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Firma protocolo con Ministerio de Defensa. El Ministerio de Defensa y el Instituto Cervantes renuevan el acuerdo de colaboración que ambas instituciones mantienen desde 2010 para promover la lengua española. Plano medio, Margarita Robles, ministra de Defensa firma el acuerdo.

Firma protocolo con Ministerio de Defensa. El Ministerio de Defensa y el Instituto Cervantes renuevan el acuerdo de colaboración que ambas instituciones mantienen desde 2010 para promover la lengua española. Plano medio, Luis García Montero, director del Instituto Cervantes firma el acuerdo.

Firma protocolo con Ministerio de Defensa. El Ministerio de Defensa y el Instituto Cervantes renuevan el acuerdo de colaboración que ambas instituciones mantienen desde 2010 para promover la lengua española. Plano general, de izquierda a derecha, Margarita Robles, ministra de Defensa y Luis García Montero, director del Instituto Cervantes.

Firma protocolo con Ministerio de Defensa. El Ministerio de Defensa y el Instituto Cervantes renuevan el acuerdo de colaboración que ambas instituciones mantienen desde 2010 para promover la lengua española. Plano medio, de izquierda a derecha, Margarita Robles, ministra de Defensa y Luis García Montero, director del Instituto Cervantes.

Firma protocolo con Ministerio de Defensa. El Ministerio de Defensa y el Instituto Cervantes renuevan el acuerdo de colaboración que ambas instituciones mantienen desde 2010 para promover la lengua española. Plano general, de izquierda a derecha, Margarita Robles, ministra de Defensa; Luis García Montero, director del Instituto Cervantes y Carmen Noguero, secretaria general del Instituto Cervantes en la Caja de las Letras del Instituto Cervantes.

Firma protocolo con Ministerio de Defensa. El Ministerio de Defensa y el Instituto Cervantes renuevan el acuerdo de colaboración que ambas instituciones mantienen desde 2010 para promover la lengua española. Plano medio, de izquierda a derecha, Margarita Robles, ministra de Defensa y Luis García Montero, director del Instituto Cervantes en la Caja de las Letras del Instituto Cervantes.

The different datasets are divided in folders as follows: 1. In situ experiments. The article is based on 7 different in situ experiments: a. 400C_5mLmin_fr10; b. 400C_10mLmin_fr23; c. 400C_20mLmin_fr6; d. 400C_30mLmin_fr12; e. 300C_10mLmin_fr4; f. 350C_10mLmin_fr18; g. 500C_10mLmin_fr9. (Due to space limitations, only the data corresponding to the experiment c were uploaded to this repository. The remaining data are accessible through private communication with Cecilia Granados-Miralles, c.granados.miralles@icv.csic.es). The folder “c_400C_20mLmin_fr6” contains in situ PXRD data (time resolution=5 s) collected during reduction at the temperature and gas flow indicated in the folder name (i.e. 400C_20mLmin stands for 400 °C and 20 mL/min). The temperature indicated in the file names is the set temperature but the sample temperature is the indicated in the folder name (i.e. Tset430 led to a sample temperature of 400 °C). Heating started on the frame indicated in the folder name (i.e. fr6 stands for frame 6). This folder contains 2D-diffraction images in *.tif format, which may be opened with the Python-based program for on-the-fly data processing and exploration of two-dimensional X-ray diffraction area detector data, available for free download at http://www.clemensprescher.com/programs/dioptas., 2. Ex situ experiments: a. PXRD_Cu 1D-diffraction patterns in *.dat format. 3 space-/tab-separated columns: 2theta angle (degree), Diffracted Intensity (arbitrary units), σ (arbitrary units); b. PXRD_Co Same as previous; c. NPD_DMC 1D-diffraction patterns in *.dat format. The first line indicates: narrowest 2theta angle measured, measurement step, widest 2theta angle. The following values are the diffracted intensities recorded for each 2theta step; d. NPD_HRPT; Same as previous e. VSMHysteresis loops: Magnetic moment as a function of a variable applied field in *.dat format. Several comma-separated columns of which the relevant are the 4th, 5th, and 6th columns, which contain: Magnetic Field (Oe), Moment (emu), M. Std. Err. (emu)., During the past decade, CoFe2O4 (hard)/Co–Fe alloy (soft) magnetic nanocomposites have been routinely prepared by partial reduction of CoFe2O4 nanoparticles. Monoxide (i.e., FeO or CoO) has often been detected as a byproduct of the reduction, although it remains unclear whether the formation of this phase occurs during the reduction itself or at a later stage. Here, a novel reaction cell was designed to monitor the reduction in situ using synchrotron powder X-ray diffraction (PXRD). Sequential Rietveld refinements of the in situ data yielded time-resolved information on the sample composition and confirmed that the monoxide is generated as an intermediate phase. The macroscopic magnetic properties of samples at different reduction stages were measured by means of vibrating sample magnetometry (VSM), revealing a magnetic softening with increasing soft phase content, which was too pronounced to be exclusively explained by the introduction of soft material in the system. The elemental compositions of the constituent phases were obtained from joint Rietveld refinements of ex situ high-resolution PXRD and neutron powder diffraction (NPD) data. It was found that the alloy has a tendency to emerge in a Co-rich form, inducing a Co deficiency on the remaining spinel phase, which can explain the early softening of the magnetic material., European Comission through FP7 program, NANOPYME project, grant agreement no. 310516. European Comission through H2020 program, AMPHIBIAN Project, grant agreement no. 720853. Danish National Research Foundation through Center for Materials Crystallography, DNRF-93. Danish Center for Synchrotron and Neutron Science through DanScatt. European Comission through FP7 program, NMI3-II project, grant agreement no. 283883., Peer reviewed

UE, programa H2020, Proyecto AMPHIBIAN n º 720853, Peer reviewed

UE, programa H2020, Proyecto AMPHIBIAN n º 720853., Peer reviewed