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goodwe-addon/goodwe_controller/app/messages.py
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glenn schrooyenandClaude Opus 5.5 571b884315
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UX-08 phase 2b review: keep over-rating evidence, pin latch clearing, plainer rows
- During a bound episode an earlier over-rating count stays on the page (amber,
  under its own title); test_clamp pins it.
- test_messages pins that every latch row says how it clears.
- pv_entities description no longer claims the page names the entity (en, nl);
  allowlist hash updated for that option-desc line.
- Plainer texts: multi-inverter direction banner, "fine now" after an episode,
  and the e-stop, peak-forecast and peak-guard-waiting rows move to messages.py.
- TEL-12 DECISIONS points to UX-08 item 3 for the retired row rule.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-09-27 03:10:25 +02:00

677 lines
27 KiB
Python

"""Every Home Assistant notification this add-on raises, in plain words (UX-08).
The rule is `STYLE.md` at the repository root; `test_messages.py` enforces it.
Titles, bodies and severities live here and nowhere else, so `main.py` only
decides WHEN to raise a notice and this file decides WHAT it says. The detail
that used to fill the bodies is in DOCS.md, under "Notifications", one section
per title; the body ends with a link to it.
"""
import os
import re
from dataclasses import dataclass
# Severity (STYLE.md section 3). An ALARM may use up to three sentences so
# that no action a person must take is lost; everything else gets one.
ALARM, WARNING, INFO, RESOLVED = "alarm", "warning", "info", "resolved"
DOCS_SECTION = "Notifications"
def watts(value) -> str:
"""`7412` -> `7 412 W`: a magnitude, grouped for reading, no sign."""
return f"{abs(float(value)):,.0f} W".replace(",", " ")
def duration(seconds) -> str:
s = float(seconds)
if s < 120:
return f"{s:.0f} seconds"
return f"{s / 60:.0f} minutes"
def names(items) -> str:
items = list(items)
if len(items) <= 1:
return "".join(items)
return ", ".join(items[:-1]) + " and " + items[-1]
def addon_slug() -> str | None:
"""This add-on's Supervisor slug, from the container hostname.
The Supervisor names an add-on's host after its slug with `_` spelled `-`
(`local_goodwe_controller` -> `local-goodwe-controller`). Anything else,
e.g. a test run, gets no link rather than a wrong one.
"""
host = os.environ.get("HOSTNAME", "")
if re.fullmatch(r"[a-z0-9]+-goodwe-controller", host):
return host.replace("-", "_")
return None
def details(title: str) -> str:
where = f"section “{title}” under {DOCS_SECTION}"
slug = addon_slug()
if slug is None:
return f"Details: add-on documentation, {where}."
return (f"Details: [add-on documentation](/hassio/addon/{slug}/documentation),"
f" {where}.")
@dataclass(frozen=True)
class Notice:
id: str
severity: str
title: str
body: str
section: str = "" # the DOCS.md heading, when it is not the title itself
@property
def docs(self) -> str:
return self.section or self.title
def data(self) -> dict:
"""The `persistent_notification.create` payload."""
return {"notification_id": self.id, "title": self.title,
"message": f"{self.body}\n\n{details(self.docs)}"}
# --- the catalogue ----------------------------------------------------------
# Each title below is also a DOCS.md heading (test_messages.py checks it).
T_LOOP_BOUND = "Battery is not keeping up"
T_OUTPUT_CLAMP = "Power request too high"
T_PEAK_SATURATED = "Load too high for battery"
T_PEAK_RESERVE = "Battery stopped limiting the peak"
T_CIRCULATING = "Inverters working against each other"
T_NOT_DELIVERING = "{unit} is not delivering"
S_NOT_DELIVERING = "An inverter is not delivering"
T_METER_FROZEN = "Meter reading may be stuck"
ID_LOOP_BOUND = "goodwe_integrator_bound"
ID_OUTPUT_CLAMP = "goodwe_output_clamp"
ID_PEAK_SATURATED = "goodwe_peak_saturated"
ID_PEAK_RESERVE = "goodwe_peak_soc_floor"
ID_CIRCULATING = "goodwe_circulating_power"
ID_NOT_DELIVERING = "goodwe_not_delivering_{slug}"
ID_METER_FROZEN = "goodwe_meter_frozen"
