BUSCADOR RECOLECTA

Girola, ante la entrada de la Capilla del Sagrario. Escritura muy cuidada y monumental, con numerosos ornamentos. Texto enmarcado en una doble línea. La lápida está muy dañada en el lateral izquierdo, pero no afecta a la legilibilidad del texto., CSIC. Proyecto intramural: “Epigrafía latina inédita de los siglos XV al XVIII en monumentos civiles y eclesiásticos de la provincia de Cuenca (2006-2007). Referencia: 2006 | 0| 011., Peer reviewed

Girola, ante la entrada de la Capilla del Sagrario. Inscripción en mármol, muy cuidada; letra monumental sin ornamentos., CSIC. Proyecto intramural: “Epigrafía latina inédita de los siglos XV al XVIII en monumentos civiles y eclesiásticos de la provincia de Cuenca (2006-2007). Referencia: 2006 | 0| 011., Peer reviewed

Lápida situada en el comienzo del lado derecho de la girola, ante la entrada de la Capilla del Sagrario. Mármol; escritura muy cuidada; sin ornamentos. Sólo enmarcado del texto en una línea doble. El extremo derecho está muy dañado, pero no dificulta la legibilidad del texto. Inédito., CSIC. Proyecto intramural: “Epigrafía latina inédita de los siglos XV al XVIII en monumentos civiles y eclesiásticos de la provincia de Cuenca (2006-2007). Referencia: 2006 | 0| 011., Peer reviewed

30 pages. Table of Contents: S1. Materials and experimental methods: S1.1 Materials; S1.2 Experimental methods. -- S2. Computational methods. -- S3. Characterization of Rh-MOPs used as adsorbents for NH3. -- S4. NH3 uptake in H-RhMOP. -- S5. Computer simulation of the interaction between H-RhMOP and NH3: S5.1. DFT calculations of the interaction between Rh2(Ac)4 and NH3; S5.1.2. DFT calculations of the interaction between Rh2(Ac)4, NH3 and H2O; S5.2. Computer simulation of the interaction between H-RhMMOP and NH3; S5.2.1. Parametrization of the Force Field from DFT calculations; S5.2.2. Molecular dynamic simulations of the interaction between H-RhMOP and NH3. -- S6. FTIR spectroscopy of ammonia-loaded H-RhMOP. -- S7. NH3 uptake in Rh2(Ac)4. -- S8. Digital photographs showing the regeneration of H-RhMOP. -- S9. NH3 uptake in OH-RhMOP and C12-RhMOP. -- S10. Computer simulation of the interaction between functionalized Rh-MOPs and NH3: S10.1 OH-RhMOP and NH3; S10.2 C12-RhMOP and NH3., Ammonia (NH3) is among the world’s most widely produced bulk chemicals, given its extensive use in diverse sectors such as agriculture; however, it poses environmental and health risks at low concentrations. Therefore, there is a need for developing new technologies and materials to capture and store ammonia safely. Herein, we report for the first time the use of metal–organic polyhedra (MOPs) as ammonia adsorbents. We evaluated three different rhodium-based MOPs: [Rh2(bdc)2]12 (where bdc is 1,3-benzene dicarboxylate); one functionalized with hydroxyl groups at its outer surface [Rh2(OH-bdc)2]12 (where OH-bdc is 5-hydroxy-1,3-benzene dicarboxylate); and one decorated with aliphatic alkoxide chains at its outer surface [Rh2(C12O-bdc)2]12 (where C12O-bdc is 5-dodecoxybenzene-1,3-benzene dicarboxylate). Ammonia-adsorption experiments revealed that all three Rh-MOPs strongly interact with ammonia, with uptake capacities exceeding 10 mmol/gMOP. Furthermore, computational and experimental data showed that the mechanism of the interaction between Rh-MOPs and ammonia proceeds through a first step of coordination of NH3 to the axial site of the Rh(II) paddlewheel cluster, which triggers the adsorption of additional NH3 molecules through H-bonding interaction. This unique mechanism creates H-bonded clusters of NH3 on each Rh(II) axial site, which accounts for the high NH3 uptake capacity of Rh-MOPs. Rh-MOPs can be regenerated through their immersion in acidic water, and upon activation, their ammonia uptake can be recovered for at least three cycles. Our findings demonstrate that MOPs can be used as porous hosts to capture corrosive molecules like ammonia, and that their surface functionalization can enhance the ammonia uptake performance., Peer reviewed

5. CanVilaCatchment_GW-08-20min_2003-2004.xlsx The Depth to Water Table data(mm below surface) in the Can Vila Catchment (20min time step) for the period [06/2003-07/2004]., Peer reviewed

Outcomes according to 2017 and 2022 ELN risk in intensively treated patients. Risk of death according to 2017 and 2022 ELN risk in intensively treated patients. Appendix A: Institutions and clinicians participating in the PETHEMA epidemiologic registry of acute myeloid leukemia and acute promyelocytic leukemia., Peer reviewed

