Hi Folks.. Well, I got my system working. I can do over the air updates and everything. Ended up hard-wiring to the Ethernet ports, because the shop and house are on two different wifi-networks.
Now if I can just figure out how to configure it so it makes sense for what I’m seeing in the energy pane… I don’t have any automation on the house (at this time). Just trying to find out where all my power is going…
This is what my system looks like. I have PGE coming in to a single point mix; Solar and PGE mix (can not seem to monitor PGE separately, , it’s only about 1/2" tabs into the backplane in the input panel). I can monitor the solar input, as those were added in. So I have two inputs, going into a merged point. From there, I have two outputs. One is the main to the house, covering all the power hungry things that don’t use the backup generator (oven, dryer, jacuzzi, etc). Then there is the other output that powers both the shop utility panel (which is not backed up), and feeds the transfer switch between the generator and the backed-up portion of the house.
I have a vue3 on the shop utility panel, with power being taken from the backed-up circuit side of the transfer switch. This ensures that it operates when on generator. Hmm.. Just realized that the power to the router in the shop may not be on the generator.. sigh. Oh well, next fix.
I have a vue3 on the non-backed-up panel at the house, with 15 circuits monitoring all those devices. I have a vue3 on the backed-up sub panel at the house, with 16 circuits monitoring all of those devices.
On the shop vue3, I’ve got PhaseA/B plugged in on the non-backed-up house feed output, after the merge point. I also have a couple of the smaller sensors watching the shop-utility feed. It’s 60amps, so it’s within range of the smaller units. I also have two smaller sensors on the solar inputs to the merge.
On the backed-up panel vue3 at the house, I have phaseA/B plugged in on the inputs from the transfer switch. On the non-backed-up panel at the house, I do not have PhaseA/B plugged in. I figured they were covered from the shop A/B sensors.
Any help getting this to be something readable would be great, and very appreciated!
The only thing I can think of (so far) is to subtract the power from solar from the other two circuits to get the PGE values… if that makes any sense. Haven’t tried it yet..
Here are the three YAML files: whoops, 2 of them. hit the character limits! Next post.
type or paste code here
esphome:
name: house2
friendly_name: House gen backed
esp32:
board: esp32dev
framework:
type: esp-idf
# Enable Home Assistant API
api:
encryption:
key: !secret housegen__encryption_key
ota:
- platform: esphome
password: !secret housegen__ota_password
external_components:
- source: github://emporia-vue-local/esphome@dev
components:
- emporia_vue
# …and use HA for setting our RTC time locally
time:
- platform: homeassistant
# …and expose a (virtual) "switch" that HA can use to restart us
switch:
- platform: restart
name: Restart
# enable logging, with some customizations
logger:
logs:
# by default, every reading will be printed to the UART, which is very slow
# This will disable printing the readings but keep other helpful messages
sensor: INFO
preferences:
# avoid wearing out the flash lifespan with rapidly-updating sensor data!
# please also make sure `restore: false` is set on all `platform: total_daily_energy` sensors below.
flash_write_interval: "48h"
#wifi:
# ssid: !secret wifi_ssid
# password: !secret wifi_password
# on_connect:
# - light.turn_on: wifi_led
# on_disconnect:
# - light.turn_off: wifi_led
light:
- platform: status_led
id: wifi_led
pin:
number: 2
ignore_strapping_warning: true
restore_mode: RESTORE_DEFAULT_ON
- platform: status_led
id: ethernet_led
pin: 4
restore_mode: ALWAYS_OFF
i2c:
sda:
number: 5
ignore_strapping_warning: true
scl: 18
scan: false
frequency: 400kHz
timeout: 1ms
id: i2c_a
# you can also use Ethernet for connectivity by uncommenting the following
ethernet:
type: RTL8201
mdc_pin: GPIO32
mdio_pin: GPIO33
# clk_mode: GPIO0_IN
on_connect:
- light.turn_on: ethernet_led
on_disconnect:
- light.turn_off: ethernet_led
clk:
pin:
number: GPIO0
mode: CLK_EXT_IN
substitutions:
leg_1: PhaseA
leg_2: PhaseB
#leg_3 (`input: "C"` available but not used in this example)
cir_1: "unused" # unused
cir_2: UPS 2
cir_3: UPS 1
cir_4: MasterBath
cir_5: KitchenLights
cir_6: Microwave
cir_7: FreezerLaundry
cir_8: TVWall
cir_9: Refrigerator
cir_10: CraftTrailerA
cir_11: CraftTrailerB
cir_12: RVgarage
cir_13: Bedroom3
cir_14: KitchenOutlets
cir_15: KitchenIsland # Solar A
cir_16: AirHandler # Solar B
xtra: "Balance" # displaying leftover/unmonitored energy (total minus circs 1–16)
.filters:
# these are called references in YAML. They allow you to reuse
# this configuration in each sensor, while only defining it once
# you can adjust them here, split them up differently, even copy some inline…
- &throttle_avg
# average all raw readings together over a 5 second span before publishing
throttle_average: 5s
- &throttle_time
# only send the most recent measurement every 60 seconds
throttle: 60s
# invert the value for solar
- &neg
# 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
variant: vue3
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: 0.01925 # a starting point, may need adjusted to ensure accuracy!
