Initial python driver

converted parts from Multi-Pond
This commit is contained in:
Patrick McDonagh
2018-07-03 11:24:53 -05:00
parent 0edf5ce36c
commit 529399e2f3
11 changed files with 1249 additions and 0 deletions

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id,name,deviceTypeId,fromMe,io,subTitle,helpExplanation,channelType,dataType,defaultValue,regex,regexErrMsg,units,min,max,change,guaranteedReportPeriod,minReportTime
13902,log,465,FALSE,readwrite,Log,Device Log,device,string,Initialized,,,,,,,,
,an0val,465,FALSE,readonly,Analog 0 Value,Scaled Value,device,float,0,,,,,,,,
,an1val,465,FALSE,readonly,Analog 1 Value,Scaled Value,device,float,0,,,,,,,,
,an2val,465,FALSE,readonly,Analog 2 Value,Scaled Value,device,float,0,,,,,,,,
,an3val,465,FALSE,readonly,Analog 3 Value,Scaled Value,device,float,0,,,,,,,,
,an4val,465,FALSE,readonly,Analog 4 Value,Scaled Value,device,float,0,,,,,,,,
,an5val,465,FALSE,readonly,Analog 5 Value,Scaled Value,device,float,0,,,,,,,,
,an6val,465,FALSE,readonly,Analog 6 Value,Scaled Value,device,float,0,,,,,,,,
,an7val,465,FALSE,readonly,Analog 7 Value,Scaled Value,device,float,0,,,,,,,,
,pond0volume,465,FALSE,readonly,Pond 0 Volume,BBL,device,float,0,,,,,,,,
,pond1volume,465,FALSE,readonly,Pond 1 Volume,BBL,device,float,0,,,,,,,,
,pond2volume,465,FALSE,readonly,Pond 2 Volume,BBL,device,float,0,,,,,,,,
,pond3volume,465,FALSE,readonly,Pond 3 Volume,BBL,device,float,0,,,,,,,,
,pond4volume,465,FALSE,readonly,Pond 4 Volume,BBL,device,float,0,,,,,,,,
,pond5volume,465,FALSE,readonly,Pond 5 Volume,BBL,device,float,0,,,,,,,,
,pond6volume,465,FALSE,readonly,Pond 6 Volume,BBL,device,float,0,,,,,,,,
,pond7volume,465,FALSE,readonly,Pond 7 Volume,BBL,device,float,0,,,,,,,,
,an0active,465,FALSE,readonly,Analog 0 Active,Signal Above 3.0 mA,device,boolean,FALSE,,,,,,,,
,an1active,465,FALSE,readonly,Analog 1 Active,Signal Above 3.0 mA,device,boolean,FALSE,,,,,,,,
,an2active,465,FALSE,readonly,Analog 2 Active,Signal Above 3.0 mA,device,boolean,FALSE,,,,,,,,
,an3active,465,FALSE,readonly,Analog 3 Active,Signal Above 3.0 mA,device,boolean,FALSE,,,,,,,,
,an4active,465,FALSE,readonly,Analog 4 Active,Signal Above 3.0 mA,device,boolean,FALSE,,,,,,,,
,an5active,465,FALSE,readonly,Analog 5 Active,Signal Above 3.0 mA,device,boolean,FALSE,,,,,,,,
,an6active,465,FALSE,readonly,Analog 6 Active,Signal Above 3.0 mA,device,boolean,FALSE,,,,,,,,
,an7active,465,FALSE,readonly,Analog 7 Active,Signal Above 3.0 mA,device,boolean,FALSE,,,,,,,,
,an0units,465,FALSE,readwrite,Analog 0 Units,Channel Units,user input,string,,,,,,,,,
,an1units,465,FALSE,readwrite,Analog 1 Units,Channel Units,user input,string,,,,,,,,,
,an2units,465,FALSE,readwrite,Analog 2 Units,Channel Units,user input,string,,,,,,,,,
,an3units,465,FALSE,readwrite,Analog 3 Units,Channel Units,user input,string,,,,,,,,,
,an4units,465,FALSE,readwrite,Analog 4 Units,Channel Units,user input,string,,,,,,,,,
,an5units,465,FALSE,readwrite,Analog 5 Units,Channel Units,user input,string,,,,,,,,,
,an6units,465,FALSE,readwrite,Analog 6 Units,Channel Units,user input,string,,,,,,,,,
,an7units,465,FALSE,readwrite,Analog 7 Units,Channel Units,user input,string,,,,,,,,,
,an0ispond,465,FALSE,readonly,Analog 0 Is Pond Level,Use the input for pond level monitoring,device,boolean,FALSE,,,,,,,,
,an1ispond,465,FALSE,readonly,Analog 1 Is Pond Level,Use the input for pond level monitoring,device,boolean,FALSE,,,,,,,,
,an2ispond,465,FALSE,readonly,Analog 2 Is Pond Level,Use the input for pond level monitoring,device,boolean,FALSE,,,,,,,,
,an3ispond,465,FALSE,readonly,Analog 3 Is Pond Level,Use the input for pond level monitoring,device,boolean,FALSE,,,,,,,,
,an4ispond,465,FALSE,readonly,Analog 4 Is Pond Level,Use the input for pond level monitoring,device,boolean,FALSE,,,,,,,,
,an5ispond,465,FALSE,readonly,Analog 5 Is Pond Level,Use the input for pond level monitoring,device,boolean,FALSE,,,,,,,,
,an6ispond,465,FALSE,readonly,Analog 6 Is Pond Level,Use the input for pond level monitoring,device,boolean,FALSE,,,,,,,,
,an7ispond,465,FALSE,readonly,Analog 7 Is Pond Level,Use the input for pond level monitoring,device,boolean,FALSE,,,,,,,,
1 id name deviceTypeId fromMe io subTitle helpExplanation channelType dataType defaultValue regex regexErrMsg units min max change guaranteedReportPeriod minReportTime
2 13902 log 465 FALSE readwrite Log Device Log device string Initialized
3 an0val 465 FALSE readonly Analog 0 Value Scaled Value device float 0
4 an1val 465 FALSE readonly Analog 1 Value Scaled Value device float 0
5 an2val 465 FALSE readonly Analog 2 Value Scaled Value device float 0
6 an3val 465 FALSE readonly Analog 3 Value Scaled Value device float 0
7 an4val 465 FALSE readonly Analog 4 Value Scaled Value device float 0
8 an5val 465 FALSE readonly Analog 5 Value Scaled Value device float 0
9 an6val 465 FALSE readonly Analog 6 Value Scaled Value device float 0
10 an7val 465 FALSE readonly Analog 7 Value Scaled Value device float 0
11 pond0volume 465 FALSE readonly Pond 0 Volume BBL device float 0
12 pond1volume 465 FALSE readonly Pond 1 Volume BBL device float 0
13 pond2volume 465 FALSE readonly Pond 2 Volume BBL device float 0
14 pond3volume 465 FALSE readonly Pond 3 Volume BBL device float 0
