These instructions have moved to https://github.com/emporia-vue-local/esphome
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August 22, 2024 18:14
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Setting up Emporia Vue 2 with ESPHome
Logs are in local time:
[10:50:35][D][sensor:125]: 'Circuit 8 Daily Energy': Sending state 180.83740 Wh with 0 decimals of accuracy
[10:50:35][D][sensor:125]: 'Circuit 9 Power': Sending state 0.25883 W with 0 decimals of accuracy
[10:50:35][D][sensor:125]: 'Circuit 9 Daily Energy': Sending state 4.03635 Wh with 0 decimals of accuracy
[10:50:35][D][sensor:125]: 'Circuit 10 Power': Sending state 12.47641 W with 0 decimals of accuracy
And the daily reset happens at midnight.
Logs are in local time:
[10:50:35][D][sensor:125]: 'Circuit 8 Daily Energy': Sending state 180.83740 Wh with 0 decimals of accuracy [10:50:35][D][sensor:125]: 'Circuit 9 Power': Sending state 0.25883 W with 0 decimals of accuracy [10:50:35][D][sensor:125]: 'Circuit 9 Daily Energy': Sending state 4.03635 Wh with 0 decimals of accuracy [10:50:35][D][sensor:125]: 'Circuit 10 Power': Sending state 12.47641 W with 0 decimals of accuracyAnd the daily reset happens at midnight.
Thanks for confirming, and thanks for all your work with this! I'll have to dig in deeper outside of the emporia firmware 😄
EDIT I've figured it out. I'm running esphome in Docker, and I need to pass the timezone through to the container using environment variables.
Thanks to this link for the insight
example:
volumes:
- "./data:/config"
- /etc/localtime:/etc/localtime
- /etc/timezone:/etc/timezone
I think I've figured it out also ;-) My issue what that even when sensor wasn't connected to the port the output was like random noise. When I connected the clamp it looks good:
Missing data at 16:06 and later it's my Emporia dropping from the wifi.
@flaviut, is there a smart way to do in ESPHome a sensor that will calculate power from the other circuts not measured by Emporia (by phase)? Something like this:
phase_a_other_circuts_power = id(phase_a_power).state - sum(all measured circurs on phase a)
and the same for daily energy.
@VivantSenior glad to hear you figured it out!
Re. doing math on results, copy "Total Power" in the config and try and modify it for your situation.
First, thanks for this! Truly epic.
Have you heard of an issue where half of the CTs/ports go dead at the same time after working fine for days? I'm pretty sure something went belly up in the hardware but figure I'd ask. At first I thought it must be a fried multiplexer, but the bad ports span both of them.
@cshields all on the same phase? Check the wiring on the 2x2 connector: that all the wire nuts are tight, screws tight, and connector completely inserted.
energy monitor keeps disconnecting, ..
INFO energy-monitor.local: Error while reading incoming messages: Error while reading data: 0 bytes read on a total of 1 expected bytes
INFO Disconnected from ESPHome API for energy-monitor.local
WARNING Disconnected from API
INFO energy-monitor.local: Ping Failed: Error while reading data: 0 bytes read on a total of 1 expected bytes
INFO Successfully connected to energy-monitor.local
Configuration:
Config
substitutions:
devicename: "energy-monitor"
upper_devicename: "emporiavue2"
wifi_ssid: !secret iot_wifi_ssid
wifi_pass: !secret iot_wifi_password
fallback_pass: !secret fallback_wifi_password
api_pass: !secret esp_api_password
ota_pass: !secret esp_ota_password
webserver_username: !secret webserver_username
webserver_password: !secret webserver_password
esphome:
name: $devicename
external_components:
- source: github://flaviut/esphome@emporia-vue-2022.4.0
components: [ emporia_vue ]
esp32:
board: esp32dev
framework:
type: esp-idf
version: recommended
# Enable Home Assistant API
api:
password: "${api_pass}"
# Enable over the air updates
ota:
password: "${ota_pass}"
# Enable logging
logger:
wifi:
ssid: "${wifi_ssid}"
password: "${wifi_pass}"
i2c:
sda: 21
scl: 22
scan: false
frequency: 200kHz # recommended range is 50-200kHz
id: i2c_a
time:
- platform: sntp
timezone: 'CET-1CEST-2,M3.5.0/02:00:00,M10.5.0/03:00:00'
id: my_time
servers:
- 162.159.200.123
- 195.13.23.5
- 195.13.1.153
on_time_sync:
then:
- logger.log: "Synchronized system clock"
# these are called references in YAML. They allow you to reuse
# this configuration in each sensor, while only defining it once
.defaultfilters:
- &moving_avg
# we capture a new sample every 0.24 seconds, so the time can
# be calculated from the number of samples as n * 0.24.
sliding_window_moving_average:
# we average over the past 2.88 seconds
window_size: 12
# we push a new value every 1.44 seconds
send_every: 6
- &invert
# invert and filter out any values below 0.
lambda: 'return max(-x, 0.0f);'
