RunSet.Set Class Reference

Inheritance diagram for RunSet.Set:

Collaboration diagram for RunSet.Set:

Public Member Functions
def	__init__ (self)
def	average_list (self, aList)
def	calc_averages (self)
def	calc_beam_in_target (self)
def	calc_beam_in_target_sb1 (self)
def	calc_elastics
def	calc_R
def	calc_R1
def	calc_Sfactor (self, projZ, targZ, reducedMass)
def	calc_sigma (self, targetLength=[12.3)
def	calc_stopping_power (self, projA, targetMassKg, targetLength=[12.3)
def	calc_target_density
Public Member Functions inherited from RunSet.RunSettings
def	__init__ (self)
def	calc_Ecm (self, massProj, massTarg)

Public Attributes
	runNumber
	runString
	pTargetList
	hiLtList
	geantTrans
	geantBGO
	recoilEvents
	reacYield
	reacSFactor
	reacSigma
	reacWg
	RList
	R1List
	IoverN
	IoverN1
	IoNList
	IoN1List
	beamInTarget
	totTrans
	targetDensity
	stoppingPower
	pTarget
	R1
	R
Public Attributes inherited from RunSet.RunSettings
	eBeam
	pTarget
	Ecm
	tarTrans
	sepTrans
	sb0Tot
	sb1Tot
	R
	R1
	dPressure
	dEnergy
	dFc4
	hiLt
	CSF
	mcpTrans
	mcpEff

Detailed Description

Set of runs with same incoming beam energy and target pressure.

Member Function Documentation

def RunSet.Set.average_list	(		self,
			aList
	)

Returns the average of all entries in aList of values and uncertainties.

If entries are nan, they are removed from the list

def RunSet.Set.calc_averages

(

self

)

Calculate average target pressure and HI lt.

def RunSet.Set.calc_beam_in_target

(

self

)

Calculates the beam in the target.

The target transmission is not corrected for;
it is assumed that the target transmission is largely determined by the entrance apperture,
so what doesn't make it through the target doesn't make it into the target and cannot react.

def RunSet.Set.calc_beam_in_target_sb1

(

self

)

Calculates the beam in the target.

The target transmission is not corrected for;
it is assumed that the target transmission is largely determined by the entrance apperture,
so what doesn't make it through the target doesn't make it into the target and cannot react.

def RunSet.Set.calc_elastics	(		self,
			maxDev = 0.4
	)

Calculate elastics.

Calculates from values for individual runs: normalisation factor R (SB0) and R1 (SB1), FC4/SB0, and FC4/SB1.
\'maxDev\' is how much an individual value may deviate from the average (in ave * maxDev) before being skipped. 

def RunSet.Set.calc_R	(		self,
			maxDev = 0.4
	)

Calculate normalisation factor R from all run Rs.

\'maxDev\' is how much an individual R may deviate from Rave (in Rave * maxDev) before being skipped.

def RunSet.Set.calc_R1	(		self,
			maxDev = 0.4
	)

Calculate normalisation factor R based on SB1 from all run Rs.

\'maxDev\' is how much an individual R may deviate from Rave (in Rave * maxDev) before being skipped.

def RunSet.Set.calc_Sfactor	(		self,
			projZ,
			targZ,
			reducedMass
	)

Calculate the S-factor at the cm energy.

calc_sigma must have been called first.

def RunSet.Set.calc_sigma	(		self,
			targetLength = [12.3
	)

Calculate non-resonant cross section for singles and coincidences

\'targetLength\' is in cm

def RunSet.Set.calc_stopping_power	(		self,
			projA,
			targetMassKg,
			targetLength = [12.3
	)

Calculate the stopping power based on beam energy before and after the target.

Calculates first the target density in ug/cm^2, then the stopping power in keV/(ug/cm^2).
\'projA\' is the beam mass number, \'targetMassKg\' is the mass in kg, \'targetLength\' is in cm.
All uncertainties assumed systematic, so stoppingPower[1] is 0, and stoppingPower[2] is the systematic uncertainty.

def RunSet.Set.calc_target_density	(		self,
			nuTarget = 1
	)

Calculate target density in 1/cm^3.

nuTarget is the number of atoms per molecule, i.e. 1 for helium and 2 for hydrogen.
Uncertainty is systematic.

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The documentation for this class was generated from the following file:

• RunSet.py