BUSCADOR RECOLECTA

Details on α-MoO3 THz permittivity data, additional measurements at all mentioned frequencies, details on data processing, the extraction of HPhP confinements and quality factors from line profiles, and an overview of extracted properties as well as a remark on the influence of sample thickness, sample preparation, and FEL and setup parameters., Peer reviewed

Additional file 1: Fig. 1. Negative IHC staining for a CDX2 methylated tumor (upper); positive tumor corresponding to an unmethylated CDX2 tumor (lower) in TMA sections (magnification: x400). Additional file 2: Fig. 2. Inhibition of ZEB1 expression in RKO cells by shRNAs_ZEB1_1 and _3. Knockdown efficiency in control and silenced cells was also checked by qRT-PCR (absolute values: 2−ΔCt). (*p<0.05; **p<0.01; ***p<0.001). Additional file 3: Fig. 3. Kaplan–Meier plots for disease-free survival (A) and overall survival (B) stratified by ZEB1 promoter hypermethylation status in the CMS2/3 group of patients. Additional file 4: Fig. 4. Kaplan–Meier Curves for A disease-free survival (DFS) and B overall survival (OS) stratified by CDX2 hypermethylation status; C DFS and D OS stratified by FRMD6 hypomethylation status. Additional file 5: Table 1. Antibodies used for the immunohistochemical analysis. Table 2. Primers and conditions used for bisulfite PCR and pyrosequencing. Table 3. Sequences of shRNAs used for ZEB1 silencing, Peer reviewed

A collection of 1200 pairs of technical and simplified sentences in two versions: - Syntactically simplified sentences. - Sentences with syntactic and lexical simplification. This is a benchmark for medical text simplification in Spanish., The data can be reproduced (partially or totally), as long as the source is provided. - The data come from EudraCT: We attribute the source as "EU Clinical Trials Register" in the publication or distribution of these data, and clearly state that the latest access to these data was June 2023 from https://www.clinicaltrialsregister.eu The European Medicines Agency, according to current European Union and international legislation, is the owner of copyright and other intellectual property rights for documents and other content published on its website. Information and documents made available on the Agency's webpages are public and may be reproduced and/or distributed, totally or in part, irrespective of the means and/or the formats used, for non-commercial and commercial purposes, provided that the Agency is always acknowledged as the source of the material. Such acknowledgement must be included in each copy of the material. For further information, please, see: https://www.ema.europa.eu/en/about-us/legal-notice - Some parts of the data come from CIMA/AEMPS: The copyright of the contents belongs to Centro de Información de Medicamentos (CIMA, 'Medicine Online Information Center'), from the Agencia Española de Medicamentos y Productos Sanitarios (AEMPS). The latest access to the data was June 2023 from https://cima.aemps.es. Note that CIMA updates its contents regularly, and the data in the CLARA-MeD corpus might not be updated according to the version of the online contents., This dataset contains 1200 manually simplified sentences (144 019 tokens) from clinical trials in Spanish. A total of 1040 announcements from the European Clinical Trials Register (EudraCT) were analyzed to select sentences with ambiguities or exceeding 25 words. Simplification criteria were devised in an annotation guideline, which is released publicly along the dataset., This resource was collected in the CLARA-MeD project, with the goal of simplifying medical texts in the Spanish language and reduce the language barrier to patient's informed decision making. In particular, the project aims at developing linguistic resources for automatic medical term simplification in Spanish; and conducting experiments in automatic text simplification., This dataset was collected in the CLARA-MeD project (PID2020- 116001RA-C33), with funding from the Spanish government by MCIN/AEI/10.13039/501100011033/, in project call: “Proyectos I+D+i Retos Investigación”., - TSV file with the following fields: 1) File ID: EudraCT code. 2) Source: specialized sentence. 3) Syntactic simplification: a simplified sentence with syntax-level operations. 4) Syntactic and lexical simplification: a fully simplified sentence. - Simplification guideline with linguistic criteria., Peer reviewed

Detailed synthesis, DLS analysis, FT-IR spectra, FE-SEM data and images, nitrogen adsorption–desorption isotherms, optical images, optical reflectance spectra, TGA analysis, and PXRD diffractograms., Peer reviewed

RHEED patterns; XPS spectra; FDTR sensitivity analysis; FDTR experimental data; Raman experimental data; tight-binding phonon calculations; experimental and computational methods., Peer reviewed

Distribution of G peak position across the suspended film, effect of porosity on thermal conductivity, thickness of the CNT networks, and optical and thermal properties of CNT networks., Peer reviewed

