class MeshInterface:
""" Class for Mesh interface,
all modules that uses Mesh should call only this class methods """
INTERVAL = const(10)
def __init__(self, meshaging, lock):
self.lock = lock #_thread.allocate_lock()
self.meshaging = meshaging
self.mesh = MeshInternal(self.meshaging)
self.sleep_function = None
self.single_leader_ts = 0
self.statistics = Statistics(self.meshaging)
self._timer = Timer.Alarm(self.periodic_cb,
self.INTERVAL,
periodic=True)
# just run this ASAP
self.periodic_cb(None)
pass
def periodic_cb(self, alarm):
# wait lock forever
if self.lock.acquire():
print("============ MESH THREAD >>>>>>>>>>> ")
t0 = time.ticks_ms()
self.mesh.process()
if self.mesh.is_connected():
self.statistics.process()
self.mesh.process_messages()
# if Single Leader for 3 mins should reset
if self.mesh.mesh.state == self.mesh.mesh.STATE_LEADER and self.mesh.mesh.mesh.single(
):
if self.single_leader_ts == 0:
# first time Single Leader, record time
self.single_leader_ts = time.time()
print("Single Leader", self.mesh.mesh.state,
self.mesh.mesh.mesh.single(),
time.time() - self.single_leader_ts)
if time.time() - self.single_leader_ts > 180:
print("Single Leader, just reset")
if self.sleep_function:
self.sleep_function(1)
else:
# print("Not Single Leader", self.mesh.mesh.state, self.mesh.mesh.mesh.single())
self.single_leader_ts = 0
self.lock.release()
print(">>>>>>>>>>> DONE MESH THREAD ============ %d\n" %
(time.ticks_ms() - t0))
pass
def timer_kill(self):
# with self.lock:
self._timer.cancel()
def get_mesh_mac_list(self):
mac_list = list()
if self.lock.acquire():
# mac_list = list(self.mesh.get_all_macs_set())
# mac_list.sort()
mac_list = {0: list(self.mesh.get_all_macs_set())}
self.lock.release()
print("get_mesh_mac_list:", str(mac_list))
return mac_list
def get_mesh_pairs(self):
mesh_pairs = []
if self.lock.acquire():
mesh_pairs = self.mesh.get_mesh_pairs()
self.lock.release()
#print("get_mesh_pairs: %s"%str(mesh_pairs))
return mesh_pairs
def set_gps(self, lng, lat):
with open('/flash/gps', 'w') as fh:
fh.write('%d;%d'.format(lng, lat))
def is_connected(self):
is_connected = None
if self.lock.acquire():
is_connected = self.mesh.is_connected()
self.lock.release()
return is_connected
def ip(self):
ip = None
if self.lock.acquire():
ip = self.mesh.mesh.mesh.ipaddr()
self.lock.release()
return ip
def get_node_info(self, mac_id):
data = {}
try:
mac = int(mac_id)
except:
mac = self.mesh.MAC
print("get_node_info own mac")
if self.lock.acquire():
data = self.mesh.node_info(mac)
self.lock.release()
return data
def send_message(self, data):
## WARNING: is locking required for just adding
ret = False
# check input parameters
try:
mac = int(data['to'])
msg_type = data.get('ty', 0) # text type, by default
payload = data['b']
id = int(data['id'])
ts = int(data['ts'])
except:
print('send_message: wrong input params')
return False
if self.lock.acquire():
print("Send message to %d, typ %d, load %s" %
(mac, msg_type, payload))
ret = self.meshaging.send_message(mac, msg_type, payload, id, ts)
# send messages ASAP
self.mesh.process_messages()
self.lock.release()
return ret
def mesage_was_ack(self, mac, id):
ret = False
if self.lock.acquire():
ret = self.meshaging.mesage_was_ack(mac, id)
self.lock.release()
#print("mesage_was_ack (%X, %d): %d"%(mac, id, ret))
return ret
def get_rcv_message(self):
""" returns a message that was received, {} if none is received """
message = None
if self.lock.acquire():
message = self.meshaging.get_rcv_message()
self.lock.release()
if message is not None:
(mac, id, ts, payload) = message
return {'from': mac, 'b': payload, 'id': id, 'ts': ts}
return {}
def statistics_start(self, data):
""" starts to do statistics based on message send/ack """
# data = {'mac':6, 'n':3, 't':30, 's1':10, 's2':30}
try:
