def sweep_dim_2(obj, value):
ramp(obj, obj.sweep_par, value, obj.sstep, obj.stime)
def sweep_dim_3(obj, value):
ramp(obj, obj.sweep_par, value, obj.sstep, obj.stime)
# This describes how data is saved
DS = DataStoreSP(folder, filen_0, dim_1, dim_2, dim_3, 'Vx1k')
# CorrProc controls, coordinates D1 and D2 together (also does thes calcs.)
if recordD12:
D12.create_datastore_objs(folder, filen_0, dim_1, dim_2, dim_3)
DS.ask_overwrite()
copy_file(thisfile, filen_0, folder)
# describe how data is to be stored
def record_data(kk, jj, ii, back):
'''This function is called with each change in ii,jj,kk
content: what to measure each time
'''
if recordD12:
D12.init_trigger() # Trigger and check D1 & D2
#print 'send trigger from loop'
vdata = vm.get_val() # aquire voltage data point
if back is True:
return DS.record_data2(vdata, kk, jj, ii)
def sweep_dim_2(obj,index):
value = obj.lin[int(index)]
ramp(obj, obj.sweep_par, value, obj.sstep, obj.stime)
# obj.sweep_v(value, 5)
# sleep(5.1)
# PSG.set_power(value)
def sweep_dim_3(obj,index):
# value = obj.lin[int(index)]
pass
DSP = DataStoreSP(folder, filen_0, dim_1, dim_2, dim_3, label='V', cname='Voltage x1k')
DS11 = DataStore11Vec(folder, filen_0, dim_1, dim_2, D1, 'CovMat')
DSP.ask_overwrite()
DSP_PD1 = DataStoreSP(folder, filen_0, dim_1, dim_2, dim_3, label='D1Pow', cname='Watts')
DSP_LD1 = DataStoreSP(folder, filen_0, dim_1, dim_2, dim_3, label='D1LevCorr', cname='LvLCorr')
DS2vD1 = DataStore2Vec(folder, filen_0, dim_1, dim_2, dim_3, 'D1vAvg')
DS2mD1 = DataStore2Vec(folder, filen_0, dim_1, dim_2, dim_3, 'D1mAvg')
DSP_PD2 = DataStoreSP(folder, filen_0, dim_1, dim_2, dim_3, label='D2Pow', cname='Watts')
DSP_LD2 = DataStoreSP(folder, filen_0, dim_1, dim_2, dim_3, label='D2LevCorr', cname='LvLCorr')
DS2vD2 = DataStore2Vec(folder, filen_0, dim_1, dim_2, dim_3, 'D2vAvg')
DS2mD2 = DataStore2Vec(folder, filen_0, dim_1, dim_2, dim_3, 'D2mAvg')
copy_file(thisfile, filen_0, folder) #backup this script
print 'Executing sweep'
# print 'Est. req time (min):'+str(corrAvg*lsamples/BW*dim_3.pt*dim_2.pt*dim_1.pt*0.032/60) # this involves only DC measurements