# Which limit cut a command (clamp.ClampResult.bound, plus the loop's own).
LIMIT_WORDS = {
"max_w": "the configured inverter rating",
"device": "the inverter's own limit",
"max_w+device": "the configured inverter rating and the inverter's own limit",
"rating": "the inverter rating",
}
def loop_bound() -> Notice:
"""SAFETY-40: the integrator bound. Normal in short bursts; not a fault."""
return Notice(ID_LOOP_BOUND, WARNING, T_LOOP_BOUND,
"The battery cannot give what the controller asks, which is "
"normal for a moment but needs a check if it keeps happening.")
@dataclass(frozen=True)
class Clamp:
"""One command that was cut: what was asked, what was sent, and by what."""
unit: str | None
asked_w: float
sent_w: float
limit: str # a key of LIMIT_WORDS
def output_clamp(clamps) -> Notice:
"""SAFETY-03: a computed command above the limit. A software fault.
Asked comes before sent, always - reading them the other way round turns
the alarm backwards (test_clamp.py part 6).
"""
if not clamps:
return Notice(ID_OUTPUT_CLAMP, ALARM, T_OUTPUT_CLAMP,
"The controller asked for more power than the inverter "
"rating and was cut back. Control is still running. This "
"is a software fault, so please report it to your "
"installer.")
c = clamps[0]
who = f"For {c.unit}, the" if c.unit else "The"
others = [x.unit for x in clamps[1:] if x.unit]
running = (f"{names(others)} {'was' if len(others) == 1 else 'were'} cut "
f"too, and control is still running." if others
else "Control is still running.")
return Notice(ID_OUTPUT_CLAMP, ALARM, T_OUTPUT_CLAMP,
f"{who} controller asked for {watts(c.asked_w)}, above "
f"{LIMIT_WORDS.get(c.limit, LIMIT_WORDS['rating'])}, and sent "
f"{watts(c.sent_w)} instead. {running} "
f"This is a software fault, so please report it to your "
f"installer.")
def peak_saturated(ceiling_w) -> Notice:
"""SAFETY-07: the battery gives all it can and the peak still goes up."""
return Notice(ID_PEAK_SATURATED, ALARM, T_PEAK_SATURATED,
f"The battery is giving all it can, but this 15-minute period "
f"will still go over your {watts(ceiling_w)} peak limit and "
f"raise this month's peak. Switch off large loads in the next "
f"few minutes. This is not a fault: the load is bigger than "
f"the inverter.")
def peak_reserve(ceiling_w, *, soc_unread: bool, floor_unknown: bool,
packs=()) -> Notice:
"""SAFETY-24/25/32: the peak guard may not discharge any further.
The last sentence is SAFETY-25 and must stay: the reserve binds the peak
guard only, and normal home use goes on discharging below it.
`packs` names the batteries at their limit, only on a site with several.
`floor_unknown`: the floor the guard grades against is None, which at a
roster means some inverter's cut-out level is missing (the peak reserve
itself always has a value) - so the action names the cut-out level.
