>D
>B
->sensor53 r
>M 1
+1,44,s,16,9600,SGM,43
1,77070100010800ff@1000,Verbrauch,kWh,E_in,3
1,77070100020800ff@1000,Einspeisung,kWh,E_out,3
1,77070100100700ff@1,akt. Leistung,W,Power,0
1,=h----
1,77070100600100ff@#,Server-ID,,ID,0
#
{{.:pasted:20251108-131933.png?720}}
===== Das Shelly Pro 3EM Emulator Script =====
==== EFR SGM-D4 Konfiguration ====
>D 250
; this script emulates a shelly pro, with small modifications may also emulate an ecotracker
; proven to work an marstek Venus, Jupiter and B2500
res=0
c1p=0
c2p=0
c3p=0
c1c=0
c2c=0
c3c=0
cpwr=0
str=""
tstr=""
cstr=""
mstr1=""
mstr2=""
mstr3=""
header=""
once=0
>B
=>sensor53 r
; if you modify this section you must restart tasmota
>ah
; http rpc handler
res=won(1 "/rpc/*")
; http status
res=won(2 "/status")
; http ecotacker status
res=won(3 "/v1/json")
>on1
;print here comes http rpc request
str=warg
res=ins(str "EM.GetStatus")
if res>=0 {
wcs so(4)
=#htph
wcs %mstr1%
=#getsrc
wcs %header%
=#getstat
wcs %mstr1%
wcs %mstr2%
wcf
break
}
res=ins(str "Shelly.GetDeviceInfo")
if res>=0 {
wcs so(4)
=#htph
wcs %mstr1%
=#getsrc
=#getdefi
wcs %header%
wcs %mstr1%
wcs %mstr2%
wcf
break
}
res=ins(str "EM.GetConfig")
if res>=0 {
wcs so(4)
=#htph
wcs %mstr1%
=#getsrc
=#getcfg
wcs %header%
wcs %mstr1%
wcf
break
}
res=ins(str "EMData.GetStatus")
if res>=0 {
wcs so(4)
=#htph
wcs %mstr1%
=#getsrc
=#egetstat
wcs %header%
wcs %mstr1%
wcf
break
}
print unknown http equest: %str%
>on2
;print here comes the status request
wcs so(4)
=#htph
wcs %mstr1%
dp(0 2)
wcs {"Power": %cpwr%,"E_in":%sml[1]%,"E_out":%sml[2]%}
wcf
>on3
;print here comes the v1/json for ecotracker
wcs so(4)
=#htph
wcs %mstr1%
dp(0 2)
wcs {"energyCounterIn":%sml[1]%,"energyCounterOut":%sml[2]%,"powerAvg":%cpwr%,"energyCounterInT1":0,
wcs "energyCounterInT2":0,"power":%cpwr%}
wcf
#htph
mstr1="HTTP/1.1 200 OK\r\nContent-type: application/json\r\n\r\n"
#getcfg
mstr1="{\"id\":0,\"name\":null,\"blink_mode_selector\":\"active_energy\",\"phase_selector\":\"a\",\"monitor_phase_sequence\":true,\"ct_type\":\"120A\"}}"
#getdefi
mstr1="{\"name\":\""+tstr+"\",\"id\":\""+tstr+"\",\"mac\":\""+maca+"\",\"slot\":1,\"model\":\"SPEM-003CEBEU\","
mstr2="\"gen\":2,\"fw_id\":\"20241011-114455/1.4.4-g6d2a586\","