# To calculate new calibration value use the formula <in-use calibration value> * <accurate voltage> / <reporting voltage>
voltage:
name: "${leg_1} Voltage"
filters: [*throttle_avg, *pos]
frequency:
name: "${leg_1} Frequency"
filters: [*throttle_avg, *pos]
- id: phase_b # see notes above
input: RED
calibration: 0.01925
voltage:
name: "${leg_2} Voltage"
filters: [*throttle_avg, *pos]
phase_angle:
name: "${leg_2} Phase Angle"
filters: [*throttle_avg, *pos]
ct_clamps:
# These non-throttled power sensors are used for accurately calculating energy.
# Recommend not to specify a `name` for any of the power sensors here — only the `id`!
# This leaves them internal to ESPHome locally; post-processed data is sent to HA below.
- phase_id: phase_a
input: "A" # Verify the CT going to these devices input also matches the phase/leg
power:
id: phase_a_power
device_class: power
filters: [*pos]
- phase_id: phase_b
input: "B"
power:
id: phase_b_power
device_class: power
filters: [*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_b, input: "1", power: { id: cir1, filters: [ *neg ] } }
- { phase_id: phase_a, input: "2", power: { id: cir2, filters: [ ] } }
- { phase_id: phase_b, input: "3", power: { id: cir3, filters: [ ] } }
- { phase_id: phase_a, input: "4", power: { id: cir4, filters: [ *neg ] } }
- { phase_id: phase_b, input: "5", power: { id: cir5, filters: [ *neg ] } }
- { phase_id: phase_b, input: "6", power: { id: cir6, filters: [ *neg ] } }
- { phase_id: phase_a, input: "7", power: { id: cir7, filters: [ *neg ] } }
- { phase_id: phase_b, input: "8", power: { id: cir8, filters: [ *neg ] } }
- { phase_id: phase_b, input: "9", power: { id: cir9, filters: [ *neg ] } }
- { phase_id: phase_b, input: "10", power: { id: cir10, filters: [ *neg ] } }
- { phase_id: phase_a, input: "11", power: { id: cir11, filters: [ *neg ] } }
- { phase_id: phase_a, input: "12", power: { id: cir12, filters: [ *neg ] } }
- { phase_id: phase_b, input: "13", power: { id: cir13, filters: [ *neg ] } }
- { phase_id: phase_b, input: "14", power: { id: cir14, filters: [ *neg ] } }
- { phase_id: phase_a, input: "15", power: { id: cir15, filters: [ *neg ] } }
- { phase_id: phase_b, input: "16", power: { id: cir16, filters: [ *neg ] } }
on_update:
then:
- component.update: total_power
- component.update: balance_power
# these `copy` sensors filter and send the power state to HA
- { platform: copy, name: "${leg_1} Power", source_id: phase_a_power, filters: *throttle_avg }
- { platform: copy, name: "${leg_2} Power", source_id: phase_b_power, filters: *throttle_avg }
- { platform: copy, name: "Total Power", source_id: total_power, filters: *throttle_avg }
- { platform: copy, name: "${xtra} Power", source_id: balance_power, filters: *throttle_avg }
- { platform: copy, name: "${cir_1} Power", source_id: cir1, filters: *throttle_avg }
- { platform: copy, name: "${cir_2} Power", source_id: cir2, filters: *throttle_avg }
- { platform: copy, name: "${cir_3} Power", source_id: cir3, filters: *throttle_avg }
- { platform: copy, name: "${cir_4} Power", source_id: cir4, filters: *throttle_avg }
- { platform: copy, name: "${cir_5} Power", source_id: cir5, filters: *throttle_avg }
- { platform: copy, name: "${cir_6} Power", source_id: cir6, filters: *throttle_avg }
- { platform: copy, name: "${cir_7} Power", source_id: cir7, filters: *throttle_avg }
- { platform: copy, name: "${cir_8} Power", source_id: cir8, filters: *throttle_avg }
- { platform: copy, name: "${cir_9} Power", source_id: cir9, filters: *throttle_avg }
- { platform: copy, name: "${cir_10} Power", source_id: cir10, filters: *throttle_avg }
- { platform: copy, name: "${cir_11} Power", source_id: cir11, filters: *throttle_avg }
- { platform: copy, name: "${cir_12} Power", source_id: cir12, filters: *throttle_avg }
- { platform: copy, name: "${cir_13} Power", source_id: cir13, filters: *throttle_avg }
- { platform: copy, name: "${cir_14} Power", source_id: cir14, filters: *throttle_avg }