# validate input params
mac = int(data['mac'])
num_mess = int(data['n'])
timeout = int(data['t'])
except:
print("statistics_start failed")
print(data)
return 0
if mac == self.mesh.MAC:
data['mac'] = 2
res = self.statistics.add_stat_mess(data)
return res
def statistics_get(self, id):
res = self.statistics.status(id)
print(res)
return res
class MeshInterface:
""" Class for Mesh interface,
all modules that uses Mesh should call only this class methods """
INTERVAL = const(10)
def __init__(self, config, message_cb):
self.lock = _thread.allocate_lock()
self.meshaging = Meshaging(self.lock)
self.config = config
self.mesh = MeshInternal(self.meshaging, config, message_cb)
self.sleep_function = None
self.single_leader_ts = 0
# Pybytes debugging
self.pyb_dbg = False
self.pyb_ts = 0
self.pyb_timeout = 1000000
self.pyb_data = "No data"
self.br_auto = False
self.mesh.br_handler = self.br_handler
self.end_device_m = False
self.statistics = Statistics(self.meshaging)
self._timer = Timer.Alarm(self.periodic_cb,
self.INTERVAL,
periodic=True)
# just run this ASAP
self.periodic_cb(None)
pass
def periodic_cb(self, alarm):
# wait lock forever
if self.lock.acquire():
print_debug(2, "============ MESH THREAD >>>>>>>>>>> ")
t0 = time.ticks_ms()
self.mesh.process()
if self.mesh.is_connected():
self.statistics.process()
self.mesh.process_messages()
# if connected to Pybytes enable/disable BR
# if self.pyb_dbg:
# # self.mesh.border_router(Pybytes_wrap.is_connected())
# self.pybytes_process()
# if Single Leader for 3 mins should reset
# if self.mesh.mesh.state == self.mesh.mesh.STATE_LEADER and self.mesh.mesh.mesh.single():
# if self.single_leader_ts == 0:
# # first time Single Leader, record time
# self.single_leader_ts = time.time()
# print("Single Leader", self.mesh.mesh.state, self.mesh.mesh.mesh.single(),
# time.time() - self.single_leader_ts)
# if time.time() - self.single_leader_ts > 180:
# print("Single Leader, just reset")
# if self.sleep_function:
# self.sleep_function(1)
# else:
# # print("Not Single Leader", self.mesh.mesh.state, self.mesh.mesh.mesh.single())
# self.single_leader_ts = 0
self.lock.release()
print_debug(
2, ">>>>>>>>>>> DONE MESH THREAD ============ %d\n" %
(time.ticks_ms() - t0))
pass
def timer_kill(self):
# with self.lock:
self._timer.cancel()
def get_mesh_mac_list(self):
mac_list = list()
if self.lock.acquire():
# mac_list = list(self.mesh.get_all_macs_set())
# mac_list.sort()
mac_list = {0: list(self.mesh.get_all_macs_set())}
self.lock.release()
print("get_mesh_mac_list:", str(mac_list))
return mac_list
def get_mesh_pairs(self):
mesh_pairs = []
if self.lock.acquire():
mesh_pairs = self.mesh.get_mesh_pairs()
self.lock.release()
#print("get_mesh_pairs: %s"%str(mesh_pairs))
return mesh_pairs
def set_gps(self, lng, lat):
with open('/flash/gps', 'w') as fh:
fh.write('%d;%d'.format(lng, lat))
def is_connected(self):
is_connected = None
if self.lock.acquire():
is_connected = self.mesh.is_connected()
self.lock.release()
return is_connected
def ip(self):
ip = None
if self.lock.acquire():
ip = self.mesh.mesh.mesh.ipaddr()
self.lock.release()
return ip
def get_node_info(self, mac_id=""):
data = {}
try:
mac = int(mac_id)
except:
mac = self.mesh.MAC
print("get_node_info own mac")
if self.lock.acquire():
data = self.mesh.node_info(mac)
self.lock.release()
return data
def send_message(self, data):
## WARNING: is locking required for just adding
ret = False
# check if message is for BR
if len(data.get('ip', '')) > 0:
with self.lock:
self.mesh.br_send(data)
return
# check input parameters
try:
mac = int(data['to'])
msg_type = data.get('ty', 0) # text type, by default
payload = data['b']
id = int(data['id'])
ts = int(data['ts'])
except:
print('send_message: wrong input params')