15 pond4volume 465 FALSE readonly Pond 4 Volume BBL device float 0
16 pond5volume 465 FALSE readonly Pond 5 Volume BBL device float 0
17 pond6volume 465 FALSE readonly Pond 6 Volume BBL device float 0
18 pond7volume 465 FALSE readonly Pond 7 Volume BBL device float 0
19 an0active 465 FALSE readonly Analog 0 Active Signal Above 3.0 mA device boolean FALSE
20 an1active 465 FALSE readonly Analog 1 Active Signal Above 3.0 mA device boolean FALSE
21 an2active 465 FALSE readonly Analog 2 Active Signal Above 3.0 mA device boolean FALSE
22 an3active 465 FALSE readonly Analog 3 Active Signal Above 3.0 mA device boolean FALSE
23 an4active 465 FALSE readonly Analog 4 Active Signal Above 3.0 mA device boolean FALSE
24 an5active 465 FALSE readonly Analog 5 Active Signal Above 3.0 mA device boolean FALSE
25 an6active 465 FALSE readonly Analog 6 Active Signal Above 3.0 mA device boolean FALSE
26 an7active 465 FALSE readonly Analog 7 Active Signal Above 3.0 mA device boolean FALSE
27 an0units 465 FALSE readwrite Analog 0 Units Channel Units user input string
28 an1units 465 FALSE readwrite Analog 1 Units Channel Units user input string
29 an2units 465 FALSE readwrite Analog 2 Units Channel Units user input string
30 an3units 465 FALSE readwrite Analog 3 Units Channel Units user input string
31 an4units 465 FALSE readwrite Analog 4 Units Channel Units user input string
32 an5units 465 FALSE readwrite Analog 5 Units Channel Units user input string
33 an6units 465 FALSE readwrite Analog 6 Units Channel Units user input string
34 an7units 465 FALSE readwrite Analog 7 Units Channel Units user input string
35 an0ispond 465 FALSE readonly Analog 0 Is Pond Level Use the input for pond level monitoring device boolean FALSE
36 an1ispond 465 FALSE readonly Analog 1 Is Pond Level Use the input for pond level monitoring device boolean FALSE
37 an2ispond 465 FALSE readonly Analog 2 Is Pond Level Use the input for pond level monitoring device boolean FALSE
38 an3ispond 465 FALSE readonly Analog 3 Is Pond Level Use the input for pond level monitoring device boolean FALSE
39 an4ispond 465 FALSE readonly Analog 4 Is Pond Level Use the input for pond level monitoring device boolean FALSE
40 an5ispond 465 FALSE readonly Analog 5 Is Pond Level Use the input for pond level monitoring device boolean FALSE
41 an6ispond 465 FALSE readonly Analog 6 Is Pond Level Use the input for pond level monitoring device boolean FALSE
42 an7ispond 465 FALSE readonly Analog 7 Is Pond Level Use the input for pond level monitoring device boolean FALSE

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"""Define Meshify channel class."""
from pycomm.ab_comm.clx import Driver as ClxDriver
from pycomm.cip.cip_base import CommError, DataError
import time
TAG_DATAERROR_SLEEPTIME = 5
def binarray(intval):
"""Split an integer into its bits."""
bin_string = '{0:08b}'.format(intval)
bin_arr = [i for i in bin_string]
bin_arr.reverse()
return bin_arr
def read_tag(addr, tag, plc_type="CLX"):
"""Read a tag from the PLC."""
direct = plc_type == "Micro800"
c = ClxDriver()
try:
if c.open(addr, direct_connection=direct):
try:
v = c.read_tag(tag)
return v
except DataError as e:
c.close()
time.sleep(TAG_DATAERROR_SLEEPTIME)
print("Data Error during readTag({}, {}): {}".format(addr, tag, e))
except CommError:
# err = c.get_status()
c.close()
print("Could not connect during readTag({}, {})".format(addr, tag))
# print err
except AttributeError as e:
c.close()
print("AttributeError during readTag({}, {}): \n{}".format(addr, tag, e))
c.close()
return False
def read_array(addr, tag, start, end, plc_type="CLX"):
"""Read an array from the PLC."""
direct = plc_type == "Micro800"
c = ClxDriver()
if c.open(addr, direct_connection=direct):
arr_vals = []
try:
for i in range(start, end):
tag_w_index = tag + "[{}]".format(i)
v = c.read_tag(tag_w_index)
# print('{} - {}'.format(tag_w_index, v))
arr_vals.append(round(v[0], 4))
# print(v)
if len(arr_vals) > 0:
return arr_vals
else:
print("No length for {}".format(addr))
return False
except Exception:
print("Error during readArray({}, {}, {}, {})".format(addr, tag, start, end))
err = c.get_status()
c.close()
print err
pass
c.close()
def write_tag(addr, tag, val, plc_type="CLX"):
"""Write a tag value to the PLC."""
direct = plc_type == "Micro800"
c = ClxDriver()
if c.open(addr, direct_connection=direct):
try:
cv = c.read_tag(tag)
print(cv)
wt = c.write_tag(tag, val, cv[1])
return wt
except Exception:
print("Error during writeTag({}, {}, {})".format(addr, tag, val))
err = c.get_status()
c.close()
print err
c.close()
class Channel(object):
"""Holds the configuration for a Meshify channel."""
def __init__(self, mesh_name, data_type, chg_threshold, guarantee_sec, map_=False, write_enabled=False):
"""Initialize the channel."""
self.mesh_name = mesh_name
self.data_type = data_type
self.last_value = None
self.value = None
self.last_send_time = 0
self.chg_threshold = chg_threshold
self.guarantee_sec = guarantee_sec
self.map_ = map_
self.write_enabled = write_enabled
def __str__(self):
"""Create a string for the channel."""
return "{}\nvalue: {}, last_send_time: {}".format(self.mesh_name, self.value, self.last_send_time)
def check(self, new_value, force_send=False):
"""Check to see if the new_value needs to be stored."""