S1. Unit cells and crystal structure parameters of InSb, InAsSb, InAs, α-Sn, and β-Sn; S2. InSb–Sn morphology and EELS map; S3. FIB- or ALD-induced damage during cross-section preparation; S4. InSb–Sn: β-Sn grain formation within α-Sn shell; S5. Temperature effect on the hybrid structure; S6. InSb–Sn grown at room temperature; S7. InSb–Sn grown at sample holder temperature −50 °C; S8. InSb–Sn grown at sample holder temperature −100 °C; S9. InSb–Sn grown at sample holder temperature −150 °C; S10. Additional HRTEM micrographs of 3 nm Sn on InSb NW; S11. Defect formation and initial β-Sn nucleation in a 5 nm Sn shell on an InSb NW; S12. Additional micrographs of a 40 nm Sn shell on an InSb NW; S13. Thermal stability of the α-β-Sn/InSb heterostructure; S14. Additional SEM images of InAsSb–Sn morphology; S15. Additional structural analysis of InAsSb/Sn; S16. Structural analysis of InAs/Sn NWs; S17. β-Sn phase analysis on an InAs NW; S18. Grain boundary within β-Sn on InAs facets; S19. Additional β-Sn analysis on am InAs NW; S20. Additional β-Sn orientations on an InAs NW; S21. InSb–InAs(2 nm)–Sn; S22; Summary of 3D models of the α-β/InX configuration; S23. Growth parameters of the fabricated devices; S24. Additional device measurement., Peer reviewed

In this dataset, one can find all the input files, and some key output files, for the first-principles density functional theory (DFT) calculations performed for the article entitled "Facet-engineered TiO2 drives photocatalytic activity and stability of supported noble metal clusters during H2 evolution", which has been authored by: Yufen Chen, Lluís Soler, Claudio Cazorla, Jana Oliveras, Neus. G. Bastús, Víctor Puntes, and Jordi Llorca., Some of the atomic structure files (POSCAR) were generated with the assistance of the VESTA (https://jp-minerals.org/vesta/en/) and VASPKIT (https://vaspkit.com/) softwares. The rest of input files were generated by hand with some text file editors. No special format applies to the input files (i.e., they can be editor with any text edition software). Specific details of the input and output files can be found in the VASP website (https://www.vasp.at/)., Peer reviewed

[EN] These supporting information files provides a Figure with the graphic representation of the catalogue of earthquakes and focal mechanisms compiled for southern central Hispaniola (S1), a Table including the U-Th geochronological results of coral samples (S2), a Text describing the methodology of dynamic fault-slip analysis (S3), a Table describing the sites used to obtain stress tensors from the analysis of fault-slip data sets (S4), a Table including the stress tensors obtained by methods of inversion of fault-slip data (S5), and a Table showing the maximum horizontal stresses and tectonic regimes obtained by inversion methods (S6). Supporting Information S1. Catalogue of earthquakes and focal mechanisms compiled for southern central Hispaniola. Supporting Information S2. U-Th geochronological results of coral samples. Supporting Information S3. Methodology of dynamic fault-slip analysis. Supporting Information S4. Sites used to obtain stress tensors from the analysis of fault-slip data sets. Supporting Information S5. Stress tensors obtained by methods of inversion of fault-slip data. Supporting Information S6. Maximum horizontal stresses and tectonic regimes obtained by inversion methods., The research was funded through PID2019-105625RB-C22 project of the MCIN/AEI/10.13039/501100011033 of the Spanish Government. Some works also received funding from the DR-T 1190 Project of the Banco Interamericano de Desarrollo (World Bank) and the FONDOCYT project 2015-1b3-118 of the MESCyT of the Dominican Republic Government., These supporting information files provides a Figure with the graphic representation of the catalogue of earthquakes and focal mechanisms compiled for southern central Hispaniola (S1), a Table including the U-Th geochronological results of coral samples (S2), a Text describing the methodology of dynamic fault-slip analysis (S3), a Table describing the sites used to obtain stress tensors from the analysis of fault-slip data sets (S4), a Table including the stress tensors obtained by methods of inversion of fault-slip data (S5), and a Table showing the maximum horizontal stresses and tectonic regimes obtained by inversion methods (S6). Figuras, Peer reviewed

Basal area increment and climate data over the period 1951-2015 for three pine species (Pinus pinaster, P. nigra and P. sylvestris) in the Iberian Northern Plateau, Peer reviewed