The study was supported by MINECO [PGC2018-094457-B-I00] and CSIC-Severo Ochoa Excellence Programmes of the Instituto de Neurociencias [SEV-2013-0317 and SEV-2017-0723]. R.M. is supported by la Caixa-Severo Ochoa programme [2016/00006/001]; A.A-A. is supported by the ACIF-GVA programme; J.A-C is supported by the CSIC-Severo Ochoa Excellence Programme of the Instituto de Neurociencias [SEV2013-0317]., Peer reviewed

10 pages. -- Figure S1. Electrical resistivity of the gold wire measured at different temperatures in a heating stage. -- Figure S2. Simulated IR spectra of PMMA molecules. -- Figure S3. Fitted Gaussian center positions for each PMMA absorbance peak vs temperature. -- Figure S4. Fitted Gaussian amplitudes for each PMMA absorbance peak vs temperature. -- Figure S5. Fitted Gaussian full width at half maximum (FWHM) for each PMMA absorbance peak vs temperature. -- Figure S6. Synchronous (a) and asynchronous (b) two-dimensional correlation spectra obtained from temperature-dependent FTIR spectra of the PMMA film. The red and blue colors represent positive and negative cross peaks, respectively. -- Figure S7. Simulated synchronous two-dimensional correlation spectra centered at ~1149 cm-1. -- Figure S8. PMMA absorbance peaks at 283 K fitted individually using a Gaussian line shape, show-ing the data points and the fit as black lines. -- Figure S9. Fitting results for a linear fit to the temperature dependence of the peak center positions for different absorbance peaks. The linear fits are shown in red in Figure S3. -- Figure S10. Thermal decay as function of sample position for different temperatures of the heater wire. The solid lines represent the best fit. -- Figure S11. (a) Transferred data (scores plot) of the PCA with the calibration data (stars) and the line scan data points (circle). (b) Loadings plot of the PCA showing PC-1 (black) and PC-2 (red). -- Figure S12. Simplified workflow of the machine learning approach in this work done by Orange [12–14]., Peer reviewed

RAMAN_Olive-oil data base comprising of 10 sheets: 1)‘Fluo Complete; 2)‘D Fluo Zone’; 3)’D Zone’; 4)‘Complete Fluo - Tocopherols’; 5)‘D Zone - Tocopherols’; 6)‘D Zone Total - Phenols’; 7)‘D Zone - Squalene’; 8)‘Fluo Complete - Squalene’; 9)‘Fluo_8nm_MN - Squalene’; 10)‘D Zone - Waxes’, [Description of methods used for collection/generation of data] Raman spectra registered by the Laboratory Raman of the University Pablo de Olavide (Seville)as an analytical service contracted by IG-CSIC; Raman spectra edited in IG-CSIC using The Unscrambler 9.6 software; Olive oil analytical features analysed in IG-CSIC. [Methods for processing the data] exclusively for the sheet Fluo_8nm_MN Squalene : Spectra average into 8nm intervals and mean normalization., Bases de datos de espectros Raman de aceites de oliva comprendiendo espectros en el rango completo de longitudes de onda del espectrómetro, una región del mismo (D) y espectros registrados minimizando la interferencia de la fluorescencia por ajuste de la longitud de onda de excitación láser. Incluye así mismo datos de muestras de las que se dispone de valores analíticos de algunas características de los aceites de oliva (contenidos de los diversos tocoferoles, fenoles totales, escualeno y ceras) junto a los espectros correspondientes., Ministery Economy and Competitiveness, Spain Government, Project RECUPERA2020 - 1.4.4, RAMAN_Olive-oil data base comprising of 10 sheets: 1)‘Fluo Complete; 2)‘D Fluo Zone’; 3)’D Zone’; 4)‘Complete Fluo - Tocopherols’; 5)‘D Zone - Tocopherols’; 6)‘D Zone Total - Phenols’; 7)‘D Zone - Squalene’; 8)‘Fluo Complete - Squalene’; 9)‘Fluo_8nm_MN - Squalene’; 10)‘D Zone - Waxes’, Peer reviewed

[Description of methods used for collection/generation of data] Images collectd by Confocal Microscopy. See Materials and Methods of Martin et al., PLoS Genet 2023., [Methods for processing the data] See Materials and Methods of Martin et al., PLoS Genet 2023., This Dataset contains the full images used to compose the main Figures of the research article: Martin et al., PLoS Genet 2023 . A novel proneural function of Asense is integrated with the sequential actions of Delta-Notch, L’sc and Su(H) to promote the Neuroepithelial to Neuroblast transition. These images were acquired by confocal microscopy from dissected third instar larval brains of several Drosophila melanogaster strains after immunostaining following the Materials and Methods described in the publication. The Dataset is organized in folders identified by the name of the corresponding figure (for example, Fig 1). Within each folder, each image is labeled with the name of the Figure and panel in which the corresponding image fragment appears in the publication (for example, Fig 1B). All of them are provided as TIFF files. No images of schemes or diagrams of the figures are included in this Dataset., Grants from the Ministerio de Economía, Industria y Competitividad (AEI/FEDER, UE: BFU2016–80273-R) and CSIC (2020AEP180) to FJT, Peer reviewed