The project aims at developing hybrid systems combining the ultralow energy, speed, and control of plasmonic opto-heating with the unique property of nanoscale graded magnetic metamaterials to display magnetic phase transitions across precisely engineered critical temperatures. 

The mission of NanoReMedi is to define a joint doctorate educational training model in Functional Nano-Scaffolds for Regenerative Medicine where Academia and Industry join their forces to create a highly innovative research network for training a new generation of researchers who will enter the area of nanoscience from adjacent disciplines (such as chemistry, material sciences and bioinformatics) establish a solid framework for long-term research cooperation between a pool of leading Universities and Enterprises build a solid foundation for long-term European excellence in medical nanotechnology. 

The emergence of ESR-STM has recently opened new perspectives on the coherent manipulation of individual spin qubits. However, to date ESR-STM experiments are essentially focused on individual magnetic atoms deposited on MgO/Ag(100). The insulating layer of MgO seems to be an essential ingredient to obtain addressable and functional single atom qubits, e.g. to fix the spin along certain directions and enable ways for its manipulation. The aim of this project is to go beyond the current restriction of ESR-STM on individual atomic qubits on MgO layers and expand its usage towards robust qubits in other environments. This will be done by using metallo-organic complexes whose organic structure is designed in such a way to play the role of the MgO layer. ESR will be performed on individual magnetic molecules and their potential as molecular spin qubits in contact with metals will be probed. The overall methodology of the project is divided into three main objectives: (1) demonstrate ESR-STM on magnetic molecules; (2) demonstrate ESR-STM on magnetic molecules in direct contact with a metallic substrate and use molecules as magnetic sensors; (3) protection of spin coherence by superconductivity. The impact of the project goes beyond the purely scientific interest and it extends to the industrial sectors of technology and telecommunications. This is because it actually opens the possibility of implementing spintronic devices aimed at storage and manipulation of quantum information in which the individual qubits can be concretely addressed thanks to some type of electrode. Moreover, the coherent control of quantum states is currently under large demand in Europe. In this regard, the highly specialized expertise acquired by the researcher thanks to this project will clearly be an added value in the preparation of his future career. In conjunction with its scientific aim, QMOLESR is designed to train an excellent, independent researcher who will develop his research career.

HiMat focuses on the development of hybrid layered materials (HLMs) with tailored physical  properties and their integration in lab-scale devices for opto- and spin- electronics or quantum computing. By taking advantage from the chemical flexibility of organic molecules, HiMat explores tailored HLMs obtained through a top-down approach as intercalated compounds and through a bottom-up approach as organic-inorganic metal-halide perovskites.

The objectives of the project include establishing correlative nano-FTIR, TERS, and TEPL spectroscopy, studying industrially relevant polymers, exploring organic conductors' conductivity, and investigating phonon polaritons in 2D materials. The project targets developing advanced near-field spectroscopy instrumentation and achieving vibrational strong coupling in nanoresonators and molecular vibrations.

CARDIOPRINT is born with the ambition of shaping a quantum leap in the fields of Additive Manufacturing and Biofabrication of therapeutic human cardiac tissues, at both the technological and applicative levels. The overall concept of this enterprising project is to develop a new multifunctional additive manufacturing technology able to provide the sufficient accuracy for the manufacturing of human tissues at an organ scale for the first time. 

Polymers and inorganics come together to support novel waste heat harvesting.

Organic-inorganic hybrid materials can significantly enhance the design space for novel functionalities, integrating the best properties of the individual components and even resulting in new ones. Polymers and functional inorganic compounds are the top players in the world of materials science. With the support of the Marie Skłodowska-Curie Actions programme, the HYTEM project will bring them together literally, generating inorganic structures simultaneously in the subsurface of a bulk polymer and on its top surface. The expected result: novel hybrid thermoelectric materials able to scavenge waste heat and turn it into electricity with unparalleled efficiency.

This project aims at establishing s-SNOM as a platform technology for label-free ultrastructural pathology. s-SNOM is an emerging technique -- co-developed at nanoGUNE -- that beats the diffraction limit and allows for obtaining infrared images with nanoscale spatial resolution. Applied to ultrathin cell sections, s-SNOM will allow for an unprecedented view on the chemical composition of the interior of a cell that cannot be easily calculated nor measured. Thus, s-SNOM will provide a reference data set that will help to validate already existing medical application of infrared microscopy and may even lead to the discovery of new nano-IR biomarkers.
 

A unique combination of features in a single focused ion beam electron microscope. 

One of the important directions of modern medicine is noninvasive diagnostics. The urgency of the problem is determined by the search of safe methods of examination and sparing techniques of collection of material for medical analysis when the patient does not feel pain, physical and emotional discomfort.