"""
if soc_unread:
why = "The battery level cannot be read"
act = "Switch off large loads, and check the battery level sensor."
elif floor_unknown:
why = "The cut-out level of a battery is not known"
act = ("Switch off large loads, and set each battery's cut-out level "
"in the settings.")
else:
why = (f"The battery of {names(packs)} is at its peak reserve" if packs
else "The battery is at its peak reserve")
act = ("Switch off large loads, or lower the peak reserve if the "
"battery allows it.")
return Notice(ID_PEAK_RESERVE, ALARM, T_PEAK_RESERVE,
f"{why}, so this 15-minute period will go over your "
f"{watts(ceiling_w)} peak limit and raise this month's peak. "
f"{act} The reserve only applies to keeping the peak down: normal home use "
f"can still discharge the battery below it, down to its "
f"cut-out level.")
def circulating(discharging=(), charging=()) -> Notice:
"""SAFETY-31: the inverters push power round each other. Control stopped."""
if discharging and charging:
what = (f"{names(discharging)} was discharging while "
f"{names(charging)} was charging, and your meter cannot see "
f"this.")
else:
what = ("One inverter was charging from another, and your meter "
"cannot see this.")
return Notice(ID_CIRCULATING, ALARM, T_CIRCULATING,
f"{what} Every inverter is set to 0 W: if the grid power does "
f"not change now, switch the inverters off at the isolator. "
f"Control stays stopped, even after a restart, until you "
f"start it on the add-on page once you know why.")
def not_delivering(unit: str, slug: str) -> Notice:
"""SAFETY-42: one inverter gives less than its share. Reports, never acts."""
return Notice(
ID_NOT_DELIVERING.format(slug=slug), ALARM,
T_NOT_DELIVERING.format(unit=unit),
f"{unit} gives less power than it is asked for, but nothing was "
f"changed and control keeps running. Check that {unit} is "
f"on and connected, that its battery is not empty or cold, and that "
f"nothing else controls it. A restart does not clear this: once you "
f"know why, stop and start control on the add-on page.",
section=S_NOT_DELIVERING)
def meter_frozen(unchanged_s) -> Notice:
"""SAFETY-18: the meter answers but its value does not move."""
return Notice(ID_METER_FROZEN, ALARM, T_METER_FROZEN,
f"The meter has shown the same value for "
f"{duration(unchanged_s)} while the controller asks the "
f"battery for full power. Control is still running and still "
f"follows this reading. Check the meter, and if it is stuck, "
f"stop control on the add-on page.")
# --- the status page (UX-08 phase 2b) ----------------------------------------
# The rows of the Commissioning list and the banner at the top of the add-on
# page. `main.py` decides WHEN a row shows and its colour (ok / warn / bad);
# these decide WHAT it says. A row is one sentence of at most 15 words; a red
# row may use up to 3 sentences and 30 words. A banner is at most 12 words.
# Rows never name a Home Assistant entity: they name the setting in words.
# DOCS.md, "Status page", explains every row.
NOT_READY = "Not ready"
DOCS_STATUS = "Status page"
def signed_watts(value) -> str:
"""`-1200` -> `-1 200 W`: like `watts()`, but the sign is kept."""
return f"{float(value):,.0f} W".replace(",", " ")
def seconds(value) -> str:
"""Always in seconds, for a live count set against its limit."""
n = f"{float(value):.0f}"
return f"{n} second" if n == "1" else f"{n} seconds"
def times(n) -> str:
return "1 time" if int(n) == 1 else f"{int(n)} times"
def for_unit(unit) -> str:
"""` for inverter-b` on a site with several inverters, else nothing."""
return f" for {unit}" if unit else ""
def headline(text: str) -> str:
"""The first sentence of a row, for the banner when the row has no own."""
first = re.split(r"(?<=[.!?])\s+(?=[A-Z0-9])", text.strip(), maxsplit=1)[0]
return first.rstrip(".")
# Banners (the headline at the top of the page).
def banner_not_ready(row: dict) -> str:
return f"{NOT_READY} — {row.get('banner') or headline(row['text'])}"
def banner_circulating() -> str:
return "Inverters worked against each other. Every inverter is set to 0 W."
def banner_site_direction() -> str:
return "Total command and meter point opposite ways. All inverters at 0 W."
def banner_direction(several: bool) -> str:
if several:
return "An inverter's own power opposes its command. It is at 0 W."
return "Command and meter point opposite ways. Inverter set to 0 W."
def banner_not_delivering(units) -> str:
units = list(units)
verb = "are" if len(units) > 1 else "is"
return f"{names(units)} {verb} not delivering. Control keeps running."
