Skip to content
This repository has been archived by the owner on Apr 18, 2022. It is now read-only.

Latest commit

 

History

History
1269 lines (1163 loc) · 23.3 KB

Scripting-Cookbook.md

File metadata and controls

1269 lines (1163 loc) · 23.3 KB
Raw

Back To Top

Scripting Language Example

Actually this code is too large. This is only meant to show some of the possibilities

>D
; define all vars here
p:mintmp=10 (p:means permanent)
p:maxtmp=30
t:timer1=30 (t:means countdown timer)
t:mt=0
i:count=0 (i:means auto counter)
hello="hello world"
string="xxx"
url="[IP]"
hum=0
temp=0
timer=0
dimmer=0
sw=0
rssi=0
param=0

col=""
ocol=""
chan1=0
chan2=0
chan3=0

ahum=0
atemp=0
tcnt=0
hour=0
state=1
m:med5=0
M:movav=0
; define array with 10 entries
m:array=0 10

>B
string=hello+"how are you?"
=>print BOOT executed
=>print %hello%
=>mp3track 1

; list gpio pin definitions
for cnt 0 16 1
tmp=pd[cnt]
=>print %cnt% = %tmp%
next

; get gpio pin for relais 1
tmp=pn[21]
=>print relais 1 is on pin %tmp%

; pulse relais over raw gpio
spin(tmp 1)
delay(100)
spin(tmp 0)

; raw pin level
=>print level of gpio1 %pin[1]%

; pulse over tasmota cmd
=>power 1
delay(100)
=>power 0

>T
hum=BME280#Humidity
temp=BME280#Temperature
rssi=Wifi#RSSI
string=SleepMode

; add to median filter
median=temp
; add to moving average filter
movav=hum

; show filtered results
=>print %median% %movav%

if chg[rssi]>0
then =>print rssi changed to %rssi%
endif

if temp>30
and hum>70
then =>print damn hot!
endif

>S
; every second but not completely reliable time here
; use upsecs and uptime or best t: for reliable timers

; arrays
array[1]=4
array[2]=5
tmp=array[1]+array[2]

; call subrountines with parameters
=#sub1("hallo")
=#sub2(999)

; stop timer after expired
if timer1==0
then timer1=-1
=>print timer1 expired
endif

; auto counter with restart
if count>=10
then =>print 10 seconds over
count=0
endif

if upsecs%5==0
then =>print %upsecs% (every 5 seconds)
endif

; not recommended for reliable timers
timer+=1
if timer>=5
then =>print 5 seconds over (may be)
timer=0
endif

dimmer+=1
if dimmer>100
then dimmer=0
endif

=>dimmer %dimmer%
=>WebSend %url% dimmer %dimmer%

; show on display
dp0
=>displaytext [c1l1f1s2p20] dimmer=%dimmer%

=>print %upsecs% %uptime% %time% %sunrise% %sunset% %tstamp%

if time>sunset
and time< sunrise
then
; night time
if pwr[1]==0
then =>power1 1
endif
else
; day time
if pwr[1]>0
then =>power1 0
endif
endif

; clr display on boot
if boot>0
then =>displaytext [z]
endif

; frost warning
if temp<0
and mt<=0
then =#sendmail("frost alert")
; alarm only every 5 minutes
mt=300
=>mp3track 2
endif

; var has been updated
if upd[hello]>0
then =>print %hello%
endif

; send to Thingspeak every 60 seconds
; average data in between
if upsecs%60==0
then
ahum/=tcnt
atemp/=tcnt
=>WebSend [IP]/update?key=token&field1=%atemp%&field2=%ahum%
tcnt=0
atemp=0
ahum=0
else
ahum+=hum
atemp+=temp
tcnt+=1
endif

hour=int(time/60)
if chg[hour]>0
then
; exactly every hour
=>print full hour reached
endif

if time>5 {
=>print more then 5 minutes after midnight
} else {
=>print less then 5 minutes after midnight
}

; publish abs hum every teleperiod time
if mqtts>0
and upsecs%tper==0
then
; calc abs humidity
tmp=pow(2.718281828 (17.67*temp)/(temp+243.5))
tmp=(6.112*tmp*hum*18.01534)/((273.15+temp)*8.31447215)
; publish median filtered value
=>Publish tele/%topic%/SENSOR {"Script":{"abshum":%med(0 tmp)%}}
endif

;switch case state machine
switch state
case 1
=>print state=%state% , start
state+=1
case 2
=>print state=%state%
state+=1
case 3
=>print state=%state% , reset
state=1
ends

; subroutines
#sub1(string)
=>print sub1: %string%
#sub2(param)
=>print sub2: %param%

#sendmail(string)
=>sendmail [smtp.gmail.com:465:user:passwd:[email protected]:[email protected]:alarm] %string%

>E
=>print event executed!