- &pos
# filter out any values below 0.
lambda: 'return max(x, 0.0f);'
- &abs
# take the absolute value of the value
lambda: 'return abs(x);'
sensor:
- platform: emporia_vue
i2c_id: i2c_a
phases:
- id: phase_a # Verify that this specific phase/leg is connected to correct input wire color on device listed below
input: BLACK # Vue device wire color
calibration: 0.02260 # 0.022 is used as the default as starting point but may need adjusted to ensure accuracy
# To calculate new calibration value use the formula <in-use calibration value> * <accurate voltage> / <reporting voltage>
voltage:
name: "Grid Voltage"
filters: [*moving_avg, *pos]
- id: phase_b # Verify that this specific phase/leg is connected to correct input wire color on device listed below
input: RED # Vue device wire color
calibration: 0.02260 # 0.022 is used as the default as starting point but may need adjusted to ensure accuracy
# To calculate new calibration value use the formula <in-use calibration value> * <accurate voltage> / <reporting voltage>
voltage:
name: "Neutral Voltage"
filters: [*moving_avg, *pos]
- id: phase_c # Verify that this specific phase/leg is connected to correct input wire color on device listed below
input: BLUE # Vue device wire color
calibration: 0.02260 # 0.022 is used as the default as starting point but may need adjusted to ensure accuracy
# To calculate new calibration value use the formula <in-use calibration value> * <accurate voltage> / <reporting voltage>
voltage:
name: "PE Voltage"
filters: [*moving_avg, *pos]
ct_clamps:
- phase_id: phase_a
input: "A" # Verify the CT going to this device input also matches the phase/leg
power:
name: "Grid Power"
id: phase_a_power
device_class: power
filters: [*moving_avg, *pos]
- phase_id: phase_b
input: "B" # Verify the CT going to this device input also matches the phase/leg
power:
name: "Neutral Power"
id: phase_b_power
device_class: power
filters: [*moving_avg, *pos]
- phase_id: phase_c
input: "C" # Verify the CT going to this device input also matches the phase/leg
power:
name: "PE Power"
id: phase_c_power
device_class: power
filters: [*moving_avg, *pos]
# Pay close attention to set the phase_id for each breaker by matching it to the phase/leg it connects to in the panel
- { phase_id: phase_a, input: "1", power: { name: "Circuit 1 Power", id: cir1, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "2", power: { name: "Circuit 2 Power", id: cir2, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "3", power: { name: "Circuit 3 Power", id: cir3, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "4", power: { name: "Circuit 4 Power", id: cir4, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "5", power: { name: "Circuit 5 Power", id: cir5, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "6", power: { name: "Circuit 6 Power", id: cir6, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "7", power: { name: "Circuit 7 Power", id: cir7, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "8", power: { name: "Circuit 8 Power", id: cir8, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "9", power: { name: "Circuit 9 Power", id: cir9, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "10", power: { name: "Circuit 10 Power", id: cir10, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "11", power: { name: "Circuit 11 Power", id: cir11, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "12", power: { name: "Circuit 12 Power", id: cir12, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "13", power: { name: "Circuit 13 Power", id: cir13, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "14", power: { name: "Circuit 14 Power", id: cir14, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "15", power: { name: "Circuit 15 Power", id: cir15, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "16", power: { name: "Circuit 16 Power", id: cir16, filters: [ *moving_avg, *pos ] } }
# phase A L1
- platform: template
name: "Total Power Grid"
lambda: return id(phase_a_power).state;
update_interval: 1s
id: total_power_a
unit_of_measurement: "W"
- platform: total_daily_energy
name: "Total Daily Energy Grid"
power_id: total_power_a
accuracy_decimals: 0
# phase B Neutral
- platform: template
name: "Total Power Neutral"
lambda: return id(phase_b_power).state;
update_interval: 5s
id: total_power_b
unit_of_measurement: "W"
- platform: total_daily_energy
name: "Total Daily Energy Neutral"
power_id: total_power_b
accuracy_decimals: 0
# phase C to Earth
- platform: template
name: "Total Power PE"
lambda: return id(phase_c_power).state;
update_interval: 5s
id: total_power_c
unit_of_measurement: "W"
- platform: total_daily_energy
name: "Total Daily Energy PE"
power_id: total_power_c
accuracy_decimals: 0
- { power_id: cir1, platform: total_daily_energy, accuracy_decimals: 0, name: "Circuit 1 Daily Energy" }
- { power_id: cir2, platform: total_daily_energy, accuracy_decimals: 0, name: "Circuit 2 Daily Energy" }
- { power_id: cir3, platform: total_daily_energy, accuracy_decimals: 0, name: "Circuit 3 Daily Energy" }
- { power_id: cir4, platform: total_daily_energy, accuracy_decimals: 0, name: "Circuit 4 Daily Energy" }
- { power_id: cir5, platform: total_daily_energy, accuracy_decimals: 0, name: "Circuit 5 Daily Energy" }
- { power_id: cir6, platform: total_daily_energy, accuracy_decimals: 0, name: "Circuit 6 Daily Energy" }
- { power_id: cir7, platform: total_daily_energy, accuracy_decimals: 0, name: "Circuit 7 Daily Energy" }
- { power_id: cir8, platform: total_daily_energy, accuracy_decimals: 0, name: "Circuit 8 Daily Energy" }
- { power_id: cir9, platform: total_daily_energy, accuracy_decimals: 0, name: "Circuit 9 Daily Energy" }
- { power_id: cir10, platform: total_daily_energy, accuracy_decimals: 0, name: "Circuit 10 Daily Energy" }
- { power_id: cir11, platform: total_daily_energy, accuracy_decimals: 0, name: "Circuit 11 Daily Energy" }
- { power_id: cir12, platform: total_daily_energy, accuracy_decimals: 0, name: "Circuit 12 Daily Energy" }
- { power_id: cir13, platform: total_daily_energy, accuracy_decimals: 0, name: "Circuit 13 Daily Energy" }
- { power_id: cir14, platform: total_daily_energy, accuracy_decimals: 0, name: "Circuit 14 Daily Energy" }
- { power_id: cir15, platform: total_daily_energy, accuracy_decimals: 0, name: "Circuit 15 Daily Energy" }
- { power_id: cir16, platform: total_daily_energy, accuracy_decimals: 0, name: "Circuit 16 Daily Energy" }
@Ofloo I'm not sure; are you able to get any logs over the serial adapter, ideally while not connected to mains?
If not, I'd suggest reaching out to general ESPHome community and asking them. Please remember to let us know how you solved this!
Installed esp-link however the serial console doesn't show anything.
created a forum question here: https://community.home-assistant.io/t/empora-vue-2-energy-monitor/434386
I doubt anyone will answer. But hell if you don't try you'll never know :p
@flaviut just wanted to say thanks for this (also thanks to ESPhome devs). Works awesome. I am now using the MQTT integration at it is exactly what I wanted. So you can update your documentation to say MQTT is working
The main reason I wanted it was to monitor things like the electric stove/oven if it was accidentaly left on while we are away or when everyone is asleep etc. I could only trust a local solution for that
Hi. Thank you so much for the brilliant work on this. I managed to flash my Emporia Vue and it seems to be working perfectly. I ran it with the Emporia software and the cloud prior to make sure it all worked fine before I went ahead an flashed it. My issue (Due to lack of templating knowledge) now is that I have a solar system and in order to pull in the right data to home assistant I need to be able to create Current/Total energy exported to the grid (All negative values of the Total Power) and All the Energy imported from the Grid (Positive numbers on total power) I removed the filter so my total power or phase power shows negative and positive depending on if my house is producing more than it uses or not. I've found ways to do this in HA but I'd prefer that it was done locally on the device before being pushed to HA.
Hi. Thank you so much for the brilliant work on this. I managed to flash my Emporia Vue and it seems to be working perfectly. I ran it with the Emporia software and the cloud prior to make sure it all worked fine before I went ahead an flashed it. My issue (Due to lack of templating knowledge) now is that I have a solar system and in order to pull in the right data to home assistant I need to be able to create Current/Total energy exported to the grid (All negative values of the Total Power) and All the Energy imported from the Grid (Positive numbers on total power) I removed the filter so my total power or phase power shows negative and positive depending on if my house is producing more than it uses or not. I've found ways to do this in HA but I'd prefer that it was done locally on the device before being pushed to HA.