The project BRIDGE is aimed at closing the gap between studying polymers and biopolymers. Traditionally, these materials are "at home" in the disciplins of soft matter physics and of biophysics, respectively. Our interdisciplinary approach opens new avenues, of which we explored morphology and dynamics. A special focus was on the role of water, as solvent, and as adsorbed layer. 

This is a collaborative research project funded by the Spanish Research Agency (AEI) for synthetizing functional complex carbon-based molecular nanostructures with atomic precision and testing their potential operability as functional units in various technological applications, such as spintronics, topological engineering, (opto)electronics, thermoelectricity, and chemical and molecular sensing and filtering. FunMolSys combines the work of six Spanish research groups in Galicia (CiQUS at the University of Santiago de Compostela), Euskadi (the CFM, Centro de Física de Materiales - CSIC-UPV, and CIC nanoGUNE), Aragón (the ICMA, Instituto de Ciencia de Materiales de Aragón – CSIC-UZ), and Catalunya (the ICN2, Instituto Catalán de Nanociencia y Nanotecnología). In the last years, FunMolSys has produced novel strategies for synthesis of customized graphene platforms over metallic surfaces and identification of their new electronic and magnetic properties with a combination of multiple experimental methods, theoretical tools, and multidisciplinary expertise. Within FulMolSys, the research groups of Theory and nanoimaging, led by Profs. Artacho and Pascual, respectively, contributed with a sub-project entitled “Magnetism and topological states of on-surface engineered molecular nanosystems”

This project aims to leverage our expertise in surface functionalization and hybrid material fabrication to develop new systems for diagnostics, energy conversion, and food packaging. Our capabilities include synthesizing 0D materials (nanoparticles) and 2D materials (atomic scale thin films) and modifying surfaces with hybrid materials to introduce or enhance chemical and physical properties. Our focus will be on developing innovative materials with exciting applications in biomedical diagnostics and therapies, and concepts for enhancing common polymers used for intelligent food packaging in the future.

We live in a technological world where usage of electronic devices for information technology is an integral part of everyday life. Present and future technological progress requires miniaturization of such devices, continuous improvement of their performances and decreasing of energy consumption.

The EU-funded H2020 project SPRING (project ID 863098) is focused on the development of new graphene-based magnetic components that contribute to the creation of faster and environmentally friendly electronic devices. This international research project is coordinated by CIC nanoGUNE (ES) in partnership with IBM (CH), University of Santiago de Compostela (ES), Technical University of Delft (NL) and University of Oxford (UK), and Donostia International Physics Center (ES).

El proyecto tiene como finalidad la compra de un evaporador de alto vacío provisto de dos tipos diversos de evaporación de materiales y un equipo de ataque físico por iones. Las características de este equipo nos permitirán ampliar los materiales disponibles en nuestra sala blanca, así como acometer procesos de fabricación con condiciones ideales en cuanto a limpieza de intercapas y con un nivel ideal de rotación de usuarios.

One of the most challenging problems in material science is establishing a relation between material’s properties and interfacial structure.

This project aims at establishing a fundamental and applied research program via the set up of a new “virtual modeling lab” which will open the path towards a change of paradigm in the modelling of Space Weather impact.

Within the project an extensive, detailed and robust Business Plan will be developed for setting-up of the Centre of Excellence ENSEMBLE3, with focus on the research excellence and innovation performance in the area of crystal growth-based technologies, novel functional materials with innovative electromagnetic properties, and applications in nanophotonics, optoelectronics, telecommunication, medicine, and photovoltaics.

Developing inks of novel 2D semiconducting materials for low-cost large-area fabrication processes.

Graphene plasmons (GPs), is enable the transport and control of light on an extreme subwavelength scale as well as the dynamic tunability via electric-gate voltage, which can be exploited for numerous applications such as for strong light-matter interactions, tunable infrared biosensing and absorption spectroscopy, subwavelength optical imaging, as well as for the development of tunable transformation optics devices, metamaterials and metasurfaces.

E-CAM will create, develop and sustain a European infrastructure for computational science applied to simulation and modelling of materials and of biological processes of industrial and societal importance. Building on the already significant network of 15 CECAM centres across Europe and the PRACE initiative, it will create a distributed, sustainable centre for simulation and modelling at and across the atomic, molecular and continuum scales.

The ANTOMIC project (Quantum nanoantennas for atomic-scale optical spectroscopy) studies the quantum limits of light emission and scattering by metallic and molecular nanowires of nanometer sizes. We will identify their plasmon resonances and correlate them with their quantized electronic structure.

The aim of SIESTA-PRO is taking the open-source SIESTA program (a program for the first-principles simulation of matter and materials) to high standards of competitiveness in international industrial scene. It is a collaboration led by Simune Atomistics Ltd, a company offering simulation services to high-tech industry, with three research institutions as partners. The research groups will develop new key strategic features into SIESTA, while Simune will develop tools to increase its usability in industrial environments.