- { platform: copy, name: "${cir_15} Power", source_id: cir15, filters: *throttle_avg }
- { platform: copy, name: "${cir_16} Power", source_id: cir16, filters: *throttle_avg }
- platform: template
lambda: return id(phase_a_power).state + id(phase_b_power).state;
update_interval: never # will be updated after all power sensors update via on_update trigger
id: total_power
device_class: power
state_class: measurement
unit_of_measurement: "W"
- platform: total_daily_energy
name: "Total Daily Energy"
power_id: total_power
accuracy_decimals: 0
restore: false
filters: *throttle_time
- platform: template
lambda: !lambda |-
return max(0.0f, id(total_power).state -
id( cir2).state -
id( cir3).state -
id( cir4).state -
id( cir5).state -
id( cir6).state -
id( cir7).state -
id( cir8).state -
id( cir9).state -
id(cir10).state -
id(cir11).state -
id(cir12).state -
id(cir13).state -
id(cir14).state -
id(cir15).state -
id(cir16).state);
update_interval: never # still happens, but via `on_update` trigger (*after* all power sensors update)
id: balance_power
device_class: power
state_class: measurement
unit_of_measurement: "W"
- platform: total_daily_energy
name: "${xtra} Daily Energy"
power_id: balance_power
accuracy_decimals: 0
restore: false
filters: *throttle_time
- { power_id: cir1, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_1} Daily Energy", filters: *throttle_time }
- { power_id: cir2, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_2} Daily Energy", filters: *throttle_time }
- { power_id: cir3, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_3} Daily Energy", filters: *throttle_time }
- { power_id: cir4, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_4} Daily Energy", filters: *throttle_time }
- { power_id: cir5, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_5} Daily Energy", filters: *throttle_time }
- { power_id: cir6, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_6} Daily Energy", filters: *throttle_time }
- { power_id: cir7, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_7} Daily Energy", filters: *throttle_time }
- { power_id: cir8, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_8} Daily Energy", filters: *throttle_time }
- { power_id: cir9, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_9} Daily Energy", filters: *throttle_time }
- { power_id: cir10, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_10} Daily Energy", filters: *throttle_time }
- { power_id: cir11, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_11} Daily Energy", filters: *throttle_time }
- { power_id: cir12, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_12} Daily Energy", filters: *throttle_time }
- { power_id: cir13, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_13} Daily Energy", filters: *throttle_time }
- { power_id: cir14, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_14} Daily Energy", filters: *throttle_time }
- { power_id: cir15, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_15} Daily Energy", filters: *throttle_time }
- { power_id: cir16, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_16} Daily Energy", filters: *throttle_time }
Next:
esphome:
name: houseutil3
friendly_name: House Utility Panel
esp32:
board: esp32dev
framework:
type: esp-idf
# Enable Home Assistant API
api:
encryption:
key: !secret housegen__encryption_key
ota:
- platform: esphome
password: !secret housegen__ota_password
external_components:
- source: github://emporia-vue-local/esphome@dev
components:
- emporia_vue
# …and use HA for setting our RTC time locally
time:
- platform: homeassistant
# …and expose a (virtual) "switch" that HA can use to restart us
switch:
- platform: restart
name: Restart
# enable logging, with some customizations
logger:
logs:
# by default, every reading will be printed to the UART, which is very slow
# This will disable printing the readings but keep other helpful messages
sensor: INFO
preferences:
