matter.setupMicroGap

nucleardatapy.matter.setup_micro_gap.micro_gap_models(matter='NM')

Return a list with the name of the models available in this toolkit and print them all on the prompt. These models are the following ones: ‘2008-BCS-NM’, ‘2008-QMC-NM-swave’, ‘2009-DLQMC-NM’, ‘2010-QMC-NM-AV4’, ‘2017-MBPT-NM-GAP-EMG-450-500-N2LO’, ‘2017-MBPT-NM-GAP-EMG-450-500-N3LO’, ‘2017-MBPT-NM-GAP-EMG-450-700-N2LO’, ‘2017-MBPT-NM-GAP-EMG-450-700-N3LO’, ‘2017-MBPT-NM-GAP-EM-500-N2LO’, ‘2017-MBPT-NM-GAP-EM-500-N3LO’, ‘2022-AFDMC-NM’ :param matter: matter can be ‘NM’ (by default) or ‘SM’. :type matter: str. :return: The list of models. :rtype: list[str].

class nucleardatapy.matter.setup_micro_gap.setupMicroGap(model='2008-BCS-NM', matter='NM')

Instantiate the object with microscopic results choosen by the toolkit practitioner.

This choice is defined in model, which can chosen among the following choices: ‘2008-BCS-NM’, ‘2008-QMC-NM-swave’, ‘2009-DLQMC-NM’, ‘2010-QMC-NM-AV4’, ‘2017-MBPT-NM-GAP-EMG-450-500-N2LO’, ‘2017-MBPT-NM-GAP-EMG-450-500-N3LO’, ‘2017-MBPT-NM-GAP-EMG-450-700-N2LO’, ‘2017-MBPT-NM-GAP-EMG-450-700-N3LO’, ‘2017-MBPT-NM-GAP-EM-500-N2LO’, ‘2017-MBPT-NM-GAP-EM-500-N3LO’, ‘2022-AFDMC-NM’ :param model: Fix the name of model. Default value: ‘2008-BCS-NM’. :type model: str, optional.

Attributes:

Parameters:

• model (str, optional)

• between (The model to consider. Choose)

init_self()

Initialize variables in self.

model

Attribute model.

print_outputs()

Method which print outputs on terminal’s screen.

Here are a set of figures which are produced with the Python sample: /nucleardatapy_sample/matter_setupMicroGap_plot.py

This figure shows the 1S0 pairing gap in neutron matter (NM) over the Fermi energy (top) and the pairing gap (bottom) as function of the density (left) and the neutron Fermi momentum (right) for the models available in the nucleardatapy toolkit.

This figure shows the 1S0 pairing gap in symmetric matter (SM) over the Fermi energy (top) and the pairing gap (bottom) as function of the density (left) and the neutron Fermi momentum (right) for the models available in the nucleardatapy toolkit.

This figure shows the 3PF2 pairing gap in neutron matter (NM) over the Fermi energy (top) and the pairing gap (bottom) as function of the density (left) and the neutron Fermi momentum (right) for the models available in the nucleardatapy toolkit.