mstr2+="\"ver\":\"1.4.4\",\"app\":\"Pro3EM\",\"auth_en\":0,\"profile\":\"triphase\"}}"
#getstat
dp(0 2)
mstr1="{\"id\":0,\"a_current\":"+s(c1c)+",\"a_voltage\":230,\"a_act_power\":"+s(c1p)+",\"a_aprt_power\":"+s(c1p)+",\"a_pf\":1,\"a_freq\":50,"
mstr1+="\"b_current\":"+s(c2c)+",\"b_voltage\":230,\"b_act_power\":"+s(c2p)+",\"b_aprt_power\":"+s(c2p)+",\"b_pf\":1,\"b_freq\":50,"
mstr2="\"c_current\":"+s(c3c)+",\"c_voltage\":230,\"c_act_power\":"+s(c3p)+",\"c_aprt_power\":"+s(c3p)+",\"c_pf\":1,\"c_freq\":50,"
mstr2+="\"total_current\":"+s(c1c+c2c+c3c)+",\"total_act_power\":"+s(cpwr)+",\"total_aprt_power\":"+s(cpwr)+"}}"
#egetstat
dp(0 2)
mstr1="{\"id\":0,\"a_total_act_energy\":"+s(c1p)+",\"a_total_act_ret_energy\":"+s(c1p)+",\"b_total_act_energy\":"+s(c2p)+",\"b_total_act_ret_energy\":"+s(c2p)+",\"c_total_act_energy\":"+s(c3p)+",\"c_total_act_ret_energy\":"+s(c3p)+",\"total_act\":"+s(cpwr)+",\"total_act_ret\":"+s(cpwr)+"}}"
#getsrc
tstr="shellypro3em-"+maca
header="{\"id\":0,\"src\":\""+tstr+"\",\"result\":"
>S
if year<2000 {
break
}
; adapt this to your meter
; update every 3 seconds
if upsecs%3==0 {
cpwr=sml[3]
c1p=sml[4]
c2p=sml[5]
c3p=sml[6]
}
; use this if you only have only one phase meter values
;c1p=cpwr/3
;c2p=cpwr/3
;c3p=cpwr/3
; calculate phase currents
c1c=c1p/230
c2c=c2p/230
c3c=c3p/230
if once==0 {
; start mdns for Shelly second parameter "-" means use device mac
res=mdns("shellypro3em-" "-" "shelly")
; start udp rpc handler on port 1010 or on port 2220 (for b2500)
res=udp(0 1010)
;res=udp(0 2220)
once=1
}
; evaluate udp input
str=udp(1)
if str!="" {
;print udp rpc payload=%str%
res=ins(str "EM.GetStatus")
if res>=0 {
=#getsrc
=#getstat
udp(2 header mstr1 mstr2)
;print >> %header%
;print >> %mstr1%
;print >> %mstr2%
break
}
res=ins(str "Shelly.GetDeviceInfo")
if res>=0 {
=#getsrc
=#getdefi
udp(2 header mstr1 mstr2)
;print >> 1 %mstr1%
;print >> 2 %mstr2%
break
}
res=ins(str "EM.GetConfig")
if res>=0 {
=#getsrc
=#getcfg
udp(2 header mstr1)
;print >> 1 %mstr1%
break
}
res=ins(str "EMData.GetStatus")
if res>=0 {
=#getsrc
=#egetstat
udp(2 header mstr1)
;print >> 1 %mstr1%
break
}
}
; adapt your own meter descriptor here
;>M 1
;+1,5,o,16,9600,eBZ,4
;1,1-0:1.8.0*255(@1,Verbrauch,kWh,E_in,3