send_needed = False
send_reason = ""
if self.data_type == 'BOOL' or self.data_type == 'STRING':
if self.last_send_time == 0:
send_needed = True
send_reason = "no send time"
elif self.value is None:
send_needed = True
send_reason = "no value"
elif not (self.value == new_value):
if self.map_:
if not self.value == self.map_[new_value]:
send_needed = True
send_reason = "value change"
else:
send_needed = True
send_reason = "value change"
elif (time.time() - self.last_send_time) > self.guarantee_sec:
send_needed = True
send_reason = "guarantee sec"
elif force_send:
send_needed = True
send_reason = "forced"
else:
if self.last_send_time == 0:
send_needed = True
send_reason = "no send time"
elif self.value is None:
send_needed = True
send_reason = "no value"
elif abs(self.value - new_value) > self.chg_threshold:
send_needed = True
send_reason = "change threshold"
elif (time.time() - self.last_send_time) > self.guarantee_sec:
send_needed = True
send_reason = "guarantee sec"
elif force_send:
send_needed = True
send_reason = "forced"
if send_needed:
self.last_value = self.value
if self.map_:
try:
self.value = self.map_[new_value]
except KeyError:
print("Cannot find a map value for {} in {} for {}".format(new_value, self.map_, self.mesh_name))
self.value = new_value
else:
self.value = new_value
self.last_send_time = time.time()
print("Sending {} for {} - {}".format(self.value, self.mesh_name, send_reason))
return send_needed
def read(self):
"""Read the value."""
pass
def identity(sent):
"""Return exactly what was sent to it."""
return sent
class ModbusChannel(Channel):
"""Modbus channel object."""
def __init__(self, mesh_name, register_number, data_type, chg_threshold, guarantee_sec, channel_size=1, map_=False, write_enabled=False, transformFn=identity):
"""Initialize the channel."""
super(ModbusChannel, self).__init__(mesh_name, data_type, chg_threshold, guarantee_sec, map_, write_enabled)
self.mesh_name = mesh_name
self.register_number = register_number
self.channel_size = channel_size
self.data_type = data_type
self.last_value = None
self.value = None
self.last_send_time = 0
self.chg_threshold = chg_threshold
self.guarantee_sec = guarantee_sec
self.map_ = map_
self.write_enabled = write_enabled
self.transformFn = transformFn
def read(self, mbsvalue):
"""Return the transformed read value."""
return self.transformFn(mbsvalue)
class PLCChannel(Channel):
"""PLC Channel Object."""
def __init__(self, ip, mesh_name, plc_tag, data_type, chg_threshold, guarantee_sec, map_=False, write_enabled=False, plc_type='CLX'):
"""Initialize the channel."""
super(PLCChannel, self).__init__(mesh_name, data_type, chg_threshold, guarantee_sec, map_, write_enabled)
self.plc_ip = ip
self.mesh_name = mesh_name
self.plc_tag = plc_tag
self.data_type = data_type
self.last_value = None
self.value = None
self.last_send_time = 0
self.chg_threshold = chg_threshold
self.guarantee_sec = guarantee_sec
self.map_ = map_
self.write_enabled = write_enabled
self.plc_type = plc_type
def read(self):
"""Read the value."""
plc_value = None
if self.plc_tag and self.plc_ip:
read_value = read_tag(self.plc_ip, self.plc_tag, plc_type=self.plc_type)
if read_value:
plc_value = read_value[0]
return plc_value
class BoolArrayChannels(Channel):
"""Hold the configuration for a set of boolean array channels."""
def __init__(self, ip, mesh_name, plc_tag, data_type, chg_threshold, guarantee_sec, map_=False, write_enabled=False):
"""Initialize the channel."""
self.plc_ip = ip
self.mesh_name = mesh_name
self.plc_tag = plc_tag
self.data_type = data_type
self.last_value = None
self.value = None
self.last_send_time = 0
self.chg_threshold = chg_threshold
self.guarantee_sec = guarantee_sec
self.map_ = map_
self.write_enabled = write_enabled
def compare_values(self, new_val_dict):
"""Compare new values to old values to see if the values need storing."""
send = False
for idx in new_val_dict:
try:
if new_val_dict[idx] != self.last_value[idx]:
send = True
except KeyError:
print("Key Error in self.compare_values for index {}".format(idx))
send = True
return send
def read(self, force_send=False):
"""Read the value and check to see if needs to be stored."""
send_needed = False
send_reason = ""
if self.plc_tag:
v = read_tag(self.plc_ip, self.plc_tag)
if v:
bool_arr = binarray(v[0])
new_val = {}
for idx in self.map_:
try:
new_val[self.map_[idx]] = bool_arr[idx]
except KeyError:
print("Not able to get value for index {}".format(idx))
if self.last_send_time == 0:
send_needed = True
send_reason = "no send time"
elif self.value is None:
send_needed = True
send_reason = "no value"
elif self.compare_values(new_val):
send_needed = True
send_reason = "value change"
elif (time.time() - self.last_send_time) > self.guarantee_sec:
send_needed = True
send_reason = "guarantee sec"
elif force_send:
send_needed = True
send_reason = "forced"
if send_needed:
self.value = new_val
self.last_value = self.value
self.last_send_time = time.time()
print("Sending {} for {} - {}".format(self.value, self.mesh_name, send_reason))
return send_needed

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{
"driverFileName": "multisensor.py",
"deviceName": "multisensor",
"driverId": "0240",
"releaseVersion": "1",
"files": {
"file1": "multisensor.py",
"file2": "utilities.py",
"file3": "Channel.py"
}
}

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import types
import traceback
import binascii
import threading
import time
import thread
import os
import struct
import sys
import textwrap
import Queue
import json
class deviceBase():
def __init__(self, name=None, number=None, mac=None, Q=None, mcu=None, companyId=None, offset=None, mqtt=None, Nodes=None):
self.offset = offset
self.company = companyId
self.name = name
self.number = number
self.q = Q
self.deviceName = name + '_[' + mac + ':' + number[0:2] + ':' + number[2:] + ']!'