# Rows: the controller and the meter.
def row_controller_starting() -> str:
return "Controller: starting"
def row_controller_ran(age_s) -> str:
return f"Controller: last ran {seconds(age_s)} ago"
def row_controller_stalled(age_s, veto_s) -> str:
return (f"Controller has not run for {seconds(age_s)}. The control board "
f"sets the inverter to 0 W after {seconds(veto_s)}.")
def row_meter_stale(age_s, limit_s) -> str:
return (f"Meter: no reading for {seconds(age_s)}, limit "
f"{seconds(limit_s)}. The add-on log shows why.")
def row_meter(net_w, age_s, rejected=0, unchanged_s=None) -> str:
return (f"Meter: {signed_watts(net_w)}, {seconds(age_s)} old"
+ (f", {rejected} readings refused" if rejected else "")
+ ("" if unchanged_s is None
else f", unchanged for {duration(unchanged_s)}"))
def row_meter_frozen() -> str:
return (f"{T_METER_FROZEN}. Control still follows it. Check the meter, "
f"and stop control if it is stuck.")
FREEZE_OFF = {
"source": "it only works with the HomeWizard local meter source",
"rating": "the inverter rating is not set",
"range": "the inverter reports no usable power range",
}
def row_freeze_off(why: str) -> str:
"""`why` is a key of FREEZE_OFF: why the stuck-meter check cannot run."""
return f"Stuck-meter check: off, {FREEZE_OFF[why]}"
def row_freeze_on(hold_s, rail_w, own_limit: bool) -> str:
return (f"Stuck-meter check: alerts after {duration(hold_s)} unchanged "
f"above {watts(rail_w)}"
+ (", the inverter's own limit" if own_limit else ""))
# Rows: the peak guard.
def row_peak_saturated(ceiling_w) -> str:
return (f"{T_PEAK_SATURATED}. Switch off large loads to stay under the "
f"{watts(ceiling_w)} peak limit.")
def row_peak_reserve(ceiling_w, *, soc_unread: bool, floor_unknown: bool,
packs=()) -> str:
"""SAFETY-24/25/32. The second sentence is SAFETY-25 and must stay."""
if soc_unread:
why = "Battery level cannot be read"
elif floor_unknown:
why = "A battery cut-out level is not set"
else:
why = (f"{names(packs)} battery at its peak reserve" if packs
else "Battery at its peak reserve")
return (f"{why}, so the {watts(ceiling_w)} peak limit will be passed. Home "
f"use still discharges below the reserve, down to the cut-out level.")
def row_peak_guard_off() -> str:
"""No meter source: the 15-minute average cannot be measured."""
return ("Peak guard: off, it needs a meter source instead of the grid "
"power sensor")
def banner_peak_reserve() -> str:
return T_PEAK_RESERVE
# Rows: the sensors and the inverter control.
LABEL_SOC = "Battery level"
LABEL_BATTERY = "Battery power"
LABEL_GRID = "Grid power"
def row_sensor(label, value, unit=None) -> str:
shown = f"{float(value):g} %" if label.startswith(LABEL_SOC) \
else signed_watts(value)
return f"{label}{for_unit(unit)}: {shown}"
def row_sensor_unset(label, unit=None) -> str:
return f"{label}{for_unit(unit)}: no sensor set in the settings"
def row_sensor_unusable(label, unit=None) -> str:
"""SAFETY-56: it may be missing OR held back as stale; say both."""
return (f"{label}{for_unit(unit)}: no usable reading. The sensor may be "
f"missing, or its reading is held back as too old. Check it in "
f"Developer Tools before replacing it.")