;1,1-0:2.8.0*255(@1,Einspeisung,kWh,E_out,3
;1,1-0:16.7.0*255(@1,akt. Leistung,W,Power,0
;1,1-0:36.7.0*255(@1,Leistung L1,W,36_7_0,0
;1,1-0:56.7.0*255(@1,Leistung L2,W,56_7_0,0
;1,1-0:76.7.0*255(@1,Leistung L3,W,76_7_0,0
;1,1-0:32.7.0*255(@1,Spannung L1,V,32_7_0,1
;1,1-0:52.7.0*255(@1,Spannung L2,V,52_7_0,1
;1,1-0:72.7.0*255(@1,Spannung L3,V,72_7_0,1
;1,1-0:96.1.0*255(@#),Identifikation,,96_1_0,0
;>M 1
;+1,44,s,16,9600,SML,43
;1,77070100010800ff@1000,Verbrauch,kWh,E_in,3
;1,77070100020800ff@1000,Einspeisung,kWh,E_out,3
;1,77070100100700ff@1,akt. Leistung,W,Power,0
;1,=h----
;1,77070100600100ff@#,Identifikation,,96_1_0,0
>M 1
+1,44,s,0,9600,SGM-D4,43
1,77070100010800FF@1000,Zählerstand,kWh,E_in,3
1,77070100020800FF@1000,Einspeisung,kWh,E_out,3
1,77070100100700FF@1000,akt. Leistung,kW,Power,3
1,770701000E0700FF@1,Netzfrequenz,Hz,netzfrequenz,1
1,77070100200700FF@1,Phasenspannung L1,V,momentanspannung_l1,1
1,770701001F0700FF@1,Phasenstrom L1,A,momentanstrom_l1,2
1,77070100240700FF@1000,Wirkleistung L1,kW,summenwirkleistung_l1,3
1,77070100340700FF@1,Phasenspannung L2,V,momentanspannung_l2,1
1,77070100330700FF@1,Phasenstrom L2,A,momentanstrom_l2,2
1,77070100380700FF@1000,Wirkleistung L2,kW,summenwirkleistung_l2,3
1,77070100480700FF@1,Phasenspannung L3,V,momentanspannung_l3,1
1,77070100470700FF@1,Phasenstrom L3,A,momentanstrom_l3,2
1,770701004C0700FF@1000,Wirkleistung L3,kW,summenwirkleistung_l3,3
#
>D 250
M:p:sday=0 288
M:p:dcon=0 31
M:p:dprod=0 31
M:p:mcon=0 24
M:s4h=0 481
p:mval=0
p:dval=0
p:mval2=0
p:dval2=0
p:yval=0
p:yval2=0
p:da=1
t:t1=3
t:t2=30
t:t3=60
tmp=0
m5=0
cstr="cnt0/12"
cstr2="cnth0/120"
utm="00d 00h 00m"
avgv=0
avgv2=0
avgvc=0
avgvc2=0
hr=0
swesp=0
swespflg=0
power2=0
save=0
res=0
c1p=0
c2p=0
c3p=0
c1c=0
c2c=0
c3c=0
cpwr=0
str=""
tstr=""
mstr1=""
mstr2=""
header=""
once=0
throttle=1
>B
=>sensor53 r
tmp=is(0 "Jan|Feb|Mär|Apr|Mai|Jun|Jul|Aug|Sep|Okt|Nov|Dez|")
smlj=0
header="{\"id\":0,\"src\":\"shellypro3em-"+maca+"\",\"result\":"
#init
dval=sml[2]
dval2=sml[3]
for tmp 1 dcon[-1] 1
dcon[tmp]=0
dprod[tmp]=0
next
mval=sml[2]
mval2=sml[3]
for tmp 1 mcon[-1] 1
mcon[tmp]=0
next
yval=sml[2]
yval2=sml[3]
for tmp 1 sday[-1] 1
sday[tmp]=0
next
->Backlog2 otaurl KEIN OTA UPGRADE VIA WEBSERVER!