self.chName = "M1" + '_[' + mac + ':'
self.chName2 = '_[' + mac + ':'
print 'device name is:'
print self.deviceName
mac2 = mac.replace(":", "")
self.mac = mac2.upper()
self.address = 1
self.debug = True
self.mcu = mcu
self.firstRun = True
self.mqtt = mqtt
self.nodes = Nodes
#local dictionary of derived nodes ex: localNodes[tank_0199] = self
self.localNodes = {}
os.system("chmod 777 /root/reboot")
os.system("echo nameserver 8.8.8.8 > /etc/resolv.conf")
#Queue for imcoming sets
self.loraQ = Queue.Queue()
self.knownIDs = []
thread.start_new_thread(self.getSetsThread, ())
def getSetsThread(self):
while True:
try:
item = self.loraQ.get(block=True, timeout=600)
try:
print "here is the item from the sets q"
print item
if len(item) == 2:
techname = str(json.loads(item[1])[0]['payload']['name'].split(".")[0])
channel = str(json.loads(item[1])[0]['payload']['name'].split(".")[1])
name = techname.split("_")[0]
id = techname.split("_")[1][1:-2].replace(":","").upper()
value = json.loads(item[1])[0]['payload']['value']
msgId = json.loads(item[1])[0]['msgId']
print channel, value, id, name, msgId
success = self.specificSets(channel, value, id, name)
if success == True:
print "SUCCESS ON SET"
if int(msgId) == 0:
return
lc = self.getTime()
value = str(self.mac) + " Success Setting: " + channel + " To: " + value
msg = """[ { "value":"%s", "timestamp":"%s", "msgId":"%s" } ]""" % (value, str(lc), msgId)
print value
print msg
topic = "meshify/responses/" + str(msgId)
print topic
self.q.put([topic, str(msg), 2])
else:
lc = self.getTime()
if success == False:
reason = "(Internal Gateway/Device Error)"
else:
reason = success
value = str(self.mac) + " Failed Setting: " + channel + " To: " + value + " " + reason
msg = """[ { "value":"%s", "timestamp":"%s", "msgId":"%s" } ]""" % (value, str(lc), msgId)
topic = "meshify/responses/" + msgId
self.q.put([topic, str(msg), 2])
except:
if int(msgId) == 0:
return
lc = self.getTime()
value = str(self.mac) + " Failed Setting: " + channel + " To: " + value + " (No Callback Found)"
msg = """[ { "value":"%s", "timestamp":"%s", "msgId":"%s" } ]""" % (value, str(lc), msgId)
topic = "meshify/responses/" + msgId
self.q.put([topic, str(msg), 2])
print 'no Set callback found for channel: ' + funcName
except:
print "sets queue timeout, restarting..."
def sendtodbDevLora(self, id, channel, value, timestamp, deviceName):
mac = self.mac
if deviceName == "mainMeshify":
zigmac = "_[01:00:00:00:00:" + id[0:2] + ":" + id[2:4] + ":" + id[4:6] + "]!"
else:
zigmac = "_[00:00:00:00:00:" + id[0:2] + ":" + id[2:4] + ":" + id[4:6] + "]!"
dname = deviceName + zigmac
#define dname, make id into techname and mac
if id not in self.knownIDs:
self.knownIDs.append(id)
self.mcu.xbees[dname] = self.loraQ
#meshify/db/330/C493000354FB/ilora/c493000354fb2A6E/a1-v
#[ { "value":"0.5635", "timestamp":"1486039316" } ]
if int(timestamp) == 0:
timestamp = self.getTime()
topic = 'meshify/db/%s/%s/%s/%s' % (self.company, mac, dname, channel)
print topic
msg = """[ { "value":"%s", "timestamp":"%s" } ]""" % (str(value), str(timestamp))
print msg
self.q.put([topic, msg, 0])
def sendtodbLocLora(self, id, channel, value, timestamp, deviceName):
mac = id
while len(mac) < 12:
mac = "0" + mac
if deviceName == "mainMeshify":
zigmac = "_[01:00:00:00:00:" + id[0:2] + ":" + id[2:4] + ":" + id[4:6] + "]!"
else:
zigmac = "_[00:00:00:00:00:" + id[0:2] + ":" + id[2:4] + ":" + id[4:6] + "]!"
dname = deviceName + zigmac
#define dname, make id into techname and mac
if id not in self.knownIDs:
self.knownIDs.append(id)
topic = str(("meshify/sets/" + str(self.company) + "/" + mac + "/#"))
self.mqtt.subscribe(topic, 0)
topic = str(("meshify/sets/" + "1" + "/" + mac + "/#"))
self.mqtt.subscribe(topic, 0)
self.mcu.xbees[dname] = self.loraQ
#meshify/db/330/C493000354FB/ilora/c493000354fb2A6E/a1-v
#[ { "value":"0.5635", "timestamp":"1486039316" } ]
if int(timestamp) == 0:
timestamp = self.getTime()
topic = 'meshify/db/%s/%s/%s/%s' % (self.company, mac, dname, channel)
print topic
msg = """[ { "value":"%s", "timestamp":"%s" } ]""" % (str(value), str(timestamp))
print msg
self.q.put([topic, msg, 0])
def sendtodbLocLoraCom(self, id, channel, value, timestamp, deviceName):
mac = "1" + id
while len(mac) < 12:
mac = "0" + mac
if deviceName == "mainMeshify":
zigmac = "_[01:00:00:00:00:" + id[0:2] + ":" + id[2:4] + ":" + id[4:6] + "]!"
else:
zigmac = "_[00:00:00:00:01:" + id[0:2] + ":" + id[2:4] + ":" + id[4:6] + "]!"
dname = deviceName + zigmac
#define dname, make id into techname and mac
if id not in self.knownIDs:
self.knownIDs.append(id)
topic = str(("meshify/sets/" + str(self.company) + "/" + mac + "/#"))
self.mqtt.subscribe(topic, 0)
topic = str(("meshify/sets/" + "1" + "/" + mac + "/#"))
self.mqtt.subscribe(topic, 0)
self.mcu.xbees[dname] = self.loraQ
#meshify/db/330/C493000354FB/ilora/c493000354fb2A6E/a1-v
#[ { "value":"0.5635", "timestamp":"1486039316" } ]
if int(timestamp) == 0:
timestamp = self.getTime()
topic = 'meshify/db/%s/%s/%s/%s' % (self.company, mac, dname, channel)
print topic
msg = """[ { "value":"%s", "timestamp":"%s" } ]""" % (str(value), str(timestamp))
print msg
self.q.put([topic, msg, 0])
def sendtodbLoc(self, ch, channel, value, timestamp, deviceName, mac):
#this will add your derived nodes the master nodes list, allowing them to receive sets!!
localNodesName = deviceName + "_" + str(ch) + "99"
if not self.localNodes.has_key(localNodesName):
self.localNodes[localNodesName] = True
self.nodes[localNodesName] = self
#make the techname
lst = textwrap.wrap(str(mac), width=2)
tech = ""
for i in range(len(lst)):
tech += lst[i].lower() + ":"
chName2 = '_[' + tech
if int(ch) < 10:
ch = "0" + str(int(ch))
if len(ch) > 2:
ch = ch[:-2]
dname = deviceName + chName2 + str(ch) + ":98]!"