def row_control_unset(unit=None) -> str:
return f"Inverter control{for_unit(unit)}: not set in the settings"
def row_control_missing(unit=None) -> str:
return f"Inverter control{for_unit(unit)}: not found in Home Assistant"
def row_control(lo_w, hi_w, unit=None) -> str:
def w(v):
return "?" if v is None else signed_watts(v)
return f"Inverter control{for_unit(unit)}: ready, from {w(lo_w)} to {w(hi_w)}"
# Rows: the two loop alarms. The names are the notification titles, so the
# row and the card always call the same thing by the same name (UX-07 item 1).
def row_power_too_high(clamps, count) -> str:
c = clamps[0] if clamps else None
what = (f"asked {watts(c.asked_w)}{for_unit(c.unit)}, sent "
f"{watts(c.sent_w)}. Cut back" if c else "cut back")
return (f"{T_OUTPUT_CLAMP}: {what} {times(count)} since start. This is a "
f"software fault, so please report it.")
def banner_power_too_high() -> str:
return T_OUTPUT_CLAMP
def row_not_keeping_up(count) -> str:
return f"{T_LOOP_BOUND}: {times(count)} since start"
def row_before(title, count) -> str:
"""After an episode clears: how often it happened, so the evidence stays."""
return f"{title}: {times(count)} since start, fine now"
def row_write_refused(unit=None) -> str:
return (f"{unit or 'The inverter'} refused the last command. Check the "
f"add-on log.")
# Rows: the direction checks (SAFETY-02/30).
def row_direction_trip(unit=None) -> str:
"""Per inverter. `unit` only at several inverters, graded on its own power."""
what = (f"{unit}: command and its own power point opposite ways, so it is"
if unit else "Command and meter point opposite ways, so the "
"inverter is")
return (f"{what} set to 0 W. Find out why, then start control. A restart "
f"does not clear this.")
def row_direction_check(held_s, hold_s, unit=None) -> str:
who = (f"Direction check for {unit}, against its own power" if unit
else "Direction check")
if held_s:
return f"{who}: opposite for {held_s:.0f} of {seconds(hold_s)}"
return f"{who}: on"
def row_site_direction_trip() -> str:
return ("Total command and meter point opposite ways, so every inverter is "
"set to 0 W. The cause is the total, not one inverter. Only starting "
"control clears this.")
def row_site_direction_check(held_s, hold_s) -> str:
if held_s:
return (f"Site direction check: opposite for {held_s:.0f} of "
f"{seconds(hold_s)}")
return "Site direction check: on, against the meter"
# Rows: circulating power (SAFETY-31) and delivery (SAFETY-42).
def row_circulating_trip() -> str:
return ("Inverters worked against each other, so every inverter is set to "
"0 W. The meter cannot see this. Only starting control clears this.")
def row_circulating_check(now_w, held_s, hold_s) -> str:
return ("Circulating power check: on"
+ (f", now {watts(now_w)}" if now_w else "")
+ (f", for {held_s:.0f} of {seconds(hold_s)}" if held_s else ""))
def row_one_inverter(check: str) -> str:
return f"{check}: not needed with one inverter"
def row_not_delivering(unit) -> str:
return (f"{unit} is not delivering, and only stopping and starting control "
f"clears this")
def row_delivery_check(unit, short_s, hold_s) -> str:
if short_s:
return (f"Delivery check for {unit}: short for {short_s:.0f} of "
f"{seconds(hold_s)}")
return f"Delivery check for {unit}: on"
def row_estop_fitted() -> str:
return "Emergency stop: fitted"
def row_no_peak_forecast() -> str:
return ("No peak forecast set, so maintenance charging is not kept under "
"the peak limit")
def row_peak_guard_waiting() -> str:
return "Peak guard: no decision yet, control has not run"
def row_no_estop() -> str:
return ("No emergency stop fitted: if this computer fails, the battery "
"keeps its last command")
# Rows: solar production (TEL-11/12/14). Sources are numbered in the order of
# the solar sensor list in the settings.
def source(n, of) -> str:
return "the sensor" if of == 1 else f"source {n}"
def pv_problem(why: str) -> str:
"""`pv.watts()`'s reason, in plain words."""