; get HSBColor 1. component
tmp=st(HSBColor , 1)

; check if switch changed state
sw=sw[1]
if chg[sw]>0
then =>power1 %sw%
endif

hello="event occured"

; check for Color change (Color is a string)
col=Color
; color change needs 2 string vars
if col!=ocol
then ocol=col
=>print color changed %col%
endif

; or check change of color channels
chan1=Channel[1]
chan2=Channel[2]
chan3=Channel[3]

if chg[chan1]>0
or chg[chan2]>0
or chg[chan3]>0
then => color has changed
endif

; compose color string for red
col=hn(255)+hn(0)+hn(0)
=>color %col%

>R
=>print restarting now

Back To Top

Sensor Logging

; define all vars here
; reserve large strings
>D 48
hum=0
temp=0
fr=0
res=0
; moving average for 60 seconds
M:mhum=0 60
M:mtemp=0 60
str=""

>B
; set sensor file download link
fl1("slog.txt")
; delete file in case we want to start fresh
;fd("slog.txt")

; list all files in root directory
fr=fo("/" 0)
for cnt 1 20 1
res=fr(str fr)
if res>0
then
=>print %cnt% : %str%
else
break
endif
next
fc(fr)

>T
; get sensor values
temp=BME280#Temperature
hum=BME280#Humidity

>S
; average sensor values every second
mhum=hum
mtemp=temp

; write average to sensor log every minute
if upsecs%60==0
then
; open file for write
fr=fo("slog.txt" 1)
; compose string for tab delimited file entry
str=s(upsecs)+"\t"+s(mhum)+"\t"+s(mtemp)+"\n"
; write string to log file
res=fw(str fr)
; close file
fc(fr)
endif

>R

Back To Top

e-Paper 29 Display with SGP30 and BME280

Some variables are set from ioBroker

>D
hum=0
temp=0
press=0
ahum=0
tvoc=0
eco2=0
zwz=0
wr1=0
wr2=0
wr3=0
otmp=0
pwl=0
tmp=0
; DisplayText substituted to save script space DT="DisplayText"
; preset units in case they are not available
punit="hPa"
tunit="C"

>B
;reset auto draw
=>%DT% [zD0]
;clr display and draw a frame
=>%DT% [x0y20h296x0y40h296]

>T
; get telemetry sensor values
temp=BME280#Temperature
hum=BME280#Humidity
press=BME280#Pressure
tvoc=SGP30#TVOC
eco2=SGP30#eCO2
ahum=SGP30#aHumidity
tunit=TempUnit
punit=PressureUnit

>S
// update display every TelePeriod
if upsecs%tper==0
then
dp2
=>%DT% [f1p7x0y5]%temp% %tunit%
=>%DT% [p5x70y5]%hum% %%[x250y5t]
=>%DT% [p11x140y5]%press% %punit%
=>%DT% [p10x30y25]TVOC: %tvoc% ppb
=>%DT% [p10x160y25]eCO2: %eco2% ppm
=>%DT% [p10c26l5]ahum: %ahum% g^m3

dp0
=>%DT% [p25c1l5]WR 1 (Dach) : %wr1% W
=>%DT% [p25c1l6]WR 2 (Garage): %-wr3% W
=>%DT% [p25c1l7]WR 3 (Garten): %-wr2% W
=>%DT% [p25c1l8]Aussentemperatur: %otmp% C
=>%DT% [x170y95r120:30f2p6x185y100] %pwl% %%
; now update screen
=>%DT% [d]
endif

>E

>R

Back To Top

e-Paper 42 Display with SHT31 and BME280

This script shows 2 graphs on an 4.2 inch e-Paper display: 1. some local sensors, and 2. power statistics

  • The first graph is the battery level of a solar battery (Tesla PowerWall 2)
  • The second graph shows the solar yield of the roof panels in Watts
  • Another special feature is that this script displays daily and weekly averages (via moving average) of all power IO of the house.
  • Since the display is a full update panel it is updated only once a minute
  • Some values (like power meters) are set remotely from ioBroker