if int(timestamp) == 0:
timestamp = self.getTime()
topic = 'meshify/db/%s/%s/%s/%s' % (self.company, mac, dname, channel)
print topic
msg = """[ { "value":"%s", "timestamp":"%s" } ]""" % (str(value), str(timestamp))
print msg
self.q.put([topic, msg, 0])
def sendtodbDevJSON(self, ch, channel, value, timestamp, deviceName):
if int(ch) < 10:
ch = "0" + str(int(ch))
dname = deviceName + self.chName2 + str(ch) + ":99]!"
if int(timestamp) == 0:
timestamp = self.getTime()
topic = 'meshify/db/%s/%s/%s/%s' % (self.company, self.mac, dname, channel)
print topic
msg = """[ { "value":%s, "timestamp":"%s" } ]""" % (str(value), str(timestamp))
print msg
self.q.put([topic, msg, 0])
def sendtodbLora(self, ch, channel, value, timestamp, deviceName):
if ":" not in ch:
ch = ch[0:2] + ":" + ch[2:4]
#this will add your derived nodes the master nodes list, allowing them to receive sets!!
localNodesName = deviceName + "_" + str(ch).replace(':', "")
if not self.localNodes.has_key(localNodesName):
self.localNodes[localNodesName] = True
self.nodes[localNodesName] = self
dname = deviceName + self.chName2 + str(ch) + "]!"
if int(timestamp) == 0:
timestamp = self.getTime()
topic = 'meshify/db/%s/%s/%s/%s' % (self.company, self.mac, dname, channel)
print topic
msg = """[ { "value":"%s", "timestamp":"%s" } ]""" % (str(value), str(timestamp))
print msg
self.q.put([topic, msg, 0])
def sendtodbDev(self, ch, channel, value, timestamp, deviceName):
#this will add your derived nodes the master nodes list, allowing them to receive sets!!
localNodesName = deviceName + "_" + str(ch) + "99"
if not self.localNodes.has_key(localNodesName):
self.localNodes[localNodesName] = True
self.nodes[localNodesName] = self
if int(ch) < 10:
ch = "0" + str(int(ch))
dname = deviceName + self.chName2 + str(ch) + ":99]!"
if int(timestamp) == 0:
timestamp = self.getTime()
topic = 'meshify/db/%s/%s/%s/%s' % (self.company, self.mac, dname, channel)
print topic
msg = """[ { "value":"%s", "timestamp":"%s" } ]""" % (str(value), str(timestamp))
print msg
self.q.put([topic, msg, 0])
def sendtodbCH(self, ch, channel, value, timestamp):
if int(ch) < 10:
ch = "0" + str(ch)
dname = self.chName + str(ch) + ":99]!"
if int(timestamp) == 0:
timestamp = self.getTime()
topic = 'meshify/db/%s/%s/%s/%s' % (self.company, self.mac, dname, channel)
print topic
msg = """[ { "value":"%s", "timestamp":"%s" } ]""" % (str(value), str(timestamp))
print msg
self.q.put([topic, msg, 0])
def sendtodb(self, channel, value, timestamp):
if int(timestamp) == 0:
timestamp = self.getTime()
if timestamp < 1400499858:
return
else:
timestamp = str(int(timestamp) + int(self.offset))
topic = 'meshify/db/%s/%s/%s/%s' % (self.company, self.mac, self.deviceName, channel)
print topic
msg = """[ { "value":"%s", "timestamp":"%s" } ]""" % (str(value), str(timestamp))
print msg
self.q.put([topic, msg, 0])
def sendtodbJSON(self, channel, value, timestamp):
if int(timestamp) == 0:
timestamp = self.getTime()
if timestamp < 1400499858:
return
else:
timestamp = str(int(timestamp) + int(self.offset))
topic = 'meshify/db/%s/%s/%s/%s' % (self.company, self.mac, self.deviceName, channel)
print topic
msg = """[ { "value":%s, "timestamp":"%s" } ]""" % (str(value), str(timestamp))
print msg
self.q.put([topic, msg, 0])
def getTime(self):
return str(int(time.time() + int(self.offset)))

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@@ -0,0 +1,11 @@
{
"name": "multisensor",
"driverFilename": "multisensor.py",
"driverId": "0000",
"additionalDriverFiles": [
"utilities.py",
"Channel.py"
],
"version": 1,
"s3BucketName": "multisensor"
}

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# LOGGING SETUP
import logging
import sys
from logging.handlers import RotatingFileHandler
log_formatter = logging.Formatter('%(asctime)s %(levelname)s %(funcName)s(%(lineno)d) %(message)s')
logFile = './multisensor.log'
my_handler = RotatingFileHandler(logFile, mode='a', maxBytes=500*1024,
backupCount=2, encoding=None, delay=0)
my_handler.setFormatter(log_formatter)
my_handler.setLevel(logging.INFO)
filelogger = logging.getLogger('multisensor')
filelogger.setLevel(logging.INFO)
filelogger.addHandler(my_handler)
console_out = logging.StreamHandler(sys.stdout)
console_out.setFormatter(log_formatter)
filelogger.addHandler(console_out)

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"""Driver for multisensor"""
import threading
import json
import time
from random import randint
from device_base import deviceBase
from Channel import PLCChannel, read_tag, write_tag
from utilities import get_public_ip_address
from logger import filelogger
_ = None
filelogger.info("multisensor startup")
# GLOBAL VARIABLES
WAIT_FOR_CONNECTION_SECONDS = 60
WATCHDOG_ENABLE = True
WATCHDOG_SEND_PERIOD = 3600 # Seconds, the longest amount of time before sending the watchdog status
PLC_IP_ADDRESS = "192.168.1.12"
CALIBRATION_TABLES = [[] for x in xrange(8)]
CHANNELS = [
PLCChannel(PLC_IP_ADDRESS, 'an0val', 'input0.scaledValue', 'REAL', 1.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'an1val', 'input1.scaledValue', 'REAL', 1.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'an2val', 'input2.scaledValue', 'REAL', 1.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'an3val', 'input3.scaledValue', 'REAL', 1.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'an4val', 'input4.scaledValue', 'REAL', 1.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'an5val', 'input5.scaledValue', 'REAL', 1.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'an6val', 'input6.scaledValue', 'REAL', 1.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'an7val', 'input7.scaledValue', 'REAL', 1.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'pond0volume', 'input0.pondVolume', 'REAL', 1000.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'pond1volume', 'input1.pondVolume', 'REAL', 1000.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'pond2volume', 'input2.pondVolume', 'REAL', 1000.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'pond3volume', 'input3.pondVolume', 'REAL', 1000.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'pond4volume', 'input4.pondVolume', 'REAL', 1000.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'pond5volume', 'input5.pondVolume', 'REAL', 1000.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'pond6volume', 'input6.pondVolume', 'REAL', 1000.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'pond7volume', 'input7.pondVolume', 'REAL', 1000.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'an0active', 'input0.active', 'BOOL', 1.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'an1active', 'input1.active', 'BOOL', 1.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'an2active', 'input2.active', 'BOOL', 1.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'an3active', 'input3.active', 'BOOL', 1.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'an4active', 'input4.active', 'BOOL', 1.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'an5active', 'input5.active', 'BOOL', 1.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'an6active', 'input6.active', 'BOOL', 1.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
PLCChannel(PLC_IP_ADDRESS, 'an7active', 'input7.active', 'BOOL', 1.0, 600, map_=False, write_enabled=False, plc_type="Micro800"),
]
class start(threading.Thread, deviceBase):
"""Start class required by Meshify."""