->Backlog2 Timezone 99;TimeStd 0,0,10,1,3,60;TimeDst 0,0,3,1,2,120
svars
#daysub
if wm>0 {
wcs
wcs
}
#dayprod
if wm>0 {
wcs
wcs
}
#monthsub
if wm>0 {
wcs
wcs
}
#getstat
mstr1="{\"id\":0,\"a_current\":"+s(c1c)+",\"a_voltage\":230,\"a_act_power\":"+s(0c1p)+",\"a_aprt_power\":"+s(0c1p)+",\"a_pf\":1,\"a_freq\":50,"
mstr1+="\"b_current\":"+s(c2c)+",\"b_voltage\":230,\"b_act_power\":"+s(0c2p)+",\"b_aprt_power\":"+s(0c2p)+",\"b_pf\":1,\"b_freq\":50,"
mstr2="\"c_current\":"+s(c3c)+",\"c_voltage\":230,\"c_act_power\":"+s(0c3p)+",\"c_aprt_power\":"+s(0c3p)+",\"c_pf\":1,\"c_freq\":50,"
mstr2+="\"total_current\":"+s(c1c+c2c+c3c)+",\"total_act_power\":"+s(0cpwr)+",\"total_aprt_power\":"+s(0cpwr)+"}}"
>S
if (save==1) {
save=0
svars
}
if ((year<2020) or (sml[2]==0)) {
print auf NTP/Zähler warten
break
}
smlj=1
if (t1==0) {
t1=3
avgv+=sml[1]
avgv2+=sml[1]
avgvc+=1
avgvc2+=1
power2=(0.9*power2)+((1-0.9)*sml[1])
if (swesp==1) {
if ((power2<-300) and (swespflg==0)) {
swespflg=1
}
if ((power2>100) and (swespflg==1)) {
swespflg=0
}
}
}
if (t2==0) {
t2=30
s4h=avgv/avgvc
avgv=0
avgvc=0
cstr2="cnth"+s(1.0((((hours+20)*120)+(mins*2)+(int(secs/30)))%2880+1))+"/120"
}
if (t3==0) {
t3=60
hr=hours
utm=s(2.0(int(uptime/1440)))+"d "+s(2.0(int(uptime/60)%24))+"h "+s(2.0(uptime%60))+"m"
dcon[day]=sml[2]-dval
mcon[month]=sml[2]-mval
dprod[day]=sml[3]-dval2
mcon[month+12]=sml[3]-mval2
m5=int((((hours*60)+mins)/5)+1)
sday[0]=m5
if (chg[m5]>0) {
sday[m5]=int(avgv2/avgvc2)
avgv2=0
avgvc2=0
}
cstr="cnth"+s(1.0(((hours)*12)+int(mins/5))+1)+"/12"
if ((chg[hr]>0) and (hr==0)) {
if (day>1) {
da=day
} else {
for tmp (da+1) 31 1
dprod[tmp]=0
dcon[tmp]=0
next
mval=sml[2]
mval2=sml[3]
}
if (day*month==1) {
yval=sml[2]
yval2=sml[3]
}
dval=sml[2]
dval2=sml[3]
svars
}
}
if (once==0) {
res=mdns("shellypro3em-" "-" "shelly")
res=udp(0 2220)
once=1
}
if (upsecs%throttle!=0) {
break;
}
tmp=sml[1]-cpwr
if (tmp>500) {
cpwr=sml[1]-(tmp/2)
} else {
cpwr=sml[1]
}
c1p=cpwr
c1c=c1p/230
str=udp(1)
if (str!="") {
res=ins(str "EM.GetStatus")
if (res>=0) {
=#getstat
udp(2 header mstr1 mstr2)
break
}
} else {
;=#getstat
;udp(2 header mstr1 mstr2)
}
>W
bu(save "gespeichert!" "Daten sofort speichern")
Leistung (gefiltert){m}%0power2% W
Leistung (an Marstek Akku){m}%0cpwr% W
Tagesverbrauch{m}%2(sml[2]-dval)% kWh
Monatsverbrauch{m}%2(sml[2]-mval)% kWh
Jahresverbrauch{m}%2(sml[2]-yval)% kWh
Tageseinspeisung{m}%2(sml[3]-dval2)% kWh
Monatseinspeisung{m}%2(sml[3]-mval2)% kWh
Jahreseinspeisung{m}%2(sml[3]-yval2)% kWh
Datum{m}%s(2.0day)%.%s(2.0month)%.%s(2.0year)% - %s(2.0hours)%:%s(2.0mins)%:%s(2.0secs)%
Uptime{m}%utm%
$
$
$gc(lt s4h "wr" "Leistung [W]" cstr2)
$var options = {
$chartArea:{left:60,right:20,height:'75%%'},
$legend:'none',
$vAxis:{format:'# W'},
$hAxis:{slantedTextAngle:45},
$explorer:{actions:['dragToZoom','rightClickToReset']},
$series: {0: {type: 'area'}},
$title:'Leistung 4 Stunden [Watt]'
$};
$gc(e)
$
$gc(lt sday "wr" "Leistung [W]" cstr)
$var options = {
$chartArea:{left:60,right:20,height:'75%%'},
$legend:'none',
$vAxis:{format:'# W'},
$hAxis:{slantedTextAngle:45},
$explorer:{actions:['dragToZoom', 'rightClickToReset']},
$series: {0: {type: 'area'}},
$title:'Leistung 24 Stunden [Watt]'
$};
$gc(e)
%=#daysub
%=#dayprod
%=#monthsub
$
$Version 02.10.2025 (PV+ShellyEmu) by ottelo.jimdo.de
$Credits to gemu2015 (Tasmota Script Dev)
$Hinweis: Die Daten (ohne 4h Chart) werden um Mitternacht gespeichert!
