We are focusing on low pressure non-equilibrium plasmas containing nitrogen, hydrogen and nitrogen hydrides. These plasmas can be relevant for the ammonia synthesis, which in turn is susceptible to become a liquid, green hydrogen storage cell. Our main objective is to contribute to the chemistry of the main ingredients - nitrogen, hydrogen and nitrogen hydrides, in particular by understanding the role of the elementary electron driven reactions. We plan to revise, produce and upgrade the needed molecular data sets, to perform state-of-the-art state-selective quantum scattering calculations.

The produced cross sections and rate coefficients will be used by the modelers in simulations to find the best plasma conditions to achieve ammonia synthesis.

Budget: 4,000,000 HUF

One of humanity's enduring objectives has been to comprehend the Sun, the star that provides our planet with energy. We now understand that stars generate energy through nuclear fusion reactions. Today astronomical observations have achieved unparalleled precision, however, the predictions made by the Standard Solar Model, which links the Sun's properties to observable quantities, is not precise enough.

In order to achieve the desired level of accuracy, it is essential to conduct experiments measuring the most significant nuclear reactions, such as the proton capture on nitrogen or the fusion of the two helium isotope. The objective of this project is to measure these reactions with high precision, taking advantage of the rapid development of experimental techniques and the applicability of new methods. The experiments will primarily utilise Hungary's state-of-the-art particle accelerator (the Atomki Tandetron) and, in international collaborations, unique underground accelerators.

Budget: 150 MHUF

The project aims to analyse and interpret data from cave ice to reconstruct detailed climate histories. Given the increasing vulnerability of cave ice to global warming, the project addresses the urgent need for their comprehensive study and preservation. The budget available in this project will enable Hungarian researchers to travel to Slovenian caves and collect samples together with Slovenian colleagues. The research will create a global database of cave ice chronologies, highlighting both existing knowledge and key gaps that should guide future research. The project’s results will help better predict future climate books, inform environmental policy, and contribute to the global effort to preserve these invaluable natural archives in the face of accelerating climate threats.

Budget: 3 MHUF

The VIBREAC project is an MSCA postdoctoral fellowship that aims to develop new computational tools based on quasi-classical scattering models and full-dimensional potential energy surface (PES) descriptions to study state-to-state molecular interactions relevant to astrophysics. The new scattering model can handle collisions of polyatomic species with full resolution of their rotational-vibrational (rovibrational) levels, essential for interpreting astronomical observations of complex molecules. The project will be implemented at HUN-REN ATOMKI with new developments in molecular scattering dynamics and potential energy surface calculations. The grantee (Sandor Demes) will conduct several secondments at the University of Szeged (Hungary) to receive training in computational chemistry and PES development and at Katholieke Universiteit Leuven (Belgium) to expand his knowledge of the rovibrational description of molecular scattering.

The total budget is 182,744 EUR, which is granted entirely to the host institute, HUN-REN ATOMKI.

Accurate nuclear reaction data are essential for 21st century nuclear technology and scientific applications. In 2021, experts from the International Atomic Energy Agency reviewed the available experimental and theoretical information on (a,n) reactions and – since they are insufficient for many modern applications – made proposals for further experiments in the form of a so-called “white paper” (further details: INDC(NDS)-0836). Within the framework of the TKCS-2024/56 project, we measure cross sections of several nuclear reactions with high accuracy in the relevant energy range using experimental techniques that have not been used before.

• Applicant: HUN-REN ATOMKI
• Co-applicant: Budapest University of Technology and Economics
• Budget for years 2025-27: 248.9 MHUF

The aim of the project is to explore the physical properties of materials in the range of environmental conditions encountered in space. In particular, we study the properties of condensed molecular films (ices) and their gas-phase components as well as materials proposed for utilisation in space. The experiments will be performed under (i) ultrahigh-vacuum conditions, (ii) across the range of temperatures typically encountered in space, and (iii) during exposure to space radiation encompassing ions with energies over the keV and MeV range, thus mimicking the solar wind.

The project can be divided into two distinct but complementary work-packages, focusing on (1) the physical structure of ices in space, and (2) the irradiation of materials (including astrophysically relevant ices and gases that show potential for applications in space exploration) under conditions analogous to those encountered in space.

Project budget: 119 880 000 HUF.

The project is designed to address the critical demand for accurate and advanced nuclear reaction and decay data. These data are essential for modelling and simulation tools crucial to energy-related applications (including nuclear fission and fusion) as well as healthcare, space exploration and radiation protection.

The main objectives are (1) conducting experiments to obtain new and improved nuclear data, (2) evaluating available experimental nuclear data, (3) validating evaluated nuclear data files, (4) supporting access to key experimental infrastructures, (5) developing and improving detectors, techniques, infrastructures, analysis methods, (6) developing new infrastructure to develop isotopically enriched materials, (7) identifying new nuclear data priorities, (8) assessing nuclear data competences. ATOMKI contributes to objective (2) and (8).

The consortium includes 37 partners and is lead by CIEMAT, Spain.

The objectives will financed with 4 MEUR, the share of ATOMKI is 21.9 kEUR.

The aim of the project is to improve the theoretical background on which device-independent quantum cryptography is based to a level that it becomes feasible in real-life applications. We will achieve this by investigating new Bell nonlocality tests which are the foundation of quantum cryptography, by streamlining security proofs, and by inventing new experimental setups.

ATOMKI contributes to the project by creating mathematical techniques to designing quantum communication devices that are distributed in novel network topologies.

• Project coordinator: Prof. Marcin Pawłowski (University of Gdańsk, PL)
• Consortium partners: University of Gdańsk (PL), INRIA Lyon (FR), ETH Zurich (CH), ATOMKI (HU)
• Budget of the whole project: 1.064.600 EUR
• Budget of ATOMKI: 60.706.800 HUF

RIANA unites 7 European networks of top-level research infrastructures to provide advanced techniques for nanofabrication, characterization and simulation. It offers efficient access to 69 research infrastructures through a single-entry point. RIANA aims to attract both experienced and new users from academia and industry, adapting to emerging scientific topics and needs.

• Project coordinator: Deutsches Elektronen-Synchrotron, DESY (Hamburg, Germany)
• Members: 56 consortium partners from 22 European countries

• Role of ATOMKI: Transnational Access provider, provides beamtime for external users at the Tandetron particle accelerator

• Budget of the whole project: 15 MEUR
• Of which budget of ATOMKI: 35,700 EUR

The aim of the 4-year project is to use greenhouse gas emission data calculated from atmospheric measurements to help refine national emission inventories based on activity statistics. The project focuses on eight European countries, including Hungary. The project places particular emphasis on methane (CH₄), nitrous oxide (N₂O) and halogenated gases (F-gases), which play a key role in the atmospheric greenhouse effect.

The greenhouse gas monitoring station maintained by ATOMKI at Hegyhátsál is one of the stations on which the project bases. Here, atmospheric concentration of nitrous oxide is continuously measured and air samples are taken for F-gas analyses. The emission data calculated from these measurements is shared with the national organizations responsible for the emissions inventories.

The project is being implemented within the framework of a consortium. The 17-member consortium of 8 countries is led by Utrecht University.

The total funding for the project is 3,526,154.50 EUR, of which ATOMKI will receive 178,000 EUR.