def __init__(self, name=None, number=None, mac=None, Q=None, mcu=None,
companyId=None, offset=None, mqtt=None, Nodes=None):
"""Initialize the driver."""
threading.Thread.__init__(self)
deviceBase.__init__(self, name=name, number=number, mac=mac, Q=Q,
mcu=mcu, companyId=companyId, offset=offset,
mqtt=mqtt, Nodes=Nodes)
self.daemon = True
self.version = "1"
self.finished = threading.Event()
self.force_send = False
self.public_ip_address = ""
self.public_ip_address_last_checked = 0
self.watchdog = False
self.watchdog_last_checked = 0
self.watchdog_last_sent = 0
threading.Thread.start(self)
# this is a required function for all drivers, its goal is to upload some piece of data
# about your device so it can be seen on the web
def register(self):
"""Register the driver."""
# self.sendtodb("log", "BOOM! Booted.", 0)
pass
def run(self):
"""Actually run the driver."""
for i in range(0, WAIT_FOR_CONNECTION_SECONDS):
print("multisensor driver will start in {} seconds".format(WAIT_FOR_CONNECTION_SECONDS - i))
time.sleep(1)
filelogger.info("BOOM! Starting multisensor driver...")
self._check_watchdog()
self._check_ip_address()
self.nodes["multisensor_0199"] = self
send_loops = 0
watchdog_check_after = 60
ip_check_after = 60
while True:
now = time.time()
if self.force_send:
filelogger.warning("FORCE SEND: TRUE")
for chan in CHANNELS:
val = chan.read()
if chan.check(val, self.force_send):
self.sendtodbDev(1, chan.mesh_name, chan.value, 0, 'multisensor')
# print("multisensor driver still alive...")
if self.force_send:
if send_loops > 2:
filelogger.warning("Turning off force_send")
self.force_send = False
send_loops = 0
else:
send_loops += 1
if WATCHDOG_ENABLE:
if (now - self.watchdog_last_checked) > watchdog_check_after:
self._check_watchdog()
if (now - self.public_ip_address_last_checked) > ip_check_after:
self._check_ip_address()
def read_pond_calibration(self, input_number):
"""Read all calibration values for a specific pond."""
last_read_height = -1.0
cal_values = []
cal_index = 1
while last_read_height != 0 and cal_index <=10:
cal_tag_height = "pond{}CalibrationHeight[{}]".format(input_number, cal_index)
cal_tag_volume = "pond{}CalibrationVolume[{}]".format(input_number, cal_index)
read_height = read_tag(PLC_IP_ADDRESS, cal_tag_height, plc_type="Micro800")
time.sleep(2)
read_volume = read_tag(PLC_IP_ADDRESS, cal_tag_volume, plc_type="Micro800")
time.sleep(2)
if read_height and read_volume:
if read_height[0] > 0.0:
cal_values.append({"height": read_height[0], "volume": read_volume[0]})
last_read_height = read_height[0]
cal_index += 1
if cal_values != CALIBRATION_TABLES[input_number] or self.force_send:
calibration_channel = "pond{}calibration".format(input_number)
calibration_string = json.dumps(cal_values).replace('"', "'")
self.sendtodbDev(1, calibration_channel, calibration_string, 0, 'plcpond')
CALIBRATION_TABLES[input_number] = cal_values
def _check_watchdog(self):
"""Check the watchdog and send to Meshify if changed or stale."""
test_watchdog = self.multisensor_watchdog()
now = time.time()
self.watchdog_last_checked = now
if test_watchdog != self.watchdog or (now - self.watchdog_last_sent) > WATCHDOG_SEND_PERIOD:
self.sendtodbDev(1, 'watchdog', test_watchdog, 0, 'multisensor')
self.watchdog = test_watchdog
self.watchdog_last_sent = now
def _check_ip_address(self):
"""Check the public IP address and send to Meshify if changed."""
self.public_ip_address_last_checked = time.time()
test_public_ip = get_public_ip_address()
if not test_public_ip == self.public_ip_address:
self.sendtodbDev(1, 'public_ip_address', test_public_ip, 0, 'multisensor')
self.public_ip_address = test_public_ip
def multisensor_watchdog(self):
"""Write a random integer to the PLC and then 1 seconds later check that it has been decremented by 1."""
randval = randint(0, 32767)
write_tag(str(PLC_IP_ADDRESS), 'watchdog_INT', randval)
time.sleep(1)
watchdog_val = read_tag(str(PLC_IP_ADDRESS), 'watchdog_INT')
try:
return (randval - 1) == watchdog_val[0]
except (KeyError, TypeError):
return False
def multisensor_sync(self, name, value):
"""Sync all data from the driver."""
self.force_send = True
self.sendtodb("log", "synced", 0)
return True
def multisensor_writeplctag(self, name, value):
"""Write a value to the PLC."""
new_val = json.loads(str(value).replace("'", '"'))
tag_n = str(new_val['tag']) # "cmd_Start"
val_n = new_val['val']
write_res = write_tag(str(PLC_IP_ADDRESS), tag_n, val_n)
print("Result of multisensor_writeplctag(self, {}, {}) = {}".format(name, value, write_res))
if write_res is None:
write_res = "Error writing to PLC..."
