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MRT_PY4_influxDB.py
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MRT_PY4_influxDB.py
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# verified 12 July 2018: working
import numpy as np
#import healpy as hp
import astropy as ap
import time
import mrtstate
import MRT_FUNC_PY4_influxDB as mrtf
#%
# ----------------------------------------------------------------------------
# Begin
# ----------------------------------------------------------------------------
# Notify the user
print ('Opening serial port',mrtf.port)
print ('with baud',mrtf.baud)
""" For reasons unclear, the Mac appears to assert DTR on serial connection,
whereas the Pi does not. So we will be super explicit. """
# Open the port
ser = mrtf.serial.Serial(mrtf.port, mrtf.baud)
print ('Before flushing buffers')
print ('Bytes in waiting', ser.inWaiting())
mrtf.FlushSerialBuffers(ser)
print ('After flushing buffers')
print ('Bytes in waiting', ser.inWaiting())
print ('Resetting Arduino')
print ('Before reset')
print ('Bytes in waiting', ser.inWaiting())
mrtf.ResetArduinoUno(ser,timeout=15,nbytesExpected=mrtf.nIDBytes)
# I don't understand why ARDUINO MRT is 18 bytes ...
print ('After reset')
print ('Bytes in waiting', ser.inWaiting())
print (ser.inWaiting())
output = mrtf.read_ser_buffer_to_eot(ser)
print(output)
#%%
# For the nominal mounting in the observatory
#eloff = 35.5
#azoff = -191.
# For a general setup facing south
#eloff = 35.5
#azoff = -180.
# Just start at zero
mrtstate.offsets['eloff'] = 0.
mrtstate.offsets['azoff'] = -180.
print(mrtstate.offsets)
# Initialize the current state
ser.write(mrtf.REPORT_STATE)
mrtstate.state = mrtf.readState(ser)
mrtf.PrintState()
#%%
""" Basic mode of operation should be that the Python side handles the user
interface and menu, and sends groups of atomic commands. The Arduino always
reports its state in response to any command, including whether the last
command was valid. Because I don't think we want to command individual steps,
but rather scans, that command is special """
operate=True
while(operate):
var = input("Enter command to transmit, H for help, Q to quit: ")
if not var == 'Q':
if (var == 'M'): # Make a map!
cs = mrtf.StdCmd(ser,mrtf.REPORT_STATE)
#az,el,pwr,mp,azi,eli = mrtf.RasterMap()
# Update the current state
current_state = mrtstate.state
#mrtf.PrintState()
mrtf.RasterMap()
current_state = mrtf.StdCmd(ser,mrtf.REPORT_STATE)
mrtf.PrintState()
elif (var == 'MS'): # Make a map of the South Sky
cs = mrtf.StdCmd(ser,mrtf.REPORT_STATE)
#az,el,pwr,mp,azi,eli = mrtf.ScanSouthSky(cs)
# Update the current state
current_state = mrtstate.state
mrtf.ScanSouthSky()
current_state = mrtf.StdCmd(ser,mrtf.REPORT_STATE)
mrtf.PrintState()
elif (var == 'G'):
cs = mrtf.StdCmd(ser,mrtf.REPORT_STATE)
current_state = mrtstate.state
mrtf.GoTo()
current_state = mrtf.StdCmd(ser,mrtf.REPORT_STATE)
mrtf.PrintState()
elif (var == 'H'):
mrtf.PrintMenu()
elif (var == 'CS'):
#print(mrtstate.state)
mrtf.PrintState()
elif (var == 'GA'):
cs = mrtf.StdCmd(ser,mrtf.REPORT_STATE)
current_state = mrtstate.state
mrtf.GoAz()
current_state = mrtf.StdCmd(ser,mrtf.REPORT_STATE)
mrtf.PrintState()
elif (var == 'GE'):
cs = mrtf.StdCmd(ser,mrtf.REPORT_STATE)
current_state = mrtstate.state
mrtf.GoEl()
current_state = mrtf.StdCmd(ser,mrtf.REPORT_STATE)
mrtf.PrintState()
elif (var == 'S'):
print ("Sending "+var)
ser.write(mrtf.SCAN)
