University of Zaragoza – Press Office

Investigadores del ICMA revolucionan las técnicas de enfriamiento en aparatos de resonancia magnética, satélites o licuadores de hidrógeno y gas natural Un equipo internacional de investigadores con científicos del Instituto de Ciencia de Materiales de Aragón (ICMA, centro mixto del CSIC y la Universidad de Zaragoza) logra por primera vez enfriar por debajo de -272,15

Nature Materials

Cool MOFs Our publication “A dense metal-organic framework for enhanced magnetic refrigeration” by G. Lorusso et al., Advanced Materials 25, 4653 (2013) was highlighted by Andrea Taroni in Nature Materials 12, 688 (2013). Link.

Advanced Materials

Molecular coolers get Adv. Mater. front cover story The front cover story of the June 4th issue of Advanced Materials features an experimental study of the magnetic stray field originated by molecular coolers deposited on a silicon substrate, by means of quantitative Magnetic Force Microscopy (qMFM) at liquid-helium temperatures. The artwork (see Figure) represents droplets

CienciaEs.com (Radio streaming / podcast)

Hablando con Científicos por y con Ángel Rodríguez Lozano Nuevo material para refrigerar a temperaturas cercanas al cero absoluto: Investigadores del CSIC en el Instituto de Ciencia de Materiales de Aragón y la Universidad de Zaragoza han creado un material magnético que permite refrigerar a temperaturas cercanas al cero absoluto (-273,15ºC). Hablamos con Marco Evangelisti

CSIC press release

Identificado un nuevo material molecular para refrigerar a temperaturas cercanas al cero absoluto Una investigación liderada por el Consejo Superior de Investigaciones Científicas (CSIC) ha identificado un nuevo material magnético de base molecular, el acetato de gadolinio tetrahidrato, que permite refrigerar a temperaturas cercanas al cero absoluto (-273,15ºC) a un coste mucho menor que los

Angewandte Chemie

Gd2 molecular cooler gets VIP status and back-cover story By taking advantage of a relatively high magnetic density combined with a dominant ferromagnetism, gadolinium acetate tetrahydrate displays an unprecedentedly large cryogenic magnetocaloric effect. The remarkable temperature drops, reported by M. Evangelisti and co-workers in their Communication (DOI: 10.1002/anie.201102640), suggest that this molecular nanomagnet can be

ALSNews from Advanced Light Source, Lawrence Berkeley Laboratory

Cool magnetic molecules Certain materials are known to heat up or cool down when they are exposed to a changing magnetic field. This is known as the magnetocaloric effect. All magnetic materials exhibit this effect, but in most cases, it is too small to be technologically useful. Recently, however, an international collaboration of researchers from

Chemistry World

Molecular fridge can reach millikelvin by Simon Hadlington Scientists have laid the foundations for a high-performance ‘molecular fridge’ capable of reaching temperatures within a few thousandths of a degree of absolute zero with a high degree of efficiency. Such ultracoolers could have applications in areas such as ultra-low temperature physics, where alternative technologies such as

Aragón Investiga y Heraldo de Aragón / Tercer Milenio

Física. De camino hacia el ordenador cuántico por Marco Evangelisti El magnetismo molecular se basa en el uso de moléculas para obtener nuevos materiales magnéticos con funciones no observables -ni siquiera imaginables- en imanes tradicionales. La fabricación “molécula a molécula” permite diseñar el material controlando sus propiedades. La línea más moderna de investigación, que desarrollamos