return write_res

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"""Driver for plcpond"""
import threading
import sys
import json
import time
import logging
from random import randint
from device_base import deviceBase
from Channel import PLCChannel, read_tag, write_tag, TAG_DATAERROR_SLEEPTIME
from utilities import get_public_ip_address
_ = None
# LOGGING SETUP
from logging.handlers import RotatingFileHandler
log_formatter = logging.Formatter('%(asctime)s %(levelname)s %(funcName)s(%(lineno)d) %(message)s')
logFile = './plcpond.log'
my_handler = RotatingFileHandler(logFile, mode='a', maxBytes=500*1024, backupCount=2, encoding=None, delay=0)
my_handler.setFormatter(log_formatter)
my_handler.setLevel(logging.INFO)
logger = logging.getLogger('plcpond')
logger.setLevel(logging.INFO)
logger.addHandler(my_handler)
console_out = logging.StreamHandler(sys.stdout)
console_out.setFormatter(log_formatter)
logger.addHandler(console_out)
logger.info("plcpond startup")
# GLOBAL VARIABLES
WATCHDOG_SEND_PERIOD = 3600 # Seconds, the longest amount of time before sending the watchdog status
PLC_IP_ADDRESS = "192.168.1.12"
CHANNELS = [
PLCChannel(PLC_IP_ADDRESS, "cfgnumberofponds", "cfgNumberOfPonds", "REAL", 0.5, 600, map_=False, write_enabled=False, plc_type='Micro800'),
PLCChannel(PLC_IP_ADDRESS, "pond1height", "pond1Height", "REAL", 0.5, 600, map_=False, write_enabled=False, plc_type='Micro800'),
PLCChannel(PLC_IP_ADDRESS, "pond2height", "pond2Height", "REAL", 0.5, 600, map_=False, write_enabled=False, plc_type='Micro800'),
PLCChannel(PLC_IP_ADDRESS, "pond3height", "pond3Height", "REAL", 0.5, 600, map_=False, write_enabled=False, plc_type='Micro800'),
PLCChannel(PLC_IP_ADDRESS, "pond4height", "pond4Height", "REAL", 0.5, 600, map_=False, write_enabled=False, plc_type='Micro800'),
PLCChannel(PLC_IP_ADDRESS, "pond1volume", "pond1Volume", "REAL", 500.0, 600, map_=False, write_enabled=False, plc_type='Micro800'),
PLCChannel(PLC_IP_ADDRESS, "pond2volume", "pond2Volume", "REAL", 500.0, 600, map_=False, write_enabled=False, plc_type='Micro800'),
PLCChannel(PLC_IP_ADDRESS, "pond3volume", "pond3Volume", "REAL", 500.0, 600, map_=False, write_enabled=False, plc_type='Micro800'),
PLCChannel(PLC_IP_ADDRESS, "pond4volume", "pond4Volume", "REAL", 500.0, 600, map_=False, write_enabled=False, plc_type='Micro800'),
PLCChannel(PLC_IP_ADDRESS, "pondvolumetotal", "pondVolumeTotal", "REAL", 500.0, 600, map_=False, write_enabled=False, plc_type='Micro800')
]
CALIBRATION_TABLES = [[],[], [], [], []] # position 0 is a dummy table
class start(threading.Thread, deviceBase):
"""Start class required by Meshify."""
def __init__(self, name=None, number=None, mac=None, Q=None, mcu=None, companyId=None, offset=None, mqtt=None, Nodes=None):
"""Initialize the driver."""
threading.Thread.__init__(self)
deviceBase.__init__(self, name=name, number=number, mac=mac, Q=Q, mcu=mcu, companyId=companyId, offset=offset, mqtt=mqtt, Nodes=Nodes)
self.daemon = True
self.version = "2"
self.finished = threading.Event()
self.force_send = False
threading.Thread.start(self)
# this is a required function for all drivers, its goal is to upload some piece of data
# about your device so it can be seen on the web
def register(self):
"""Register the driver."""
# self.sendtodb("log", "BOOM! Booted.", 0)
pass
def run(self):
"""Actually run the driver."""
wait_sec = 30
for i in range(0, wait_sec):
print("plcpond driver will start in {} seconds".format(wait_sec - i))
time.sleep(1)
logger.info("BOOM! Starting plcpond driver...")
public_ip_address = get_public_ip_address()
self.sendtodbDev(1, 'public_ip_address', public_ip_address, 0, 'plcpond')
watchdog = self.plcpond_watchdog()
self.sendtodbDev(1, 'watchdog', watchdog, 0, 'plcpond')
watchdog_send_timestamp = time.time()
self.nodes["plcpond_0199"] = self
send_loops = 0
watchdog_loops = 0
watchdog_check_after = 5000
while True:
if self.force_send:
logger.warning("FORCE SEND: TRUE")
for c in CHANNELS:
v = c.read()
if v is not None: # read returns None if it fails
if c.check(v, self.force_send):
self.sendtodbDev(1, c.mesh_name, c.value, 0, 'plcpond')
time.sleep(TAG_DATAERROR_SLEEPTIME) # sleep to allow Micro800 to handle ENET requests
for pond_index in range(1, 5):
self.read_pond_calibration(pond_index)
# print("plcpond driver still alive...")
if self.force_send:
if send_loops > 2:
logger.warning("Turning off force_send")
self.force_send = False
send_loops = 0
else:
send_loops += 1
watchdog_loops += 1
if watchdog_loops >= watchdog_check_after:
test_watchdog = self.plcpond_watchdog()
if not test_watchdog == watchdog or (time.time() - watchdog_send_timestamp) > WATCHDOG_SEND_PERIOD:
self.sendtodbDev(1, 'watchdog', test_watchdog, 0, 'plcpond')
watchdog = test_watchdog
test_public_ip = get_public_ip_address()
if not test_public_ip == public_ip_address:
self.sendtodbDev(1, 'public_ip_address', test_public_ip, 0, 'plcpond')
public_ip_address = test_public_ip
watchdog_loops = 0
def read_pond_calibration(self, pond_number):
"""Read all calibration values for a specific pond."""
last_read_height = -1.0
cal_values = []
cal_index = 1
while last_read_height != 0 and cal_index <=10:
cal_tag_height = "pond{}CalibrationHeight[{}]".format(pond_number, cal_index)
cal_tag_volume = "pond{}CalibrationVolume[{}]".format(pond_number, cal_index)
read_height = read_tag(PLC_IP_ADDRESS, cal_tag_height, plc_type="Micro800")
time.sleep(2)
read_volume = read_tag(PLC_IP_ADDRESS, cal_tag_volume, plc_type="Micro800")
time.sleep(2)
if read_height and read_volume:
if read_height[0] > 0.0:
cal_values.append({"height": read_height[0], "volume": read_volume[0]})
last_read_height = read_height[0]
cal_index += 1
if cal_values != CALIBRATION_TABLES[pond_number] or self.force_send:
calibration_channel = "pond{}calibration".format(pond_number)
calibration_string = json.dumps(cal_values).replace('"', "'")
self.sendtodbDev(1, calibration_channel, calibration_string, 0, 'plcpond')
CALIBRATION_TABLES[pond_number] = cal_values
def plcpond_watchdog(self):
"""Write a random integer to the PLC and then 1 seconds later check that it has been decremented by 1."""