deg = input("Enter number of degrees to turn: ")
print ("Sending "+deg)
ser.write(str.encode(deg))
print ("Reading data")
ndata = mrtf.readStream(ser)
current_state = mrtf.readState(ser)
mrtf.PrintState()
# Convert
#ndata = numpyState(ndata)
# Save
print(mrtstate.directory)
print(mrtstate.directory+time.ctime().replace(' ','_')+'.npz')
np.savez(file=mrtstate.directory+time.ctime().replace(' ','_')+'.npz',ndata=ndata)
# Plot
mrtf.PlotData(ndata)
elif (var == 'A'):
print ("Sending "+var)
ser.write(mrtf.AZIMUTH)
current_state = mrtf.StdCmd(ser,mrtf.REPORT_STATE)
mrtf.PrintState()
elif (var == 'L'):
print ("Sending "+var)
ser.write(mrtf.ELEVATION)
current_state = mrtf.StdCmd(ser,mrtf.REPORT_STATE)
mrtf.PrintState()
elif (var == 'E'):
print ("Sending "+var)
ser.write(mrtf.ENABLE)
current_state = mrtf.StdCmd(ser,mrtf.REPORT_STATE)
mrtf.PrintState()
elif (var == 'D'):
print ("Sending "+var)
ser.write(mrtf.DISABLE)
current_state = mrtf.StdCmd(ser,mrtf.REPORT_STATE)
mrtf.PrintState()
elif (var == 'ETGOHOME'):
print ("Sending "+var)
mrtf.ETGOHOME()
mrtf.PrintState()
newel = float(0.0)
curr_eloff = mrtstate.offsets['eloff']
arduino_el = mrtstate.state['elDeg'] + curr_eloff
mrtstate.offsets['eloff'] = arduino_el - newel
current_state = mrtf.StdCmd(ser,mrtf.REPORT_STATE)
mrtf.PrintState()
elif (var == 'X'):
Ndatapts = input("Enter number of data points: ")
ser.write(mrtf.REPORT_STATE)
# Initialize the data variable
data = mrtf.readState(ser)
for i in np.arange(int(Ndatapts)-1):
ser.write(mrtf.REPORT_STATE)
current_state = mrtf.readState(ser)
mrtf.PrintState()
# Trick it by sending invalid commands and reading them back
#ser.write(REPORT_STATE)
#read_ser_buffer_to_eot(ser)
#dummy = readState(ser)
#for key in data.keys():
# data[key].append(dummy[key][0])
#ndata = numpyState(data)
#PlotData(ndata)
elif (var == 'CCW'):
mrtf.StdCmd(ser, mrtf.AZIMUTH)
mrtf.StdCmd(ser, mrtf.ENABLE)
mrtf.StdCmd(ser, mrtf.FORWARD)
mrtf.PrintState()
elif (var == 'CW'):
mrtf.StdCmd(ser, mrtf.AZIMUTH)
mrtf.StdCmd(ser, mrtf.ENABLE)
mrtf.StdCmd(ser, mrtf.REVERSE)
mrtf.PrintState()
elif (var == 'UP'):
mrtf.StdCmd(ser, mrtf.ELEVATION)
mrtf.StdCmd(ser, mrtf.ENABLE)
mrtf.StdCmd(ser, mrtf.FORWARD)
mrtf.PrintState()
elif (var == 'DOWN'):
mrtf.StdCmd(ser, mrtf.ELEVATION)
mrtf.StdCmd(ser, mrtf.ENABLE)
mrtf.StdCmd(ser, mrtf.REVERSE)
mrtf.PrintState()
elif (var == 'SETPOS'):
mrtf.PrintState()
newaz = float(input("New azimuth: "))
#print('Current azimuth', mrtstate.state['azDeg'])
curr_azoff = mrtstate.offsets['azoff']
#print('Current offset', curr_azoff)
arduino_az = mrtstate.state['azDeg'] + curr_azoff
mrtstate.offsets['azoff'] = arduino_az - newaz
#print(mrtf.azoff)
newel = float(input("New elevation: "))
curr_eloff = mrtstate.offsets['eloff']
arduino_el = mrtstate.state['elDeg'] + curr_eloff
mrtstate.offsets['eloff'] = arduino_el - newel
current_state = mrtf.StdCmd(ser,mrtf.REPORT_STATE)
mrtf.PrintState()
elif (var == 'X'):
Ndatapts = input("Enter number of data points: ")
ser.write(mrtf.REPORT_STATE)
# Initialize the data variable
data = mrtf.readState(ser)
for i in np.arange(int(Ndatapts)-1):
ser.write(mrtf.REPORT_STATE)
current_state = mrtf.readState(ser)
mrtf.PrintState()
else:
# Commands that get passed along
print("Sending command direct to Arduino")
print ("Sending "+var)
ser.write(str.encode(var))
# Read back any reply
#read_ser_buffer_to_eot(ser)
current_state = mrtf.readState(ser)
mrtf.PrintState()
else:
operate = False
ser.close()