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23 files, The present study describes the characterization of 18 Pseudomonas strains, isolated from fish products using shotgun proteomics, No

-Data type: Experimental spectroscopic measurements, computer simulations. Files are with filename extensions: .DSC, .DAT, .m Information on origin of the data: EPR spectroscopic measurements with filename extensions .DSC, .DTA and .txt. EPR spectroscopic simulation based on Easyspin with filename extension .m. CW and Pulse X-band experiments were performed on a Bruker ELEXSYS E580 X-band spectrometer (microwave frequency 9.68 GHz) equipped with a cylindrical dielectric cavity and a helium gas-flow cryostat from Oxford Inc. Q-band Pulse EPR experiments were performed on a Bruker ELEXSYS E580 spectrometer (microwave frequency 34 GHz) equipped with a continuous helium flow cryostat from Oxford Inc. The magnetic field was measured by means of a Bruker ER035M NMR gaussmeter. ENDOR experiments were carried out with a Bruker ESP 380E spectrometer (X-band) equipped with an EN 4118X-MD4 Bruker resonator. -If the dataset includes multiple files that relate to each other: Files in PARACAT_WP5_20240112_CW folder includes X-band CW-EPR spectroscopic measurements, original data are in .DTA and .DSC formats. Files in PARACAT_WP5_20240112_EDFS folder includes echo detected field sweep (EDFS) spectroscopic measurements, original data are in .DTA and .DSC formats. Files in PARACAT_WP5_20240112_HYSCORE folder includes HYSCORE spectroscopic 2D measurements, original data are in .DTA and .DSC formats. Files in PARACAT_WP5_20240112_ENDOR folder includes ENDOR spectroscopic measurements, original data are in .txt format. Files in PARACAT_WP5_20240112_MATLAB folder includes computer simulations/analyses of the EPR measurements, data are in .m format. -Information on: Specialized abbreviations: EPR – Electron Paramagnetic Resonance, CW – Continuous Wave-EPR, HYSCORE – HYperfine Sublevel CORrelation, ENDOR - Electron Nuclear DOuble Resonance, CYP450 – Cytochrome P450. Definitions of variables: Magnetic field, Temperature. Units of measurement: Gauss (G), milliTesla (mT), Kelvin (K)., Peer reviewed

Figure S1: Experimental X-band CW-EPR spectra; Figure S2: X-band echo detected field sweep EPR; Figure S3: Dikanov Methodology for the analysis of 1H HYSCORE Spectra; Figure S4: Mims ENDOR spectra of CYP116B5hd in H2O and D2O; Figure S5: Q-band HYSCORE spectra of CYP116B5hd in H2O—Experiments and simulations; Figure S6: HYSCORE spectra of CYP116B5hd interacting with imidazole-15N2; Figure S7: Complete HYSCORE spectra of CYP116B5hd in H2O; Figure S8: Complete HYSCORE spectra of CYP116B5hd in D2O; Figure S9: Complete HYSCORE spectra of CYP116B5hd interacting with imidazole in H2O; and Figure S10: Complete HYSCORE spectra of CYP116B5hd interacting with imidazole-15N2 in H2O., Peer reviewed

The Supplementary file contains a detailed description of experimental and computational techniques together with a part of results, not necessarily included in the main text for proper understanding., Peer reviewed

