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ESC2RAD- Enabling Smart Computations to study space RADiation effects

ESC2RAD- Enabling Smart Computations to study space RADiation effects

Funding Program: 
EU - Horizon 2020
Coordinator: 
Institut Royal D'aéronomie Spatialede Belgique - Belgium
Call: 
H2020-COMPET-2017
Project ID: 
776410
PI at nanoGUNE: 
Emilio Artacho (e.artacho@nanogune.eu)
From: 
01/05/2018
To: 
30/04/2021
Total funding: 
1,262,763,75€
Contribution to nanoGUNE: 
218,750.00€
Web: 
esc2rad.eu/
Research: 
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.

The project indeed aims at putting forward a next-generation of space radiation predictive tool, based on the combination of Space environment tools and high performance, parameter free (first-principles) approaches from the materials science/chemical-physics community, able to calculate with predictive power both the materials’ and the DNA damag In particular, by combining the SPENVIS tool with a highly efficient first-principles materials modelling tool (SIESTA), the new approach will be used to study the degradation of solar cells and the DNA damage for a LEO orbit and an interplanetary travel, under different worst-case Space Weather scenarios. On the basis of the new results, which can disentangle different microscopic effects contrary to the often overall response split out by particles transport tools, we will be able to redefine in detail the “worst case scenarios” in Space Weather, for each sub-parts of a solar cell and different DNA segments, with respect to current definitions. By applying data-mining/smart search algorithms we will be able to propose possible radiation-resistant materials and, on the basis of a new DNA damage descriptor, possible mitigating agents acting on specific parts of the DNA. A first-principles database of key quantities for the interaction of space radiation and materials/biological samples will be set up, to be used both for future, first-principles-only, studies or for current studies improving the input to Monte Carlo tools. The study will pose the basis to enable smart future architectures, based on high performance computing, to better understand the risks posed by Space Weather and to search, with predictive power, possible game-changing solutions to enhance the lifetime of space missions.

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