Can you share what you have done so far so we can see where you are at?
i2c:
sda: 21
scl: 22
scan: false
frequency: 200kHz # recommended range is 50-200kHz
id: i2c_a
time:
- platform: sntp
id: my_time
# these are called references in YAML. They allow you to reuse
# this configuration in each sensor, while only defining it once
.defaultfilters:
- &moving_avg
# we capture a new sample every 0.24 seconds, so the time can
# be calculated from the number of samples as n * 0.24.
sliding_window_moving_average:
# we average over the past 2.88 seconds
window_size: 12
# we push a new value every 1.44 seconds
send_every: 6
- &invert
# invert and filter out any values below 0.
lambda: 'return max(-x, 0.0f);'
- &pos
# filter out any values below 0.
lambda: 'return max(x, 0.0f);'
- &abs
# take the absolute value of the value
lambda: 'return abs(x);'
sensor:
- platform: emporia_vue
i2c_id: i2c_a
phases:
- id: phase_a # Verify that this specific phase/leg is connected to correct input wire color on device listed below
input: BLACK # Vue device wire color
calibration: 0.022 # 0.022 is used as the default as starting point but may need adjusted to ensure accuracy
# To calculate new calibration value use the formula <in-use calibration value> * <accurate voltage> / <reporting voltage>
voltage:
name: "Phase A Voltage"
filters: [*moving_avg, *pos]
ct_clamps:
- phase_id: phase_a
input: "C" # Verify the CT going to this device input also matches the phase/leg
power:
name: "Phase A Power"
id: phase_a_power
device_class: power
filters: [*moving_avg]
# Pay close attention to set the phase_id for each breaker by matching it to the phase/leg it connects to in the panel
- { phase_id: phase_a, input: "1", power: { name: "Lights N9 Power", id: cir1, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "2", power: { name: "Lights N8 Power", id: cir2, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "3", power: { name: "Plugs N7 Power", id: cir3, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "4", power: { name: "Plugs N6 Power", id: cir4, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "5", power: { name: "Plugs N5 Power", id: cir5, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "6", power: { name: "Solar Power", id: cir6, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "7", power: { name: "Aircon N3 Power", id: cir7, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "8", power: { name: "Stove N2 Power", id: cir8, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "9", power: { name: "Hot Water N1", id: cir9, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "10", power: { name: "Plugs N4 Power", id: cir10, filters: [ *moving_avg, *pos ] } }
- platform: template
name: "Total Power"
lambda: return id(phase_a_power).state ;
update_interval: 1s
id: total_power
unit_of_measurement: "W"
- platform: total_daily_energy
name: "Total Daily Energy"
power_id: total_power
accuracy_decimals: 0
- { power_id: cir1, platform: total_daily_energy, accuracy_decimals: 0, name: "Lights N9 Daily Energy", id: total_daily_cir1 }
- { power_id: cir2, platform: total_daily_energy, accuracy_decimals: 0, name: "Lights N8 Daily Energy", id: total_daily_cir2 }
- { power_id: cir3, platform: total_daily_energy, accuracy_decimals: 0, name: "Plugs N7 Daily Energy", id: total_daily_cir3 }
- { power_id: cir4, platform: total_daily_energy, accuracy_decimals: 0, name: "Plugs N6 Daily Energy", id: total_daily_cir4 }
- { power_id: cir5, platform: total_daily_energy, accuracy_decimals: 0, name: "Plugs N5 Daily Energy", id: total_daily_cir5 }
- { power_id: cir6, platform: total_daily_energy, accuracy_decimals: 0, name: "Solar Power Daily Energy", id: total_daily_cir6 }
- { power_id: cir7, platform: total_daily_energy, accuracy_decimals: 0, name: "Aircon N3 Daily Energy", id: total_daily_cir7 }
- { power_id: cir8, platform: total_daily_energy, accuracy_decimals: 0, name: "Stove N2 Daily Energy", id: total_daily_cir8 }
- { power_id: cir9, platform: total_daily_energy, accuracy_decimals: 0, name: "Hot Water N1 Daily Energy", id: total_daily_cir9 }
- { power_id: cir10, platform: total_daily_energy, accuracy_decimals: 0, name: "Plugs N4 Daily Energy", id: total_daily_cir10 }
- platform: template
name: "Total Usage Power"
lambda: return id(total_daily_cir1).state + id(total_daily_cir2).state + id(total_daily_cir3).state + id(total_daily_cir4).state + id(total_daily_cir5).state
+ id(total_daily_cir7).state + id(total_daily_cir8).state + id(total_daily_cir9).state + id(total_daily_cir10).state ;
update_interval: 1s
id: total_power_usage
unit_of_measurement: "W"
internal: true
#Total House Watts Positive
- platform: template
name: Total Import
id: totalconsumed
lambda: |-
if (id(total_power).state < 0) {
return 0;
} else {
return id(total_power).state ;
}
accuracy_decimals: 1
unit_of_measurement: "W"
icon: "mdi:flash-circle"
update_interval: 1s
filters: [*moving_avg]
#Total House Watts Negative
- platform: template
name: Total Export
id: totalexported
lambda: |-
if (id(total_power).state > 0) {
return 0;
} else {
return abs(id(total_power).state) ;
}
accuracy_decimals: 1
unit_of_measurement: "W"
icon: "mdi:flash-circle"
update_interval: 1s
filters: [*moving_avg]
Kinda works but doesn't work in the HA dashboard and the data doesn't look like it's a running total but more like some sort of average?
Basically I want two Total Daily's. One that is for all the Grid Import (When the total is positive) and one for Grid Export (When the total is positive) Also please excuse the horrendous editing on the code above. No idea why Github kept editing it that way. I used the insert code tool.
@tappyson you're on the right track. You have the instantaneous power imported and exported. But you need to add that up over time.
Try adding two more sensors like the existing total daily energy:
- platform: total_daily_energy
name: "Total Daily Energy"
power_id: total_power
accuracy_decimals: 0
Details on how it works: https://esphome.io/components/sensor/total_daily_energy.html
You'll want to replace the thing it's summing over with your totalexported, etc.
PS: I fixed the formatting, here's an explanation of how it works
I didn't fix the problem, however I've established how to circumvent it. Seems like the culprit is ESPHome, not sure as to why this specific firmware is having issues with it. Since none of my other clients do but it does.
I've changed my config to mqtt and set all internal to true and now I have no packets going to ESPHome and so no more disconnects and no more packet loss.