>D
hum=0
temp=0
press=0
zwz=0
wr1=0
wr2=0
wr3=0
otmp=0
pwl=0
ez1=0
sez1=0
M:mez1=0 7
ezh=0
sezh=0
M:mezh=0 7
vzh=0
svzh=0
M:mvzh=0 7

hr=0
t1=0
; DisplayText substituted to save script space DT="DisplayText"

>B
=>%DT% [IzD0]
=>%DT% [zG10352:5:40:-350:80:10080:0:100f3x360y40]100 %%[x360y115]0 %%
=>%DT% [f1x100y25]Powerwall - 7 Tage[f1x360y75] 0 %%
=>%DT% [G10353:5:140:-350:80:10080:0:5000f3x360y140]+5000 W[x360y215]0 W
=>%DT% [f1x70y125]Volleinspeisung - 7 Tage[f1x360y180] 0 W
=>%DT% [p13x10y230]WR 1,2,3:
=>%DT% [p13x10y245]H-Einsp.:
=>%DT% [p13x10y260]H-Verbr.:
=>%DT% [p13x10y275]D-Einsp.:
=>%DT% [d]

>T
press=BMP280#Pressure
temp=SHT3X_0x44#Temperature
hum=SHT3X_0x44#Humidity

>S
if upsecs%60==0
then
dp2
=>%DT% [f1p7x0y5]%temp% C
=>%DT% [x0y20h400x250y5T][x350t][f1p10x70y5]%hum% %%
=>%DT% [p10x140y5]%press% hPa
dp0
=>%DT% [p5x360y75]%pwl% %%
=>%DT% [p6x360y180]%wr1%W
=>%DT% [g0:%pwl%g1:%wr1%]

=>%DT% [p24x75y230] %wr1% W : %-wr2% W : %-wr3% W
=>%DT% [p-10x75y245]%ezh% kWh
=>%DT% [p-10x75y260]%vzh% kWh
=>%DT% [p-10x75y275]%ez1% kWh

t1=mezh7
=>%DT% [p-10x150y245]: %t1% kWh
t1=mvzh7
=>%DT% [p-10x150y260]: %t1% kWh
t1=mez1*7
=>%DT% [p-10x150y275]: %t1% kWh

dp1 t1=ezh-sezh
=>%DT% [p12x250y245]: %t1% kWh
t1=vzh-svzh
=>%DT% [p12x250y260]: %t1% kWh
t1=ez1-sez1
=>%DT% [p12x250y275]: %t1% kWh

dp0
=>%DT% [f2p5x320y250] %otmp%C

=>%DT% [d]
endif

hr=hours
if chg[hr]>0
and hr==0
then
mez1=ez1-sez1
sez1=ez1
mezh=ezh-sezh
sezh=ezh
mvzh=vzh-svzh
svzh=vzh
endif

if sezh==0
then
sez1=ez1
sezh=ezh
svzh=vzh
endif

Back To Top

ILI 9488 Color LCD Display with BMP280 and VL5310X

Shows various BMP280 energy graphs
Turn display on and off using VL5310X proximity sensor to prevent burn-in

Some variables are set from ioBroker

>D
temp=0
press=0
zwz=0
wr1=0
wr2=0
wr3=0
otmp=0
pwl=0
tmp=0
dist=0
; DisplayText substituted to save script space DT="DisplayText"
punit="hPa"
tunit="C"
hour=0

>B
=>%DT% [z]

// define 2 graphs, 2. has 3 tracks
=>%DT% [zCi1G2656:5:20:400:80:1440:-5000:5000:3Ci7f3x410y20]+5000 W[x410y95]-5000 W [Ci7f1x70y3] Zweirichtungsz~80hler - 24 Stunden
=>%DT% [Ci1G2657:5:120:400:80:1440:0:5000:3Ci7f3x410y120]+5000 W[x410y195]0 W [Ci7f1x70y103] Wechselrichter 1-3 - 24 Stunden
=>%DT% [Ci1G2658:5:120:400:80:1440:0:5000:16][Ci1G2659:5:120:400:80:1440:0:5000:5]
=>%DT% [f1s1b0:260:260:100​:50:2:11:4:2:Rel 1:b1:370:260:100​:50:2:11:4:2:Dsp off:]
=>mp3volume 100
=>mp3track 4

