The FACTORY promotes scientific excellence in Materials Sciences and Nanotechnology
The Material Sciences Factory is a scientific unit that includes several scientists and research teams of the ICMM with the goal of promoting the collaboration and a quantifiable scientific excellence in the areas of Material Sciences and Nanotechnology.
Our mission is to generate knowledge, materials and methods aimed to address and eventually solve societal problems in areas such as Energy, Health, Sustainability and information technologies. The unit will actively promote the scientific excellence in both research and the formation of young scientists.
The unit was formally constituted in June 2015 and officially approved by the ICMM direction in October 2015.
La FACTORÍA promueve la excelencia científica en Ciencia de Materiales y Nanotecnología
El objetivo de esta unidad es la generación de conocimientos, materiales y metodologías orientadas a resolver problemas de la sociedad en las áreas de Energía, Salud, Sostenibilidad y Tecnologías de la Información. Esta unidad tendrá como misión promover la excelencia cuantificable en la investigación científica y en la formación de jóvenes investigadores.
La constitución formal de la unidad se efectuó en junio de 2015 y fue oficialmente reconocida en Octubre de 2015. La unidad formaliza la trayectoria de colaboración entre los grupos que integran la unidad. Esta trayectoria está acreditada en numerosas publicaciones científicas y en la participación conjunta en proyectos científicos durante los últimos años.
Who we are?
What we Investigate?
Recent articles that made the cover of high impact journals.
A three-dimensional covalent organic framework (COF-505) constructed from helical organic threads, designed to be mutually weaving at regular intervals, has been synthesized by imine condensation reactions of aldehyde functionalized copper(I)-bisphenanthroline tetrafluoroborate, Cu(PDB)2(BF4), and benzidine (BZ). The copper centers are topologically independent of the weaving within the COF structure and serve as templates for bringing the threads into a woven pattern rather than the more commonly observed parallel arrangement. The copper(I) ions can be reversibly removed and added without loss of the COF structure, for which a tenfold increase in elasticity accompanies its demetalation. The threads in COF-505 have many degrees of freedom for enormous deviations to take place between them, throughout the material, without undoing the weaving of the overall structure.
A random laser is a system formed by a random assembly of elastic scatterers dispersed into an optical gain medium1. The multiple light scattering replaces the standard optical cavity of traditional lasers and the interplay between gain and scattering determines the lasing properties. All random lasers studied to date have consisted of irregularly shaped or polydisperse scatterers, with a certain average scattering strength that was constant over the frequency window of the laser2, 3, 4. In this letter we consider the case where the scattering is resonant. We demonstrate that randomly assembled monodisperse spheres can sustain scattering resonances over the gain frequency window, and that the lasing wavelength can therefore be controlled by means of the diameter and refractive index of the spheres. The system is therefore a random laser with an a priori designed lasing peak within the gain curve.
Water in colloidal crystals, usually adsorbed from surrounding moisture, significantly affects their properties but also gives clues to general liquid-interface nanoscale phenomena. The unique features of colloidal crystals (as ordered, photonic structures) allow novel approaches for the study of nanoconfined water, which sometimes builds intriguing constructions, like that shown on the front cover. On page 2686, F. Gallego-Gómez, A. Blanco, and C. López critically review newly developed methods and recent results.
The aim of this research is to establish how metal–organic frameworks (MOFs) composed of more than one metal in equivalent crystallographic sites (solid solution MOFs) exhibit catalytic activity, which is tunable by virtue of the metal ions ratio. New MOFs with general formula [InxGa1–x(O2C2H4)0.5(hfipbb)] were prepared by the combination of Ga and In. They are isostructural with their monometal counterparts, synthesized with Al, Ga, and In. Differences in their behavior as heterogeneous catalysts in the three-component, one pot Strecker reaction illustrate the potential of solid solution MOFs to provide the ability to address the various stages involved in the reaction mechanism.
Understanding the mechanical functionalities of complex biological systems requires the measurement of the mechanical compliance of their smallest components. Here, we develop a force microscopy method to quantify the softness of a single antibody pentamer by measuring the stress–strain curve with force and deformation resolutions, respectively, of 5 pN and 50 pm. The curve shows three distinctive regions. For ultrasmall compressive forces (5–75 pN), the protein’s central region shows that the strain and stress are proportional (elastic regime). This region has an average Young’s modulus of 2.5 MPa. For forces between 80 and 220 pN, the stress is roughly proportional to the strain with a Young’s modulus of 9 MPa. Higher forces lead to irreversible deformations (plastic regime). Full elastic recovery could reach deformations amounting to 40% of the protein height. The existence of two different elastic regions is explained in terms of the structure of the antibody central region. The stress–strain curve explains the capability of the antibody to sustain multiple collisions without any loss of biological functionality.
On page 4357, C. López and co-workers perform a profuse and systematic study of factors affecting the hydrothermal synthesis of carbon spheres on polystyrene seeds. This green reaction allows the synthesis of hybrid polystyrene-carbon spheres monodisperse to below 5% with no-aggregation, in a size range between 500 and 900 nm (the range of interest for optical applications). These hybrid polystyrene-carbon spheres can be easily transformed into hollow carbon spheres with preserved monodispersity. Monodispersity and the ability to control porosity make them very attractive for various applications.