Downside I have to configure all my sensors in mqtt: - sensors ..
substitutions:
devicename: "energy-monitor"
upper_devicename: "emporiavue2"
wifi_ssid: !secret iot_wifi_ssid
wifi_pass: !secret iot_wifi_password
fallback_pass: !secret fallback_wifi_password
api_pass: !secret esp_api_password
ota_pass: !secret esp_ota_password
# phase a connected to main leat L1 load closet
name_a_power: "Grid Power"
name_a_voltage: "Grid Voltage"
name_total_a_power: "Total Power Grid"
name_total_a_energy: "Total Daily Energy Grid"
# phase b connected to main lead N direction load N
name_b_power: "Neutral Power"
name_b_voltage: "Neutral Voltage"
name_total_b_power: "Total Power Neutral"
name_total_b_energy: "Total Daily Energy Neutral"
# phase c connected main lead to earth direction load earth
name_c_power: "PE Power"
name_c_voltage: "PE Voltage"
name_total_c_power: "Total Power PE"
name_total_c_energy: "Total Daily Energy PE"
# individual circuits
# individual circuits
name_circuit01: "Circuit 1"
name_circuit02: "Circuit 2"
name_circuit03: "Circuit 3"
name_circuit04: "Circuit 4"
name_circuit05: "Circuit 5"
name_circuit06: "Circuit 6"
name_circuit07: "Circuit 7"
name_circuit08: "Circuit 8"
name_circuit09: "Circuit 9"
name_circuit10: "Circuit 10"
name_circuit11: "Circuit 11"
name_circuit12: "Circuit 12"
name_circuit13: "Circuit 13"
name_circuit14: "Circuit 14"
name_circuit15: "Circuit 15"
name_circuit16: "Circuit 16"
name_timezone: 'CET-1CEST-2,M3.5.0/02:00:00,M10.5.0/03:00:00'
esphome:
name: $devicename
external_components:
- source: github://flaviut/esphome@emporia-vue-2022.4.0
components: [ emporia_vue ]
esp32:
board: esp32dev
framework:
type: esp-idf
version: recommended
# Enable Home Assistant API
api:
password: "${api_pass}"
# Enable over the air updates
ota:
password: "${ota_pass}"
# Enable logging
logger:
level: error
wifi:
ssid: "${wifi_ssid}"
password: "${wifi_pass}"
# Enable fallback hotspot (captive portal) in case wifi connection fails
ap:
ssid: "${devicename} Fallback Hotspot"
password: "${fallback_pass}"
i2c:
sda: 21
scl: 22
scan: false
frequency: 200kHz # recommended range is 50-200kHz
id: i2c_a
# these are called references in YAML. They allow you to reuse
# this configuration in each sensor, while only defining it once
.defaultfilters:
- &moving_avg
# we capture a new sample every 0.24 seconds, so the time can
# be calculated from the number of samples as n * 0.24.
sliding_window_moving_average:
# we average over the past 2.88 seconds
window_size: 12
# we push a new value every 1.44 seconds
send_every: 6
- &invert
# invert and filter out any values below 0.
lambda: 'return max(-x, 0.0f);'
- &pos
# filter out any values below 0.
lambda: 'return max(x, 0.0f);'
- &abs
# take the absolute value of the value
lambda: 'return abs(x);'
mqtt:
broker: !secret mqtt_hostname
username: !secret mqtt_username
password: !secret mqtt_password
client_id: vue2
port: 1883
topic_prefix: vue2
discovery: false
log_topic: null
sensor:
- platform: emporia_vue
i2c_id: i2c_a
phases:
- id: phase_a # Verify that this specific phase/leg is connected to correct input wire color on device listed below
input: BLACK # Vue device wire color
calibration: 0.02260 # 0.022 is used as the default as starting point but may need adjusted to ensure accuracy
# To calculate new calibration value use the formula <in-use calibration value> * <accurate voltage> / <reporting voltage>
voltage:
name: $name_a_voltage
internal: true
id: phase_a_voltage
filters: [*moving_avg, *pos]
- id: phase_b # Verify that this specific phase/leg is connected to correct input wire color on device listed below
input: RED # Vue device wire color
calibration: 0.02260 # 0.022 is used as the default as starting point but may need adjusted to ensure accuracy
# To calculate new calibration value use the formula <in-use calibration value> * <accurate voltage> / <reporting voltage>
voltage:
name: $name_b_voltage
internal: true
id: phase_b_voltage
filters: [*moving_avg, *pos]
- id: phase_c # Verify that this specific phase/leg is connected to correct input wire color on device listed below
input: BLUE # Vue device wire color
calibration: 0.02260 # 0.022 is used as the default as starting point but may need adjusted to ensure accuracy
# To calculate new calibration value use the formula <in-use calibration value> * <accurate voltage> / <reporting voltage>
voltage:
name: $name_c_voltage
internal: true
id: phase_c_voltage
filters: [*moving_avg, *pos]
ct_clamps:
- phase_id: phase_a
input: "A" # Verify the CT going to this device input also matches the phase/leg
power:
name: $name_a_power
internal: true
id: phase_a_power
device_class: power
filters: [*moving_avg, *pos]
- phase_id: phase_b
input: "B" # Verify the CT going to this device input also matches the phase/leg
power:
name: $name_b_power
internal: true
id: phase_b_power
device_class: power
filters: [*moving_avg, *pos]
- phase_id: phase_c
input: "C" # Verify the CT going to this device input also matches the phase/leg
power:
name: $name_c_power
internal: true
id: phase_c_power
device_class: power
filters: [*moving_avg, *pos]
# Pay close attention to set the phase_id for each breaker by matching it to the phase/leg it connects to in the panel
- { phase_id: phase_a, input: "1", power: { name: $name_circuit01, internal: true, id: power_cir01, device_class: power, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "2", power: { name: $name_circuit02, internal: true, id: power_cir02, device_class: power, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "3", power: { name: $name_circuit03, internal: true, id: power_cir03, device_class: power, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "4", power: { name: $name_circuit04, internal: true, id: power_cir04, device_class: power, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "5", power: { name: $name_circuit05, internal: true, id: power_cir05, device_class: power, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "6", power: { name: $name_circuit06, internal: true, id: power_cir06, device_class: power, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "7", power: { name: $name_circuit07, internal: true, id: power_cir07, device_class: power, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "8", power: { name: $name_circuit08, internal: true, id: power_cir08, device_class: power, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "9", power: { name: $name_circuit09, internal: true, id: power_cir09, device_class: power, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "10", power: { name: $name_circuit10, internal: true, id: power_cir10, device_class: power, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "11", power: { name: $name_circuit11, internal: true, id: power_cir11, device_class: power, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "12", power: { name: $name_circuit12, internal: true, id: power_cir12, device_class: power, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "13", power: { name: $name_circuit13, internal: true, id: power_cir13, device_class: power, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "14", power: { name: $name_circuit14, internal: true, id: power_cir14, device_class: power, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "15", power: { name: $name_circuit15, internal: true, id: power_cir15, device_class: power, filters: [ *moving_avg, *pos ] } }