>T
; get some telemetry values
temp=BMP280#Temperature
press=BMP280#Pressure
tunit=TempUnit
punit=PressureUnit
dist=VL53L0X#Distance

; check proximity sensor to turn display on and off to prevent burn-in
if dist>300
then
if pwr[2]>0
then
=>power2 0
endif
else
if pwr[2]==0
then
=>power2 1
endif
endif

>S
; update graph every teleperiod
if upsecs%tper==0
then
dp2
=>%DT% [f1Ci3x40y260w30Ci1]
=>%DT% [Ci7x120y220t]
=>%DT% [Ci7x180y220T]
=>%DT% [Ci7p8x120y240]%temp% %tunit%
=>%DT% [Ci7x120y260]%press% %punit%
=>%DT% [Ci7x120y280]%dist% mm
dp0
=>%DT% [g0:%zwz%g1:%wr1%g2:%-wr2%g3:%-wr3%]
if zwz>0
then
=>%DT% [p-8x410y55Ci2Bi0]%zwz% W
else
=>%DT% [p-8x410y55Ci3Bi0]%zwz% W
endif
=>%DT% [p-8x410y140Ci3Bi0]%wr1% W
=>%DT% [p-8x410y155Ci16Bi0]%-wr2% W
=>%DT% [p-8x410y170Ci5Bi0]%-wr3% W
endif

; chime every full hour
hour=int(time/60)
if chg[hour]>0
then =>mp3track 4
endif

>E

>R

Back To Top

LED Bar Display with WS2812 LED Chain

Used to display home's solar power input/output (+-5000 Watts)

>D
m:array=0 60 ;defines array for 60 led pixels
cnt=0
val=0
ind=0
; rgb values for grid
colr1=0x050000
colr2=0x050100
colg1=0x000300
colg2=0x020300
ledbar=0
blue=64
pixels=60
steps=10
div=0
tog=0
max=5000
min=-5000
pos=0

>B
div=pixels/steps
=#prep
ws2812(array)

; ledbar is set from broker

>S
if ledbar<min
then ledbar=min
endif

if ledbar>max
then ledbar=max
endif

pos=(ledbar/max)*(pixels/2)
if ledbar>0
then
pos+=(pixels/2)
if pos>pixels-1
then pos=pixels
endif
else
pos+=(pixels/2)+1
if pos>pixels-1
then pos=1
endif
endif

if pos<1
or pos>pixels
then pos=1
endif

=#prep

if ledbar==0
then
array[pos]=blue
array[pos-1]=blue
else
array[pos]=blue
endif

; only used if power is off
; so lets may be used normally if on
if pwr[1]==0
then
ws2812(array)
endif

; subroutine for grid
#prep
for cnt 1 pixels 1
ind+=1
if ind>div
then ind=1
tog^=1
endif

if cnt<=pixels/2
then
if tog>0
then val=colr1
else val=colr2
endif
else
if tog>0
then val=colg1
else val=colg2
endif
endif
array[cnt]=val
next

>R

Back To Top

Multiple IR Receiver Synchronization

Shows how a Magic Home with IR receiver works
Synchronizes 2 Magic Home devices by also sending the commands to a second Magic Home via WebSend

Script example using if then else

; expand default string length to be able to hold WebSend [xxx.xxx.xxx.xxx]
>D 25
istr=""
ws="WebSend [IP]"

; event section
>E
; get ir data
istr=IrReceived#Data

; on
if istr=="0x00F7C03F"
then
=>wakeup
=>%ws% wakeup
endif

; off
if istr=="0x00F740BF"
then
=>power1 0
=>%ws% power1 0
endif

;white
if istr=="0x00F7E01F"
then
=>color 000000ff
=>%ws% color 000000ff
endif

;red
if istr=="0x00F720DF"
then
=>color ff000000
=>%ws% color ff000000
endif

;green
if istr=="0x00F7A05F"
then
=>color 00ff0000
=>%ws% color 00ff0000
endif

;blue
if istr=="0x00F7609F"
then
=>color 0000ff00
=>%ws% color 0000ff00
endif

; dimmer up
if istr=="0x00F700FF"
then
=>dimmer +
=>%ws% dimmer +
endif

;dimmer down
if istr=="0x00F7807F"
then
=>dimmer -
=>%ws% dimmer -
endif

istr=""