w = str(why)
if w.startswith("no state"):
return "the sensor is missing"
if w.startswith("entity is"):
return "the sensor is unavailable"
if w.endswith("is not numeric"):
return "the reading is not a number"
if w.startswith("no unit"):
return "the sensor has no unit"
if w.startswith("unit "):
return "the sensor's unit is not a power unit"
return "the reading is not usable"
def row_pv(total_w, count, reversed_=False) -> str:
return (f"Solar production: {signed_watts(total_w)}"
+ (f" from {count} sources" if count > 1 else "")
+ (", sign reversed" if reversed_ else ""))
def row_pv_none(why) -> str:
return f"Solar production: no reading, {pv_problem(why)}"
def row_pv_partial(missing, count) -> str:
"""`missing` are the 1-based positions of the sources that did not report."""
which = names([str(n) for n in missing])
return (f"Solar production: no total, source{'s' if len(missing) > 1 else ''} "
f"{which} of {count} {'have' if len(missing) > 1 else 'has'} no "
f"reading")
def row_pv_single_ignored() -> str:
return ("Solar production: clear the single sensor setting, the list "
"replaces it")
def row_pv_negative(n, count, value_w, flipped: bool) -> str:
fix = ("remove it from" if flipped else "add it to")
who = source(n, count)
return (f"Solar production: {who} reads {signed_watts(value_w)}, "
f"so {fix} the reversed-sign list")
def row_pv_stray(n) -> str:
return (f"Solar production: entry {n} of the reversed-sign list is not a "
f"solar sensor in use")
RED, AMBER, GREEN = "bad", "warn", "ok"
def status_samples() -> list:
"""`(function name, colour, text)` for every row and banner, for the test.
The colour is the one main.py gives the row; a red row may use three
sentences. Banners are listed with the colour None.
"""
clamp = [Clamp(None, 7412, 5000, "rating")]
return [
("banner_not_ready", None, banner_not_ready(
{"text": row_meter_frozen()})),
("banner_not_ready", None, banner_not_ready(
{"text": "x", "banner": banner_peak_reserve()})),
("banner_circulating", None, banner_circulating()),
("banner_site_direction", None, banner_site_direction()),
("banner_direction", None, banner_direction(False)),
("banner_direction", None, banner_direction(True)),
("banner_not_delivering", None, banner_not_delivering(["inverter-b"])),
("banner_peak_reserve", None, banner_peak_reserve()),
("banner_power_too_high", None, banner_power_too_high()),
("row_controller_starting", GREEN, row_controller_starting()),
("row_controller_ran", GREEN, row_controller_ran(2)),
("row_controller_stalled", RED, row_controller_stalled(45, 30)),
("row_meter_stale", RED, row_meter_stale(40, 10)),
("row_meter", GREEN, row_meter(-350, 2, 3, 340)),
("row_meter_frozen", RED, row_meter_frozen()),
*(("row_freeze_off", AMBER, row_freeze_off(k)) for k in FREEZE_OFF),
("row_freeze_on", GREEN, row_freeze_on(600, 4465, True)),
("row_peak_saturated", RED, row_peak_saturated(5000)),
("row_peak_guard_off", AMBER, row_peak_guard_off()),
("row_peak_reserve", RED, row_peak_reserve(
5000, soc_unread=False, floor_unknown=False, packs=["inverter-b"])),
("row_peak_reserve", RED, row_peak_reserve(
5000, soc_unread=True, floor_unknown=False)),
("row_peak_reserve", RED, row_peak_reserve(
5000, soc_unread=False, floor_unknown=True)),
