Resultados de investigación

Inscripción en una lápida de piedra, situada en una capilla lateral. Muy tosca de factura. Las dos últimas líneas, en el extremo inferior de la lápida, están escritas en letra más pequeña que el resto, y en su mayor parte son ilegibles., 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

XPS alkaline: The Na 1s XPS peak (Figure S13) can be fitted to two main contributions one at 1071.6 eV which can be ascribed to sodium carbonates and bicarbonates and other at 1073.1 eV which can be ascribed to sodium oxides and hydroxides. The ratio of carbonate species to alumina (Table 1) do not vary significantly or decreases slightly after reaction in agreement with C 1s fitting. Therefore, there is no building up of stable carbonates at 450 ºC, which are comparable to those formed from atmospheric CO2 adsorption at room temperature.-- We have fitted the Ba 3d5/2 peak to two peaks separated by around 2 eV (Figure S14). One peak at 779.0 eV which can be ascribed to barium oxide (BaO).The other peak at 781.0 eV that can be ascribed to Ba atoms in a decomposed barium carbonate layer. [5–8] In contrast to other materials, the Ba-containing materials contains less total carbon, nickel carbide and carbonates after CO2 reaction than before reaction (Table 1). In fact, the spectra of passivated material and reacted material are quite similar (Figure S15). This suggests that no stable carbonates or carbide species different from CO2 adsorbed at room temperature are formed. Some authors also found the carbonate localized in the outermost 20 A of passivated Ba titanate. The authors related this carbonate formation to possible contamination by atmosphere.-- Under a Creative Commons license BY-NC 4.0., Figure S1. Cyclic CO2 capture and hydrogenation at 250 ºC for the different catalysts: (a) Na-Ni/Al; (b) K-Ni/Al; (c) Ba-Ni/Al. Figure S2. Cyclic CO2 capture and hydrogenation at 350 ºC for the different catalysts: (a) Na-Ni/Al; (b) K-Ni/Al; (c) Ba-Ni/Al. Figure S3. Cyclic CO2 capture and hydrogenation at 400 ºC for the different catalysts: (a) Na-Ni/Al; (b) K-Ni/Al; (c) Ba-Ni/Al. Figure S4. Cyclic CO2 capture and hydrogenation at 450 ºC for the different catalysts: (a) Na-Ni/Al; (b) K-Ni/Al; (c) Ba-Ni/Al. Figure S5. produced CH4 (a) and CO (b) and released CO2 (c) within 100 s upon H2 admission at 250 ºC. Figure S6. Produced CH4 (a) and CO (b) and released CO2 (c) within 100 s upon H2 admission at 300 ºC. Figure S7. Produced CH4 (a) and CO (b) and released CO2 (c) within 100 s upon H2 admission at 350 ºC. Figure S8. Produced CH4 (a) and CO (b) and released CO2 (c) within 100 s upon H2 admission at 400 ºC. Figure S9. Produced CH4 (a) and CO (b) and released CO2 (c) within 100 s upon H2 admission at 450 ºC. Figure S10. HAADF-STEM images (a,c,e) and particle size distribution (b,d,f) of DFMs: (a,b) K-Ni/al; (c,d) Na-Ni/Al; (e,f) Ba-Ni/Al. Figure S11. Cyclic CO2 capture and hydrogenation at 350 ºC for the different catalysts using feed B (5% CO2, 11% H2O, 4.5% O2 in Ar): (a) K-Ni/Al; (b) Na-Ni/Al; (c) Ba-Ni/Al. Figure S12. Comparison of productivity switching the composition of the capture gas between feed A (5% CO2 in Ar), feed B (5% CO2, 11% H2O, 4.5% O2 in Ar) and feed A again. (a) cyclic CH4 productivity with feed B;Figure S13. Temperature programmed reaction of 15%Ni on alumina. Fitting of Ni 2p3/2: Table S1. Result of the Fitting of Ni 2p3/2 peaks for Ba-Ni. Table S2. Result of the Fitting of Ni 2p3/2 peaks for K-Ni. Table S3. Result of the Fitting of Ni 2p3/2 peaks for Na-Ni. Fitting of C 1s: Table S4. Result of the Fitting of C1s peaks for Ba-Ni. Table S5. Result of the Fitting of C1s and K2p peaks for K-Ni. Table S4. Result of the Fitting of C1s peaks for Na-Ni. XPS alkaline: Figure S14. Fitting of XPS Na 1s peak for Na-Ni/Al after passivation, after CO2 capture at 350 ºC and this latter material reduced in-situ at 250 ºC and 350 ºC. Figure S15. Fitting of XPS Ba 3d5/2 peak for Ba-Ni/Al after passivation, after CO2 capture at 350 ºC and this latter material reduced in-situ at 250 ºC and 350 ºC., The authors are very grateful to the Grants PID2020-119160RB-C21 and -C22 funded by MCIN/AEI/10.13039/501100011033 and Aragón Government (Aragón T03_20R), and associated EU Regional Development Funds are gratefully acknowledged., Peer reviewed