# avoid wearing out the flash lifespan with rapidly-updating sensor data!
# please also make sure `restore: false` is set on all `platform: total_daily_energy` sensors below.
flash_write_interval: "48h"
#wifi:
# ssid: !secret wifi_ssid
# password: !secret wifi_password
# on_connect:
# - light.turn_on: wifi_led
# on_disconnect:
# - light.turn_off: wifi_led
light:
- platform: status_led
id: wifi_led
pin:
number: 2
ignore_strapping_warning: true
restore_mode: RESTORE_DEFAULT_ON
- platform: status_led
id: ethernet_led
pin: 4
restore_mode: ALWAYS_OFF
i2c:
sda:
number: 5
ignore_strapping_warning: true
scl: 18
scan: false
frequency: 400kHz
timeout: 1ms
id: i2c_a
# you can also use Ethernet for connectivity by uncommenting the following
ethernet:
type: RTL8201
mdc_pin: GPIO32
mdio_pin: GPIO33
# clk_mode: GPIO0_IN
on_connect:
- light.turn_on: ethernet_led
on_disconnect:
- light.turn_off: ethernet_led
clk:
pin:
number: GPIO0
mode: CLK_EXT_IN
substitutions:
leg_1: PhaseAutil
leg_2: PhaseButil
#leg_3 (`input: "C"` available but not used in this example)
cir_1: oven
cir_2: spaA
cir_3: spaB
cir_4: dryerA
cir_5: pantry
cir_6: dishwasher
cir_7: disposal-compact
cir_8: kitch-app
cir_9: livingRmLights
cir_10: laundryLight
cir_11: garage
cir_12: guestBath
cir_13: laundryOutlet
cir_14: masterBedroom
cir_15: guestBath2
cir_16: washer
xtra: "Balance" # displaying leftover/unmonitored energy (total minus circs 1–16)
.filters:
# these are called references in YAML. They allow you to reuse
# this configuration in each sensor, while only defining it once
# you can adjust them here, split them up differently, even copy some inline…
- &throttle_avg
# average all raw readings together over a 5 second span before publishing
throttle_average: 5s
- &throttle_time
# only send the most recent measurement every 60 seconds
throttle: 60s
# invert the value for solar
- &neg
# 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
variant: vue3
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: 0.01925 # a starting point, may need adjusted to ensure accuracy!
# To calculate new calibration value use the formula <in-use calibration value> * <accurate voltage> / <reporting voltage>
voltage:
name: "${leg_1} Voltage"
filters: [*throttle_avg, *pos]
frequency:
name: "${leg_1} Frequency"
filters: [*throttle_avg, *pos]
- id: phase_b # see notes above
input: RED
calibration: 0.01925
voltage:
name: "${leg_2} Voltage"
filters: [*throttle_avg, *pos]
phase_angle:
name: "${leg_2} Phase Angle"
filters: [*throttle_avg, *pos]
ct_clamps:
# These non-throttled power sensors are used for accurately calculating energy.
# Recommend not to specify a `name` for any of the power sensors here — only the `id`!
# This leaves them internal to ESPHome locally; post-processed data is sent to HA below.
- phase_id: phase_a
input: "A" # Verify the CT going to these devices input also matches the phase/leg
power:
id: phase_a_power
device_class: power
filters: [*pos]
- phase_id: phase_b
input: "B"
power:
id: phase_b_power
device_class: power
filters: [*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: { id: cir1, filters: [ *neg ] } }
- { phase_id: phase_b, input: "2", power: { id: cir2, filters: [ *neg ] } }
- { phase_id: phase_a, input: "3", power: { id: cir3, filters: [ *neg ] } }
- { phase_id: phase_b, input: "4", power: { id: cir4, filters: [ *neg ] } }
- { phase_id: phase_b, input: "5", power: { id: cir5, filters: [ *neg ] } }
- { phase_id: phase_a, input: "6", power: { id: cir6, filters: [ *neg ] } }
- { phase_id: phase_a, input: "7", power: { id: cir7, filters: [ *neg ] } }
- { phase_id: phase_b, input: "8", power: { id: cir8, filters: [ *neg ] } }
- { phase_id: phase_b, input: "9", power: { id: cir9, filters: [ *neg ] } }
- { phase_id: phase_b, input: "10", power: { id: cir10, filters: [ *neg ] } }
- { phase_id: phase_a, input: "11", power: { id: cir11, filters: [ *neg ] } }
- { phase_id: phase_a, input: "12", power: { id: cir12, filters: [ *neg ] } }
- { phase_id: phase_b, input: "13", power: { id: cir13, filters: [ *neg ] } }
- { phase_id: phase_b, input: "14", power: { id: cir14, filters: [ *neg ] } }
- { phase_id: phase_a, input: "15", power: { id: cir15, filters: [ *neg ] } }
- { phase_id: phase_a, input: "16", power: { id: cir16, filters: [ *neg ] } }
on_update:
then:
- component.update: total_power
- component.update: balance_power
# these `copy` sensors filter and send the power state to HA
- { platform: copy, name: "${leg_1} Power", source_id: phase_a_power, filters: *throttle_avg }
- { platform: copy, name: "${leg_2} Power", source_id: phase_b_power, filters: *throttle_avg }