$Der Restart Button speichert ebenfalls die Daten.
$
;>M 1
;+1,5,s,0,9600,MT175,4
;1,77070100100700ff@1,Leistung,W,Power_curr,0
;1,77070100010800ff@1000,Verbrauch,KWh,Total_in,2
;1,77070100020800ff@1000,Einspeisung,KWh,Total_out,2
;#
>M 1
+1,44,s,0,9600,SGM-D4,43
1,77070100100700FF@1,akt. Leistung,W,Power_curr,0
;;1,77070100010800FF@1000,Zählerstand,kWh,E_in,3
1,77070100010800FF@1000,Zählerstand,kWh,Total_in,2
;1,77070100020800FF@1000,Einspeisung,kWh,E_out,3
1,77070100020800FF@1000,Einspeisung,kWh,Total_out,2
;;1,77070100100700FF@1000,akt. Leistung,kW,Power,3
1,770701000E0700FF@1,Netzfrequenz,Hz,netzfrequenz,1
1,77070100200700FF@1,Phasenspannung L1,V,momentanspannung_l1,1
1,770701001F0700FF@1,Phasenstrom L1,A,momentanstrom_l1,2
1,77070100240700FF@1000,Wirkleistung L1,kW,summenwirkleistung_l1,3
1,77070100340700FF@1,Phasenspannung L2,V,momentanspannung_l2,1
1,77070100330700FF@1,Phasenstrom L2,A,momentanstrom_l2,2
1,77070100380700FF@1000,Wirkleistung L2,kW,summenwirkleistung_l2,3
1,77070100480700FF@1,Phasenspannung L3,V,momentanspannung_l3,1
1,77070100470700FF@1,Phasenstrom L3,A,momentanstrom_l3,2
1,770701004C0700FF@1000,Wirkleistung L3,kW,summenwirkleistung_l3,3
#
>D 250
; this script emulates a shelly pro, with small modifications may also emulate an ecotracker
; proven to work an marstek Venus, Jupiter and B2500
res=0
c1p=0
c2p=0
c3p=0
c1c=0
c2c=0
c3c=0
cpwr=0
str=""
tstr=""
cstr=""
mstr1=""
mstr2=""
mstr3=""
header=""
once=0
>B
=>sensor53 r
; if you modify this section you must restart tasmota
>ah
; http rpc handler
res=won(1 "/rpc/*")
; http status
res=won(2 "/status")
; http ecotacker status
res=won(3 "/v1/json")
>on1
;print here comes http rpc request
str=warg
res=ins(str "EM.GetStatus")
if res>=0 {
wcs so(4)
=#htph
wcs %mstr1%
=#getsrc
wcs %header%
=#getstat
wcs %mstr1%
wcs %mstr2%
wcf
break
}
res=ins(str "Shelly.GetDeviceInfo")
if res>=0 {
wcs so(4)
=#htph
wcs %mstr1%
=#getsrc
=#getdefi
wcs %header%
wcs %mstr1%
wcs %mstr2%
wcf
break
}
res=ins(str "EM.GetConfig")
if res>=0 {
wcs so(4)
=#htph
wcs %mstr1%
=#getsrc
=#getcfg
wcs %header%
wcs %mstr1%
wcf
break
}
res=ins(str "EMData.GetStatus")
if res>=0 {
wcs so(4)
=#htph
wcs %mstr1%
=#getsrc
=#egetstat
wcs %header%
wcs %mstr1%
wcf
break
}
print unknown http equest: %str%
>on2
