciencia e Innovación; Comunidad de Madrid; H2020 European Institute of Innovation and Technology, Peer reviewed

This repository contains the necessary run files, input data, and output files required to reproduce the simulations and results presented in the paper titled "Offline Fennel: A High-Performance and Computationally Efficient Biogeochemical Model within the Regional Ocean Modeling System (ROMS)" - implementation in the Northern Gulf of Mexico. These resources facilitate the replication of the model's performance and results, enabling further research and validation of the findings, With the institutional support of the ‘Severo Ochoa Centre of Excellence’ accreditation (CEX2019-000928-S), Peer reviewed

Dataset on accuracies of the working review paper on costs and accuracies associated with using proximal soil sensing for high-resolution soil mapping. The RMSE data and related information were extracted from around 200 articles (references are included). This dataset is associated with the following DOI: https://doi.org/10.5281/zenodo.14035520, European Commission: EJP SOIL - Towards climate-smart sustainable management of agricultural soils 862695, Peer reviewed

Tailoring the unique delayed and long-lasting luminescence of persistent phosphors is crucial for their application in anti-counterfeiting, data storage, imaging displays, and AC-driven lighting. We introduce a novel strategy to achieve this by modifying the refractive index of persistent phosphor transparent coatings. Specifically, we developed ZnGa2O4:Cr3+/SiO2 nanocomposite films with tunable refractive indices from 1.45 to 1.7. This tunability allowed us to precisely control the Cr3+ radiative decay rate, resulting in a substantial 1.7-fold increase in both luminescence and afterglow brightness. Furthermore, our approach uniquely influences the intrinsic charging rate of the phosphor, a mechanism attributed to the strain induced on the ZnGa2O4:Cr3+ nanocrystals by the presence of SiO2. This work demonstrates an unprecedent ability to manipulate the afterglow kinetics without altering the material composition, opening new avenues for designing and optimizing persistent luminescence materials., This project has received funding from the BBVA Foundation Leonardo Grant for Physics Researchers 2023, and by the Spanish Ministry of Science, Innovation and Universities under Grant EUR2023-143467 funded by MICIU/AEI/ 10.13039/501100011033 and by the European Union NextGenerationEU/PRTR, and Grant PID2024-161708OB-I00 funded by MICIU/AEI/ 10.13039/501100011033. V.C. acknowledges Junta de Andalucía for financial support (POSTDOC_21_00694). MR acknowledges the grant FPU23/01435 funded by MCIN/AEI/10.13039/501100011033., Peer reviewed, File List: - Fig1b_ParticleDiameter.txt : Number of particles (column 1), ZnGa2O4:Cr3+ particle diameter (column 2) and SiO2 particle diameter (column 3). - Fig1i_XRD.txt : 2 theta (º, column 1), normalized XRD reflection intensity of 100:0 1000 °C (column 2), 100:0 800 °C (column 3), 50:50 1000 °C (column 4), 50:50 800 °C (column 5). - Fig1j_Strain.txt : SiO2 content (%, column 1), Strain 404 of 1000 °C samples (column 2), Strain 404 of 800 °C samples (column 3), cubic lattice parameter relative variation of 1000 °C samples (column 4), cubic lattice parameter relative variation of 800 °C samples (column 5). - Fig2a_RefractiveIndex_GradMZGO.txt : SiO2 content (%, column 1), effective refractive index of 1000 °C sample (column 2), effective refractive index of 800 °C sample (column 3), calculated product of the radiative decay rate and the quantity of ZGO for samples calcined at 1000 °C (column 4), measured product of the radiative decay rate and the quantity of ZGO for samples calcined at 1000 °C (column 5) and calculated product of the radiative decay rate and the quantity of ZGO for samples calcined at 800 °C (column 6). - Fig2c_Lum.txt : Wavelength (nm, column 1), normalized Lum intensity of reference 100:0 1000 °C sample (column 2), normalized Lum intensity of 90:10 1000 °C sample (column 3), normalized Lum intensity of 100:0 800 °C sample (column 4), normalized Lum intensity of 90:10 800 °C sample (column 5). - Fig2d_LumEnhancement.txt : SiO2 content (%, column 1), Lum enhancement of 1000 °C samples (column 2), standard deviation of Lum enhancement of 1000 °C samples (column 3) and Lum enhancement of 800 °C samples (column 4). - Fig3a_PersL.txt : Wavelength (nm, column 1), normalized PersL intensity of reference 100:0 1000 °C sample (column 2), normalized PersL intensity of 90:10 1000 °C sample (column 3), normalized PersL intensity of 100:0 800 °C sample (column 4), normalized PersL intensity of 90:10 800 °C sample (column 5). - Fig3b_PersLEnhancement.txt : SiO2 content (%, column 1), PersL enhancement of 1000 °C samples (column 2), standard deviation of PersL enhancement of 1000 °C samples (column 3), PersL enhancement of 800 °C samples (column 4), standard