Script example using switch case ends

; expand default string length to be able to hold WebSend [xxx.xxx.xxx.xxx]
>D 25
istr=""
ws="WebSend [IP]"

; event section
>E
; get ir data
istr=IrReceived#Data

switch istr
; on
case "0x00F7C03F"
=>wakeup
=>%ws% wakeup

;off
case "0x00F740BF"
=>power1 0
=>%ws% power1 0

;white
case "0x00F7E01F"
=>color 000000ff
=>%ws% color 000000ff

;red
case "0x00F720DF"
=>color ff000000
=>%ws% color ff000000

;green
case "0x00F7A05F"
=>color 00ff0000
=>%ws% color 00ff0000

;blue
case "0x00F7609F"
=>color 0000ff00
=>%ws% color 0000ff00

; dimmer up
case "0x00F700FF"
=>dimmer +
=>%ws% dimmer +

; dimmer down
case "0x00F7807F"
=>dimmer -
=>%ws% dimmer -
ends

istr=""

Back To Top

Fast Polling

; expand default string length to be able to hold WebSend [xxx.xxx.xxx.xxx]
>D 25
sw=0
ws="WebSend [IP]"
timer=0
hold=0
toggle=0

>B
; gpio 5 button input
spinm(5,0)

; fast section 100ms
>F
sw=pin[5]
; 100 ms timer
timer+=1

; 3 seconds long press
; below 0,5 short press
if sw==0
and timer>5
and timer<30
then
; short press
;=>print short press
toggle^=1
=>%ws% power1 %toggle%
endif

if sw>0
then
;pressed
if timer>30
then
; hold
hold=1
;=>print hold=%timer%
if toggle>0
then
=>%ws% dimmer +
else
=>%ws% dimmer -
endif
endif
else
timer=0
hold=0
endif

Back To Top

Switching and Dimming By Recognizing Mains Power Frequency

Switching in Tasmota is usually done by High/Low (+3.3V/GND) changes on a GPIO. However, for devices like the Moes QS-WiFi-D01 Dimmer, this is achieved by a pulse frequency when connected to the GPIO, and these pulses are captured by Counter1 in Tasmota. pushbutton-input

  • When the light is OFF and there is a short period of pulses -> then turn the light ON at the previous dimmer level.
  • When the light is ON and there is a short period of pulses -> then turn the light OFF.
  • When there is a longer period of pulses (i.e., HOLD) -> toggle dimming direction and then adjust the brightness level as long as the button is pressed or until the limits are reached.

#6085 (comment)

In the Data Section >D at the beginning of the Script the following initialization variables may be changed:

  • dim multiplier - 0..2.55 set the dimming increment value
  • dim lower limit - range for the dimmer value for push-button operation (set according to your bulb); min 0
  • dim upper limit - range for the dimmer value for push-button operation (set according to your bulb); max 100
  • start dim level - initial dimmer level after power-up or restart; max 100

>D
sw=0
tmp=0
cnt=0
tmr=0
hold=0
powert=0
slider=0
dim=""
shortprl=2 ;short press lo limit
shortpru=10;short press up limit
dimdir=0 ;dim direction 0/1
dimstp=2 ;dim step/speed 1 to 5
dimmlp=2.2 ;dim multiplier
dimll=15 ;dim lower limit
dimul=95 ;dim upper limit
dimval=70 ;start dim level

>B
=>print "WiFi-Dimmer-Script-v0.2"
=>Counter1 0
=>Baudrate 9600
; boot sequence
=#senddim(dimval)
delay(1000)
=#senddim(0)

>F
cnt=pc[1]
if chg[cnt]>0
; sw pressed
then sw=1
else sw=0
; sw not pressed
endif

; 100ms timer
tmr+=1

; short press
if sw==0
and tmr>shortprl
and tmr<shortpru
then
powert^=1

; change light on/off
if powert==1
then
=#senddim(dimval)
else
=#senddim(0)
endif
endif

; long press
if sw>0
then
if hold==0
then

; change dim direction
dimdir^=1
endif
if tmr>shortpru
then
hold=1
if powert>0

; dim when on & hold
then
if dimdir>0
then

; increase dim level
dimval+=dimstp
if dimval>dimul
then

; upper limit
dimval=dimul
endif
=#senddim(dimval)
else

; decrease dim level
dimval-=dimstp
if dimval<dimll
then

; lower limit
dimval=dimll
endif
=#senddim(dimval)
endif
endif
endif
else
tmr=0
hold=0
endif