- { phase_id: phase_a, input: "16", power: { name: $name_circuit16, internal: true, id: power_cir16, device_class: power, filters: [ *moving_avg, *pos ] } }
- platform: template
name: "${name_circuit01} in W"
lambda: return id(power_cir01).state;
id: total_cir01
accuracy_decimals: 0
unit_of_measurement: "W"
internal: true
update_interval: 1s
icon: mdi:gauge
- platform: template
name: "${name_circuit02} in W"
lambda: return id(power_cir02).state;
id: total_cir02
accuracy_decimals: 0
unit_of_measurement: "W"
internal: true
update_interval: 1s
icon: mdi:gauge
- platform: template
name: "${name_circuit03} in W"
lambda: return id(power_cir03).state;
id: total_cir03
accuracy_decimals: 0
unit_of_measurement: "W"
internal: true
update_interval: 1s
icon: mdi:gauge
- platform: template
name: "${name_circuit04} in W"
lambda: return id(power_cir04).state;
id: total_cir04
accuracy_decimals: 0
unit_of_measurement: "W"
internal: true
update_interval: 1s
icon: mdi:gauge
- platform: template
name: "${name_circuit05} in W"
lambda: return id(power_cir05).state;
id: total_cir05
accuracy_decimals: 0
unit_of_measurement: "W"
internal: true
update_interval: 1s
icon: mdi:gauge
- platform: template
name: "${name_circuit06} in W"
lambda: return id(power_cir06).state;
id: total_cir06
accuracy_decimals: 0
unit_of_measurement: "W"
internal: true
update_interval: 1s
icon: mdi:gauge
- platform: template
name: "${name_circuit07} in W"
lambda: return id(power_cir07).state;
id: total_cir07
accuracy_decimals: 0
unit_of_measurement: "W"
internal: true
update_interval: 1s
icon: mdi:gauge
- platform: template
name: "${name_circuit08} in W"
lambda: return id(power_cir08).state;
id: total_cir08
accuracy_decimals: 0
unit_of_measurement: "W"
internal: true
update_interval: 1s
icon: mdi:gauge
- platform: template
name: "${name_circuit09} in W"
lambda: return id(power_cir09).state;
id: total_cir09
accuracy_decimals: 0
unit_of_measurement: "W"
internal: true
update_interval: 1s
icon: mdi:gauge
- platform: template
name: "${name_circuit10} in W"
lambda: return id(power_cir10).state;
id: total_cir10
accuracy_decimals: 0
unit_of_measurement: "W"
internal: true
update_interval: 1s
icon: mdi:gauge
- platform: template
name: "${name_circuit11} in W"
lambda: return id(power_cir11).state;
id: total_cir11
accuracy_decimals: 0
unit_of_measurement: "W"
internal: true
update_interval: 1s
icon: mdi:gauge
- platform: template
name: "${name_circuit12} in W"
lambda: return id(power_cir12).state;
id: total_cir12
accuracy_decimals: 0
unit_of_measurement: "W"
internal: true
update_interval: 1s
icon: mdi:gauge
- platform: template
name: "${name_circuit13} in W"
lambda: return id(power_cir13).state;
id: total_cir13
accuracy_decimals: 0
unit_of_measurement: "W"
internal: true
update_interval: 1s
icon: mdi:gauge
- platform: template
name: "${name_circuit14} in W"
lambda: return id(power_cir14).state;
id: total_cir14
accuracy_decimals: 0
unit_of_measurement: "W"
internal: true
update_interval: 1s
icon: mdi:gauge
- platform: template
name: "${name_circuit15} in W"
lambda: return id(power_cir15).state;
id: total_cir15
accuracy_decimals: 0
unit_of_measurement: "W"
internal: true
update_interval: 1s
icon: mdi:gauge
- platform: template
name: "${name_circuit16} in W"
lambda: return id(power_cir16).state;
id: total_cir16
accuracy_decimals: 0
unit_of_measurement: "W"
internal: true
update_interval: 1s
icon: mdi:gauge
# phase A
- platform: template
name: $name_total_a_power
lambda: return id(phase_a_power).state;
update_interval: 1s
id: total_power_a
accuracy_decimals: 0
unit_of_measurement: "W"
internal: true
icon: mdi:gauge
- platform: total_daily_energy
name: $name_total_a_energy
power_id: total_power_a
id: total_power_a_wh
accuracy_decimals: 0
unit_of_measurement: "Wh"
internal: true
icon: mdi:gauge
- platform: total_daily_energy
name: $name_total_a_energy
power_id: total_power_a
id: total_power_a_kwh
accuracy_decimals: 3
filters: [multiply: 0.001]
unit_of_measurement: "kWh"
internal: true
icon: mdi:gauge
# phase B
- platform: template
name: $name_total_b_power
lambda: return id(phase_b_power).state;
update_interval: 1s
id: total_power_b
accuracy_decimals: 0
unit_of_measurement: "W"
internal: true
icon: mdi:gauge
- platform: total_daily_energy
name: $name_total_b_energy
power_id: total_power_b
id: total_power_b_wh
accuracy_decimals: 0
internal: true
icon: mdi:gauge
- platform: total_daily_energy
name: $name_total_b_energy
power_id: total_power_b
id: total_power_b_kwh
accuracy_decimals: 3
filters: [multiply: 0.001]
unit_of_measurement: "kWh"
internal: true
icon: mdi:gauge
# phase C
- platform: template
name: $name_total_c_power
lambda: return id(phase_c_power).state;
update_interval: 1s
id: total_power_c
unit_of_measurement: "W"
internal: true
icon: mdi:gauge
- platform: total_daily_energy
name: $name_total_c_energy
power_id: total_power_c
id: total_power_c_wh
accuracy_decimals: 0
unit_of_measurement: "Wh"
internal: true
icon: mdi:gauge
- platform: total_daily_energy
name: $name_total_c_energy
power_id: total_power_c
id: total_power_c_kwh
accuracy_decimals: 3
filters: [multiply: 0.001]
unit_of_measurement: "kWh"
internal: true
icon: mdi:gauge
- { power_id: total_cir01, id: total_cir01_wh, platform: total_daily_energy, accuracy_decimals: 1, name: "${name_circuit01} in Wh", unit_of_measurement: "Wh", internal: true, icon: mdi:calendar-clock }
- { power_id: total_cir02, id: total_cir02_wh, platform: total_daily_energy, accuracy_decimals: 1, name: "${name_circuit02} in Wh", unit_of_measurement: "Wh", internal: true, icon: mdi:calendar-clock }
- { power_id: total_cir03, id: total_cir03_wh, platform: total_daily_energy, accuracy_decimals: 1, name: "${name_circuit03} in Wh", unit_of_measurement: "Wh", internal: true, icon: mdi:calendar-clock }
- { power_id: total_cir04, id: total_cir04_wh, platform: total_daily_energy, accuracy_decimals: 1, name: "${name_circuit04} in Wh", unit_of_measurement: "Wh", internal: true, icon: mdi:calendar-clock }
