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Current projects

POLFEL

Polfel
A project to develop free electron laser in Poland. ----

The CERAD project

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EuroHPC PL - National Supercomputing Infrastructure for EuroHPC

The main aim of the EuroHPC PL project is the deployment of the specialized computing infrastructure. The platform will provide access to hybrid resources such as supercomputers, quantum and neuromorphic accelerators, and dedicated services. The EuroHPC project includes studies of the innovations and solutions to adapt scientific problems and the scientific-oriented software to exascale supercomputers and modern computing architectures. ----

XFEL

European XFEL (European X-ray Free Electron Laser), czyli Europejski Rentgenowski Laser na Swobodnych Elektronach
European X-ray Free Electron Laser (European XFEL) ----

INNDEX

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The PRISMAP project

Logo projektu PRISMAP
  PRISMAP -  The Euro­pean medi­cal iso­tope pro­gramme: Pro­duc­tion of high purity iso­to­pes by mass sepa­ra­tion. ----

SINFONIA

Logo projektu SINFONIA
The main objectives of the four-year SINFONIA project is to develop novel methodologies and tools that will provide a comprehensive risk appraisal for detrimental effects of radiation exposure on patients, workers, carers and comforters, the public and the environment during the management of patients suspected or diagnosed with lymphoma and brain tumours. ----

SECURE

SECURE project aims to make a major contribution to the sustainability of medical isotope production and its safe application in Europe. It is focusing on promising developments in the design of irradiation targets, production routes for existing and new isotopes in nuclear therapy and diagnostics. Isotopes critical in the success of nuclear medicine are selected and research activities such as Cu-64, Ag-111, Tb-161, Lu-177, Re-188, Au-199, Pb-212 and Ac-225 are identified to address some of the major challenges in securing its future availability. ----

Higher-twist corrections to nucleon tomography

At present the GPD phenomenology avoids higher-twist corrections with a rejection of kinematic domains where some corrections may be significant. In practice, it means that a fraction of experimental data is not analyzed and interpreted to access a valuable information about the nucleon structure. This kind of suppression of data, somehow arbitrary, could be avoided with higher-twist corrections taken into account. To address this problem, we present a work plan consisting of three main tasks. ----

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