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The researchers in CIC nanoGUNE’s Nanodevices Group, in collaboration with the Mesoscopic Physics Group of the Materials Physics Centre (CFM) and research groups in the Czech Republic, Germany and France, have experimentally demonstrated, for the first time, that it is possible to obtain from an altermagnet a spin current that can transport magnetic information. This result is supported by the theoretical model of electron transport developed by the CFM group. Altermagnets are a new class of materials that, despite not exhibiting the net magnetisation characteristic of conventional magnets, can generate this type of current. The result experimentally confirms a prediction made a few years ago by research groups in the Czech Republic and Germany, and represents a major advance in the study of altermagnets and their potential for the development of new information storage and processing technologies. The results of this study have been published in the prestigious journal Nature.

CIC nanoGUNE is participating in ELIgnite, a European project designed to address the gap between scientific excellence and the validation of deep-tech technologies needed for industrial uptake and societal impact.

The researchers in the Quantum Detection Microscopy group at CIC nanoGUNE, in collaboration with chemists at CiQUS of the University of Santiago de Compostela, have demonstrated that adding or removing a single molecule from a quantum chain can fundamentally change its interaction with a superconductor. The key lies in a property as simple as parity, that is, whether the chain contains an even or odd number of units. While chains with an odd number interact magnetically with the superconductor, those with an even number do not. The results of this study have been published in the prestigious journal Nature.

From 14 to 16 October, the San Sebastian Aquarium is hosting the MIRA 2026, International Conference on Microrobotics for Real-World Medical Applications, which is aimed at promoting innovation, strengthening translational research and accelerating the development and adoption of microrobotic solutions for critical medical needs.

Today, nanoGUNE welcomed a delegation from the Generalitat de Catalunya, led by Núria Montserrat, Minister for Research and Universities of Catalonia, and accompanied by representatives from the Basque Government.

On 15 and 17 July, the IKUR research community organised two working sessions at nanoGUNE, aimed at sharing knowledge and advances and strengthening the collaboration between the IKUR Quantum Technologies and IKUR HPC−AI projects. The sessions had the participation of representatives from the Basque Government’s Department of Science, Universities and Innovation: Adolfo Morais, Deputy Minister for Science and Innovation, Amaia Esquisabel, Head of Science Policy and Maialen Agirre, Head of Innovation.

CIC nanoGUNE received its third María de Maeztu Unit of Excellence accreditation at an official ceremony in the Cubo Azul Auditorium of the Polytechnic University of Valencia, organised by the Ministry of Science, Innovation and Universities to recognise the research centres and units selected in the 2025 call. Representing nanoGUNE were its director José María Pitarke, and lead researcher Luis Hueso, who received the accreditation statuette that reaffirms the centre’s position as an international leader in the fields of nanoscience and nanotechnology.

In a recent article published in Physical Review Letters (Phys. Rev. Lett. 137, 026703 (2026)), a collaboration of scientists from Turkey, the UK and the Nanomagnetism group at nanoGUNE have discovered a non-equilibrium skyrmion phase that has no equilibrium equivalent but is instead fundamentally associated with the oscillating magnetic fields that are driving the non-equilibrium dynamics in two-dimensional lattice systems. 

Researchers from the Quantum Hardware group at CIC nanoGUNE, in collaboration with the British company Quantum Motion, have demonstrated an advanced readout sensor for spin qubits that, while being more compact that previous designs, can reach the level of readout precision needed to implement quantum error correction protocols. The study has been published in the journal Nature Sensors. 

The TextaDNA project, funded by the EIC Pathfinder program and coordinated by CIC nanoGUNE, is moving steadily forward in its mission to develop a new generation of DNA‑based data storage integrated into polymer fibers. In collaboration with Eurofins Genomics, a multinational specialized in DNA synthesis and sequencing located in Germany, the consortium is building a complete workflow that enables digital information to be encoded into DNA sequences, embedded into polymer‑based nanomaterials, and later retrieved and decoded with high fidelity.