Start_Value = M.Read(Client,
Dipole_Tag) #Recording the starting value of the Dipole
print("Started at {0:.3f} Amps".format(Start_Value))
DP1_Values = list()
DBA_Collection = list()
colors = list()
Oscope_Data = list()
Oscope_Data_2 = list()
print("Beginning Scan")
for i in range(Runs):
print("Going to target value")
if Oscope.lower() == 'true':
DP1_Vals, DBA_Col, Oscope, O2 = M.Ramp_One_Way(Client, Dipole_Tag, End_Value, Max_Step = Step_Size, Return = "Y", \
Read_Tag = Read, count = count, Oscope = Oscope, os_address = os_address)
DP1_Values += DP1_Vals #Adding the recorded data to the lists
DBA_Collection += DBA_Col
Oscope_Data += Oscope
Oscope_Data_2 += O2
else:
DP1_Vals, DBA_Col = M.Ramp_One_Way(Client,
Dipole_Tag,
End_Value,
Max_Step=Step_Size,
Return="Y",
Read_Tag=Read,
count=count)
DP1_Values += DP1_Vals #Adding the recorded data to the lists
DBA_Collection += DBA_Col
#Reading in the excel file as a dataframe for easier access (abbreviated as df)
excel_as_df = pd.read_excel(
'..\Magnet Saves\{}.xlsx'.format(Notebook)
) #Using windows command line controls to direct python to the directory
Client = M.Make_Client(
'192.168.1.2'
) #Establishing a connection with the PLC, see Master.Make_Client
for i in range(
len(Hnums)): #Iterate through the list of Horizontal window frames
print("Window Frame {} H".format(i + 1), Hnums[i],
excel_as_df['WF H'].iloc[i]) #Print which magnet it is ramping
M.Ramp_One_Way(Client,
Hnums[i],
excel_as_df['WF H'].iloc[i],
Max_Step=0.010) #Ramp that magnet, see Master.Ramp_One_Way
#Repeat for all types of magnets
for i in range(len(Vnums)):
print("Window Frame {} V".format(i + 1), Vnums[i],
excel_as_df['WF V'].iloc[i])
M.Ramp_One_Way(Client,
Vnums[i],
excel_as_df['WF V'].iloc[i],
Max_Step=0.010)
for i in range(len(Solnums)):
print("Solenoid {}".format(i + 1), Solnums[i], excel_as_df['Sol'].iloc[i])
M.Ramp_One_Way(Client,
Solnums[i],
excel_as_df['Sol'].iloc[i],
count = 20 #Number of times we want to average the Read Tag value
Start_Value = M.Read(Client,
Dipole_Tag) #Recording the starting value of the Dipole
print("Started at {0:.3f} Amps".format(Start_Value))
DP1_Values = []
DBA_Collection = []
colors = []
for i in range(Runs):
DP1_Vals, DBA_Col = M.Ramp_One_Way(Client,
Dipole_Tag,
End_Value,
Max_Step=Step_size,
Return="Y",
Read_Tag=Read,
count=count)
#The above function walks the magnet to the endpoint ,and returns the data
DP1_Values += DP1_Vals #Adding the recorded data to the lists
DBA_Collection += DBA_Col
colors += ['chocolate' for i in list(range(len(DP1_Vals)))
] #Appending 'chocolate' as the color for this data set
DP1_Vals, DBA_Col = M.Ramp_One_Way(Client,
Dipole_Tag,
Start_Value,
Max_Step=Step_size,
Solnum = 9 #Number of solenoids
Solnums = []
for i in range(100):
if i < WFHnum:
Hnums.append(20203 + 4 * i)
if i < WFVnum:
Vnums.append(20201 + 4 * i)
if i < DPnum:
Dpnums.append(22201 + 2 * i)
if i < Solnum:
Solnums.append(21201 + 2 * i)
Client = M.Make_Client('192.168.1.2')
for i in range(len(Hnums)):
print("Window Frame {} H".format(i + 1))
M.Ramp_One_Way(Client, Hnums[i], 0, Max_Step=0.010)
for i in range(len(Vnums)):
print("Window Frame {} V".format(i + 1))
M.Ramp_One_Way(Client, Vnums[i], 0, Max_Step=0.010)
for i in range(len(Solnums)):
print("Solenoid {}".format(i + 1))
M.Ramp_One_Way(Client, Solnums[i], 0, Max_Step=0.010)
for i in range(len(Dpnums)):
print("Dipole {}".format(i + 1))
M.Ramp_One_Way(Client, Dpnums[i], 0, Max_Step=0.005)