17 pages. -- Contents: Supplementary Text. Extended materials and methods. -- Table S1. List of primers used in this study. -- Table S2. Non-targeted screening to identify compounds that differentially appear in RhlAHA expressing lines compared to wild-type 137c. -- Table S3. HAA congeners identified in the secreted fraction of RhlA#1 and RhlA#2 lines in photoautotrophic conditions. -- Figure S1. Analysis of 3-HA(C10) and mono-RL standards by UHPLC-QTOF. -- Figure S2. UHPLC-QTOF analysis of RhlA and WT lines to identify C10-C10 congener of HAA. -- Figure S3. MS/MS fragmentation of C10-C10 congener of HAA at different collision energies. -- Figure S4. Identified adducts of the C10-C10 congener of HAA. -- Figure S5. Identification of the HAA congeners other than C10-C10. -- Figure S6. Identification of 3-HA(C10)-ME (3-hydroxydecanoic acid methyl ester) by GCMS. -- Figure S7. Standard curve for 3-HA(C10) quantification by GC-FID. -- Figure S8. GC-FID analysis of HAA production in different RhlA transplastomic lines. -- Figure S9. GC-FID time-course analysis of HAA production in RhlA line #2. -- Figure S10. Growth curve of wild-type and RhlA transplastomic lines in HSM and TAP media. -- Figure S11. Identification of HAA congeners in RhlA#2 line under photoautotrophic conditions., Peer reviewed

20 pages. -- Supplementary Fig. 1: Cross reactivities of SPFMV-CP and SPMMV-CP with homologous and heterologous CPs. -- Supplementary Fig. 2: Length range of SPFMV and SPMMV VLPs. -- Supplementary Fig. 3: Western blot analysis of SPMMV VLPs. -- Supplementary Fig. 4: SPFMV and SPV2 VLPs encapsidate pEff-derived RNA. -- Supplementary Fig. 5: Comparison of Potyviridae and Alphaflexviridae coat protein structures. -- Supplementary Fig. 6: Alphafold structure predictions. -- Supplementary Fig. 7: CryoEM image processing workflow. -- Supplementary Fig. 8: Uncropped versions of gels and blots in the Figures 1 and 2, and in Supplementary Figures 1, 3 and 4. -- Supplementary Table 1. Reports of SPFMV CP subunit interactions to subunits adjacent (N and N+1) and in the next layer (N and N+10) of the helical structure. -- Supplementary Table 2. Reports of SPMMV CP subunit interactions to subunits adjacent (N and N+1) and in the next layer (N and N+10) of the helical structure. -- Supplementary Table 3. Reports for SPFMV and SPMMV CP subunit interactions to the RNA. -- Supplementary Table 4. List of primers. -- Source Data for the thermal stability assay of purified VLPs of SPFMV and SPMMV (depicted in Figure 3)., CryoEM and stability_Supplementary.pdf, 42003_2023_4799_MOESM4_ESM.xlsx, Peer reviewed

1 table., Phenotypic values of n-6/n-3 PUFA ratio, sex classification, and batch grouping recorded in 20 Iberian x Duroc pigs, Peer reviewed

1 table., Differentially expressed genes (DEGs) according to n-6/n-3 PUFA ratio., Peer reviewed

1 table., Differentially expressed miRNAs (DEmiRNAs) according to n-6/n-3 PUFA ratio., Peer reviewed

Inscripción en castellano grabada en una lápida de piedra adherida al muro en la fachada principal del edificio del antiguo ayuntamiento, actual Centro de Salud de Cardenete., 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

This dataset includes the input files of the numerical models used in the manuscript for simulating the hydraulic stimulation in Enhanced Geothermal System with a single fracture setup. Each folder is named after the corresponding injection protocol in the manuscript, i.e., Constant, Step, and Cyclic. In each of these folders, there are two subfolders namely- Without Bleedoff and With Bleedoff. In the subfolders, the file ending with “_gen.dat” contains the input data of the model, including material properties, initial and boundary conditions and the time intervals. There is also a file ending with “_gri.dat” that includes the information on the mesh. The file “root.dat” includes the name of the model., European Research Council (ERC) under the European Union’s Horizon 2020 Research and Innovation Program through the Starting Grant GEoREST (www.georest.eu), under grant agreement No. 801809. European Union’s Horizon 2020 Research and Innovation Program through the Marie Sklowdowska-Curie Individual Fellowship ARMISTICE, under Grant Agreement No. 882733. IMEDEA is an accredited "Maria de Maeztu Excellence Unit" (Grant CEX2021-001198, funded by MCIN/AEI/10.13039/501100011033)., With funding from the Spanish government through the "Severo Ochoa Centre of Excellence" accreditation (Grant CEX2021-001198)., README.txt (this file) Constant_0p3_gen.dat Constant_0p3_gri.dat root.dat Constant_0p3_bleedoff_gen.dat Constant_0p3_bleedoff_gri.dat root.dat Step_0p3_gen.dat Step_0p3_gri.dat root.dat Step_0p3_bleedoff_gen.dat Step_0p3_bleedoff_gri.dat root.dat Cyclic_0p3_gen.dat Cyclic_0p3_gri.dat root.dat Cyclic_0p3_bleedoff_gen.dat Cyclic_0p3_bleedoff_gri.dat root.dat, Peer reviewed

Inscripción conmemorativa de la construcción de la casa de la Cofradía de la Epifanía en 1589, en la calle de San Pedro, n. 39., 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