randval = randint(0, 32767)
write_tag(str(PLC_IP_ADDRESS), 'watchdog_INT', randval, plc_type="Micro800")
time.sleep(1)
watchdog_val = read_tag(str(PLC_IP_ADDRESS), 'watchdog_INT', plc_type="Micro800")
try:
return (randval - 1) == watchdog_val[0]
except (KeyError, TypeError):
return False
def plcpond_sync(self, name, value):
"""Sync all data from the driver."""
self.force_send = True
# self.sendtodb("log", "synced", 0)
return True
def plcpond_deletecalibrationpoint(self, name, value):
"""Delete a calibration point from a calibration table"""
# {"pond": int, "point": int}
value = value.replace("'", '"')
parsed = json.loads(value)
try:
pond_number = int(parsed['pond'])
point_number = int(parsed['point'])
write_pond = write_tag(PLC_IP_ADDRESS, "inpPondNumber", pond_number, plc_type="Micro800")
time.sleep(2)
write_point = write_tag(PLC_IP_ADDRESS, "inpDeletePointIndex", point_number, plc_type="Micro800")
time.sleep(2)
if write_pond and write_point:
write_cmd = write_tag(PLC_IP_ADDRESS, "cmdDeleteCalibrationPoint", 1, plc_type="Micro800")
time.sleep(2)
if write_cmd:
read_val = read_tag(PLC_IP_ADDRESS, "deleteSuccess", plc_type="Micro800")
if read_val[0] == 1:
self.read_pond_calibration(pond_number)
return True
return "Wrote everything successfully, but delete didn't succeed (Check pond and point values)."
return "Didn't write delete command correctly."
return "Didn't write pond or point correctly."
except KeyError as e:
return "Couldn't parse input value: {} -- {}".format(value, e)
def plcpond_cfgnumberofponds(self, name, value):
"""Write the number of ponds to the plc."""
value = int(value)
return write_tag(PLC_IP_ADDRESS, "cfgNumberOfPonds", value, plc_type="Micro800")
def plcpond_addcalibrationpoint(self, name, value):
"""Add a calibration point to the calibration table"""
# value = {"pond": int, "height": float, "volume": float}
value = value.replace("'", '"')
parsed = json.loads(value)
try:
# parse json values, throw an error if one is missing
pond_number = int(parsed['pond'])
height = float(parsed['height'])
volume = float(parsed['volume'])
# write values to the tags
write_pond = write_tag(PLC_IP_ADDRESS, "inpPondNumber", pond_number, plc_type="Micro800")
time.sleep(2)
write_height = write_tag(PLC_IP_ADDRESS, "inpPondHeight", height, plc_type="Micro800")
time.sleep(2)
write_volume= write_tag(PLC_IP_ADDRESS, "inpPondVolume", volume, plc_type="Micro800")
time.sleep(2)
if write_pond and write_height and write_volume:
write_cmd = write_tag(PLC_IP_ADDRESS, "cmdAddCalibrationPoint", 1, plc_type="Micro800")
time.sleep(2)
if write_cmd:
read_val = read_tag(PLC_IP_ADDRESS, "addSuccess", plc_type="Micro800")
if read_val[0] == 1:
self.read_pond_calibration(pond_number)
return True
return "Wrote everything successfully, but delete didn't succeed (Check pond and point values)."
return "Didn't write delete command correctly."
return "Didn't write pond or point correctly."
except KeyError as e:
return "Couldn't parse input value: {} -- {}".format(value, e)
def plcpond_writeplctag(self, name, value):
"""Write a value to the PLC."""
new_val = json.loads(str(value).replace("'", '"'))
tag_n = str(new_val['tag']) # "cmd_Start"
val_n = new_val['val']
w = write_tag(str(PLC_IP_ADDRESS), tag_n, val_n)
logger.info("Result of plcpond_writeplctag(self, {}, {}) = {}".format(name, value, w))
if w is None:
w = "Error writing to PLC..."
return w

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import json
import time
from Channel import read_tag, write_tag
PLC_IP_ADDRESS = "192.168.1.12"
def read_pond_calibration(pond_number):
"""Read all calibration values for a specific pond."""
last_read_height = -1.0
cal_values = []
cal_index = 1
while last_read_height != 0 and cal_index <=10:
cal_tag_height = "pond{}CalibrationHeight[{}]".format(pond_number, cal_index)
cal_tag_volume = "pond{}CalibrationVolume[{}]".format(pond_number, cal_index)
print(cal_tag_height, cal_tag_volume)
read_height = read_tag(PLC_IP_ADDRESS, cal_tag_height, plc_type="Micro800")
time.sleep(2)
read_volume = read_tag(PLC_IP_ADDRESS, cal_tag_volume, plc_type="Micro800")
time.sleep(2)
print(read_height, read_volume)
if read_height and read_volume:
if read_height[0] > 0.0:
cal_values.append({"height": read_height[0], "volume": read_volume[0]})
last_read_height = read_height[0]
cal_index += 1
return cal_values

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"""Utility functions for the driver."""
import socket
import struct
def get_public_ip_address():
"""Find the public IP Address of the host device."""
s = socket.socket(socket.AF_INET, socket.SOCK_DGRAM)
s.connect(("8.8.8.8", 80))
ip = s.getsockname()[0]
s.close()
return ip
def int_to_float16(int_to_convert):
"""Convert integer into float16 representation."""
bin_rep = ('0' * 16 + '{0:b}'.format(int_to_convert))[-16:]
sign = 1.0
if int(bin_rep[0]) == 1:
sign = -1.0
exponent = float(int(bin_rep[1:6], 2))
fraction = float(int(bin_rep[6:17], 2))
if exponent == float(0b00000):
return sign * 2 ** -14 * fraction / (2.0 ** 10.0)
elif exponent == float(0b11111):
if fraction == 0:
return sign * float("inf")
else:
return float("NaN")
else:
frac_part = 1.0 + fraction / (2.0 ** 10.0)
return sign * (2 ** (exponent - 15)) * frac_part
def ints_to_float(int1, int2):
"""Convert 2 registers into a floating point number."""
mypack = struct.pack('>HH', int1, int2)
f = struct.unpack('>f', mypack)
print("[{}, {}] >> {}".format(int1, int2, f[0]))
return f[0]
def degf_to_degc(temp_f):
"""Convert deg F to deg C."""
return (temp_f - 32.0) * (5.0/9.0)
def degc_to_degf(temp_c):
"""Convert deg C to deg F."""
return temp_c * 1.8 + 32.0