;print here comes the status request
wcs so(4)
=#htph
wcs %mstr1%
dp(0 2)
wcs {"Power": %cpwr%,"E_in":%sml[1]%,"E_out":%sml[2]%}
wcf
>on3
;print here comes the v1/json for ecotracker
wcs so(4)
=#htph
wcs %mstr1%
dp(0 2)
wcs {"energyCounterIn":%sml[1]%,"energyCounterOut":%sml[2]%,"powerAvg":%cpwr%,"energyCounterInT1":0,
wcs "energyCounterInT2":0,"power":%cpwr%}
wcf
#htph
mstr1="HTTP/1.1 200 OK\r\nContent-type: application/json\r\n\r\n"
#getcfg
mstr1="{\"id\":0,\"name\":null,\"blink_mode_selector\":\"active_energy\",\"phase_selector\":\"a\",\"monitor_phase_sequence\":true,\"ct_type\":\"120A\"}}"
#getdefi
mstr1="{\"name\":\""+tstr+"\",\"id\":\""+tstr+"\",\"mac\":\""+maca+"\",\"slot\":1,\"model\":\"SPEM-003CEBEU\","
mstr2="\"gen\":2,\"fw_id\":\"20241011-114455/1.4.4-g6d2a586\","
mstr2+="\"ver\":\"1.4.4\",\"app\":\"Pro3EM\",\"auth_en\":0,\"profile\":\"triphase\"}}"
#getstat
dp(0 2)
mstr1="{\"id\":0,\"a_current\":"+s(c1c)+",\"a_voltage\":230,\"a_act_power\":"+s(c1p)+",\"a_aprt_power\":"+s(c1p)+",\"a_pf\":1,\"a_freq\":50,"
mstr1+="\"b_current\":"+s(c2c)+",\"b_voltage\":230,\"b_act_power\":"+s(c2p)+",\"b_aprt_power\":"+s(c2p)+",\"b_pf\":1,\"b_freq\":50,"
mstr2="\"c_current\":"+s(c3c)+",\"c_voltage\":230,\"c_act_power\":"+s(c3p)+",\"c_aprt_power\":"+s(c3p)+",\"c_pf\":1,\"c_freq\":50,"
mstr2+="\"total_current\":"+s(c1c+c2c+c3c)+",\"total_act_power\":"+s(cpwr)+",\"total_aprt_power\":"+s(cpwr)+"}}"
#egetstat
dp(0 2)
mstr1="{\"id\":0,\"a_total_act_energy\":"+s(c1p)+",\"a_total_act_ret_energy\":"+s(c1p)+",\"b_total_act_energy\":"+s(c2p)+",\"b_total_act_ret_energy\":"+s(c2p)+",\"c_total_act_energy\":"+s(c3p)+",\"c_total_act_ret_energy\":"+s(c3p)+",\"total_act\":"+s(cpwr)+",\"total_act_ret\":"+s(cpwr)+"}}"
#getsrc
tstr="shellypro3em-"+maca
header="{\"id\":0,\"src\":\""+tstr+"\",\"result\":"
>S
if year<2000 {
break
}
; adapt this to your meter
; update every 3 seconds
if upsecs%3==0 {
cpwr=sml[3]
c1p=sml[4]
c2p=sml[5]
c3p=sml[6]
}
; use this if you only have only one phase meter values
;c1p=cpwr/3
;c2p=cpwr/3
;c3p=cpwr/3
; calculate phase currents
c1c=c1p/230
c2c=c2p/230
c3c=c3p/230
if once==0 {
; start mdns for Shelly second parameter "-" means use device mac
res=mdns("shellypro3em-" "-" "shelly")
; start udp rpc handler on port 1010 or on port 2220 (for b2500)