- { power_id: total_cir05, id: total_cir05_wh, platform: total_daily_energy, accuracy_decimals: 1, name: "${name_circuit05} in Wh", unit_of_measurement: "Wh", internal: true, icon: mdi:calendar-clock }
- { power_id: total_cir06, id: total_cir06_wh, platform: total_daily_energy, accuracy_decimals: 1, name: "${name_circuit06} in Wh", unit_of_measurement: "Wh", internal: true, icon: mdi:calendar-clock }
- { power_id: total_cir07, id: total_cir07_wh, platform: total_daily_energy, accuracy_decimals: 1, name: "${name_circuit07} in Wh", unit_of_measurement: "Wh", internal: true, icon: mdi:calendar-clock }
- { power_id: total_cir08, id: total_cir08_wh, platform: total_daily_energy, accuracy_decimals: 1, name: "${name_circuit08} in Wh", unit_of_measurement: "Wh", internal: true, icon: mdi:calendar-clock }
- { power_id: total_cir09, id: total_cir09_wh, platform: total_daily_energy, accuracy_decimals: 1, name: "${name_circuit09} in Wh", unit_of_measurement: "Wh", internal: true, icon: mdi:calendar-clock }
- { power_id: total_cir10, id: total_cir10_wh, platform: total_daily_energy, accuracy_decimals: 1, name: "${name_circuit10} in Wh", unit_of_measurement: "Wh", internal: true, icon: mdi:calendar-clock }
- { power_id: total_cir11, id: total_cir11_wh, platform: total_daily_energy, accuracy_decimals: 1, name: "${name_circuit11} in Wh", unit_of_measurement: "Wh", internal: true, icon: mdi:calendar-clock }
- { power_id: total_cir12, id: total_cir12_wh, platform: total_daily_energy, accuracy_decimals: 1, name: "${name_circuit12} in Wh", unit_of_measurement: "Wh", internal: true, icon: mdi:calendar-clock }
- { power_id: total_cir13, id: total_cir13_wh, platform: total_daily_energy, accuracy_decimals: 1, name: "${name_circuit13} in Wh", unit_of_measurement: "Wh", internal: true, icon: mdi:calendar-clock }
- { power_id: total_cir14, id: total_cir14_wh, platform: total_daily_energy, accuracy_decimals: 1, name: "${name_circuit14} in Wh", unit_of_measurement: "Wh", internal: true, icon: mdi:calendar-clock }
- { power_id: total_cir15, id: total_cir15_wh, platform: total_daily_energy, accuracy_decimals: 1, name: "${name_circuit15} in Wh", unit_of_measurement: "Wh", internal: true, icon: mdi:calendar-clock }
- { power_id: total_cir16, id: total_cir16_wh, platform: total_daily_energy, accuracy_decimals: 1, name: "${name_circuit16} in Wh", unit_of_measurement: "Wh", internal: true, icon: mdi:calendar-clock }
- { power_id: total_cir01, id: total_cir01_kwh, platform: total_daily_energy, accuracy_decimals: 3, name: "${name_circuit01} in kWh", unit_of_measurement: "kWh", internal: true, filters: [multiply: 0.001], icon: mdi:calendar-clock }
- { power_id: total_cir02, id: total_cir02_kwh, platform: total_daily_energy, accuracy_decimals: 3, name: "${name_circuit02} in kWh", unit_of_measurement: "kWh", internal: true, filters: [multiply: 0.001], icon: mdi:calendar-clock }
- { power_id: total_cir03, id: total_cir03_kwh, platform: total_daily_energy, accuracy_decimals: 3, name: "${name_circuit03} in kWh", unit_of_measurement: "kWh", internal: true, filters: [multiply: 0.001], icon: mdi:calendar-clock }
- { power_id: total_cir04, id: total_cir04_kwh, platform: total_daily_energy, accuracy_decimals: 3, name: "${name_circuit04} in kWh", unit_of_measurement: "kWh", internal: true, filters: [multiply: 0.001], icon: mdi:calendar-clock }
- { power_id: total_cir05, id: total_cir05_kwh, platform: total_daily_energy, accuracy_decimals: 3, name: "${name_circuit05} in kWh", unit_of_measurement: "kWh", internal: true, filters: [multiply: 0.001], icon: mdi:calendar-clock }
- { power_id: total_cir06, id: total_cir06_kwh, platform: total_daily_energy, accuracy_decimals: 3, name: "${name_circuit06} in kWh", unit_of_measurement: "kWh", internal: true, filters: [multiply: 0.001], icon: mdi:calendar-clock }
- { power_id: total_cir07, id: total_cir07_kwh, platform: total_daily_energy, accuracy_decimals: 3, name: "${name_circuit07} in kWh", unit_of_measurement: "kWh", internal: true, filters: [multiply: 0.001], icon: mdi:calendar-clock }
- { power_id: total_cir08, id: total_cir08_kwh, platform: total_daily_energy, accuracy_decimals: 3, name: "${name_circuit08} in kWh", unit_of_measurement: "kWh", internal: true, filters: [multiply: 0.001], icon: mdi:calendar-clock }
- { power_id: total_cir09, id: total_cir09_kwh, platform: total_daily_energy, accuracy_decimals: 3, name: "${name_circuit09} in kWh", unit_of_measurement: "kWh", internal: true, filters: [multiply: 0.001], icon: mdi:calendar-clock }
- { power_id: total_cir10, id: total_cir10_kwh, platform: total_daily_energy, accuracy_decimals: 3, name: "${name_circuit10} in kWh", unit_of_measurement: "kWh", internal: true, filters: [multiply: 0.001], icon: mdi:calendar-clock }
- { power_id: total_cir11, id: total_cir11_kwh, platform: total_daily_energy, accuracy_decimals: 3, name: "${name_circuit11} in kWh", unit_of_measurement: "kWh", internal: true, filters: [multiply: 0.001], icon: mdi:calendar-clock }
- { power_id: total_cir12, id: total_cir12_kwh, platform: total_daily_energy, accuracy_decimals: 3, name: "${name_circuit12} in kWh", unit_of_measurement: "kWh", internal: true, filters: [multiply: 0.001], icon: mdi:calendar-clock }
- { power_id: total_cir13, id: total_cir13_kwh, platform: total_daily_energy, accuracy_decimals: 3, name: "${name_circuit13} in kWh", unit_of_measurement: "kWh", internal: true, filters: [multiply: 0.001], icon: mdi:calendar-clock }
- { power_id: total_cir14, id: total_cir14_kwh, platform: total_daily_energy, accuracy_decimals: 3, name: "${name_circuit14} in kWh", unit_of_measurement: "kWh", internal: true, filters: [multiply: 0.001], icon: mdi:calendar-clock }
- { power_id: total_cir15, id: total_cir15_kwh, platform: total_daily_energy, accuracy_decimals: 3, name: "${name_circuit15} in kWh", unit_of_measurement: "kWh", internal: true, filters: [multiply: 0.001], icon: mdi:calendar-clock }
- { power_id: total_cir16, id: total_cir16_kwh, platform: total_daily_energy, accuracy_decimals: 3, name: "${name_circuit16} in kWh", unit_of_measurement: "kWh", internal: true, filters: [multiply: 0.001], icon: mdi:calendar-clock }
time:
- platform: sntp
id: my_time
timezone: $name_timezone
servers:
- 10.13.35.1
on_time_sync:
then:
- logger.log: "Synchronized system clock"
on_time:
- seconds: /3
then:
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/1/watt/state");
payload: !lambda |-
return to_string(id(total_cir01).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/2/watt/state");
payload: !lambda |-
return to_string(id(total_cir02).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/3/watt/state");
payload: !lambda |-
return to_string(id(total_cir03).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/4/watt/state");
