Software

# Overview RHINE (R-process Heating Implementation in hydrodynamic simulations with NEural networks) is a machine-learning based Fortran code for modeling r-process heating in astrophysical hydrodynamic simulations. The code uses trained neural networks to provide fast and accurate estimates of r-process related rates of change for a set of characteristic quantities. [...]

The AsyEOS (Asymmetric-matter Equation-Of-State) directory within the R3BRoot framework provides the full detector definitions, Monte Carlo simulation tools, and digitization algorithms for the detectors used in the AsyEOS/R3B (Reactions with Relativistic Radioactive Beams) experimental campaign at the GSI/FAIR (Facility for Antiproton and Ion Research) facility. AsyEOS-R3BRoot, developed on top of the FairRoot framework, is a versatile toolkit for performing Monte Carlo simulations and processing experimental data to measure the flows of neutrons and light charged particles produced in Nucleus-Nucleus collisions in order to investigate symmetry energy of the nuclear equation of state at densities above the saturation one. [...]

The AsyEOS (Asymmetric-matter Equation-Of-State) directory within the R3BRoot framework provides the full detector definitions, Monte Carlo simulation tools, and digitization algorithms for the detectors used in the AsyEOS/R3B (Reactions with Relativistic Radioactive Beams) experimental campaign at the GSI/FAIR (Facility for Antiproton and Ion Research) facility. AsyEOS-R3BRoot, developed on top of the FairRoot framework, is a versatile toolkit for performing Monte Carlo simulations and processing experimental data to measure the flows of neutrons and light charged particles produced in Nucleus-Nucleus collisions in order to investigate symmetry energy of the nuclear equation of state at densities above the saturation one. [...]

The AsyEOS (Asymmetric-matter Equation-Of-State) directory within the R3BRoot framework provides the full detector definitions, Monte Carlo simulation tools, and digitization algorithms for the detectors used in the AsyEOS/R3B (Reactions with Relativistic Radioactive Beams) experimental campaign at the GSI/FAIR (Facility for Antiproton and Ion Research) facility. AsyEOS-R3BRoot, developed on top of the FairRoot framework, is a versatile toolkit for performing Monte Carlo simulations and processing experimental data to measure the flows of neutrons and light charged particles produced in Nucleus-Nucleus collisions in order to investigate symmetry energy of the nuclear equation of state at densities above the saturation one. [...]

The AsyEOS (Asymmetric-matter Equation-Of-State) directory within the R3BRoot framework provides the full detector definitions, Monte Carlo simulation tools, and digitization algorithms for the detectors used in the AsyEOS/R3B (Reactions with Relativistic Radioactive Beams) experimental campaign at the GSI/FAIR (Facility for Antiproton and Ion Research) facility. AsyEOS-R3BRoot, developed on top of the FairRoot framework, is a versatile toolkit for performing Monte Carlo simulations and processing experimental data to measure the flows of neutrons and light charged particles produced in Nucleus-Nucleus collisions in order to investigate symmetry energy of the nuclear equation of state at densities above the saturation one. [...]

The SOFIA software module, integrated into the R3BRoot framework, provides comprehensive tools for configuring and managing the SOFIA detector analysis, specifically designed for nuclear fission experiments performed with the GLAD superconducting spectrometer. Sofia-R3BRoot, built on the FairRoot framework, offers a robust software environment for conducting detailed Monte Carlo simulations and processing experimental data from R3B (Reactions with Relativistic Radioactive Beams) experiments. [...]

The SOFIA software module, integrated into the R3BRoot framework, provides comprehensive tools for configuring and managing the SOFIA detector analysis, specifically designed for nuclear fission experiments performed with the GLAD superconducting spectrometer. Sofia-R3BRoot, built on the FairRoot framework, offers a robust software environment for conducting detailed Monte Carlo simulations and processing experimental data from R3B (Reactions with Relativistic Radioactive Beams) experiments. [...]

The SOFIA software module, integrated into the R3BRoot framework, provides comprehensive tools for configuring and managing the SOFIA detector analysis, specifically designed for nuclear fission experiments performed with the GLAD superconducting spectrometer. Sofia-R3BRoot, built on the FairRoot framework, offers a robust software environment for conducting detailed Monte Carlo simulations and processing experimental data from R3B (Reactions with Relativistic Radioactive Beams) experiments. [...]

The SOFIA software module, integrated into the R3BRoot framework, provides comprehensive tools for configuring and managing the SOFIA detector analysis, specifically designed for nuclear fission experiments performed with the GLAD superconducting spectrometer. Sofia-R3BRoot, built on the FairRoot framework, offers a robust software environment for conducting detailed Monte Carlo simulations and processing experimental data from R3B (Reactions with Relativistic Radioactive Beams) experiments. [...]

The SOFIA software module, integrated into the R3BRoot framework, provides comprehensive tools for configuring and managing the SOFIA detector analysis, specifically designed for nuclear fission experiments performed with the GLAD superconducting spectrometer. Sofia-R3BRoot, built on the FairRoot framework, offers a robust software environment for conducting detailed Monte Carlo simulations and processing experimental data from R3B (Reactions with Relativistic Radioactive Beams) experiments. [...]