Public Member Functions
def	__init__ (self)

def	sigma_nu_n (self, E)

def	WM (self, E, mode=0)

def	sigma_anu_p (self, E)

def	WMbar (self, E, mode=0)

def	Fermi_Dirac (self, E, T)

def	sigma_avg_nu_n (self, T)

def	averageE_nu_n (self, T)

def	averageE_anu_p (self, T)

def	sigma_avg_anu_p (self, T)

def	create_WinNet_file_cross_section (self, file_name)

Public Attributes
	MeV2erg

	mec2

	mnc2

	mpc2

	Gf

	c

	hbar

	ga

	Dnp

	cv

	ca

	F2

	sigma_0

	T_grid

Private Member Functions
def	__cor (self, E, nu)

Detailed Description

Definition at line 9 of file create_neutrino_nucleon_file.py.

Constructor & Destructor Documentation

◆ init()

def bin.create_neutrino_nucleon_file.nunucleon.__init__ ( self )

  Class to calculate the charged particle neutrino-nucleon cross sections
  and average cross sections.

Definition at line 11 of file create_neutrino_nucleon_file.py.

Member Function Documentation

◆ __cor()

def bin.create_neutrino_nucleon_file.nunucleon.__cor	(	self,
		E,
		nu
	)

private

  Correction for weak magnetism and recoil according to Horowitz 2002
  (https://ui.adsabs.harvard.edu/abs/2002PhRvD..65d3001H/abstract, Equation 22).

Definition at line 42 of file create_neutrino_nucleon_file.py.

◆ averageE_anu_p()

def bin.create_neutrino_nucleon_file.nunucleon.averageE_anu_p	(	self,
		T
	)

  Calculate the average energy of the absorped neutrino for the reaction:
    bar(nu)_e + p -> n + positron

Definition at line 165 of file create_neutrino_nucleon_file.py.

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◆ averageE_nu_n()

def bin.create_neutrino_nucleon_file.nunucleon.averageE_nu_n	(	self,
		T
	)

  Calculate the average energy of the absorped neutrino for the reaction:
    nu_e + n -> e + p

Definition at line 150 of file create_neutrino_nucleon_file.py.

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◆ create_WinNet_file_cross_section()

def bin.create_neutrino_nucleon_file.nunucleon.create_WinNet_file_cross_section	(	self,
		file_name
	)

  Create the WinNet file with the calculated cross sections
  and the average energy of the absorped neutrino.

Definition at line 197 of file create_neutrino_nucleon_file.py.

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◆ Fermi_Dirac()

def bin.create_neutrino_nucleon_file.nunucleon.Fermi_Dirac	(	self,
		E,
		T
	)

  Calculate the Fermi-Dirac distribution.

Definition at line 125 of file create_neutrino_nucleon_file.py.

◆ sigma_anu_p()

def bin.create_neutrino_nucleon_file.nunucleon.sigma_anu_p	(	self,
		E
	)

  Calculate the electron anti neutrino cross section according to Equation 11 of
  Burrows et al. 2006 (https://ui.adsabs.harvard.edu/abs/2006NuPhA.777..356B/abstract).
  Outputs the cross section in 10^42 cm^2.

Definition at line 97 of file create_neutrino_nucleon_file.py.

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◆ sigma_avg_anu_p()

def bin.create_neutrino_nucleon_file.nunucleon.sigma_avg_anu_p	(	self,
		T
	)

  Calculate the average neutrino cross section:
    bar(nu)_e + p -> n + positron
  The average neutrino cross section is calculated according
  to the integral of the cross sections multiplied by the normalized
  Fermi-Dirac distribution.

Definition at line 180 of file create_neutrino_nucleon_file.py.

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◆ sigma_avg_nu_n()

def bin.create_neutrino_nucleon_file.nunucleon.sigma_avg_nu_n	(	self,
		T
	)

  Calculate the average neutrino cross section:
    nu_e + n -> e + p
  The average neutrino cross section is calculated according
  to the integral of the cross sections multiplied by the normalized
  Fermi-Dirac distribution.

Definition at line 133 of file create_neutrino_nucleon_file.py.

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◆ sigma_nu_n()

def bin.create_neutrino_nucleon_file.nunucleon.sigma_nu_n	(	self,
		E
	)

  Calculate the electron neutrino cross section according to Equation 10 of
  Burrows et al. 2006 (https://ui.adsabs.harvard.edu/abs/2006NuPhA.777..356B/abstract).
  Outputs the cross section in 10^42 cm^2.

Definition at line 71 of file create_neutrino_nucleon_file.py.

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◆ WM()

def bin.create_neutrino_nucleon_file.nunucleon.WM	(	self,
		E,
		mode = `0`
	)

  Weak magnetism and recoil corrections.
  Mode 0 returns a higher order of this correction according to Horowitz 2002,
  mode 1 returns a simplified value of Burrows et al. 2006.

Definition at line 81 of file create_neutrino_nucleon_file.py.

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◆ WMbar()

def bin.create_neutrino_nucleon_file.nunucleon.WMbar	(	self,
		E,
		mode = `0`
	)

 Weak magnetism and recoil corrections.
 Mode 0 returns a higher order of this correction according to Horowitz 2002,
 mode 1 returns a simplified value of Burrows et al. 2006.

Definition at line 109 of file create_neutrino_nucleon_file.py.

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