payload: !lambda |-
return to_string(id(total_cir04).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/5/watt/state");
payload: !lambda |-
return to_string(id(total_cir05).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/6/watt/state");
payload: !lambda |-
return to_string(id(total_cir06).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/7/watt/state");
payload: !lambda |-
return to_string(id(total_cir07).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/8/watt/state");
payload: !lambda |-
return to_string(id(total_cir08).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/9/watt/state");
payload: !lambda |-
return to_string(id(total_cir09).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/10/watt/state");
payload: !lambda |-
return to_string(id(total_cir10).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/11/watt/state");
payload: !lambda |-
return to_string(id(total_cir11).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/12/watt/state");
payload: !lambda |-
return to_string(id(total_cir12).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/13/watt/state");
payload: !lambda |-
return to_string(id(total_cir13).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/14/watt/state");
payload: !lambda |-
return to_string(id(total_cir14).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/15/watt/state");
payload: !lambda |-
return to_string(id(total_cir15).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/16/watt/state");
payload: !lambda |-
return to_string(id(total_cir16).state);
- seconds: /3
then:
- mqtt.publish:
topic: "vue2/mains/A/watt/state"
payload: !lambda |-
return to_string(id(phase_a_power).state);
- mqtt.publish:
topic: "vue2/mains/B/watt/state"
payload: !lambda |-
return to_string(id(phase_b_power).state);
- mqtt.publish:
topic: "vue2/mains/C/watt/state"
payload: !lambda |-
return to_string(id(phase_c_power).state);
- mqtt.publish:
topic: "vue2/mains/A/voltage/state"
payload: !lambda |-
return to_string(id(phase_a_voltage).state);
- mqtt.publish:
topic: "vue2/mains/B/voltage/state"
payload: !lambda |-
return to_string(id(phase_b_voltage).state);
- mqtt.publish:
topic: "vue2/mains/C/voltage/state"
payload: !lambda |-
return to_string(id(phase_c_voltage).state);
- seconds: /5
then:
- mqtt.publish:
topic: "vue2/mains/A/wh/state"
payload: !lambda |-
return to_string(id(total_power_a_wh).state);
- mqtt.publish:
topic: "vue2/mains/B/wh/state"
payload: !lambda |-
return to_string(id(total_power_b_wh).state);
- mqtt.publish:
topic: "vue2/mains/C/wh/state"
payload: !lambda |-
return to_string(id(total_power_c_wh).state);
- mqtt.publish:
topic: "vue2/mains/A/kwh/state"
payload: !lambda |-
return to_string(id(total_power_a_kwh).state);
- mqtt.publish:
topic: "vue2/mains/B/kwh/state"
payload: !lambda |-
return to_string(id(total_power_b_kwh).state);
- mqtt.publish:
topic: "vue2/mains/C/kwh/state"
payload: !lambda |-
return to_string(id(total_power_c_kwh).state);
- seconds: /10
then:
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/1/wh/state");
payload: !lambda |-
return to_string(id(total_cir01_wh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/2/wh/state");
payload: !lambda |-
return to_string(id(total_cir02_wh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/3/wh/state");
payload: !lambda |-
return to_string(id(total_cir03_wh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/4/wh/state");
payload: !lambda |-
return to_string(id(total_cir04_wh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/5/wh/state");
payload: !lambda |-
return to_string(id(total_cir05_wh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/6/wh/state");
payload: !lambda |-
return to_string(id(total_cir06_wh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/7/wh/state");
payload: !lambda |-
return to_string(id(total_cir07_wh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/8/wh/state");
payload: !lambda |-
return to_string(id(total_cir08_wh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/9/wh/state");
payload: !lambda |-
return to_string(id(total_cir09_wh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/10/wh/state");
payload: !lambda |-
return to_string(id(total_cir10_wh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/11/wh/state");
payload: !lambda |-
return to_string(id(total_cir11_wh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/12/wh/state");
payload: !lambda |-
return to_string(id(total_cir12_wh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/13/wh/state");
payload: !lambda |-
return to_string(id(total_cir13_wh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/14/wh/state");
payload: !lambda |-
return to_string(id(total_cir14_wh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/15/wh/state");
payload: !lambda |-
return to_string(id(total_cir15_wh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/16/wh/state");
payload: !lambda |-
return to_string(id(total_cir16_wh).state);
- seconds: /20
then:
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/1/kwh/state");
payload: !lambda |-
return to_string(id(total_cir01_kwh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/2/kwh/state");
payload: !lambda |-
return to_string(id(total_cir02_kwh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/3/kwh/state");
payload: !lambda |-
return to_string(id(total_cir03_kwh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/4/kwh/state");
payload: !lambda |-
return to_string(id(total_cir04_kwh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/5/kwh/state");
payload: !lambda |-
return to_string(id(total_cir05_kwh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/6/kwh/state");
payload: !lambda |-
return to_string(id(total_cir06_kwh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/7/kwh/state");
payload: !lambda |-
return to_string(id(total_cir07_kwh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/8/kwh/state");
payload: !lambda |-
return to_string(id(total_cir08_kwh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/9/kwh/state");
payload: !lambda |-
return to_string(id(total_cir09_kwh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/10/kwh/state");
payload: !lambda |-
return to_string(id(total_cir10_kwh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/11/kwh/state");
payload: !lambda |-
return to_string(id(total_cir11_kwh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/12/kwh/state");
payload: !lambda |-
return to_string(id(total_cir12_kwh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/13/kwh/state");
payload: !lambda |-
return to_string(id(total_cir13_kwh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/14/kwh/state");
payload: !lambda |-