("row_sensor", GREEN, row_sensor(LABEL_SOC, 54, "inverter-b")),
("row_sensor", GREEN, row_sensor(LABEL_BATTERY, -1200.0, "inverter-b")),
("row_sensor_unset", RED, row_sensor_unset(LABEL_GRID)),
("row_sensor_unusable", RED, row_sensor_unusable(LABEL_BATTERY,
"inverter-b")),
("row_control_unset", RED, row_control_unset("inverter-b")),
("row_control_missing", RED, row_control_missing("inverter-b")),
("row_control", GREEN, row_control(-5000, 5000, "inverter-b")),
("row_power_too_high", RED, row_power_too_high(clamp, 3)),
("row_power_too_high", RED, row_power_too_high(
[Clamp("inverter-b", 6000, 4600, "max_w+device")], 12)),
("row_power_too_high", RED, row_power_too_high((), 1)),
("row_not_keeping_up", AMBER, row_not_keeping_up(48)),
("row_before", AMBER, row_before(T_OUTPUT_CLAMP, 2)),
("row_before", AMBER, row_before(T_LOOP_BOUND, 1)),
("row_write_refused", RED, row_write_refused("inverter-b")),
("row_direction_trip", RED, row_direction_trip()),
("row_direction_trip", RED, row_direction_trip("inverter-b")),
("row_direction_check", GREEN, row_direction_check(0, 60)),
("row_direction_check", GREEN, row_direction_check(12, 60,
"inverter-b")),
("row_site_direction_trip", RED, row_site_direction_trip()),
("row_site_direction_check", GREEN, row_site_direction_check(0, 60)),
("row_site_direction_check", GREEN, row_site_direction_check(5, 60)),
("row_circulating_trip", RED, row_circulating_trip()),
("row_circulating_check", GREEN, row_circulating_check(1200, 20, 60)),
("row_one_inverter", GREEN, row_one_inverter("Delivery check")),
("row_not_delivering", AMBER, row_not_delivering("inverter-b")),
("row_delivery_check", GREEN, row_delivery_check("inverter-b", 30, 120)),
("row_delivery_check", GREEN, row_delivery_check("inverter-b", 0, 120)),
("row_no_estop", AMBER, row_no_estop()),
("row_estop_fitted", GREEN, row_estop_fitted()),
("row_no_peak_forecast", AMBER, row_no_peak_forecast()),
("row_peak_guard_waiting", AMBER, row_peak_guard_waiting()),
("row_pv", GREEN, row_pv(3200, 2)),
("row_pv", GREEN, row_pv(1800, 1, True)),
("row_pv_none", AMBER, row_pv_none("no unit_of_measurement on the "
"entity - it cannot be read in watts")),
("row_pv_partial", AMBER, row_pv_partial([2, 3], 3)),
("row_pv_partial", AMBER, row_pv_partial([2], 2)),
("row_pv_single_ignored", AMBER, row_pv_single_ignored()),
("row_pv_negative", AMBER, row_pv_negative(2, 3, -1500, False)),
("row_pv_negative", AMBER, row_pv_negative(1, 1, -1500, True)),
("row_pv_stray", AMBER, row_pv_stray(2)),
]
def samples() -> list:
"""One rendering of every notice, with realistic values, for the test."""
return [
loop_bound(),
output_clamp([Clamp(None, 7412, 5000, "rating")]),
output_clamp(()),
output_clamp([Clamp("inverter-a", -3000, -2500, "device"),
Clamp("inverter-b", 6000, 4600, "max_w+device")]),
peak_saturated(5000),
peak_reserve(5000, soc_unread=False, floor_unknown=False),
peak_reserve(5000, soc_unread=False, floor_unknown=False,
packs=["inverter-b"]),
peak_reserve(5000, soc_unread=True, floor_unknown=False),
peak_reserve(5000, soc_unread=False, floor_unknown=True),
circulating(["inverter-a"], ["inverter-b"]),
circulating(),
not_delivering("inverter-b", "inverter_b"),
meter_frozen(600),
meter_frozen(90),
]