>E
slider=Dimmer

; slider change
if chg[slider]>0
then

; dim according slider
if slider>0
then
dimval=slider
=#senddim(dimval)
else
powert=0
=#senddim(0)
endif
endif

if pwr[1]==1
; on/off webui
then
powert=1
=#senddim(dimval)
else
powert=0
=#senddim(0)
endif

; subroutine dim
#senddim(tmp)
dim="FF55"+hn(tmp*dimmlp)+"05DC0A"
=>SerialSend5 %dim%
=>Dimmer %tmp%
#

Back To Top

Web UI

An example to show how to implement a web UI. This example controls a light via WebSend

>D
dimmer=0
sw=0
color=""
col1=""
red=0
green=0
blue=0
ww=0

>F
color=hn(red)+hn(green)+hn(blue)+hn(ww)
if color!=col1
then
col1=color
=>websend [192.168.178.75] color %color%
endif

if chg[dimmer]>0
then
=>websend [192.168.178.75] dimmer %dimmer%
endif

if chg[sw]>0
then
=>websend [192.168.178.75] power1 %sw%
endif

>W
bu(sw "Light on" "Light off")
ck(sw "Light on/off   ")
sl(0 100 dimmer "0" "Dimmer" "100")
sl(0 255 red "0" "red" "255")
sl(0 255 green "0" "green" "255")
sl(0 255 blue "0" "blue" "255")
sl(0 255 ww "0" "warm white" "255")
tx(color "color:   ")

Back To Top

Hue Emulation

An example to show how to respond to Alexa requests via Hue Emulation

When Alexa sends on/off, dimmer, and color (via hsb), send commands to a MagicHome device

>D
pwr1=0
hue1=0
sat1=0
bri1=0
tmp=0

>E
if upd[hue1]>0
or upd[sat1]>0
or upd[bri1]>0
then
tmp=hue1/182
->websend [192.168.178.84] hsbcolor %tmp%,%sat1%,%bri1%
endif

if upd[pwr1]>0
then
->websend [192.168.178.84] power1 %pwr1%
endif

>H
; on,hue,sat,bri,ct
livingroom,E,on=pwr1,hue=hue1,sat=sat1,bri=bri1

Back To Top

Alexa Controlled MCP230xx I2C GPIO Expander

Uses Tasmota's Hue Emulation capabilities for Alexa interface

; define vars
>D
p:p1=0
p:p2=0
p:p3=0
p:p4=0

; init ports
>B
->sensor29 0,5,0
->sensor29 1,5,0
->sensor29 2,5,0
->sensor29 3,5,0
->sensor29 0,%0p1%
->sensor29 1,%0p2%
->sensor29 2,%0p3%
->sensor29 3,%0p4%

; define Alexa virtual devices
>H
port1,S,on=p1
port2,S,on=p2
port3,S,on=p3
port4,S,on=p4

; handle events
>E
print EVENT

if upd[p1]>0
then
->sensor29 0,%0p1%
endif
if upd[p2]>0
then
->sensor29 1,%0p2%
endif
if upd[p3]>0
then
->sensor29 2,%0p3%
endif
if upd[p4]>0
then
->sensor29 3,%0p4%
endif

=#pub

; publish routine
#pub
=>publish stat/%topic%/RESULT {"MCP23XX":{"p1":%0p1%,"p2":%0p2%,"p3":%0p3%,"p4":%0p4%}}
svars

; web interface
>W
bu(p1 "p1 on" "p1 off")bu(p2 "p2 on" "p2 off")bu(p3 "p3 on" "p3 off")bu(p4 "p4 on" "p4 off")

Back To Top

Retrieve network gateway IP Address

>D
gw=""

; Request Status information. The response will trigger the >U section
>B
+>status 5

; Read the status JSON payload
>U
gw=StatusNET#Gateway
print %gw%

Back To Top

Send e-mail

>D 25
day1=0
et=0
to="[email protected]"

>T
et=ENERGY#Total

>S
; send at midnight
day1=day
if chg[day1]>0
then
=>sendmail [*:*:*:*:*:%to%:energy report]*
endif

>m
email report at %tstamp%
your power consumption today was %et% KWh
#

Back To Top