- { platform: copy, name: "Total Power", source_id: total_power, filters: *throttle_avg }
- { platform: copy, name: "${xtra} Power", source_id: balance_power, filters: *throttle_avg }
- { platform: copy, name: "${cir_1} Power", source_id: cir1, filters: *throttle_avg }
- { platform: copy, name: "${cir_2} Power", source_id: cir2, filters: *throttle_avg }
- { platform: copy, name: "${cir_3} Power", source_id: cir3, filters: *throttle_avg }
- { platform: copy, name: "${cir_4} Power", source_id: cir4, filters: *throttle_avg }
- { platform: copy, name: "${cir_5} Power", source_id: cir5, filters: *throttle_avg }
- { platform: copy, name: "${cir_6} Power", source_id: cir6, filters: *throttle_avg }
- { platform: copy, name: "${cir_7} Power", source_id: cir7, filters: *throttle_avg }
- { platform: copy, name: "${cir_8} Power", source_id: cir8, filters: *throttle_avg }
- { platform: copy, name: "${cir_9} Power", source_id: cir9, filters: *throttle_avg }
- { platform: copy, name: "${cir_10} Power", source_id: cir10, filters: *throttle_avg }
- { platform: copy, name: "${cir_11} Power", source_id: cir11, filters: *throttle_avg }
- { platform: copy, name: "${cir_12} Power", source_id: cir12, filters: *throttle_avg }
- { platform: copy, name: "${cir_13} Power", source_id: cir13, filters: *throttle_avg }
- { platform: copy, name: "${cir_14} Power", source_id: cir14, filters: *throttle_avg }
- { platform: copy, name: "${cir_15} Power", source_id: cir15, filters: *throttle_avg }
- { platform: copy, name: "${cir_16} Power", source_id: cir16, filters: *throttle_avg }
- platform: template
lambda: return id(phase_a_power).state + id(phase_b_power).state;
update_interval: never # will be updated after all power sensors update via on_update trigger
id: total_power
device_class: power
state_class: measurement
unit_of_measurement: "W"
- platform: total_daily_energy
name: "Total Daily Energy"
power_id: total_power
accuracy_decimals: 0
restore: false
filters: *throttle_time
- platform: template
lambda: !lambda |-
return max(0.0f, id(total_power).state -
id( cir2).state -
id( cir3).state -
id( cir4).state -
id( cir5).state -
id( cir6).state -
id( cir7).state -
id( cir8).state -
id( cir9).state -
id(cir10).state -
id(cir11).state -
id(cir12).state -
id(cir13).state -
id(cir14).state -
id(cir15).state -
id(cir16).state);
update_interval: never # still happens, but via `on_update` trigger (*after* all power sensors update)
id: balance_power
device_class: power
state_class: measurement
unit_of_measurement: "W"
- platform: total_daily_energy
name: "${xtra} Daily Energy"
power_id: balance_power
accuracy_decimals: 0
restore: false
filters: *throttle_time
- { power_id: cir1, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_1} Daily Energy", filters: *throttle_time }
- { power_id: cir2, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_2} Daily Energy", filters: *throttle_time }
- { power_id: cir3, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_3} Daily Energy", filters: *throttle_time }
- { power_id: cir4, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_4} Daily Energy", filters: *throttle_time }
- { power_id: cir5, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_5} Daily Energy", filters: *throttle_time }
- { power_id: cir6, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_6} Daily Energy", filters: *throttle_time }
- { power_id: cir7, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_7} Daily Energy", filters: *throttle_time }
- { power_id: cir8, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_8} Daily Energy", filters: *throttle_time }
- { power_id: cir9, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_9} Daily Energy", filters: *throttle_time }
- { power_id: cir10, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_10} Daily Energy", filters: *throttle_time }
- { power_id: cir11, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_11} Daily Energy", filters: *throttle_time }
- { power_id: cir12, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_12} Daily Energy", filters: *throttle_time }
- { power_id: cir13, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_13} Daily Energy", filters: *throttle_time }
- { power_id: cir14, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_14} Daily Energy", filters: *throttle_time }
- { power_id: cir15, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_15} Daily Energy", filters: *throttle_time }
- { power_id: cir16, platform: total_daily_energy, accuracy_decimals: 0, restore: false, name: "${cir_16} Daily Energy", filters: *throttle_time }