return False
if self.lock.acquire():
print("Send message to %d, typ %d, load %s" %
(mac, msg_type, payload))
ret = self.meshaging.send_message(mac, msg_type, payload, id, ts)
# send messages ASAP
self.mesh.process_messages()
self.lock.release()
return ret
def mesage_was_ack(self, mac, id):
ret = False
if self.lock.acquire():
ret = self.meshaging.mesage_was_ack(mac, id)
self.lock.release()
#print("mesage_was_ack (%X, %d): %d"%(mac, id, ret))
return ret
def get_rcv_message(self):
""" returns a message that was received, {} if none is received """
message = None
if self.lock.acquire():
message = self.meshaging.get_rcv_message()
self.lock.release()
if message is not None:
(mac, id, ts, payload) = message
return {'from': mac, 'b': payload, 'id': id, 'ts': ts}
return {}
def statistics_start(self, data):
""" starts to do statistics based on message send/ack """
# data = {'mac':6, 'n':3, 't':30, 's1':10, 's2':30}
try:
# validate input params
mac = int(data['mac'])
num_mess = int(data['n'])
timeout = int(data['t'])
except:
print("statistics_start failed")
print(data)
return 0
if mac == self.mesh.MAC:
data['mac'] = 2
res = self.statistics.add_stat_mess(data)
return res
def statistics_get(self, id):
res = self.statistics.status(id)
print(res)
return res
def pybytes_process(self):
""" Send data to Pybytes periodically, called from Mesh Task """
# if not self.pyb_dbg:
# return
if time.time() - self.pyb_ts > self.pyb_timeout:
# with self.lock:
self.pyb_data = self.mesh.debug_data()
# send data to Pybytes
# res = Pybytes_wrap.send_signal(self.mesh.MAC, self.pyb_data)
self.pyb_ts = time.time()
pass
def pybytes_config(self, state, timeout=60):
""" Configure sending data to Pybytes """
self.pyb_dbg = state
self.pyb_timeout = timeout
# just set timestamp back, to make sure we're sending first call
if self.pyb_dbg:
self.pyb_ts = time.time() - self.pyb_timeout
print("Sending Pybytes packets %s, every %s sec" %
(self.pyb_dbg, self.pyb_timeout))
pass
def br_handler(self, id, data):
""" sending data NOW to Pybytes """
if not self.pyb_dbg:
return
print("Sending BR data to Pybytes")
# res = Pybytes_wrap.send_signal(self.mesh.MAC, id + ": " + str(data))
pass
def br_set(self, enable, prio=0, br_mess_cb=None):
with self.lock:
self.mesh.border_router(enable, prio, br_mess_cb)
def ot_cli(self, command):
""" Executes commands in Openthread CLI,
see https://github.com/openthread/openthread/tree/master/src/cli """
return self.mesh.mesh.mesh.cli(command)
def end_device(self, state=None):
if state is None:
# read status of end_device
state = self.ot_cli('routerrole')
return state == 'Disabled'
self.end_device_m = False
state_str = 'enable'
if state == True:
self.end_device_m = True
state_str = 'disable'
ret = self.ot_cli('routerrole ' + state_str)
return ret == ''
def leader_priority(self, weight=None):
if weight is None:
# read status of end_device
ret = self.ot_cli('leaderweight')
try:
weight = int(ret)
except:
weight = -1
return weight
try:
x = int(weight)
except:
return False
# weight should be uint8, positive and <256
if weight > 0xFF:
weight = 0xFF
elif weight < 0:
weight = 0
ret = self.ot_cli('leaderweight ' + str(weight))
return ret == ''
def debug_level(self, level=None):
if level is None:
try:
ret = pycom.nvs_get('pymesh_debug')
except:
ret = None
return ret
try:
ret = int(level)
except:
ret = self.debug_level
debug_level(ret)
def parent(self):
""" Returns the Parent MAC for the current Child node
Returns 0 if node is not Child """
if self.mesh.mesh.mesh.state() != self.mesh.mesh.STATE_CHILD:
print("Not Child, no Parent")
return 0
# try:
parent_mac = int(
self.mesh.mesh.mesh.cli('parent').split('\r\n')[0].split(
'Ext Addr: ')[1], 16)
# except:
# parent_mac = 0
print('Parent mac is:', parent_mac)
return parent_mac