;res=udp(0 1010)
res=udp(0 2220)
once=1
}
; evaluate udp input
str=udp(1)
if str!="" {
;print udp rpc payload=%str%
res=ins(str "EM.GetStatus")
if res>=0 {
=#getsrc
=#getstat
udp(2 header mstr1 mstr2)
;print >> %header%
;print >> %mstr1%
;print >> %mstr2%
break
}
res=ins(str "Shelly.GetDeviceInfo")
if res>=0 {
=#getsrc
=#getdefi
udp(2 header mstr1 mstr2)
;print >> 1 %mstr1%
;print >> 2 %mstr2%
break
}
res=ins(str "EM.GetConfig")
if res>=0 {
=#getsrc
=#getcfg
udp(2 header mstr1)
;print >> 1 %mstr1%
break
}
res=ins(str "EMData.GetStatus")
if res>=0 {
=#getsrc
=#egetstat
udp(2 header mstr1)
;print >> 1 %mstr1%
break
}
}
; adapt your own meter descriptor here
;>M 1
;+1,5,o,16,9600,eBZ,4
;1,1-0:1.8.0*255(@1,Verbrauch,kWh,E_in,3
;1,1-0:2.8.0*255(@1,Einspeisung,kWh,E_out,3
;1,1-0:16.7.0*255(@1,akt. Leistung,W,Power,0
;1,1-0:36.7.0*255(@1,Leistung L1,W,36_7_0,0
;1,1-0:56.7.0*255(@1,Leistung L2,W,56_7_0,0
;1,1-0:76.7.0*255(@1,Leistung L3,W,76_7_0,0
;1,1-0:32.7.0*255(@1,Spannung L1,V,32_7_0,1
;1,1-0
;1
;1,1-0:96.1.0*255(@#),Identifikation,,96_1_0,0
;#
>M 1
+1,44,s,0,9600,SGM-D4,43
;1,77070100100700FF@1,akt. Leistung,W,Power_curr,0
1,77070100010800FF@1,Zählerstand,Wh,E_in,3
;1,77070100010800FF@1000,Zählerstand,kWh,Total_in,2
1,77070100020800FF@1,Einspeisung,Wh,E_out,3
;1,77070100020800FF@1000,Einspeisung,kWh,Total_out,2
1,77070100100700FF@1,akt. Leistung,W,Power,0
1,77070100240700FF@1,Leistung L1,W,36_7_0,3
1,77070100380700FF@1,Leistung L2,W,56_7_0,3
1,770701004C0700FF@1,Leistung L3,W,76_7_0,3
1,77070100200700FF@1,Spannung L1,V,32_7_0,1
1,77070100340700FF@1,Spannung L2,V,52_7_0,1
1,77070100480700FF@1,Spannung L3,V,72_7_0,1
;
;1,770701000E0700FF@1,Netzfrequenz,Hz,netzfrequenz,1
;1,77070100200700FF@1,Phasenspannung L1,V,momentanspannung_l1,1
;1,770701001F0700FF@1,Phasenstrom L1,A,momentanstrom_l1,2
;1,77070100240700FF@1000,Wirkleistung L1,kW,summenwirkleistung_l1,3
;1,77070100340700FF@1,Phasenspannung L2,V,momentanspannung_l2,1
;1,77070100330700FF@1,Phasenstrom L2,A,momentanstrom_l2,2
;1,77070100380700FF@1000,Wirkleistung L2,kW,summenwirkleistung_l2,3
;1,77070100480700FF@1,Phasenspannung L3,V,momentanspannung_l3,1
;1,77070100470700FF@1,Phasenstrom L3,A,momentanstrom_l3,2
;1,770701004C0700FF@1000,Wirkleistung L3,kW,summenwirkleistung_l3,3
#