return to_string(id(total_cir14_kwh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/15/kwh/state");
payload: !lambda |-
return to_string(id(total_cir15_kwh).state);
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/16/kwh/state");
payload: !lambda |-
return to_string(id(total_cir16_kwh).state);
- seconds: 0
minutes: /5
then:
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/mains/A/name/state");
payload: !lambda |-
return id(phase_a_power).get_name();
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/mains/B/name/state");
payload: !lambda |-
return id(phase_b_power).get_name();
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/mains/C/name/state");
payload: !lambda |-
return id(phase_c_power).get_name();
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/1/name/state");
payload: !lambda |-
return id(power_cir01).get_name();
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/2/name/state");
payload: !lambda |-
return id(power_cir02).get_name();
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/3/name/state");
payload: !lambda |-
return id(power_cir03).get_name();
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/4/name/state");
payload: !lambda |-
return id(power_cir04).get_name();
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/5/name/state");
payload: !lambda |-
return id(power_cir05).get_name();
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/6/name/state");
payload: !lambda |-
return id(power_cir06).get_name();
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/7/name/state");
payload: !lambda |-
return id(power_cir07).get_name();
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/8/name/state");
payload: !lambda |-
return id(power_cir08).get_name();
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/9/name/state");
payload: !lambda |-
return id(power_cir09).get_name();
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/10/name/state");
payload: !lambda |-
return id(power_cir10).get_name();
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/11/name/state");
payload: !lambda |-
return id(power_cir11).get_name();
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/12/name/state");
payload: !lambda |-
return id(power_cir12).get_name();
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/13/name/state");
payload: !lambda |-
return id(power_cir13).get_name();
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/14/name/state");
payload: !lambda |-
return id(power_cir14).get_name();
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/15/name/state");
payload: !lambda |-
return id(power_cir15).get_name();
- mqtt.publish:
topic: !lambda |-
return std::string("vue2/circuits/16/name/state");
payload: !lambda |-
return id(power_cir16).get_name();
@tappyson you're on the right track. You have the instantaneous power imported and exported. But you need to add that up over time.
Try adding two more sensors like the existing total daily energy:
- platform: total_daily_energy name: "Total Daily Energy" power_id: total_power accuracy_decimals: 0Details on how it works: https://esphome.io/components/sensor/total_daily_energy.html
You'll want to replace the thing it's summing over with your
totalexported, etc.PS: I fixed the formatting, here's an explanation of how it works
Thanks so much. Got to working a treat.
What would good practice be for creating a 1 or 5 min sensor. Create a new sensor with more datapoints using the rolling moving average?
Also does anyone know of a good way to send only say 5min data but then activate a 1s sensor for live viewing with some form of button click?
What would good practice be for creating a 1 or 5 min sensor. Create a new sensor with more datapoints using the rolling moving average?
Yup, exactly. Moving averages are way more complicated than you'd expect, but the sliding_window_moving_average is likely what you're looking for.
Also does anyone know of a good way to send only say 5min data but then activate a 1s sensor for live viewing with some form of button click?
Sorry, I can't help here.
@devWaves Thanks for the reminder! I've updated the guide.
I am having an issue, my total_daily_energy sensors are not resetting at all. I am running esphome and homeassistant in docker containers, with configs nearly identical to the example. I do see the accurate local time in my esphome logs.
In the device's config I have:
time:
- platform: sntp
id: my_time
In docker-compose.yaml I have:
environment:
ESPHOME_DASHBOARD_USE_PING: 'true'
TZ: 'America/Chicago'
volumes:
- './esphomeconfig/:/config:rw'
- /etc/localtime:/etc/localtime
- /etc/timezone:/etc/timezone
(possibly redundant?)
And in the logs I see:
[10:14:17][C][sntp:050]: SNTP Time:
[10:14:17][C][sntp:051]: Server 1: '0.pool.ntp.org'
[10:14:17][C][sntp:052]: Server 2: '1.pool.ntp.org'
[10:14:17][C][sntp:053]: Server 3: '2.pool.ntp.org'
[10:14:17][C][sntp:054]: Timezone: 'CST6CDT,M3.2.0,M11.1.0'
[10:14:19][D][sensor:125]: 'Total Power': Sending state 236.83893 W with 1 decimals of accuracy
[10:14:19][D][sensor:125]: 'Total Daily Energy': Sending state 283491.21875 Wh with 0 decimals of accuracy
which is the correct local time.
The device is in a VLAN that's firewalled off from the internet, but I opened a rule to allow it to send packets to port 123:
But the data just keeps going up:
Thanks for any help!
you need cycle: daily inside your energy total`
- platform: total_daily_energy
name: "Total Daily Energy"
power_id: total_power
accuracy_decimals: 0
cycle: daily
That gives me:
I don't see a cycle parameter documented: https://esphome.io/components/sensor/total_daily_energy.html
Anyway @cosmicosmo4, are you sure the time is getting synchronized? You should see a log message: esphome/issues#449 (comment)
I haven't noticed the "Synchronizing..." message. How often is it supposed to synchronize? Also, I do have the correct time in the logs, so it must have synchronized at some point.
oh that's inside the emporia config
I have
time:
- platform: sntp
id: my_time
timezone: $name_timezone
servers:
- 10.13.35.1
on_time_sync:
then:
- logger.log: "Synchronized system clock"
However keep in mind that I have setup ntp on my gateway don't like my iot clients going to the internet so ...
You could try syncing with homeassistant:
time:
- platform: homeassistant
id: homeassistant_time
timezone: America/New_York
for name_timezone I have name_timezone: 'CET-1CEST-2,M3.5.0/02:00:00,M10.5.0/03:00:00'
I'm out of ideas :)
I'd suggest asking the ESPHome community directly. Please let us know what you find out!
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Just curious then - are your esphome logs in UTC with sntp set? Also does your daily power reset at 8pm or midnight? Looks like midnight on that chart