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Breakthrough achieved by UC3M and Harvard scientists A team of scientists from Universidad Carlos III de Madrid (UC3M) and Harvard University have experimentally demonstrated that it is possible to reprogram the mechanical and structural behaviour of innovative artificial materials with magnetic properties, known as metamaterials, without the need to modify their composition.

The fate of the Universe depends on the balance between matter and dark energy, the fundamental ingredient that drives its accelerating expansion.

Physical Review Letters magazine has published a paper by Nicolás Sanchis Gual (UV), Juan Calderón Bustillo (IGFAE), and Adrián del Río (UC3M-UV) which analyses the possible asymmetry of black hole fusions. A paper led by researchers from the Universitat de València (UV), the Galician Institute of High Energy Physics (IGFAE), and Charles III University of Madrid (UC3M) researches the possible existence of asymmetries in the universe through the analysis of the direction of rotation in black hole fusions.

Traditional black holes, as predicted by Albert Einstein's theory of General Relativity, contain what are known as singularities , i.e. points where the laws of physics break down. Identifying how singularities are resolved in the context of quantum gravity is one of the fundamental problems in theoretical physics.

The world of quantum physics is experiencing a second revolution, which will drive an exponential leap in the progress of computing, the internet, telecommunications, cybersecurity and biomedicine. Quantum technologies are attracting more and more students who want to learn about concepts from the subatomic world - such as quantum entanglement or quantum superposition - to explore the innovative potential of quantum science.

Researchers at the Autonomous University of Madrid (UAM) and CSIC have developed an innovative technique that combines ion implantation and femtosecond lasers to create advanced optical nanocomposites. The work, published in Materials Today Nano , lays the groundwork for a new generation of customizable materials with applications in optics, sensors and photonics.

A Spanish team led from the Autonomous University of Madrid (UAM) has observed the formation of a new quantum state in ultrathin materials by cooling a Mott insulator below 11 Kelvin. This finding, published in Nature Communications , could revolutionize the development of superconductors and next-generation electronic devices, marking a milestone in materials science.

News Researchers analyze the directional peak-antenna-like behavior of tunnel junctions formed by surface defects at the atomic scale The profile of light collected with tunneling microscopes changes when the tip is placed on an atomic step. This phenomenon can be exploited to build picoantennas, nanoscale elements that direct light.

Researchers from the Institute of Corpuscular Physics (IFIC, UV-CSIC) achieve to measure at the laboratory the formation of a key element in the evolution of chemical make-up of the heavy elements. An isotope of this element, Lead-204, is produced in giant red stars, responsible for the creation of half of the elements which are heavier than iron in nature.

Scientists at the Autonomous University of Madrid (UAM) argue that the most exotic and complex quantum phenomena occur at frequencies where quantum systems emit the least light. The work opens new doors for the development of advanced quantum technologies by studying correlations of multiple photons emitted by qubits (atoms or other two-electron systems).

The result, the most accurate performed at CERN's LHC to date, was obtained from 2016 data from the CMS experiment and is in agreement with the prediction of the standard model of particle physics.

A collaboration led by Enrique Nácher, from the Institute of Corpuscular Physics (IFIC), has developed the first fully Spanish proton tomography scanner. The device reuses prototypes from other nuclear physics projects and has been tested at a proton therapy centre in Poland. The first results of this project, developed in collaboration with the Institute of Structure of Matter (IEM-CSIC) and the Complutense University of Madrid (UCM), have been published in The European Physical Journal Plus.

Carlos Mariñas, researcher at the Institute of Corpuscular Physics (IFIC, UV-CSIC), has been appointed head of the global upgrade operations for the Japanese Belle II detector, an experiment involving over 1,000 researchers from 27 countries aimed at improving the efficiency of high-luminosity operations, which are crucial for the detailed study of both rare processes and future discoveries in particle physics.

A team from the Autonomous University of Madrid (UAM) has developed paper sensors with rare-earth nanoparticles capable of detecting small concentrations of glucose in aqueous solutions. The work, published in the journal Colloids and Surfaces B: Biointerfaces , offers a non-invasive alternative for measuring glucose levels in patients with diabetes, eliminating the need to prick fingers to draw blood.

These images allow scientists to search for wandering planets, study dark matter using lensed galaxies and explore the evolution of the universe.

A team of researchers from the Autonomous University of Madrid (UAM) has developed hybrid membranes based on a functional porous nanomaterial and a polymer, capable of effectively degrading emerging contaminants present in water. The work, published in the journal Nanoscale , promises to significantly improve water quality and contribute to the development of sustainable treatment methods.

The Spanish Nuclear Safety Council (CSN) just funded a new project in the Institute of Corpuscular Physics (IFIC).

An international research team, with the participation of the University of Valencia, has managed to multiply the luminescence efficiency of upconversion nanomaterials, a light absorption and emissio

"This is one of the most important works that this research group has done in its history, and that is saying a lot", especially in a team that is able to characterize and synthesize its own carbon n

A team at the Autonomous University of Madrid (UAM) has developed a tunable light source that can emit single photons in the terahertz (THz) regime. The finding opens up new frontiers in quantum technology, promising innovative applications in sectors such as spectroscopy, microscopy, medical diagnostics, communications and security.