deviation of PersL enhancement of 800 °C samples (column 5). - Fig4b_Kinetics_800°C.txt : Time (s, column 1), measured normalized PersL intensity of 100:0 800 °C sample (column 2), fitted normalized PersL intensity of 100:0 800 °C sample (column 3), measured normalized PersL intensity of 90:10 800 °C sample (column 4), fitted normalized PersL intensity of 90:10 800 °C sample (column 5), measured normalized PersL intensity of 80:20 800 °C sample (column 6), fitted normalized PersL intensity of 80:20 800 °C sample (column 7), measured normalized PersL intensity of 70:30 800 °C sample (column 8) and fitted normalized PersL intensity of 70:30 800 °C sample (column 9). - Fig4c_Kinetics_1000°C.txt : Time (s, column 1), measured normalized PersL intensity of 100:0 1000 °C sample (column 2), fitted normalized PersL intensity of 100:0 1000 °C sample (column 3), measured normalized PersL intensity of 90:10 1000 °C sample (column 4), fitted normalized PersL intensity of 90:10 1000 °C sample (column 5), measured normalized PersL intensity of 80:20 1000 °C sample (column 6), fitted normalized PersL intensity of 80:20 1000 °C sample (column 7), measured normalized PersL intensity of 70:30 1000 °C sample (column 8) and fitted normalized PersL intensity of 70:30 1000 °C sample (column 9). - Fig4d_BrightnessFactor_TrappingStrength_800°C.txt : SiO2 content (%, column 1), trapping strength parameter omega of 800 °C samples (column 2), brightness factor MZGO*Grad/Gtot of 800 °C samples (column 3) and standard deviation of brightness factor MZGO*Grad/Gtot of 800 °C samples (column 4). - Fig4e_BrightnessFactor_TrappingStrength_1000°C.txt : SiO2 content (%, column 1), trapping strength parameter omega of 1000 °C samples (column 2), standard deviation of trapping strength parameter omega of 1000 °C samples (column 3), brightness factor MZGO*Grad/Gtot of 1000 °C samples (column 4) and standard deviation of brightness factor MZGO*Grad/Gtot of 1000 °C samples (column 5). - Fig_S3a.txt : Ellipsometry spectra and fitting of ZGO:Cr film annealed at 1000 °C. Measurements were performed for the following incident angles: 50º,55º,60º,65º,70º. Wavelength in nm (column 1), delta in º (columns 2-6), psi in º (columns 7-11), fitted delta in º (columns 12-16), fitted psi in º (columns 17-21). - Fig_S3b.txt : Ellipsometry spectra and fittings of 90:10 composite film annealed at 1000 °C. Measurements were performed for the following incident angles: 50º,55º,60º,65º,70º. Wavelength in nm (column 1), delta in º (columns 2-6), psi in º (columns 7-11), fitted delta in º (columns 12-16), fitted psi in º (columns 17-21). - Fig_S3c.txt : Ellipsometry spectra and fittings of 80:20 composite film annealed at 1000 °C. Measurements were performed for the following incident angles: 50º,55º,60º,65º,70º. Wavelength in nm (column 1), delta in º (columns 2-6), psi in º (columns 7-11), fitted delta in º (columns 12-16), fitted psi in º (columns 17-21). - Fig_S3d.txt : Ellipsometry spectra and fittings of 70:30 composite film annealed at 1000 °C. Measurements were performed for the following incident angles: 50º,55º,60º,65º,70º. Wavelength in nm (column 1), delta in º (columns 2-6), psi in º (columns 7-11), fitted delta in º (columns 12-16), fitted psi in º (columns 17-21). - Fig_S3e.txt : Ellipsometry spectra and fittings of 60:40 composite film annealed at 1000 °C. Measurements were performed for the following incident angles: 50º,55º,60º,65º,70º. Wavelength in nm (column 1), delta in º (columns 2-6), psi in º (columns 7-11), fitted delta in º (columns 12-16), fitted psi in º (columns 17-21). - Fig_S3f.txt : Ellipsometry spectra and fittings of 50:50 composite film annealed at 1000 °C. Measurements were performed for the following incident angles: 50º,55º,60º,65º,70º. Wavelength in nm (column 1), delta in º (columns 2-6), psi in º (columns 7-11), fitted delta in º (columns 12-16), fitted psi in º (columns 17-21). - Fig_4a.txt : Transmission and reflection spectra and fittings of ZGO:Cr film annealed at 800 °C. Measurements were performed for the following incident angles: 6º,30º,50º. Wavelength in nm (column 1), reglectance R (columns 2-4), transmittance (columns 5-7), fitted reflectance (columns 8-10), fitted transmittance (columns 11-13). - Fig_4b.txt : Transmission and reflection spectra and fittings of 80:20 composite film annealed at 800 °C. Measurements were performed for the following incident angles: 6º,30º,50º. Wavelength in nm (column 1), reglectance R (columns 2-4), transmittance (columns 5-7), fitted reflectance (columns 8-10), fitted transmittance (columns 11-13). - Fig_4c.txt : Transmission and reflection spectra and fittings of 50:50 composite film annealed at 800 °C. Measurements were performed for the following incident angles: 6º,30º,50º. Wavelength in nm (column 1), reglectance R (columns 2-4), transmittance (columns 5-7), fitted reflectance (columns 8-10), fitted transmittance (columns 11-13).