arpes.simulation.SpectralFunctionPhaseCoherent

class arpes.simulation.SpectralFunctionPhaseCoherent(k=None, omega=None, temperature=None, delta=50, gamma_s=30, gamma_p=10)

Implements the “phase coherence” model for the BSSCO spectral function.

__init__(k=None, omega=None, temperature=None, delta=50, gamma_s=30, gamma_p=10)

Initializes from parameters.

Parameters

• k – The momentum axis.

• omega – The energy axis.

• temperature – The temperature to use for the calculation. Defaults to None.

• delta – The gap size.

• gamma_s – The s-wave gamma parameter.

• gamma_p – The p-wave gamma parameter.

Methods

__delattr__(name, /)	Implement delattr(self, name).
__dir__()	Default dir() implementation.
__eq__(value, /)	Return self==value.
__format__(format_spec, /)	Default object formatter.
__ge__(value, /)	Return self>=value.
__getattribute__(name, /)	Return getattr(self, name).
__gt__(value, /)	Return self>value.
__hash__()	Return hash(self).
__init__([k, omega, temperature, delta, ...])	Initializes from parameters.
__init_subclass__	This method is called when a class is subclassed.
__le__(value, /)	Return self<=value.
__lt__(value, /)	Return self<value.
__ne__(value, /)	Return self!=value.
__new__(**kwargs)
__reduce__()	Helper for pickle.
__reduce_ex__(protocol, /)	Helper for pickle.
__repr__()	Return repr(self).
__setattr__(name, value, /)	Implement setattr(self, name, value).
__sizeof__()	Size of object in memory, in bytes.
__str__()	Return str(self).
__subclasshook__	Abstract classes can override this to customize issubclass().
bare_band()	Provides the bare band dispersion.
digest_to_json()	Summarizes the parameters for the model to JSON.
fermi_dirac(omega)	Calculates the Fermi-Dirac occupation factor at energy values omega.
imag_self_energy()	Provides the imaginary part of the self energy.
measured_spectral_function()	Calculates the measured spectral function under practical conditions.
occupied_spectral_function()	Calculates the spectral function weighted by the thermal occupation.
real_self_energy()	Defaults to using Kramers-Kronig from the imaginary self energy.
sampled_spectral_function([n_electrons, ...])	Samples electrons from the measured spectral function to calculate a detector image.
self_energy()	Calculates the self energy using the phase coherent BSSCO model.
spectral_function()	Calculates the spectral function according to the self energy modification of the bare band.

Attributes

__dict__
__doc__
__module__
__weakref__	list of weak references to the object (if defined)