def get_message(LOAD, time):
global B_inv
global A
global Final_power
global flag
transfer = MessageCommonData()
for k in range(0, 12):
if voltage[k, 0] > 250 or flag[k] == 1:
#if voltage[k,0]>(240*1.05) and flag[k] == 0:
flag[k] = 1
A[k, 0] = m * voltage[k, 0] - m * V_cri[k, 0] - Pcurtail[
k, 0] + flag[k] * q * (Pnet[k][time])
else:
A[k, 0] = 0
X = B_inv * A
X = X / 5
Final_power = []
for i, n in enumerate(HOUSES):
inverter_power = change_power(X[i, 0], i)
Final_power.append(inverter_power)
transfer.add_param(
CommonParam(name=n,
param='constant_power_A',
value=(inverter_power + LOAD[i])))
return transfer
def get_message(LOAD):
global Q_inv
global B_inv
global A
global mp
global mq
global voltage
global P_inv
global PMPPT
global Final_power
global Xq
global Aq
transfer = MessageCommonData()
for k in range(0, 12):
if voltage[k, 0] < 250.08:
Q_inv[k, 0] = 0.0001
if voltage[k, 0] >= 250.08:
if voltage[k, 0] < 252.0:
Q_inv[k, 0] = 1438.0 * (voltage[k][0] - 250.08)
if voltage[k, 0] >= 252.0:
Q_inv[k, 0] = 2761.0
P_inv[k, 0] = PMPPT
for i, n in enumerate(HOUSES):
s_inv = complex(P_inv[i, 0], Q_inv[i, 0])
transfer.add_param(
CommonParam(name=n, param='constant_power_A', value=s_inv))
return transfer
def get_message(Load):
global B_inv
global A
global Final_Power
global vcri
global voltage
global Pcurtail
transfer = MessageCommonData()
for k in range(0,12):
if voltage[k,0]>vcri*240:
A[k,0] = m*voltage[k,0] - m*V_cri[k,0] - Pcurtail[k,0]
else:
A[k,0] = 0
X = B_inv*A
X = X/5
Final_Power = []
for id, h in enumerate(HOUSES):
inverter_power = change_power(X[id,0],id)
Final_Power.append(inverter_power)
transfer.add_param(CommonParam(name = h,param = 'constant_power_A',value = (inverter_power+Load[id])))
return transfer
def get_message_final(Load):
global Final_Power
transfer = MessageCommonData()
for i,h in enumerate(HOUSES):
transfer.add_param(CommonParam(name = h, param = 'constant_power_A', value = (Final_Power[i]+Load[i])))
return transfer
def get_message_final(LOAD):
global Final_power
global Display
transfer = MessageCommonData()
for i,n in enumerate(HOUSES):
transfer.add_param(CommonParam(name=n,param='constant_power_A',value=(Final_power[i]+LOAD[i])))
return transfer
def message_gld_input():
'''
Randomly assigns a kW power rating to the GridLAB-D house load.
'''
NAME = 'example_climate'
PARAM = 'temperature'
transfer = MessageCommonData()
transfer.add_param(CommonParam(name=NAME,param=PARAM,value=abs(random.normal(80.0,10.0))))
return transfer
def message_gld_input():
'''
Randomly assigns a kW power rating to the GridLAB-D house load.
'''
NAME = 'example_climate'
PARAM = 'temperature'
transfer = MessageCommonData()
transfer.add_param(
CommonParam(name=NAME,
param=PARAM,
value=abs(random.normal(80.0, 10.0))))
return transfer
def get_message(LOAD):
global Q_inv
global B_inv
global A
global mp
global mq
global voltage
global P_inv
global PMPPT
global Final_power
global Xq
global Aq
matqmax = np.full((12,1),Qmax)
addp = sensitivity_q*matqmax
transfer = MessageCommonData()
for k in range(0,12):
if voltage[k,0]<244.8:
#Q_inv[k,0] = 0.0001
Aq[k,0]=0
if voltage[k,0]>=244.8:
if voltage[k,0]<250.08:
#Q_inv[k,0] = 1438.0*(voltage[k][0]-250.08)
Aq[k,0]=mq*voltage[k,0]-mq*V_criq[k,0]-Qabsorb[k,0]
if voltage[k,0]>=250.08:
A[k,0]=mp*voltage[k,0]-mp*V_cri[k,0]-Pcurtail[k,0]-mp*(addp[k,0])/10000
#Q_inv[k,0] = 2761.0
#Aq[k,0]=mq*voltage[k,0]-mq*V_criq[k,0]-Qabsorb[k,0]
Aq[k,0] = 0
else:
A[k,0] = 0
X=B_inv*A
Xq = Bq_inv*Aq
X=X/5
Xq = Xq/5
Final_power=[]
for i,n in enumerate(HOUSES):
inverter_power = change_power(X[i,0],i)
inverter_re_power = change_repower(Xq[i,0],i)
#s_inv = complex(PMPPT+LOAD[i],inverter_re_power)
s_inv = complex(inverter_power,inverter_re_power)
Final_power.append(s_inv)
transfer.add_param(CommonParam(name=n,param='constant_power_A',value = s_inv+LOAD[i]))
return transfer
def get_message(LOAD):
global B_inv
global A
global Final_power
transfer = MessageCommonData()
for k in range(0, 12):
if voltage[k, 0] > 252:
A[k, 0] = m * voltage[k, 0] - m * V_cri[k, 0] - Pcurtail[k, 0]
else:
A[k, 0] = 0
X = B_inv * A
X = X / 5
Final_power = []
for i, n in enumerate(HOUSES):
inverter_power = change_power(X[i, 0], i)
Final_power.append(inverter_power)
transfer.add_param(
CommonParam(name=n,
param='constant_power_A',
value=(inverter_power + LOAD[i])))
return transfer