Fig. S1 A) Location of study sites in the central Pyrenees (NE Spain). B) Schematic representation of the experimental design. In each site, three plots were randomly selected for the rainfall reduction treatment (striped pattern). In each plot, one subplot was randomly selected for the snow removal treatment (dark filling). C, control subplots with neither snow removal nor rainfall reduction; S, subplots with snow cover removal; R, subplots with rainfall reduction; and S + R, subplots with the combination of snow removal and rainfall reduction. C) Pictures showing examples of plots with rain-out shelters at each study site.-- Fig. S2 Mean monthly temperature (light red, mean of maximum temperatures; dark red, mean of minimum temperatures), precipitation, snow cover and number of days with snow cover presence over the study period (2016-2019) at the nearest weather station from Torla (approx. 750 m). Data was provided by the State Meteorological Agency (Spanish Ministry for Ecological Transition and Demographic Challenge).-- Fig. S3 Mean monthly temperature (light red, mean of maximum temperatures; dark red, mean of minimum temperatures), precipitation, relative air humidity, snow cover and number of days with snow cover presence over the study period (2016-2019) at the nearest weather station from Pineta (approx. 2000 m). Data was provided by the State Meteorological Agency (Spanish Ministry for Ecological Transition and Demographic Challenge).-- Fig. S4 A) Relationship (linear regression) between minimum soil temperature in February and year per treatment, B) relationship (linear regression) between leguminous forbs aboveground dry biomass and year per treatment and C) plant diversity (effective number of species, mean ± SE) per treatment and study site. Different letters indicate significant differences among treatments. Symbol shape indicates study site (circle and square for Torla and Pineta, respectively), symbol/line color indicates snow removal treatment (gray and black for no snow removal and snow removal, respectively) and symbol/line pattern indicates reduced precipitation treatment (solid and dashed for no reduced precipitation and reduced precipitation, respectively). C, control, gray solid line; S, snow removal, black solid line; R, reduced precipitation, gray dashed line; S + R, snow removal plus reduced precipitation, black dashed line.-- Fig. S5 A) February’s soil freeze/thaw cycles (mean ± SE) per study site, treatment and year. Horizontal lines indicate mean values per treatment and year. Symbol shape indicates study site (circle and square for Torla and Pineta, respectively), symbol/line color indicates snow removal treatment (gray and black for no snow removal and snow removal, respectively) and symbol/line pattern indicates reduced precipitation treatment (solid and dashed for no reduced precipitation and reduced precipitation, respectively). C, control, gray solid line; S, snow removal, black solid line; R, reduced precipitation, gray dashed line; S + R, snow removal plus reduced precipitation, black dashed line. B) Relationship (linear regression) between minimum soil temperatures in February and soil freeze/thaw cycles per study site.-- Table S1 Mean plant cover (%) at the subplot level for each species found per study site and treatment. Color intensity highlights dominant plant species., Reduced precipitation as well as warming may result in less snow accumulation in seasonally snow-covered areas, leading to lower minimum soil temperatures and more frequent and severe soil frosts. Therefore, plant stress is increased not only by drought in warmer months, but also by increased exposure to frost in cooler periods. We conducted a 4-year field experiment to evaluate the effects of diminished snowpack accumulation (through snow removal) and rainfall reduction (through rain-out shelters) on aboveground plant productivity, diversity and species composition of two subalpine grassland plant communities from the central region of the Spanish Pyrenees. We found that the snow removal treatment decreased minimum soil temperature by 0.5°C. Plant diversity decreased by 16 percent, although this effect was only observed in one of the grasslands studied. Aboveground primary productivity seemed to be unaffected. In contrast, we found that the rainfall reduction treatment negatively affected aboveground productivity of leguminous forb species, yet no effect on plant diversity was observed. Both treatments were important drivers of changes in plant species composition. Overall, our results suggest that the resilience of subalpine grasslands to snow cover removal and rainfall reduction treatments may depend on the specific community composition and dominant plant groups., This work was supported by the Consejo Superior de Investigaciones Científicas [PIE, no. 202230E013]; Ministerio de Ciencia, Innovación y Universidades [FPU16/05508; FPU Program 2016]., Peer reviewed

-Liquid crystal to isotropic transition temperature (Ti) of the macromers including MMPs at different solid contents (Table S1); photograph of free-standing uniaxial actuators printed at different solid contents (Figure S1); thermomechanical test of a 50 wt % MMPs uniaxial actuator (Figure S2); thermomechanical response of uniaxial actuator (85 μm) at 0 wt % MMPs with 1 g load and load free (Figure S3); thermomechanical response of uniaxial actuator (110 μm) at 10 wt % MMPs with 1 g load and load free (Figure S4); DMA storage modulus (E′) of LCE uniaxial actuator at 0 wt % MMPs (105 μm) and 50 wt % MMP uniaxial MLCE actuator (110 μm) (Figure S5); magnetic field generated by the coils used in Figures 4 and 5, measured at different distances from the surface of the coil (Figure S6); and experimental conditions for thermal and multistimuli tests (Supplementary Note 1) (PDF). -Thermal actuation, of a magnetically responsive liquid crystal elastomer, 4D-printed element bilayer (Movie S1) (MP4). -Thermal actuation, of a magnetically responsive liquid crystal elastomer, 4D-printed spiral-like element (Movie S2) (MP4). -Magnetic and thermal actuation of a bilayer actuator of magnetically responsive liquid crystal elastomers (Movie S3) (MP4). -Multistimuli, multimode beam-steering device directing a beam on the XY axis and examples of Lissajous patterns (Movie S4) (MP4)., Peer reviewed

Table summarizing the parameters used for extraction of the second-order FC; Figures showing the LTC of WS2 in the presence of S vacancies, the LTC of MoS2 and WS2 as a function of defect concentration, the phonon dispersion relations for MoS2 and WS2 with defect scattering rates., Peer reviewed

Theory for the vortex-sensor implementation: coupling between spins, vortex, LC-resonator and transmission line., Peer reviewed

Survey XPS spectra and C/O content for GQDs; electron diffraction simulation for NaO2, Cu, CuO, Ni, and NiO; XRD for GQDs and NaOH; Raman spectra for GQDs; additional AFM images and profiles of single and bilayer GQDs; diffraction spots, their lattice spacing, and the angles between them for CN1; diffraction spots, their lattice spacing, and the angles between them for CN2; amorphous carbon nanoparticles and multiwalled carbon nanotube found in Control #2 (CN2); and ethanol electrooxidation in alkaline media with G/Ni foams as WE., Peer reviewed

Peer reviewed