Alma Eva Pérez Perrino, Graduate Student Award Winner at the AVS 63rd International Symposium at Nashville, TN.
Seeded Synthesis of Monodisperse Core–Shell and Hollow Carbon Spheres Luz Karime Gil-Herrera, Álvaro Blanco, Beatriz H. Juárez, Cefe López
How soft is a single protein? The stress–strain curve of antibody pentamers with 5 pN and 50 pm resolutions. Alma P. Perrino
Ricardo Garcia del ICMM, explica los motivos que llevaron a los miembros de su laboratorio a escribir las primeras páginas del Quijote
Entrevista a Ceferino López del ICMM en Universo Paralelo.
Mar García y José Ángel Martín Gago, ICMM, en el Programa de Telemadrid “ConCiencia: Micromundos”.
| Richard G. Weiss
Georgetown University. Washington DC. USA
|19 July 2017, 12:00 h|
| Priya Mahadevan
S.N. Bose National Centre for Basic Sciences. Saltlake. Kolkata. India.
|30 June 2017, 12:00 h|
| Xiaofeng Jin
Fudan University, China
|16 June 2017, 12:00 h|
| J. C. Bayer
Institut fur Festkorperphysik, Leibniz Universitat Hannover
|13 June 2017, 12:00 h|
| Francisco Muñoz
Instituto de Cerámica y Vidrio (ICV-CSIC)
|08 June 2017, 12:00 h|
| Celia Sánchez Ramos
Universidad Complutense de Madrid
|06 June 2017, 12:00 h|
| Marek Korkusinski
Security and Disruptive Technologies, National Research Council, Ottawa, Canada
|01 June 2017, 12:00 h|
| Laura Fanfarillo
SISSA/ISAS (International School of Advanced Studies), Trieste
|30 May 2017, 12:00 h|
| Juan José Palacios
Dpto. Física de la Materia Condensada. Universidad Autónoma de Madrid
|25 May 2017, 12:00 h|
| Jacob Torrejon
Unite Mixte de Physique, CNRS/Thales, Palaiseau, France
|22 May 2017, 12:00 h|
| Ana Isabel Maldonado Cid
||18 May 2017, 12:00 h|
| Alberto Cortijo
Instituto de Ciencia de Materiales de Madrid CSIC
|11 May 2017, 12:00 h|
| Department of Molecular Evolution. Centro de Astrobiología
|08 May 2017, 12:00 h|
| Francesco Sette
ESRF Director General, Grenoble, France
|05 May 2017, 12:00 h|
| Tobias Stauber
|04 May 2017, 12:00 h|
| Rolf J. Haug
Institut für Festkörperphysik, Leibniz Universität Hannover
|27 April 2017, 16:00 h|
| Manuel Alcamí
Departmento de Química, Universidad Autónoma de Madrid -UAM-, 28049 Madrid
|27 April 2017, 12:00 h|
| ROBERTO MORENO“Ultrafast magnetization switching”
CARMEN MUNUERA“From sublime to ubiquitous: challenges in SPM and its combination with other surface-sensitive techniques”
|26 April 2017, 12:00 h|
| Gabriel Cwilich
Yeshiva University, NY USA
|25 April 2017, 12:00 h|
| Dr. Joaquín Sevilla Moróder
Responsable de Divulgación del Conocimiento de la Universidad Pública de Navarra
|24 April 2017, 12:00 h|
| Pablo Ares
Department of Condensed Matter Physics, Universidad Autónoma de Madrid
|22 April 2017, 12:00 h|
| C. López
Materials Science Factory & Photonic Materials Department, ICMM
|06 April 2017, 12:00 h|
| Cristiane Morais Smith
Utrecht University. The Netherlands.
|04 April 2017, 12:00 h|
| Mónica Benito González
|03 April 2017, 12:00 h|
| Yurena Luengo Morató
|31 March 2017, 12:00 h|
| Raymond Osborn
Materials Science Division, Argonne National Laboratory, Argonne IL 60439, USA
|30 March 2017, 12:00 h|
| Fabio Biscarini
Life Sciences Dept., Università di Modena e Reggio Emilia, Modena , Italy
|16 March 2017, 11:00 h|
| Makoto OGAWA
Vidyasirimedhi Institute of Science and Technology, Thailand
|13 March 2017, 12:00 h|
| A. Martín-Gago, J. Cernicharo
|09 March 2017, 12:00 h|
| Andrés Castellanos-Gómez
2D Materials & Devices group. IMDEA Nanoscience.
|02 March 2017, 12:00 h|
| Nicolás Agraït
Dpto. Física Materia Condensada. Universidad Autónoma de Madrid.
|23 February 2017, 12:00 h|
| David Siniscalco
Université Bretagne Sud, CNRS Centre de Recherche C. Huygens
|21 February 2017, 12:00 h|
| F. A. Pinheiro
Instituto de Física, Universidade Federal do Rio de Janeiro, Brasil
|31 January 2017, 12:00 h|